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Toulouse, France
1-10 Employees
2019
HYCCO secured 1.7 M€ Pre-Seed funding to develop the prototype production line. First in-situ testing of HYCCO component into a HT-PEM single cell. Chemical stability of HYCCO components in LT-PEMFC is demonstrated. HYCCO has developed an ultra-thin, chemically resistant, flexible, and electrically conductive carbon fiber material. HYCCO’s goal is to mass manufacture its technology so decarbonisation of critical markets can happen fast. HYCCO technology is in capacity to offer cost-competitive solutions to massively decarbonate various applications, like heavy mobility (shipping, railway, aeronautics, trucks, and buses). HYCCO invests in social responsibility and environmental stewardship. We are committed to a sustainable future therefore we believe we have a great responsibility in this matter and that is why we are ready to take full action in this matter.
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Featured
THE NEW GENERATION OF BIPOLAR PLATES
... We develop ultra-light, durable and compact carbon fiber bipolar plates. ...
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Featured
Home - CellForm | FORMING FUTURE EFFICIENCY
... Our experience manifests in a history of welding bipolar plates which goes back to 1994. ...
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precors – next fuel cell generation
... the challenges of metallic bipolar plates ...
Stuttgart, Germany
1-10 Employees
2021
Hyfindr.com is the rapidly growing digital B2B marketplace for reliable products and services in the hydrogen economy. We are on a mission to bring transparency to this economy. We are driven to disclose all great products and services that are existing to further scale-up the global hydrogen and fuel cell industry. We are engineers building a product for engineers! We are generating sales leads for you while you sleep. Cell Pack V2 ultracapacitors offer flexible configuration opportunities. Modular connectors for combining different transmission media to one unit. Spyglass SG50-F-IR3-H flame detectors offer the fastest detection of fires and explosions.
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Bipolar Plate Design
... We analyse your bipolar plate design regarding manufacturability and work with you to develop modifications so that your plate can be successfully manufactured – also with regard to the necessary features for an economic series production. You do not have a design yet? We would be pleased to ...
Maumee, United States
10001+ Employees
1904
A global, publicly-traded company, Dana is frequently in the news. Over the years, our products have helped drive history’s greatest vehicles—from the Model T and the World War II-era Jeep, to one of the first mass-produced battery-electric vehicles. Our products are found in 18-wheel rigs, giant earth-moving machines, and some of the fastest high-performance sports cars on the market. Dana conducts experiments of driveline concepts for electrical vehicles, decades before the production of hybrid and electric cars. Attorney Charles Dana purchases a controlling interest in Spicer Manufacturing Company. At its 50th anniversary, Dana employs 3,500 people. Charles Dana retires as Chairman and CEO after 53 years of continuous service. Charles Dana is inducted into the Automotive Hall of Fame.
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Metallic Bipolar Plates
... Metallic Bipolar Plates ...
San Jose, United States
11-50 Employees
1967
We provide clients in aerospace, medical, defense, and space flight with precision parts specifically designed for mission critical applications. To ensure your project is successful, we provide industry-best knowledge in each of our core disciplines: precision metal etching, ceramic-to-metal or metal-to-metal brazing, or the metallization of parts for critical assemblies. We’re never afraid to dive into applications and we specialize in creating custom solutions, working closely with you from concept through delivery to achieve high-quality and cost-competitive results. For over 50 years, Elcon Precision has manufactured the highest-quality precision components and assemblies in the industry. Through our industry-leading photochemical machining process led by our collaborative team of in-house experts, we are able to produce finer geometries with greater precision by tightly controlling every aspect of the process. Whether in fully custom prototyping or high-volume production, we employ team-wide expertise in each of our core disciplines to provide precision parts that are built to succeed. In addition to collaborating on outside-the-box applications, we also specialize in the manufacture of key precision products, all designed and built for critical applications.
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Custom Bipolar Plates
... Custom Bipolar Plates - Elcon Precision ...
Villeurbanne, France
11-50 Employees
1992
We develop simple solutions to meet their increasingly complex technical needs. DAM Group est régulièrement à la recherche de talents afin de compléter son équipe d’experts ! Our mastery of innovative technologies enables us to provide a comprehensive response to our customers’ issues. As a result of our R&D, we offer our customers easily usable solutions aimed at productivity gains and maintenance optimisation. Each person is indispensable to the project and it is the cohesion and dynamic energy of the group which carry us, together, towards this intense feeling of pride that is experienced when we deliver the final project. DAM Group is regularly looking for talent to complete its team of experts!
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DG 10 011 0 - Leak test bench for bipolar plates PEM & SOFC
... DG 10 020 1 – Leak test platform for fuel cell bipolar plates and ...
