Game Changers challenge - Production of thin film targets.pdf

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One of the variables in a neutron irradiation experiments is the targets required. That is, more specifically, the target which the generated neutrons interact with to produce a changed material. The proposed STELLAR system at Central Laboratory is intended to have a range of flexible applications that would require the synthesis of a diverse range of target materials, including the production of novel radionuclides for the improvement of radiation based medical treatments.NNL would therefore like to explore reproducible methods of producing thin films. These methods could potentially already be in use in different industries and could be adapted for nuclear use. Of particular interest are the ability to predict the formation of material in the thin-film and the ability to thoroughly clean production equipment when it is being used with different materials or on different runs.<h3>Find out more</h3>Please download the challenge statement for full details of this challenge. A briefing webinar will take place on 3rd November 2021. <a href="https://www.eventbrite.co.uk/e/challenge-launch-flexible-thin-film-production-tickets-191092782657" rel="noopener noreferrer" target="_blank">Register now via Eventbrite</a>.

Flexible method of production for thin film targets used in nuclear physics and nuclear medicine experiments

The National Nuclear Laboratory (NNL) are inviting proposals to explore innovative processes or methods to put down thin, metal-based films onto a low atomic mass backing material in a flexible and reproducible manner. These thin films are to be used in a particle accelerator to help study fundamental nuclear physics and to identify and produce novel radioisotopes for research and use in the medical field.STELLAR is the name given to an ambitious NNL-led project to provide neutron irradiation facilities in the North West of England. Located at NNL’s Central Laboratory, STELLAR will define the requirements and establish a route to providing a unique UK and international capability for access to a high energy, high-flux neutron source.

The National Nuclear Laboratory are inviting proposals to explore innovative processes or methods to put down thin, metal-based films onto a low atomic mass backing material in a flexible and reproducible manner.

Game Changers challenge - thermochemical hydrogen production.pdf

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Additionally, technology associated with thermochemical cycles could be coupled to other heat sources including, for example concentrated solar systems. However, there are currently no industrial solutions utilising this technology and both technical and commercial barriers remain. These need to be overcome to enable informed technology, investment and policy decision making which could assist in moving the technology towards commercialisation.The National Nuclear Laboratory (NNL) are interested in innovations that draw on any and all relevant UK and international capability including technology transfer opportunities from any relevant sector such as bulk chemical manufacture, power generation, catalysis and control / safety systems. NNL are interested in working with partners over the long-term to help develop solutions that could expedite demonstration of hydrogen generation at pilot scale and beyond.<h3>Find out more</h3>Please download a copy of the challenge statement for more details of this challenge.A briefing webinar will take place on 4th November 2021.<a href="https://www.eventbrite.co.uk/e/challenge-launch-technologies-to-scale-thermochemical-methods-of-hydrogen-tickets-191085821837 " rel="noopener noreferrer" target="_blank"> Please register to attend via Eventbrite</a>.

Technologies to scale thermochemical methods of hydrogen production

When partnered with a high temperature heat source, thermochemical (with purely heat input) and electro-thermochemical (where at least one process step could be electrochemically driven) hydrogen production from water has potential cost and efficiency benefits compared to hydrocarbon based or solely electrochemical hydrogen production methods (i.e. electrolysis).The nuclear industry has been at the forefront of this pioneering technological development worldwide as the technology is compatible with the high heat output of certain reactor types that could lead to reduced cost of hydrogen.

The National Nuclear Laboratory are looking for innovations that could overcome the barriers to scaling commercial deployment of thermochemical methods of hydrogen production from water

Game Changers challenge statement - Detecting alpha radiation.pdf

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The primary aims of this challenge are:• Detection of alpha radiation from contaminated surfaces under daylight illumination conditions from a distance of 2 metres or greater• Precise identification of the location of areas of alpha contamination above 50 kBq per m2Although not a primary aim of this challenge, it would be beneficial to be able to:• Quantify the level of alpha activity on a surface• Be able to identify (‘finger-print’) the source material<h3>Find out more</h3>Please download a copy of the challenge statement for more details of this challenge.A briefing webinar will take place on 2nd November 2021. <a href="https://www.eventbrite.co.uk/e/challenge-launch-stand-off-alpha-radiation-detection-tickets-191092120677" rel="noopener noreferrer" target="_blank">Please register for this via Eventbrite</a>.

