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NMHS Progress Report (Period from March 2019 to March 2020)

1. Project Information

Project ID: MOE-1214 CED Sanction Date: 26.02.2018

Project Title: Conservation of traditional buildings and dissemination of traditional knowledge while simultaneously generating alternate livelihood opportunities. BTG: Conservation of Tangible and Intangible Heritage, Craftsman Training Facility, Dissemination of Knowledge to students and stakeholders to Indian and International students through workshops and architectural live studio, Creating awareness of the richness of traditional heritage, Livelihood options and Employment Generation, People’s Biodiversity Register for conservation and management of Biodiversity.

PI and Affiliation  Dr. Sanjay Chikermane, Assistant Professor (Indian Institute of (Institution): Technology ) Name & Address  Dr. Vipul Prakash, Professor(Indian Institute of Technology Roorkee) of the Co-PI, if any:  Mr. Kiran Vaghela, Hunarshala Foundation, Bhuj

 Ms. Aishwarya Tipnis, Aishwarya Tipnis Architects

 Dr. Arindam Biswas, Faculty of Murp in Department of Architecture (Indian Institute of Technology)

Structured ADAPTIVE RE-USE OF TRADITIONAL STRUCTURE: Site (residence) has been Abstract - identified in Bisoi which is being taken up for restoration/adaptive re-use of the detailing the structures. A design development for Mr Digambar Chauhan’s residence current year completed and construction work is now in process. Renovation work is going at progress [Word Sarmoli for homestays there. Limit 250 words]: CRAFTSMEN TRAINING WORKSHOP: More than 20 Craftsmen have been sensitized to traditional building systems in Mayawati Ashram, Lohaghat. The training in mud plaster, slate roofing and carpentry was given by Nathu Ram – a master craftsman more than 80 years old. A craftsman training workshop was conducted at craftsmen training organization in Gujarat – Karigarshala. The key objective for conducting the craftsmen training was to polish the traditional skills of craftsmen. The training aimed at covering all the traditional techniques used for the construction using both modern and traditional tools. A craft school was setup at Sarmoli, Munsiari. 2 craftsmen were trained by 1 Master craftsman at sarmoli for renovation work of homstays there.

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A lime workshop was organized at bhuj to have training on making lime mortar for stone masonry, plastering and concreting. Following are the proposals which will generate livelihood opportunities for the locals: 1. It is proposed to develop homestays in different districts which will not only be beneficial to the owners but also to the local community which can be involved in activities like local commute of the visitors, cleaning, construction etc. 2. Craftsmen training program aims on training the locals which not only helps us in preserving the traditional techniques but also make the individuals independent and generates a source for income.

Project Partner Affiliations Role & Responsibilities Name Dr. Sanjay Overall project management and structural Principal Investigator Chikermane engineering Expert guidance on seismic behavior of Dr. Vipul Prakash Co-PI systems Dr. Arindam Co-PI Urban settlement issues and paradigms Biswas Mr. Kiran Co-PI Craftsmen training Vaghela Ms. Aishwarya Conservation guidelines and adaptive Co-PI Tipnis reuse studies Biodiversity workshops to gather local Mr. Parth Bapat Consultant community knowledge and generate social interactions Dr.Vinay Nangia Consultant Advisory and management support Manoj Sharma Consultant Community interactions Shilpa Ranade Consultant Architect and designer Kulina Shah Consultant Designer Research on Re-interpretation Techniques Marloes Lisa van PhD Student and Understanding of Traditional der Zanden Himalayan Structures Research on Retrofitting details and Survesh Chetival PhD Student making technical conservation guidelines for the buildings Documentation of building; Monitoring lab work; Research and documentation of Poonam Gamit Junior Research Fellow alternative livelihood options; Workshops for community development Collating documentation and design of Shubham Kumar Junior Project Fellow Bisoi Residence.

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Ankit Chauhan Project Assistant Lab Work

2. Project Site Details

Project Site:  Bisoi,  Advaita Vedanta Ashram, Champawat , Uttarakhand  Sarmoli, Munsyari   Kempty, Mussorie IHR States Covered:  Uttarakhand

Long. & Lat.: Bisoi-

Latitude: 30°34’33.32°N

Longitude:77°59’28.20°E

Advaita Vedanta Ashram-

Latitude: 29°22’23.66°N

Longitude:80°3’40.12°E

Sarmoli, Munsyari- Latitude: 30.0715° N Longitude: 80.2373° E

Woodstock school- Latitude: 30°27′14″N Longitude: 78°6′3″E.

Kempty, Mussorie-

Latitude: 30° 27' 35.6724'' N Longitude: 78° 3' 59.0364'' E Site Maps* (No.): 5. See Annexure A Site Photographs* (No.): 5. See annexure B

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3. Project Activities Chart w.r.t. Timeframe [Gantt or PERT]

WORK UNDERTAKEN OUTPUT PROJECT ACTIVITIES Year 2018-2019 Qtr 1 Qtr 2 Qtr 3 Qtr 4 ACTIVITY - 28th February Mayavati Ashram to 7th March Beam test results are attached Beam Test 2019 as Annexure 1. ACTIVITY - 23rd March - Biodiversity 13 July 2019 Report attached as Annexure 2. Workshop in Bisoi

ACTIVITY - Report attached as Annexure 3. Documentation of 20th May –

house in Bisoi 27th May 2019 Drawings attached as Annexure Village 4. ACTIVITY – 5th June – 18th Training report attached as Craftsmen training June 2019 Annexure 5. at Bhuj Site visit Report Attached as Annexure 6. 19th June – ACTIVITY - Site visit Measured drawings are 26th June to Sarmoli village attached as Annexure 7. 2019 Motif’s catalogue attached as Annexure 8. Site visit report attached as ACTIVITY – Annexure 9. Documentation and 4th July – 13th Distress mapping of Distress mapping report July 2019 High school building attached as Annexure 10. at Woodstock

2nd ACTIVITY – Jagra September – Jagra festival report is attached festival 3rd as Annexure 11. documentation September 2019 28th September – ACTIVITY – Medical Medical camp report is 29th camp at Bisoi attached as Annexure 12. September 2019 ACTIVITY – 8th October Report attached as Annexure Documentation of 2019 13. marriage ceremony

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ACTIVITY – Site visit report attached as 17th October Documentation and Annexure 14. – 21st distress mapping of October 2019 Distress mapping report Quad building attached as Annexure 15. 11th November – ACTIVITY - Site visit Report attached as Annexure 13th to Sarmoli 16. November 2019

th 20 Site visit report attached as ACTIVITY – December Annexure 17. Documentation of 2019 – 4th craft studio workflow January Likhai documentation attached 2020 as Annexure 18. ACTIVITY - 12th Handloom Documentation report attached January Documentation at as Annexure 19. 2020 Sidh foundation ACTIVITY - 27th Handloom Documentation report attached January Documentation at as Annexure 20. 2020 Sidh foundation 9TH ACTIVITY - January – Drawings attached as Annexure Designing of the 30th 21. Bisoi Residence January 2020 4th February – ACTIVITY – Lime Report attached as Annexure 7th workshop 22. February 2020 29th ACTIVITY - Medical February – Report attached as Annexure

camp Bisoi 1st March 23. 2020 ACTIVITY – Work in Report attached as Annexure Construction work Progress 24. at Bisoi ACTIVITY – Wall Report attached as Annexure - test setup 25. ACTIVITY – Wall Report attached as Annexure - construction in lab 26.

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4. Financial and Resource Information Note: A separate bank account is expected to be opened for NMHS Project as per the provision of Direct Beneficiary Account (DBA) as laid out by the Govt. of and also facilitate the audit of accounts. The interest earned out of the NMHS project funds should be reported clearly in the utilization certificate.

Total Grant: Grant Received Date:

Project Affiliations/ Institution Budget Allocated to Work Done by each Project Partner(s) Partner Partner 1 IIT Roorkee Please find attached Annexure.

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Project Staff Information: S. No. Name Qualification Designation Fellowship/ Wages paid Remarks 1. Samragee B. Arch. Senior Project 72000 18000 per Fellow month. 2. Poonam MURP Junior Research 195000 31000 per Fellow month. 3. Shubham B. Arch Junior Project 16000 16000 per Fellow month. 4. Ankit Diploma in Project 144000 12000 per Civil Assistant month. 5.. Shakib Diploma in Project 68000 12000 per Civil Assistant month.

5. Equipment and Asset Information Lowest Details S. Equipment Date of Quotation, (Make/ Cost Photographs of Equipment* No. Name (Qty) Installation if not Model) purchased MS- Loading MS- Frame 1. Loading to test Frame(01) different wall systems

Rs. 2. Planner(01) 47200.00

Rs. 3. Bandsaw(01) 44840.00

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Rs. 4. Drum (01) 42300.00

Rs. 5. Looms(02) 33850.00 each

Carving Rs. 6. equipments 2300.00

6. Expenditure Statement and Utilization Certificate Please update the annual Expenditure Statement and Utilization Certificate (UC) periodically.

Expenditure Information: S. No. Financial Position/Budget Head Funds Sanctioned Expenditure % of Total cost

I Salaries/Manpower cost II Travel III Expendables &Consumables IV Contingencies V Activities & Other Project cost VI Institutional Charges VII Equipments Total Interest accrued Grand Total

Period Expenditure Statement* Utilization Certificate (UC)* Annual [Attach in the prescribed format] [Attach in the prescribed format]

*Attach the descriptive Annexure/ File in the prescribed NMHS format.

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7. Project Beneficiary Groups

Beneficiary Groups Target Achieved [Capacity Building] No. of Beneficiaries with income 22 generation: No. of stakeholders trained, 26 particularly women: No. of capacity building Workshops/ 02 trainings: No. of Awareness & outreach 07 programmes: No. of Research/ Manpower 02 developed:

8. Project Progress Summary* (as applicable to the project) Description (Name of Description Total (Numeric) descriptive Annexure/ File attached)* IHR States Covered 01 Uttrakhand

Bisoi

Advaita Vedanta Ashram

Project Site/ Field Stations Developed: 05 Sarmoli, Munsyari

Woodstock school

Kempty, Mussorie

No. of Patents filed (Description): Nil

Article/ Review/ Research Paper/ 02 Publication: New Methods/ Modellings Developed Nil (description in 250 words):

No. of Trainings (No. of Beneficiaries): 22 Workshop: 02 Demonstration Models (Site): Nil

Livelihood Options: Nil

Training Manuals: Nil

Processing Units: Nil

Species Collection: Page 9 of 13

Species identified: Database (Numeric/Images/GIS Maps, Find Annexure A and B. etc.):

9. Project Linkages (with concerned Institutions/ State Agencies) S. No. Institute/ Organization Type of Linkages Brief Description 1. Malika Virdi Running homestays in Sarmoli from past 10 years. 2. Digambar Chauhan Owner of residence in Bisoi village. 3. Pawan Gupta Founder of SIDH Foundation at Kempty.

10. Knowledge Products – Publication, recommendations, etc. Time Period Publications (Research Papers, Information Material, Policy drafts, Patents, etc.) Annual [Year ...... ] Nil

Note: Attach a separate, descriptive Annexure/ File.

11. Project Concluding Remarks Kindly update the following Progress Parameters for the Reporting Period:

Progress made against Project Quantifiable Output Monitoring Indicators Remarks Objectives against each objective (specified in Sanction Letter)

Site (residence) has been identified in Bisoi which is being taken up for restoration/adaptive re-use 1.To preserve the To identify relevant of the structures. A design existing buildings structures and create development for Mr and conserve both partnerships with house Digambar Chauhan’s the structures and owners to conserve the residence completed and the craftsmanship structure construction work is now in process. Renovation work is going at Sarmoli for homestays there.

More than 20 Craftsmen Creation of Craftsman have been sensitized to 2.Create training facility for traditional building systems craftsmen training traditional buildings and in Mayawati Ashram, facility capacity building of > 100 Lohaghat. The training in Craftsmen mud plaster, slate roofing and carpentry was given by

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Nathu Ram – a master craftsman more than 80 years old. A craftsman training workshop was conducted at craftsmen training organization in Gujarat – Karigarshala. The key objective for conducting the craftsmen training was to polish the traditional skills of craftsmen. The training aimed at covering all the traditional techniques used for the construction using both modern and traditional tools. A craft school was setup at Sarmoli, Munsiari. 2 craftsmen were trained by 1 Master craftsman at sarmoli for renovation work of homstays there. A lime workshop was organized at bhuj to have training on making lime mortar for stone masonry, plastering and concreting.

3. Disseminating the knowledge through workshops and architectural live studios to a host Workshops were conducted of students and Workshops by for collecting data for other biodiversity register of Bisoi. stakeholders from across the country and even possibly international students

Knowledge base on i. Detailed documentation 1. To create an traditional structures of a traditional house awareness of from multiple perspective complex in Bisoi, the richness of of : Mayavati Ashram, the traditional Sarmoli and Woodstock heritage a. Architecture school.

ii. Identified the aspects of

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traditional houses and evolved design paradigms which reflect these traditions and are also congruent with an evolving lifestyle

i. Condition Assessment of structure which helps to determine safety. Assessment includes b. Civil Engineering & distress mapping and Earthquake analysis of structure. Engineering ii. Providing retrofitting solution if structure found deficient in strength.

i. Evolving construction methodologies which while meeting construction deadlines also allow for a scientific evaluation of c. Construction systems Management ii. Mapping the traditional knowledge system through involving master craftsmen in the construction process

i. Develop homestays in different districts which will not only be beneficial to the owners but also to the local community which can be involved in activities 2. To create like local commute of alternative Creation of alternate the visitors, cleaning, livelihood and livelihood options for 10 construction etc. revenue families in 2 district generation ii. Craftsmen training opportunities program aims on training the locals which not only helps us in preserving the traditional techniques but also make the individuals independent and generates a source

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for income.

Methodology (in brief): 1. To identify more structures and create partnerships with house owners to conserve the structures and propose a suitable adaptive re-use. 2. To generate appropriate techniques for the identified regions and disseminate them in a way to local craftsmen to enhance their livelihood opportunities 3. By creating an awareness of the local heritage 4. To first identify the unique nature of the traditional systems and heritage in the communities and to disseminate this across a large section of people 5. To generate economic value of traditional structures and augment the income of rural households

Major Research Achievements: Brief Conclusion - the current year progress – during the reporting period (point-wise): Progress Achieved (%): Remaining work to be done:

Submitted to: Submitted by: Nodal Officer, NMHS-PMU Project PI (Signature): National Mission on Himalayan Studies (NMHS) Institution (Seal): GBPNIHESD HQs, Kosi-Katarmal, Dated (dd/mm/yy): 263643, Uttarakhand E-mail: [email protected]

In case of any query, please contact at: [email protected]

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ANNEXURE 1 Objective – Main objective of present experimental work is to find the behaviour of defected beams and to compare them with standard beam which has no defect.

Testing procedure – The testing was carried out from 28th February to 7th March. First identification of defected beams was done and than one standard beam was selected which was not having any defects. Two wooden platforms were prepared for support of dial gauges. A steel metal base was fixed on wooden platform for each dial gauge for its magnetic base fixing. For smooth and flat contact surface between wooden beam and dial gauge tip, a plate was fixed at bottom of wooden beam with the help of M-seal. Loading was done using sand/mud bags. Weight of each bag was 50kg. Loading was done as uniformly distributed load. Load was applied gradually and readings were taken for a pre decided loading interval. Beams were loaded for 24hrs and 48hrs. Unloading also was done gradually and readings were taken while unloading and 6hrs after unloading.

Section details for standard beam and defected beams were same.

Cross section – 120×150mm.

Length – 3.28m.

Section details for transverse beam:-

Cross section – 200×220mm.

Length – 2.80m.

Standard beam

Location: -In room next to display room (just inside of North East verandah) and next to column.

Area for loading = 3.28×1.4 = 4.592m2.

Applied load = 4.592×200 = 918.4 kg. Say 900kg.

Critical locations for dial gauge reading = Centre, 0.3m, 0.7m, 1m (from support).

Table 1 Load and deflection readings for standard beam

Standard beam Sr. No. Time Load(Kg) Position Centre 1m 0.7m 0.3m Deflection(mm) Deflection(mm)Deflection(mm) Deflection(mm) 1 00 0 0 0 2 100 0.13 0.14 0.1 0.09 3 200 0.38 0.39 0.29 0.22 4 300 0.78 0.75 0.58 0.4 5 400 1.32 1.21 0.93 0.61 6 500 1.98 1.73 1.33 0.83 7 600 2.68 2.25 1.75 1.05 8 700 2.82 2.34 1.91 1.19 9 800 3.04 2.59 2.02 1.25 10 900 3.68 3.1 2.39 1.46 11 24hrs. 900 3.81 3.18 2.47 1.5 12 48hrs. 900 3.81 3.18 2.47 1.5 13 800 3.38 2.85 2.28 1.36 14 700 3.21 2.66 2.21 1.33 15 600 3.07 2.56 2.08 1.2 16 500 2.48 2.11 1.71 1.01 17 400 1.84 1.62 1.31 0.8 18 300 1.27 1.15 0.97 0.6 19 200 0.84 0.76 0.64 0.47 20 100 0.54 0.48 0.4 0.2 21 0 0.34 0.29 0.27 0.11 22 54hrs. 0 0.18 0.22 0.12 0.11

Damage beam – 1

Location: - In room next to display room (just inside of North East verandah) and next to column. Area for loading = 3.28×1.4 = 4.592m2. Applied load = 4.592×200 = 918.4 kg. Say 900kg. Critical locations for dial gauge reading = Centre, 0.3m, 0.7m, 1m (from support). Types of damage seen:

 Hole a little to the right of 0.7 m from support and another hole to the left of this same location just below mid depth  Horizontal crack from support to a little beyond 0.7 m from support at about mid depth.

Table 2 Load and deflection readings for Damage beam-1

Damage beam 1 Sr. No. Time Load(Kg) Position Centre 1m 0.7m 0.3m Deflection(mm) Deflection(mm) Deflection(mm) Deflection(mm) 1 00 0 00 2 100 0.06 0.1 0.1 0.1 3 200 0.26 0.29 0.28 0.27 4 300 0.59 0.61 0.56 0.48 5 400 1.1 1.09 0.96 0.74 6 500 1.7 1.65 1.39 1.01 7 600 2.36 2.25 1.86 1.29 8 700 2.49 2.44 2.07 1.52 9 800 2.69 2.58 2.17 1.59 10 900 3.22 3.05 2.53 1.79 11 24hrs. 900 3.2 3.01 2.54 1.79 12 48hrs. 900 3.22 3.03 2.54 1.76 13 800 2.84 2.7 2.51 1.62 14 700 2.7 2.6 2.46 1.59 15 600 2.65 2.52 2.37 1.49 16 500 2.09 2.01 2 1.26 17 400 1.52 1.49 1.57 1.01 18 300 1.05 1.04 1.2 0.76 19 200 0.67 0.68 0.89 0.52 20 100 0.42 0.43 0.65 0.32 21 0 0.25 0.29 0.52 0.2 22 54hrs. 0 0.03 0.05 0.37 0.12

Damage beam - 2

Location: - In display room (justnear to press room) and next to column. Area for loading = 3.28×1.4 = 4.592m2. Applied load = 4.592×200 = 918.4 kg. Say 900kg. Critical locations for dial gauge reading = Centre, 0.3m, 0.7m, 1m (from support).

 Types of damage seen: long crack seen at the middle span of the beam. This crack was at bottom face along the centre of the section.  A crack was seen at a distance 0.7 m from the support on side face of the beam.  A small crack was seen from the support to 0.3 m location at side face at about mid depth.

Table 3 Load and deflection readings for Damage beam-2

Damage beam 2 Sr. No. Time Load(Kg) Position Centre 1m 0.7m 0.3m Deflection(mm) Deflection(mm) Deflection(mm)Deflection(mm) 1 00 0 00 2 100 0.44 0.11 0.1 0.09 3 200 0.36 0.33 0.28 0.2 4 300 0.79 0.7 0.59 0.34 5 400 1.42 1.19 1.02 0.53 6 500 2.13 1.71 1.49 0.74 7 600 2.71 2.14 1.85 0.89 8 700 2.99 2.43 2 0.96 9 800 3.15 2.53 2.18 1.09 10 900 3.65 2.91 2.51 1.23 11 24hrs. 900 3.87 3.06 2.65 1.28 12 48hrs. 900 3.87 3.06 2.66 1.28 13 800 3.49 2.78 2.42 1.21 14 700 3.37 -0.29 2.29 -1.89 15 600 3.16 2.45 2.19 1.07 16 500 2.6 2.04 1.84 0.92 17 400 1.96 1.57 1.44 0.75 18 300 1.36 1.11 1.02 0.57 19 200 0.86 0.7 0.65 0.38 20 100 0.5 0.4 0.37 0.23 21 0 0.33 0.24 0.22 0.13 22 54hrs. 0 0.01 0.03 0.03 0.02

Damage beam – 3

Location: - In hall next to meditation hall (just inside of South East verandah) and next to column. Area for loading = 3.28×1.4 = 4.592m2. Applied load = 4.592×200 = 918.4 kg. Say 900kg. Critical locations for dial gauge reading = Centre, 0.3m, 0.7m, 1m (from support). Types of damage seen:

 Long crack seen at mid depth (side face) for full beam length  This crack was repaired for a length from 0.7 m from support to almost the end of the other support. This was done by inserting a wooden sliver with fevicol or some adhesive. So the crack is a full span crack with about 0.7 m of it still open and the rest repaired. A small open part of this crack also exists at the other support side

Table 4 Load and deflection readings for Damage beam-3

Damage beam 3 Sr. No. Time Load(Kg) Position Centre 1m 0.7m 0.3m Deflection(mm) Deflection(mm)Deflection(mm)Deflection(mm) 1 00 000 2 100 0.09 0.09 0.09 0.1 3 200 0.25 0.23 0.22 0.21 4 300 0.51 0.48 0.44 0.36 5 400 0.88 0.8 0.72 0.53 6 500 1.3 1.16 1.01 0.7 7 600 1.77 1.55 1.33 0.88 8 700 1.89 1.72 1.51 1.04 9 800 2.07 1.83 1.59 1.09 10 900 2.46 2.16 1.85 1.23 11 24hrs. 900 2.49 2.16 1.87 1.3 12 48hrs. 900 2.5 2.16 1.87 1.3 13 800 2.2 1.93 1.69 1.21 14 700 2.05 1.83 1.63 1.19 15 600 1.95 1.71 1.49 1.04 16 500 1.54 1.36 1.22 0.87 17 400 1.11 0.99 0.9 0.72 18 300 0.71 0.63 0.6 0.52 19 200 0.39 0.34 0.33 0.35 20 100 0.18 0.15 0.16 0.19 21 0 0.07 0.03 0.04 0.07 22 54hrs. 0 -0.17 -0.19 -0.16 0.04

Damage beam – 4

Location: - In hall next to meditation hall (just inside of South East verandah) Area for loading = 3.28×1.4 = 4.592m2. Applied load = 4.592×200 = 918.4 kg. Say 900kg. Critical locations for dial gauge reading = Centre, 0.3m, 0.7m, 1m (from support). Types of damage seen:

 Crack seen at 0.7 m from support at bottom face (centre of section)  Some rotting condition at 1 m from support at the bottom face  Horizontal crack on side face at the opposite support extending beyond 0.3 m length up to centre of span.

Table 5 Load and deflection readings for Damage beam-4

Damage beam 4 Sr. No. Time Load(Kg) Position Centre 1m 0.7m 0.3m Deflection(mm) Deflection(mm) Deflection(mm) Deflection(mm) 1 00 0 0 0 2 100 0.21 0.24 0.25 0.09 3 200 0.45 0.5 0.5 0.12 4 300 0.81 0.88 0.83 0.25 5 400 1.33 1.36 1.24 0.4 6 500 1.9 1.89 1.66 0.55 7 600 2.41 2.34 2.02 0.58 8 700 2.72 2.74 2.44 0.61 9 800 2.86 2.86 2.53 0.69 10 900 3.27 3.23 2.84 0.8 11 24hrs. 900 3.67 3.68 3.27 0.9 13 800 3.33 3.4 3.04 0.88 14 700 3.23 3.33 2.98 0.73 15 600 3.02 3.06 2.71 0.7 16 500 2.58 2.67 2.4 0.6 17 400 2.08 2.24 2.05 0.48 18 300 1.61 1.8 1.68 0.34 19 200 1.23 1.41 1.36 0.24 20 100 0.94 1.11 1.08 0.15 21 0 0.76 0.89 0.86 0.08

Transverse beam

Location: - In meditation hall (just inside of South East verandah) Area for loading = 3.28×2.8 = 9.184m2. Applied load = 9.184×200 = 1836.8 kg. Say 1900kg. Critical locations for dial gauge reading = Centre, each quarter, under loaded beam. Types of damage seen – additional sliver of wood inserted between the beam and the floor above. Lots of indication of insect attack on the surface

Table 6 Load and deflection readings for Transverse beam

Transverse beam Sr. No. Time Load(Kg) Position Centre Outside Quarter Inside Quarter Under loaded beam Deflection(mm) Deflection(mm) Deflection(mm) Deflection(mm) 1 00 0 0 0 2 200 0.23 0.21 0.17 0.2 3 400 0.41 0.37 0.21 0.37 4 600 0.6 0.56 0.31 0.54 5 800 0.74 0.69 0.36 0.68 6 1000 0.86 0.79 0.43 0.79 7 1200 1.23 1.1 0.71 1.14 8 1450 1.48 1.32 0.82 1.38 9 1650 1.97 1.73 1.12 1.84 10 1850 2.47 2.15 1.45 2.31 11 1900 2.58 2.25 1.53 2.42 12 24hrs. 1900 2.74 2.39 1.58 2.55 13 1650 2.38 2.09 1.53 2.2 14 1450 1.99 1.77 1.05 1.83 15 1200 1.74 1.55 0.89 1.59 16 1000 1.42 1.27 0.67 1.29 17 800 1.27 1.14 0.57 1.15 18 600 1.08 0.99 0.46 0.98 19 400 0.85 0.79 0.32 0.75 20 200 0.57 0.53 0.13 0.5 21 0 0.26 0.24 -0.08 0.19 22 30hrs. 0.04 0.06 -0.23 0.01

Standard beam

The length of the standard beam is 3.28. This is, however, the span which is the clear span. The effective span is typically more than this. Assuming that the bearing has an additional span of d on both sides, the effective span becomes 3.28 + 2*d which for a d of 150 mm works out to a total of 3.58 m. For this beam, the locations of instrumentation work out to as per the following table. The load is applied on only the clear span and this is done in a numerical model and the relative displacement values are compared with the experimental averaged results. The averaging is only done for the cases where the central displacement is greater than 1 mm as for lower values, the least count of the measurement may not give accurate results.

location Ratio of L Displacement under udl Averaged site Percentage (percentage of displacement deviation from maximum) (percentage of theoretical maximum) values Centre of span 0.5 1 1 0% 1 meter 0.321 0.849 0.855 0.71% 0.7 meter 0.237 0.689 0.680 -1.3% 0.3 meter 0.126 0.387 0.415 7.2%

location Ratio of L Displacement under udl Site Percentage (percentage of displacement deviation from maximum) maximum load theoretical (percentage of values maximum) Centre of span 0.5 1 1 0% 1 meter 0.321 0.849 0.835 -1.6% 0.7 meter 0.237 0.689 0.648 -5.9% 0.3 meter 0.126 0.387 0.394 1.8%

So, for the standard beam it can be seen that the experimental values give very good correlation with the expected numerical results. The numerical model is made assuming a homogenous cross section. Some small variability is to be expected as the loads aren’t expected to be exactly the same across the beam, although full care has been taken to ensure this. These variations under these circumstances can be considered to correlate excellently with the expected results.

