HI-PROSPECTS - HIgh resolution PRinting Of Solar Photovoltaic EleCTrode Structures
Photovoltaic solar cells deliver clean green energy and the technology has been well proven with over 2.5 GWp
currently installed in the UK alone. However, photovoltaic uptake is still limited due to the high CAPEX outlay
and slow Return on Investment (ROI). In order to accelerate widespread photovoltaic installation, there are
strong drivers to further reduce the cost per Watt of solar cells.
HI-PROSPECTS directly addresses this by developing innovative high resolution electrostatic ink jet technology
to deposit fine copper electrode structures, thereby increasing cell efficiencies by reducing shading losses and
replacing expensive and volatile silver pastes with cost effective nanoscale copper. HI-PROSPECTS will
demonstrate the technology on silicon cells and on next generation perovskite solar cells with target efficiency
of 17% at less than £230 / kWp. The project will facilitate the additional manufacture of up to 5 GWp of PV by
2023, generating 4100 GWh of electrical power.
AMMETEX - Advanced Materials and Metamaterial Structures for MetaTextiles
The AMMETEX project will investigate the feasibility of ‘MetaTextiles’ - prototyping electromagnetic
metamaterials including meta-textiles and meta-surfaces from a textile design-based perspective, using low
cost high performance print technologies and their associated nano scale printing inks. The aim is to explore
print techniques to achieve periodic textile surfaces that can be considered continuous and effective at specific
frequency bands. We will develop a practice-based method for ‘MetaTextiles’, supporting experimental textile
design approaches and novel materials and ink formulations versus normal approaches used in electronic and
electrical engineering.. The project will identify a feasible design and manufacturing solution and carry out a
simple proof of concept demonstrator to show the potential for applying MetaTextiles to high-speed mm-wave
communication links.
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OSI - One Step Interconnect for Thin Film PV Modules
The purpose of this project is to use a novel cell interconnect process to enable perovskite based semi-transparent Photovoltaic (PV) modules with non-standard dimensions for Building Integrated Photovoltaics (windows of high rise buildings), flexible PV modules using the material CIGS or for industrial roofs, and conventional thin film PV modules (CIGS/CdTe). In this project, the interconnect is achieved using a new laser ablation/inkjet process that works at speeds of up to 3m/sec. The sales target for this new process is >$10M per annum with attractive ongoing sales of specialist inks. The project will dramatically changes the way PV modules are manufactured reducing complexity and cost of manufacture, with flow on savings to customers and increased uptake of solar technologies which will offset fossil fuel demand, decreasing GHG emissions and increasing security of energy supply in the UK.
AMPS - Additive Manufacturing for Packaging Semiconductors
Mobile device market, e.g., smartphones & tablets, continues to grow rapidly and consumers are demanding ever increasing performance within smaller electronic footprints. To meet these demands the semiconductor industry require process technology for novel IC packaging solutions using glass interposer technology. Forecasts show that by 2017, 2.5D interposers will reach a market value of $1.35Bn. The AMPS project will provide the materials and laser process technology that enables high density electronic metallisation structures for 2.5D and 3D semiconductor packaging systems using glass interposers, therefore ensuring the UK plays a valuable role in the supply chain on the next generation of semiconductor packaging architectures. The consortium partners have IPR and a route to exploitation which, when combined, forms a technology ideal to meet the technological and economic needs of the industry. IML's nano-seed material, deposited and patterned by M-Solv's equipment allows copper to be plated in an additive process with low waste and high density of circuitisation. Atotech and Qualcomm provide access to industry level qualification and exploitation.
FAST-LAPS- Fast LAser Precision Sintering
Printed electronics offers a revolution in the manufacturing of electronic circuit boards proving a lower cost, more environmentally friendly process using less power & creating significantly lower waste. The overall market is forecasted to continue growing from €0.40 Bn in 2010 to €3.78 Bn in 2016 and has been broadly recognised as an opportunity for the UK & Europe to reduce the current electronics manufacturing trade deficit with the Far East which is currently at €100 Bn. Underpinning all of electronics are the conductive track structures that connect the active components such as; transistors, capacitors and resistors. To ensure cost effective processing, copper, which is ~1% of the current silver price, is required. However, to enable the use of copper and to prevent oxidation, rapid sintering methods are required. This proposal demonstrates the use of laser technology as a high volume production process to enable realisation of the conductive ink market and builds on the UK’s leading position in already supplying these materials to a broad customer base.
NIRVANA - Near Infra-Red photoinitiated curing of industrial wood coatings and varnishes
Radiation Curing utilising Light Emitting Diodes (LED) offers substantial energy savings for industrial wood coating applications compared to conventional UV mercury arc lamps (~60% less) and traditional gas fired drying systems (~90% less). However, the growth of Radiation Curing applications has been limited due to: Poor depth penetration of UV in pigmented coatings; Poor surface coating properties (due to oxygen inhibition) and the absence of optimised coating formulations. NIRVANA will deliver 3 novel solutions to these challenges by:
1. Developing an innovative near-infra red (NIR) photoinitiator within the 880-1000 nm transmission window where light is not typically absorbed or scattered.