Stand-off alpha radiation detection under daylight conditions

The Atomic Weapons Establishment (AWE) and National Nuclear Laboratory (NNL) are seeking game changing solutions that could enable the remote (e.g. several metres distant) detection and identification of radiologically hazardous sources of alpha radiation and provide an accurate assessment of their location. As a time critical component of emergency responses, there is a need to more accurately and rapidly map radiological contamination. Commercial off-the-shelf (COTS) hand-held alpha radiation monitoring equipment requires close proximity sweeps of the surfaces of potential source materials. This is time consuming, labour intensive and may not even be possible in some situations due to safety restrictions. Novel systems are sought that can operate from a distance of up to several metres under a range of illuminated conditions, including daylight.

The Atomic Weapons Establishment and National Nuclear Laboratory (NNL) are seeking game changing solutions that could enable the remote detection and identification of radiologically hazardous sources of alpha radiation

Game Changers ANSIC Challenge Statement - digital technologies.pdf

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<ul><li>Digital twins and smart sensor networks: specifically, application within a nuclear environment, role with project delivery and quality assurance, asset management maintenance and operability, standards for sharing of digital information, off-site modular manufacture, and digitalisation of design-build-operate</li><li>Collaboration and security of digital assets: specifically, secure sharing of information, collaboration involving sensitive data sharing.&nbsp;Establishing a common cross industry approach to digitisation and an exploration of blockchain and cybersecurity technologies to support the establishment of a collaborative cross-industry digital ecosystem</li><li>Cloud technologies and large-scale computing: specifically nationally significant digital infrastructure to support new nuclear build</li><li>Artificial intelligence and high-fidelity computer simulation: specifically, application of AI to nuclear safety and operations, uncertainty in numerical simulation, credibility of computer models with key stakeholders including owner operators and nuclear regulators</li></ul><h3>Find out more</h3>This funding call is part of a short pilot of the Advanced Nuclear Skills and Innovation Campus (ANSIC), delivered by NNL on behalf of BEIS, and will provide feasibility grants of up to £25k per project.A challenge briefing webinar will take place at 3.30pm on 21st October 2021. <a href="https://www.eventbrite.co.uk/e/advanced-nuclear-skills-innovation-campus-industry-40-challenge-launch-tickets-169617740227" rel="noopener noreferrer" target="_blank">Registration for the event is free and via Eventbrite</a>.

Digital technologies to  support development, deployment,  operation and decommissioning of  Advanced Nuclear Technologies

<h3>Advanced Nuclear Skills and Innovation Campus call for proposals</h3>On behalf of the Department for Business, Energy, and Industrial Strategy (BEIS) and the National Nuclear Laboratory (NNL), Game Changers are seeking innovative approaches to overcome barriers to the adoption of Industry 4.0 technologies in the nuclear sector.&nbsp;It is recognised that digital integration, and the technology drivers behind Industry 4.0 have so far had limited traction in the nuclear industry, whilst having revolutionised other sectors.&nbsp;We would welcome proposals that will help the nuclear industry learn adopt technologies including but not limited to the following topics:

On behalf of the Department for Business, Energy, and Industrial Strategy (BEIS) and the National Nuclear Laboratory (NNL), Game Changers are seeking innovative approaches to overcome barriers to the adoption of Industry 4.0 technologies in the nuclear sector

Game Changers challenge - advancing heat exchangers 2.pdf

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On behalf of the Department for Business, Energy and Industrial Strategy (BEIS) and the National Nuclear Laboratory (NNL), Game Changers are inviting proposals for innovative ideas which could advance technology for extracting and managing the heat from ANTs.&nbsp;This includes developing a better understanding of the requirements placed on such systems by energy conversion systems and reactors.&nbsp;Applications are therefore welcome that cover systems such as:<ul><li>Heat exchangers (e.g. ceramic boilers for high temperature applications, their materials and layout)</li><li>Manifolds capable of diverting the heat from the same reactor to various different energy conversion or use systems (e.g. materials, control systems, safety aspects)</li><li>Energy conversion systems in terms of the requirements that they place on any element of the heat transfer or management systems (e.g. the requirements from electrolysers or the intended industrial process end use</li><li>The requirements advanced reactors could place on heat transfer and management systems due to operation at elevated temperatures and pressures and the use of novel cooling fluids and/or fuel&nbsp;&nbsp;</li></ul><h3>Find out more</h3>This funding call is part of a short pilot of the Advanced Nuclear Skills and Innovation Campus (ANSIC), delivered by NNL on behalf of BEIS, and will provide feasibility grants of up to £25k per project.Please download the challenge statement for a full description of this challenge. A challenge briefing webinar will take place at 3pm on 18th October 2021. <a href="https://www.eventbrite.co.uk/e/advanced-nuclear-skills-and-innovation-heat-exchanger-challenge-tickets-187130872477" rel="noopener noreferrer" target="_blank">Registration is free and via Eventbrite</a>. Join us to meet the challenge owners and explore this challenge in detail.

