Project Oppurtunities 2014 Edited.Pdf

Total Page:16

File Type:pdf, Size:1020Kb

Project Oppurtunities 2014 Edited.Pdf Contents 1. Project Summary 7 - 10 2. List of Projects (Country wise) 11 - 145 Benin 11 Burkina Faso 12 Cameroon 17 Chad 18 Congo (DR) 18 Congo (Republic of) 19 Cote D’ Ivoire 20 Egypt 41 Ethiopia 62 Gabon 63 Gambia (The) 63 Ghana 66 Guinea (Republic of) 82 Kenya 88 5 10th CII-Exim Bank Conclave on India-Africa Project Partnership Lesotho 88 Madagascar 94 Malawi 95 Nigeria 95 Rwanda 98 Senegal 104 South Africa 108 Tanzania 109 Togo 111 Uganda 112 Zambia 112 Zimbabwe 123 6 Project Summary Number of Total Value Sector Sub Sector Country Projects (US $ Million) - Burkina Faso - Cameroon - Chad - Congo (D R) - Congo (Republic of) - Cote D’ Ivoire - Ethiopia Agro technology - Gabon Food Processing - Gambia Tractors - Ghana Fisheries - Guinea (Republic of) Agriculture Agro-Pastoral 92 3040.147 - Lesotho Agro-equipment - Madagascar Cattle/Animals - Malawi - Nigeria Water - Rwanda Waste Management, etc. - Senegal - South Africa - Tanzania - Togo - Uganda - Zambia - Zimbabwe 7 10th CII-Exim Bank Conclave on India-Africa Project Partnership Number of Total Value Sector Sub Sector Country Projects (US $ Million) - Burkina Faso - Ghana Skill and Education - Guinea (Republic of) Capacity Training Centers 13 679.73 - Madagascar Development Laboratories, etc. - Nigeria - Zimbabwe - Burkina Faso - Congo (D R) - Congo (Republic Of) - Cote D’ Ivoire - Egypt Cement - Gabon Construction - Ghana Iron & Steel - Guinea (Republic of) Infrastructure 270 62434.984 Real Estate - Kenya Railways - Lesotho Ports, etc. - Nigeria - Rwanda - Senegal - Tanzania - Zambia - Zimbabwe - Burkina Faso Computer Software and - Cote D’ Ivoire Information Hardware 8 1357.559 - Egypt Technology ITES(BPO), etc - Lesotho - Zimbabwe - Cameroon - Congo ( Republic of) - Egypt General Machinery - Ghana Machine tools Manufacturing 17 501.82 - Lesotho Technology - Nigeria Turnkey Projects, etc. - Tanzania - Togo - Zimbabwe 8 Project Oppurtunities Number of Total Value Sector Sub Sector Country Projects (US $ Million) - Burkina Faso - Egypt Drilling Equipment, - Ghana Mining Earthmoving Equipment 33 2645.77 - Guinea Minerals, etc. - Senegal - Tanzania - Zimbabwe - Burkina Faso - Cameroon - Congo (Republic of) Healthcare Healthcare & - Cote D’ Ivoire Drugs 27 508.92 Pharmaceuticals - Ghana Hospital Equipment, etc. - Lesotho - Nigeria - Zimbabwe - Benin - Burkina Faso Thermal - Cote D’ Ivoire Coal - Egypt Dams - Gambia Power & Energy 42 12829.164 Oil & Gas - Ghana Petroleum Products - Guinea Renewable Energy, etc. - Lesotho - Rwanda - Zimbabwe - Burkina Faso T.V & F.M Tower Telecom 4 288.403 - Cote D’ Ivoire Communications, etc - Guinea (Republic of) Hotels Resorts - Burkina Faso Tourism Shopping Malls 15 65.07 - Ghana Food courts - Zimbabwe Amusement Parks - Burkina Faso - Congo (Republic of) Commodity Import and Trade 8 12.05 - Egypt Export - Ethiopia - Zimbabwe 9 10th CII-Exim Bank Conclave on India-Africa Project Partnership Number of Total Value Sector Sub Sector Country Projects (US $ Million) Security - Burkina Faso Management - Egypt Printing - Gambia Financial Misc. 20 16.32 - Ghana Handicrafts - Lesotho Culture - Zambia Commercial - Zimbabwe Representation, etc. Total Number of Projects 549 Total Value (US$ Billion) 84.379 10 List of Projects BENIN Total Value No. Project Description Sector (US $ Million) 1 On the commercial side, we projectons Power and 20 2014 as regards the import and export Energy of agro-food products in the amount of approximately 1500 000 Dolard USA. So we a renewable energy project. the energy renouvellable project is estimated at U.S. Dolars of 2000000. In renewables, energy project, we have