Compressed Hydrogen Tank Applications across Transportation: History
View Latest Version
Please note this is an old version of this entry, which may differ significantly from the current revision.
Subjects: Energy & Fuels
Contributor:
Mariana Pimenta Alves
,
Waseem Gul
,
Carlos Alberto Cimini Junior
,
Sung Kyu Ha

The transportation sector faces a new paradigm to address the threat of climate change and environmental pollution. The application of hydrogen fuel cells in transportation offers a great possibility to decarbonize an activity sector, which alone is responsible for the largest share of greenhouse gas emissions. This is particularly attractive to sectors with limited low-carbon fuel options, such as aviation and maritime sectors.

  • hydrogen
  • storage
  • transportation

1. Light-Duty Vehicles

Transport by road, which includes automobiles, buses and trucks, accounts for three-quarters of the greenhouse gas emissions attributed to the transportation sector[1]. Today, hydrogen fuel-cell light-duty vehicles are in the early stages of commercialization, with the launching of several models developed by different automakers across the world in order to replace internal combustion engine models. Nonetheless, the selling cost of these vehicles is not yet competitive, and infrastructure issues such as the lack of a diffuse hydrogen refueling station network act as constraints for widespread FC vehicle commercialization[2].
Toyota, Hyundai and Honda are the leading manufacturers of passenger FC vehicles[3], and Table 1 compares various technical specifications of their best-seller models. All of them employ tanks composed of composite materials (type IV classification, as illustrated in Figure 1), which have shown the proven ability to answer to technological issues raised by on-board compressed hydrogen storage, and are currently the industry’s choice when taking into consideration the degree of maturity of the technology, its weight efficiency and its costs[4][5][6][7]. This configuration is composed of a thin polymer liner fully overwrapped with fiber wound layers. The state-of-the-art on-board hydrogen storage technology operates at high pressures, with compressed hydrogen gas typically stored at 35 or 70 MPa[8].
Table 1. Comparison of specifications for the three best-seller models of FC vehicles[9].
Description Hyundai 2019 Nexo Toyota 2018 Mirai FCV Honda 2017 Clarity FCV
Photos Energies 15 05152 i001 Energies 15 05152 i002 Energies 15 05152 i003
Driving distance after one charge (m) 370 312 366
Hydrogen tank mass (kg) 6.33 5.00 5.46
Motor (kW/lb.ft) 113 kW/291 lb.ft 120 kW/247 lb.ft 100 kW/256 lb.ft
Maximum output (hp) 163 154 174
Maximum torque (km·m) 40.3 34.2 30.6
Energies 15 05152 g001 550
Figure 1. (a) Schematic cross-section of a hydrogen tank for Hyundai Nexo[10]; (b) Photograph of a sectioned Hyundai Nexo hydrogen tank[11].

2. Heavy-Duty Vehicles

The heavy-duty market also shows considerable potential for hydrogen fuel cell adoption, even though it presents different operating conditions and driving cycles. These vehicles present higher power output needs as well as requirements of improved durability and fuel efficiency[12]. While light-duty passenger vehicles used for typical short low-speed journeys could be managed with electric batteries and range-extender devices, long-haul heavy vehicles such as trucks and buses call for a higher utilization and are likely to require hydrogen[13].
With the scheduled banning of diesel trucks by many major city centers[14], several vehicle suppliers, such as MAN, Scania, VDL and Hyundai, have developed hydrogen FC trucks[15]. The design space assessment of hydrogen onboard storage for fuel cell electric trucks demonstrated the feasibility of employing type IV tanks to meet the range demands of various market sectors, while exploring different operating pressures and vehicle packages[16].
Fuel cell buses have likewise attracted great attention and become a public demonstration tool and R&D source of data for full-scale validation [17][18], especially due to the implementation of several government actions and funding projects. This includes the European CUTE (Clean Urban Transport for Europe) bus program [19], US National Fuel Cell Bus Program[20], Korean hydrogen economy roadmap[21], among others. On-board tanks are typically stored in the bus’s roof and a higher space availability allows for storage at 35 MPa, reducing tank and compression costs[13]. Table 2 depicts the technical specifications of FC buses developed by different key manufacturers.
Table 2. Overview of major characteristics of FC buses currently used in European cities[22].
Bus Type Van Hool Bus Evobus Solaris Wright Bus
Standard Standard Articulated With Supercapacitors
Bus length (m) 12/13 12/13 18.75 12
Fuel cell system (kW) 150 120 100 75
Battery system (kW) 100 250 120 -
Supercapacitor system (kW) - - - 240
Hydrogen storage system 7 tanks, 35 MPa 9 tanks, 35 MPa 9 tanks, 35 MPa 4 tanks, 35 MPa
Full tank capacity (kg) 35 35 45 33
The Belgium company Van Hool has established itself as the market leader with the A330 model, with buses in operation in both Europe and the US[23]. Toyota, in cooperation with Hino Motors, developed the Sora, introducing more than 100 buses in the Japanese public transport fleet ahead of the 2021 Tokyo Olympic and Paralympic games[24]. In South Korea, Hyundai has been commercializing the Elec City Fuel cell since 2019, with more than 100 units put into operation and in-service trials having been conducted by different European bus operators[25]. Wrightbus has developed the world’s first double-decker FC bus in England[26]. VDL Bus & Coach delivered FCs in 2011 as part of its demonstration activities, and, since 2020, deployed vehicles in the Netherlands, adding a trailer to battery buses, housing the fuel technology for range extension[27].