Advancing heat exchangers, energy management and conversion systems for advanced nuclear technologies

<h3>Advanced Nuclear Skills and Innovation Campus call for proposals</h3>The drive to achieve Net Zero Greenhouse Gas (GHG) emissions by 2050 requires us to re-consider how we apply all our low carbon energy sources to enable deep decarbonisation of all energy end-use applications including home heating, shipping, land transport, aviation, agriculture and industry.Advanced nuclear technologies (ANTs), covering both Small Modular Reactors (SMRs) and Advanced Modular Reactors (AMRs), have the potential to support decarbonisation in a wide variety of ways. This is beyond the decarbonisation opportunity represented by the conventional use of nuclear reactors, which in the UK operating fleet has been limited to electrical output.&nbsp;To be successful in the broader application of ANTs, there is a need for novel ways of extracting and managing the heat they produce for subsequent use in energy conversion systems.&nbsp;

Proposals are invited for innovative ideas which could advance technology for extracting and managing the heat from Small and Advanced Modular Reactors

Game Changers Challenge Statement - Materials Irradiation.pdf

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On behalf of the Department for Business, Energy and Industrial Strategy (BEIS) and the National Nuclear Laboratory (NNL), Game Changers are inviting proposals for innovative technologies that will enable the controlled irradiation of material specimens in nuclear reactors which are being simultaneously used for power generation. Solutions should take into consideration safe and secure integration into a range of advanced nuclear reactor designs, with regard for factors such as: how to introduce material into the reactor, control irradiation, remove material and extract samples.&nbsp;Subsequent sample preparation for transportation should be assumed to be undertaken in facilities located at or close to the reactor within appropriate timeframes.These secondary target irradiation activities must not affect long-term continuous reactor operation.<h3>Find out more</h3>This funding call is part of a short pilot of the Advanced Nuclear Skills and Innovation Campus (ANSIC), delivered by NNL on behalf of BEIS, and will provide feasibility grants of up to £25k per project.Please download the challenge statement for a full description of the aims of this challenge.A challenge webinar will take place at 11am on 22nd October 2021. <a href="https://www.eventbrite.co.uk/e/advanced-nuclear-skills-innovation-materials-irradiation-challenge-tickets-187167000537" rel="noopener noreferrer" target="_blank">Registration is free and via Eventbrite</a>. Join us to meet the challenge owners and explore this challenge in detail.

Irradiation of materials specimens in advanced nuclear reactors

<h3>Advanced Nuclear Skills and Innovation Campus call for proposals</h3>The design and development of advanced nuclear reactors offers a unique opportunity to develop technologies that can harness some of the energy produced to be used for irradiation of material specimens, without affecting primary reactor operations for power generation. This may include, but is not limited to, targets and specimens for irradiation research, medical isotope production, materials development, and materials processing and recycling.

Exploring innovative technologies that will enable the controlled irradiation of material specimens in nuclear reactors which are simultaneously being used for power generation

Call for Proposals - Industrial Innovator Research Project 2.pdf

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Find out moreIn this call, proposals for research projects that explore all potential uses of nuclear technology as part of a low carbon economy are invited. This includes, but is not limited to, research projects investigating:<ul><li>The use of nuclear technologies in hydrogen production, direct heat for industrial or domestic use, energy storage, chemical synthesis and production of medical isotopes</li><li>Technologies that enable the recovery and reuse of radioactive waste material for energy and non-energy use</li><li>Technologies that reduce the cost of advanced nuclear systems</li><li>Mechanisms of enabling licensing and validation of new technologies</li><li>Opportunities to derive additional value from advanced nuclear systems</li></ul>Please download the Call for Proposals PDF (via Get Challenge Statement) for full details of this opportunity and how to apply.An online briefing event took place on 15th&nbsp;September to provide an overview of ANSIC and further information about this call.&nbsp;Watch the recording now:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/606316882/"></iframe>Proposals must be submitted using the Game Changers online application system.&nbsp;The deadline for applications is 12 noon on Thursday 7th October 2021.Template documents for the supplementary information required as part of this application process are provided below. Please note that these documents are for guidance only and should not be regarded as being editable. There is no requirement to submit a poster in support of ANSIC open call applications.<a href="https://www.gamechangers.technology/static/u/Template%20application%20PDF%20industrial.pdf" rel="noopener noreferrer" target="_blank">Supporting information</a><a href="https://www.gamechangers.technology/static/u/Project%20plan.pdf" rel="noopener noreferrer" target="_blank">Project plan</a>