the BIOMASS project. The Biomass project, as its name suggests is a renewable energy project based largely plant waste and other agro- residues to make briquettes and pellets for the heat energy production. This project is an initiative of the company person SOCAFA This project will enable a considerable reduction of deforestation and contribute to households to increases in economic and hygienically as the use of pellet is very economical compared to charcoal and clean to use. 11 10th CII-Exim Bank Conclave on India-Africa Project Partnership Total Value No. Project Description Sector Contact Details (US $ Million) He also participated in a rational and intelligent management of solid waste, and thereby protects the flora therefore nature in its entirety. In short we can say that this is a project development in general. BURKINA FASO Total Value No. Project Description Sector (US $ Million) 1 Establishment of an assembly plant for Agriculture 13.546 tractors with 300 tractors kits. 2 Development project of 5000 ha of irrigated Agriculture 125.037 agriculture at Kompienga 3 Development project of urban dams and Infrastructure 468.973 lakes of Ouagadougou city 4 Integrated development project of the Infrastructure 195.892 Bougouriba 5 Construction of the hydroelectric and Agriculture 333.433 hydro-agricultural dam at Ouessa 6 Improving operations and sustainable Agriculture 4.920 management of Shea in Burkina Faso 7 Implementation Project of Arabic gum Agriculture 1.141 sector strategy in Burkina Faso 8 Construction of a new refrigerated abattoir Agriculture 20.840 at Bobo-Dioulasso 9 Dairy project of 7000 l / day in Bobo Agriculture 3.493 Dioulasso. 10 Capacity building Project of the national Agriculture 20.840 breeding laboratory: construction of a production unit for animal vaccines in Burkina Faso. 11 Programme Of Mechanisation Of Agriculture 0.021 Agriculture. 12 Power plant project using renewable Power & Energy 37.511 energy. 13 Hydroelectric development project. Power & Energy 172.595 14 Construction project of mini power plants Power & Energy 10.420 based on renewable energy. 12 Project Oppurtunities Total Value No. Project Description Sector (US $ Million) 15 Training regional actors to take into Skill and 0.188 account the energy needs in the projects Capacity and programs. Development 16 Rural electrification project. (Feasibility Power & Energy 83.606 study available) 17 Harmonization Project of Geographic Information 1.042 Information Systems Administration and Technology creation of a centralized database 18 Training regional actors to take into Skill and 0.210 account the energy needs in the projects Capacity and programs. Development 19 Realization of the project of promotional Power & Energy 10.420 campaigns branches. 20 Project of establishment of a control Mining 1.344 and certification center of pressure equipment. 21 Study and development project of the Mining 1.046 granites of Burkina. 22 Bolgatanga – Ouagadougou Pipeline Power & Energy 0.056 project. (Feasibility study available) 23 Construction ff A Solar Power Plant of Power & Energy 0.079 20 Mw In Partnership with the Company Semafo Burkina. 24 Head Of State’s Programme of Power & Energy 0.109 Electrification of 87 Main Places of the Department. 