DOCSLIB.ORG

14.3 Review of Progress of Works on New 400 KV & 220 KV Sub

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
14.3 Review of Progress of Works on New 400 KV & 220 KV Sub : 1 : :1: 1. 30 जून 2016 को थापित क्षमता 'मे.वा.' मᴂ Southern Region Installed Capacity in MW as on 30th June 2016 (As per CEA) THERMAL STATE HYDRO THERMAL NUCLEAR (W M+R.E.S)** TOTAL COAL GAS DIESEL TOTAL Andhra Pradesh 1758.87 6075.91 3182.65 16.97 9275.53 0.00 2676.30 13710.70 Telangana 2135.66 5076.59 1697.75 19.83 6794.17 0.00 605.54 9535.37 Karnataka 3599.80 6280.00 0.00 234.42 6514.42 0.00 5105.52 15219.74 Kerala 1881.50 0.00 174.00 159.96 333.96 0.00 255.47 2470.93 Tamil Nadu 2182.20 7720.00 1027.18 411.66 9158.84 0.00 9511.26 20852.30 Puducherry 0.00 0.00 32.50 0.00 32.50 0.00 0.03 32.53 Central Sector 0.00 11890.00 359.58 0.00 12249.58 2320.00 0.00 14569.58 Southern Region 11558.03 37042.50 6473.66 842.84 44359.00 2320.00 18154.12 76391.15 The graphical representaion is in page IA 2. June 2016 मᴂ जोडी गई क्षमता Additions to Installed Capacity in MW Capacity Date of Synchronising/ State Type Sector Station (MW) commissioning Tamil Nadu Wind Private Wind 6.00 June 2016 MW 10000 11000 12000 13000 1000 2000 3000 4000 5000 6000 7000 8000 9000 0 Reference: Page Page No. Reference: Andhra Andhra Pradesh Hydro, 1,759 Thermal, 9276 Nuclear, 0 W.M + R.E.S, 2676 1 , Item No. Item , Telangana Hydro, 2,136 Thermal, 6794 Nuclear, 0 1 W.M + R.E.S, 606 Karnataka Hydro, 3,600 SR Thermal, 6514 - Installed Capacity Capacity Installed Nuclear, 0 W.M + R.E.S, 5106 Hydro, 1,882 Kerala States / Sectors / States Thermal, 334 : Nuclear, 0 2 - : W.M + R.E.S, 255 June 2016 TamilNadu Hydro, 2,182 Thermal, 9159 Nuclear, 0 W.M + R.E.S, 9511 Puducherry Hydro, 0 Thermal, 33 Nuclear, 0 W.M + R.E.S, 0 Central Sector Central Hydro, 0 Thermal, 12250 Nuclear, 2,320 W.M + R.E.S, 0 :3: 3.बिजली कि आपूर्त ि कि स्थिर्त Power Supply Position 3.1 उपयोग एवं उपल녍धता Requirement Vs Availability 3.1.1 मांग (ए啍स िस) Ex-Bus Demand (MW) from revised PSP SL No. Description Andhra Pradesh Telangana Karnataka Kerala T.N. Puducherry S. Region Ex-Bus Peak Demand a) 7038 6114 8183 3565 14362 369 37079 (Maximum Unrestricted Requirement ) b) Ex -Bus Peak Met(Actuals) 7000 6082 8189 3494 14358 367 36817 c) Shortfall -38 -32 6 -71 -5 -2 -262 d) %age shortfall -1% -1% 0% -2% 0% -1% -1% e) Average of daily max shortage -28 -27 -35 -35 -53 -1 -169 f) Maximum of daily max shortage -53 -50 -65 -137 -99 -2 -294 Note: Item Nos.a, b & c are not for same day/hour. 3.1.2 मांग Demand Maximum & Minimum Demand and Peak Demand Met (MW) SL No. Description A.P. Telangana Karnataka Kerala T.N. Puducherry S. Region Max Unresrticted a) 7399 6293 8440 3567 14644 369 38087 Requirement (PSP: Gross) # $ b) Gross Peak Met(Actual) 7361 6261 8446 3496 14640 367 37825 (Ex-bus) 7000 6082 8189 Date 1-Jun-16 1-Jun-16 1-Jun-16 6-Jun-16 15-Jun-16 16-Jun-16 2-Jun-16 