Halle (Saale), Germany
1984
Our development and manufacturing of advanced stainless steels and special alloys is world-leading. It’s what we’ve been doing for over 160 years, and it’s still our reason to exist. Fueled by our desire to care, deliver and evolve, we benefit our customers, our people, and the future we share. And it’s how we relentlessly push products and processes to be more efficient, more profitable, and more sustainable. We are a leading manufacturer of high value-added products in advanced stainless steels and special alloys, as well as products for industrial heating.
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The faster way from raw material to bipolar plate
... With a coated steel strip ready to be pressed into bipolar plates for fuel cells, the Alleima smarter coatings concept drastically shortens the production process. By removing the need and cost of coating individual plates, your entire value chain is transformed overnight. ...
Vienna, Austria
1-10 Employees
2021
We are developing customized coating solutions for eco-friendly technologies and manufacturing processes. Plasmateria GmbH is an Austrian Startup focusing on the development of novel plasma sources and coating technologies. Plasmateria's surface solutions target the requirements of future markets like E-mobility, fuel cells, microelectronics, hard-chrome replacement and machining of difficult-to-cut materials. The technology Plasmateria utilizes is based on Physical Vapor Deposition (PVD) but at the same time can combine elements of other thin film deposition methods. For the future, Plasmateria strives to bring their developed solutions to industrial coating equipment. Our target is the industrialization of a new generation of plasma sources to realize new coating materials and to achieve excellent coating performance in resource-conserving processes. Coating solutions are a crucial design element in modern engineering and manufacturing. We believe that innovative coating solutions are a key technology to reach environmental goals and by extending the lifetime of components to conserve resources.
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Innovative Coating Solutions | Plasmateria GmbH | Austria
... Plasmateria GmbH is an Austrian coating and surface solution Startup focusing on coatings for internal surfaces, for bipolar plates, for wafer fabrication and smooth ta-C. ...
Lyss, Switzerland
1001-5000 Employees
1959
We manufacture essential components for wind and hydropower projects and help you reach your design goals. We deliver cost-effective and ready-to-install components based on our core competencies fineblanking, electrolamination stamping, and forming. We provide intensive project support from first contact right till the start of production. All the Feintool plants comply with quality standards ISO 9001, ISO TS 16949 and ISO 14001. Contribute to our mission of “Expanding Horizons” and take your career to new heights with us: together, we will strengthen our position as the innovative global leader in fine metal processing. We are convinced that Feintool will become your first choice as an employer, and that you will be proud to be part of our team. As the global leader in fineblanking, forming, and electrolamination stamping, we are shaping tomorrow’s technology today at 17 locations worldwide. As an innovator in the production of highly complex components and systems, furthering the progress of our technologies is key – from high-performance fineblanking systems including tools and manufacturing processes to the optimisation of entire process chains.
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Featured
Feinforming Bipolar Plates - Feintool
... The bipolar plate is the heart of the fuel cell. ...
Technologies which have been searched by others and may be interesting for you:
Some interesting numbers and facts about the results you have just received for Bipolar Plate
| Country with most fitting companies | Germany |
| Amount of fitting manufacturers | 25 |
| Amount of suitable service providers | 21 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 1904 |
| Youngest suiting company | 2021 |
A bipolar plate is a multifunctional component crucial in the architecture of fuel cells and electrolyzers, serving both as an anode for one cell and a cathode for the adjacent one in a stack. Constructed from materials such as graphite, composites, or metal alloys, these plates are engineered to fulfill several vital roles. Primarily, they facilitate the distribution of reactant gases across the surface of the membrane electrode assembly (MEA), ensuring an even and efficient reaction process. Additionally, bipolar plates are designed to conduct electricity between cells, contributing to the overall electrical output of the stack. Their structure also aids in heat management, drawing excess heat away from the active cell areas to maintain optimal operating temperatures. Furthermore, the plates incorporate channels that manage the removal of water produced during the electrochemical process, preventing flooding and ensuring consistent performance. The integration of bipolar plates significantly impacts the efficiency, durability, and cost-effectiveness of fuel cell systems, making them a pivotal component in advancing green energy technologies. Their design and material composition continue to be areas of active research, aiming to enhance the performance and reduce the costs associated with renewable energy production.
1. Enhanced Durability
Bipolar plates are renowned for their exceptional durability compared to other fuel cell components. They are typically made from materials like graphite or metal alloys, which are resistant to corrosion and can withstand high temperatures and pressures. This resilience translates to a longer lifespan for the fuel cell, reducing the need for frequent replacements and maintenance.
2. Improved Efficiency
The design of bipolar plates allows for superior distribution of gases across the fuel cell, enhancing the overall efficiency of the system. Their thin structure and the channels etched into their surface ensure an even flow of hydrogen and oxygen, maximizing the contact area with the electrolyte. This efficient gas distribution helps achieve a higher power output from the fuel cell.