So the shape of the beam under loading can be estimated as being almost the same as is expected from an undamaged beam.

Analysis of the centre deflection with respect to the load is given in the following table

load Percentage Deflection Percentage of of max load mm max deflection 0 0.00 0 0.00% 100 11.11 0.13 3.41% 200 22.22 0.38 9.97% 300 33.33 0.78 20.47% 400 44.44 1.32 34.65% 500 55.56 1.98 51.97% 600 66.67 2.68 70.34% 700 77.78 2.82 74.02% 800 88.89 3.04 79.79% 900 100.00 3.68 96.59% 900 100.00 3.81 100.00% 900 100.00 3.81 100.00% 800 88.89 3.38 88.71% 700 77.78 3.21 84.25% 600 66.67 3.07 80.58% 500 55.56 2.48 65.09% 400 44.44 1.84 48.29% 300 33.33 1.27 33.33% 200 22.22 0.84 22.05% 100 11.11 0.54 14.17% 0 0.00 0.34 8.92% 0 0.00 0.18 4.72%

The load removal gave 95% of the value back – which indicates that the beam is in excellent condition. For a maximum value of deflection of 3.81 mm, for the beam under consideration for the applied load of 900 kg over a 3.28 meter span or an udl of 274.39 kg/m or 2.69 kN/m, the deflection for the numerical standard beam, assuming the estimate of E as 12 GPa is 14 mm. The computed value being much smaller indicates a strong composite action between the beam and the roof above it. This indicates a good connectivity which exists in the system.

Damaged beam - 1

The length of the damaged beam – 1is 3.28. This is, however, the span which is the clear span. The effective span is typically more than this. Assuming that the bearing has an additional span of d on both sides, the effective span becomes 3.28 + 2*d which for a d of 150 mm works out to a total of 3.58 m. For this beam, the locations of instrumentation work out to as per the following table. The load is applied on only the clear span and this is done in a numerical model and the relative displacement values are compared with the experimental averaged results. The averaging is only done for the cases where the central displacement is greater than 1 mm as for lower values, the least count of the measurement may not give accurate results.

location Ratio of L Displacement under udl Averaged site Percentage (percentage of displacement deviation from maximum) (percentage of theoretical maximum) values Centre of span 0.5 1 1 0.00% 1 meter 0.321 0.849 0.963 13.43% 0.7 meter 0.237 0.689 0.879 27.58% 0.3 meter 0.126 0.387 0.599 54.78%

location Ratio of L Displacement under udl Site Percentage (percentage of displacement deviation from maximum) maximum load theoretical (percentage of values maximum) Centre of span 0.5 1 1 0.00% 1 meter 0.321 0.849 0.947 11.57% 0.7 meter 0.237 0.689 0.786 14.04% 0.3 meter 0.126 0.387 0.556 43.64%

So, for this it can be seen that the experimental values do not give a very good correlation with the expected numerical results. The numerical model is made assuming a homogenous cross section. Some small variability is to be expected as the loads aren’t expected to be exactly the same across the beam, although full care has been taken to ensure this. The variations in shape seem to lie outside the bounds of accuracy for the damaged beam.

Analysis of the centre deflection with respect to the load is given in the following table

load Percentage Deflection Percentage of of max load mm max deflection 0 0.00 0 0.00% 100 11.11 0.06 1.86% 200 22.22 0.26 8.07% 300 33.33 0.59 18.32% 400 44.44 1.1 34.16% 500 55.56 1.7 52.80% 600 66.67 2.36 73.29% 700 77.78 2.49 77.33% 800 88.89 2.69 83.54% 900 100.00 3.22 100.00% 900 100.00 3.2 99.38% 900 100.00 3.22 100.00% 800 88.89 2.84 88.20% 700 77.78 2.7 83.85% 600 66.67 2.65 82.30% 500 55.56 2.09 64.91% 400 44.44 1.52 47.20% 300 33.33 1.05 32.61% 200 22.22 0.67 20.81% 100 11.11 0.42 13.04% 0 0.00 0.25 7.76% 0 0.00 0.03 0.93%

The load removal gave 99% of the value back – which indicates that the beam is in an overall good condition.

For a maximum value of deflection of 3.22 mm, for the beam under consideration for the applied load of 900 kg over a 3.28 meter span or an udl of 274.39 kg/m or 2.69 kN/m, the deflection for the numerical standard beam, assuming the estimate of E as 12 GPa is 14 mm. The computed value being much smaller indicates a strong composite action between the beam and the roof above it. This indicates a good connectivity which exists in the system.

Damaged beam - 2

The length of the damaged beam – 2 is 3.28. This is, however, the span which is the clear span. The effective span is typically more than this. Assuming that the bearing has an additional span of d on both sides, the effective span becomes 3.28 + 2*d which for a d of 150 mm works out to a total of 3.58 m. For this beam, the locations of instrumentation work out to as per the following table. The load is applied on only the clear span and this is done in a numerical model and the relative displacement values are compared with the experimental averaged results. The averaging is only done for the cases where the central displacement is greater than 1 mm as for lower values, the least count of the measurement may not give accurate results.

location Ratio of L Displacement under udl Averaged site Percentage (percentage of displacement deviation from maximum) (percentage of theoretical maximum) values Centre of span 0.5 1 1 0.00% 1 meter 0.321 0.849 0.8 -5.75% 0.7 meter 0.237 0.689 0.698 1.38% 0.3 meter 0.126 0.387 0.349 -9.84%

location Ratio of L Displacement under udl Site Percentage (percentage of displacement deviation from maximum) maximum load theoretical (percentage of values maximum) Centre of span 0.5 1 1 0.00% 1 meter 0.321 0.849 0.791 -6.87% 0.7 meter 0.237 0.689 0.685 -0.62% 0.3 meter 0.126 0.387 0.331 -14.54%

So, for this it can be seen that the experimental values give a good correlation with the expected numerical results.

Analysis of the centre deflection with respect to the load is given in the following table

load Percentage Deflection Percentage of of max load mm max deflection 0 0.00 0 0.00% 100 11.11 0.44 11.37% 200 22.22 0.36 9.30% 300 33.33 0.79 20.41% 400 44.44 1.42 36.69% 500 55.56 2.13 55.04% 600 66.67 2.71 70.03% 700 77.78 2.99 77.26% 800 88.89 3.15 81.40% 900 100.00 3.65 94.32% 900 100.00 3.87 100.00% 900 100.00 3.87 100.00% 800 88.89 3.49 90.18% 700 77.78 3.37 87.08% 600 66.67 3.16 81.65% 500 55.56 2.6 67.18% 400 44.44 1.96 50.65% 300 33.33 1.36 35.14% 200 22.22 0.86 22.22% 100 11.11 0.5 12.92% 0 0.00 0.33 8.53% 0 0.00 0.01 0.26%

The load removal gave 99% of the value back – which indicates that the beam is in an overall good condition.

For a maximum value of deflection of 3.87 mm, for the beam under consideration for the applied load of 900 kg over a 3.28 meter span or audl of 274.39 kg/m or 2.69 kN/m, the deflection for the numerical standard beam, assuming the estimate of E as 12 GPa is 14 mm. The computed value being much smaller indicates a strong composite action between the beam and the roof above it. This indicates a good connectivity which exists in the system.

Damaged beam - 3

The length of the damaged beam – 3 is 3.28. This is, however, the span which is the clear span. The effective span is typically more than this. Assuming that the bearing has an additional span of d on both sides, the effective span becomes 3.28 + 2*d which for a d of 150 mm works out to a total of 3.58 m. For this beam, the locations of instrumentation work out to as per the following table. The load is applied on only the clear span and this is done in a numerical model and the relative displacement values are compared with the experimental averaged results. The averaging is only done for the cases where the central displacement is greater than 1 mm as for lower values, the least count of the measurement may not give accurate results.

location Ratio of L Displacement under udl Averaged site Percentage (percentage of displacement deviation from maximum) (percentage of theoretical maximum) values Centre of span 0.5 1 1 0.00% 1 meter 0.321 0.849 0.885 4.24% 0.7 meter 0.237 0.689 0.781 13.42% 0.3 meter 0.126 0.387 0.562 45.19%

location Ratio of L Displacement under udl Site Percentage (percentage of displacement deviation from maximum) maximum load theoretical (percentage of values maximum) Centre of span 0.5 1 1 0.00% 1 meter 0.321 0.849 0.864 1.77% 0.7 meter 0.237 0.689 0.748 8.56% 0.3 meter 0.126 0.387 0.52 34.37%

So, for this it can be seen that the experimental values do not give a very good correlation with the expected numerical results. The numerical model is made assuming a homogenous cross section. Some small variability is to be expected as the loads aren’t expected to be exactly the same across the beam, although full care has been taken to ensure this. The variations in shape seem to lie outside the bounds of accuracy for the damaged beam.

Analysis of the centre deflection with respect to the load is given in the following table

load Percentage Deflection Percentage of of max load mm max deflection 0 0.00 0 0.00% 100 11.11 0.09 3.60% 200 22.22 0.25 10.00% 300 33.33 0.51 20.40% 400 44.44 0.88 35.20% 500 55.56 1.3 52.00% 600 66.67 1.77 70.80% 700 77.78 1.89 75.60% 800 88.89 2.07 82.80% 900 100.00 2.46 98.40% 900 100.00 2.49 99.60% 900 100.00 2.5 100.00% 800 88.89 2.2 88.00% 700 77.78 2.05 82.00% 600 66.67 1.95 78.00% 500 55.56 1.54 61.60% 400 44.44 1.11 44.40% 300 33.33 0.71 28.40% 200 22.22 0.39 15.60% 100 11.11 0.18 7.20% 0 0.00 0.07 2.80% 0 0.00 -0.17 -6.80%

The load removal gave 100 % of the value back – which indicates that the beam is in an overall good condition. The small additional deflections of 0.17 mm are within the expected measurement error and should not be considered as giving more than the displaced value.

For a maximum value of deflection of 2.5 mm, for the beam under consideration for the applied load of 900 kg over a 3.28 meter span or audl of 274.39 kg/m or 2.69 kN/m, the deflection for the numerical standard beam, assuming the estimate of E as 12 GPa is 14 mm. The computed value being much smaller indicates a strong composite action between the beam and the roof above it. This indicates a good connectivity which exists in the system.

Conclusions

After all the testing, it can be seen that most of the beams are in fairly good condition. In some cases the damage is evident where the displaced shape is different from the expected one. In all these cases, however, since the load is giving a full recovery against the displacement, it can be inferred that there isn’t any plastic deformation under the service load conditions. This indicates that the condition of the beams – while in some cases being fairly different from ideal conditions – is still adequate for the loading being applied. For the beams where there is a significant difference from the ideal values, a careful monitoring should be done to ensure that there are no development of cracks or damages in the future. In the event of such happening, immediate actions should be initiated to counter such events.

ANNEXURE 2 Biodiversity Workshops in Bisoi

OBJECTIVE

The key objecve for conducng the workshops was to build relaon with the local community/villagers, to gain their support for the ease of the project. The workshops included making “people’s biodiversity register” and it has been decided to undertake a total of six number of acvies a year, every alternate month, in order to extract the most informaon.

HOW WAS THE WORKSHOP SETUP?

In 2019, three workshops have been organized. The workshops were conducted with the help of Mr Digambar Chauhan, an influenal local person, who helped in communicang and building the relaon with the local community. The team had been trying to interact with the community since April 2016.

PRE-WORKSHOP

As a part of the preparaon for the workshop, one of the team members visits the village 2-3 days prior to the workshop to brief the locals regarding the same. Before every workshop, the team member visits each and every household for invitaons.

It was advised by the member of the local community to contact Siyana Ji, head of the village, to convince people for aending the workshop. The me of the workshop is generally decided on the date of the workshop as per the convenience and availability of the community.

INTRODUCTION

Every workshop has at least one Ecology and Biodiversity expert, who gives a brief of the workshop to the people.

As a part of the acvity, a large group of people was divided into 3 smaller groups who had to idenfy the various vegetables, pulses, spices, grains, oilseeds and fruits etc. in the area.

PARTICIPANTS FROM THE COMMUNITY

Kamlesh Ji, Mimo Devi, Chuma Devi, Naaro Devi, Vanshika, S hobha Devi, Lakshmi, Sunita Chouhan, Kinto Devi, Shivani Devi, Beena Devi, J agat Singh Chauhan, Anand singh Chauhan, Veer Singh Chauhan, Mahender Singh Chauhan

Figure 1: Biodiversity Workshop 3 dated 23.03.2019

Figure 2: Biodiversity Workshop 4 dated 05.05.2019

Figure 3: Biodiversity Workshop 5 dated 13.07.2019

WORKSHOP DELIVERABLES

As a part of the workshop, only the names of the plants/vegetables were idenfied. For converng the informaon gathered during the workshop into processed charts format, provided by Mr Parth Bapat, addional informaon was required.

Subheads of the processed chart are as follows:

1. Name of the Vegetable 2. Name of the Plant 3. Parts eaten 4. Season 5. Locaon 6. Availability 7. Last Eaten 8. Any Other Informaon

Ms Samragee Paul and Ms. Shambhavi Pandey, IIT Roorkee Team, gathered the required data from the local community in the following two days and compiled the chart. Following are compiled chart of all the informaon collected through these workshops in last year. VEGETABLES

S.No: Name of Name Parts Season Locaon Availabili Last Eaten Any Other Photographs the of the Eaten ty Informaon Vegetabl Plant (Religious/Me e dicinal) (Sowing/ harvesng) 01 Palak Pandig Leaves Winter In both cold Available Available in Sowed in (Plant) and hot area Autumn Oct-Nov/ and Harvested in summers March-April

Source: Google 02 Mitho Mitho, Leaves Winter In both cold Available Available in Sowed in (Plant) and and hot area Autumn Oct-Nov/ seeds and Harvested in are summers March-April eaten 03 Mooli Moodi, Leaves 12 In both cold Available Available in 3 months (Plant) and months and hot in all 12 harvesng roots places (more abundan months me is are availability is ce (much required. eaten in cold more Sowing can be areas) than done in any before) month

04 Matar Matar Fruit Winter More oen Available Twice in a Sowed in Aug- (Plant) available in year Sept/ cold places, (Autumn Harvested in in hot places and Nov- Dec available winter) Sowed in Oct- only near Nov/ water Harvested in Mar- Apr

Source: Google 05 Lambi Gagli Leaves Summer/ Available in Available Available in Sowed in Mar- Gagli (Plant) and Rainy both cold Winter Apr/Harvested roots are and hot in Sep-Oct eaten places 06 Kothaao Gagli Leaves Summer/ Available in Available Available in Sowed in Mar- Gagli (Plant) and Rainy both cold Winter Apr/Harvested roots are and hot in Sep-Oct eaten places 07 Bhasaao Gagli Leaves Summer/ Available in Available Available in Sowed in Mar- Gagli (Plant) and Rainy both cold Winter Apr/Harvested roots are and hot in Sep-Oct eaten places

08 Kuchaai Gagli Leaves Summer/ Available in Available Available in Sowed in Mar- Gagli (Plant) and Rainy both cold Winter Apr/Harvested roots are and hot in Sep-Oct eaten places 09 Lambi Baya Fruit Winter In hot areas In hot Available Sowed in Feb- Baya (Plant) available 12 places Mar/ months, in more Harvested in cold places availabilit Nov- Dec only y is near available in water summer and rainy day 10 Gol Baya Fruit Winter In hot areas In hot Available Sowed in Feb- Baya (Plant) available 12 places Mar/ months, in more Harvested in cold places availabilit Nov- Dec only y is near available in water summer and rainy day 11 Gaajar Gaajar Roots Winter Available in Avaialble Available in Sowed in Oct- (Plant) both hot and winter Nov/ cold places Harvested in Feb- Mar

Source: Google 12 Bhindi Bhindi Fruit is In rainy In hot places Available Mostly Sowed in Mar- (Plant) eaten Season available 12 available in Apr/ months, in all the Harvested in cold places it seasons Nov- Dec is seasonal (available only in summers)

Source: Google 13 Aalu Aalu Roots Available Easily Available Easily 3 months Lambi (Plant) are 12month available in available harvesng eaten, s Hot places, me, sowing Leaves seasonally is done are used grows in throughout to feed cold places the year animals

14 Tumdi Aalu Roots Available Easily Available Easily 6 months Aalu (Plant) are 12month available in available harvesng eaten, s Hot places, me, sowing Leaves seasonally is done are used grows in throughout to feed cold places the year animals

15 Kadva Louki, Fruits In Available in Available Easily Sowed in Tumdi (Climbers summers both hot and available feb-mar/ ) / Rainy cold places harvested in season oct- nov

Source: Google 16 Kaddu Kaddu Fruits In Available in Available Easily Sowed in (Climbers are Summer/ both hot and available feb-mar/ ) eaten, Rainy cold places harvested in (Leaves season oct- nov are eaten by animals)

17 Kaakdi/ Kakdi Fruits In Available in Available Easily Sowed in Kheera (Climber) are Summer/ both hot and available mar-apr/ eaten, Rainy cold places harvested in (Leaves season aug- sep are eaten by animals)

Source: Google 18 Khareda/ Aalu Roots Available Easily Available Easily 6 months Kharra are 12month available in available harvesng Aalu eaten, s Hot places, me, sowing Leaves seasonally is done are used grows in throughout to feed cold places the year animals

19 Gol Aalu Aalu Roots Available Easily Available Easily 6 months are 12month available in available harvesng eaten, s Hot places, me, sowing Leaves seasonally is done are used grows in throughout to feed cold places the year animals

20 Lehsan Laseenda Leaves Winter Available in Available Easily Sowed in Oct- (Plant) and both cold available Nov/ roots and hot Harvested in places Apr- May

21 Karela Karela Fruit Summer Available in Available Easily Sowed in feb- (Climber) and rainy both cold available Mar/ season and hot harvested in places Oct-Nov

Source: Google 22 Meeta Karela Fruit Summer Available in Available Easily Sowed in feb- Karela (Climber) and rainy both cold available Mar/ season and hot harvested in places Oct-Nov 23 Tori Toroi Fruit Summer Available in Available Easily Sowed in feb- (Climber) and rainy both cold available Mar/ season and hot harvested in places Oct-Nov

24 Lauki Lauki Fruit Summer Available in Available Easily Sowed in feb- (climber) and rainy both cold Available Mar/ season and hot harvested in places Oct-Nov

Source: Google 25 Tumdi Tumdi Fruit Summer Available in Available Easily Sowed in feb- (Climber) and rainy both cold available Mar/ season and hot harvested in places Oct-Nov 26 Kaakhda/ Kaakhda Fruit Summer Available in Available Easily Sowed in Sagaatra (Lamba and rainy both cold available feb-mar/ (Kaddu) Kaddu) season and hot harvested in (Climber) places oct-nov

27 Chichind Chichinda Fruit Summer Available in Available Easily Sowed in a (Climber) and rainy both cold available feb-mar/ season and hot harvested in places oct-nov

Source: Google 28 Raai Raai Leaves Winter Available in Available Easily Sowed in oct- (Plant) are used both cold available nov/ in and hot harvested in vegetabl places Mar- apr e, seeds are used as spices and condime nts

29 Sarso Sarso Leaves Winter Available in Available Easily Sowed in oct- (Kaali, (Plant) used as both cold available nov/ Peeli) vegetabl and hot harvested in e Seeds places Mar- apr (used to make

oil) Source: Google 30 Cholai Chuwai Leaves Rainy Available Available Easily Sowed in (Plant) are used season only in cold available may-june/ for places harvested in vegetabl oct-nov e, seeds are use as grains Source: Google 31. Padina Padina Leaves 12 Available in Available Easily Harveng (Plant) months both cold available me is 3 and hot months places

Source: Google 32. Dahniya Dhaniya Leaves, 12 Available in Available Easily If Sowed in (Plant) Seeds months both cold available apr-may/ (used in and hot harvested in spices) places aug-sep(only leaves can be used)

If sowed in Source: Google oct-nov/ harvested in apr-may (both leaves and seeds can be used respecvely) 33. Chuk Chuk Fruit 12 Available in Available Easily Available (bada (tree) months both cold available throughout Nimbu) and hot the year places

34. Nimbu Nimbu Fruit 12 Available in Available Easily Available (plant) months both cold available throughout and hot the year places

35. Pyaz Pyaz Leaves 12 Available in Available Easily Root used Pae (Plant) and Root months both cold available throughout and hot the year places leaves are used only in winters Sowed oct-nov/ harvested may-june

36. Paa Paa Plant Available In cold Available Easily In hot places Gobhi gobhi in rainy places available sowed in nov- (Plant) season available dec/ only in rainy harvested in season, in feb-mar. hot places In cold places available sowed in mar-apr/ only in harvested in Source: Google summers aug-sep 37. Shimla Fruit Available Available in Available Easily Sowed in Mirch Mirch in rainy both cold available feb-mar/ (Plant) season and hot harvested in places july-aug-sep

Source: Google 38. Bean Bean Fruit is 12 Available in Available Easily Harvesng used for months both cold available period is 3 vegetabl and hot months e, leaves places are eaten by animals

39. Phool Phool Flower is Winters Available in Available Easily Sowed in Gobhi Gobhi used for and both cold available dec-jan/ (plant) vegetabl spring and hot harvested in e, leaves places mar-apr are eaten by animals Source: Google 40. Shaljam Shaljam Roots Eaten 12 Available in Available Easily Sowed in (safed) months both cold available mar-apr/ (plant) but and hot Harvested in mostly places aug-sep available Sowed in in oct-nov/ winters harvested in and rainy mar-apr season

Source: Google 41. Bhujela Bhujela Fruit Rainy Available in Available Easily Sowed in (Petha) (Climber) Season both cold available mar-apr/ and hot harvested in places aug-sep 42. Bholua Bholua Fruit Summer Available in Available Easily Sowed in (Sem) (Climber) and rainy both cold available feb-mar/ Season and hot harvested in places oct-nov

Its leaves are used medicinally for new born baby SPECIES AND CONDIMENTS

.No: Name of Name Parts Season Locaon Availability Last Eaten Any Other Photographs the Spice of the Eaten Informaon and Plant (Religious/Medicin Condiment al) (Sowing/ harvesng) 1. Dhaniy Dhaniya Seeds 12 Available in Available Easily If Sowed in a (Plant) months both cold available apr-may/ and hot harvested in places aug-sep(only leaves can be used) If sowed in Source: Google oct-nov/ harvested in apr-may (both leaves and seeds can be used respecvely) 2. Besaar Haeed Roots are Winter Available in Available Easily Sowed in (haldi) (Plant) used as both cold available feb-mar/ spices, and hot harvested in leaves places but sep-oct are eaten huge by availability animals is in hot places

Source: Google 3. Mirch Marach Fruit Rainy Available in Available Easily Sowed in (Plant) Season both cold available feb-mar/ and hot harvested in places aug-sep

Source: Google 4. Aado Aado Roots Rainy Available in Available Easily Sowed in (Adrak) (Plant) season both cold available mar-apr/ and hot harvested in places aug-sep

Source: Google 5. Mitho Mitho, Leaves Winter In both Available Available in Sowed in (Plant) and cold and Autumn and Oct-Nov/ seeds hot area summers Harvested in are eaten March-April 6. Lahsan Laseend Roots Winter In both Available Easily Sowed in oct-nov/ (plant) and cold and available harvested in leaves hot area apr-may

7. Pyaaz Pyaaz Roots 12 In both Available Easily Sowed in oct-nov/ (Plant) months cold and available harvested in hot area may-june

8. Raai Raai Seeds Winter In both Available Easily Sowed in oct-nov/ (Plant) are used cold and available harvested in as spices, hot area mar-apr leaves are used as vegetabl e

9. Padina Padina Leaves 12 Available in Available Easily Harveng me is (Plant) months both cold available 3 months and hot places

Source: Google 10. Juaanvi Juaandai Seeds Summe Available in Available Easily Sowed in (Ajwain (used r both cold available feb-mar/ ) both as and hot harvested in spices places june-july and medicina l purpose) 11. Jakhiya Kusoi Seeds Spring Majorly Available Easily Wild plant, not (kusoi) (Plant) Season available in available sown hot places

PULSES

S.No: Name Name of Parts Season Locaon Availability Last Eaten Any Other Photographs of the the Plant Eaten Informaon pulses (Religious/Medicin al) (Sowing/ harvesng) 1. Laal Laal Seeds Rainy Available Available Easily available Sowed in june/ Lobiya Lobiya used as Season in cold Harvested in (Climber) pulses, places aug-sep-oct Leaves eaten by animals 2. Kaala Kaala Seeds Rainy Available Available Easily available Sowed in June/ Lobiya Lobiya used as Season in both Harvested in Aug (Plant) pulses, cold and Leaves hot eaten places by animals 3. Safed Safed Seeds Rainy Available Available Easily available Sowed in june/ Lobiya lobiya used as Season in cold Harvested in (Climber) pulses, places aug-sep-oct Leaves eaten by animals 4. Neela Neela Seeds Rainy Available Available Easily available Sowed in june/ Lobiya Lobiya used as Season in cold Harvested in (Climber) pulses, places aug-sep-oct Leaves eaten by animals 5. Safed- Churbura Seeds Rainy Available Available Easily available Sowed in june/ Kaala ila lobiya used as Season in cold Harvested in Lobiya (Climber) pulses, places aug-sep-oct Leaves eaten by animals 6. Kaale Kaale Seeds Rainy Available Available Easily available Sowed in may-june/ Maas Maas used as Season in both harvested in (urad) (Plant) pulses cold and aug-sep hot places Source: Google 7. Safed Sukhle Seeds Rainy Available Available Easily available Sowed in June-July/ Mass maas used as Season in cold harvested (Plant) pulses places inAug-Sep 8. Konth Konth Seeds Rainy Available Available Easily available Sowed in June-July/ (Marke (Plant) used as Season in both harvested in t name: pulses cold and Sep-Oct Kuthali) hot (same as horse places gram) 9. Sund Seeds Rainy Available Available Easily available Sowed in June-July/ Sund (Plant) used as Season in both harvested in (Marke pulses cold and Sep-Oct t hot Name: places Pajeri Daal)

10. Soonte Soonte Seeds Rainy Available Available Easily available Sowed in June-July/ (Plant) used as Season in both harvested in pulses cold and Sep-Oct hot places 11. Kuaau Kuaau Seeds Winter Available Available Easily available Sowed in oct-nov/ (Peeli used as in both harvested in Matar pulses cold and mar-apr Daal) hot places

Source: Google 12. Bha Bhara Seeds Rainy Available Available Easily available Sowed in June/ (Kaale) Season in both Harvested in cold and aug-sep hot places 13. Masoor Masoor Seeds Summer Available Available Easily available Sowed in oct-nov/ used as in both harvested in pulses cold and mar-apr hot places

Source: Google 14. Moong Moong Seeds Rainy Available Available Easily available Sowed in may-june/ used as Season in both Harvested in pulses cold and aug-sep hot places

Source: Google 15. Tor Tor Seeds Winter Available Available Easily available Sowed in Feb-mar/ (Toor) (Plant) used as in both Harvested in pulses cold and sep-oct hot places

GRAINS

S.No: Name Name Parts Season Locaon Availability Last Any Other Photographs of the of the Eaten Eaten Informaon grains Plant (Religious/Medi cinal) (Sowing/ harvesng) 1. Tain-tai Tain Fruit (used Rainy Available Available Easily Sowed in June/ n Tain as grain) Season in both available Harvested in (Makke Leaves cold and sep-oct ) (eaten by hot animals) places