3. Tube Trailers

High-pressure tube trailers are a vital part of hydrogen transportation logistics. With the rollout of hydrogen fuel cell electric vehicles, a wide availability of refueling stations becomes a key issue for an efficient operation. Today, the available infrastructure of pipelines is very limited, mainly focused on large industrial users, such as petroleum refineries and fertilizer plants[28]. The utilization of tube trailers allows for a more economical delivery mode for lower-demand customers and refueling stations at reasonable distances from production sites (less than 100 miles). This strategy has played a major role in enabling an early and widespread deployment of hydrogen refueling stations once it required a lower initial capital investment, granting an optimization of costs associated with gaseous compression and storage [29][30].
Typical tube trailers utilize long pressure vessels bundled together into packs of between 6 and 15, and their outlets are manifolded together [31]. These pressure vessels can be composed of steel or composites. Steel-made tube trailers (using type I tanks) are a more common configuration, although on-road weight restrictions limiting their capacity may be applied. Their maximum hydrogen payload is approximately 250 kg per trailer. On the other hand, tube trailers using composite pressure vessels provide a higher strength and lower weight solution, albeit at a higher cost. Both type III and type IV configurations have been employed, and they can deliver more than a 1000 kg payload[29].
On a global basis, there are several key industrial players involved in the delivery of gaseous hydrogen by tube trailers. Air Products and Chemical Inc. is probably the leading company, having joined programs to develop and validate composite tube trailers in association with the US Department of Transport (DOT), as well as with the Hydrogen Transport in European Cities (HyTEC) project[32][33][34]. It operates an ever-growing tube trailer fleet, delivering large volumes of hydrogen at high pressure. ILJIN HYSOLUS, the executive supplier of hydrogen tanks for the Hyundai Nexo, has received global accreditation for its type IV hydrogen tube trailers[35][36]. The Kawasaki Group has developed Japan’s first hydrogen tube trailer with type III composite cylinders, backed by its national research and development agency NEDO. Its hydrogen tube trailer operates at a pressure of 45 MPa[37][38].

4. Fuel Station

The development of a reliable fueling infrastructure is a cornerstone for the use of hydrogen energy in transportation. Compression, storage and dispensing are key stages of the gaseous hydrogen refueling process, with direct implications to the final fuel cost paid by customers. In hydrogen refueling stations, the storage system not only locally stores the compressed gas, addressing the mismatch between fuel supply and demand during daily operations, but also plays a role in accelerating the filling process and avoiding frequent starts/stops of the compressor[39][40].
There are different possible approaches to a hydrogen station design, and the storage system, in particular, may assume two types, namely, buffer and cascade storage[41]. Both usually employ several banks of pressure vessels, although single-tank configurations can also be found. In buffer storage, all fuel reservoir cylinders are connected together and maintained at the same pressure at all times. In cascade storage, the gas is usually divided between three reservoirs under low-, medium- and high-pressure levels, and during the filling of the vehicles, the on-board tank is alternately connected to different reservoirs in an ascending order of pressures. Cascade storage systems have showed a lower energy consumption in high-pressure refueling scenarios, whilst buffer storage may present shorter refueling times[40][42].
Storage tanks are core elements of hydrogen refueling stations. Considering dispensing for light-duty vehicles operating at 70 MPa, high-pressure storage in a cascade system may be typically performed at 90–100 MPa, thus, ensuring the charging pressure difference needed for a short refueling time. Type II (usually steel-reinforced with carbon fibers) or type IV tanks are frequent configurations of choice for storage at such elevated working pressures once type I tanks become an uneconomical and heavy option and type III may be prone to fatigue due to the large number of fueling cycles[39][43]. Low- (approximately 20 MPa) and medium-pressure storage (approximately 40 MPa) may employ type I steel tanks.

