Vibration sensors have been fitted into gloves in an Advanced Textiles Research Group Project run by Dr Theodore Hughes-Riley and Professor Tilak Dias. The gloves can alert wearers to excessive levels of vibration that could lead to health problems. More details here:
Widespread takeup of new technologies can be achieved by making the new technology appeal to consumers.
This applies to electronic textiles and to solar cells, which can be incorporated into decorative glazing with some careful design. An article about Dorothy Hardy’s glass incorporating solar cells has just been published in the Glazier magazine. This magazine gives news from the Worshipful Company of Glaziers and Painters of Glass, which is ‘dedicated to the preservation of stained glass and the skills necessary to produce this beautiful art form.’
More about the Worshipful Company of Glaziers and Painters of Glass can be found here:
A link to the Summer 2016 edition of their magazine can be found here:
And Dorothy’s article is here:
A photo from the article, showing a drawing of solar cells disguised within a design
The Advanced Textiles Research Group’s development of heated textiles has led to an award-winning collaboration with H Stoll AG & Co. KG: experts in development of knitting technology. Heated mesh within a balaclava warms air to make breathing easier for athletes during winter. Click on this link to see Stoll’s beautiful brochure with more details, including an interview with Professor Tilak Dias on page 10:
Professor Clemens Thornquist was the guest presenter at Nottingham Trent University’s CADBE conference yesterday. His ideas about the challenges to onward movement in design gave some innovative possibilities that could be used in development of electronic textiles. He showed new methods of pattern-making for use in design of clothing. These can improve the fit and drape of garments. This could also provide a new start point for design of clothing that contains electronics. Novel designs could be developed that integrate the process of designing electronic circuits for use on the body with the method of measuring up and cutting of textiles to ensure good feel and performance for wearers. The electronic yarn that is being developed by the Advanced Textiles Research Group could be integrated into clothing at many points in the manufacturing process. The way in which it is included can be altered depending on the chosen design process.
The start points for development of designs that Professor Thornquist presented were exciting. How about using a completely different discipline and creative technique? He showed Josef Albers’ colour compositions that make some colours recede and others stand out as if the 2D image were 3D (http://www.albersfoundation.org/). A Bach fugue gave another start point with its rigorous method of taking a theme and exploring it again and again, combining and repeating it in altered ways. The possibilities are looking exciting.
Here’s a link to more details about Clemens’ work at at the University of Borås:
And here’s a photo of Clemens (on the right) in discussion with Kath Townsend and Tony Kent.
Ania Sadkowska’s beautifully-crafted clothing explores the intersection of sociology, psychology and art and design practices. Her recent work: Fashioning Age: A phenomenological exploration of older men’s experience of fashion and clothing, shows how ordinary clothing can be transformed into something different and special. And it takes place in the same department as the Advanced Textiles Research Group’s investigations into methods of fitting electronics within textiles and clothing. Ania writes about her work: ‘As a concept-led fashion and textiles practitioner I believe that the human body and embodied experiences are the never-ending sources of inspiration; my interest in fashion as a communication tool, as well as interdisciplinary approach, underpins each and every one of my projects. By combining sophisticated craftsmanship with contemporary and innovative technologies in the exploration of ageing as a biological, psychological and social phenomenon, I attempt to push the boundaries of fashion and art, and to position myself as a fashion and textiles designer, artist and researcher.’
There are rich possibilities for collaboration in the School of Art and Design: the clothes of the future can be designed here combining fashion, innovation and technology.
Dark, square solar cells can look good in windows, but it took some research to find out how to make these materials that generate electricity fit into colourful, decorative glazing. Stained glass and other types of ornamental glazing brighten up many buildings. But with increasing concerns about the impact that buildings have on the environment, there’s a need to ensure that every part of the architecture contributes to a building’s energy performance, including the glazing. Putting solar cells into windows to generate electricity seems an obvious step, as adding solar cells to a building is the best way to use architecture to generate electricity. But it is tricky to fit these high-tech materials into glazing designs that also look good and let in some light.