25 Construction of crossings and their access Infrastructure 38.747 roads in the road network 26 Tarring of the road parallel to Babangida Infrastructure 35.948 27 Construction work of Yamoussoukro – Infrastructure 2886.27 Ouagadougou highway 28 Development and tarring project of 200 Infrastructure 70.981 kms of roads in 36 provinces in Burkina Faso 29 Bassawarga Avenue Development Project Infrastructure 80.627 including three intersections exchangers of Africa France Boulevard as well as a section of the Avenue of resistance of 17 May 30 Listing for presentation of five (05) civil Infrastructure 17.528 engineering works to be constructed on the road network 13 10th CII-Exim Bank Conclave on India-Africa Project Partnership Total Value No. Project Description Sector (US $ Million) 31 Reinforcement work of the southeast Infrastructure 42.367 bypass of the ring road connecting the Ouaga 2000 exchanger to that in the east (6,500) 32 Construction and asphalting of National Infrastructure 54.183 road No. 22 (RN22) between Kongoussi and Djibo (96 km) 33 Construction and asphalting of National Infrastructure 62.519 Highway No. 10 (N10) between Dédougou and Tugan (90 Km). 34 Construction and asphalting of National Infrastructure 33.812 Highway No. 17 (RN17) between Guiba and Garango (72 km) 35 Construction and asphalting of the Infrastructure 89.402 National Highway No. 19 (RN19) Kantchari - Diapaga and Divisional Road No. 08 (RD08) Diapaga - Tansarga - Benin Border (143 km) 36 Construction and asphalting of National Infrastructure 36.269 Highway No. 02 (RN02) Ouahigouya - Thiou - Mali border (62.8 Km) 37 Construction and asphalting of the Infrastructure 79.607 National Highway No. 23 (RN23) between Ouahigouya and Djibo (110 km) and across the town of Djibo (2.8 miles) 38 Development of approximately 1,500 Infrastructure 48.715 km of rural roads by the method of High Intensity Labour (HLI) 39 Development of approximately 6,000 km Infrastructure 243.579 of rural roads by mechanized method 40 Expansion Work and Strengthening of Infrastructure 0.041 the South Eastern Bypass of Tansoba Boulevard at Ouagadougou 41 Construction of the North Interchange and Infrastructure 0.094 of the Track of Tampouy Relief Road 42 Construction And Asphalting the Bypass Infrastructure 0.250 Tract of The City of Ouagadougou 43 Construction program of Donsin Airport Infrastructure 0.560 44 Artisanal village of Bobo-Dioulasso. Miscellaneous 1.563 (Handicrafts) 45 Construction of a purchasing center for Infrastructure 10.420 mass consumption products. 14 Project Oppurtunities Total Value No. Project Description Sector
Recommended publications
  • Woven Fabrics
    Fabric – Woven Fabrics WOVEN FABRICS Fabrics are made of yarns by weaving them in different combinations. It is mostly done by interlacing two sets of yarn or thread made of fibers called the warp and weft of the loom. It only stretches in the bias directions, between the warp and weft directions, unless the threads are elastic. Lengthwise stronger vertical yarns with more twist are Warp or Picks while widthwise filling yarns are termed as weft or ends. Sidewise edge of fabric is termed as Selvedge. THREE BASIC WEAVES There are three main types of weave: Plain, Twill and Satin Plain weave is a basic weave which is made when the thread is woven on one up and one down principle, some plain weave fabrics are Chambray, Chiffon, Gingham, and Organza etc. Twill weave is made when the thread is placed by varying the order of interlacing the yarns so that diagonal parallel lines are produced across the fabric. Satin Weave is a weave made when each warp yarn floats over four filling yarns and interlaces with fifth filling yarn. Plain weave Twill weave Satin weave Fabric – Weft Knit Fabrics Knitted Fabrics Knitting is the process of construction of a fabric by interlocking loops of yarn by means of hooked needles. Knitted fabric consists of horizontal rows known as courses and vertical columns of loops known as Wales. Knitted fabrics are porous having insulated air pockets giving warmth when worn. Knitted fabrics are very absorbent, wrinkle resistant and lightweight. They shrink more than woven fabrics unless shrink- proofing techniques are used.