Source: Google 2. Gurkhiy Gurkhiy Seeds used Rainy Available Available Easily Sowed in June/ an (a an Tain to make Season in both available Harvested in variety tain popcorn, cold and sep-oct of leaves hot tain-tai eaten by places n) animals 3. Jaw Jaw Seeds used Summe Available Available Easily Sowed in to make r in both available oct-nov/ Flour, cold and harvested in leaves hot apr-may eaten by places animals

4. Laal Laal Seeds used Winter Available Available Easily Sowed in Chuaai Chuaai as grains, in both available june-july/ (Maars leaves are cold and harvested in a) eaten by hot nov-dec animals places (without season sowed in oct-nov/ harvested in feb-mar) 5. Safed Safed Seeds used Winter Available Available Easily Sowed in Chuaai Chuaai as grains, in both available june-july/ leaves are cold and harvested in nov-dec eaten by hot (without season animals places sowed in oct-nov/ harvested in feb-mar) 6. Laal Jhangor Seeds Rainy Available Available Easily Sky blue in Jhangor a eaten as Season in both available colour, a rice cold and Mostly eaten hot when ill, places Sowed in mar-apr/ harvested in aug-sep 7. Laal Kaavni Seeds Rainy Available Available Easily Given to infants Kaavni eaten as Season in both available as their first rice cold and meal, hot Sowed in places mar-apr/ harvested in aug-sep 8. Khaki Kaavni Seeds Rainy Available Available Easily Sowed in Kaavni eaten as Season in both available mar-apr/ rice cold and harvested in hot aug-sep places 9. Chaindi Chaindi Seeds Rainy Available Available Easily Sowed in june/ eaten as Season in only available harvested in aug rice cold places 10. Kodon Kodon Seeds used 12 Available Available Easily Its hot (Mandu as flour months in both available Sowed in a/ cold and may-june/ Raagi) hot harvested in places sep-oct 11. Mandai Tyoe of Seeds used 12 Available Available Easily Sowed in n Kodon as flour months in both available may-june/ cold and harvested in hot sep-oct places 12. Dhenku Type of Seeds used 12 Available Available Easily Sowed in dia Kodon as flour months in both available may-june/ cold and harvested in hot sep-oct places 13. Genhu Gyuin Seeds used 12 Available Available Easily Sowed in as flour, months in both available oct-nov/ Plants cold and Harvested in hot apr-may places

14. Ukkhdi Saanthi Seeds 12 Available Available Easily Sowed in Santhi (rice) months in both available mar-apr/ (red cold and harvested in colour) hot sep-oct places (there were only 60 types of seeds inially now there are approx. 200 types available) 15. Kyari Saanthi Seeds 12 Available Available Easily Sowed in Santhi (Rice) months in both available mar-apr/ (White cold and harvested in Colour) hot sep-oct places 16. Phaphr Phaphr Seeds Rainy Available Available Easily Sowed in aug/ a a Season in only available harvested in (Kau) (plant) cold nov-dec places 17. Chaabri Chaabri Seeds( Rainy Available Not Do not Sowed in eaten as Season in only Available rememb mar-apr/ rice) cold now er Harvested in places aug-sep

OILSEEDS

S.No: Name Name Parts Season Locaon Availability Last Eaten Any Other Photographs of the of the Eaten Informaon oilseed Plant (Religious/Medicin al) (Sowing/ harvesng) 1. Peeli Sarso Seeds Winter Available Available Easily Sowed in oct-nov/ sarso (Plant) in both available harvested in cold and mar-apr hot Harvesng me is 6 places months

Source: Google 2. Kaali Sarso Seeds Winter Available Available Easily Sowed in oct-nov/ sarso (Plant) in both available harvested in cold and mar-apr hot Harvesng me is 6 places months

Source: Google 3. Toriya Toriya Seeds 12 Available Available Easily 3 months (Plant) months in both available harvesng me cold and hot places 4. Chullu Chullu Seeds Summe Available Available Easily Seeds are available (Tree) used to rs in only available in summers get oil cold (only places kadva Chullu)

5. Soya Soya Seeds Winter Available Available Easily Sowed in may-june/ bean Bean are used in only available harvested in (Plant) for both cold oct-nov oil and places making vegetabl e

Source: Google 6. Til Til Seeds Rainy Available Less Available Sowed in may-june/ (Plant) Season in both available harvested in cold and oct-nov hot places 7. Surajm Surajm Seeds Winter Available Available Available Sowed in feb-mar/ ukhi ukhi in both but not harvested in (Plant) cold and grown in oct-nov hot bisoi now places

Source: Google 8. Daalda Daalda Seeds - - Found Not Wild (wild recently in available plant) bisoi inially in bisoi 9. Behko Bhenko Seeds Summe Available Available Easily Wild m (wild r in both available Shrub) cold and hot places

10. Bhangj Bhangj Seeds Rainy Available Available Easily Not culvated for eera eera (used to season in both available farming purpose, (5-6 make cold and just few plants are plant) chatni) hot grown, Sowed in places feb-mar/ harvested in nov-dec

FRUITS

S.No: Name Name Parts Season Locaon Availability Last Eaten Any Other Photographs of the of the Eaten Informaon Fruit Plant (Religious/Medicin al) (Sowing/ harvesng) 1. Aam Aam Fruit Summe Available Available Easily (Tree) r in only available hot places

Source: Google 2. Seb Seb Flower Aug-No Available Less than Available Available in any (Tree) comes in v in both before place which has mar-apr, cold and temperature less Fruits hot than 10 degree available places atleast for 15 days in but Aug-Nov majorly in cold Source: Google places 3. Lambi Naashp Fruit In the Available Available Easily - garden a end of in both more than available wali (Tree) rainy cold and before naashp season hot a places 4. Kainth Naashp Fruit In the Available Available Easily - jaisi a end of in both more than available Nashpa (tree) rainy cold and before season hot places 5. Kadva Chullu Peel of Summe Available Available Easily - Chullu (Tree) the fruit r in only available is eaten, cold Seeds places are bier in taste used to make oil

6. Meetha Chullu Peel of Summe Available Available Easily Chullu (Tree) the fruit r in only available and seed cold is also places eaten, Seeds are sweet in taste

7. Pullam Pullam Fruit Summe Available Available Easily (black r in both available and cold and yellow) hot (tree) places 8. Khuma Khuma Fruit Summe Available Available Easily ani ani Seeds r in only available chullu (Tree) are used cold for oil places

9. Angoor Angoor Fruit Summe Available Less Available (Climbe r and in both Available r) Rainy cold and season hot places but mostly available in hot places Source: Google 10. Parsima Parsima Fruit Aug-No Available Less Available Flower comes in l l (Tree) v in only Available mar-apr, Fruits cold available in places Aug-Nov 11. Akhrot Akhrot Fruit Summe Available Available Easily Fruit starts to come (Tree) r and in both Available in mar-apr, Fruits Rainy cold and available to eat in season hot Aug-Sep places

12. Kela Kela Fruit 12 Available Available Available Earlier it was not (Plant) months in only now in available in bisoi hot bisoi but is now available places earlier it was not there

13. Tamata Tamata Fruit 12 Available Available Easily 4-5 months r r months in both Available harvesng me (Plant) cold and hot places

14. Aadu Aadu Fruit Summe Available Available Easily (Fruit) rs in both Available cold and hot places

WILD FRUITS

S.No: Name Name of Parts Season Locaon Availability Last Eaten Any Other Photographs of the the Plant Eaten Informao Fruit n (Religious/ Medicinal) (Sowing/ harvesng ) 1. Ghoj Ghoj Roots Summer and Available Available Easily Wild (Climber) winter (not in only available available in hot rainy places season) 2. Tungo Tungo Seeds Winter Available Available Available Leaves are are in only used to eaten hot make bed as fruit places of animals

3. Aachch Aachchhoi Fruit Summer Available Less Availble Available hoi in only available to eat only cold now in month places of june and july 4. Hisaau Hisaau Fruit Summer Available Available Available Available in both to eat only cold and in month hot of apr and places may

5. Kasmoi Kasmoi Fruit Summer Available Available Easily Its woods (Kilmod (Shrub) in both available and roots a) cold and have hot medicinal places use

6. Kaafo/ Kaafo Fruit Summer Available Available Easily Leaves are Kaafal (tree) in only available eaten by cold animals. places Fruit available to eat in the month of may-june 7. Ber Ber (Shrub Fruit Winter Available Available Easily Roots of available in in only available, the shrub bisoi, in hot tree is not is used to major places here make places it is liquor, a tree fruits available to eat in the month of dec-jan 8. Tedbo Tedbo Fruit Summer Available Available Easily Fruit (Tree) in only available available to hot eat in places june-july Leaves are eaten by animals 9. Kainth Kainth Fruit Winter Available Available Available Fruit (tree) in both available to cold and eat in hot nov-dec places Leaves are but eaten by mostly animals available in cold places

10. Phedu Phedu Fruit 12 months Available Available Available Leaves are (tree) in both eaten by cold and animals, hot woods are places used to burn

11. Kimu Kimu (tree) Fruit Summer Available Available Easily in both Available cold and hot places

12. Bel Bel (tree) Fruit Winter Available Available Available Leaves are in only used in hot Pooja places 13. Dharm Dharmo Fruit Summer Available Less Available - o (Tree) in both available (Chota cold and Anar) hot places but majorly available in hot places 14. Tila Tila Mugri Fruit Spring Available Available Available Mugriy (Grass) in only a cold places

FENCING & ROPES

S.No: Name of Name of Parts Season Locao Availability Last Used Any Other Photographs the Wood the Plant Used n Informaon or rope (Religious/Medi cinal) (Sowing/ harvesng) 01 Patkwar Patkwar Leaves, used 12 In both Available Available Wild (Rambaas) (Shrub) to wash month cold cloths, plant s and hot used for area fencing

02 Bhimal/ Bhiu Wood is Winter In both Available Available The stem is Bhiu (Tree) used to cold dipped in water burn, stem is and hot for days and used to area then rope is make rope made out of it

03 Serul Serul ( Climber is Winter In hot Available Available The stem is Climber) used directly area already strong as rope to enough to be e crops or used as rope leaves, Root is eaten 04 Khadik Khadik Wood is Summ In both Available Available The wood gets (tree) used to er cold roen if comes make house, and hot in contact with Leaves are area water eaten by animals

05 Maava Maava ( Stem is used 12 In hot Available in Available - Bel) to make month area hot places rope, Leaves s are eaten by animals 06 Baan Baan Wood is 12 In cold Available Available - (Tree) used to month Area make house, s Leaves are eaten by animals

11 Devdaar Devdaar Wood is 12 In cold Available Available (Tree) used to month Area make s (above buildings, 6000 also used in .) pooja

FLOWERS FOR POOJA

S.No: Name of Name Parts Season Locaon Availability Last Any Other Photographs the Spice of the Eaten Eaten Informaon and Plant (Religious/Medici Condimen nal) t (Sowing/ harvesng) 1. Chaamur Chaam Leaves 12 Available Available Easily Cures Migrane ur are used months in both available (Plant, for pooja (majorly cold and grass) and as available hot (white fodder in rainy places flower) for season) animals

2. Pengniyar Pengniy Flower Spring Available Available Easily Leaves are used a ara used for in both only in available to cure wounds (Plant, pooja cold and mar-apr grass) hot (yellow places flower) 3. Kujoi Kujoi Flower Spring Available Available Easily Wild (Plant, used for in both available shrub) pooja cold and (white hot rose) places

4. Chawfalut Chawfa Flower Spring Available Available Easily Wild iya luya used for in cold available (grass, pooja places White flower) 5. Chasbirai Chasbir Flower Spring Available Available Available Wild ai used for in cold (Grass, pooja places light yellow flower) 6. Genda Genda Flower Winter & In both Available Easily Wild (Plant) used for Summer cold and available pooja hot area 7. Buransh Burans Flower Available Easily h (Tree) used for available pooja, eaten in various ways Source: Google 8. Gulaab Gulaab Flower In both Available Easily Its not there used for cold and available naturally its pooja hot area planted in the village

Source: Google 9. Baingani Gudhal Flower Rainy Available Available Easily Wild Gudhal used for season in cold available pooja places 10. Pyaz Phul Pyaz Flower Spring Available Available Easily wild phul used for in cold available pooja places

FODDER

S.No: Name of Name Parts Season Locaon Availability Last Eaten Any Other Photographs the of the Eaten Informaon Fodder Plant (Religious/Me dicinal) (Sowing/ harvesng) 1. Guriyao Guriyaa Flower Spring In hot Availability Once in a Guriyaav, Tree n v, Tree is eaten climate has been year when it increasing is in kali from the form past 20 years

2. Khadik Khadik Wood Summe In both Available Available The wood gets (tree) is used r cold and roen if to hot area comes in make contact with house, water Leaves are eaten by animals

3. Bheemal Bhiu Bhiu Wood Winter In both Available Available / Bhiu (Tree) is used cold and to hot area burn, stem is used to make rope

4. Saandad Saanda Leaves 12 Available in Available Available Wild d (Tree) months both cold but less and hot availabi places lity in Summe r 5. Bhaang Bhaang ------6. Maawa Maava Stem is 12 In hot area Available in Available - ( Bel) used to months hot places make rope, Leaves are eaten by animals 7. Geethi Geethi Leaves Winter Available in Available Available Wild (Climber (Tree) only hot is also there places which is used as vegetable and medicine) 8. Baan Baan Wood 12 In cold Available Available - (Tree) is used months Area to make house, Leaves are eaten by animals

9. Buraans Buraan ------h sh

Source: Google 10. Almoda Almoda ------

11. Dhai Dhai Leaves Winters Available in Available Easily Wild (Tree) hot region Available 12. Saknoi Saknoi Leaves 12 Available in Available Available - months hot region 13. Pododa Pododa Leaves Summe Available in Available Available - (plant) r & both cold Wintrer and hot places 14. Bhakum Bhaku Leaves Rainy Available in Available Available Wild ra mra Season both cold (Plant) and hot places 15. Bains Bains Leaves Summe Available in Available Available Wild (Tree) r & both cold Rainy and hot season places

16. Thantar Thantar Leaves Summe Available in Available Available Wild a a (Only r & both cold (Shrub) goats Rainy and hot eat season places them)

Top Trees found in the Forest

S.No: Name of Name of Uses Season Locaon A Last Any Other Informaon Photographs Tree the Tree v Seen (Religious/Medicinal) (Jaunsari (Other) a (Sowing/ harvesng) ) i l a b i l i t y 1. Devdaar Devdaar Wood is 12 In cold Available Available used to months Area make (above buildings, 6000 also used .) in pooja

2. Bhimal Bhiu Wood is Winter In both Available Availabl The stem is dipped in used to cold e water for days and burn, and hot then rope is made out stem is area of it used to make rope

3. Khadik Khadik Wood is Summe In both Available Availabl The wood gets roen used to r cold e if comes in contact make and hot with water house, area Leaves are eaten by animals

4. Dudhla Dudhla Fruits are June-Ju Available Availabl eaten ly e and leaves are used as fodder 5. Baan Baan (Tree) Wood is 12 In cold Available Availabl used to months Area e make house, Leaves are eaten by animals

6. Kaith Kainth Fruit Winter Availabl Available Availabl Fruit available to eat (tree) e in e in nov-dec both Leaves are eaten by cold animals and hot places but mostly availabl e in cold places

7. Buraansh Buransh Flower Available Easily (Tree) used for availabl pooja, e eaten in various ways Source: Google 8. Bhaiduw a 9. Tedbo Tedbo Fruit Summe Availabl Available Easily Fruit available to eat (Tree) r e in availabl in june-july only e Leaves are eaten by hot animals places 10 Kaafo Kaafo/ Fruit Summe Availabl Available Easily Leaves are eaten by Kafal (tree) r e in availabl animals. only e Fruit available to eat cold in the month of places may-june 11 Bains Bains Leaves Summe Availabl Available Availabl Wild (Tree) r & e in e Rainy both season cold and hot places

12. Kimu Kimu (tree) Fruit Summe Availabl Available Easily r e in Availabl both e cold and hot places

13. Chullu Chullu/ Peel of Summe In cold Available Once Chatni is made by Chulyaudi the fruit r places every drying the peel of the (Tree) is used to (June-J summe fruit make uly) r chatni

14. Ber Ber (Shrub Fruit Winter Availabl Available Easily Roots of the shrub is available in e in availabl used to make liquor, bisoi, in only e, tree fruits available to eat major hot is not in the month of places it is places here dec-jan a tree 15. Guriyaw Guriyaav, Flower is Spring In hot Availabilit Once in Guriyaav, Tree Tree eaten climate y has a year when it been is in kali increasin form g from the past 20 years

16. Pilikh Pilikh, Tree Fresh Spring In hot Availabilit It is 2-3 years back a topmost climate y has mostly person in the village new been availabl has eaten leaves increased e in from the chani, past 20 so years there it is eaten more 17. Tungo Tungo Seeds Winter Availabl Available Availabl Leaves are used to are eaten e in e make bed of animals as fruit only hot places

18. Thantara Thantara Leaves Summe Availabl Available Availabl Wild (Shrub) (Only r & e in e goats eat Rainy both them) season cold and hot places 19. Saandad Saandad Leaves 12 Availabl Available Availabl Wild (Tree) months e in e but less both availabi cold lity in and hot Summe places r

CONCLUSIONS

As the aim of the project is to create livelihood and beer living for the local community, it is proposed to understand the importance of forests to the community and save the species and the forest from going exnct. The powerpoint presentaon had a great impact on the community as they got a glimpse of the project and the work that has been done in Bisoi so far.

ANNEXURE 3 Site Visit Report – Bisoi 20th May 2019 to 27th May 2019

The report documents the overall information and data obtained from Measured Drawing Documentation of Mr. Digamber Chouhan residence which was carried out in Bisoi during the site visit from 20th May 2019 to 27th May 2019.

The objectives of the visit was to obtain the accurate measurement that reflects the existing state of the building and to also document the techniques used to construct such buildings.

The team was required to produce more number of sections, elevations, detail connection and existing joinery details of each column, beam and planks with numbering on each of them which helps the team and craftsmen to conserve and restore the building in an optimal way.

The drawing documentation covers the entire measurement from corners to edges in order to obtain and produce accurate dimension of each and every single spaces of the building.

ANNEXURE 4 c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

SITE PLAN

PATHWAY

PATHWAY 7184

2210

LVL -580mm LVL -280 mm 5302 4743

4561 3500

4393 6340

LVL -430 mm

LVL -240 mm PATHWAY

3522 BM LVL -240mm4351 PATHWAY LVL +650 mm LVL +500 mm LVL -530mm LVL +650 mm LVL -610mm

4447

6577

4387 LVL -380mm

PATHWAY

1341 LVL +00 mm 3429 4872 1621UP 2217 10061 LVL -410 mm

PATHWAY

Room -01

2390 X 3420mm

Verandah LVL + 580

3200 X 3200mm

Toilet

1330 X1855mm

LVL +580 mm

PATHWAY LVL +650 mm

PATHWAY

RESIDENCE AT BISOI

DRAWN BY: SAMRAGEE DATE: 09.01.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A1 SCALE 1:150 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES : A B C 1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

GROUND FLOOR PLAN

D D OBARA (Ground Floor) 4500 X 2750mm E E

LVL -610 mm

UP A B C

EXISTING BUILDING

RESIDENCE AT BISOI

DRAWN BY: S. BHANDARI DATE: 02.08.2018

GUIDED BY: SHILPA RANADE

SHEET NO: A2 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED A B C 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

GROUND FLOOR RCP

D D

E E

A B C

EXISTING BUILDING

RESIDENCE AT BISOI

DRAWN BY: SHUBHAM DATE: 03.06.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A3 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS A B C OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

FIRST FLOOR PLAN

LVL +1560mm

D LVL +1430mm LVL 1500 mm D Rasoi Kudho (Attic Floor) LVL +1550mm LVL +1520 mm 1400 X 5100mm 4500 X 5100mm E E

LVL +1520 mm LVL+1430mm LVL +1560mm Maach 750x5100mm

DN

A B C

EXISTING BUILDING

RESIDENCE AT BISOI

DRAWN BY: S. BHANDARI DATE: 02.08.2018

GUIDED BY: SHILPA RANADE

SHEET NO: A4 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. A B C 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

FIRST FLOOR RCP

D D

E E

A B C

EXISTING BUILDING

RESIDENCE AT BISOI

DRAWN BY: SHUBHAM DATE: 03.06.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A5 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY. 1250

DOCUMENTATION

SECTIONS 900 KEY PLAN

A B C 370

D OBARA (Ground Floor) D 4.5 X 2.75 E LVL - 0.9 M E 1130 UP

A B C

EXISTING BUILDING 550

Section AA 1250 900 370 1130

RESIDENCE AT BISOI

610 DRAWN BY: S. BHANDARI DATE: 02.08.2018

GUIDED BY: SHILPA RANADE

SHEET NO: A6 SCALE 1:50 RESILIENT Section BB HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY. 1250

DOCUMENTATION

SECTIONS 900 KEY PLAN

A B C 370

D OBARA (Ground Floor) D 4.5 X 2.75 E LVL - 0.9 M E 1130 UP

A B C

EXISTING BUILDING 610

Section DD 1250 900 370 1130

RESIDENCE AT BISOI

610 DRAWN BY: S. BHANDARI DATE: 02.08.2018

GUIDED BY: SHILPA RANADE

SHEET NO: A7 SCALE 1:50 RESILIENT Section EE HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY. 1250

DOCUMENTATION

ELEVATIONS 900 370 1130 550

Eastern Elevation 1250 900 370 1130

RESIDENCE AT BISOI 550 DRAWN BY: S. BHANDARI DATE: 02.08.2018

GUIDED BY: SHILPA RANADE

SHEET NO: A8 SCALE 1:50 RESILIENT Western Elevation HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY. 1250

DOCUMENTATION

ELEVATIONS 900 370 1130 550

Southern Elevation 1250 900 370 1130

RESIDENCE AT BISOI

610 DRAWN BY: S. BHANDARI DATE: 02.08.2018

GUIDED BY: SHILPA RANADE

SHEET NO: A9 SCALE 1:50 RESILIENT Northern Elevation HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

WORKING DRAWING

FIRST FLOOR RCP

KEY PLAN

A B C

B1 B1

D OBARA (Ground Floor) D 4.5 X 2.75 C1 C2 C3 C4 C5 C6 C7 C8 C9 C10 C11 C12 C13 C14 C15 C16 C17 C18 C19 C21 C22 C23 E LVL - 0.9 M E C20

B2 B2 UP

A B C

EXISTING BUILDING

B3 B3

C24 C26 C27 C29 C30 C31 C32 C33 C34 C35 C36 C37 C38 C39 C40 C42 C43 C44 C45 C41 C25 C28 A/B/C A/B/C

B4 B4

C46 C48 C49 C51 C52 C53 C54 C55 C56 C57 C59 C60 C61 C62 C63 C64 C65 C66 C68 C69 C47 C50 C58 C67 C70 A/B/C

B5 B5

B6 B6

C71 C72 C74 C75 C76 C77 79 C80 C81 C82 C83 C84 C85 C86 C87 C88 C89 C90 C91 C92 C93 C94 C95 C96 C73 C78

B7 B7

RESIDENCE AT BISOI

DRAWN BY: SHUBHAM DATE: 03.06.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A10 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH S5 S6 REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY. 1250

S1 S2 S3 S4 S7 S8 S9 S10

S11 WORKING DRAWING

SECTIONS

S12 S13 S14 S15 S16 S17 S18 S19 S20 900 KEY PLAN

A B C 370

D OBARA (Ground Floor) D 4.5 X 2.75 E LVL - 0.9 M E 1130 UP

A B C

EXISTING BUILDING 550

Section AA 1250

W6 W10 W14 W7 W8 W9 W11 W12 W13 W15

W1 W2 W3 W4 W5 900 W16 W17 W18 W19 W20 W21 W22 W23 370 1130

RESIDENCE AT BISOI

610 DRAWN BY: SHUBHAM DATE: 03.06.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A11 SCALE 1:50 RESILIENT Section DD HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

WORKING DRAWING

SECTIONS

KEY PLAN

A B C

D OBARA (Ground Floor) D 4.5 X 2.75 E LVL - 0.9 M E

UP 1250

A B C

EXISTING BUILDING E3 E6 E10 E1 E2 E4 E5 E7 E8 E9 E11

E21 E22 E23 E24 E25 E26 900 E12 E13 E14 E15 E16 E17 E18 E19 E20 370 1130 610

Section EE

RESIDENCE AT BISOI

DRAWN BY: SHUBHAM DATE: 03.06.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A12 SCALE 1:50 RESILIENT HIMALAYAN HOMES

ANNEXURE 5 1. Karigarshala, Bhuj (05.06.2019 – 18.06.2019)

1.1 Objective

The key objective for conducting the craftsmen training was to polish the traditional skills of the existing craftsmen, who are already practicing in the area, so that the live model for the project can also be completed in time. The training aimed at covering all the traditional techniques used for the construction using both modern and traditional tools.

1.2 About

Karigarshala, a non-governmental/private institute in Bhuj, Gujarat, was established in 2011 for training of drop out students (16-22 yrs old) in skills like carpentry, construction of different style of walls, plumbing, electrical etc. Mr Kiran Vaghela, co-founder of Karigarshala, was contacted by IIT Roorkee team for conducting a handicraft training program for the project National Mission for Himalayan region, with the intention of generating livelihood opportunities for the local people.

08.06.2019

Fig. 1 Image showing karigarshala Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj

Mr. Shubham, team IIT Roorkee, visited Bhuj along with two craftsmen Mr. Vinesh Negi and Mr. Yashpal Singh from Bisoi, Uttarakhand for a period of 2 weeks to polish the traditional skills and to have an insight of the institute and plan the way forward with Mr Kiran Vaghela as karigarshala is currently practicing a similar format of generating employment sources for the dropout kids from the rural areas by training them. How was the craftsman training setup?

The training was conducted with the help of Mr. Atul Vyas Bhai (Coordinator) and Mr. Vasant Rajesh Maheswari (Faculty), Karigarshala, Bhuj, who helped in communicating and coordinating the relation with the craftsmen. The team of Karigarshala, Bhuj had tried their best to make the craftsmen understand the importance of each and every tools and techniques used for the construction of any traditional building.

1.3 Introduction

The training commenced with a brief introduction, given by Mr Kiran Vaghela, Co-founder Karigarshala, Bhuj. The expert faculty gave the basic introduction of each and every tool available with them during the session. Later the craftsmen started the session by understanding the safety measures and precaution which should be adopted while working with different tools. During the sessions the craftsmen work on different tools for understanding their uses. The craftsmen had also tried to carve the fresh wooden members and produce a numbers of circular designs while doing the practice. Apart from understanding the tools they have also learned how to minimize and reduce the amount of wood in construction using different traditional techniques.

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Fig. 2 Image showing the safety measures made by craftsmen with the modern tools Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj 09.06.2019

Fig. 3 Image showing the craftsmen understanding the function of different modern tools Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj

09.06.2019

Fig. 4 Image showing the craftsmen working with the modern tools Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj

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Fig. 5 Image showing the joint made by the craftsmen using modern tools Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj 1.4 Joinery

Joinery is a part of woodworking that involves joining together pieces of wood , to produce more complex items. Some wood joints employ fasteners, bindings, or adhesives, while others use only wood elements. The characteristics of wooden joints - strength, flexibility, toughness, appearance, etc. - derive from the properties of the materials involved and the purpose of the joint. Therefore, different joinery techniques are used to meet differing requirements. For example, the joinery used to construct a house can be different from that used to make puzzle toys, although some concepts overlap. Many traditional wood joinery techniques use the distinctive material properties of wood, often without resorting to mechanical fasteners or adhesives.