5. Railway

Conventional locomotives employing diesel-based propulsion systems have been the basis of the rail transportation of industrialized countries, whether for the transport of commodities or passengers. Fuel-cell-powered locomotives, however, have been considered promising environmentally friendly options for achieving a fast and consistent decarbonization. FC trains and trams are expected to perform particularly well for long-range and high-power demand scenarios, and can present lower infrastructure costs in comparison with catenary electric and hybrid diesel–electric configurations[44][45].
The first functional hydrogen-fueled locomotive was a 3.6 ton/17 kW underground mining vehicle demonstrated in Val-d’Or, Quebec, in 2002. Using 3 kg of metal hydride storage, it was developed as part of a joint project by the governments of the US and Canada, together with a private company later called Vehicle Projects LLC [46]. As initial key development milestones, in 2006/2008, the East Japan Railway Company trialed a hybrid passenger car on an actual service line (one railcar, 130 kW FC system/19 kWh battery, gaseous hydrogen stored at 35 MPa[47]); in 2006, the Railway Technical Research Institute, also in Japan, implemented running tests of its FC railcars, manufactured by US/Italian-based Nuvera Fuel Cells (two railcars, 120 kW FC system, 36 kWh battery/18kg of gaseous H2 stored at 35 MPa)[48]. A North American partnership funded by the BNSF Railway Company and the US Department of Defense rolled out a prototype fuel cell battery hybrid switch locomotive for urban rail applications (130 ton, 240 kW FC system/maximum power of 1.2 MW, 70 kg of H2 at 35 MPa)[48].
Most recently, Alston pioneered sustainable mobility solutions by presenting the world’s first passenger train powered by a hydrogen fuel cell, the Coradia iLint. In 2018, the two-car model entered into commercial service in Germany and, since then, the iLint has run successful test runs in Austria, the Netherlands and Sweden[49]. JR-East announced in 2019 that it was developing a two-car train using the hydrogen FC technology from Toyota, with trials expected by 2021 and commercialization by 2024[50]. Siemens is developing Mireo, a fuel cell variant planned in cooperation with Ballard. Ballard plans to supply two 200 kW fuel cell modules to be installed in a two-car passenger train for a trial operation in Bavaria[51]. Stadler is producing the first US hydrogen-powered train that is expected to enter service in 2024 in San Bernardino County, California[52]. TIG/m is currently supplying the world’s first municipal trams to use hydrogen fuel cell technology for propulsion to the governments of Dubai and Aruba. Three hybrid battery/fuel cell vehicles have been delivered since 2012[53]. Hyundai Rotem has announced its entry into the hydrogen train market with the current development of Korea’s first hydrogen-powered light rail vehicle for the urban rail network in the city of Ulsam[54].
Current projects of hydrogen-powered passenger trains employ different solutions for the on-board storage systems. Compressed gaseous hydrogen systems are the most common, with working pressure values ranging from 30 to 70 MPa. Market availability and the successful application of heavy-duty vehicles with lower costs makes the 35 MPa system the most frequent configuration employed in railways, achieving ranges of approximately 1000 km[55]. For instance, Alstom’s Coradia iLint uses twenty-four roof-mounted 35 MPa type IV cylinders fabricated by Xperion[56]. Stadler’s project will have 35 MPa type IV tanks provided by Hexagon[56]. Thirty-six Luxer type III hydrogen tanks have been used in the HydroFLEX project, the UK’s first full-sized hydrogen powered demonstrator train[57]. The JR-East and Toyota partnership intends to utilize 70 MPa type IV tanks[50].

6. Maritime

Advanced hydrogen mobility has also started its penetration into the maritime sector with the development of several demonstration programs. A wide variety of maritime fuel cell projects has been tested across Europe in the last 20 years. These projects have approached the applicability of fuel cell technology to maritime transportation from different research perspectives, including feasibility investigations, design concept development and prototype demonstrations (Table 3).
Table 3. Noticeable demonstration ship projects of marine fuel cell systems using H2 as fuel since 2000 (adapted from [58]).
Start Date Project Concept Main Partners FC Capacity
2006 ZemShip—Alsterwasser Fuel cell system developed and tested onboard of a small passenger ship in the area of Alster in Hamburg Proton Motors, GL, Alster Touristik GmbH, Linde Group, etc. 96 kW
2007 Cobalt 233 Zet Sports boat employing hybrid propulsion system using batteries for peak power Zebotec, Brunnert-Grimm 50 kW
2010 MF Vägen Small passenger ship in the harbor of Bergen CMR Prototech, ARENA-Project 12 kW
2012 Nemo H2 Small passenger ship in the canals of Amsterdam Rederij Lovers, etc. 60 kW
2012 Hornblower Hybrid Hybrid ferry with diesel generator, batteries, PV and fuel cell Hornblower 32 kW
2012 Hydrogenesis Small passenger ship which operates in Bristol, UK Bristol Boat Trips, etc. 12 kW
2015 SF—BREEZE High-speed liquid hydrogen fuel cell passenger ferry and hydrogen refueling station in the San Francisco Bay area Sandia National Lab, Red and White Fleet 120 kW per module. Total power 2.5 MW
2021 RiverCell—ELEKTRA Fully electric hybrid energy system for a towboat that operates on inland waterways TU Berlin, BEHALA, DNVGL, etc. 3 × 100 kW
Among the challenges posed by the maritime sector are the harsh working environment and limitations related to onboard energy storage space that ultimately affect the payload[59]. The applicable power range demands for maritime vehicles may be situated from a few kW to several MW, so the employment of hydrogen, a low volumetric energy density fuel, may not be ideal for long-distance travels, being viable for inland and short-sea shipping instead[60].
Hydrogen FC for underwater applications has also gathered attention for commercial and military purposes[3][61]. Fuel cell systems for undersea vehicles must store not only hydrogen as fuel, but also oxygen so that they can be catalytically combined to produce water, heat and useful electricity[62]. HELION, an AREWA renewable subsidiary, tested its fuel cell technology for the propulsion of the Idefx, an autonomous undersea vehicle operated by the French marine science research institute Ifremer. It carried 100 L of H2 at 30 MPa and 50 L of O2 at 25 MPa[63]. The US Navy has an ongoing project in partnership with General Motor to adapt its hydrogen fuel cell technology to an autonomous robotic submarine[64]. A British start-up, Oceanways, is currently developing a hydrogen-fueled autonomous cargo submarine to collect microplastics from the oceans, an effort towards clean-shipping research[65]. Type 212 is a new generation of German submarine intended to be used as a reconnaissance boat and ship hunter that uses hydrogen fuel cells for its air-independent propulsion system. It features a nearly silently submerged cruise that could last for three weeks, and it is virtually undetectable. Hydrogen fuel is stored in between the outer and inner pressure hulls[66].