    [Show full text]
  • Mechanical Behavior Characterization of Knitted Textiles a Thesis
    Mechanical Behavior Characterization of Knitted Textiles A Thesis Submitted to the Faculty of Drexel University by Mustafa Oncul in partial fulfillment of the requirements for the degree of Master of Science in Mechanical Engineering December 2017 © Copyright 2017 Mustafa Oncul. All Rights Reserved. ii In the Name of Allah, the Entirely Merciful, the Especially Merciful iii TABLE OF CONTENTS LIST OF TABLES .......................................................................................................... v LIST OF FIGURES ........................................................................................................ vi ABSTRACT .................................................................................................................... x CHAPTER 1: INTRODUCTION ................................................................................... 1 1.1 An Overview ............................................................................................................. 1 1.1.1 Knitted Textiles .................................................................................................. 3 1.2 Testing and Characterization of Textiles .................................................................. 7 1.3 Nonlinear Mechanics of Knitted Textiles ................................................................. 9 1.4 Thesis Structure ....................................................................................................... 12 CHAPTER 2: BACKGROUND AND STATE-OF-THE-ART IN MECHANICAL BEHAVIOR CHARACTERIZATION
    [Show full text]
  • Master of Textile Design (Choice Based Credit System)
    RASHTRASANT TUKADOJI MAHARAJ NAGPUR UNIVERSITY NAGPUR (Established by Government of Central Provinces Education Department by Notification No. 513 dated the 1st of August, 1923 & presently a State University governed by Maharashtra Universities Act, 1994) FACULTY OF HOME SCIENCE DIRECTION NO. 79 OF 2016 DIRECTION GOVERNING THE EXAMINATION LEADING TO THE DEGREE OF MASTER OF TEXTILE DESIGN (CHOICE BASED CREDIT SYSTEM) (Issued under section 14(8) of the Maharashtra University Act 1994) Whereas the Maharashtra Universities act No. XXXV of 1994 has come into force with effect from 22nd July, 1994 and was amended from time to time. AND WHEREAS, the University Grants Commission, New Delhi vide letter No.D.O.No.F-2/2008/(XI Plan), dated 31st January 2008 regarding new initiatives under the XI Plan – Academic reforms in the University has suggested for improving quality of higher education and to initiate the academic reform at the earliest, AND Whereas the Task Force in BFD/BTS/BPD in the Faculty of Home Science at its meeting held on 25/08/2016, have recommended for starting of semester pattern and prepared the syllabus and scheme of examination for Master of Textile Design, commensurate with the governing guidelines. AND Whereas the Coordinator, Faculty of Home Science concurred with the recommendations of the Task Force in BFD/BTS/BPD in the Faculty of Home science vide his observations dated 25/08/2016 AND 1 Whereas, the new draft direction and scheme of examination as per semester pattern is to be implemented from the academic session 2016-2017 for Master of Textile Design which is to be regulated by this direction and as such there is no existence and framing of an ordinance for the above examination, AND WHEREAS the Hon‘ble Vice-Chancellor has accepted the syllabus along with draft direction on the behalf of Academic Council on 7-10- 2016 under section 14(7) of Maharashtra University Act 1994.