c) Unrestricted Requirement (LGBR) 7333 6750 9619 3920 13800 395 39970 d) Minimum Demand 4092 3692 4626 1689 9273 202 24578 Date 26-Jun-16 7-Jun-16 4-Jun-16 30-Jun-16 27-Jun-16 26-Jun-16 30-Jun-16 Maximum Demand e) 6872 6054 8415 3456 13278 350 35837 ( June 2015) (Ex-bus) 6620 5912 8235 Date 28-Jun-15 05-Jun-15 30-Jun-15 2-Jun-15 30-Jun-15 23/6 & 24/6/15 30-Jun-15 Note: Item Nos. a & b are not for same day/hour. The hourly Southern Regional Grid Demand for the maximum and minimum demand days are shown in Annexures-II A, II B & II C. # Frequency Correction , Effect of Load Shedding and Power Cuts taken into account. $ Actual figures for AP & Karnataka are ex-bus, for Kerala, TN, Puducherry & SR actual figures are gross Note: State-wise daily Maximun & Minimum Demand and load factor has been shown in Annexure-I A, B, C, D & Load pattern of Southern Region on maximum and minimum demand day in Annexure-II A, B & C :4: Maximum & Minimum Demand and Peak Demand Met in June 2016 087 40000 , 38 37,825 35000 30000 578 , 24 25000 MW 20000 644 640 , , 14 15000 14 9,273 8,446 10000 8,440 7,399 7,361 6,293 6,261 4,626 4,092 3,692 3,567 5000 3,496 1,689 369 367 202 0 A.P. Telangana Karnataka Kerala T.N. Puducherry S. Region Max Unresrticted Gross Peak Met(Actual) $ Minimum Demand Requirement (PSP: Gross) # Reference: Page No.2,No.2, Item No.3.1.2No.3.1.2 :5: 3.2.1.ऊजाि (ए啍स-िस) Energy (Ex-Bus) - (PSP Figures) Figures in MU State A.P. TS Karnataka Kerala T.N. Puducherry S. Region a) Unrestricted Energy 3,940.41 3,608.55 4,408.39 1,795.61 8,729.20 217.50 22,699.66 requirement b) Actual Energy Supplied 3,939.20 3,607.41 4,406.89 1,794.70 8,726.92 217.38 22,692.51 c) Surplus+/Deficit- -1.21 -1.14 -1.49 -0.91 -2.27 -0.12 -7.14 d) Percentage -0.03 -0.03 -0.03 -0.05 -0.03 -0.05 -0.03 3.2.2 ववधतु उपयोग Gross Energy Consumption (in MU) - (Constituent figures) Puducherry Southern State AP TS Karnataka Kerala Tamil Nadu ** Region # # # # # # Unrestricted Requirement # 4171 3812 4576 1781 8900 217 23458 Unrestricted Requirement (LGBR ) 4567 3985 5610 1871 8732 220 25067 Actual 4169 3997 3811 3691 4575 4504 1780 8898 217 23451 Average/ Day 139 133 127 123 153 150 59 297 7 782 Actual -June 2015 4090 3904 3646 3551 4667 4553 1758 8355 207 22723 Average/ Day 136 130 122 118 156 152 59 279 7 757 June 2015 AP consumption includes Srisailam Pump Mode consumption of 0 MU Kadamparai Pump mode consumption is 0.00 MU ## Ex-bus figure # Frequency Correction , Effect of Load Shedding and Power Cuts taken into account. ** Puducherry Energy Consumption Actual (Gross) is REA/ABT figure : 6: Energy Requirement Vs Availability - June 2016 25000 22,700 22,693 20000 15000 MU 729 727 , 10000 , 8 8 4,408 5000 4,407 3,940 3,939 3,609 3,607 795 , 1,796 1 218 217 0 A.P. TS Karnataka Kerala T.N. Puducherry S. Region a) Unrestricted Energy b) Actual Energy Supplied requirement Reference: Page No.3, Item No.3.2.1 : :7 : Gross Energy