Clothes that monitor your heart, measure the chemical composition of your body fluids or keep track of you and your local environment promise to revolutionise healthcare and emergency response, but they present tough research challenges, too.
Smart textiles must be comfortable, their technology must be unobtrusive, they must withstand a difficult and variable environment and, particularly for medical and emergency applications, they must be absolutely reliable.
These are all tough challenges, but they must be overcome to realise the considerable benefits and lucrative market potential of smart textiles and intelligent fabrics (SFIT). The market is thought to be worth over €300m and current growth rates are about 20% a year.
Europe has not been slow to spot the potential of Fashion 2.0, with many projects funded by the EU to develop new applications and innovative solutions to old problems. The EU has even set up a research cluster for the sector.
“We formed the SFIT cluster because there are many European projects researching new types of smart fabric,” explains Jean Luprano, coordinator of the SFIT Cluster. “We wanted to share expertise and find a way to avoid reinventing the wheel. Often the work of one project could help another, even if they were not working on the same area.”
“Many of the underlying objectives are the same, like connectivity, wearability and ensuring the fabric is accepted by users.”
The cluster achieved some remarkable cross-pollination between projects. “The textile electrode used in Wealthy, for example, extended to three other projects, MyHeart, Proetex and Biotex. In Biotex for instance, it was not our intention to develop a dry textile electrode again, so the help was a bonus.”
The SFIT Cluster currently regroups the projects Context, Proetex, Sweet, Stella, Ofseth, Biotex and Clevertex. Lessons were taken from Wealthy, which had finished its work developing intelligent systems for health monitoring before the cluster started, and from MyHeart (see our feature article), which developed a textile sensor for continuous heart monitoring.
DisasterWear, clothing for emergencies
SFIT’s Context (see related articles) project sought to develop contactless sensors for the prevention of lower back pain and repetitive strain syndrome.
Proetex (see related articles) aimed its sights at rescue workers like fire fighters and is developing a system to monitor the wearer and the outside environment.
Sweet project is developing stretchable and washable electronics for embedding in textiles so smart clothes can cope with daily wash, wear and tear.
The Stella project is developing stretchable electronics for large area applications. Currently, there are no stretchable electronics on the market but they could have wide application, particularly for health monitoring. The team hopes to develop conducting substrates within the very weave of fabric, which will allow sensors to move with the body.
Optical fibres also offer a promising avenue for new smart clothing because of their potential flexibility and their capacity to use light both as an information carrier and a sensor in itself. The team behind the Ofseth project (see our feature article) is aiming at applications in oximetry – a clever non-invasive way to measure the oxygen content of blood
In a hospital setting, a clip is attached to a patient’s finger measuring a ratio in the absorption of red and infrared light passed through a patient’s finger, which varies depending on the state of oxygen-rich, bright red blood and oxygen-poor, dark red blood. Ofseth researchers hope to replicate the measure in clothing (without the need for the finger clip typically used in hospitals) by placing optical fibres around the neck of a smart garment.
In a related healthcare activity, the Mermoth project worked on integrating smart sensors, advanced signal processing techniques and new telecommunication systems on a textile platform.
Biotex project (see our feature article) is looking at the chemical monitoring of textiles, a new frontier in the emerging field of smart textiles. Most smart fabric applications want to stay dry, but Biotex is hoping to develop sensors that can measure body fluids like sweat, too. If they are successful, it will open up whole new areas for smart applications.
“Right now we’re looking at sporting applications, because the medical applications are very difficult to bring to market and require enormous validation efforts to ensure reliability in a medical setting,” explains Luprano.
The Biotex system aims to measure the conductivity, electrolyte level, temperature and pH of the users sweat, all enormously useful indicators for sporting applications. The project also aims at monitoring wound healing by placing biosensors in contact with exudates present in wounds.
Clevertex is taking a big picture view of the field in its efforts to develop a strategic ‘master plan’ for transforming, by 2015, the traditional textile and clothing sector into a knowledge-driven industrial sector.
The projects in the SFIT cluster mean a double benefit for Europe’s smart-clothing sector. The applications are useful in themselves, and the technical solutions developed in each project will benefit the range of smart-clothing systems.The SFIT cluster and its associated projects received funding from the European Union’s Framework Programme for research.
This is part one of the three-part special feature in October on smart textiles (see related articles).
Christian Nielsen | alfa
3D inks that can be erased selectively
16.08.2018 | Karlsruher Institut für Technologie (KIT)
Designing Nanocrystals for more efficient Optoelectronics
16.08.2018 | Max-Planck-Institut für Eisenforschung GmbH
Scientists at the University of California, Los Angeles present new research on a curious cosmic phenomenon known as "whistlers" -- very low frequency packets...
Scientists develop first tool to use machine learning methods to compute flow around interactively designable 3D objects. Tool will be presented at this year’s prestigious SIGGRAPH conference.
When engineers or designers want to test the aerodynamic properties of the newly designed shape of a car, airplane, or other object, they would normally model...
Researchers from TU Graz and their industry partners have unveiled a world first: the prototype of a robot-controlled, high-speed combined charging system (CCS) for electric vehicles that enables series charging of cars in various parking positions.
Global demand for electric vehicles is forecast to rise sharply: by 2025, the number of new vehicle registrations is expected to reach 25 million per year....
Proteins must be folded correctly to fulfill their molecular functions in cells. Molecular assistants called chaperones help proteins exploit their inbuilt folding potential and reach the correct three-dimensional structure. Researchers at the Max Planck Institute of Biochemistry (MPIB) have demonstrated that actin, the most abundant protein in higher developed cells, does not have the inbuilt potential to fold and instead requires special assistance to fold into its active state. The chaperone TRiC uses a previously undescribed mechanism to perform actin folding. The study was recently published in the journal Cell.
Actin is the most abundant protein in highly developed cells and has diverse functions in processes like cell stabilization, cell division and muscle...
Scientists have discovered that the electrical resistance of a copper-oxide compound depends on the magnetic field in a very unusual way -- a finding that could help direct the search for materials that can perfectly conduct electricity at room temperatur
What happens when really powerful magnets--capable of producing magnetic fields nearly two million times stronger than Earth's--are applied to materials that...
08.08.2018 | Event News
27.07.2018 | Event News
25.07.2018 | Event News
16.08.2018 | Life Sciences
16.08.2018 | Earth Sciences
16.08.2018 | Life Sciences