7. Aviation

The global civil aviation industry has establish a long-term climate commitment to reaching net zero carbon emissions by 2050, and sustainable aviation fuels such as hydrogen play a major role in its energetic transition strategy, once batteries remain far too heavy for aviation purposes[67]. The forecasted applications of hydrogen in aviation can be categorized into two main directions: the first involves the combustion of hydrogen as a replacement of kerosene for large airplanes, while the second employs hydrogen and fuel cell systems for the propulsion of small airplanes. Fuel cells also have the potential to replace diesel as fuel for auxiliary power units of aircraft and to replace batteries that power other devices and systems. Powering ground support equipment in the airport is also considered a viable way of integrating fuel cell technology in the aviation industry[68].
Major milestones of hydrogen and fuel cell use in manned aircrafts date back to the last two decades. In 2008, Boeing Research and Technology conducted flight tests for the first manned fuel cell airplane, a Diamond DA20 (a modified two-seater motor glider, hybrid: H2 fuel cell/Li-ion battery[69]). Airbus followed with a successful application of a fuel cell system to power auxiliary hydraulic and electric systems of an Airbus 320, activating ailerons, rudders and other flight control systems[70]. In 2009, the German Aerospace Center (DLR) developed the motor glider Antares, the world’s first manned aircraft to take-off by only employing power from high-performance fuel cells (25 kW, 5kg of H2 @ 35 bar)[71]. The RAPID 200-Fuel Cell, an airplane developed within the European Union’s ENFICA-FC project coordinated by the Politecnico di Torino, completed several flight tests using a completely electrical hybrid power system (20 kW FC, 35 MPa H2 storage and a 20 kW Li–Po battery), breaking the world speed record for electrically powered airplanes[72]. HY4, a four-seater powered with an hydrogen fuel cell, also developed by DLR, completed its maiden flight in 2016 (9 kg of H2, 4 × 11 kW FC and 2 × 10 kWh batteries)[73].
Today, several R&D groups are committed to further developing fuel cell propulsion systems for aviation. The HyFlyer project intends to decarbonize medium/small passenger aircrafts by optimizing a high-power fuel cell. Led by ZeroAvia, a California-based startup, in partnership with the UK Government’s Aerospace Technology Institute (ATI) program, completed the first flight of a commercial-grade aircraft powered by hydrogen-fueled fuel cells, a modified propeller Piper M-class six-seat plane coupled with an FC and batteries. The project will conclude with a groundbreaking 19-seat hydrogen–electric aircraft with a 350 mile flight in early 2023[74][75]. In 2021, General Motors and Liebherr-Aerospace started the joint development of a hydrogen fuel cell power system for aircraft applications. Focusing on commercial airplanes, this project does not focus on propulsion, but intends to replace the auxiliary power unit that runs the electrical systems of aircraft for a fuel-cell-powered one[76]. The Airbus ZEROe program has unveiled three concepts for the world’s first zero-emission commercial aircraft, employing hydrogen as the primary power source. They are designed to utilize hydrogen fuel cells to complementarily power modified gas turbines, providing a highly efficient hybrid electric propulsion system that could be placed into service by 2035[77].
The use of FCs as a major energy propulsion source has also become very popular for unmanned aerial vehicles (UAVs) and autonomous and remote-controlled aircrafts, capable of executing increasingly difficult and varied missions[78][79][80]. Fuel cell adoption reduces the weight of conventional UAV propulsion systems, and lowers the noise and vibration while addressing environmental concerns. For instance, the weight of a hydrogen FC UAV can be 3.5 times lower than that of the lithium-based battery counterpart with the same energy capacity[81]. Table 4 summarizes the applications of hydrogen FC UAVs developed. While early research has mainly focused on fixed-wing configurations, multi-rotor and helicopter drones are being investigated today[82].
Table 4. Examples of FC-powered UAVs.
Date Organization, “Program” Aircraft Type Reactant Storage Type Remark
2003 AeroVionment, “Hornet” Fixed wing H2 sodium borohydride First UAV flight with fuel cell
2005 Fachhochschule FH Wiesbaden, “Hy-Fly” Fixed wing H2 gaseous -
2005 US Naval Research Lab (NRL), “Spider Lion” Fixed wing H2 gaseous No payload
2006 Georgia Institute of Technology Fixed wing H2 gaseous -
2007 California State University, Oklahoma State University and Horizon Fuel Cell Technologies, “Pterosoar” Fixed wing H2 gaseous Broke several official FAI world aviation endurance and range records
2007 DLR and Horizon Fuel Cell Technologies, “HyFish” Fixed wing H2 gaseous FC jet, performed aerial acrobatics such as vertical climbs and loops
2009 US Naval Research Lab (NRL), “eXperimental Fuel Cell (XFC)” Fixed wing H2 gaseous Tube-launched unmanned platform, designed for operational military use
2009 US Naval Research Lab (NRL), “Ion Tigger” Fixed wing H2 gaseous Achieved 26 h flight while carrying a 5 lb payload
2009 United Technologies Research Center (UTRC) Helicopter H2 gaseous First flight of a hydrogen/air fuel cell rotorcraft
2010 Korea Aerospace Research Institute (KARI), “EAV1” Fixed wing H2 gaseous Hybrid electric propulsion system (battery and hydrogen fuel cell)
2012 Korea Aerospace Research Institute (KARI), “EAV2” Fixed wing H2 gaseous Hybrid electric propulsion system (battery, hydrogen fuel cell and solar cell)
2013 US Naval Research Lab (NRL), “Modified Ion Tigger” Fixed wing H2 liquid Achieved 48 h flight
2015 Horizon Energy Systems, “HYCOPTER” Multi-rotor H2 gaseous First hydrogen fuel-cell-powered multi-rotor UAV
2015 EnergyOr Technologies, “H2 QUAD” Multi-rotor H2 gaseous Longest fuel-cell-powered multi-rotor UAV flight (3 h 43 min)
2019 Intelligent Energy + BATCAM, “Rachel” Multi-rotor H2 gaseous First hour-long flight for hydrogen multi-rotor UAV with 5 kg payload