Whilst finishing her PhD at Heriot-Watt University, Dorothy Hardy wrote a paper about her stay at Peters Glass Studios in Paderborn, Germany: a world leader in restoration of stained glass and in fitting solar cells into decorative glass. The paper describes how Dorothy used glass paint to disguise solar cells within decorative glazing designs. The trick was to surround the square cell shapes with dark paint so that when light shines through the windows, the square shapes are then disguised within patterns of paint. Adding reflective, platinum paint onto the glass behind the solar cells gave a way of hiding the backs of the solar cells whilst bouncing light back into the design. The paper is free for anyone to access from the Journal of Sustainable Development and Planning:
The photos here show the basic method of surrounding a solar cell with glass paint to disguise the shape once it is held up to the light, as well as the colourful window that Dorothy designed and made. This contains fluorescent dyes within the sticky, encapsulant material that hold the solar cells in place between two panes of glass.
The challenges of fitting high-tech into traditional continue with Dorothy’s work at Nottingham Trent University. Here, in the Advanced Textile Research Group, there is work on fitting electronics into textiles. This gives many possibilities for making functional devices part of clothing that looks and feels good to wear. One important area of research is to find ways of using textiles to make life easier for those with chronic medical conditions: incorporating electronic devices within clothing, so that medical devices can be disguised within comfortable and fashionable clothing.
James King from Zwick/Roell visited last week to teach the Advanced Textile Research Group more about use of our tensile tester. That’s the machine on the right in the photo, set up to pull on a long, thin sample until it breaks. This machine pulls or compresses materials to find their durability. We are creating tests for electronic textiles to ensure that these can survive knitting and weaving processes, then repeated wearing, washing and drying.
This week the group are wishing Dr Ekael Mbise happy travels as he leaves the Advanced Textile Research Group. Ekael’s work in Nottingham involved building a machine with adjacent hot and cold chambers so that he could assess moisture flow through fabrics placed between the chambers. He seems to be taking his research to extremes by himself travelling from the cold Nottingham winter to the heat of Tanzania. His research gave a way of assessing the best fabric designs for use during outdoor activities in cold weather. Ekael is second from right in the photo, enjoying a ‘Goodbye to Nottingham’ meal.
The latest Star Wars film was eschewed in favour of videos of an LED switching on and off and an electronic yarn being see-sawed to destruction when the Advanced Textile Research Group met with their partner team from the University of Southampton last week. The two groups work together on the Functional Electronic Textiles project, finding methods of manufacturing electronic textiles. This includes testing electronic yarns to destruction. The photo shows the yellow, cushioned jaws of a tensile tester that is used to help find out if electronic yarns are sufficiently strong to survive being made up into textiles and then being worn.
Here are three members of the Advanced Textile Research Group who have had recent PhD successes. On the left is Dr Ekael Mbise who has just conducted a successful defence of his thesis on ‘The Development of a Quick Dry Fabric for Outdoor Garments’. The thesis explains Ekael’s research on development of an active fabric to keep the wearer drier when sweating occurs. The technology works through control of the hydrostatic pressure difference through application of heat to one side of an inner, knitted, spacer fabric. This leads to the inner side of the fabric being kept as dry as possible.
Dr Dorothy Hardy is in the centre of the group in the photo. She recently graduated from Heriot-Watt University after completion of her thesis entitled ‘Integrating Crystalline-Silicon Photovoltaic Cells into Decorative Glazing’. This research found ways of fitting solar cells into decorative windows to create a modern version of stained glass that generates electrical power. This involved both development of artistic designs and finding methods of incorporating brightly-coloured, fluorescent dyes into the encapsulant ‘glue’ that holds solar cells in place between sheets of glass. This experience in mixing artistic and scientific research is now being carried forward into Dorothy’s work to test electronic yarns and then integrate them into functional textiles that will appeal to wearers.
Anura Rathnayake is on the right of the photo. His thesis on ‘Development of the Core Technology for the Creation of Electronically-Active Smart Yarn’ was recently submitted. The aim of this work was the development of the core technology for embedding functional semiconductor devices within the fibres of a yarn, in order to create electronically-active yarns. These yarns could then be processed via the conventional textile manufacturing techniques into smart fabrics and garments. These electronically-active yarns will be the building blocks of the next generation of wearable electronics.