During the training sessions the craftsmen have hand on different joinery details which includes Butt joints, Lap joints, Dovetail joints, Biscuit joints, Tenon and Mortise, Cross lap etc. A biscuit joint is a woodworking tool used to join two pieces of wood together. It uses a small circular saw blade to cut a crescent-shaped hole in the opposite edges of two pieces of wood or wood composite panels. An oval-shaped, highly dried and compressed wooden biscuit is covered with glue, or glue is applied in the slot. The biscuit is immediately placed in the slot, and the two boards are clamped together. The wet glue expands the biscuit, further improving the bond. They have also learned the easy way to make the joints in huge amount using different modern tools and traditional techniques

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Fig. 6 Image showing the uncarved wooden member fixed in machine for the carving Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj

12.06.2019

Fig. 7 Image showing the carved wooden member carved by our craftsmen Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj 12.06.2019

Fig. 8 Image showing the wooden products made by the craftsmen during their training. Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj

12.06.2019

Fig. 9 Image showing the interaction of the craftsmen with the co-founder Mr Kiran Vaghela explaining the techniques and approach used for carving the wood. Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj

13.06.2019

Fig. 10 Image showing the craftsmen learning the function of modern tools from the faculty Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj 14.06.2019

Fig. 11 Image showing the joining detail of the roofing structure made by the craftsmen Picture credits: Shubham, Location of Photograph: Karigarshala, Bhuj

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Fig. 12 Image showing the team of Karigarshala, Bhuj, IIT Roorkee and the local craftsmen from Bisoi, Uttrakhand Picture credits: Amit Vyas, Location of Photograph: Karigarshala, Bhuj

1.5 Conclusion

The training session concluded with a very amazing experience for the craftsmen. It helped the craftsman to polish the traditional skills who are already practicing in the area. The craftsmen have learned different joinery details, function of different modern tools and procedures for carving during the training. The training winded up covering all the traditional techniques used for the construction using both modern and traditional tools.

ANNEXURE 6 Site visit to Sarmoli (Munsyari)

Objective:To study vernacular architecture and its different design elements present in traditional homes in Munsyari region. Introduction: Location and setting of Sarmoli, Munsyari

Sarmoli is a small village situated just a kilometer away from Munsyari, Uttarakhand and is nestled in the backdrop of the Panchachuli Range and located above the wild Gori Ganga River.

Figure 1 Image showing Sarmoli Village, source: Google Maps

Latitude and Longitude Values:30.079142, 80.237329 Sarmoli Pouplation – , Uttarakhand

Sarmoli is a medium size village located in Munsyari Tehsil of Pithoragarh district, Uttarakhand with total 216 families residing. The Sarmoli village has population of 848 of which 403 are males while 445 are females as per Population Census 2011.

In Sarmoli village population of children with age 0-6 is 103 which makes up 12.15 % of total population of village. Average Sex Ratio of Sarmoli village is 1104 which is higher than Uttarakhand state average of 963. Child Sex Ratio for the Sarmoli as per census is 1146, higher than Uttarakhand average of 890.

Sarmoli village has higher literacy rate compared to Uttarakhand. In 2011, literacy rate of Sarmoli village was 86.58 % compared to 78.82 % of Uttarakhand. In Sarmoli Male literacy stands at 92.96 % while female literacy rate was 80.77 %. As per constitution of India and Panchyati Raaj Act, Sarmoli village is administrated by Sarpanch (Head of Village) who is elected representative of village. Census data, doesn't have information about schools and hospital in Sarmoli village. Details of site visit to Sarmoli – Day 1 – June 19, 2019

On June 19, 2019 our research team from IIT Roorkee, consisting of Lalita Waldia(Project associate), Poonam Gamit(Research Associate) and Haritya Shah(Intern) departed at about 10:30 a.m. from Roorkee in a private taxi for Munsyari. Along the way, we stopped for lunch at a highway restaurant near Kashipur at around 4:00 p.m.We reached Bhimtal at around 8:00p.m., found a hotel and halted there for the night. Day 2 – June 20, 2019

We left Bhimtal early in the morning at about 6:00 a.m.towards Munsyari. At about 12:30 p.m. out taxi broke down sometime after crossing Sheraghat. We shifted to local transport. From there we found a taxi to thal, then to munsyari. We reached Munsyari at about 8:00 p.m., met our homestay host, Hirma Sumtiyal, had dinner and then to bed. Day 3 – June 21, 2019

After waking up at 7:00 a.m., freshening up and having breakfast, at around 10:00 a.m., we met Kamla di. She led us to the office of Malika Virdi up on the mountain. There we had a meeting with her, of which a short synopsis is written below, and members of Maati Sangathan regarding our work and stay in Sarmoli for the next six days.

Meeting Synopsis

Our meeting commenced with introduction of everyone present, including us. Then Mallika ji gave a brief of three of her initiatives.

1. Sarmoli Jainti Van Panchayat- She is currently the Sarpanch. Home Stays were initiated in 2004 through this Institution. 2. Maati Sangathan- she is founder member. A lot of women who are members of Maati also run Home Stays and are guides with Himalayan Ark. 3. Himalayan Ark- She is Director and though which the Home Stays are run. 4. Himal Prakriti- A Trust for Nature- She is Managing Trustee. This trust supports activities that strengthen natural resource based livelihoods, including the Home Stays and Nature guides. It is through Himal Prakriti that we will be collaborating with RHH.

She moved on to describe the challenges faced during the implementation of her initiatives, how the local people had lost their interaction with nature, how they were reluctant to participate in homestays, etc. But through the afore mentioned initiatives, the local people in Munsiari region, over the years re- established their relationship with nature with a different approach and eventually it decreased the out- migration rate. They not only relied on farming for income but started exploring new ways such as homestays, high altitude trekking guide, bird watching etc. And so the locals along with Mallika ji developed a sustainable ecosystem as we now know. 21.06.2019

Figure 2 Meeting with Malika Virdi and members of Maati Sangathan (Credits – Poonam)

Coming to the main agenda for the meet, we discussed the following points –  Documentation and at - length study of two traditional homestays present in sarmoli, Munsyari tehsil, in order to understand their design and construction detail.  Where in and around Sarmoli we can find traditional houses with carvings and motifs.  To visit all the homestays in this region and figure out what elements (carvings on doors and windows, etc.) could be added to give them a traditional aesthetic.  Visit the tribal museum and study the preserved patterns, motifs, carving present there.  How to go about the designing process after studying. For this we proposed two or three ideas and collectively agreed that a design studio would be conducted in this region with architectural students and the panel would also contain locals. This would benefit us as we would be able to gather their viewpoints on the proposed design and for the locals, they would get accustomed to the process of designing and learn to apply it by themselves in the future.

21.06.2019

Figure 3 Hira Toliya's House (Credits – Lalita)  At the end of the of our trip, present to the locals what we learnt in the past few days and thus keep them in the loop. After that we proceeded to Hira Toliya’s house, made in vernacular style architecture with one room dedicated to homestays. With her permission, we started documenting the house. In evening, we came back to our room. After having delicious tea served by our host and enjoying the view for some time, we got back to work. Two of us, Poonam and Lalita, started drafting plans and sections of Hira’s house in AutoCAD. At about 8:00 p.m., we were called for dinner. For dinner we were served a freshly prepared home-cooked meal. Later in the night, we planned out our activities for next day and then went to bed. Day 4 – June 22, 2019

After freshening up and having breakfast, we started our day at about 9:00 a.m. As planned the earlier day, we divided all 18 homestays among ourselves and started visiting them. For 13 of them we successfully collected information as to when did they start homestays, how old is their house, etc. We

22.06.2019 22.06.2019

Figure 4 Bina Nitwal's House (Credits – Lalita) Figure 5 Chandra's House Credits – Lalita)

also photographed their houses, elevation and details of windows, doors and any other unique/traditional feature. In the second half, after having lunch, Poonam andLalita studied motifs, and sketched elevations and detailed section of doors and windows of Hira’s house, while Haritya compiled the data collected on homestays. Poonam and Lalita also looked for motifs in other houses in Sarmoli. But unfortunately most of the houses in Sarmoli have been constructed recently, so they couldn’t find

22.06.2019

Figure 6 One of the design sketches prepared by Poonam and Lalita any proper motifs/designs other than those present in Hira’s house. Day 5 – June 23, 2019

After freshening up in the morning, we started our day at about 9:30 a.m. In the first half, Haritya covered the remaining Homestays while Poonam and Lalita worked on AutoCAD drawings of plans,

23.06.2019

Figure 4 Recent addition of rooms for homestay in Basanti Rawat's house. Credits – Lalita) sections and elevations of Hira’s house. After lunch, all of us went to Hira’s house and completed all the remaining site work needed to prepare AutoCAD drawings of Hira’s house. Poonam and Lalita also studied and sketched all motifs present in Hira’s house. We wound up all our work at site by 6:00 p.m. and came back to our room. After that, Poonam and Lalita worked on the sketches and on AutoCAD plans till dinner, while Haritya compiled data of the remaining 5 Homestays which he surveyed in the morning. Day 6 – June 24, 2019

Waking up at about 7:00 a.m., freshening up and having breakfast, we started our day at about 9:00 in the morning. We decided collectively and went to visit the tribal heritage museum owned by Neema Pangtey’s family to study carvings and motifs preserved there. Unfortunately, we were not allowed to click detailed pictures of exhibits inside the museum, but allowed to click pictures of carved windows and doors of museum’s building. When we started to head back to our room, it started raining. Halfway through our walk, it started raining heavily so we had to stop at a local’s house for about an hour, till the rain stopped. After having lunch, we couldn’t go out to study more motifs and designs due to terrible weather. So Poonam and Lalita started working on design sketches. They made some pretty beautiful sketches. 24.06.2019

Figure 5 Tribal Museum in Nanasame(Munsyari) owned by Neema Pangtey's family (Credits – Poonam)

Day 7 – June 25, 2019

After getting ready, Lalita and Haritya went to Darkot, a nearby village 6 kilometers from Munsyari. Malika had suggested us to go there and study designs and motifs present there. Poonam stayed back at our room and continued sketching designs. In Darkot, Lalita and Haritya met Geeta Pangtey, who was our point of contact there. She guided them through the village to different houses having doors and windows with various beautiful designs inscribed upon them. After studying them and photographing them in detail, Lalita and Haritya headed back to Sarmoli, reaching Sarmoli at about 2:00 p.m. After resting for some time, Poonam and Lalita started sketching different designs while Haritya worked on the report. Day 8 – June 26, 2019

We left Sarmoli at 6:30 a.m. in the morning and reached at 7:30 p.m. After having dinner, we left Haldwani at 10:30 p.m. for , switched buses there and reached Roorkee at 6:30 a.m. on June 27, 2019. Characteristics of Traditional House – Munsyari 21.06.2019 A typical traditional house in Sarmoli would consists of two floors, ground floor for storage and animal shelter, and first floor as residence (see Fig. 3). The house is made up of stone with wooden rafters and planks for roofs and floors. Walls, 500 mm thick, are plastered with a layer of mud to give them a smooth finish and for insulation. Kitchen and toilet are made independent of the main house.

Ground floor is generally divided into 4 rooms out of which 3 are connected to the fourth one which in turn has a main entrance. This provides seamless access to all the rooms present on ground floor. Also one of the 3 side rooms may have a side entrance. All doors on the ground floor have raised Figure 6 Ground floor main sills in order to prevent contamination by water and filth. Walls of the ground floordoor (Creditsare raised – Poonam) to a height of about 1.8m.

First floor is also divided into 4 rooms having the same plan of rooms as on the ground floor. 3 of these

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Figure 8 Dodari tyapri, two panel window Figure 7 First floor main entrance (Credits – Poonam) with carvings on door (Credits – Poonam) are bedrooms connected to living room which in turn is connected to the main door (kholi) accessible by stairs. All bedrooms are properly ventilated with at-least one window. Windows and doors present all over the house contain intricate carvings known as likhai. Double panel windows are known as Dodari tyapri and three panel windows are known as Tridyari tyapri.

Figure 12 3D view of Ground Floor Ceiling (Credits - Lalita) Figure 13 3D view of First floor roofing showing main rafters, cross rafters and tin (Credits – Lalita)

Figure 14 3D view of Two layers of corbel placed at regular interval to support overhang (Credits – Lalita) 21.06.2019

Figure 15 3D view of Overall Roof plan (Credits – Lalita)

Figure 16 First floor roof showing cross rafters and main rafter (Credits – Poonam)

Ground floor roof consists of main rafters layered with cross rafters on top of it. Wooden planks are layered on the cross rafters which in turn would act as flooring for the first floor. For the main pitched roof 6 to 7 main wooden rafters would support cross rafters, which would support wooden planks. On top of these planks, slates would be layered out for weather proofing and protection. But due to high maintenance of slate, people have started using tin roofs which have longer life and are easy to handle. Tin is directly layered on top of cross rafters eliminating the need for wooden planks. The overhangs of roofs are supported by a layer of corbels (Gitti) placed at regular intervals. Tin gutters are placed at the end of roofs, attached to eaves for drainage. Conclusion

During our visit to Sarmoli we studied traditional architecture, designs and motifs prevalent in Munsyari region. After coming back to Roorkee, in the next 3 days, we completed all of the measurement drawings and sketches which were to be prepared. All designs of carvings and motifs collected during our visit to Sarmoli where properly sketched and studied. They, in the future, will be used to design carvings on doors and windows of Homestays through a design studio to be held in Sarmoli by our team.

ANNEXURE 7 c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

5560 DOCUMENTATION

WASHROOM SITE PLAN 2385

3025 2910

STORE 3330

5025 2800 NEW UNIT 6860

7325

6190 3540 3770 1240 7235

6595 NEW KITCHEN

6520 5410 4770

6195

RESIDENCE AT SARMOLI

DRAWN BY: LALITA DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A1 SCALE 1:100 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

A B DOCUMENTATION

GROUND FLOOR PLAN

GF Room 2 3820 X 3110 mm LVL +560 mm

GF Room 1 2150 X 5780 mm GF Room 4 2150 X 5780 mm LVL +285 mm LVL +455 mm

GF Room 3 2170 X 3820 mm C LVL +295 mm C

LVL ± 00 mm A B

RESIDENCE AT SARMOLI

DRAWN BY: POONAM DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A2 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION A B FIRST FLOOR PLAN

FF Room 2 3820 X 3100 mm

LVL +2500 mm

FF Room 1 FF Room 4 2150 X 5780 mm 2150 X 5780 mm

LVL +2110 mm LVL +2280 mm

FF Room 3 2170 X 3820 mm C LVL +2220 mm C

A B

RESIDENCE AT SARMOLI

DRAWN BY: POONAM DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A3 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

SECTIONS 1020 2185 995 665 265 295

Section AA

RESIDENCE AT SARMOLI

DRAWN BY: LALITA DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A4 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

SECTIONS 1015 2125 1085 740 455

Section BB

RESIDENCE AT SARMOLI

DRAWN BY: LALITA DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A5 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

SECTIONS 1105 2035 1825 455

Section CC

RESIDENCE AT SARMOLI

DRAWN BY: LALITA DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A6 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

ELEVATIONS 1415 3005 735 270

Side Elevation

RESIDENCE AT SARMOLI

DRAWN BY: LALITA DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A7 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

SECTIONS 1480 2720 955 270

Front Elevation

RESIDENCE AT SARMOLI

DRAWN BY: LALITA DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A8 SCALE 1:50 RESILIENT HIMALAYAN HOMES c Indian Institute of Technology, Roorkee THIS DRAWING IS THE PROPERTY OF INDIAN INSTITUTE OF TECHNOLOGY, ROORKEE

NOTES :

1. WRITTEN DIMENSIONS TO BE FOLLOWED. 2. DRAWING SHALL NOT BE SCALED 3. ALL DIMENTIONS ARE GIVEN IN METER UNLESS OTHERWISE MENTIONED. 4. ALL LEVELS GIVEN IN THIS DRAWING ARE WITH REFERENCE TO THE CROWN OF THE SOUTH PASSAGE. 5. ANY DISCREPANCY FOUND SHALL BE IMMEDIATELY BROUGHT TO THE NOTICE OF ARCHITECT OR THE CONCERNED AUTHORITY.

DOCUMENTATION

DETAILS

Door Elevation

RESIDENCE AT SARMOLI

DRAWN BY: LALITA DATE: 02.07.2019

GUIDED BY: SHILPA RANADE

SHEET NO: A9 NTS RESILIENT HIMALAYAN HOMES

ANNEXURE 8

ANNEXURE 9 Site visit to Woodstock school (July 4, 2019 – July 13, 2019)

Objective: Main objective of this site visit was to do the preliminary survey of the high school building at Woodstock. This preliminary survey included the distress mapping and collecting data for preparing SketchUp model of the high school building in Woodstock school. This study will enable us to find and locate the major areas of distress and there extent and to understand the structural system of the building.

Introduction: Woodstock School is an international coeducational residential school located in , a small contiguous with the town of , Uttarakhand, India, in the foothills of the . Woodstock is one of the oldest residential schools in Asia. Woodstock's campus covers more than 250 acres of protected forest on the foothills of the Himalaya. Situated between 2000 and 2300 metres (6500-7500 feet) above sea level on a south-facing slope, Woodstock School enjoys spectacular views over the , the Tehri Hills and the ancient Shivalik range. From its highest ridge one can view Himalayan snow peaks including the majestic Bandarpoonch peaks (6,316 m).

Fig. 1: (a) Image showing location of Woodstock school in mountains. (b) Buildings in Woodstock school.

Location and Connectivity Woodstock School is located in Landour, a small hill station contiguous with the town of Mussoorie, Uttarakhand, India. It is located at 30°27′14″N and 78°6′3″E.

Flights from New to depart three times a day in each direction and are run by Jet Airways, Spicejet and Air India. The , Jolly Grant, is 25km east of Dehradun (about 70km/two hours’ drive from Mussoorie). Train is still the preferred way for most people to travel between Delhi and Dehradun. Travelling between Delhi and Mussoorie by car takes longer and is more difficult than train, but does offer flexibility in departure and arrival times.

Fig. 2: Image showing location of Woodstock school and satellite image.

Visit to Woodstock school A team of two members- Survesh Chetival and Lalita Waldia started from IIT Roorkee on 04 July, 2019. We reached Mussoorie at 11.30 am on same day and then arrangement was done by school management for reaching at Woodstock. Our staying arrangement was done at school’s guest houses.

Fig. 3: Image showing site plan of Woodstock school (High school building). On first day of our visit we met Mr. Raveesh Dogra. He guided us to high school building of which we have to do preliminary survey. Then on first day we did a visit to high school building to get an overall view of building. Next day we were joined by Dr. Sanjay Chikermane form IIT Roorkee. He first did a brief survey of the building to asses overall condition of building and to discuss the way ahead and to prepare a rough plan of work needs to be done during visit.

Then for next 8 days we did distress mapping of High school building and collected the data required for preparation of Sketch up model of building. In between these days one day we did distress mapping of Quad building also since arrangement for opening for documentation of roof truss of high school building was needed to be done.

Characteristics of High School Building- Woodstock High school building consist of total 6 floors named level -2, level -1, level 1, level 2, level 3 and level 4. The building construction was of load bearing stone masonry and reinforced cement concrete framed structure. The top roof consist of truss structure and then tin sheets covering it. The truss structure was made up of both wood and steel angles. Glass wool sheets were also provided below tin sheets for insulation purpose.

Plans of different levels:

Fig. 4: Roof plan of High school building at Woodstock school.

Fig. 5: Plan of level 4 of High school building at Woodstock school.

Fig. 6: Plan of level 3 of High school building at Woodstock school.

Fig. 7: Plan of level 2 of High school building at Woodstock school.

Fig. 8: Plan of level 1 of High school building at Woodstock school.

Fig. 9: Plan of level -1 of High school building at Woodstock school.

Fig. 10: Plan of level -2 of High school building at Woodstock school.

Distress Mapping of High School Building

Distress mapping of any structure will enable us to find and locate the major areas of distress and there extent. Most of the times because of the ageing of building distress would appear in structures as a natural phenomenon. The one of the reason for distress during service is that the maintenance of the building is not done properly which results in deterioration/aging of materials and structural components leading to corrosion and cracking. For this study plans of the each floor of building were taken and areas of distress were detailed on it. Approximate width and length of cracks were also measured and reported. Photographs were taken and attached with their relevant location.

Fig.11: (a) Image showing distress due to dampness (b) Vertical and diagonal crack cutting through lintel.

Fig.12: (a) Image showing cracks in wall at level 4 (b) Diagonal crack cutting through measonary. SketchUp model of High School Building SketchUp is a 3D modeling computer program which is used for a wide range of drawing applications such as architectural, interior design, landscape architecture, civil and mechanical engineering.

In our study we prepared a SketchUp model of high school building including structural elements of it. This enables us to understand the structural system of the high school building. For this work, plans of all the levels of high school building were provided by Woodstock school management. With use of those plans we did documentation of structural members and all openings present.

For documentation of Truss members sketches were prepared by Ms. Lalita Waldia and then used for preparation of SketchUp model.

Fig. 13: Rough sketch prepared for documentation of truss.

The old buildings of high school were having wooden truss except the auditorium. Comparatively new buildings which were RCC framed structure had steel truss.

Fig. 14: SketchUp model of Level 2 at High school building.

Conclusion:

The main objective of this site visit was to do preliminary survey, Distress mapping and to make a SketchUp model of high school building at Woodstock. The preliminary survey has been done to assess the overall condition of building and distress report is submitted.

ANNEXURE 10 Documentation of Distress of High School building at Woodstock School

Objective: Main objective of present study is to do the distress mapping of the high school building in Woodstock school. This study will enable us to find and locate the major areas of distress and there extent.

Causes of Distress: Most of the times because of the ageing of building distress would appear in structures as a natural phenomenon. This natural distress is due to natural wear and tear. In the present days, the structures are subjected to very aggressive environment. The old structures which were constructed in non-aggressive environment and without any special preventive measure are now very badly affected due to gradual deterioration of the environment around them.

The one of the reason for distress during service is that the maintenance of the building is not done properly which results in deterioration/aging of materials and structural components leading to corrosion and cracking. Buildings or structures are damaged when they are subjected to extreme loading conditions like in earthquakes or storms or any addition of load for which they are not designed.

The structure will also show sign of distress if the building including the foundation is not properly designed and constructed or not properly maintained.

The structure would remain in its service for a long period only if during this long period there would be no addition, alteration and overloading of any member or part is done.

Procedure: For this study plans of the each floor of building were taken and areas of distress were detailed on it. Approximate width and length of cracks were also measured and reported. Photographs were taken and attached with their relevant location.

Main Building

Level 1

Location of Distress: WDL1-1

Type of material/ construction: Brick masonry wall with plain cement plaster on it.

Description of Distress: Dampness was observed with vertical crack which was starting from bottom of window and continued up to floor level.

Width of crack: 0.5mm-1mm.

Length of crack: 170cm.

Fig. 1: Image showing vertical crack with dampness and removal of paint.

Location of Distress: WDL1-2

Type of material/ construction: Stone masonry wall.

Description of Distress: A small crack was observed at crown of arch. Crack was running throughout the thickness of arch and then merging into roof.

Width of crack: <0.5mm.

Length of crack: 70cm.

Fig. 2: Images showing minor crack running across crown of arch. Location of Distress: WDL1-3

Type of material/ construction: Stone masonry wall.

Description of Distress: A vertical crack was observed starting from roof of the wall and merging in window.

Width of crack: <0.5mm.

Length of crack: 2m approx.

Fig. 3: Image showing vertical crack starting from roof.

Location of Distress: WDL1-4

Type of material/ construction: Stone masonry wall.

Description of Distress: A vertical crack was observed starting from roof of the wall and merging in window at inner side of wall and at same location at outer side of wall horizontal and vertical cracks were observed.

Width of crack: <0.5mm.

Length of crack: >2m.

Fig. 4: Image showing vertical crack merging at bottom of window.

Fig. 5: Image showing vertical cracks at same location at outer part of the wall also.

Location of Distress: RDL1-1

Type of material/ construction: Concrete slab with PCC finishing on it.

Description of Distress: A horizontal crack was observed on floor which was starting from wall.

Width of crack: 1-2mm.

Length of crack: 160cm

Fig. 6: Image showing crack at floor which is starting from wall. Location of Distress: WDL1-5

Type of material/ construction: Stone masonry wall.

Description of Distress: Dampness was observed with vertical crack which was starting from roof and running throughout the height wall. Dampness was observed at other side of wall also.

Width of crack: 0.5mm-1mm.

Length of crack: Crack was running throughout the height of wall.

Fig. 7: Image showing vertical crack with dampness. Level 2

Location of Distress: WDL2-1

Type of material/ construction: Stone masonry wall.

Description of Distress: Vertical cracks were observed which were running from lintel to floor level.

Width of crack: 0.5mm-1mm.

Length of crack: Crack was running throughout the wall in small intervals from lintel to floor level.

Fig. 8: Image showing vertical cracks which were running from lintel to floor level.

Location of Distress: WDL2-2

Type of material/ construction: Stone masonry wall.

Description of Distress: Major vertical and diagonal cracks were observed throughout the wall. This crack was passing vertically through lintel and then merging into window.

Width of crack: 0.5mm-2mm.

Length of crack: Crack was running throughout the wall in small intervals from upper floor to bottom of floor of level 2.

Fig. 9: Image showing crack which is cutting through lintel of window. Location of Distress: WDL2-3

Type of material/ construction: Stone masonry wall.

Description of Distress: Vertical and diagonal crack was observed in wall extended through lintel.

Width of crack: 0.5mm-2mm.

Length of crack: 50cm

Fig. 10: Image showing vertical and diagonal cracks passing through lintel.

Location of Distress: WDL2-4

Type of material/ construction: Stone masonry wall.

Description of Distress: Vertical crack was observed in wall between windows.

Width of crack: 0.5mm.

Length of crack: 40cm

Fig. 11: Image showing vertical crack in wall between windows. Location of Distress: WDL2-5

Type of material/ construction: Stone masonry wall.

Description of Distress: Horizontal crack was observed in lintel over window.

Width of crack: 0.5mm.

Length of crack: 40-50cm

Fig. 12: Image showing horizontal crack in lintel of window.

Location of Distress: WDL2-6

Type of material/ construction: Stone masonry wall.

Description of Distress: Vertical crack was observed which was passing through lintel.

Width of crack: 0.5mm.

Length of crack: 40cm.

Fig. 13: Image showing vertical crack passing through lintel of window. Location of Distress: WDL2-7

Type of material/ construction: Stone masonry wall.

Description of Distress: Horizontal crack was observed in wall supporting main door.

Width of crack: 1mm.

Length of crack: 80-90cm.

Fig. 14: Image showing horizontal crack in wall which was supporting main door.

Location of Distress: WDL2-8

Type of material/ construction: Stone masonry wall.

Description of Distress: Horizontal crack was observed in wall over main door.

Width of crack: 0.5-1mm.

Length of crack: 1.5m approx.

Fig. 15: Image showing horizontal crack over lintel of main door. Location of Distress: WDL2-9

Type of material/ construction: Stone masonry wall.

Description of Distress: vertical crack was observed starting from bottom of beam.