Consumption (Actual) June 2016 9000 8000 7000 MU - 6000 8898 5000 4000 3000 Energy Consumption Energy 2000 4575 4169 1000 3811 217 1780 0 AP TS Karnataka Kerala Tamil Nadu Puducherry** ** Puducherry Energy Consumption Actual (Gross) is REA/ABT figure Reference: Page No.3, Item No.3.2.2 :8: 3.3 लोड शडे डगं ,मम य ू मᴂ Load shedding in MU Andhra Tamil Puducherr Southern State Telangana Karnataka Kerala Pradesh Nadu y Region Load Shedding (MU) 0.00 0.00 0.00 0.35 0.00 0.06 0.41 Load Shedding (MW) 0 0 0 125 0 15 3.4 ि• ᴂ द्रीय उ配पादन िᴂ द्र Central Generating Stations Generation & Relief to the Grid Local Loads + Auxiliaries STATION Gross Generation(MU) Relief to the Grid(MU) (Actuals) MU ISGS/CGS NTPC Ramagundam STPS,NTPC 1367.71 1274.33 93.38 Talcher Stage II NTPC 1237.36 1163.27 74.09 Simhadri Stage -I NTPC 552.816 512.04 40.77 (for Andra Pradesh & Telangana) Simhadri Stage II NTPC 539.55 508.42 31.13 Vallur JV, NTECL(NTPC_TANGEDCO) 554.98 516.43 38.55 RGCCPP 0.000 0.00 0.00 NLC Neyveli TS-I(CGS) 279.034 220.95 58.08 (for Tamil Nadu) Neyveli TS-II 799.39 654.29 145.11 Neyveli TS I Expn 284.77 259.99 24.77 Neyveli TS II Expn. 128.81 106.13 22.68 NTPL(JV_NLC & TANGEDCO) 295.47 268.39 27.08 NPCIL MAPS 272.23 232.06 40.17 Kaiga GS 430.81 388.90 41.91 Kudankulam NPP 721.38 670.85 50.53 : 9 : 3.5 Schedule (as per LGBR), Actuals And Ex-Bus Consumption of Energy in MU (as per PSP) Schedule as per LGBR (ex Bus) STATE AP TS KAR KER TN PUDU Southern Region जल / Hydro 137 50 611 509 354 1661 तापीय /Thermal 1789 1350 1367 3 1890 6399 डीजल / Diesel 0 0 4 4 गैस / Gas 31 25 0 136 192 Sim(AP)/RGCCPP, KYM(KER)/ 235 NLC TS-I(TN) 274 320 829 IPPs 546 64 1215 706 2760 5291 Captive Plants 0 0 40 40 Wind Mill 0 0 0 0 2260 2260 Allocation of power from ISGS 721 815 1749 815 2539 6639 ER/ Bilateral 542 1212 685 22 241 2702 Total 4040 3836 5631 2033 10236 241 26017 ACTUALS (Gross) 53.98 9.47 461.13 350.03 129.24 1003.86 जल / Hydro 2091.58 1460.88 1003.71 1796.17 6352.35 तापीय /Thermal 0.00 0.00 डीजल / Diesel 104.40 117.22 221.62 गैस / Gas Total 2249.96 1470.36 1464.85 350.03 2042.63 7577.83 वाथतव मᴂ आपूर्त ि िी गई ववधतु मम यू मᴂ/ Actual Energy Supplied in MU Hydro Ex-bus 53.44 9.38 456.52 346.53 127.95 0.00 993.82 Thermal Ex-bus 1903.34 1329.41 1003.71 0.00 1634.51 0.00 5870.97 Diesel Ex-bus 0.00 0.00 Gas Ex-bus 101.27 113.71 214.97 Sim(AP)/RGCCPP, KYM(KER)/ NLC TS-I(TN) 512.04 0.00 220.95 733.00 IPPs Ex-bus 592.71 120.40 1061.50 0.00 178.36 1952.97 Captive Plants Ex-bus 165.68 16.00 19.32 4.05 713.28 918.33 Wind Mill 339.05 21.96 203.80 10.37 2087.35 2662.52 Total 3667.53 1497.15 2744.86 360.94 5076.10 0.00 13346.57 Actual Drawls from CPSUs +Bilateral Power+Inter- Regional Power (Ex-bus including losses)** 271.68 2110.26 1662.04 1433.76 3650.82 217.38 9345.94 Total Actual Energy Supplied in MU 3939.20 3607.41 4406.89 1794.70 8726.92 217.38 22692.51 ** Losses are transmission losses in CTU / wheeling losses.