3. Cost-Effectiveness
Despite their advanced functionality, bipolar plates are cost-effective components of fuel cells. Their manufacturing process, especially when using certain metals, can be highly scalable and less expensive than producing other fuel cell components. This affordability makes fuel cells a more viable option for a wide range of applications, from automotive to stationary power generation, promoting the adoption of clean energy technologies.
4. Compact Design
The sleek and compact design of bipolar plates contributes to the overall reduction in the size and weight of fuel cells. This is particularly beneficial in applications where space and weight are critical factors, such as in electric vehicles. By minimizing the footprint of the fuel cell stack, manufacturers can free up space for other essential components or increase the energy density of the system.
While evaluating the different suppliers make sure to check the following criteria:
1. Material Quality
Ensure the bipolar plates are made from high-grade materials suitable for your specific application, offering durability and efficient performance.
2. Manufacturing Precision
Look for suppliers that utilize advanced manufacturing techniques to ensure the plates meet exact specifications for thickness, porosity, and surface finish.
3. Compatibility
The plates should be compatible with the type of fuel cell you are using, whether it's PEMFC, SOFC, or another type, to ensure optimal functionality.
4. Cost-Effectiveness
Consider both the upfront cost and the long-term operational costs. A supplier offering a slightly higher initial cost might provide plates that last longer or perform better, reducing overall expenses.
5. Supply Chain Reliability
Choose suppliers with a proven track record of timely deliveries and the ability to maintain consistent quality over time.
6. Customization Capability
If your application requires custom specifications, ensure the supplier has the capability to design and produce bipolar plates that meet your unique needs.
7. Technical Support
A supplier that offers robust technical support can be invaluable in troubleshooting issues and optimizing the performance of your fuel cell system.
Bipolar plates are integral components in the fuel cell industry, where they serve as critical elements in the stack assembly of proton exchange membrane (PEM) fuel cells. These plates facilitate the distribution of gases across the cell surface, ensuring efficient energy conversion from chemical to electrical energy. This application is paramount for sectors like automotive and stationary power generation, where reliability and efficiency are key. In the realm of electrolyzers, used for water splitting to produce hydrogen and oxygen, bipolar plates play a pivotal role. They not only conduct electricity but also separate the different gas streams, contributing to the overall efficiency and safety of hydrogen production processes. This is particularly significant for industries focused on green energy solutions and hydrogen economy. The aerospace industry leverages the lightweight and high conductivity properties of advanced materials used in bipolar plates. These attributes are crucial for developing more efficient and lighter fuel cell systems for various aerospace applications, including unmanned aerial vehicles (UAVs) and auxiliary power units for commercial aircraft. The adoption of such technology promises enhanced performance and sustainability in aviation. Each of these use cases underscores the versatility and importance of bipolar plates across different sectors, highlighting their role in advancing clean energy technologies and sustainable industrial practices.
Bipolar plates, critical components in fuel cell and electrolyzer technologies, are presently at varying Technology Readiness Levels (TRLs) depending on the material and design, with most advanced iterations situated around TRL 6 to TRL 7. This classification stems from successful demonstration in relevant environments, particularly in prototype systems that closely mimic operational conditions. The reason for this specific TRL positioning lies in the technical challenges and advancements associated with these components. For instance, materials like graphite and metal composites have been extensively researched for durability, conductivity, and corrosion resistance, leading to innovations that enhance performance and longevity in operational settings. However, the transition from laboratory success to full commercial application, which would signify a higher TRL, is impeded by factors such as the high cost of materials, manufacturing complexities, and the need for further validation under extended operational cycles. Additionally, the quest for thinner, lighter plates without compromising on conductivity or durability adds another layer of technical difficulty, necessitating ongoing research and development. These technical hurdles are pivotal in determining the current TRL of bipolar plates, reflecting a stage where the technology has proven effective in simulated or controlled environments but yet to achieve widespread commercialization.
In the Short-Term, advancements in bipolar plate technology are expected to focus on improving material efficiency and reducing costs. Manufacturers are experimenting with lightweight, cost-effective materials like composite carbon to replace traditional, expensive metals. This evolution aims to enhance the performance and affordability of fuel cells and batteries, paving the way for broader adoption in various industries, including automotive and renewable energy sectors. The Mid-Term phase is likely to witness significant strides in the integration of innovative manufacturing techniques such as additive manufacturing (3D printing). These methods promise to revolutionize the production of bipolar plates by allowing for more complex designs and the incorporation of multifunctional features. This would improve the durability and efficiency of fuel cells, contributing to higher energy outputs and longer life spans, thereby supporting the transition to cleaner energy solutions. In the Long-Term, the focus will shift towards the development of next-generation materials and designs that could enable the ultra-efficient, miniaturized production of bipolar plates. Breakthroughs in nanotechnology and material science are expected to lead to the creation of superconductive materials that dramatically reduce energy losses. Additionally, the exploration of bio-inspired designs could offer unprecedented efficiency improvements, further solidifying the role of bipolar plates in the future of energy technology.