    [Show full text]
  • Taking Advantage of the Design Potential of Digital Printing Technology for Apparel
    Volume 4, Issue 3, Spring2005 TAKING ADVANTAGE OF THE DESIGN POTENTIAL OF DIGITAL PRINTING TECHNOLOGY FOR APPAREL J.R. Campbell, Associate Professor, Iowa State University 1073 Lebaron Hall Ames, IA 50011 515-294-0945 Jean Parsons, Assistant Professor, Iowa State University 1071a Lebaron Hall Ames, IA 50011 515-294-4022 ABSTRACT The integration of digital technologies into apparel forms allows designers to explore and visualize new creative possibilities. How the technology is used and how design concepts are perceived in the industry are areas of crucial importance to the technology’s longevity. Our goal, as collaborative artists, focuses on integrating technology into the creative process to create both art and industry-oriented apparel. The applications of digital textile and apparel design have implications for many areas of the industry, but we have focused on three: art-to -wear, custom design, and mass customizable products. The body of research and artwork that we have developed suggests that a systematic approach to integrating new technologies into the textile and apparel design process can be developed, recorded and employed in future design explorations to inspire the most rapid technology integration with the greatest potential for new product conceptualization. Keywords: Digital textile printing, apparel design, design process, art-to -wear The integration of digital technologies into creative process to create both art and industry- apparel forms allows designers to explore and oriented apparel. visualize new creative possibilities. How the technology is used and how design concepts are When we began our collaborative process, the perceived in the industry are areas of crucial use of digital printing for apparel was at a importance to the technology’s longevity.
    [Show full text]
  • Effect of Padder Roller Speed and Pressure During Pre-Treatment on Color Characteristics of Digitally Printed Cotton Knit Fabric Grace Wasike Namwamba and Devona L
    Effect of Padder Roller Speed and Pressure during Pre-treatment on Color Characteristics of Digitally Printed Cotton Knit Fabric Grace Wasike Namwamba and Devona L. Dixon, Textile Technology Southern University Agricultural Research and Extension Center, Baton Rouge, LA 70813 ABSTRACT The purpose of this study was to determine the effect of padder roller speed (RPM) and pressure (PSI) on the color of digitally printed cotton fabrics. Single layers of double-knit cotton fabric were padded at speeds of 20, 40, and 60 rpm and pressure levels of 5, 15, 40, 60, and 70 psi using a 36” wide padder. The padding solution consisted of alginate, soda ash, urea, and distilled water. Color readings were taken using a spectrophotometer. Results indicated that roller speed and roller pressure both had an effect on the shade depth of the fabric. The deepest color depth was obtained at a roller speed of 40 rpm and roller pressure of 20 psi. INTRODUCTION Printing directly onto a substrate requires the fabric be chemically pre-treated to ensure optimum dye penetration and color vibrancy. The padding solution or chemical pre-treatment may vary according to fiber chemistry and end-use requirements. Common pre-treatment solutions for digital textile printing of cotton (cellulosic) fibers include a mixture of alginate, soda ash, urea, and distilled water where alginate and urea are the thickeners for the pre- treatment solution. In this formulation, alginate is mixed with urea to control the temporary containment of droplets spreading toward the fabric (Baffoun, Viallier, Dupuis, & Haidara, 2005). The chemical pre-treatment is best applied using a padder (Namwamba, 2005) consisting of rollers.
    [Show full text]
  • Proper Processing of 100% Cotton Knit Fabrics
    TECHNICAL BULLETIN 6399 Weston Parkway, Cary, North Carolina, 27513 • Telephone (919) 678-2220 ───────────────────────────────────────────────────────────────────── TRI 3011 WET PROCESSING OF 100% COTTON KNITTED FABRICS © 1999 Cotton Incorporated. All rights reserved; America’s Cotton Producers and Importers. INTRODUCTION It is well established that knitted fabrics of all constructions and fiber blends are inherently more prone to shrinkage as compared to wovens. Because of the inability of a knitter to form a knitted fabric with no shrinkage, it is important for the dyer and finisher to make an effort to remove as much shrinkage from the product as possible. However, the ease with which a cotton knitted fabric is distorted during processing makes it especially difficult to deliver fabrics with no shrinkage. This bulletin will discuss in some detail the aspects of knitted fabric construction and wet processing and how they are related in terms of shrinkage. The factors that influence the level of dimensional stability can be summarized as follows: © knitting parameters, © processing tensions after knitting, © relaxation techniques in finishing, and © mechanical and chemical finishes. Each of these areas can be broken down into fundamental aspects. KNITTING As published in literature, the amount of shrinkage for any given knit fabric is primarily dependent upon the product specifications and the knitting parameters used to meet those specifications. The predominant fabric specifications that determine the shrinkage of a knitted fabric are the weight, stitch counts, and width at which the fabric is sold for cut-and-sew. The knitter uses those specifications to establish another set of specifications for knitting. Whether or not these knitting specifications are achievable is determined by the knitting machinery available to the knitter.