Load more

Recommended publications
  • A Multi Criteria Decision Making Approach for the Selection of Optimum Location for Wind Power Project in India
    EAI Endorsed Transactions on Energy Web Research Article A Multi Criteria Decision Making Approach for the Selection of Optimum Location for Wind Power Project in India V. Manoj1,*, V. Sai Sravani2 and A. Swathi3 1Asst. Professor, Power Engineering Department, GMRIT, India 2UG Scholar, Power Engineering Department, GMRIT, India 3PG Scholar, Mechanical Engineering Department, GMRIT, India Abstract This study tried to find out the selection of site for the wind turbine in India. We have chosen six wind power projects which are located different places in India. Wind power, Hub height, Distance, Cost, CO2, Wind speed and Blade height are the seven criteria had taken for the selection of best location. The analytical hierarchy process (AHP) is integrated with technique for order reference by similarity to ideal solution (TOPSIS) to meet the objective of this study. Firstly, the weights of each criterion are to determine using AHP. These weights will be used in TOPSIS method to select the best project. A case study is performed to exhibit the application of the methods was conducted to evaluate six types of wind power projects. The AHP- TOPSIS result showed that the Muppandal wind farm, Kanyakumari is the best wind power project among the six projects. Keywords: AHP, Energy, MCDM, Renewable Source, TOPSIS, Wind turbine selection Received on 16 April 2020, accepted on 18 August 2020, published on 21 August 2020 Copyright © 2020 V. Manoj et al., licensed to EAI. This is an open access article distributed under the terms of the Creative Commons Attribution licence (http://creativecommons.org/licenses/by/3.0/), which permits unlimited use, distribution and reproduction in any medium so long as the original work is properly cited.
    [Show full text]
  • Wind Turbine Design for a Hybrid System with the Emphasis on Generation Complementarity
    Wind Turbine Design for a Hybrid System with the emphasis on generation complementarity F. A. Qamar Wind Turbine Design for a Hybrid System with the emphasis on generation complementarity by Fadhil Ahmad Qamar to obtain the degree of Master of Science in Sustainable Energy Technology at the Delft University of Technology, to be defended publicly on Tuesday August 18, 2020 at 13.00 PM. Student number: 4741986 Project duration: October 17, 2019 – August 18, 2020 Thesis committee: Prof. dr. D. A. von Terzi, TU Delft, chairperson Dr. ir. M. L. Zaayer, TU Delft, First supervisor Dr. ir. J. Quist, TU Delft, Second supervisor An electronic version of this thesis is available at http://repository.tudelft.nl/. Summary Reason for this research The global issue on global warming and climate change are one of the motivations that led nations to reform their means of generating power and meeting the electricity demand. Decarbonisation of the power system is imperative to reduce the carbon emission, and the penetration of renewable energy to the power system is expected to rise in the future. However, as the nature of renewable energy source being weather dependent, high penetration of this technology in the power system will pose additional challenges to the utilities and system operators. The hybrid power plants that include multi- ple generation technologies can combine the strengths and weaknesses of different technologies and results in a power system with better performance. For instance, combining wind, solar or other gen- eration technologies can results in a more stable generation with a generation profile similar to the base-load generation technology.
    [Show full text]
  • 1. Introduction
    Tamil Nadu State Action Plan for Climate Change 1. INTRODUCTION 1.1 BACKGROUND Globally observations point towards a climate change scenario as temperatures are increasing, sea levels are rising, with a perceivable increase in severity and frequency of extreme events (IPCC 2007a; Special Report on Managing the Risks of Extreme Events and Disasters to Advance Climate Change Adaptation (SREX), 2012) and the speed of the change is evidently fast. This is leading to a complex situation, whereby all spheres of our existence are being impacted. Model projections; indicate a further escalation of the situation if greenhouse gas concentrations in the atmosphere from anthropogenic sources keep on rising unabated. It is surprising that solutions to adapt or mitigate the situation essentially are emerging from indigenous knowledge, State of art technology and research in all disciplines and fields. Due to global temperature rise and speed at which climate change is occurring, it is evident that countries are becoming vulnerable to climate change, which reduces the development path. Hence, capacity to adapt should be increased through implementation of suitable national adaptation plans. Future vulnerability depends not only on climate change but also on the type of development path that is pursued. Thus adaptation needs to be implemented in the context of national and global sustainable development efforts. The international community is identifying resources, tools, and approaches to support this effort. Adapting to climate change entails taking the right measures to reduce the negative effects of climate change (or exploit the positive ones) by making the appropriate adjustments and changes. There are many options and opportunities to adapt.