This entry is adapted from the peer-reviewed paper 10.3390/en15145152

References

  1. Global Greenhouse Gas Emissions by the Transportation Sector. . The Geography of Transport Systems. Retrieved 2022-7-26
  2. Bahattin Tanç; Hüseyin Turan Arat; Ertuğrul Baltacıoğlu; Kadir Aydın; Overview of the next quarter century vision of hydrogen fuel cell electric vehicles. International Journal of Hydrogen Energy 2018, 44, 10120-10128, 10.1016/j.ijhydene.2018.10.112.
  3. Rosalin Rath; Piyush Kumar; Smita Mohanty; Sanjay Kumar Nayak; Recent advances, unsolved deficiencies, and future perspectives of hydrogen fuel cells in transportation and portable sectors. International Journal of Energy Research 2019, 43, 8931-8955, 10.1002/er.4795.
  4. Villalonga, S.; Thomas, C.; Nony, C.; Thiebaud, F.; Geli, M.; Lucas, A.; Knobloch, K.; Maugy, C. Applications of full thermo-plastic composite for type IV 70 MPa high pressure vessels. In Proceedings of the 18th International Conference on Compo-site Materials (ICCM), Jeju Island, Korea, 21–26 August 2011; p. 5.
  5. Berro Ramirez, J.P.; Halm, D.; Grandidier, J.C.; Villalonga, S.; Nony, F. 700 bar type IV high pressure hydrogen storage vessel burst—Simulation and experimental validation. Int. J. Hydrogen Energy 2015, 40, 13183–13192. https://doi.org/10.1016/j.ijhydene.2015.05.126.
  6. Pépin, J.; Lainé, E.; Grandidier, J.C.; Benoit, G.; Mellier, D.; Weber, M.; Langlois, C. Replication of liner collapse phenome-non observed in hyperbaric type IV hydrogen storage vessel by explosive decompression experiments. Int. J. Hydrogen En-ergy 2018, 43, 4671–4680. https://doi.org/10.1016/j.ijhydene.2018.01.022.
  7. Hassan, I.A.; Ramadan, H.S.; Saleh, M.A.; Hissel, D. Hydrogen storage technologies for stationary and mobile applications: Review, analysis and perspectives. Renew. Sustain. Energy Rev. 2021, 149, 111311. https://doi.org/10.1016/j.rser.2021.111311.
  8. H. Barthelemy; M. Weber; F. Barbier; Hydrogen storage: Recent improvements and industrial perspectives. International Journal of Hydrogen Energy 2017, 42, 7254-7262, 10.1016/j.ijhydene.2016.03.178.
  9. Changhan Ryu; Chulhwan Jung; Jinwoo Bae; A Study on the Analysis of the Technology of Hydrogen Fuel Cell Vehicle Parts : With Focus on the Patent Analysis of Co-Assignees. Transaction of the Korean Society of Automotive Engineers 2020, 28, 227-237, 10.7467/ksae.2020.28.3.227.
  10. Hyundai Nexo High Pressure Hydrogen Tank Safety. Available online: https://en.wikipedia.org/wiki/File:Hyundai_nexo_high_pressure_hydrogen_tank_safety.jpg (accessed on 1 March 2022).
  11. Hyundai Nexo—The Future Utility Vehicle. Available online: https://www.eurekar.co.uk/articles/2018-07-16/hyundai-nexo-the-future-utility-vehicle (accessed on 1 March 2022).
  12. David A. Cullen; K. C. Neyerlin; Rajesh K. Ahluwalia; Rangachary Mukundan; Karren L. More; Rodney L. Borup; Adam Z. Weber; Deborah J. Myers; Ahmet Kusoglu; New roads and challenges for fuel cells in heavy-duty transportation. Nature Energy 2021, 6, 462-474, 10.1038/s41560-021-00775-z.
  13. Iain Staffell; Daniel Scamman; Anthony Velazquez Abad; Paul Balcombe; Paul E. Dodds; Paul Ekins; Nilay Shah; Kate R. Ward; The role of hydrogen and fuel cells in the global energy system. Energy & Environmental Science 2018, 12, 463-491, 10.1039/c8ee01157e.
  14. Move is on to ban diesel cars from cities . DW. Retrieved 2022-7-26
  15. Hydrogen Cars, Vans and Buses. Overview of Flagship Demonstration Initiatives in the Transport Sector. Available online: https://ec.europa.eu/energy/sites/ener/files/documents/3-3_elementenergy_ruf.pdf (Retrieved 26 January 2022).
  16. John J. Gangloff; James Kast; Geoffrey Morrison; Jason Marcinkoski; Design Space Assessment of Hydrogen Storage Onboard Medium and Heavy Duty Fuel Cell Electric Trucks. Journal of Electrochemical Energy Conversion and Storage 2017, 14, 021001, 10.1115/1.4036508.