Advanced Nuclear Skills and Innovation Campus industrial innovator research and development projects

On behalf of the Department for Business, Energy and Industrial Strategy (BEIS) and the National Nuclear Laboratory (NNL), Game Changers are inviting proposals from businesses for access to facilities at NNL’s Preston Laboratory to undertake research and development projects focussing on advanced nuclear technology.The projects must be undertaken between 15th November 2021 and 25th March 2022.This funding call is part of a short pilot of the Advanced Nuclear Skills and Innovation Campus (ANSIC), delivered by NNL on behalf of BEIS, and will provide innovation grants of up to £135k per project. It is intended that two innovation projects will be funded.&nbsp;The cost of instrument and facility access at NNL’s Preston Laboratory and support from NNL experts will be covered by ANSIC, and therefore free at point of use for the successful applicants.&nbsp;

Open call for proposals from businesses for access to facilities at NNL’s Preston Laboratory to undertake research and development projects focussing on advanced nuclear technology

Call for Proposals - Academic Research and Development Projects 2.pdf

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Find out moreIn this call, proposals for research projects that explore all potential uses of nuclear technology as part of a low carbon economy are invited. This includes, but is not limited to, research projects investigating:<ul><li>The use of nuclear technologies in hydrogen production, direct heat for industrial or domestic use, energy storage, chemical synthesis and production of medical isotopes</li><li>Technologies that enable the recovery and reuse of radioactive waste material for energy and non-energy use</li><li>Technologies that reduce the cost of advanced nuclear systems</li><li>Mechanisms of enabling licensing and validation of new technologies</li><li>Opportunities to derive additional value from advanced nuclear systems</li></ul>Please download the Call for Proposals PDF (via Get Challenge Statement) for full details of this opportunity.An online briefing event took place on 15th September to provide an overview of ANSIC and further information about this call.&nbsp;Watch the recording now:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/606359678/"></iframe> Proposals must be submitted using the Game Changers online application system.&nbsp;The deadline for applications is 12 noon on Thursday 7th October 2021.Template documents for the supplementary information required as part of this application process are provided below. Please note that these documents are for guidance only and should not be regarded as being editable. There is no requirement to submit a poster in support of ANSIC open call applications.<a href="https://www.gamechangers.technology/static/u/ANSIC%20template.pdf" rel="noopener noreferrer" target="_blank">Supporting information</a><a href="https://www.gamechangers.technology/static/u/Project%20plan.pdf" rel="noopener noreferrer" target="_blank">Project plan</a>

Advanced Nuclear Skills and Innovation Campus academic research and development projects

On behalf of the Department for Business, Energy and Industrial Strategy (BEIS) and the National Nuclear Laboratory (NNL), Game Changers are inviting proposals from academic institutions for access to facilities at NNL’s Preston Laboratory to undertake research and development projects focussing on advanced nuclear technology.The projects must be undertaken between 15th November 2021 and 25th March 2022.This funding call is part of a short pilot of the Advanced Nuclear Skills and Innovation Campus (ANSIC), delivered by NNL on behalf of BEIS, and will provide research grants of up to £65k per project. It is intended that two research projects will be funded. The cost of instrument and facility access at NNL's Preston Laboratory and support from NNL experts will be covered by ANSIC, and therefore free at point of use for the successful researchers.

Open call for proposals from academic institutions for access to facilities at NNL’s Preston Laboratory to undertake research and development projects focussing on advanced nuclear technology

GC Challenge Statement Magnox SL - Monitoring Waste Packages web.pdf

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A variety of container types are employed in waste packaging, and each has its particular constraints. It is therefore necessary to monitor the physical condition of the waste packages and the waste throughout the duration of their interim storage. This provides information regarding the integrity of the waste packages prior to their removal from the ISF.Both Magnox and Sellafield’s current monitoring arrangements are deemed suitable under current best practice. Both organisations are however keen to explore novel technologies and innovations that will:<ul><li>Indicate the condition of the waste package in the latter stages of its period of interim storage</li><li>Indicate the condition of the waste within the waste package</li><li>Reduce operator dose through remote means of monitoring</li><li>Enable the monitoring of aspects of waste package ageing that have been forecast, for which economic and practicable means for doing so have yet to be identified</li></ul>Accurately predicting the behaviour of waste and a waste package over a 100 year timeframe is obviously challenging. Some deterioration is to be expected, however techniques which offer some early indications of degradation or change would greatly increase regulator confidence. Such techniques may in future become routine depending on the ease of use, suitability of information provided and package ageing.Find out morePlease download a copy of the challenge statement for more details of this challenge.You can also watch a recording of a webinar describing this opportunity in detail:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/613091188/"></iframe> For more information about the funding available through Game Changers, please see our <a href="https://www.gamechangers.technology/static/u/Game%20Changers%20FAQs%203.pdf" rel="noopener noreferrer" target="_blank">funding FAQs</a>.The closing date for applications is Wednesday 6th October 2021 at 12 noon.