    [Show full text]
  • JC 04 Date of Exam
    Question Paper Title : JC_04 Date of Exam : 03-12-2019 02:30 PM Reference ID:(8260) खालील के वलयोगी अय ओळखा. A.शाास, वाहवा B.व, अन C.पुढे, समोर D.सम, ारा Answer: A.शाास, वाहवा Reference ID:(10070) Pick the right idiom which fits into the sentence: Her speech ____ controversial issues. A.Steered clear off B.Danced to the tune off C.Was hand in glove with D.Burnt fingers on Answer: A.Steered clear off Reference ID:(8540) रकाा जागी यो िवभी य लावा आिण वा पूण करा. ही छी दोनशे पयां____ आहे. A.ना B.ला C.चे D.त Answer: A.ना Reference ID:(8780) खालील वाांचे के वल वाात पांतर करा. ांचे मोकळे बोलणे ऐकले. ितला आय वाटले. A.ांचे मोकळे बोलणे ऐकू न ितला आय वाटले. B.जेा ांचे मोकळे बोलणे ऐकले तेा ितला आय वाटले. C.ांचे मोकळे बोलणे ऐकले की ितला आय वाटले. D.ांचे मोकळे बोलणे ऐकले आिण ितला आय वाटले. Answer: A.ांचे मोकळे बोलणे ऐकू न ितला आय वाटले. Reference ID:(14600) जर OH = 2915, S U N = 374127, तर P L A Y = ___? If OH = 2915, S U N = 374127, then P L A Y = ___? A.3224250 A.3224250 B.3123249 B.3123249 C.3123149 C.3123149 D.3124250 D.3124250 Answer: C.3123149 C.3123149 Reference ID:(16072) जर x> 12 आिण x <21 तर खालीलपैकी कोणता अपूणाक सवात लहान आहे? If x > 12 and x < 21 then which of the following fractions is the least? A.4x/200 A.4x/200 B.0.5x/400 B.0.5x/400 C.x/266 C.x/266 D.2x/0.5 D.2x/0.5 Answer: B.0.5x/400 B.0.5x/400 Reference ID:(12310) ‘कोडाईकनाल’ हे थंड हवेचे िठकाण हे कोणा पवतावर आहे? Kodaikanal hill station lies in which hills? A.पलणी पवत A.Palani Hills B.गढवाल पवत B.Garhwal Hills C.सातपुडा पवत C.Satpura Hills D.नीलिगरी पवत D.Nilgiri Hills Answer: A.पलणी
    [Show full text]
  • Offshore Wind Energy and SAGARMALA a Case for Blue Economy and Low Carbon Development
    Climate Ambition and Sustainability Action Partner Series Research August 2021 Discussion Paper Offshore Wind Energy and SAGARMALA A Case for Blue Economy and Low Carbon Development Priyanka Choudhury, Akshay Honmane, Sameer Guduru, and Pushp Bajaj Key Messages >>> • For countries such as India, that have a huge developmental reliance on oceans, economic growth encompasses the endeavor to transition from a ‘brown’ economy into a ‘blue’ one. • Central to economic endeavors for any country is the adoption of clean energy. In India, the drive towards renewable sources of energy has, thus far, been limited to the adoption of solar energy and onshore wind energy. • Offshore wind energy installations can play a major role in powering ports and various ancillary industries including shipbuilding, tourism, and fishing. It is, therefore, worthy of serious consideration as an option of choice for India and can readily supplement the ongoing advocacy for the adoption of ‘blue’ hydrogen derived from ocean renewable energy resources. • Mega development projects such as SAGARMALA which is based on port-led development need to be based on a vision relying on alternative sources of renewable energy. 1 Introduction: SAGARMALA and Energy Needs proximity of the port, which ensures easy access to raw materials such as coal, natural gas, and crude oil Launched in 2015, the SAGARMALA Project (SP) that are typically transported by ships. is a contemporary, mega undertaking of the Government of India (GoI) that is aimed at ‘port- India, being one of the biggest consumers of energy led’ comprehensive and holistic development of the resources, is also the third largest contributor in the country.