    [Show full text]
  • Performance Evaluation of Knitted and Stitched Textile Strain Sensors
    sensors Review Performance Evaluation of Knitted and Stitched Textile Strain Sensors Kaspar M.B. Jansen Emerging Materials Group, Department Industrial Design Engineering, Delft University of Technology, 2628 DE Delft, The Netherlands; [email protected] Received: 22 October 2020; Accepted: 15 December 2020; Published: 17 December 2020 Abstract: By embedding conductive yarns in, or onto, knitted textile fabrics, simple but robust stretch sensor garments can be manufactured. In that way resistance based sensors can be fully integrated in textiles without compromising wearing comfort, stretchiness, washability, and ease of use in daily life. The many studies on such textile strain sensors that have been published in recent years show that these sensors work in principle, but closer inspection reveals that many of them still have severe practical limitations like a too narrow working range, lack of sensitivity, and undesired time-dependent and hysteresis effects. For those that intend to use this technology it is difficult to determine which manufacturing parameters, shape, stitch type, and materials to apply to realize a functional sensor for a given application. This paper therefore aims to serve as a guideline for the fashion designers, electronic engineers, textile researchers, movement scientists, and human–computer interaction specialists planning to create stretch sensor garments. The paper is limited to textile based sensors that can be constructed using commercially available conductive yarns and existing knitting and embroidery equipment. Within this subtopic, relevant literature is discussed, and a detailed quantitative comparison is provided focusing on sensor characteristics like the gauge factor, working range, and hysteresis. Keywords: textile strain sensors; conductive yarns; knitted sensor; stitched sensor; performance evaluation 1.
    [Show full text]
  • Coated Textile Materials
    13 Coated Textile Materials Stana Kovačević, Darko Ujević and Snježana Brnada University of Zagreb Faculty of Textile Technology Department of Textile Design and Management *Department of Clothing Technology Baruna Filipovića 28a, 10000 Zagreb, Croatia 1. Introduction Top finishes began to be used already in the 18th century when fabrics were coated with linseed oil to produce oilcloth. This was the first procedure of coating several agents to the textile substrate and can be considered as the predecessor of multi-layered materials. Textile surface materials coated with chemical l structures have been developed continuously for several last decades. The basic substrate of the surface material is mostly textile fabric coated on one or both sides with one or more polymer layers. This kind of products with the basic textile material has many improved properties and multiple advantages over the classic textile material [1 - 3]. Polymer layers can be polyurethane, polyvinylchloride or polyacrylate layers. To improve their properties, appropriate additives are added: softeners, porosity-generating agents, filling materials, binders, fungicides etc. Coated polymers are applied to the textile material directly, and indirectly using paper or coagulation procedure. The constant development of the coating technique resulted in the newest achievements the result of which is the application of nanoporous polymers to the textile substrate. The use of these products is increasing and they are gaining greater importance in the clothing industry. They are especially widespread in the protective clothing where they meet all the market requirements. The design of a multilayered material is based on a target product so that it is very easy to obtain a material with desirable properties.