  17. Alaswad, A.; Baroutaji, A.; Achour, H.; Carton, J.; Al Makky, A.; Olabi, A.G. Developments in fuel cell technologies in the transport sector. Int. J. Hydrogen Energy 2016, 41, 16499–16508. https://doi.org/10.1016/j.ijhydene.2016.03.164.
  18. Hua, T.; Ahluwalia, R.; Eudy, L.; Singer, G.; Jermer, B.; Asselin-Miller, N.; Wessel, S.; Patterson, T.; Marcinkoski, J. Status of hydrogen fuel cell electric buses worldwide. J. Power Sources 2014, 269, 975–993. https://doi.org/10.1016/j.jpowsour.2014.06.055.
  19. Clean Urban Transport for Europe . European Comission - Research and Innovation. Retrieved 2022-7-26
  20. National Fuel Cell Bus Program . United States Department of Transportation - Federal Transit Administration. Retrieved 2022-7-26
  21. Troy Stangarone; South Korean efforts to transition to a hydrogen economy. Clean Technologies and Environmental Policy 2020, 23, 509-516, 10.1007/s10098-020-01936-6.
  22. A. Ajanovic; A. Glatt; R. Haas; Prospects and impediments for hydrogen fuel cell buses. Energy 2021, 235, 121340, 10.1016/j.energy.2021.121340.
  23. Van Hool towards the Launch of the New A330 FC and Exqui.City 18 FC. A Fuel Cell Future . Sustainable-bus.com. Retrieved 2022-7-26
  24. Toyota banks on Olympic halo for the humble bus to keep hydrogen dream alive . Reuters.com. Retrieved 2022-7-26
  25. Hyundai fuel cell bus for operator in Austria. Fuel Cells Bull. 2021, 2021, S1464–S2859
  26. Wrightbus unveiled the first fuel cell double decker in the world . Sustainable-bus.com. Retrieved 2022-7-26
  27. The first VDL hydrogen bus deployed by Connexxion. With a trailer housing H2 technology . Sustainable-bus.com. Retrieved 2022-7-26
  28. Krishna Reddi; Marianne Mintz; Amgad Elgowainy; Erika Sutherland; Challenges and Opportunities of Hydrogen Delivery via Pipeline, Tube-Trailer, LIQUID Tanker and Methanation-Natural Gas Grid. null 2016, 39, 849-874, 10.1002/9783527674268.ch35.
  29. Krishna Reddi; Amgad Elgowainy; Erika Sutherland; Hydrogen refueling station compression and storage optimization with tube-trailer deliveries. International Journal of Hydrogen Energy 2014, 39, 19169-19181, 10.1016/j.ijhydene.2014.09.099.
  30. Amgad Elgowainy; Krishna Reddi; Erika Sutherland; Fred Joseck; Tube-trailer consolidation strategy for reducing hydrogen refueling station costs. International Journal of Hydrogen Energy 2014, 39, 20197-20206, 10.1016/j.ijhydene.2014.10.030.
  31. Compressed gaseous hydrogen . Fuel cell electric buses. Retrieved 2022-7-26
  32. Air Products—Tube Trailers. Available online: https://www.airproducts.co.uk/supply-modes/tube-trailers (Retrieved 14 February 2022).
  33. Advanced Hydrogen Fueling Station Supply: Tube Trailers. Available online: https://www.osti.gov/biblio/1469970 (Retrieved 14 February 2022).
  34. Final Report Summary—HYTEC (Hydrogen Transport in European Cities). Available online: https://cordis.europa.eu/project/id/278727/reporting (Retrieved 14 February 2022).
  35. Iljin Hysolus, Korea's leading composite tank producer for hydrogen storage, sets IPO for Sept. 3 . Compositesworld.com. Retrieved 2022-7-26
  36. Hydrogen’s Economy Artery: Iljin Hysolus Launches Type 4 Hydrogen Tube Trailer . Fuelcellsworks.com. Retrieved 2022-7-26
  37. Azuma, M.; Oimatsu, K.; Oyama, S.; Kamiya, S.; Igashira, K.; Takemura, T.; Takai, Y. Safety design of compressed hydrogen trailers with composite cylinders. Int. J. Hydrogen Energy 2014, 39, 20420–20425.
  38. High-pressure hydrogen gas trailer — Japan’s first composite tank . Global Kawasaki. Retrieved 2022-7-26
  39. K. Reddi; M. Mintz; A. Elgowainy; E. Sutherland; Building a hydrogen infrastructure in the United States. null 2015, , , 10.1016/b978-1-78242-364-5.00013-0.