    [Show full text]
  • An Analysis of Wind Power Generation and Consumption Scenario in Tamil Nadu State of India Dr
    International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395 -0056 Volume: 02 Issue: 07 | Oct-2015 www.irjet.net p-ISSN: 2395-0072 An Analysis of Wind power generation and consumption scenario in Tamil Nadu State of India Dr. I. Arul, [email protected] Assistant Executive Engineer, Tamilnadu Electricity Board, TamilNadu, India Abstract reach a total of 22.5 GW. Among renewable, wind power accounted for almost two-thirds of the installed capacity. India is one of the most energy hungry The Indian government expects the share of renewable developing countries in the world. Around 300 million energy, presently at 6.9% of the total electricity Indians lack access to electricity in a country where per- production in the country, to grow to at least 15% in the capita electricity consumption is one-fourth of the next five years. India also wants to put in place world’s average. Tamil Nadu has 7,300 MW of installed 60,000MW of wind power capacity by then in a country wind energy capacity. Of this, nearly 90 MW was added that’s the world’s third largest emitter of greenhouse in 2014. Total capacity consists of 11,900 wind turbines gases, behind only the US and China. Wind energy’s and 110 pooling stations. Consumption of wind energy in share in the total power mix of the country was 2013-2014 was just 9000 million units as against more approximately 3% for the calendar year 2014 (National than 11000 million units in 2012-2013. This paper Load Dispatch Centre 2014, www.posco.in).
    [Show full text]
  • Wind Power Development in Tamil Nadu
    International Journal of Research in Social Sciences Vol. 8 Issue 3, March 2018, ISSN: 2249-2496 Impact Factor: 7.081 Journal Homepage: http://www.ijmra.us, Email: [email protected] Double-Blind Peer Reviewed Refereed Open Access International Journal - Included in the International Serial Directories Indexed & Listed at: Ulrich's Periodicals Directory ©, U.S.A., Open J-Gage as well as in Cabell’s Directories of Publishing Opportunities, U.S.A WIND POWER DEVELOPMENT IN TAMIL NADU Dr. T. Palaneeswari* Abstract Wind power is one of the oldest-exploited energy sources by humans and today is the most seasoned and efficient energy of all renewable energies. Wind energy does not contaminate, it is inexhaustible and reduces the use of fossil fuels, which are the origin of greenhouse gasses that cause global warming. In addition, wind energy is a native energy, because it is available practically everywhere on the plant, which contributes to reducing energy imports and to creating wealth and local employment. Tamil Nadu is the leading State in India in promoting and harnessing renewable sources of energy particularly wind. Tamil Nadu is endowed with rich wind energy potential in the country. In the Tirunelveli region in Tamil Nadu alone, there are two wind seasons – May to October and November to March, with the wind speeds higher during the first period. In Muppandal in Tamil Nadu, the wind speed exceed 43.2-46.8 km an hour during the peak period. Of the total installed capacity in the country of 26915 MW, the share of Tamil Nadu is 7654.17 MW as on 31st March, 2016.
