Solar-to-wheels via decentralized green hydrogen micro-hubs powering hydrogen cargo bikes for last-mile logistics

Hydrogen cargo bikes offer a pathway to decarbonize last-mile logistics, yet hydrogen supply and fleet operation are often assessed separately and commonly assume grid electricity. This study develops a data-driven solar-to-wheels framework integrating anonymized Rome delivery data (7932 trips), decentralized photovoltaic (PV) hydrogen production, and fleet operations. Spatial demand is resolved at postal-zone (CAP) level for micro-hub siting. Human-constrained fleet sizing and resilience under variable solar output are included. Four scenarios are compared: diesel vans (S0), battery-electric cargo bikes (S1), hydrogen bikes using grid electrolysis (S2), and hydrogen bikes supplied by PV micro-hubs (S3). Results show that 59.5 kg H 2 day −1 can replace diesel operations serving 1586 daily deliveries (∼8923 km). Six PV–electrolyser hubs (∼128 kWp each) can supply this demand at 3.6–4.5 € kg −1 (∼0.14 € per delivery) with zero operational CO 2 emissions. Human-constrained sizing requires ∼88 hydrogen bikes versus ∼112 battery-electric units.

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Publication Details

Journal
International Journal of Hydrogen Energy
Published
2026-07-27
DOI
https://doi.org/10.1016/j.ijhydene.2026.156606
Primary Topic
Electric Vehicles and Infrastructure
Type
article
Field-Weighted Citation Impact
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article

Solar-to-wheels via decentralized green hydrogen micro-hubs powering hydrogen cargo bikes for last-mile logistics

Davide Shingo Usami, Sevket Oguz Kagan Capkin, Luca Persia, Roberto Carroccia
International Journal of Hydrogen Energy
Electric Vehicles and Infrastructure
article

Solar-to-wheels via decentralized green hydrogen micro-hubs powering hydrogen cargo bikes for last-mile logistics

Davide Shingo Usami, Sevket Oguz Kagan Capkin, Luca Persia, Roberto Carroccia
article en

Abstract

Hydrogen cargo bikes offer a pathway to decarbonize last-mile logistics, yet hydrogen supply and fleet operation are often assessed separately and commonly assume grid electricity. This study develops a data-driven solar-to-wheels framework integrating anonymized Rome delivery data (7932 trips), decentralized photovoltaic (PV) hydrogen production, and fleet operations. Spatial demand is resolved at postal-zone (CAP) level for micro-hub siting. Human-constrained fleet sizing and resilience under variable solar output are included. Four scenarios are compared: diesel vans (S0), battery-electric cargo bikes (S1), hydrogen bikes using grid electrolysis (S2), and hydrogen bikes supplied by PV micro-hubs (S3). Results show that 59.5 kg H 2 day −1 can replace diesel operations serving 1586 daily deliveries (∼8923 km). Six PV–electrolyser hubs (∼128 kWp each) can supply this demand at 3.6–4.5 € kg −1 (∼0.14 € per delivery) with zero operational CO 2 emissions. Human-constrained sizing requires ∼88 hydrogen bikes versus ∼112 battery-electric units.

International Journal of Hydrogen EnergyVol. 261
Sapienza University of Rome (IT)
Openalex Percentile: Top 16%
Electric Vehicles and Infrastructure
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