Width of crack: <0.5mm.

Length of crack: 1.8m approx.

Fig. 16: Image showing minor vertical crack in wall.

Location of Distress: WDL2-10

Type of material/ construction: Concrete slab and steel I beam.

Description of Distress: Small crack was observed between I-beam and slab.

Width of crack: 1-2mm.

Length of crack: 30cm approx.

Fig. 17: Image showing crack at joint between roof and steel beam.

Location of Distress: WDL2-11

Type of material/ construction: Stone masonry wall.

Description of Distress: Major vertical and diagonal crack was observed in wall in between windows.

Width of crack: 2-3mm.

Length of crack: 1.5m approx.

Fig. 18: Image showing major cracks in wall between windows. Level 3 Location of Distress: RDL3-1

Type of material/ construction: Concrete slab with plain cement finish on floor.

Description of Distress: Horizontal cracks were observed in slab, which were running from wall to wall.

Width of crack: 1mm-2mm.

Length of crack: Crack was running throughout the slab and merging at columns. (5m approx.)

Fig. 19: Image showing horizontal crack in floor.

Location of Distress: WDL3-1

Type of material/ construction: Stone masonry wall and wooden ceiling.

Description of Distress: Vertical crack was observed at joint of chimney and wall.

Width of crack: <1mm.

Length of crack: 210cm.

Fig. 20: Image showing vertical crack at joint of chimney and wall. Location of Distress: RDL3-2

Type of material/ construction: Concrete slab with plain cement finish on floor.

Description of Distress: Horizontal cracks were observed in slab, which were running from railing column to wall.

Width of crack: 1-2mm.

Length of crack: 1.7m.

Fig. 21: Image showing horizontal crack in floor.

Location of Distress: WDL3-2

Type of material/construction: Stone masonry wall.

Description of Distress: Vertical and diagonal crack were observed in wall which were starting from middle of wall and merging in floor and then continuing in slab at expansion joint.

Width of crack: 0.5-1mm.

Length of crack: >2m approx.

Fig. 22: Image showing vertical cracks in wall. Location of Distress: WDL3-3

Type of material/construction: Stone masonry wall.

Description of Distress: Vertical crack was observed in wall which was starting from bottom of window and merging in floor.

Width of crack: 0.5-1mm.

Length of crack: 70-80cm.

Fig. 23: Image showing vertical crack in wall starting from bottom of window.

Location of Distress: WDL3-4

Type of material/construction: Stone masonry wall.

Description of Distress: Vertical crack was observed in wall which was starting from top of the wall where purlin was resting on wall and then merging in lintel of window.

Width of crack: 0.5-1mm.

Length of crack: 70-80cm approx.

Fig. 24: Image showing vertical crack in wall starting from joint with purlin. Location of Distress: WDL3-5

Type of material/construction: Stone masonry wall.

Description of Distress: Diagonal crack was observed in wall which was starting from top of the wall and then merging in window.

Width of crack: 1-2mm.

Length of crack: 1m approx.

Fig. 25: Image showing diagonal crack in wall which is merging in window.

Location of Distress: WDL3-6

Type of material/construction: Stone masonry wall.

Description of Distress: Diagonal crack was observed in wall which was starting from top of the wall where purlin was resting on wall and then merging in lintel of window. One more horizontal crack was observed at same location.

Width of crack: 1-2mm.

Length of crack: 2m approx.

Fig. 26: Image showing diagonal and horizontal crack in wall. Location of Distress: WDL3-7

Type of material/construction: Stone masonry wall.

Description of Distress: Vertical crack was observed in wall which was starting from bottom of window and merging in floor.

Width of crack: 0.5-1mm.

Length of crack: 90cm.

Fig. 27: Image showing vertical crack in wall starting from bottom of window. Level 4 Location of Distress: WDL4-1

Type of material/construction: Stone masonry wall.

Description of Distress: Horizontal cracks were observed in wall below angle section.

Width of crack: 0.5mm-1mm.

Length of crack: Crack was starting from bottom of angle section and then running towards wall. (80cm)

Fig. 28: Image showing horizontal crack in wall at support.

Location of Distress: WDL4-2

Type of material/construction: Stone masonry wall.

Description of Distress: Vertical and diagonal cracks were observed in wall below angle section.

Width of crack: 1mm-2mm.

Length of crack: Crack was starting from bottom of angle section and then running up to floor.

Fig. 29: Image showing vertical and diagonal cracks in wall. Location of Distress: WDL4-3

Type of material/construction: Stone masonry wall.

Description of Distress: Diagonal cracks were observed in wall below angle section.

Width of crack: 1mm-2mm.

Length of crack: Crack was starting from bottom of angle section and then running up to floor.

Fig. 30: Image showing diagonal crack in wall at support.

Location of Distress: WDL4-4

Type of material/construction: Stone masonry wall.

Description of Distress: Vertical cracks were observed in wall below angle section.

Width of crack: 1mm-2mm.

Length of crack: Crack was starting from bottom of angle section and then running up to floor.

Fig. 31: Image showing vertical crack in wall below angle section. Truss of high school building Location of Distress: TD-1

Type of material/construction: Wooden truss member.

Description of Distress: Wooden truss member was broken.

Fig. 32: Image showing broken truss member.

Location of Distress: TD-2

Type of material/construction: Wooden truss member.

Description of Distress: Wooden truss member was not connected to tie beam.

Fig. 33: Image showing disconnected truss member. Location of Distress: TD-3

Type of material/construction: Wooden truss member.

Description of Distress: Wooden truss member was subjected to fungi attack and member was degrading rapidly. Although for support an angle section was provided.

Fig. 34: Image showing degraded wooden truss member.

Location of Distress: TD-4 and TD-5.

Type of material/construction: Steel truss members.

Description of Distress: No preventive coating was applied on members for prevention of corrosion and members had started to get corroded.

Fig. 35: Image showing steel channel section without preventive coating. Location of Distress: Wooden members in truss.

Type of material/construction: Wooden truss member.

Description of Distress: Wooden truss members were subjected to external moisture because of leakage through tin sheets.

Fig. 36: Image showing wet truss member due to rain.

ANNEXURE 11 JAGRA FESTIVAL

Story of Mahasu Devta

Mahasu Devta has a strong religious affiliation in various regions of Uttarakhand/ Himanchal Pradesh. Mahasu Devta is considered to be the lord of justice, who is connected with the Jaunsar- Bawar region. The lord’s main temple is in Hanol, . Mahasu Devta has four brothers namely, Baasik Mahasu, Bodha Mahasu, Pabasik Mahasu and Chalda Mahasu.

In the beginning of kalyug, there was a huge terror of demons in Uttarakhand region due to which everyone in the state were suffering. Out of all the demons kirmir was the most dangerous, who killed all the seven children of Hunabhat. Kirmir also had a bad eye of Kritika, wife of Hunabhat. Disturbed with Kirmir, Kritika started worshiping Lord Shiva, in return to which Lord Shiva took the eye sight of Kirmir. Hunabhat and Kritika were successful in saving their lives from Kirmir. In order to save their life and the lives of the people of Uttarakhand, Hunabhat and Kritika started praying Goddess Hathkeshwari. Goddess suggested the couple to go mountain of Kashmir and pray to Lord Shiva for the same. On the command of the goddess the couple went to Kashmir and started praying to Lord Shiva. Seeing the devotion of the couple, Lord Shiva assured them that they will soon be free from the tortures of these demons. Lord Shiva also told Hunabhat to go back to his land and pray to Goddess Shakti.

The couple came back to their place and did the same. Goddess Shakti asked them that They have to plough the fields with ploughs of gold and silver. The ox used for the ploughing should be the one which is never used for ploughing before. By doing this four Mahasu will appear with their ministers and army and they will free the place from the demons. The same happened and Uttarakhand was free from the demons.

Fig 1. Mahasu Devta Temple in Bisoi This is the historical story of Mahasu Devta in the region. In Bisoi there is the temple of Chalda Mahasu. People believe that an old lady from the village went to drink water from a common water spring in Bisoi, where she saw a snake. A pearl came out of snake's mouth and it went away. The lady took the pearl to her home and kept it. That night she had a dream that the pearl was not an ordinary pearl and is a symbol of lord. The village decided to make a temple to keep the pearl. Now the temple is of Chalda Mahasu. The family of the lady is Sayana’s of the village and are considered to be the guard of God. Jagra

Jagra festival is celebrated in all the temples of Mahasu in the region. In Bisoi it is celebrated mostly in the last week of September, date decided on the basis of astrology. It is a two-day festival in which all the 18 villages come to the Bisoi Temple to celebrate Jagra festival. For the two days a Bhandara is organized in the village which is hosted for all the people of the 18 villages. Around 8000 people come for the Bhandara. One person from the region hosts the Jagra Bhandara. Booking is done in advance for hosting the Bhandara. The Bhandara is already booked till 2036 and the next booking is open in 2037. For the whole night the event takes place.

Fig 2. Mahasu Devta idol taken out of the temple

This is the time when the Jhanki of Mahasu is taken out of the temple for everyone to see. They take the idol to the holy water stream and keep the Jhanki back to the temple. Everyone dances in the temple premises and for the whole night the event continues.

Fig 2. Jagra festival in Bisoi

ANNEXURE 12 MEDICAL CAMP- BISOI 28t h a nd 29t h September 2019 Objecve

To understand the health structure of a community and to engage with the community.

The main objecve of organizing the medical camp in Bisoi was to idenfy the health of the village and to build a strong relaonship with them. While conducng the biodiversity workshops the project interacted with the community, but this interacon was restricted to interacng only with those who had knowledge about biodiversity. The project had to build relaons with the overall community and not just a few people, thus we started idenfying the needs that the village and the space where the project can fit in. The project idenfied the need of medical assistance in the village and so, we decided to organize a medical camp for Bisoi and nearby villages. Pre-camp preparaon

The preparaon for the camp started from mid-august. The first step was to interact with the community of Bisoi and get an opinion on organizing the medical camp in the village. The village approved the idea of medical camp and suggested that people from nearby villages should also be called for the camp as they also need the same. The major health issues were then idenfied for which the specialists were required. According to that we decided to connect with a General Physician, Ortho and eye specialist. Finally, we decided to have a medical camp for two days for total 18 villages as our target audience.

14-15th September 2019 Two team members, Shambhavi Pandey and Shubham went to Bisoi and nearby villages for promoon and pre-registraon to idenfy the expected number of paents in the camp and health issues exisng there. Two people, Mr. Ajendra Chauhan from Bisoi and Mr. Dile Ram Joshi from Nagthat, voluntarily came forward to do further registraon and take the promoons forward. The promoon was done mainly by distribung pamphlets and word of mouth.

Pic 1: Registraon Form (English and )

Pic 2: Pamphlet for adversement Registraon gave a sense of requirement of a denst, gynaecologist, and ENT specialist, based on the registered problems from the community. The doctors were targeted from the nearby places such as Chakrata, Dehradun and Haridwar, so that the follow up could be easy for the community. Mr. Digamber Chauhan, an influenal person from Bisoi, helped the project in idenfying the specialists and organize the camp. The doctors were finalized according to their interest, requirements, availability and their experience of medical camps. Below is the final list of doctors:

● General physician- Dr. Atul Alok, Dehradun ● ENT specialist- Dr. Vikram Sayana, Dehradun ● Orthopedic Surgeon- Rajnish Singh, Dehradun ● Denst- Dr. Shipra Chaturvedi, Haridwar ● Eye specialist- Dr. N.S.Jangpangi, Dehradun ● Gynecologist- Dr, Ar Chauhan, Chakrata

Two days were finalised for camp which were 28-29t h Sept 2019 according to availability of community and doctors. Permission was taken from CMO of Dehradun to conduct medical camp. Aer that we finalised two venues for camp, primary school and community hall. Logiscs, accommodaon and food for doctors and staff were taken care by project. General medicines were also taken care by project. Tests and consultancy were taken care by doctors.

Pic 3: L etter to CMO Dehradun for permission and latter of approval for organizing the camp

26th September 2019,

Three people from the project, Shambhavi, Shubham and Poonam, visited Bisoi in order to make the required arrangements for the camp. The following arrangements for the medical undertaken were:

● Sing arrangement for doctors and staff ● Parking area near the temple was idenfied as the locaon for the registraon desk as it was between both camp locaons. ● Accommodaon for doctors and staff was organized in Nagthat which is 3kms away from Bisoi. ● Apart from these, banners, memento, cerficates and other requirements were taken care of.

Pic 4: Banner of the Medical Camp put in the venue

Pic 5: Memento given to the Doctors as a thankyou gesture.

Pic 6: Registraon Desk

Pic 7: Community hall as one of the camp venues.

Pic 8: Eye doctors treang people

Pic 9: Orthopaedic expert interacng with paents

Pic 10: IIT team helping people at the venue to visit doctors Camp Day 2: 29th September 2019 (Sunday)

● Camp on the second day started at 10:00AM. ● Most of the people came from other villages on day 2 despite heavy rainfall. ● Due to heavy rain expected number of people did not show up but sll approx. 200 people showed up. ● Registraon was done ll 1:30pm, camp got over by 3:00pm. ● Aer that there was thanksgiving ceremony in which the doctors and the staff were given cerficates and mementos.

Pic 11: Doctor’s team with IIT Roorkee project team.

Pic 12: Doctor given the memento and cerficate as thank you gesture. S. Name Father’s Village Age Gender G.P ENT Orth TR Den Eye Gyne No. Name o a (For Minor) 28.09.2019 1. Udham Lacha 62 M ✔ ✔ ✔ Singh 2. Hans Sila 75 M ✔ ✔ ✔ Ram Uniyad 3. Suppi Sila 73 F ✔ ✔ Devi 4. Sunita Bisoi 31 F ✔ ✔ Chauhan 5. Nandini Bisoi 10 F ✔ ✔ Chauhan 6. Pragya Bisoi 10 F ✔ ✔ ✔ ✔ ✔

7. Suman Bisoi 30 F ✔ ✔ ✔

8. Vedika Bisoi 12 F ✔ ✔ ✔ ✔

9. Sujata Bisoi 8 F ✔ ✔ ✔

10. Meemau Bisoi 50 F ✔ ✔ Devi 11. Anshum Bisoi 9 M ✔ ✔ ✔ an 12. Priyansh Dhodu Bisoi 10 M ✔ ✔ ✔ u Das 13. Ronit Bisoi 11 M ✔ ✔ ✔ ✔

14. Kanika Bablu Bisoi 9 F ✔ ✔ ✔ Das 15. Ridhima Bisoi 9 F ✔ ✔

16. Khushi Bisoi 12 F ✔ ✔ ✔ ✔

17. Bhagat Kachta 65 M ✔ ✔ Singh 18. Jhulu Bisoi 60 F ✔ Devi 19. Chuma Khuna 68 F ✔ ✔ ✔ Devi 20. Yuvraj Bisoi 81 M ✔ ✔ Singh 21. Reena Bisoi 35 F ✔ Devi 22. Tara Devi Bisoi 65 F ✔

23. Madan Bisoi 60 M ✔ Singh 24. Laxmi Bisoi 59 F ✔ ✔ ✔ Devi 25. Viraj Bisoi 9 M ✔ ✔ ✔

26. Sarthak Bisoi 7 M ✔ ✔ 27. Bidia Bisoi 50 F ✔ ✔ ✔

28. Namita Bisoi 27 F ✔ ✔

29. Munna Bisoi 60 M ✔ Das 30. Kalpana Bisoi 34 F ✔ ✔ ✔ ✔

31. Prarabdh Kalpana Bisoi 10 M ✔ mn 32. Suppi Bisoi 65 F ✔ ✔ Devi 33. Sujata Bisoi 9 F ✔ ✔

34. Gyan Bisoi 78 M ✔ ✔ Singh 35. Ravi Bisoi 35 M ✔

36. Narende Bisoi 60 M ✔ ✔ r Singh 37. Kunal Babloo Bisoi 7 M ✔ ✔ ✔ ✔

38. Darshini Bisoi 45 F ✔ Devi 39. Ravinder Bisoi 30 M ✔ ✔ ✔

40. Dilip Bisoi 36 M ✔ ✔ Singh 41. Munni Bisoi 50 F ✔

42. Rajender Bisoi 67 M ✔ ✔ ✔ Singh 43. Hari Lal Bisoi 50 M ✔

44. Sushma Bisoi 50 F ✔ ✔ Devi 45. Anand Bisoi 48 M ✔ ✔ Singh 46. Balwir Dhuniy 70 M ✔ ✔ Singh a 47. Shobha Bisoi 46 F ✔ ✔ ✔ Devi 48. Chandan Bisoi 50 M ✔ Singh 49. Prama Bisoi 80 F ✔

50. Anita Bisoi 38 F ✔ ✔ ✔ ✔

51. Kawal Bisoi 42 M ✔ ✔ Chand 52. Meenaks Kamal Bisoi 13 F ✔ ✔ ✔ hi Chand 53. Rakesh Bisoi 14 M ✔ ✔ ✔

54. Saroj Kwasa 55 F ✔

55. Asoji Kwasa 50 F ✔ 56. Roshni Kwasa 50 F ✔ ✔ ✔ Devi 57. Tara Devi Kwasa 50 F ✔

58. Ramesh Dharm 28 M ✔ ✔ Kumar aula 59. Sunita Bisoi 42 F ✔

60. Pallavi Bisoi 19 F ✔

61. Gopal Bisoi 55 M ✔ Dayal 62. Shorvir Raktha 52 M ✔ Singh d Chauhan 63. Anari Bisoi 50 F ✔ ✔ Devi 64. Raghuvir Bisoi 48 M ✔ Singh 65. Suppa Bisoi 65 M ✔ ✔ ✔ Das 66. Hakam Bisoi 70 M ✔ ✔ Singh 67. Neeraj Bisoi 35 M ✔ Singh 68. Reena Bisoi 33 F ✔ ✔

69. Khalan Khuna 50 M ✔ ✔ Singh 70. Nanak Bisoi 58 M ✔ ✔ Singh 71. Krishna Bisoi 56 F ✔ ✔ Devi 72. Anand Bisoi 38 M ✔ ✔ ✔ Singh 73. Jagat Bisoi 90 M ✔ ✔ ✔ Singh Chauhan 74. Bir Singh Bisoi 90 M ✔ ✔ ✔

75. Digamba Bisoi 49 M ✔ ✔ r 76. Bhopal Bisoi 63 M ✔ ✔ Singh 77. Rajendra Kwasa 35 M ✔ Singh 78. Krishna Rajendr Kwasa 5 M ✔ ✔ a Singh 79. Aar Rajendr Kwasa 7 F ✔ a Singh 80. Harish Bisoi 37 M ✔

81. Mahavir Kwasa 65 M ✔ ✔ Singh 82. Sarwa Bisoi 50 F ✔ ✔ ✔ ✔ Devi 83. Sham Bisoi 50 F ✔ ✔ ✔ Devi 84. Anand Raktha 40 M ✔ Singh d Chauhan 85. Bimla Raktha 36 F ✔ ✔ ✔ Chauhan d 86. Roshni Kwasa 37 F ✔ ✔

87. Ramesh Kwasa 38 M ✔ ✔ Negi 88. Ajendra Bisoi 44 M ✔ ✔ Chauhan 89. Chaman Bisoi 80 M ✔ Singh 90. Vikram Bisoi 60 M ✔ ✔ Singh 91. Alok Prem Bisoi 12 M ✔ Chand 92. Bimla Bisoi 45 F ✔ ✔ ✔

93. Sonakshi Bisoi 6 F ✔ ✔

94. Pooja Bisoi 25 F ✔ ✔

95. Ritu Bisoi 23 F ✔ ✔

96. Meera Bisoi 40 F ✔ Devi 97. Sonam Bisoi 8 F ✔ ✔ Joshi 98. Divyam Duina 6 M ✔ Joshi 99. Neeraj Duina 34 M ✔ Joshi 100. Jhulu Bisoi 65 F ✔ ✔ Devi 101. Urmila Bisoi 28 F ✔ ✔ ✔

102. Anish Ramesh Bisoi 6 M ✔ ✔

103. Amit Bisoi 35 M ✔ ✔ Chauhan 104. Vinod Bisoi 20 M ✔

105. Sukhri Bisoi 75 F ✔ ✔ Devi 106. Jaggo Khuna 40 F ✔ ✔ Devi 107. Sandeep Khuna 16 M ✔

108. Tanya Geeta Khuna 10 F ✔ ✔

109. Babli Khuna 24 F ✔ ✔

110. Kangri Bisoi 70 F ✔ ✔ Devi 111. Krishan Bisoi 57 M ✔ Du 112. Rakshita Prem Bisoi 16 F ✔ ✔ Chand 113. Krishna Bisoi 60 F ✔ ✔ ✔ ✔ ✔ Devi 114. Sunita Bisoi 40 F ✔ ✔ Chauhan 115. Indu Bisoi 62 F ✔ ✔ ✔ Devi 116. Sunidhi Bisoi 4 F ✔

117. Bina Bisoi 32 F ✔ ✔

118. Virender Khuna 51 M ✔ ✔ Singh 119. Deepu Khuna 60 F ✔ Devi 120. Roshni Khuna 64 F ✔ Chauhan 121. Jagdamb Bisoi 45 F ✔ ✔ a 122. Kheer Bisoi 53 M ✔ ✔ ✔ Chand 123. Aaditya Deepak Bisoi 10 M ✔ ✔ ✔ Kumar 124. Chatar Bisoi 60 M ✔ ✔ Singh 125. Guddi Paya 45 F ✔ ✔ Devi na 126. Tanisha Dileram Duina 16 F ✔ ✔ ✔ Joshi Joshi 127. Dileram Duina 47 M ✔ ✔ Joshi 128. Savitri Duina 37 F ✔ Joshi 129. Dhruv Dileram Duina 12 M ✔ Joshi Joshi 130. Rohit Bisoi 17 M ✔ ✔ Dayal 131. Kapil Bisoi 32 M ✔ ✔ ✔ Chauhan 132. Pt. Nachi Keri 70 M ✔ ✔ Ram Nauyal 29.09.2019 133. Semani Bisoi 40 F ✔ ✔ ✔ ✔ Devi 134. Bijama Kunna 50 F ✔ ✔

135. Bima Kunna 35 F ✔ Devi 136. Raju Nagtha 28 M ✔ t 137. Nuppu Samalt 38 F ✔ Devi a 138. Bisan Samalt 38 M ✔ Singh a 139. Kamlesh Bisoi 40 F ✔ ✔

140. Neemo Bisoi 60 F ✔ ✔ Devi 141. Boghiya Bisoi 50 M ✔ ✔

142. Gopal Sila 50 M ✔

143. Bimla Sila 35 F ✔ ✔

144. Suman Khuma 55 M ✔

145. Urmila Bisoi 33 F 146. Suman Bisoi 30 F ✔ ✔ Devi 147. Charan Bisoi 52 M ✔ Singh 148. Jimmida Nagtha 40 M ✔ t 149. Viraj Kumph Bisoi 8 M ✔ al Khanna 150. Paro Bisoi 65 F ✔

151. Munna Kunna 56 M ✔ Laal 152. Kamla Kunna 50 F ✔ ✔ ✔ ✔ Devi 153. Nikita Khabo 15 F ✔ ✔ ✔ Chauhan 154. Chander Kwasa 75 M ✔ Singh 155. Vimaan Bisoi 50 F ✔ ✔ ✔ Devi 156. Nirmala Bisoi 45 F ✔ ✔ ✔

157. Shiv Kwasa 65 M ✔ ✔ Singh Negi 158. Pyaro Lacha 30 F ✔ ✔ Devi 159. Digamba Lacha 35 M ✔ r 160. Nag Kunna 60 F ✔ ✔ ✔ Devi Alman 161. Nirmala Lacha 50 F ✔ ✔

162. Sundala Lacha 50 F ✔ ✔

163. Basan Lacha 30 F ✔ ✔

164. Sheela Bisoi 35 F ✔ Devi 165. Gayatri Kwasa 9 F ✔ ✔

166. Anil Kwasa 34 M ✔ ✔

167. Dinesh Raktha 45 M ✔ ✔ ✔ d 168. Usha Bisoi 28 F ✔ ✔

169. Anjana Bisoi 21 F ✔

170. Uplaksh Anjana Bisoi 3 M ✔

171. Paras Usha Bisoi 9 M ✔

172. Aditya Usha Bisoi 10 M ✔

173. Arvind Bisoi 13 M ✔

174. Kiran Bisoi 26 F ✔ ✔ ✔

175. Rakesh Kamal Bisoi 15 M ✔ Chand 176. Roshan Bisoi 14 M ✔

177. Mamta Bisoi 35 F ✔ ✔ ✔

178. Mathar Nagtha 50 M ✔ Das d 179. Shamshe Munsh 60 M ✔ ✔ r i 180. Mahend Bisoi 58 M ✔ ✔ er Singh 181. Param Khunn 65 M ✔ ✔ Singh a 182. Babita Saiya 38 F ✔ ✔

183. Kanika Babita Saiya 11 F ✔ ✔

184. Sarmila Silla 45 F ✔ ✔ ✔

185. Jhulo Duina 45 F ✔ ✔ ✔ Devi 186. Umadu Silla 49 M ✔ Uniyal 187. Anushka Nirmla Bisoi 11 F ✔ ✔

188. Kinthu Kunna 60 M ✔ ✔ Das 189. Aashu Suman Kunna 6 M ✔

190. Podhu Kunna 50 F ✔

191. Bindra Bisoi 35 F ✔ ✔

192. Manish Bisoi 13 M ✔ Dayal 193. Harar Kwasa 65 M ✔ ✔ Singh 194. Ankit Bisoi 16 M ✔ Dayal 195. Kriparm Duina 58 M ✔ Joshi 196. Jhullu Bisoi 48 F ✔ ✔ Devi 197. Munni Raktha 60 F ✔ ✔ ✔ Devi d 198. Guddi Raktha 35 F ✔ ✔ ✔ ✔ ✔ Devi d 199. Babita Raktha 23 F ✔ ✔ ✔ d 200. Aarushi Babita Raktha 1.5 F ✔ d 201. Rinkesh Gopal Raktha 13 F ✔ ✔ d 202. Rajeshw Kwasa 33 M ✔ ✔ ari 203. Atul Rajesh Kwasa 7 M ✔ ✔ wari 204. Ravi Kwasa 39 M ✔

205 Naveen Bisoi 30 M ✔ ✔ Chauhan 206. Punita Raktha 16 F ✔ ✔ d 207. Jaggo Raktha 35 F ✔ ✔ ✔ Devi d 208. Chuma Kwasa 50 F ✔ ✔ ✔ Devi 209. Hakam Kunna 70 M ✔ Singh 210. Mahi Sunder Nagtha 8 F ✔ ✔ Singh d 211. Yuvraj Sunder Nagtha 12 M ✔ ✔ ✔ Singh Singh d 212. Ansh Sunder Nagtha 6 M ✔ ✔ ✔ Singh d 213. Chaman Nagtha 73 M ✔ ✔ Singh d 214. Genda Kwasa 70 M ✔ Ram 215. Kalam Kwasa 73 M ✔ ✔ Singh 216. Shaboo Kunna 55 F ✔ Devi 217. Leela Muzzi 50 F ✔ ✔ Devi 218. Savitri Lacha 63 F ✔ ✔ Devi 219. Pyaro Lacha 46 F ✔ ✔ Devi 220. Bimla Lacha 55 F ✔ ✔ Devi 221. Amla Lacha 35 F ✔ ✔

222. Nidhi Lacha 20 F ✔ ✔

223. Kalpana Lacha 25 F ✔ ✔

224. Narende Lacha 46 M ✔ ✔ ✔ r Tomar 225. Vikram Kandoi 38 M ✔ ✔ Singh 226. Suraj Kandoi 72 M ✔ ✔ ✔ Singh 227. Manoj Bisoi 73 M ✔ Sharma 228. Diksha Kwasa 17 F ✔ ✔ Rawat 229. Ayush Kwasa 7 M ✔ Rawat 230. Srish Raktha 18 F ✔ ✔ Chauhan d 231. Priyanshi Raktha 14 F ✔ Chauhan d 232. Shubha Raktha 20 M ✔ m d Chauhan 233. Govind Raktha 23 M ✔ d 234. Jaypal Lacha 45 M ✔ Singh 235. Kalam Unilla 63 M ✔ Singh 236. Tulsa Bisoi 90 F ✔ Devi 237. Bhagat Raktha 65 M ✔ Singh d 238. Narayan Raktha 65 M ✔ Singh d Chauhan 239. Usha Raktah 40 F ✔ ✔ d 240. Dinesh Raktha 40 M ✔ d Analysis:

The total number of people came for the medical camp were 240 out of which 122 were female, 118 were male and 48 children. The number of people vising the camp from different villages were: Bisoi 127 Dharmaula 1 Duina 9 Kandoi 2 Keri 1 Khabo 1 Khuna 21 Kwasa 23 Lacha 15 Munshi 2 Nagthat 26 Payana 1 Saiya 2 Samalta 2 Silla 7

The number of people vising the different specialists were:

General Physician 117 ENT Specialist 30 Orthopedic Surgeon 88 Denst 53 Eye Specialist 107 Gynecologist 58

The number of Females vising the different specialists were:

General Physician 52 ENT Specialist 13 Orthopedic Surgeon 55 Denst 27 Eye Specialist 48 Gynecologist 57

The number of Male vising the different specialists were:

General Physician 65 ENT Specialist 17 Orthopedic Surgeon 33 Denst 26 Eye Specialist 59 Gynecologist NA

Conclusion:

The camp was organized to idenfy the health condion of the community and to build a strong relaonship with them. There were 240 people who showed up for the camp in two days out of which. More than 50% of the people were from Bisoi, rest people came from 14 villages nearby Bisoi.

