Tecnologie per i trasporti
Fuel Cell Electric Vehicles
Autors: Stephen Mcphail, Leone Martellucci
Transport technologies
Among the many uses Fuel Cells (FC) can fulfil, a highly promising application is the electrification of mobility, as fuelled electric vehicles. FCEV combine the driving/duty ranges and refuelling times of conventional vehicles with the low impact and driving characteristics of a battery electric vehicle (BEV). Pollutant emissions are extremely low, as combustion-based products (NOx, SOx, particulate matter) are avoided. Key criticalities are the necessity of using Platinum Group Metals (PGM), and the custom engineering of the complete drivetrain, inducing high costs. Fuelled with hydrogen, FCEV are affected by a lack of widely distributed refuelling infrastructure. In 2014 Hyundai was the first car manufacturer to market a mass-produced FCEV (Tucson Fuel Cell vehicle). Toyota, in 2015, put a specifically designed, mass-manufactured FCEV model (Mirai) on the retail market, selling for around €65.000, and already a 3-year waiting list has developed in Japan. Honda released its FC Clarity in 2016. Other car manufacturers actively pursuing the development of FCEV are Opel-PSA, Daimler, Renault-Nissan, Ford and Kia, as well as BMW and Volkswagen. The duty cycle of captive fleets (like buses, being refuelled at a common depot) make them outstanding applications for initial deployment of FCEV. FC can also be used to extend the driving range of BEV by charging the battery drivetrain with a small on-board supply of hydrogen. FC forklifts provide great added value, since in addition to the electric drive, with zero emissions, as is the case of battery-powered forklifts, refuelling times are short and power is constant. In the USA, already over 6.000 FC forklift trucks are being used commercially. In Italy, the Piano Nazionale di Sviluppo – Mobilità Idrogeno Italia thoroughly analyses the prospects for FCEV transport in all sectors (passenger, transit and material handling vehicles) and proposes a roadmap for the deployment of FCEV as well as associated hydrogen refuelling stations (HRS) from 2020 through to 2050, including a detailed projection of costs, fleet volumes, hydrogen sources, distribution of HRS, abated pollution, suggested European and national incentive schemes.
22-08-2022
- run of river power plants
- riscaldamento e raffreddamento
- pompe di calore a compressore
- low-temperature ASHP
- bio-ethylene
- basic chemical for bio-ethylene
- biocarburante
- celle a combustibile
- veicoli elettrici con celle a combustibile
- elettrificazione dei trasporti
- autonomia di guida
- veicoli elettrici a batteria
- veicoli elettrici alimentati ad idrogeno
- stazioni di rifornimento con idrogeno
- bus ad idrogeno
- serbatoi pressurizzati per idrogeno
- muletti con celle a combustibile
- emissioni zero
- tempi di rifornimento
- Piano Nazionale di Sviluppo â Mobilità Idrogeno Italia
- heat exchangers
- abbattimento delle emissioni inquinanti
- elettrolisi
- riduzione delle emissioni di CO2
- uso di platino in celle a combustibile
- fuel cell electrical vehicles
- FCEV
- electrification of mobility
- fuelled electric vehicles
- hydrogen fuelled vehicles
- hydrogen refuelling infrastructure
- development of FCEV
- FC captive fleets
- fuel cell buses
- on-board hydrogen tank
- fuel cell forklifts
- zero emissions
- refuelling time
- roadmap for the deployment of FCEV
- hydrogen refuelling stations
- abated pollution
- zero tail-pipe emissions
- CO2-free vehicles
- electrolysis
- emissions reduction
- platinum loading in fuel cell stack