  40. Lei Xiao; Jianye Chen; Yimei Wu; Wei Zhang; Jianjun Ye; Shuangquan Shao; Junlong Xie; Effects of pressure levels in three-cascade storage system on the overall energy consumption in the hydrogen refueling station. International Journal of Hydrogen Energy 2021, 46, 31334-31345, 10.1016/j.ijhydene.2021.07.007.
  41. Mahmood Farzaneh-Gord; Mahdi Deymi-Dashtebayaz; Hamid Reza Rahbari; Hamid Niazmand; Effects of storage types and conditions on compressed hydrogen fuelling stations performance. International Journal of Hydrogen Energy 2012, 37, 3500-3509, 10.1016/j.ijhydene.2011.11.017.
  42. Zheng Tian; Hong Lv; Wei Zhou; Cunman Zhang; Pengfei He; Review on equipment configuration and operation process optimization of hydrogen refueling station. International Journal of Hydrogen Energy 2021, 47, 3033-3053, 10.1016/j.ijhydene.2021.10.238.
  43. Parks, G.; Boyd, R.; Cornish, J.; Remick, R. Hydrogen Station Compression, Storage, and Dispensing Technical Status and Costs: Systems Integration; National Renewable Energy Lab: Golden, CO, USA, 2014. https://doi.org/10.13140/RG.2.2.23768.34562
  44. Osamah Siddiqui; Ibrahim Dincer; A Review on Fuel Cell-Based Locomotive Powering Options for Sustainable Transportation. Arabian Journal for Science and Engineering 2018, 44, 677-693, 10.1007/s13369-018-3607-2.
  45. Study on the use of Fuel Cells and Hydrogen in the Railway Environment . https://rail-research.europa.eu/. Retrieved 2022-7-26
  46. Miller, A.R.; Van den Berg, G.; Barnes, D.L.; Eisele, R.I.; Tanner, D.M.; Vallely, J.M.; Lassiter, D.A. Fuel cell technology in underground mining. In Proceedings of the 5th International Platinum Conference, Sun City, South Africa, 18–21 September 2012; pp. 533–546
  47. Development of the World's First Fuel Cell Hybrid Railcar . JR EAST JAPAN RAILWAY COMPANY. Retrieved 2022-7-26
  48. Hoffrichter, A. Hydrogen-rail (hydrail) development. In H2@Rail Workshop; Michigan State University: Lansing, MI, USA, 2019
  49. Alstom's Coradia iLint hydrogen train runs for the first time in Sweden . www.alstom.com/. Retrieved 2022-7-26
  50. JR East planning next-generation fuel cell train. Fuel Cells Bull. 2019, 2019, s1464–s2859.
  51. Ballard Receives Order for Fuel Cell Modules to Power Trial Operation of Siemens Mireo Plus H Train . www.ballard.com. Retrieved 2022-7-26
  52. Stadler hydrogen fuel cell train for California. Fuel Cells Bull. 2019, 2019, s1464–s2859.
  53. TIG/m, LLC Delivers Third Hydrogen/Hybrid Streetcar to Aruba in Island's Transition to 100% Sustainability . Patch.com. Retrieved 2022-7-26
  54. Ulsan and Hyundai Rotem agree hydrogen tram project . Railjournal.com. Retrieved 2022-7-26
  55. H2 On-Board Storage Options for Rail Vehicles . European Hydrogen Energy Conference. Retrieved 2022-7-26
  56. Boehm, M. Hydrogen on-board storage options for rail vehicles. In Proceedings of the European Hydrogen Energy Confer-ence, Madrid, Spain, 18–20 May 2022; p. 2
  57. The UK’s First Hydrogen Train is Unveiled, Developed with Alternative Fuel Expertise from Luxfer . Luxfer.com. Retrieved 2022-7-26
  58. Tronstad, T.; Høgmoen, Å.H.; Haugom, G.P.; Langfeldt, L. Study on the Use of Fuel Cells in Shipping; European Maritime Safe-ty Agency: Lisbon, Portugal, 2017.
  59. Feng Li; Yupeng Yuan; Xinping Yan; Reza Malekian; Zhixiong Li; A study on a numerical simulation of the leakage and diffusion of hydrogen in a fuel cell ship. Renewable and Sustainable Energy Reviews 2018, 97, 177-185, 10.1016/j.rser.2018.08.034.
  60. Hui Xing; Charles Stuart; Stephen Spence; Hua Chen; Fuel Cell Power Systems for Maritime Applications: Progress and Perspectives. Sustainability 2021, 13, 1213, 10.3390/su13031213.
  61. Alejandro Mendez; Teresa J. Leo; Miguel A. Herreros; Current State of Technology of Fuel Cell Power Systems for Autonomous Underwater Vehicles. Energies 2014, 7, 4676-4693, 10.3390/en7074676.