    [Show full text]
  • Marketing Tool Kit+
    MARKETING TOOL KIT+ This is an original and limited edition only for #THE GARMENT PROCESS IF YOU WANT TO PRODUCE YOUR OWN GARMENT. YOU HAVE TO BE ABLE TO ENVISION THE GARMENT YOU WANT TO DESIGN: TO SKETCH IT, TO SELECT THE YARN FOR THE CHOSEN FABRIC, THEN KNIT IT. TO CHOOSE A COLOUR THEN DYE IT. TO SEW THE GARMENT, THEN FINALLY DECORATE IT. THE FOLLOWING CHART WILL SHOW YOU THE PROCESS, BUT BE CAREFUL, IT IS NOT AS EASY AS IT LOOKS. IF YOU ARE LOOKING TO LEARN THE ABC´S FOR THE CORPORATE & MERCHANDISING GARMENT SUPPLY INDUSTRY, LOOKING FOR + VALUE ADDED TOOLS AND SERVICES TO ENHANCE YOUR MARKETING CAMPAIGN, THEN CHECK WHAT PROMODORO CAN DO FOR YOU! ABC TEXTILE 5 PROMODORO MARKETING TOOL KIT 2015 MARKETING TOOL PROMODORO | ABC TEXTILE we take care #COTTON THE PROCESS FROM RAW MATERIAL TO SPUN YARN TAKES THE COTTON THROUGH PREPARATION CARDING, COMBING, DRAWING, TWISTING, AND FINALLY SPINNING, IN THE MARKET WE FIND 3 MAIN QUALITIES OF YARN FOR KNITWEAR. ABC TEXTILE 7 RINGSPUN OPEN END CARDED COMBED – Ring spun yarn is both softer and more durable compared to open end yarn. + open end carded combed • not uniform dyeing • better dyieng better • dyability is very good • no deep absorption of absorption • less hairiness and superior dyeing • still hairiness medium appearance • harsher hand feel appearance irregular yarn • superior hand feel • not vibrante appearance • short fiber percentage still • short fiber percentage is low • mainly composed of short high less strength regular yarn made from PROMODORO MARKETING TOOL KIT 2015 MARKETING TOOL PROMODORO fiber higher grade cotton fiber | ABC TEXTILE at promodoro we use combed and only combed cotton #THE FABRIC FABRIC REFERS TO ANY MATERIAL PRODUCE BY WEAVING, KNITTING, SPREADING, CROCHETING, BONDING THAT MAY BE USED IN PRODUCTION OF GARMENT, AND OTHER GOODS.
    [Show full text]
  • (12) Patent Application Publication (10) Pub. No.: US 2016/0024709 A1 Walker (43) Pub
    US 2016.0024709A1 (19) United States (12) Patent Application Publication (10) Pub. No.: US 2016/0024709 A1 Walker (43) Pub. Date: Jan. 28, 2016 (54) METHOD EACILITATING TEXTLE Publication Classification PREPARATION FOR DIRECT TO-GARMENT PRINTING (51) Int. C. D06P 5/30 (2006.01) (71) Applicant: Brian A. Walker, New Philadelphia, OH (52) U.S. C. (US) CPC ........................................ D06P 5/30 (2013.01) (72) Inventor: Brian A. Walker, New Philadelphia, OH (US) (57) ABSTRACT (21) Appl. No.: 14/810,727 A method facilitating preparation of textiles and/or garments to facilitate use of a direct-to-garment (DTG) printing process (22) Filed: Jul. 28, 2015 to apply graphics to the garments is provided. The method includes the application of a pretreatment during a textile Related U.S. Application Data and/or garment-making process to obviate the need to apply (60) Provisional application No. 62/029,723, filed on Jul. pretreatment to a finished garment immediately before DTG 28, 2014. printing. US 2016/0024709 A1 Jan. 28, 2016 METHOD EACILITATING TEXTLE vides a barrier between a darker-colored garment and ink of a PREPARATION FOR DIRECT TO-GARMENT graphic applied thereto. The underbase serves as a medium PRINTING for facilitating good color retention, intensity, and wash fast ness of a graphic, even a lighter-colored graphic, printed onto BACKGROUND OF THE INVENTION the darker-colored garment. As such, the use of the pretreat 0001. The present application claims the benefit of Provi ment and underbase affords use of lighter-colored ink (e.g., sional Application No. 62/029,723, filed Jul.
