Fuel cell drives are a promising technology for replacing combustion engines in commercial vehicles. The main obstacles to widespread use are the currently still high system and stack costs and the short service life of fuel cells. The core objective of the “BiFoilStack” project is the development of customized stack concepts for NT-PEM fuel cells for the target application "commercial vehicles" based on compound bipolar foils from the Fraunhofer UMSICHT calendering process. The thermoplastic bipolar foils with up to 90 percent carbon have high electrical conductivity and low contact resistance, can be adapted to specific requirement profiles and can also be welded with similar material counterparts. This opens up completely new design possibilities and thus approaches for innovative stack concepts. 📌 Details of the project can be found at https://s.fhg.de/57S. The photo shows the novel stack concept with partially welded components. The project "BiFoilStack – Development of stack designs for NT-PEM fuel cells with novel compound bipolar foils" is funded as part of the "Hydrogen Technology Initiative" within the 7th Energy Research Program of the Federal Ministry for Economic Affairs and Climate Action (Hydrogen – Topic 3: Utilization). #GreenHydrogen #hydrogen #fuelcell #electrolysis
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💡 Here's another example of product innovation powered by Onshape, a PTC Technology at one of the worldwide leaders in the field of #turbochargers for the #automotive industry. 🚗
Discover Garrett's Hydrogen Fuel Cell Compressor's unique characteristics: high speed (>150K rpm) for compact design, flexible configuration with optional turbine expander, unmatched durability with >1M start-stop cycles and 25,000+ hours life, and cost efficiency with ~1/3 component cost reduction. Learn more: https://bit.ly/4e8CAmu #hydrogen #fuelcell
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Thermal modelling is an essential part of developing clean combustion engines using hydrogen, ammonia or ethanol fuels. 🔥 The 2024.1 release of the thermal analysis tool, #FEARCE-Vulcan has extended flexibility and accuracy when tuning in-cylinder temperatures for hydrogen combustion with a range of Heat Transfer Coefficient (HTC) models available. The new functionality extends simulation for more engine applications and operating conditions, with accurate hydrogen combustion temperature modelling especially for low engine speeds. Find out more here : https://lnkd.in/d99FXhRK #thermalmodelling #FE #finiteelementanalysis #hydrogen #cleancombustion #ethanol #ammonia #simulationsoftware
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In our latest blog post, find out how CFD can help you overcome the challenges of designing safe and reliable hydrogen storage technology. We highlight a case study in which we used CONVERGE to study the filling process of a hydrogen storage tank, validating our results against data from the HyTransfer project. With CONVERGE’s autonomous meshing and conjugate heat transfer modeling, we’re able to accurately capture the hydrogen jet dynamics and the temperature profiles within the tank. Read more on our blog! https://lnkd.in/grWH7GVh #hydrogen #hydrogenstorage #greenhydrogen #hydrogenenergy
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Are the current solid state offerings worthy of the promise? How does the World changing around us affect the Solid Sate battery proposition? How, when, why will they win versus lithium ion liquid? I look forward to exploring these questions and more at this years SSB conference. See you there! #battery #solidstate #EV #energystorage #ARPA #cleanenergy #highenergy
Solid-State Batteries: A Springboard to a Carbon-Free Future with Dr. Halle Cheeseman from ARPA-E. Solid-state batteries are getting close to serious consideration for automotive applications, but for the most part the cathode chemistries to be utilized will be those that have been well proven in lithium-ion. High energy cathodes coupled with lithium anodes are the ultimate destiny for solid-state technologies, because they will deliver energy densities that exceed 500 Wh/Kg and may even attain 1,000 Wh/Kg. In this presentation these chemistries will be explored, and both the challenges and opportunities discussed. Selected technologies will be shown as examples from the ARPA-E EVs4ALL and PROPEL-1K portfolios. https://lnkd.in/davw7MK #CET4SolidState
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It’s not always about electric vehicles! Hydrogen use as fuel within an engine has been one of our success stories. Find out more by following our story below 👇 #mahle #hydrogennow #hydrogenfuel #hydrogeninnovation