    [Show full text]
  • S. No Name of the Company Telephone Number & Fax Number
    List of Suppliers/Manufacturers enlisted with TEDA for SPV/Solar Thermal Systems Note: The purchaser shall ensure the quality and standards of system/components as per MNRE/BIS/IEC standards before purchase. TEDA does not certify the quality & prices of enlisted Suppliers/Manufacturers/System Integrators Tamil Nadu Energy Development Agency (A unit of Government of Tamil Nadu) List of Manufacturers/Suppliers of Solar Products Enlisted with TEDA 5th Floor EVK Sampath Maaligai, 68 College Road, Chennai 600 006 Phone: 044-28242800, Fax No.: 28222971 Emai: [email protected], www.teda.in Telephone Manufacturer/ Name of the Products Number Supplier/ S. No Company Valid upto & Fax Number System Integrator [email protected] Solar Lantern(LED), 30.04.2020 M/s. Nova Energy Corp., [email protected] Solar street lighting Manufacturer No.132,Nehru Street, Indira M: 9159111888/8940500641 System(LED & CFL), Solar 1 Nagar, Perumugai, Home Vellore-632 009 Lighting System (M2) M/s. Aargee Equipments 044-42834477 SPV(Solar Lantern 31.3.2017 Manufacturer Pvt.Ltd., M: 9442242398 (2A), Solar Street No.197/7A, 10 th [email protected] Lighting System 2 Street, Jain Nagar, [email protected] (CFL), Solar Home Arumbakkam, Lighting System (M4) Chennai 600 106 0427- Solar Photovoltaic Systems 31.5.2020 Supplier M/s. Annai Solar Systems & 4037295/4037018 & Fabricators 9443217945/ Solar Water Heating Systems 3 19/82 G, Ramalinga 9965517945 Madalayam Street [email protected] Gugai, Salem – 636 006 0422-2901468/ SLS-CFL 30.4.2017 Manufacturer M/s. KL Solar Company Pvt Ltd 0422-6563638 SHL (CFL) –Model 1/482, Transport F:0422-2567562 IV 4 Nagar,Neelambur Cell:9894028393 - Coimbatore [email protected] Pin Code 641 062 044-42129378 Solar Photovoltaic Systems 31.03.2020 Supplier/ M/s.
    [Show full text]
  • Electricity Sector Transformation in India, a Case Study Of
    Electricity Sector Transformation in India A Case Study of Tamil Nadu 7th February 2018 Tim Buckley, Director of Energy Finance Studies, Australasia ([email protected]) and Kashish Shah, Research Associate ([email protected]) Indian Electricity Sector Transformation – Tamil Nadu 0 Table of Contents Executive Summary ............................................................................................................... 2 Introduction ............................................................................................................................ 4 1. India’s Electricity Sector .................................................................................................... 6 2. Tamil Nadu: Economic Overview ................................................................................... 10 3. Tamil Nadu Electricity Market ......................................................................................... 12 A Leading Indian State for Renewables ...................................................................................... 12 Structure of Tamil Nadu’s Electricity Board .................................................................................. 14 Interstate Green Power Corridor ................................................................................................... 14 4. Thermal Power Generation ............................................................................................. 15 Coal Power: An Expensive Option for TN ....................................................................................
    [Show full text]
  • Tneb Limited Tangedco Tantransco Bulletin
    TNEB LIMITED TANGEDCO TANTRANSCO BULLETIN JANUARY - 2018 CONTENTS Page No 1. PART - I NEWS & NOTES ... ... ... 2 2. PART - II GENERAL ADMINISTRATION & SERVICES ... ... ... 12 3. PART - III FINANCE ... ... ... 20 4. PART - IV TECHNICAL ... ... ... 24 5. INDEX ... ... ... 