2. Developing novel hybrid organic-inorganic nano-materials to increase surface cross linking density and hardness and reduce oxygen inhibition.
3. Creating formulations of 100% solids acrylate based resin wood coatings that can be cured using energy efficient NIR LED irradiation
GRAPHENJET
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PRESTEGE
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Nanoscale Thermoelectric Material
Develope novel nanoscale silicide thermoelectric materials with world leading performance. Exhaust gas heat recovery operating temperature to within the 250-350?C range where a thermoelectric material made from lightweight, abundant and cost effective components would have significant commercial advantages. IML can dope the materials to engineer the band gap and reduce the optimal temperature range. A step change improvement in the thermoelectric performance within this temperature range will offer superior performance, opening up substantial industrial markets, including industrial, automotive and marine exhaust gas waste heat recovery and thermoelectric solar thermal applications
PRINTEG -Production Innovation for ThermoElectric Generators
The PrinTEG project builds on the previous development work of a UK-based consortia of SMEs and RTD partners who have developed cutting edge thermo-electric silicide materials and automotive demonstrators that use these materials to generate electrical power from waste exhaust heat. The PrinTEG project aims to take this intellectual property and develop advanced automated manufacture and in-process sensing technologies to enable the low-cost, mass-manufacture of these thermo-electric generators. In so doing the consortium will maximise the chances that the manufacture of these technologies will be undertaken within the UK, rather than being lost to the Far-East, as has been the case with electronics manufacture over the last few decades. PrinTEG is a business-led consortium, with Jaguar Cars acting as the initial route to market for the technology.
The specific developments to be undertaken within the project relate the development of:
- Automated powder handling and mechanical forming technoligies for the creation of nano-structured thermo-electric material.
- Automated sintering technologies for the creation of net-shape thermo-electrics without the need for wasteful cutting and milling.
- Automated Pick + Place technologies for the handling and placement of the thermoelectic legs that are of complex shapes.
- Automated brazing and in-process sensing to optimise speed, quality and yield for the fabrication of thermo-electic generators.
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Low Cost High Resolution Automotive Sensor Technology (HICAST)
The Automotive industry has experienced a substantial increase in the integration of
electronic control systems. Electronic sensor systems are now routinely employed to monitor linear motion, for example, to control accelerating, braking and fuel sensor levels. Although these systems are relatively low cost their performance is highly compromised and there is an urgent need to provide cost effective solutions that increase the sensing performance and miniaturise system dimensions. This project, HICAST, will seek to use alternative manufacturing processes based on advanced conductive nanoparticle pastes, novel printing technology and innovative laser curing technology. This will lead to a demonstrator showcasing a low cost, environmentally friendly manufacturing process (over conventional PCB technology), with improved performance and reduced size and manufacturing costs.
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Light Touch
The touch sensor market is currently experiencing rapid growth with high penetration in to the mobile and handheld device sector. Currently these devices use materials that are deemed to be strategically important, rare, and expensive with volatile trading prices. Light Touch is an ambitious project that will investigate the use of flexible glass as an alterntive to convetional rigid substrates for capacitive touch sensors in mobile applications. In addition to using flexible glass, low cost and non-strategic materials will be investigated to develop a solution processable alternative to ITO as a transparent conductor as well as a continuous R2R fabrication process for coating, curing and singulation. A disruptive technology will be developed that will create cheaper, lighter and more enivronementally friendly capacitive touch sesnors for the mass handheld and mobile market.
NANOFLAM - Novel Nanoscale Fluorescent Labels for the Medical Diagnostics Market
Existing fluorescent labels used to detect biomolecules in a range of life science assays are either based upon organic fluorophores which have limited lifetime or quantum dots which are high cost, toxic and can only operate in limited chemical environments. Initial research by Intrinsiq Materials and the University of Bath has demonstrated a new radical fluorescent label to address a £520 million medical diagnostics market. This platform technology based on nanomaterials, could be applied to overcome the disadvantages of the existing fluorescent labels. Partnered with Abcam, a global market leader in research-grade antibodies, the objectives of the NANOFLAM programme are to develop and exploit these novel materials as an immediate technically superior alternative to traditional fluorophores and to address radical new potential multiplexing applications.
Cost effective manufacturing for LED systems (CEMLED)
The CEMLED project is an investigation into the amalgamation of novel thermal management substrate technology and the use of printed electronic materials to revolutionise the High Brightness LED substrate market. It aims to move manufacturing away from wasteful, subtractive manufacturing techniques towards very simple and efficient additive manufacturing technology.