Monitoring of waste packages

Magnox and Sellafield are both responsible for decommissioning nuclear sites which requires the disposal of radioactive wastes. These wastes will ultimately be disposed of in a Geological Disposal Facility, which is yet to be built. In the meantime, the waste is stored safely in what is commonly referred to as interim storage. This involves taking the wastes and storing or immobilizing them in containers. The waste and its container are referred to as a waste package. These waste packages may require interim storage for up to 100 years.The buildings where the waste packages are stored are known as Interim Storage Facilities (ISF). These are purpose built enclosures with a range of designs and layouts. Waste packages are stacked and accessed via an overhead crane with varying levels of access around each stack.

Sellafield Ltd and Magnox would like to explore novel technologies and innovations for long term monitoring of stored waste packages

ROV positioning challenge statement.pdf

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Both organisations have similar pond designs and are collaborating via the Game Changers process. This call for innovation is open to applicants from any sector including industries such as oil and gas, mineral mining, chemicals, civil engineering and construction. Sellafield and DSRL are seeking a proof of concept capable of deployment as soon as practicably possible.<h3>Find out more</h3>An interactive workshop took place on 8 July. Watch the recording to hear more from the challenge owners.<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/574039332/"></iframe> This challenge closes for applications at 12 noon on Friday 30th July.

ROV positioning in featureless pond environments

Challenge ROV positioning in ponds, nuclear

The Sellafield and Dounreay sites both contain ponds which have been used in cooling and storage of nuclear fuel rods as part of the decommissioning process. Sellafield Ltd and Dounreay Site Restoration Ltd (DSRL) are seeking improved and/or novel solutions to enable them to reliably and repeatedly position ROVs and associated characterisation equipment in a pond, without use of the stored inventory as a x/y coordination guide, to aid in retrieval of radioactive waste.These opportunities are highlighted in this Game Changers challenge statement. In addition to ROV positioning, DSRL would like to comprehensively characterise their pond structure and its contents over the next 3 – 5 years.

Sellafield Ltd and Dounreay Site Restoration Ltd (DSRL) are seeking improved and/or novel solutions to enable them to reliably and repeatedly position ROVs and associated characterisation equipment in a pond.

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If you missed this month's Technology Talks you can catch up by watching the recording below.<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/534376788/"></iframe>From oil well plugs to nuclear seals: successful technology transfer through Game ChangersProfessor Bob Eden, Rawwater Engineering Company LtdAging facilities require unique solutions for life extension and repair. Rawwater’s Molten Metal Manipulation (M3) technology for the nuclear industry can seal large openings or fill micron-sized cracks or pores, preventing fluid leakage.Key unique aspects when compared to other repair technology include reversibility, reapplication and zero curing time. M3 alloys are deployed using kinetic spray techniques or by pressure displacement – technology in development and testing.In this talk, Bob explained the journey Rawwater have embarked upon from their oil and gas heritage, through the Game Changers programme, to an ongoing nuclear offering and beyond.Commercialising Game Changers technology: introducing our Innovation ForumDr Stuart Brown, FIS360 LtdA new initiative is being developed to support the scaling and commercialisation of Game Changers technology. The Game Changers Innovation Forum will provide an opportunity to create connections between organisations receiving funding through the Game Changers process, and the rest of the nuclear supply chain.In this talk, Stuart described how the forum will facilitate commercial relationship development between Game Changers project partners and large supply chain companies, Site Licence Companies, other global nuclear operators and with Game Changers alumni. He also highlighted opportunities for involvement.

An introduction to the new Game Changers Innovation Forum and a successful technology transfer journey from the oil and gas sector to nuclear innovation featured in this month's talksRecording available