The use of hydrogen as an IC engine fuel is now accepted across many sectors as a realistic solution for the decarbonisation of applications that remain very difficult to electrify. The key challenge is to achieve and maintain combustion stability while operating close to the capability limit of conventional spark ignition systems. Our Engineering Director, Dr Mike Bassett, will be addressing this topic in the first session of the Future Propulsion Conference on Feb 28th and presenting the latest results from our research activities in this area. Follow the links for more details and to register. https://lnkd.in/euDNpe_A https://lnkd.in/gTfrsSpe [email protected] #hydrogen #combustion #zerocarbon #mji #icengine #fpc2024 #engineeringconsultants
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Busch has made a decisive contribution to the efficient use of the fuel cell technology by launching the first TÜV-certified hydrogen recirculation blower: the MINK MH 0018 A series. 🙌 It has been specially developed for the reliable recirculation of hydrogen in fuel cells. Fuel cells generate electric current through an electrochemical process, which means they don’t burn fuel like traditional combustion engines, and do not produce any harmful emissions. Hydrogen and oxygen combine to produce electricity, with water and heat as by-products. This technology can be used to drive the motor in electric vehicles, to provide backup power in critical infrastructures, or to supply electricity to large ships. Learn more about the fuel cell technology and get to know our MINK MH 0018 A: https://lnkd.in/e-9HnFPn #buschvacuumsolutions #buschtechnology #hydrogenfuelcells #minkmh
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Our paper “Investigation of the mechanism behind the surge in nitrogen dioxide emissions in engines transitioning from pure diesel operation to methanol/diesel dual-fuel operation” has been accepted by the journal Fuel Processing Technology (Impact Factor 7.2), and is scheduled to be published in Nov 2024. The accepted version is now available online at https://lnkd.in/eYiG4nh4
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Solid-State Batteries: A Springboard to a Carbon-Free Future with Dr. Halle Cheeseman from ARPA-E. Solid-state batteries are getting close to serious consideration for automotive applications, but for the most part the cathode chemistries to be utilized will be those that have been well proven in lithium-ion. High energy cathodes coupled with lithium anodes are the ultimate destiny for solid-state technologies, because they will deliver energy densities that exceed 500 Wh/Kg and may even attain 1,000 Wh/Kg. In this presentation these chemistries will be explored, and both the challenges and opportunities discussed. Selected technologies will be shown as examples from the ARPA-E EVs4ALL and PROPEL-1K portfolios. https://lnkd.in/davw7MK #CET4SolidState
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Want to learn how thermal interface materials can improve performance and maintain the stability of EV batteries? October webinar with Sandrine Teixeira de Carvalho, Stammer Chemie GmbH, will address and explore the important role of Thermal Interface Materials (TIM) in performance and safety of #battery packs for #EV applications and the effect of different fillers and various properties that determine the choice for an ideal interface material in batteries. Learn more/register: https://lnkd.in/e66sG33s #electricvehicles
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Tuning Energy Transfer Pathways in Halide Perovskite–Dye Hybrids through Bandgap Engineering with Akshaya Chemmangat, Jishnudas Chakkamalayath, Jeffrey DuBose J. Am. Chem. Soc. 2024 https://lnkd.in/g5h3YRAx Through simple halide exchange, one can precisely tune the ratio of singlet to triplet energy transfer and the mechanism between Förster or Dexter energy transfer, and through careful selection of the pendant groups on the acceptor dye, the energy transfer efficiency, rate constant of energy transfer, and strength of donor–acceptor binding can all be readily modulated more than an order of magnitude. This unprecedented degree of excited-state engineering is something unique to halide perovskites, owing to the facile nature of the halide exchange reaction which can tune the exciton energy over ∼1.3 eV, without changing the size of the nanocrystals.
Tuning Energy Transfer Pathways in Halide Perovskite–Dye Hybrids through Bandgap Engineering
pubs.acs.org
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