PROPRESS - Productionising Printing Enhancements to Silicon Solar Cells
The PROPRESS programme is aiming to deliver significant cost savings in the production of solar-cell electrodes. Currently silver is predominantly used as an electrode material due to its high conductivity and excellent chemical compatibility. However, silver has increased in cost significantly over recent years increasing the drive to find more economic alternatives whilst retaining cell lifetime and performance. The programme aims to deliver an integrated innovative electrode structure using alternative nano ink technologies. These nanoinks combined with novel curing and fast printing processes, will offer significant cost reductions, but will also increase cell life and increase efficiency. The aim will be to develop these inks with an experimental demonstrator showing increased performance over conventional electrode structures. The consortium consists of distinguished specialist partners – Narec Solar and C-Tech Innovation Ltd., with Intrinsiq Materials leading the programme and providing their novel nanoink and particle sintering expertise.
PROCID - Biosensor platform for rapid point-of-collection diagnosis of infectious diseases
The PROCID programme is designed to prove the cost effective use of printed copper in low cost antibody based biosensors for disease detection, initially targeting the STD’s Chlamydia and Gonorrhea. This will provide a step change in ease of detection to combat and overcome the spread of infections. Key objectives include: development of low-cost biosensors based around immobilised antibodies, tailoring the biosensing system to rapidly detect the target organisms (Chlamydia and Gonorrhea) and development of a printing-based fabrication process for mass-manufacturing of the biosensors. The overall aim is to successfully integrate and deliver a functional prototype system that provides a low-cost sensor-based platform for rapid detection of infectious disease, with real potential for commercialisation by the industrial partners, and in doing so reduce NHS costs, increase detection rates, help combat major health hazards, and facilitate the implementation of tele-healthcare. The consortium consists of distinguished specialist partners – Leeds University, ELISHA Systems Ltd, The Ryedale Group, The Needham Group, Amies Innovation and P1 Technology, with Intrinsiq Materials leading the programme and providing their novel copper ink and sintering technology.
Biopolymer-based Electronic Circuits and Displays (BEDs)
BEDS Program Project Description
The retail sector would like to adopt a sustainable approach to the electronics used in printed circuit boards (PCB’s), price/security tags, and simple displays.. This is partly a result of EU legislation such as EUP, REACH, WEEE and RoHS requiring solutions for sustainable electronics manufacture to be urgently found and also overall pressure for reductions in landfill quotas. This project will investigate producing sheets of encapsulated biopolymers as substrates for PCBs that can be degraded at the end of life and enable the effective revovery of the active metals within the original circuits with a minimum impact on landfill.
Waste stream remediation approach for manufactured inorganic Nanomaterials (WIN)
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Intrinsiq Materials Ltd
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Enhanced solar energy harvesting in dye sensitized solar cells using nanophosphors and nano-structured optics
Over the last 20 years, photo voltaic solar cells (PV) for power generation has grown an industry that focuses
on getting better materials to more efficiently use the solar energy that is available. With efficiencies
approaching 10%, huge effort has been focused onto improving efficiency by using multi layer materials &
thin film technologies such as DSSC to improve performance due to the huge positive impact they have on the
carbon economy and on their downstream scalability. A previous programme (CONVERT) developed long life down
converting phosphors that could be used in cells and coatings to transfer more of the suns energy into
preferred PV frequencies - in this TSB DSSC Grand Challenges programme, we will aim to take these innovative
materials and develop an optimised DSSC approach. We aim to combine this with enhanced light handling
technology to use more of the suns energy that hits the non converting part of the DSSC which can be up
to 30% of the total area. By combining these two techniques, applicable to all cells, we aim to enhance
the Grand Challenge PV systems and put a the first part of a supply chain in place ready for production
and scale up in the UK.
Conformal Printing of Electronics
Direct Write (DW) is primarily an additive process where functional materials are directly imaged onto substrates to form components with no waste or processing chemicals. DW methods are environmentally friendly, energy efficient and have a small process footprint. The aim of COPE is to take DW technology from Proof of Concept (PoC) to robustly engineered preproduction level demonstration, focussing on adding functionality to structures using inkjet and micro-nozzle techniques with highly engineered functional inks. The project will address issues such as design, manufacturing, cost, durability, product certification and through life management that includes recycling and disposal. The challenge is to mature DW technology so that it meets current functional and durability standards. PoC components can be manufactured, however it has been shown that the level of function is relatively low and more importantly that lifetime can be very short. This project will develop the basic capability toolset to convert highly engineered functional nanoparticulate powders into robust engineered products.
CONVERT - Enhancing Photovoltaics
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PURPOSE - Plastic UV Radiation Protection Operating by Stokes Emission
This project will develop a range of novel polymer additives that are able to downconvert UV light to other parts of the electomagnetic spectrum, by incorporating phosphor particles into the polymers. By down converting the UV and visible (blue and green) light into red and near infra -red, these materials will be longer lasting (not be degraded by UV light). This generic technology will have a huge range of industrial applications generating large market share for UK industry, including car side & roof windows, conservatory windows & roofing, stadium roofing and thermal insulation.
Fabrication of complex 3-dimensional structures using direct writing and laser annealing.
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