March Technology Talk webinar

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If you missed this month's Technology Talks you can catch up by watching the recording below.Sarah Bugby from Loughborough University described the Gamma Optical Video Imaging (GOVI) system. Originally developed for nuclear medicine, GOVI combines optical and high spatial resolution gamma imaging to produce a real-time display of the area being scanned. The system can provide the operator with an image showing the location, size, shape and relative activity of gamma emitting materials – with a camera head small enough to be posted through a 6-inch glovebox port. Due to the design of the camera, this can be done in real time without the need for post-processing – this means the camera can operate in video mode, constantly updating the images as the camera is moved. In her talk, Sarah discussed the technology behind the GOVI system, results from initial testing, and recent developments in building a system suitable for an on-site demo for POCO.Habiba Lais from the Brunel Innovation Centre presented an alternative technique to mobilise adhered solids using a non-invasive in-situ ultrasonic cleaning device for pipeline blockage breakdown. Habiba described the novel approach to dislodging blockages by designing an array of externally attached high power ultrasonic transducers to generate acoustic cavitation. To assist with mobilisation of the material, optimisation of the ultrasonic wave propagation has been demonstrated in laboratory investigations across different lengths of blockages.&nbsp;Watch the talks now:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/509412657/"></iframe>

January's talks featured real-time scanning combining optical and high spatial resolution gamma imaging and mobilising adhered solids using a non-invasive in-situ ultrasonic cleaning device. Recording available

January technology talk webinar

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Sellafield Ltd and Dounreay are seeking novel solutions or improvements to existing processes to remove concrete floors and walls from contaminated pondsA recording of a workshop describing this challenge in detail which took place on 8th December 2020 is available via the <a href="https://www.gamechangers.technology/challenge/5fac456bca1252239a1a6c9c" rel="noopener noreferrer" target="_blank">removing contaminated concrete challenge page</a>.

Learn about this exciting Sellafield and Dounreay opportunity to remove contaminated concrete from the walls and floors of pondsRecording available

Interactive workshop - removal of contaminated concrete from ponds

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Sellafield Ltd and Dounreay are seeking innovative vessel and pipework organic residue characterisation techniques.A recording of the interactive workshop which took place on 9th December describing the challenge in more detail is now available to watch via the <a href="https://www.gamechangers.technology/challenge/5fac4315ca1252239a1a6c9b" rel="noopener noreferrer" target="_blank">detecting organics challenge page</a>.

Join us to learn about Sellafield's and Dounreay's challenge to detect organics and pipes and vesselsRecording available

Interactive workshop - detection of organics in pipes and vessels

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NNL are seeking an innovative sampling tool to collect carbonaceous deposits from the cladding of Advanced Gas-cooled Reactor (AGR) fuel pins which are situated in cooling ponds.The sampling tool may work in conjunction with endoscopic equipment currently used by NNL for visual inspections of the fuel pins, or it may be a standalone device.If you missed our webinar or would like to recap, please watch the recording:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/475053980/"></iframe>

Find out about NNL's challenge to develop an innovative in-pond sampling tool

Webinar: fuel pin remote sampling tool

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This webinar describes NNL's challenge to minimise contact dose uptake for operators when handling americium oxide powder in gloveboxes.Watch the recording now:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/475526192/"></iframe>

A webinar describing NNL's quest for innovative and compact solutions to facilitate americium oxide powder handling for the production of space probe batteries

Webinar: manipulating americium in a glovebox

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NNL are seeking alternative safe and efficient cleaning methods that retain the physical and chemical properties of solvents used during nuclear reprocessing, without generating significant additional waste (solid or liquid effluents).If you missed our webinar or would like to recap, please watch the recording:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/475081644/"></iframe>

Opportunity to learn about NNL's search for novel cleaning methods to extend the operational life of solvents and extractants used during nuclear reprocessing

Webinar: reduction of secondary waste

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If you missed this month's Technology Talks you can catch up by watching the recording below.Featuring sessions from Resolve Robotics describing a versatile and modular robotic deployment system for working at height within hazardous environments and a new generation of 3D imaging systems being developed by i3D Robotics.<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/476316056/"></iframe>

A robotic deployment system for working at height within hazardous environments - Andrew Ludar-Smith, Resolve RoboticsA new generation of 3D imaging systems - Nicholas Bantin and Benjamin Crutchley, i3D RoboticsWatch the recording now

October Technology Talk webinar

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If you missed this month's Technology Talks you can catch up by watching the recording below.Featuring sessions from Eadon Consulting describing an innovative approach to waste management and image processing technology being developed by the University of Strathclyde to support enhanced visual inspection of nuclear waste packages.Watch the talks now:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/451268372/"></iframe>

Innovative waste management - James Hill, Eadon ConsultingImage processing for enhanced visual inspection of nuclear waste packages - Paul Murray, University of StrathclydeWatch the recording now

August Technology Talks

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The first in our series of lunchtime Technology Talks featured sessions from Fraunhofer describing the range-resolved remote hydrogen detection technology they are developing with Game Changers and pioneering work being undertaken by Sensor Driven to extend the life of battery powered sensors.Listen to the talks now:<iframe class="ql-video" frameborder="0" allowfullscreen="true" src="https://player.vimeo.com/video/425510659/"></iframe>