  62. Raugel, E.; Rigaud, V.; Lakeman, C. Sea experiment of a survey AUV powered by a fuel cell system. In Proceedings of the 2010 IEEE/OES Autonomous Underwater Vehicles, Monterey, CA, USA, 1–3 September 2010; p. 3.
  63. AREVA TESTS FUEL CELL FOR DEEP-SEA APPLICATIONS . www.sa.areva.com. Retrieved 2022-7-26
  64. Hydrogen Fuel Cells Could Power the navy’s Future Robotic Submarine . Defense-update.com. Retrieved 2022-7-26
  65. Hydrogen-powered autonomous freight submarine among winners of £23m UK R&D grants . Rechargenews.com. Retrieved 2022-7-26
  66. Why Germany's New Super Stealth Submarines Could Take on Any Navy . Nationalinterest.org. Retrieved 2022-7-26
  67. Commitment to Fly Net Zero . Aviationbenefits.org. Retrieved 2022-7-26
  68. Ahmad Baroutaji; Tabbi Wilberforce; Mohamad Ramadan; Abdul Ghani Olabi; Comprehensive investigation on hydrogen and fuel cell technology in the aviation and aerospace sectors. Renewable and Sustainable Energy Reviews 2019, 106, 31-40, 10.1016/j.rser.2019.02.022.
  69. Koehler, T. A green machine. Boeing Frontier, 1 May 2008; p. 44.
  70. Nieves Lapeña-Rey; Jonay Mosquera; Elena Bataller; Fortunato Ortí; First Fuel-Cell Manned Aircraft. Journal of Aircraft 2010, 47, 1825-1835, 10.2514/1.42234.
  71. Gwénaëlle Renouard-Vallet; Martin Saballus; Gerrit Schmithals; Johannes Schirmer; Josef Kallo; K. Andreas Friedrich; Improving the environmental impact of civil aircraft by fuel cell technology: concepts and technological progress. Energy & Environmental Science 2010, 3, 1458-1468, 10.1039/b925930a.
  72. G Correa; Massimo Santarelli; F Borello; Enrico Cestino; G Romeo; Flight test validation of the dynamic model of a fuel cell system for ultra-light aircraft. Proceedings of the Institution of Mechanical Engineers, Part G: Journal of Aerospace Engineering 2014, 229, 917-932, 10.1177/0954410014541081.
  73. Josef Kallo; DLR leads HY4 project for four-seater fuel cell aircraft. Fuel Cells Bulletin 2015, 2015, 13, 10.1016/s1464-2859(15)30362-x.
  74. ZeroAvia Completes Milestone Hydrogen Fuel Cell Flight . www.flyingmag.com. Retrieved 2022-7-26
  75. Project: HyFlyer II . www.emec.org.uk. Retrieved 2022-7-26
  76. Liebherr and GM to develop HYDROTEC fuel cell-based electrical power generation system for aerospace application . www.liebherr.com. Retrieved 2022-7-26
  77. ZEROe - Towards the world’s first zero-emission commercial aircraft . www.airbus.com. Retrieved 2022-7-26
  78. Óscar González-Espasandín; Teresa J. Leo; Emilio Navarro-Arévalo; Fuel Cells: A Real Option for Unmanned Aerial Vehicles Propulsion. The Scientific World Journal 2014, 2014, 1-12, 10.1155/2014/497642.
  79. Andrew Gong; Dries Verstraete; Fuel cell propulsion in small fixed-wing unmanned aerial vehicles: Current status and research needs. International Journal of Hydrogen Energy 2017, 42, 21311-21333, 10.1016/j.ijhydene.2017.06.148.
  80. Bin Wang; Dan Zhao; Weixuan Li; Zhiyu Wang; Yue Huang; Yancheng You; Sid Becker; Current technologies and challenges of applying fuel cell hybrid propulsion systems in unmanned aerial vehicles. Progress in Aerospace Sciences 2020, 116, 100620, 10.1016/j.paerosci.2020.100620.
  81. Z.F. Pan; L. An; C.Y. Wen; Recent advances in fuel cells based propulsion systems for unmanned aerial vehicles. Applied Energy 2019, 240, 473-485, 10.1016/j.apenergy.2019.02.079.
  82. Jørgen Apeland; Dimitrios Pavlou; Tor Hemmingsen; Suitability Analysis of Implementing a Fuel Cell on a Multirotor Drone. Journal of Aerospace Technology and Management 2020, 12, 1-14, 10.5028/jatm.v12.1172.
More
© Text is available under the terms and conditions of the Creative Commons Attribution (CC BY) license; additional terms may apply. By using this site, you agree to the Terms and Conditions and Privacy Policy.
This entry is offline, you can click here to edit this entry!
Video Production Service
Feedback