Based on the above analysis it was idenfied that the major problem with the people of eye and joint pain. Women also visited gynecologists for gyno problems.

ANNEXURE 13 Bisoi Wedding (Jojoda) Tradition

“य नाय त ु पूयते रमते त देवताः । यैतातु न पू यते सवाताफलाः याः ।।“ This is the belief of the community of Bisoi and Jaunsar, which means where women are honored, divinity blossoms there, and where women are dishonored, all action no matter how noble remain unfruitful. Their marriage tradition justifies their belief at every moment. The girl’s side is considered to be in the dominant position in the wedding. There is no concept of dowry here.

Pic 1. The bride and the groom with IIT team in Bisoi

The custom starts with the family of the girl and boy meeting each other and fixing the wedding. Initially, as per the tradition only the family used to meet, the boy and the girl did not see each other before the wedding. Now the tradition has changed, the girl and boy meets before finalizing the wedding.

Once the family, the boy and the girl are ready for the marriage, the next step is called “Bandhe ka Rupya”, wherein the groom side gives some money to the girl as Shagun which means finalizing the wedding. As per their ritual, this means the girl can’t marry anyone else now. If after this , the girl wants to marry someone else or runs away with someone then the village organize a committee. The other boy’s family need to compensate for the “Bandhe ka Rupya” given from the groom’s side to the girl. The girl then becomes the responsibility of the family where the girl is living.

Next comes the Kangniyada (engagement), where the boy’s family goes to the girl’s place and give jewelries to the girl. Here the boy is not allowed to go to the girl’s place. This custom is planned as per the astrology. The jewelries are put on girl only by ladies or any child who is less than 10-11 years old. This ritual is done by the community on behalf of the groom’s family. Who is going to do this requires horoscope match. Although for the marriage, horoscope and astrology is not required.

Samdhiyara, a feast organized by boy’s side for the girl’s side. Anyday after the engagement they can plan this feast. Samdhiyara is organized by girl’s side on the day of engagement.

One day before the wedding, 2 people from the village and from the family along with one barber, from the groom’s side goes to the girl’s place with clothes and jewelry for the girl which she will wear for her wedding. The Vidaai of the girl is done on the same day, where as per the astrology the girl is send out of her house, the groom’s family comes and takes her to their place. The time of the bride’s entry to groom’s place is also decided as per the astrology. The wedding rituals then takes place at the groom’s place. The wedding includes Pooja, Sindur and Mangalsutra. Though the Pheras is not the traditional custom but now it is followed at some places.

8th October 2019

The day of the wedding in Bisoi, from groom’s side, was when we reached Bisoi by 12 in the noon. We were greeted by everyone in the community and were directed to the place for lunch. It was organized in front of the groom’s house. Mat was spread on the floor, we had to sit on that and lunch was served by the people looking after the food. The marriage Pooja was held in the morning itself by 11 AM.

In old days the food was cooked by different houses and was served in their respective houses itself. Each house was allotted certain number of guests who were taken care of by that particular house. The food was also served in bronze plates. Now, due to various reasons the rituals have changed and the food is served in a common space and in disposable plates. Although even today the chappatis are made by ladies of the village at their home.

We had our lunch which included dal, rice, vegetable and chapatti. We then headed to the community hall (Milan Kendra) of the village, where all the ladies of the village gathered for lunch. This is a tradition of the community where all the ladies are served lunch and given gifts which is brought by the groom’s maternal uncle. This is done in the honor of the ladies. This lunch is organized to introduce the bride as part of the village. The gifts given to the ladies contains sweets, ghee, dry fruits and fruits.

Pic 2. Ladies sitting for their traditional feast

Post lunch all the ladies, including the bride, perform their traditional dance in their traditional dress in the premises of the Mahasu Devta Temple. The dance is performed only by the married ladies of the village. The men, later on joins the ladies in the dance.

Pic 3. Ladies of the village performing their traditional folk dance in the temple premises

In the evening, the same day, a reception is organized, which is hosted by the groom’s family. The bride’s family is also invited to this feast. The bride and groom and offered gifts and blessings by everyone there. Their food includes mutton, chicken, rice, sweets, ghee, halwa, roti, vegetable and Surr (their local drink). This is the traditional meal of the village which is followed even today.

Pic 4. The guests having dinner on the day of reception

The reception party includes their traditional folk dance which is performed by the boys and girls of the village.

In the wedding each one in the village takes responsibilities of the works to be done. Like every ladies of the village makes rotis for the whole feast, men divide works like cooking, cleaning, serving etc. each one in the community is involved in the wedding in some or the other way. In that sense a wedding is a community event and not just a family function.

All these rituals are mandatory to be followed only for the eldest son of the generation. Other children’s marriage can be organized in a simple ordinary pooja as well.

ANNEXURE 14 Site visit to Woodstock school (October 17, 2019 – October 21, 2019)

Objective: Main objective of this site visit was to do the preliminary survey of the Quad building of Woodstock. This preliminary survey included the distress mapping and collecting data for preparing SketchUp model for Quad building of Woodstock school. This study will enable us to find and locate the major areas of distress and there extent and to understand the structural system of the building.

Introduction: Woodstock School is an international coeducational residential school located in Landour, a small hill station contiguous with the town of Mussoorie, Uttarakhand, India, in the foothills of the Himalayas. Woodstock is one of the oldest residential schools in Asia. Woodstock's campus covers more than 250 acres of protected forest on the foothills of the Himalaya. Situated between 2000 and 2300 metres (6500-7500 feet) above sea level on a south-facing slope, Woodstock School enjoys spectacular views over the Doon Valley, the Tehri Hills and the ancient Shivalik range. From its highest ridge one can view Himalayan snow peaks including the majestic Bandarpoonch peaks (6,316 m).

Fig. 1: (a) Image showing location of Woodstock school in mountains. (b) Buildings in Woodstock school.

Location and Connectivity Woodstock School is located in Landour, a small hill station contiguous with the town of Mussoorie, Uttarakhand, India. It is located at 30°27′14″N and 78°6′3″E.

Flights from to Dehradun depart three times a day in each direction and are run by Jet Airways, Spicejet and Air India. The Dehradun airport, Jolly Grant, is 25km east of Dehradun (about 70km/two hours’ drive from Mussoorie). Train is still the preferred way for most people to travel between Delhi and Dehradun. Travelling between Delhi and Mussoorie by car takes longer and is more difficult than train, but does offer flexibility in departure and arrival times.

Fig. 2: Image showing location of Woodstock school and satellite image.

Visit to Woodstock school A team of two members- Survesh Chetival and Lalita Waldia started from IIT Roorkee on 17 October, 2019. We reached Mussoorie at 7.30 pm on same day and then arrangement was done by school management for reaching at Woodstock. Our staying arrangement was done at school’s guest house.

Characteristics of Quad Building- Woodstock Quad building is divided into several different blocks and each block is interconnected with other. Quad building consists of total 3 floors named level 1, level 2 and level 3. The building construction was of load bearing stone masonry, reinforced concrete structure and steel structure. The top roof of each block was consist of truss structure and then tin sheets covering it. The truss structure was made up of both wood and steel angles. Glass wool sheets were also provided below tin sheets for insulation purpose.

Plans of different levels:

Fig. 3: Plan of level 1 of Quad building at Woodstock school.

Level-1 of Quad building consists of mainly music block, mess block, office block and classroom block. All the structures were mostly load bearing masonry walls with steel beams and slab on it except mess block. Mess block was majorly divided into 2 parts named dining area and kitchen. Most of the dining area was load bearing stone masonry but most of the kitchen block was steel structure. The office block was mostly load bearing masonry walls with steel beams and slab on it. Same load bearing masonry walls with steel beams and slab on it was there for classroom block.

Fig. 4: Plan of level 2 of Quad building at Woodstock school.

Level-2 mostly consists of classrooms, guestrooms and offices. All the blocks were load bearing masonry. Some of the blocks were having level-3 and some of them were having level-2 only. For roof, some blocks had roof truss and some of them had slab. Over that they had roof slope to provide water drainage. For roofing of corridor on level-2, wooden sections with tin sheets over them were provided.

Fig. 5: Plan of level 3 of Quad building at Woodstock school.

Work Flow

Day-1 (October 18, 2019)

On first day of our visit we did a brief visit of Quad building for an overview. Then we prepared the way ahead and a rough plan of work needs to be done during visit. Then we met Mr. Raveesh Dogra on our first day. We discussed about our work plan and help we need from them. We discussed about the planning for opening of all fall ceilings and trusses. Then we discussed little bit about our work schedule for next 4 days.

Then in continuation of our previous work at Quad building we stated the mapping of the level -3 of the first block which consist of offices and classrooms. We met with the carpenters and guided them for opening of ceilings and then we started the measurements for structural mapping of that level. After that when ceilings were opened from 3 different places we went into the truss structure and did measurements of trusses. After that we did distress mapping of the same level on that day and we collected necessary data for that.

Fig. 6: Image showing mapping of corridor at music block.

Day-2 (October 19, 2019)

On second day of our visit we then started the other block of the quad building. This block consists of mess on ground floor and class rooms on level-1. We started our work from level-1 corridor of the block since carpenters were not present. As soon as carpenter came we guided them to open the truss ceiling. But it was not possible to open ceiling of that floor so we decided to open steel roof sheet from top and inspect the truss from there. As soon as sheet was removed we went inside for mapping of truss. Like this we opened another sheet for the block which was in continuation with previous block and we did mapping of that block. After that we did mapping of the classrooms and offices present on level-1. After that we did distress mapping on level-1 and we collected necessary data needed.

Fig. 7: Image showing roof truss at Quad building. Day-3 (October 20, 2019)

Day 3 was Sunday so we had the carpenters for only limited period of time. So we decided first to open all the possible fall ceilings and then carpenter will leave and we will do the structural mapping and distress mapping work. So till afternoon we opened all the possible ceilings since some rooms were locked. After lunch we did mapping of art classroom and then structural mapping of all the possible rooms in different blocks. After that we went to the kitchen area on level-1 and opened that fall ceiling. Since ceiling of that one part was easy to open so we decided to do mapping of that part also. We did distress mapping work also simultaneously.

Fig. 8: Image showing roof wooden roof truss over art room at Quad building.

Day-4 (October 21, 2019)

On day 4 we started work from level-1 at admission office and lyon’s lounge. Then we moved to ICT office and we opened ceiling of all the possible parts and took measurements for structural mapping. Further we moved to back side area and did same for that part. Then we met Mr. Raveesh Dogra and Mr. Enosh Thomas for the discussion of work done and remaining work. We also showed them the parts which were not accessible for mapping. After that we started work in level-1 Mess building which was mix of both steel and concrete structure. That was last part which was remaining for mapping. About 4pm we completed our work from there and we left for Roorkee.

Distress Mapping of Quad Building

Distress mapping of any structure will enable us to find and locate the major areas of distress and there extent. Most of the times because of the ageing of building distress would appear in structures as a natural phenomenon. The one of the reason for distress during service is that the maintenance of the building is not done properly which results in deterioration/aging of materials and structural components leading to corrosion and cracking. For this study plans of the each floor of building were taken and areas of distress were detailed on it. Approximate width and length of cracks were also measured and reported. Photographs were taken and attached with their relevant location.

Fig.9: Image showing distress due to vertical and diagonal crack throughout wall.

Fig.10: Image showing horizontal crack cutting through the slab at music section corridor.

Fig.11: Image showing distress due to dampness in science lab.

SketchUp model of Quad Building SketchUp is a 3D modeling computer program which is used for a wide range of drawing applications such as architectural, interior design, landscape architecture, civil and mechanical engineering.

In our study we are preparing a SketchUp model of Quad building including structural elements of it. This enables us to understand the structural system of the Quad building. For this work, plans of all the levels of Quad building were provided by Woodstock school management. With use of those plans we did documentation of structural members and all openings present.

For documentation of Truss members sketches were prepared by Ms. Lalita Waldia and then used for preparation of SketchUp model.

Fig. 12: SketchUp model of music section at Quad building.

Fig. 13: Rough sketch prepared for documentation of truss.

Conclusion:

The main objective of this site visit was to do preliminary survey, Distress mapping and to make a SketchUp model of Quad building at Woodstock. The preliminary survey has been done to assess the overall condition of building.

ANNEXURE 15 Documentation of Distress for Quad building at Woodstock School

Objective: Main objective of present study is to do the distress mapping of the Quad building in Woodstock school. This study will enable us to find and locate the major areas of distress and there extent.

Causes of Distress: Most of the times because of the ageing of building distress would appear in structures as a natural phenomenon. This natural distress is due to natural wear and tear. In the present days, the structures are subjected to very aggressive environment. The old structures which were constructed in non-aggressive environment and without any special preventive measure are now very badly affected due to gradual deterioration of the environment around them.

The one of the reason for distress during service is that the maintenance of the building is not done properly which results in deterioration/aging of materials and structural components leading to corrosion and cracking. Buildings or structures are damaged when they are subjected to extreme loading conditions like in earthquakes or storms or any addition of load for which they are not designed.

The structure will also show sign of distress if the building including the foundation is not properly designed and constructed or not properly maintained.

The structure would remain in its service for a long period only if during this long period there would be no addition, alteration and overloading of any member or part is done.

Procedure: For this study plans of the each floor of building were taken and areas of distress were detailed on it. Approximate width and length of cracks were also measured and reported. Photographs were taken and attached with their relevant location.

Main Building

Level 1

Location of Distress: DL1-1

Type of material/ construction: Stone masonry wall with plain cement plaster on it.

Description of Distress: Severe dampness was observed which was starting from half wall and continued up to floor level.

Fig. 1: Image showing dampness and removal of paint.

Location of Distress: DL1-2

Type of material/ construction: Reinforced cement concrete slab.

Description of Distress: A major crack was observed in slab running from one end of wall to another end.

Width of crack: 1-2 mm.

Length of crack: Not accessible.

Fig. 2: Images showing major crack running across slab. Location of Distress: DL1-3

Type of material/ construction: Stone masonry wall.

Description of Distress: A vertical crack was observed starting from roof of the wall.

Width of crack: 0.5mm-1mm.

Length of crack: 1m approx.

Fig. 3: Image showing vertical crack starting from top of slab.

Location of Distress: DL1-4

Type of material/ construction: Stone masonry wall with plain plaster on it.

Description of Distress: Severe dampness was observed which was starting from top of wall.

Fig. 4: Image showing severe damping in wall. Location of Distress: DL1-5

Type of material/ construction: Wooden beams with slab over it.

Description of Distress: Severe dampness was observed in slab and wall which was causing decolouration and degradation of beams and wall.

Fig. 5: Image showing severe damping in wall, slab and degraded beams.

Location of Distress: DL1-6

Type of material/ construction: Stone masonry wall.

Description of Distress: A vertical crack was observed starting from roof of the wall.

Width of crack: 0.5mm-1mm.

Length of crack: 1m approx.

Fig. 6: Image showing vertical crack. Location of Distress: DL1-7

Type of material/ construction: Stone masonry wall.

Description of Distress: A vertical crack was observed starting from roof of the wall and merging in door.

Width of crack: <0.5mm.

Length of crack: 1.5m approx.

Fig. 7: Image showing vertical crack starting from roof.

Location of Distress: DL1-8

Type of material/ construction: Stone masonry wall.

Description of Distress: Crack was observed which was passing through window and extended up to floor level.

Width of crack: 0.5-1mm.

Length of crack: 90cm approx.

Fig. 8: Image showing vertical crack passing through window. Level 2

Location of Distress: DL2-1

Type of material/ construction: Stone masonry wall.

Description of Distress: Severe dampness was observed which was starting from slab and continued up to floor level.

Fig. 9: Image showing severe dampness starting from slab.

Location of Distress: DL2-2

Type of material/ construction: Stone masonry wall.

Description of Distress: Dampness and vertical crack was observed in wall starting from bottom of beam.

Width of crack: 0.5mm.

Length of crack: 60cm

Fig. 10: Image showing dampness and vertical crack Location of Distress: DL2-3

Type of material/ construction: Stone masonry wall.

Description of Distress: Major vertical and diagonal crack was observed in wall.

Width of crack: 2-3mm.

Length of crack: Throughout the wall.

Fig. 11: Image showing vertical and diagonal crack. Location of Distress: DL2-4

Type of material/ construction: Concrete slab floor.

Description of Distress: Horizontal crack was observed in slab which was running throughout slab and merging in wall.

Width of crack: 0.5mm.

Length of crack: 40cm.

Fig. 12: Image showing horizontal crack in slab and merging in wall. Location of Distress: DL2-5

Type of material/ construction: Stone masonry wall.

Description of Distress: Vertical cracks were observed in wall.

Width of crack: <0.5mm.

Length of crack: Over height of wall.

Fig. 13: Image showing vertical cracks in wall. Location of Distress: DL2-6

Type of material/ construction: Concrete slab.

Description of Distress: Horizontal crack was observed in slab over beam.

Width of crack: 0.5-1mm.

Length of crack: 1.5m approx.

Fig. 14: Image showing horizontal crack in slab. Location of Distress: DL2-7

Type of material/ construction: Stone masonry wall.

Description of Distress: A vertical crack was observed starting from roof of the wall and merging in door.

Width of crack: <0.5mm.

Length of crack: 1.5m approx.

Fig. 15: Image showing vertical crack starting from roof. Level 3 Location of Distress: DL3-1

Type of material/ construction: Concrete slab with plain cement finish on floor.

Description of Distress: Horizontal cracks were observed in slab, which were running from wall to end of slab.

Width of crack: 1mm-3mm.

Length of crack: Crack was running throughout the slab.

Fig. 16: Images showing horizontal crack in floor.

Location of Distress: DL3-2

Type of material/ construction: Stone masonry wall.

Description of Distress: Vertical cracks were observed in wall.

Width of crack: <1mm.

Length of crack: Cracks distributed throughout height of wall.

Fig. 17: Image showing vertical cracks starting from top of beam. Location of Distress: DL3-3

Type of material/construction: Stone masonry wall.

Description of Distress: Severe dampness was observed which was starting from half wall and continued up to floor level.

Fig. 18: Image showing dampness and vertical cracks in wall.

Location of Distress: TD-1

Type of material/construction: Stone masonry wall.

Description of Distress: Vertical and diagonal cracks were observed.

Fig. 19: Image showing vertical and diagonal cracks.

Location of Distress: TD-2

Type of material/construction: Stone masonry column.

Description of Distress: Vertical cracks were observed in stone column.

Fig. 20: Image showing vertical cracks in stone column. Location of Distress: TD-3.

Type of material/construction: Steel truss members.

Description of Distress: Due to seepage of water from top of truss steel members had started to get corrode.

Fig. 21: Image showing steel sections started getting corroded.

ANNEXURE 16 SITE VISIT REPORT (Munsyari)

Objective: Discussion with community and Malika about Renovation work for homestays, Setup for craft school, documentation of first homestay and Initial design discussion with owner. Introduction: Location and setting of Sarmoli, Munsyari

Sarmoli is a small village situated just a kilometer away from Munsyari, Uttarakhand and is nestled in the backdrop of the Panchachuli Range and located above the wild Gori Ganga River.

Figure 1 Image showing Sarmoli village, Source: Google Maps

Latitude and Longitude Values: 30.079142, 80.237329

Sarmoli Pouplation – Pithoragarh, Uttarakhand

Sarmoli is a medium size village located in Munsyari Tehsil of Pithoragarh district, Uttarakhand with total 216 families residing. The Sarmoli village has population of 848 of which 403 are males while 445 are females as per Population Census 2011.

In Sarmoli village population of children with age 0-6 is 103 which makes up 12.15 % of total population of village. Average Sex Ratio of Sarmoli village is 1104 which is higher than Uttarakhand state average of 963. Child Sex Ratio for the Sarmoli as per census is 1146, higher than Uttarakhand average of 890.

Sarmoli village has higher literacy rate compared to Uttarakhand. In 2011, literacy rate of Sarmoli village was 86.58 % compared to 78.82 % of Uttarakhand. In Sarmoli Male literacy stands at 92.96 % while female literacy rate was 80.77 %. WORK FLOW –

Lalita Waldia from research team, IIT Roorkee went to Munsyari and reached there on 10th Nov evening and stayed in Bina Nitwal’s Homestay for three days.

Day 1 –November 11th, 2019

In the morning she was part of interaction with group of women from different regions of india and village women in Maati Sanghthan, Sarmoli. They discussed about their day to day challenges, motivation and how they have come so far in their journey.

Figure 2 Meeting of women from different region in india and women from ‘Maati’

In the afternoon she had a meeting with Malika and community for the discussion of upcoming renovation work.

IMPORTANT POINTS FROM THE MEETING

- Introduction of people involved in meeting. - Description of project to community by Malika defining different roles, project goals, importance etc. - Himal Prakriti have Rs80,000 that can be used in Renovation work, research team will take care of first installation (community will adjust total amount within themselves so that every homestay will have equal share). - Agreement with Carpenter (emolument of Rs15,000, 8am to 5pm and six days working in a week). - Lalita from research team explained detailed steps (documentation of facade, discussion with homestay owner for design, final drawing). - Master craftsmen (Sharma ji) is not available, training can start after he will back. - Total 8 carving tools are required, two of them are already brought by carpenter. Research team will provide other tools for cutting wood etc. - 18 wooden planks are available (8’x9”x1.5”) with total cost of Rs2000 including labor charge. - Rough estimation for quantity of wood is 3 to 4 planks per homestay. - Discussion with community about what they thinking for their homestays, most of them agreed to start with door frame only but final decision will be of individual owner.

Figure 3. Meeting with Malika and community

Day 2 –November 12th, 2019

In the morning she met carpenters and had a look on the tools required for carving work and temporary identified place for craft school.

Tools includes all Knives and chisels (chip carving, U-gouge, V-gouge, Bent and spoon gauge). Two new tools are brought by carpenter and other four are of Sharma ji that can be used for initial work until crafts school gets its own tools. Probably Sharma ji will get these tools or else they can be prepared by local Blacksmith.

Temporary place for Crafts school is identified in house premises of Malika. It’s a temporary tin shed.

Figure 4. Tools required for wooden carving

Figure 5. Temporary shed for Craft School

After that she met Rekha Rautela (owner of homestay of pilot project), documented her house mainly façade and door and window details.

Details of the house -

There are two guest rooms with door cum window type opening (wooden frame with glazing and wire mesh). Roofing is pitched with wooden rafters and covering of metal sheet, Flower bed between two doors, Handmade (By Rekha’s husband) wooden sculpture of sheep is hanged on the front wall. The house is made up of concrete with modern facility toilet but they tried to maintain some features of traditional buildings by applying paste of mud with an adhesive in the plastered walls.

Figure 6. Rekha’s house

Figure 7. Wooden Sculpture

Figure 8. Façade of Rekha Rautela’s Homestay

Figure 9. Onsite sketch of front elevation

Figure 10 On site sketch of Door and window details

Day 3 –November 13th, 2019

On third day she discussed designs with the owners from the Motif’s catalogue book. On the basis of initial design interest of owner, she made two different design option.

Option A – It consists of repetition of a singular design element (two curves and in between flower bud) on three sides of door frame. If we will take the length of design 5cm then approx. 40 units can be carved along the length of the door. This design pattern is selected by Rautela family.

One curve in the section for blending new wood section to the existing frame for seamless appearance.

Figure 11 Showing Option ‘A’

Option B - This is more complex than earlier. There is lord Ganesha on top middle of the frame. The overall pattern remains same. One additional element is carved wooden arch on the top of the door frame.

Figure 12 Showing Option ‘B’

Conclusion

The initial work for renovation is done that includes interaction with community and carpenters, Setup for craft school and initial design discussion with homestay owner. Final design will be discussed with master craftsmen. Training will start when Master Craftsmen will be back to Sarmoli.

Sample of Munsyari soil is collected by Lalita for soil testing in IIT Roorkee.

ANNEXURE 17 SITE VISIT REPORT (Munsyari)

Objective: To be part of Craft studio and document the work flow for “Likhai”. Introduction: Location and setting of Sarmoli, Munsyari

Sarmoli is a small village situated just a kilometer away from Munsyari, Uttarakhand and is nestled in the backdrop of the Panchachuli Range and located above the wild Gori Ganga River.

Figure 1 Image showingSarmoli village, Source: Google Maps

Latitude and Longitude Values: 30.079142, 80.237329

SarmoliPouplation – Pithoragarh, Uttarakhand

Sarmoli is a medium size village located in Munsyari Tehsil of Pithoragarh district, Uttarakhand with total 216 families residing. The Sarmoli village has population of 848 of which 403 are males while 445 are females as per Population Census 2011.

In Sarmoli village population of children with age 0-6 is 103 which makes up 12.15 % of total population of village. Average Sex Ratio of Sarmoli village is 1104 which is higher than Uttarakhand state average of 963. Child Sex Ratio for the Sarmoli as per census is 1146, higher than Uttarakhand average of 890.

Sarmoli village has higher literacy rate compared to Uttarakhand. In 2011, literacy rate of Sarmoli village was 86.58 % compared to 78.82 % of Uttarakhand. In Sarmoli Male literacy stands at 92.96 % while female literacy rate was 80.77 %.

WORK FLOW –

Lalita Waldia and Shubham Kumar from research team, IIT Roorkee went to Munsyari and reached there on 19th Nov evening and stayed in Heera’sHomestay.