Detecting hydrogen at range - David Stothard, Fraunhofer Centre for Applied PhotonicsExtending the life of battery powered Sensors - Bernard Stark, Sensor DrivenRecording available now

June Technology Talks

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Game Changers record breakers awarded feasibility funding to develop potential solutions to Sellafield’s land remediation challenges have fulfilled their innovative promise by going on to achieve funding for Proof of Concept projects.Of the record nine projects green lit in one go by the Game Changers programme in answer to three challenges, seven have successfully won further backing. Again, this is a record number of Proof of Concept awards made in one tranche.Game Changers launched two challenges. The first focussed on characterisation of landfill and disposal areas. The second sought improved use of existing in-ground monitoring infrastructure to better understand groundwater hydrology and subsurface contamination, particularly around Sellafield’s Magnox Swarf Storage Silo (MSSS).KTN launched the third challenge as a KTN-iX competition concentrating on leak mitigation and groundworks near sensitive structures.The seven successful projects awarded Proof of Concept funding in the three challenge categories are as follows:<h3>Characterisation of landfill and disposal areas</h3>Fibre-optic Distributed Temperature Sensing for characterising subsurface fluid flow in landfill and disposal areas, University of BirminghamThis project aims to provide Sellafield with enhanced groundwater monitoring capacity. It will use Fibre-optic Distributed Temperature Sensing (DTS) to examine how water and heat are transported in the subsurface. The project aims to help Sellafield identify potential risk zones, enabling early warning mechanisms to take prompt action against potential groundwater contamination.Pin well monitoring network and associated works, Createc and HydrockUsing technology originally developed for landfill gas control, this project is designed to allow smaller probes to be installed in a borehole monitoring network. The network will be designed to measure and locate existing radiological waste present in landfill. It’s hoped the system will allow data obtained by the probes to be combined with back-end programmes to provide 3D landfill models.Multifunctional system of automatic remote monitoring and mapping of radioactivity, Anamad This project will use an integrated multipurpose drone system called ‘GS-Smart’ fitted with sensitive detectors to analyse environmental radiation levels with very high sensitivity. The sensitivity of the device allows for the detection of individual point sources of radiation in close proximity to each other, which would otherwise be indistinguishable. It’s hoped the increase in data analysis capability will allow even more accurate monitoring of the Sellafield site.<h3>Groundwater Monitoring</h3>Advanced blind-tube apparatus for characterisation of underground sources, Hybrid InstrumentsThe idea at the heart of this project is to use a relatively recently-discovered detector material that is both resilient to high levels of radiation and able to provide spectroscopic information with the potential to provide information on two, key components of contaminated groundwater that can occur near to legacy nuclear facilities.Remote Monitoring of strontium-90 via Compact Anti-neutrino Detectors, University of LiverpoolThe detection of radionuclides, which may be present in the sub-surface including in groundwater, currently requires extensive sampling and laboratory analysis. Researchers from Liverpool hope to make use of anti-neutrino detection technology to provide semi-autonomous monitoring of radionuclides through the ground without the need for direct access or sampling. Such remote working will help to reduce worker risk. The project aims to determine the effectiveness of anti-neutrino detection as a tool in locating underground contamination.Better contaminant flux estimates, Gutteridge, Haskins and Davey Ltd (GHD)In this project, GHD aims to help Sellafield refine future groundwater remediation requirements.&nbsp;The team will re-evaluate existing borehole data to target the installation of innovative water and contaminant passive flux cartridges within existing groundwater monitoring wells at the Sellafield site. It’s hoped flux measurements will calibrate existing groundwater models and enhance environmental monitoring capabilities.&nbsp;GHD expect the outputs to lead to more cost-effective, sustainable and technically robust groundwater remediation.<h3>Leak Mitigation and Groundworks near Sensitive Structures</h3>Impermeable subsurface seal, Resolute Energy SolutionsThe aim of this project is to explore the application of a range of super absorbent, polymer materials at Sellafield. Originally developed for oil and gas applications, the materials are designed to absorb subsurface fluids to rapidly form an impermeable seal . It’s anticipated the polymers could be used to stop and prevent the leakage of radioactive materials into the ground.&nbsp;The impermeable, flexible and self-healing nature of the material reduces the risk of fluids working their way through the seal and forming a new flow path. Key to the solution is the ability to deploy the sealing materials from distance, removing the risk of impact on the integrity of the sensitive storage structure.Sellafield’s Land Contaminated Specialist, John Heneghan, said: ”It’s very pleasing to see so many of our initial selection realising their potential and going on to the Proof of Concept stage in the Game Changers process. We continue to be genuinely impressed by the innovative ideas and the quality of the projects.”It’s expected that all Proof of Concept projects will be completed by autumn 2022.