    [Show full text]
  • Solution Deposition of Conformal Gold Coatings on Knitted Fabric for E-Textiles and Electroluminescent Clothing
    University of Windsor Scholarship at UWindsor Chemistry and Biochemistry Publications Department of Chemistry and Biochemistry 1-22-2018 Solution Deposition of Conformal Gold Coatings on Knitted Fabric for E-Textiles and Electroluminescent Clothing Tricia Carmichael Yunyun Wu University of Windsor Sara S. Mechael University of Windsor Yiting Chen University of Windsor Follow this and additional works at: https://scholar.uwindsor.ca/chemistrybiochemistrypub Part of the Materials Chemistry Commons, and the Materials Science and Engineering Commons Recommended Citation Carmichael, Tricia; Wu, Yunyun; Mechael, Sara S.; and Chen, Yiting. (2018). Solution Deposition of Conformal Gold Coatings on Knitted Fabric for E-Textiles and Electroluminescent Clothing. Advanced Materials Technologies, 3 (3), 1700292. https://scholar.uwindsor.ca/chemistrybiochemistrypub/94 This Article is brought to you for free and open access by the Department of Chemistry and Biochemistry at Scholarship at UWindsor. It has been accepted for inclusion in Chemistry and Biochemistry Publications by an authorized administrator of Scholarship at UWindsor. For more information, please contact [email protected]. DOI: 10.1002/((please add manuscript number)) Article type: Communication Solution Deposition of Conformal Gold Coatings on Knitted Fabric for E-Textiles and Electroluminescent Clothing Yunyun Wu, Sara S. Mechael, Yiting Chen, and Tricia Breen Carmichael* Y. Wu, S. S. Mechael, Y. Chen, Prof. T. B. Carmichael Department of Chemistry and Biochemistry, University of Windsor, Windsor, Ontario, N9B 3P4 Canada E-mail: [email protected] Keywords: e-textile, printed electronics, stretchable conductors, electroluminescent devices, wearable electronics Abstract The vision for wearable electronics involves creating an imperceptible boundary between humans and devices. Integrating electronic devices into clothing represents an important path to this vision; however, combining conductive materials with textiles is challenging due to the porous structure of knitted textiles.
    [Show full text]
  • Effect of Knit and Print Parameters on Peel Strength of Hybrid 3-D Printed Textiles
    Original Article Journal of Textiles and Fibrous Materials Volume 1: 1–10 ª The Author(s) 2018 Effect of knit and print parameters on DOI: 10.1177/2515221117749251 peel strength of hybrid 3-D printed textiles journals.sagepub.com/home/tex Ayushi Narula1, Christopher M Pastore2 , David Schmelzeisen3, Sara El Basri3, Jan Schenk3, and Subin Shajoo4 Abstract The influence of knit fabric structure on the adhesion of three-dimensional (3-D) printed textiles was examined. 3-D printing was applied to different elastic knitted fabrics with different amounts of prestretch, typical for 4-D fabric con- struction. The quality of the bond was measured in terms of peel strength. Peel strength was measured by pulling the fabric at 180 from the printed plastic to delaminate the 2 and recording the 10 highest peak values observed during the test. The printed width, the ratio of fabric width of print width, fabric washing, and fabric structure were varied. The specimens were then evaluated for peel strength. Keywords 3-D printing, 4-D textiles, knit structure, porosity, peel strength Date received: 21 September 2017; accepted: 28 December 2017 Introduction the high elastic strain available and significant recovery force associated with the textile. The material chosen for There has been a rapid growth in research regarding three- these systems should be highly deformable, while maintain- dimensional (3-D) printing in recent years driven by the low ing enough tensile modulus to deform the printed plastic. cost and material efficiency associated with the technology. After printing, the stored energy is released, which leads to Combining 3-D printing and textile materials is still a rela- a structural change in the system, generally changing form tively new research area.1–3 This represents a growth area from a two-dimensional printed structure to a 3-D curved that offers the promise of “4-D textiles”—hybrid textile/3D structure.
    [Show full text]