Day 1 – December 20th, 2019

In the morning all the tools are safely transported to the site. The tools include Table saw, Power planner, Hammer drill and Grinder.

Figure 2. Transportation of tools Figure 3. Temporary work space

Then she had a meeting with Malika and community regarding upcoming works and craft school.

Figure 3. Meeting with HimalPrakriti IMPORTANT POINTS FROM THE MEETING

- Introduction of all people involved. - Discussion of work so far done and how we will proceed further in Craft studio. - Samples of works carved by new master craftsman Sharma jiwas shown.

Figure 4 and 5. Sample Likhai work by Master Craftsman (Sharma ji)

- So far craftsmen are using manual tools and need generator for using power tool mainly for table saw. - Attendance is maintained on site. Also samples of design and measuring drawing in hard copy was on site.

Figure 6. Attendance sheet Figure 7. Measuring drawing for Rekhaji homestay

- Homestay owner applying for loans for renovation of Homestays (DeendayalUpadhyayaGrihAwasVikasYojana) required pictures and floor plans of homestay rooms. - Lalita from research team can draft floor plans and Maddy (PHd student from US) can take photographs for homestays. - Estimation for Bamboo board from Timpack green gold,Meghalaya is required (Nature intrepetationcentre, workshop and Chandra ji’snew home). - 3D for shed in MesarKund (three level pitched roof) required for visual understanding. - HimalPrakriti asked research team for expenses for food of craftsmen working on craft studio. The approx. amount is Rs.2000 per month. This is to be figured out if it’s possible or not. The other amount research team will reimburse after a month that includes salary of three craftsmens, rent (2000 per month) and tools.

Figure 8 and 9. Samples of Bamboo board.

Day 2 – December 21st, 2019

All the tools and raw materials required for wood carving were brought by Raju ji. Bills are collected by Lalita for reimbursement.Frame is ready for the first house and then carving was to be done next day.

Figure 10. Required tools Figure 11. Bills

Figure 12. Door frame

Day 3 – December 22nd, 2019

Lalita went to nine homestays for floor plans, then drafted the plans on Auto Cad and shared with Malika for further procedure for loan. While documenting she met Chandra ji, she mentioned about her old house that is in dilapidated conditionand asked whether project can work on that. The roof was leaking and there is no one with knowledge of assembling slate (‘’pathar”in local term). If they will not find one, then they will use tin sheet as roof covering. For them it is most easy way of doing. She also mentioned they had single house for three bothers earlier but now two of them converted there into concrete house as a result the single roof they use to have is now with only one third part.

Figure 13 and 14. Floors plans of Homestays.

Figure 15. Chandra’s old house.

Day 4 – December 23rd, 2019

Lalita discussed with Malika and community about conservation work for Chandra’s old vernacular house.They were very enthusiastic about this as it is only house in Sarmoli with vernacular architecture and will be an example of vernacular houses in Sarmoli.

Lalita went to Mesarkund with Deepaji and Chandra ji for measurement of the shed. There were three concrete blocks already constructed with dug out ground.

Figure 16 and 17. MesarKund site with Deepaji and Chandra ji. Day 5 – December 24th, 2019

For design pattern of motif was discussed with owner Rekhaji and master craftsmen. As the pattern should be as per as aesthetic taste of owner and at the same time should be easy to start for craft studio.

The designs include two patterns mainly one for jamb and other for head of door. The first pattern is repetition of leafwith mid rib or main vein and second one is flower (six to eight petals) with leaflets.

Figure 18. Design pattern for head Figure 19. Motif for jamb (first from right)

Day 6 – December 25th, 2019

Rekha have two doors cum window fenestration for homestay. With mutual discussion with craftsmen, Rekhaji and Malika ji about frame for wood carving. As a result,craftsmen will carve wood for door frame including fan light part (window above door). It will look more complete. For now, craftsmen are working on doors and later on owners can do for windows too.

Figure 20. Fenestration of Rekhaji’s homestay.

Day 7 – December 26th, 2019

The master craftsman craved on two jamb part and two craftsmen were working on other two jambs. Sharma ji gave some tips and techniques on how to start working with carving on wood and consistently gave guidance to both Raju ji and Mahendra Ji.

Rekhaji mentioned to change design pattern for head part as it will break monotony. In addition to this it will also give new exposure for learning different pattern. For this she chooses a different pattern for head part from motif’s catalogue. The design pattern is originally from main door from Pithoragarh (“kholi”). Originally the design was on all three sides but here craftsmen carving flower pattern on two heads one for door and one for fanlight.

Figure 21. Raju ji learning from Master craftsmen

Figure 22. Motif design for door jamb. Day 8 – December 27th, 2019

Lalita estimated the area for bamboo board and shared with Malika and did some changes required as per her discussion with Malika.

Figure 23. Estimation for bamboo board.

Day 9 – December 28th, 2019

Discussion on polishing carved frame for better aesthetic. Linseed oil is traditional way of polishing wooden frames. Things that should keep in mind for polishing with linseed oil is first the quality of oil and secondly polishing should be done many times for better result and it will last long with good appearance.

Lalita worked on 3D for MesarKund for conceptual level and discussed with research team for structural support.In the view there are eight columns. The first two columns have clear height of 3m and it goes on increasing with next columns to about 40cm to give rise to elevated roof.

The master craftsman drafted floral pattern for head part by using compass and pencil (making circles and equal spacing). He also worked on the joinery for frame.

Figure 24. 3D for shed in MesarKund

Day 10 – December 29th, 2019

Lalita went to Shankhdhura for measuring drawing for next homestay. The first homestay was Bina Nitwal’s and second one was Basanti’s. Both have two doors for carving frames, the only difference between them is Basanti’s homestay have fan light thus will require two head and one for Beena’s homestay.

Bina’s homestay is on first floor and Basanti is independent unit, have door cum window fenestration with broader doors.

There were three wooden planks for two doors with fanlight part. So, the rough estimate for wood for two doors with fanlight is Rs.3000 (approx.).

Figure 25. Basanti’s homestay Figure 26. Bina’s homestayFigure 26. Figure 26

Figure 27. On site sketches

Day 11 – December 30th, 2019

Carpenters were on leave. Lalita worked on furniture layout for Chandra’s new homestay room and made two option for owner.

Figure 28 and 29. Options for furniture layout Day 12 – December 31th, 2019

Two carpenters were on leaveas they worked on last two Sundays. Sharma ji worked on head part of the frame. This is third head there is still one more is left.

Figure 30. Master craftsman carving on head Figure 31. Motif for head

Day 13 – January 1st, 2020

Two carpenters were on leave as they worked on last two Sundays. Sharma ji worked on head part of the frame. This is third head there is still one more left.

Day 14 – January 2nd, 2020

Due heavy snowfall in Sarmoli no work is done on this day.

Figure 32. Snowfall in Sarmoli

Day 15 – January 3rd, 2020

Fourth head was almost done. Then the craftsman worked on joinery part of frame. They used extrapieces of wood from jambs for fanlight part by using adhesives.

Figure 33. Joinery for frame Day 16 – January 4th, 2020

Frames with “likhai” work were done and ready to fit on existing door frames. Craftsman took all parts of frames to Rekhaji’s homestay with all required tools.They took frame and alter the frame as per the dimensions. Some part of frame was inserted on plaster so they removed some part by Chisel and then fixed the frame with nails with use of drilling machine.

Figure 34. Craftsman working on site

Figure 35. Likhai work for Rekha’s homestay

Figure 36. Door frame after “likhai” work.

Figure 37. Excel sheet

Conclusion

Work for one homestay is done including wood carving and fitting to existing door frame. The same procedure will be following for remaining homestays. Measuring drawings of façade are done for next three homestays. Designs are to be discussed with owner and master craftsmen.

Trilokji from Sarmoli can update and share pictures for work status and also will maintain excel sheet for all expenses for craft studio.

ANNEXURE 18 “LIKHAI”

Figure 1. Likhai work in Munsiari

Likhai (Carving on wood for doors and windows frame), once an integral part of the cultural history of Kumaoun region, is endangered today. The craft, which has religious roots—often featuring carvings of gods, goddesses and kings and queens at one point—is slowly dying because of the dearth of artisans willing to take it up and also from the unavailability of toon wood (Source: TheHindu).

This is a documentation of “Likhai” done by Craftsmen in village Sarmoli, Munsiari during craft studio under project Resilient Himalayan Homes (IIT, Roorkee with HimalPrakriti, Sarmoli).The first step was arrangement of wood that is appropriate for carving. About 50 woodenplanks (white walnut) of size 2.4m x 0.2m x 0.03m was arranged by Raju ji (local craftsman) for craft studio. The planks are then cut into pieces as per measurement of doorsof homestay. By using power planer (“Randa” in local term) the surface of wood was cleaned for clear surface.

Figure 2. Craftsman using power planer The door frame was set up by Sharma ji (Master craftsman) as per the measurement and required joinery.

Figure 3. Joinery detail of frame

The design pattern for motifs was selected by mutual discussion with owner and carpenter. There was two design pattern one for head and jamb. They started with jamb part first that was series of leaves with a mid-rib.

Stancil was made with cardboardfor uniform size design. With the help of this they drafted the design on wooden jamb with pencil. One single leaf was 10cm in length with total about 30 leaves in series.

Figure 4. Stancil and drafting on wooden member

Before drafting they took margin from both sides. The door side is chiseled to about 2cm for cornice that will give a smooth finish and not as one rectangle section over other existing section. A line is drawn on wooden part and with the use of chisel and hammer they chiseled out wooden part.

Figure 5. New frameFigure 6. Edge of the frame

Figure 7. Carpenter making cornice

Figure 8. Frame edge For carving motif the thing they did first was to chisel out the portion other than the design part. Thus the raised part was only the motif design part. The edge of the design part was not straightly carved to the base but is more tapered that is might be due to safety of the edge.

Figure 9. Carving procedure

- A and B are two patterns of leaves. - + sign for raised part and – sign for depressed part.

The motif design for head part is series of full blown flower with six to eight petals. Master craftsman first draft the design on wooden member using compass and pencil. Two flower are at equal distance with in between ogee shape stem with leaflets.

For carving he first marked circle (Disk florets) inside main flower circle and carve out that portion and then other part. The leaves are then chisel out followed by petals of flower. Master craftsman gave final touch to carving by impression of seeds on central portion of flower.

Figure 10. Drafting on wooden member

Figure 11. Craving of flower part first

Figure 12. Craftsmen carving on head frame

Figure 13. Seeds on Disk florets (special touch by master craftsmen) Craftsman joined wooden frames to make one single unit and to utilize most of the wood. Master craftsman mentioned that if wood is dry it is easy to join and will not create any issue in future.

Figure 14. Joinery of different wooden member for single frame

Once they done with carving they clean wood with sand paper and finally with router. After the frame was ready they took all parts to site with necessary tools and materials that includes nails, drilling machine, saw etc. With the drilling machine they made holes about 30cm apart. Some part of the door frame was covered with plaster so, they removed that portion.

The frame then is nailed to existing frame by using hammer. While doing that the glass was shaking as that was door cum window frame with glass. One carpenter gave support by using wooden log from inside where they were nailing. Polishing will be done after that with linseed oil thatis traditional way of doing and required a constant polish for a while and then will last ling and will protect wood.

Figure 15. Router machine for finishing

Figure 16. Craftsmen removing plaster

Figure 17. Craftsman drilling hole in frames

Figure 18. Fitting of door frame

Figure 19.Likhai frame on existing one

Figure 20. Carving procedure for jamb part

1. Wooden plank 2. Power planer 3. Joinery of frame 4. Cornice design for door edge 5. Stancil for motif 6. Drafting on frame 7. Shaded part to chisel out first

Figure 21. Carving procedure for head part

8. Drafting of head part design and compass 9. First part to chisel out 10. Petals of flower 11. Curved stem 12. Leaflets with slant edge with + sign for raised part and – part depressed part 13. Shaded portion to chisel out

ANNEXURE 19 Objective: To document the loom and warping drum for the revival of handloom practises in SIDH foundation.

Introduction: Handloom is one of the ancient practises in Indian subcontinent’s textile industry and it represents the rich cultural heritage and magnificent crafting skill of the people. It comprises the largest cottage industry of the country. Millions of looms across the country are engaged in weaving cotton, wool, silk and other natural fibres. Handloom forms a precious part of the generational legacy and exemplifies the richness and diversity of the country and the artistry of the weavers. The tradition of weaving by hand is a part of the country’s cultural ethos. Handloom in SIDH Society for Integrated Development in Himalaya (SIDH) is an NGO in Kempty, Mussorie founded by Mr Pawan Gupta who has engaged himself in providing meaningful, relevant, and holistic education as a tool for social change to local children and youth since 1989. Under the SIDH foundation, Mr Pawan Gupta started an initiative named Sanjivini 1999. It provided a vocational training programme for young adults (17-30 years) which included Bakery, plumbing, electrical and Handloom skills.

In 2002, the handloom practise was started in SIDH. Mr Rahees Haider, the master weaver started this practise and gave training to young adults. For two years this practise is continued in SIDH and later in 2004, due to some personal reason he shut down this unit.

Now, after 16 years Mr Pawan Gupta decided to revive handloom practise in SIDH. He contacted Mr Rahees Haider and discussed this idea with him. They brought two looms and one warping drum to start handloom practise again.

Documentation To document the handloom and warping drum, Ms Poonam Gamit, the Junior Research Fellow reached SIDH campus on 12th January 2020 at 01:00 pm. There she met Mr Rahees Haider who took her to the room where the setup of handloom and warping drum is done. The documentation is in the form of drawings, photos, videos and recorded audio of Mr Rahees Haider explaining the functions of parts of looms and warping drum.

Figure 1: Arrangement of two looms and one warping drum in SIDH campus

Warping Drum Warping is a process which converts yarn into linear form which wraps around weaving beam or belan and gives length of fabric in the loom. In this stage arrangement of threads can be done according to the desired sequence.

For this process, three units are there: Warping drum, Jaali and Grill. Grill: The process of warping starts from grill which consists of horizontal and vertical wooden members of size 1560 X 35 X 45mm and 1600 X 45 X 90mm respectively. The distance between two horizontal members is 110mm. There are eight horizontal wooden members which are connected by two vertical wooden members through mortise and tenon joints. In each horizontal member there are ten steel needles 120mm long on each side at a distance of 140mm centre to centre and on total 160 needles in grill. The purpose of needle is to hold yarn or thread ball into it. There are ten steel loops on both side of one vertical wooden member. The thread from each needle goes through the loops in the order of last needle to the top Figure 2: Left to right- Warping drum, Jaali and Grill loop, ninth needle to the second loop and similarly the first needle to bottom loop.

Figure 3: Details of Grill Figure4: Left: Grill, Top-right: Mortise and tenon joint and Bottom-right: Needle and loops Jaali: The next unit of warping is Jaali which consists of two vertical wooden members of size 1650 X 50 X 30mm. These wooden members hold eighty hooks, this number is decided according to the number of needles in grill. This should be half of the total number of needles in grill. Thread which comes from grill goes into these hooks. One thread will go from inside these hooks and another goes from in between of two hooks. After this stage, the thread comes into a linear form and goes towards drum.

Figure5: Details of Jaali Figure 7: Hooks of Jaali Warping drum: This warping drum is made of wood. Another material which can be used for making drum is steel. The components of warping drum are chokta (frame), dhura, saapt and ghodi. The frame includes horizontal and vertical wooden members to hold the all elements of drum together. It consists of four top horizontal members two of them are of size 2600 X 100 X 75mm with a niche at one end to hold belan and other two are 1680 X 60 X 45mm, four bottom horizontal members two of size 1300 X 80 X 60 mm and another of 1680 X 60 X 45mm, and four vertical inclined members of 800 X 100 X 75mm. These members are joined through mortise and tenon joints.

Figure 8: Left- Frame of warping drum, Right- Niche detail and joinery detail

There are two gutka of size 340 X 100 X 75mm on the two opposite top horizontal members, to hold the dhura. These gutke are joint with the horizontal wooden members with the help of bolts. Dhura is a horizontal wooden member of size 1830 X 120 X 120mm which rotates around its horizontal axis. It holds eight saapts which consists of three Figure 9: Components of Warping drum- Gutka (left) and Ghodi (Right) vertical and one horizontal wooden member. Each saapt has three joints with dhura. Out of these eight saapt, one saapt is having needles on its horizontal member to hold the threads coming from kanghi of ghodi. After all the saapts are joined into dhura it forms a chakra. Wooden member of size 547 X 40 X Figure 10: Joinery details of Saapt and Dhura 15mm is nailed at adjacent vertical members of saapt to hold it in circular form. As dhura rotates, the thread starts wrapping around chakra till the decided length of fabric. After this, the dhura will rotate in opposite direction and the thread will start wrapping in belan.

Figure 11: Process of fixing Saapt into Dhura Figure 12: Warping drum

Figure 13: Details of Warping Drum

Figure 14: Details of Saapt Handloom Unit

A loom is a mechanism or tool used for weaving yarn and thread into textiles. Weaving is a method of textile production in which two distinct sets of yarns or threads are interlaced at right angles to form a fabric or cloth. The longitudinal threads are called the warp (tana) and the lateral threads are the weft (bana).

Handloom unit consists of five parts:

• Chokta (Frame) • Belan, Kharak K1 (tread) and tur • Kharak K2 (Fabric) and hatha (kanghi, shuttle) • Takhta (plank to sit) • Chidhiya, ranch and paddle

The frame of loom consists of 12 wooden members: four vertical members of size 1685 X 90 X 75mm, four top horizontal members out of which two are of size 1620 X 90 X 75 and other two are of 1670 X 60 X 35mm, and four bottom horizontal members out of which two are of size 1220 X 90 X 75 and other two are of 1670 X 60 X 35mm. This frame holds the remaining components of looms. These members are joined through mortise and tenon joints and nails. This loom is documented in three levels: level 1, level 2 and level 3. Level One Figure 15: Handloom Unit The components in level one are paddle and belan.

Paddle: In a loom, number of paddles are always even. Two paddles are used to make simple cloth, four paddles are to make hearing bond (M-shape design/ diamond shape) and six paddles are used to make same design as four but in larger size. This loom consists of four paddles of size 1060 X 35 X 15mm each. One side of these paddles are loosely connected to one bottom horizontal wooden member. On another side of paddle there are twelve holes in which parachute thread is tied, which Figure 16: Paddle connects paddle from chidhiya and ranch.

Weaving beam / Belan: This is the same belan which is prepared in warping drum. The length of belan gives the width of fabric. On two front vertical wooden members of loom, there is gutka to hold belan. There is a gaurari made up of steel, it’s a circular plate used to apply brake on belan.

Figure 18: Left- Gaurari and wooden rod to apply break; Right- Gutka to hold belan

Figure 19: Details of plan of level one of handloom Level Two: The components of level two are kharak K1 (thread), kharak K2 (fabric), tur (fabric belan) and takhta. There are two vertical wooden members of 470 X 90 X 75mm which holds two horizonal members of 810 X 90 X 75 mm.

Kharak K1 (thread): It is hold by two gutkas, which are above the another two gutkas on two front vertical members. This tightens the threads which are coming from belan, and further thread goes into ranch.

Figure 20: Gutka to hold Kharak K1

Figure 21: Belan, Khrak K1 and Tur

Tur (Fabric belan): It is a circular horizontal wooden member of 1670mm long and 100mm diameter; it holds the final cloth which is weaved in this loom. It is hold by two horizontal members. On one side of there is a gaurari which is a circular steel plate to apply break on the rotation of tur.

Figure 22: Gaurari for Tur

Kharak K2: The kharak wooden member of size 2040 X 90 X 60mm, fixed above two vertical members on this level. This tightens the cloth which is coming out of hattha and further goes to tur. Both the kharak should be at same level.

Takhta (wooden plank): It is a wooden plank of size 1970 X 100 X 20mm, used to sit and operate the loom. It could be inside or outside the loom.

Figure 23: Kharak K2 and Takhta

Figure 24: Details of plan of level 2

Level Three: It consists of hatha and chidhiya. In this level, all the components are hanging from top horizontal wooden members. Figure 26: Chidhiya

Chidhiya: There are total eight chidhiya (double of no of paddle), four on two sides. Thread coming from chidhiya is connected to ranch and paddle. This thread is known as parachute thread. Thera are many knots tied in this thread. The purpose of these knots is to assemble smaller units of looms.

Hatha: It is the last and most important component of looms. This consists a shutte, kanghi and hattha for kanghi. Thread which is coming from ranch goes through kanghi. The shuttle is also having Figure 25: Setup of Chidhiya in loom thread(bana). This is the part where threads interlaced at right angles to form a fabric or cloth.

Figure 28: Components of hatha: Shuttle (top) and khanghi (middle); Bottom- Figure 27: Hatha for loom Detail shows the placement of hatha above wooden members

Figure 29: Details of plan of level 3

Figure 30: Details of side elevation of loom Conclusion Ms Poonam Gamit successfully documented the handloom unit and warping drum in SIDH foundation. This practise is revived after 16 years in SIDH foundation which shows the importance of rich cultural heritage and magnificent crafting skill. This will help the community in Kempty, Mussoorie to develop their crafting skills and it disseminate the traditional knowledge to the next generation.

ANNEXURE 20 Objective: To document the second stage i.e. working process of handloom unit.

Introduction After the installation of handloom units Mr Rahees Haider, the master weaver started the preparation for first bunch of fabric from the unit. He bought 50 kilograms of raw materials in form of thread cones and hank (laccha) for production from Meerut. The preparation started from 23rd January 2020 and to document this Ms Poonam Gamit, the Junior Research Fellow reached SIDH campus on 27th January 2020 at 01:00 pm.

Procedure: The procedure of weaving fabric starts with the designing of fabric. Mr Rahees Haider decided to make a fabric which is 50 meters long and one meter wide.

The working process of handloom unit includes the following stages:

• Warping • Drafting • Denting • Weaving Warping Warping is the process of making hank yank to linear lengthy form in a huge warping wheel, which helps the yarn to take position of warping section for weaving. Following are the steps for the process of warping:

Step 1: Mr Rahees Haider made 50 thread gutke from 6 kgs of raw material to make the fabric of decided dimensions. He made these with the help of Gandhi charkha in three days.

Figure 1: Raw material in form of hank (left) and thread cones (right)

Figure 2: Making of thread gutke with Gandhi charkha Figure 3: Thread gutke in the grill

Step 2: These thread gutke are placed into the needles of the grill. Twenty-five thread gutke were placed on both sides: nine gutke on top two layers and seven gutke on third layer. The thread from last gutka on 1st layer will go from the top loop in the vertical member of grill with the help of taarbharni. Then thread from second last gutka will go through second loop. All the threads from remaining gutke goes according to the same pattern.

Step 3: In next stage, these threads go across the jaali that is placed before the warping drum. The threads from one side of the grill enter inside the hooks of jaali and threads from the other side of the grill crosses between these hooks.

Figure 2: Threads going across the jaali Figure 3: Threads coming from muh of kangi

Step 4: Out of fifty threads coming from jaali, a group of five threads go through one ghar of kanghi which is fixed in ghodi.

Step 5: These total 50 threads are tied together in one nail of saapt in drum. The perimeter of circular saapt of warping drum is five meters. Saapt is rotated, so that these threads are tightly covered on the saapt. According to the decided length of fabric, ten rotations of saapt is required to make 50-meter- long fabric. After 10 rounds, the threads coming from jaali are cut and hooked it into one saapt.

Figure 6: Bunch of 50 threads tied to a nail in saapt Figure 7: Rotation of charkha

Step 6: The above step is repeated for 41 times, so that there is total of 2050 number of threads for the width of one meter.

Step 7: One end of all the threads are tied together to a wooden plank which is tied to the belan (weaving beam). The handle fixed in belan is used to rotate it, so that circular saapt starts rotating in another direction and the threads are wrapped tightly in belan.

This is the end of warping stage and weaving beam is prepared which is used in further stages of handloom.

Figure 8: Rotation of saapt in other direction to prepare belan Drafting Drafting is the next stage in the working procedure of Handlooms. Following are the steps involved in drafting:

Step 1: Weaving beam (belan) which was prepared in warping stage is placed at the top of the loom along the ranch.

Figure 9: Belan is placed above the ranch (left) and four layers of the ranch (right)

Step 2: In this loom, there are four layer of ranches which are decided according to the number of paddles. Each ranch layer has almost 510 ranches in it for 2050 threads. From front side of loom each thread goes through the loop of individual ranch. This step will give the designing pattern in warp side. First thread goes from fourth layer, second thread goes from first layer, third thread from third layer and fourth thread from second layer which gives the sequence of 4,1,3,2. This sequence can be in any form but that should be followed for all the Figure 10: threads tied together after completion of drafting process threads. While doing this step some threads should be tied together. Note: From both end till twenty ranches, two threads go from one ranch to give strength to the edge of the fabric.

Figure 11: Belan, at its original place

Step 3: After completing step two, belan is placed at its original place in the loom. Denting Step 1: For this procedure, kanghi is tied above ranch. Step 2: Each thread goes from each muh of kanghi. This step should be done very carefully such that any muh is not empty or have threads from two ranches. Note: From both end till twenty ranches two threads go from one muh to give strength to both edges of the fabric. Step 3: After completing this step, kanghi is placed back to its original position. Figure 12: Kanghi tied above the ranch Step 4: All the threads coming from kanghi are tied to one plank at different points.

Figure 4: Threads are tied on a plank

Figure 13: Single thread coming from ranch and go across single muh of the kanghi Figure 14: threads tied with plank

Preparation before weaving Step 1: Parachute thread tied from first lower frame of ranch to the first paddle, second lower frame to second paddle and same for third and fourth paddle.

Figure 15: Parachute thread connecting the paddle and ranch Figure 16: Bobbin

Step 2: Bobbin is prepared with the help of Gandhi charkha. The thread in the bobbin is weft of the fabric.

Step 3: Bobbin is fixed into the tiri of shuttle.

Figure 17: Bobbin fixed in the shuttle

Weaving Step 1: Mr Rahees Haider sat on takhta from where he was easily able to move the paddle with his feet. The procedure of weaving starts when he moves two paddles (2 and 4 no.) down. By doing this half of the threads go down and make a V- shape opening. Figure 18: Weaving process Figure 19: V-shape opening for shuttle to cross

Step 2: Shuttle is placed on one side of gutka of hatta. Parachute thread is tied from these two gutke to upper frame of hatta. There is a handle in centre of thread to pull it. By pulling the thread, the shuttle goes from one side to another side through the V-shape opening of threads. After this Mr. Rahees pulls and pushes the kanghi, to tighten the weft threads.

Step 3: After step 2, Mr Rahees changes the paddle number from 4 to 3 and repeats step 2. Then he changes paddle number from 2 to 1. So, the sequence for paddles is 4,2,3,1. This sequence can be in any order.

Step 4: After repeating the above steps, the fabric starts getting the form. The fabric is the rolled into tur.

Conclusion Ms Poonam Gamit successfully documented the working process of handloom unit.