Game Changers record breakers awarded feasibility funding to develop potential solutions to Sellafield’s land remediation challenges have fulfilled their innovative promise by going on to achieve funding for Proof of Concept projects

Record breakers achieve further funding

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Game Changers’ reputation for excellence in nuclear innovation will play a pivotal part in the establishment and development of the recently announced pilot Advanced Nuclear Skills and Innovation Campus (ANSIC).The Department for Business, Energy and Industrial Strategy (BEIS) announced at the end of July that the new pilot campus will serve as an innovation hub. It will unite industry and academia to collaborate on projects which help develop and commercialise advanced nuclear technologies in support of the long-term target of a zero carbon future.Working with the National Nuclear Laboratory (NNL), Game Changers will help develop the campus at the NNL site near Preston. As well as bringing together experts from industry and academia, the campus will oversee awards of £1million into the UK industrial and academic supply chain through a variety of competitive open calls. Technical and operational support will also be provided by NNL in the delivery of successful bids.Important on-site training and educational opportunities at the campus could help to ensure that the UK has the necessary skills to maintain its position at the forefront of ground-breaking nuclear research and development.Building on the UK’s long-standing nuclear expertise, it is hoped that ANSIC will support the nation’s nuclear sector to develop operational capacity and deliver new technologies to meet the challenges of deep decarbonisation.A key Game Changers’ role in the delivery of the new campus will be the publication of open calls for innovation together with specific challenges relating to advanced nuclear technology. Specific challenges could encompass projects that support nuclear use in a range of applications beyond low-carbon energy generation, including the production of hydrogen and isotopes for medicine.First of the campus open calls for innovation – one for industry and another for academia - will be published by Game Changers at the end of August. These will be followed swiftly by three specific challenges. Projects should be underway in the autumn with completion due by the end of March 2022.Game Changers’ credentials that make them ideal partners in the campus development include their far-reaching networks, work with existing Game Changers’ suppliers and with cross-sector collaborators.&nbsp;“I am absolutely confident we are ideally placed to publicise the opportunities, raise awareness of the campus and find amazing solutions to these exciting challenges designed to help Britain move closer to achieving net zero carbon targets” said Frank Allison, CEO of FIS360, which delivers the Game Changers programme in partnership with NNL.

Game Changers’ reputation for excellence in nuclear innovation will play a pivotal part in the establishment and development of the recently announced pilot Advanced Nuclear Skills and Innovation Campus (ANSIC)

Game Changers’ key role in Advanced Nuclear Skills and Innovation Campus

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An X-ray imaging system designed for harsh environments holds the promise of a solution to a Sellafield challenge and a number of inspection applications across the wider nuclear industry.<a href="https://unitivedesign.co.uk/index.html" rel="noopener noreferrer" target="_blank">Unitive Design and Analysis Ltd</a> were awarded Game Changers Proof of Concept funding to design a next generation X-ray imaging system capable of detecting liquids and solids in pipes and vessels. The company conducted a successful, non-active demonstration at Responsive Non Destructive Testing in Lillyhall, Cumbria.The radiation-hard, portable, high-resolution technology can image inside pipes and vessels in hot cells to determine the presence of sludge and residual liquor. It emits X-rays in a pencil beam, providing both depth and spatial information.This means the state-of-the-art system, which enables inspection without close contact, can determine the amount and nature of the material that is being imaged.&nbsp;It’s also capable of determining the wall thickness of pipes and the size of vessels.The extremely flexible system, which can be attached to anything, optimises detectability. Phil Marsden, MD of Unitive Design, said: “We have developed this and qualified it so you can have complete confidence in the information you get back from the system.”Apart from providing a potential solution to the Sellafield challenge, the technology is expected to have a number of applications in nuclear decommissioning, inspection in the wider nuclear industry and in conventional non-destructive testing scenarios.It’s hoped the successful conclusion of the Proof of Concept project will be followed by further funded development and another non-active trial.

An X-ray imaging system designed for harsh environments holds the promise of a solution to a Sellafield challenge and a number of inspection applications across the wider nuclear industry

Game Changers is an innovation programme which finds solutions for complex nuclear industry challenges.We work with organisations of all sizes, across all sectors, to identify and develop the most promising technologies.

Game Changers is an innovation programme which finds solutions for complex nuclear industry challenges.

We work with organisations of all sizes, across all sectors, to identify and develop the most promising technologies.