53 NEWS & NOTES PART – I I. GENERATION / RELIEF PARTICULARS: The Generation / Relief particulars for the month of January 2018 were as follows: Sl.No. Particulars In Million Units I. TNEB GENERATION (Gross) Hydro 335.980 Thermal 1854.751 Gas 166.177 Wind 0.100 TNEB TOTAL 2357.008 II NETT PURCHASES FROM CGS 3058.835 III PURCHASES IPP 157.140 Windmill Private 319.255 CPP, Co-generation & Bio-Mass (Provisional) 93.000 Solar (Private) 260.492 Through Traders (nett purchase) 1656.360 TOTAL PURCHASES 2486.248 IV Total Wheeling Quantum by HT consumers 630.801 Total Wheeling Quantum to Other States by Pvt. Generators 21.169 Total TNEB Power generation for sale 0.443 Total Wheeling 651.970 Power Sale by TANGEDCO (Exchange) (-) 0.443 Power Sale by TANGEDCO(STOA under Bilateral) 0.000 Power Sale by Private Generators (Exchange) (-) 16.193 Power Sale by Private Generators (Bilateral) (-) 4.977 Power blance under SWAP 231.785 V TOTAL (TNEB Own Gen+Purchase + wheeling quantum+SWAP) 8764.677 VI Load shedding & Power cut relief (Approx) 0 VII Less energy used for Kadamparai pump 60.210 Less Aux. consumption for Hydro, Thermal & Gas 168.744 VIII AVERAGE PER DAY REQUIREMENT 283 IX DETAILS OF NETT PURCHASES FROM CGS & OTHER REGIONS: Neyveli TS-I 217.629 Neyveli TS-I Expansion 91.939 Neyveli
    [Show full text]
  • PROJECT DESIGN DOCUMENT FORM (CDM-SSC-PDD) - Version 03
    PROJECT DESIGN DOCUMENT FORM (CDM-SSC-PDD) - Version 03 CDM – Executive Board CLEAN DEVELOPMENT MECHANISM PROJECT DESIGN DOCUMENT FORM (CDM-SSC-PDD) Version 03 - in effect as of: 22 December 2006 CONTENTS A. General description of the small scale project activity B. Application of a baseline and monitoring methodology C. Duration of the project activity / crediting period D. Environmental impacts E. Stakeholders’ comments Annexes Annex 1: Contact information on participants in the proposed small scale project activity Annex 2: Information regarding public funding Annex 3: Baseline information Annex 4: Monitoring Information 1 PROJECT DESIGN DOCUMENT FORM (CDM-SSC-PDD) - Version 03 CDM – Executive Board Revision history of this document Version Date Description and reason of revision Number 01 21 January Initial adoption 2003 02 8 July 2005 • The Board agreed to revise the CDM SSC PDD to reflect guidance and clarifications provided by the Board since version 01 of this document. • As a consequence, the guidelines for completing CDM SSC PDD have been revised accordingly to version 2. The latest version can be found at <http://cdm.unfccc.int/Reference/Documents>. 03 22 December • The Board agreed to revise the CDM project design document 2006 for small-scale activities (CDM-SSC-PDD), taking into account CDM-PDD and CDM-NM. 2 PROJECT DESIGN DOCUMENT FORM (CDM-SSC-PDD) - Version 03 CDM – Executive Board SECTION A. General description of small-scale project activity A.1 Title of the small-scale project activity: 2.85 MW Bundled Wind Power Project by Ramraj Handlooms in Tamil Nadu (India) Version - 02 Date: 04/10/07 A.2 Description of the small-scale project activity: 2.85 MW Bundled Wind Power Project (hereafter referred as the ‘project’) is a grid connected renewable energy project located at Tamil Nadu state, India.
    [Show full text]
  • Wind Farm/Park - Meaning & Types
    Wind energy is an important source of renewable energy in India. Many of the largest operational onshore wind farms are located in the United States, India and China. This article throws light on the advantages and disadvantages of wind parks. Wind Farm/Park - Meaning & Types A wind farm or wind park, also called a wind power station or wind power plant, is a group of wind turbines in the same location used to produce electricity. Wind farms vary in size from a small number of turbines to several hundred wind turbines covering an extensive area. Types of Wind Farm/Parks 1. Onshore - Wind turbines harness the energy of moving air to generate electricity. Onshore wind refers to turbines located on land 2. Offshore - offshore turbines are located out at sea or in freshwater. List of 10 Largest Wind Power Plants in India Below-table shares the list of 10 largest wind power plants in India Wind Power Plant Megawatt (MW) Location Muppandal wind farm 1500 Tamil Nadu, Kanyakumari Jaisalmer Wind Park 1064 Rajasthan, Jaisalmer Brahmanvel wind farm 528 Maharashtra, Dhule Dhalgaon wind farm 278 Maharashtra, Sangli Vankusawade Wind Park 259 Maharashtra, Satara District. Vaspet 144 Maharashtra, Vaspet Tuljapur 126 Maharashtra, Osmanabad Beluguppa Wind Park 100.8 Beluguppa, Andhra Pradesh Mamatkheda Wind Park 100.5 Madhya Pradesh, Mamatkheda Anantapur Wind Park 100 Andhra Pradesh, Nimbagallu Muppandal Wind Farm 1. The project was developed by Tamil Nadu Energy Development Agency. 2. The Muppandal Wind Farm is India's largest operational onshore wind farm. Jaisalmer Wind Park 1. This project is located in Jaisalmer district, Rajasthan, Western India.
    [Show full text]