Figure 20: first set of fabric from handloom

ANNEXURE 21 GROUND FLOOR PLAN

A B C D

DN

+1350 PATHWAY

PATHWAY OBARA 2750 x 4500 -610

ROOM 1 E 2390 x 3420 E

UP -580 F BEDROOM 1 F 4090 x 5350 -880

WASH ROOM 2400 x 1200 VERANDAH 3200 x 3205 +580

-530

DN PATHWAY

DRIVER'S ROOM 4350 x 1750 -430

WASH WASH ROOM ROOM 850 x 1960 3270 x 1730 -240 ±00

A B C D PATHWAY

PATHWAY PATHWAY FIRST FLOOR PLAN F E

PATHWAY

PATHWAY

1155 A 4820 x 3870 KITCHEN

+2070 B

2400 x 1200 910 ROOM WASH BALCONY

BEDROOM 2 A 3335 x 790 4090 x 5350 +1870

+1870

200

B 835

1250 +1710

985 910 910 910 910 805 450 1135 975 1130 1135 LIVING ROOM SEATING 4340 x 5450 4340 x 805

C +1550 C 975 +1550 VERANDAH +1550 D D

975 STORAGE +1350 DN

±00 DN +2250 PATHWAY

DN 3490 x 3510 ROOM 2 4035 x 3225 ROOM 3 2285 x 1400 ROOM +2550 WASH

cupboard

PATHWAY PATHWAY PATHWAY F E TERRACE PLAN

A B C D

PATHWAY

E E

F F PATHWAY

±00

A B C D PATHWAY

PATHWAY PATHWAY SECTIONS ( A,B,C ) SECTION CC SECTION BB SOUTHERN SECTIONAL ELEVATION BEDROOM 2 BEDROOM 1 ROOM WASH ROOM WASH F F E E DRIVER'S OBARA ROOM LIVING ROOM KITCHEN ROOM WASH SEATING 610 1550 320 2100 1295 5870

610 1550 520 1900 1295

5835

880 2070 1900 1295 6145 SECTIONS ( D,E,F ) SECTION FF SECTION EE

SECTION DD

A B BEDROOM 2 BEDROOM 1

SEATING

A B OBARA ROOM LIVING D D ROOM LIVING C C OBARA OBARA ROOM LIVING

E E

C C

D D F F

B

A

B

A

610 1550 2420 1295

5835 2000 880 1550 320 2100 1295 1550 320 2100 1295 7265 6145 ELEVATIONS WESTERN ELEVATION EASTERN SECTIONAL ELEVATION NORTHERN ELEVATION

1120 880 1870 2100 1295

7265

530 1550 520 1900 1295 1120 880 1870 2100 1295 5755 7265

ANNEXURE 22 Objective: The objective is to document the techniques learned at lime workshop, which majorly focussed on making lime mortar for stone masonry, plastering and concreting.

Introduction The lime workshop was held at workshop area of Studio.net, Bhuj from 4th- 7th February 2020. Mr Kiran Vaghela, co-founder and mentor of Studiodot.in was the organiser of the workshop. Ms Poonam Gamit, JRF from IIT Roorkee along with two artisans, Mr Vinesh Negi and Mr Yashpal from Bisoi reached Bhuj on 4th February 2020. The workshop started with an introductory session between the people from Studiodot.in and IIT Roorkee. There were total seven Figure 1: Interactive session between people from Studiodot.in and IIT Roorkee people during the workshop; Mr Kiran Vaghela, Mr Mitesh Budhiya (architect from Studio.net), Mr Uttam and Mr Arjun (two artisans from Studio.net), Mr Yashpal, Mr Vinesh and Ms Poonam Gamit.

After the introductory session, Mr Kiran Vaghela started explaining about the lime as material. He explained about the lime cycle, benefits of lime as a construction material, types of unslaked lime and methods to identify them.

Figure 2: Lime cycle Source: Studiodot.in There are three types of unslaked lime: soft burnt, under burnt and over burnt lime. Soft burnt lime is the one which is fired to the right amount, under burnt lime are fired for lesser amount of time than needed and over burnt are fired for more amount of time. The soft burnt lime is light in weight and the other two are heavy. To identify the difference between these, they are put inside water. The soft burnt lime immediately reacts with water and other two takes time to react. Usually for construction purpose the light weight lime is handpicked for slaking purpose. Duration for slaking of lime is one month for mortar, Figure 3: Differentiating between types of unslaked lime masonry and plastering and three months for finish layer of plastering.

Lime mortar for Masonry and Plastering Materials The lime mortar used for masonry and plastering is constituted of five materials: lime putty, sand, surkhi/flyash, urad atta and glue.

• Lime putty: Unslaked lime or quicklime has to be slaked for minimum one month before using it for mortar. According to the scientific experiment, optimum density of lime putty should be 1.4 kg/litre, and not less than 1.25kg/litre. • Sand: Angular and well graded sand is recommended for making good mortar. • Flyash/ Surkhi: To give compressive strength to the mortar at initial stage. • Urad atta: It is used for adhesive purpose. • Glue: It is organic in nature and gives immediate adhesive property for mortar. Proportion ratio According to the IS code, proportion for lime and sand in lime mortar is 1:4. To get the weight of lime from lime putty, lime putty should be heated till the water completely evaporates and powdery form is left out. Usually, for a lime putty of density 1.25kg/l, the lime content is 510 grams.

The proportion of materials used for lime mortar is 10 litres of sand, 7.5 litres of lime putty, 2 litres of surkhi/flyash, 85 grams of urad atta and 185 grams of glue. Procedure The procedure of making lime mortar was demonstrated by Mr Uttam and Mr Arjun under the guidance of Mr Kiran Vaghela and then the artisans from Bisoi were asked to try the same. Before working with lime, it is suggested to wear gloves to protect skin. The procedure of making mortar for masonry and plastering is similar.

Masonry

Following are the steps for making lime mortar manually for masonry: Step 1: First step is to do screening of lime putty, sand and flyash using 75-micron net. This step helps in removal of lumps and other unwanted foreign materials in the admixture.

Figure 4: Screening of lime putty Figure 5: Screening of surkhi

Step 2: Take some amount of goond (tree gum) in a container, add water and heat it.

Figure 6: Glue (before and after heating)

Step 3: Take 10 litres of sand, 2 litres of surkhi and 85 g of urad atta. Mix it well properly in the dry form. Step 4: Add 7.5 litres of lime putty and 185g of glue-water into above mixture and mix it properly so that no lumps are formed. Mixing, chopping, beating and churning allows air to enter inside mortar, which helps in induration and carbonation of mortar.

Figure 7: Sand, surkhi and lime putty

Figure 8: Dry mixing of sand, surkhi and Figure 9: Mixing of mortar with shovel Figure 10: Proper mixing with feet urad atta after adding lime putty, goond and water Step 5: Add water according to the requirement and mix it well with shovel. For better results it should be done manually by feet.

Step 6: Before using lime mortar for masonry, curing is done with water or lime water on surface to protect the mortar from cracks due to absorption of water by masonry unit.

Figure 11: Construction of Stone masonry wall using lime mortar

Figure 12: Construction of Stone masonry wall using lime mortar

Following are the steps for making lime mortar using Pan mixer for 30 litres of sand:

Step 1: Start the pan mixer.

Step 2: Add 30 litres of sand and 22.5 litres of lime putty to it.

Figure 13: Mixing of sand and lime putty in pan mixer (left), Proper mix of mortar (right)

Step 3: Add 6 litres of surkhi, 255 grams of urad atta and 375 grams of glue water and let it mix properly.

Step 4: Add water accordingly

Step 5: After proper mix, take the mortar out through the opening which is at the bottom of pan mixture.

Figure 14: taking out mortar from pan mixer Plastering The procedure and ratio of materials for plastering is same as the masonry. The only difference is the consistency, the mortar which is used for plastering should be denser as compared to the mortar for masonry.

For the first two layers of plastering, lime mortar is used and for the final layer only lime putty is used. For curing of plaster, the water applies in

fogger or sprinkler way by which it will take more CO2 from air.

Figure 15: Tools used for plastering

Figure 16: Applying mortar with trowel for Figure 17: Applying layer of lime putty Figure 18: Applying water in sprinkler plaster way Lime mortar for concreting Lime concreting can be used only for plain concreting purpose or to fill some spaces on the surface of plain concrete. Materials The materials which are used in lime mortar for concreting are lime putty, sand, urad atta, glue, aggregate and burnt clay. Proportion Ratio and calculation The ratio for concreting is 1:2:2:2 where 1 part is lime, two parts each of sand, aggregates and burnt clay. Procedure Following are the steps for making lime mortar for concreting:

Step 1 and Step 2 are the same as that is followed for making masonry lime mortar

Step 3: Break the burnt clay into small pieces.

Figure 19: Breaking burnt clay into smaller pieces

Figure 20: Burnt clay

Step 4: Add 10 litres of sand, 10 litres of aggregate, 10 litres of burnt clay and 85 grams of urad atta and mix it well.

Step 5: Add 12.5 litres of lime putty and 185 grams of glue water.

Figure 23: Mixing of mortar for cncreting

Step 6: Before concreting any surface from lime concrete mix, wash the area from lime water it will activate space and create more bond.

Figure 22: Spreading of mortar on whole surface

Figure 23: Plaining the mortar

Figure 24: Finished layer of lime concreting Conclusion This lime workshop helped artisans to understand the use of traditional material lime for construction purpose. The artisans learned the techniques of making lime mortar manually and using pan mixture for masonry, plastering and concreting. The learning from this workshop will help during the construction of Mr Digamber Chouhan’s residence in Bisoi and will help in passing on the traditional building technique to the future generations.

ANNEXURE 23 MEDICAL CAMP- BISOI 29th February 2020 and 1st March 2020

Objective

To follow up about the previous medical camp and try to set up a sustainable relation between the hospital and the community.

The main objective of organizing the medical camp in Bisoi was to try and set up a sustainable relation between the hospitals and the community. After organizing the medical camp in September 2019, it was identified that there is a need of such camps in the village. The project identified the need of medical assistance in the village and so, we decided to organize yet another medical camp for Bisoi and nearby villages creating a relationship between the hospitals and the village.

Pre-camp preparation

The preparation for the camp started from December 2019. The first step was to interact with the community of Bisoi and get an opinion on organizing the second medical camp in the village. The village approved the idea of the same and were supportive. This time the focus was to build relationship between some hospital and the village. Thus, we contacted MAX Hospital, Dehradun and Vivekanand Charitable Trust, Dehradun to help us organise this camp and also take special care of the people visiting them from the camp. They agreed to the same and 3 doctors from MAX Hospital and one eye specialist from Vivekanand Charitable trust visited the camp. MAX also organized few free tests for the camp, ECG test, Bone Density Test, Blood Pressure test, Blood Sugar test. Vivekanand Charitable trust also provided free medicines and spectacles for the people who needed the same. Finally, we decided to have a medical camp of two days for total 18 villages as our target audience.

22nd-25th February 2020 One team member, Shambhavi Pandey went to Bisoi and nearby villages for promotion and pre-registration to identify the expected number of patients in the camp and health issues existing there. Two people, Mr. Ajendra Chauhan from Bisoi and Mr. Dile Ram Joshi from Nagthat, voluntarily came forward to do further registration and take the promotions forward. The promotion was done mainly by distributing the pamphlets and word of mouth.

Two days were finalised for camp which were 29th February 2020 and 1st March 2020 according to availability of community and doctors. After that we finalised two venues for camp, primary school and community hall. Logistics, accommodation and food for doctors and staff were taken care by project. Tests and consultancy were taken care by doctors.

Figure no. 1: Pamphlet for Advertisement

26th February 2020 Two people from the project, Shubham and Poonam, visited Bisoi in order to make required arrangements before camp. For two days following arrangements were done in camp area:

 Sitting arrangement for doctors and staff  Parking area near temple identified as location for registration desk as it was between both camp locations.  Accommodation for doctors and staff was organized in Nagthat which is 3kms away from Bisoi.  Apart from these, banners, memento, certificates and other requirements were taken care of.

Figure no. 2: Banner of the Medical Camp put in the venue Camp Day 1:

29th February 2020 (Saturday)

 Doctors reached with their team, to their respective hotels by 9:00AM, had breakfast and came to camp venue by 11:00AM.  Registration for day 1 started by 10:30AM  Camp was held from 11:00am-5:00pm, including one-hour lunch break.  Around 70 patients showed up on day 1  Most of the people on day 1 were from Bisoi

Figure no. 3: ECG test being organized

Figure no. 4: Community hall as one of the camp venues

Figure no. 5: Community hall as one of the camp venues

Camp Day 2:

1st March 2020 (Sunday)

 Camp on the second day started at 10:00AM.  Since eye doctor visited only on this day, footfall to meet eye specialist was more on this day  Due to marriage in nearby village expected number of people did not show up but still approx. 70 people showed up.  Registration was done till 2:30 pm, camp got over by 3:00pm.  After that there was thanksgiving ceremony in which the doctors and the staff were given certificates and mementos.

Figure no. 6: Bone density test

Figure no. 7: Eye doctors treating people

Figure no. 8: Eye doctor giving medicine and spectacles to the required patients.

Figure no. 9: Doctor given the memento and certificate as thankyou gesture

Figure no. 10: Doctor given the memento and certificate as thankyou gesture

Figure no. 11: News article published in the local newspaper

Figure no. 11: News article published in the local newspaper

The registration list is as follows:

Analysis & Conclusion

The tests conducted showed that the community have major bone issues with low bone density of majority of people. Few ECGs were also conducted which needs further consultancy. The hospitals addressed our concern of follow up treatment. MAX committed that every person going to MAX through this camp will be given concession of up to 60% on every charge possible.

Similarly, Vivekananda committed to provide free services to the people from the camp. They also identified 7 cases of cataract in the camp. The patients are to be taken to the hospital and operated by the end of March 2020.

The community has also showed interest in taking the ownership of organizing the medical camp in future with these hospitals. They have formed a small group which is willing to take it forward. It has been further decided that the next camp, if organized, will be with the help and support of the community.

ANNEXURE 24

2020 Site Visit Report Mr. Digamber Chauhan Residence, Bisoi

Shubham Jr. Project Fellow, IIT Roorkee

Dismantling of Existing Structure

Introduction

A site inspection was carried out by the team of IIT Roorkee to review the progress of work of Mr. Digamber Chauhan, Bisoi. The team has seen the work execution and following works has been done onsite.

Nomenclature

Before the dismantling of the old structure each wooden members and planks of the structure has Local villagers collating stone plates been documented in such a way that each of The heavy weight of the plates becomes very members can be relocated and can be used in an difficult for an individual to carry it alone from optimal way after the dismantling. the roof to place we were putting it. We had

made a chain of the villagers who transferred it to other and started putting it on place in such a way that the stone plates can be reused and don’t get any crack in it.

Nomenclature in the wooden planks of the structure

Removal of Stone Plates

Due to the lack of labour onsite, villagers played Roof after the removal of the stone plates a very important role in the dismantling of the existing structure. Initially we started with Removal of Wooden Members removing the stone plates from the roof.

Local villagers preparing to remove stone plates Villagers removing planks and wooden members

1 After the removal of the stone plates from the roof nomenclature has been done on the planks and then it has been removed from its original places. After the removal of all the planks from the roof it has been sorted and organised in such a way that it can be reused during the new construction.

Removal of Planks from the Wall

Wall after the removal of the roof and wooden member

Planks has been collated after the dismantling

Nomenclature has been done on drawings as well as the existing planks which helped us to relocate the wooden members easily. After the dismantling of the entire upper floor structure each wooden beams and planks has been separated as per their location and has been kept to reuse in the later stage of the construction. Section through the wooden wall of the structure 2 Roof - Proposed Drivers Room toilet. The main focus while designing the new kitchen above this structure was to give a structural support to the existing block without Dismantling Wooden Roof hampering the washroom area so we have planned to put a beam in those area where the RCC slab has not been casted and an inverted beam in those area where the slab is already existed. In the new design towards the northern part of the new slab a projection of 150mm has been given so that the new kitchen can also be connected to the proposed new bedroom and living room through a connecting bridge.

Image showing the existing wooden roof

As per the new design the existing wooden roof need to be dismantled and new RCC slab need to be casted in such a way that it should be merged with the existing RCC Slab and the entire slab can be used a Kitchen in the upper floor.

Image showing the structure after dismantling roof

After the removal of the wooden roof from the structure few layers of loose brick was dismantled so the preparation for the beam can be done properly. The bricks were removed in such a way that the proper beam can be casted over the existing brick wall to support the slab.

RCC Slab and Beam A partial portion of the existing RCC slab has The designing of the new slab and beam was been dismantled so that the clipping and the done in consider of the existing ground floor binding with the steel of new slab can be done structure. Partial portion of the existing structure properly. After the dismantling the debris were is having a washroom which is completely cleaned and the preparation for the shuttering furnished and tiled up whereas the other half is and the binding of new reinforcement bars having an unplastered room with an attached began.

Image showing the pouring of concrete for the new slab

Image showing the new slab after casting

Wooden planks were used as a shuttering in which fresh concrete is to be poured. As the completion of the shuttering the local labors got engaged in the binding the Reinforcement bars designed for the casting of RCC slab.

Image showing new slab and beam

An opening has been provided in the new slab for vertical circulation from the existing room in the ground floor and as the washroom were existing in the ground floor an inverted been has been provided for the structural support in the proposed kitchen in the upper floor.

Image showing the steel binding of new slab and beam Foundation – Proposed Bedroom Image showing the excavated area for the foundation

Excavation and RCC work

Image showing the binding of steel for the foundation

Image showing the pouring of concrete in foundation

Image showing the proposed bedroom parallel to obara

A bedroom has been proposed parallel to the existing obara in which foundation, column and plinth beam has been proposed to be casted. During the process of casting of these an excavation has been done in both the end of the bedroom to cast the foundation which has been tied up with the column and the plinth beam. The sizes of the plinth beam is 450x450mm in which further construction will proceed using concrete block and Lime Putty, Flyash, Udad Dal flour Image showing the pouring of concrete for the column and sand.

Image showing the wall for construction of plinth beam 5 Plinth Beam– Proposed Bedroom

Shuttering

Image showing the steel binding for the grade slab

Image showing the shuttering for the plinth beam

After the construction of the foundation and the column plinth beam has been casted above it with a dimension of 450mm x 450 mm. Wooden planks were used as a shuttering in which fresh concrete is to be poured.

Image showing the pouring of concrete for the leveling

Image Showing the plinth beam after concreted

Image showing the pouring of concrete for grade slab Grade Slab– Proposed Bedroom

RCC Work

A grade slab has been casted in the proposed ground floor bedroom in which further flooring is to be done. The thickness of the grade slab is 100mm with the reinforcement bar of 10mm at a distance of 150mm c/c in both ways. Before the construction of the grade slab the entire area has been excavated. It was earlier filled up by the debris from the existing structure. Image showing the grade slab after concreted 6

ANNEXURE 25 Wall Test Setup The objective is to build a setup for testing wall.

Introduction The setup is designed to test the walls of Himalayan vernacular style. It is designed in a way that walls of different dimensions and materials can be tested using the same set-up. It is designed and supervised by Dr. Sanjay Chikermane the principal investigator of the project. The tenure for building the setup is three months and it started during mid-July 2019. This setup is built in the Impact Lab of Civil Department, IIT Roorkee.

Materials and methods The setup consists of horizontal and vertical steel members. All the material used for the setup is delivered from New Delhi, India. There are mainly four parts of the setup which is the base structure, Vertical structure 01, Vertical structure 02 and one horizontal structure. There is another supporting structure to the right side of the setup. The step by step procedure is explained in the following section; Stage 1: Base structure

Figure 1: Base structure (top) and Plan of base structure (bottom) Base structure is the first stage in making of the setup. For base structure, three 6800mm long I-section beams of 400 X 140 X 8 mm are laid on the ground at a distance of 800mm and 940mm centre to centre (C/C). It is covered with the steel plates of sizes 1000 X 600 X 25 mm and 860 X 600 X 25 mm with bolts of 18mm diameter covering 4200mm in length from right side of the setup. To cover this length seven plates of both the sizes are used. There are four bolted joints at each corner of the fourteen plates which connects these plates with the beam. On the outer beams, hex bolts are used to fasten and on the inner beam head of hex bolt goes inside the surface of plates to give plain surface for wall construction. On the side of the plates which are placed on the outer beams there are four holes made on the middle of the side of the plate to hold the vertical structure 02. The parts where the plates are not covered which is the remaining 2400mm length is used to build vertical structure 01. The I- section beams are connected with stiffeners at three different points which includes two ends of the whole setup and one below the vertical inclined column. Vertical Structure

Figure 2: Vertical structure 01 and 02

Stage 2: Vertical structure 01 Two C-sections of 200 x 90x 8 mm are bolted back to back. There is a steel plate of dimensions 200x600x8 placed in between these two C-sections and these three components are bolted together. There are two columns, one is straight column placed at 90° which is 4572mm long and the other column with 75° angle of inclination with 4812 mm. There are plates arranged in five level which are equidistant throughout the height of the structure and are used for connections. The first two connections are made using single plate connecting both the above-mentioned columns. Further, the three levels had a connection of two plates from either side of the columns and had a to be resized to refrain from overlapping. From third level angles of dimension 110x110x8 are attached in a criss-cross fashion. All these components are connected together to make the whole truss setup. On the bottom end of the two columns two angles on each column are placed back to back and are bolted on two places, one with the column and the other with the I-section of the base structure with help of chain- pully hung at tripod, each truss is fixed above I-section using bolted joints. On each plate and column connection there are six bolts and the bottom angles had three with the column and three at the bottom. Three truss set-ups are made and are placed on every I-beam section of the base structure. On the vertical column eighteen holes are drilled at a distance of 200mm to attach a plate of size 1870 X 600 X 25 mm. This plate is designed to fix the horizontal actuator of capacity 300 kN. This plate is made movable and the position is decided according to the height of wall. On top of the vertical columns a I-section beam is connected to support the horizontal structure.

Figure 3: Side elevation of trusses

Figure 4: Front Elevation of trusses Stage 3: Horizontal structure

Figure 5: Horizontal structure

Two I section beams of dimensions 400 x 150 X 8mm is bolted at the top of the two vertical structure 01 and the supporting structure respectively. These I beam sections are bolted with vertical structure 01 using 12 bolt joints and 8 bolt joints on the supporting structure. There are stoppers at the end of both the beams. Above the I beam section there is an angle placed to enable the vertical movement of the roller. There are two rollers which is attached to a C-section for vertical movement. Above this C-section there are two other C-sections which is placed back to back at a distance of 150 mm. On bottom part of these two C-sections with the dimensions 8229 mm and plates at a distance of 1000 mm is welded to C-sections to keep it at the right position. An angle is welded for the horizontal movement of the roller at the bottom end of the C-sections. Two hexagonal plates with five holes with top two holes connected with the roller and the bottom three holes are connected with the pipes and is attached to fix it straight to hang a chain pully of capacity 5 tons. Stage 4: Vertical structure 02 This structure consists of two I-section columns of size 200X90X8mm and a beam of 400X140X8.9mm. The beam is connected with columns through four bolt joints on each side. This vertical structure is made to transfer the vertical pressure on wall. At this point, the centre of the wall should be placed on the vertical structure 02, and this centre keeps shifting depending on the length of the wall such that the wall is equidistant from the vertical structure on both the sides.

Conclusion The whole setup is built successfully to test different types of walls.

ANNEXURE 26 Wall Construction report The objective is to construct a reinterpreted wall of the Himalayan vernacular style in IIT-Roorkee lab for tests.

Introduction The reinterpretation of the Himalayan vernacular style is required because of the less availability of the materials which were used i.e. wood and stone. This reinterpreted wall is designed and supervised by Dr. Sanjay Chikermane the principal investigator of the project. It is designed in such a way that the usage of woods is less and instead of stone concrete blocks are used. This wall is constructed in between 15th- 18th October 2019 in the Impact Lab of Civil Department, IIT Roorkee.

Materials and methods The dimensions of the wall are 7’0”X 7’0” X 1’6”. The materials which used to construct this wall are wood, stone and concrete blocks. Wooden layers The wall has three wooden layers horizontally. The top and bottom layers are connected by four vertical members; two wooden and two steel members. The wooden layers are made by Mr Vinesh and Mr Yashpal, carpenters from Bisoi. They have prepared three layers of wood separately. Dovetail joint is used in these three layers to join the wooden members.

Figure 1: Plans of horizontal wooden layer Wall construction The wall is constructed on the base structure of wall test set-up. The araldite is applied above the plates of base structure, and stones are placed above that.

Figure 2: First layer of stone above the base structure of wall test setup

After the stone are properly paste, the first layer of wooden structure is placed above it. There is no adhesive material used between stone and wooden layer. In between the bottom and middle wooden layer, there are seven layers of concrete blocks. Concrete mortar is used to construct this wall. There are eight layers of stone between middle and top layer of wooden members.

Figure 3: Bottom wooden layer

Figure 4: Wall under construction

Figure 5: Elevation of inner side of wall

On the inner elevation of the wall, top and bottom wooden horizontal members are joined together with two vertical wooden members with tenon and mortise joint. On outer elevation of wall, these two layers are welded through a steel angle of size 75 X 75 X 5. The angle is welded with a steel box on top and bottom wooden horizontal layer, wooden member is fixed inside the steel box with nails. This wooden member makes a tenon and mortise joint with the top and bottom wooden layer of wall. On outer wall, the steel will be exposed which protects the wood from outside atmosphere.

Figure 6: Elevation of outer side of wall

Figure 7: Details of steel box

Figure 8: View of wall Conclusion In conclusion, the reinterpreted wall is constructed successfully. After 21 days of curing, the wall will be ready to conduct test on it.

ANNEXURE A Site Maps of Advaita Vedanta Ashram, Champawat District

Site Maps of Bisoi village, Uttrakhand.

Site Maps of Bisoi village, Uttrakhand.

Figure 1: Location map of SIDH campus, Kempty, Mussoorie

Image showing site maps for Woodstock school, Landour.

ANNEXURE B Advaita Vedanta Ashram, Champawat

Image showing front elevation of main ashram building.

Image showing side elevation of main ashram building. 17.05.2019

Image showing the completed pointing of main ashram building.

17.05.2019

Image showing the pointed and clean wall of main ashram building. 17.05.2019

Image showing the roof of main ashram building after finishing.

17.05.2019

Image showing the sky light roof of main ashram building after finishing. 17.05.2019

Image showing detail of uplifting of back side balcony. Bisoi, Uttrakhand

Image showing Nomenclature in the wooden planks of the structure

Image showing preparation to remove stone plates

Image showing Villagers removing planks and wooden members

Image showing the existing wooden roof

Image showing the pouring of concrete for the new slab

Image showing new slab and beam

Image showing the pouring of concrete in foundation

Image showing the wall for construction of plinth beam

Image showing the pouring of concrete for grade slab SITE PICTURES (Craft studio ,Sarmoli)

Master craftsman carving on wooden frame

Tools for carving

Training of local craftsmen (craft studio)

Fixing of door frame with wooden carving

New carved frame on Home stay door

Carving by craftsman in Craft studio

Attendance sheet on site

Figure 1: View of SIDH campus, Kempty, Mussoorie

Figure 2: View of building for setup of handloom units

Figure 3: View of interior space for setup of handloom units

Figure 4: Mr Rahees Haider working on warping drum

Figure 5: Mr Rahees Haider working on Handloom unit

Figure 6: Discussion on fabric design between Mr Rahees Haider, Mrs Kulina Shah and Ms Poonam Gamit

Woodstock school

Fig. 1: (a) Image showing location of Woodstock school in mountains. (b) Buildings in Woodstock school.

Fig. 2: Image showing site plan of Woodstock school (High school building).

Fig. 3: (a) Image showing distress due to dampness (b) Vertical and diagonal crack cutting through lintel.

Fig. 4: (a) Image showing cracks in wall at level 4 (b) Diagonal crack cutting through masonry.

Fig. 5: Image showing mapping of corridor at music block.

Fig. 6: Image showing roof truss at Quad building.

Fig. 7: Image showing level 1, 2 and 3 of High school building.

Fig. 8: Image showing music block of Quad building.