Torna ai risultati
Scheda bibliografica · Consultazione e accesso
Artículo

Climate-resilient intelligent charging of solar electric vehicles for improved algorithmic performance and battery stress mitigation under tropical conditions in Uganda

George Williams Ssebagala et al · Springer · 2026

Accesso aperto disponibile
Lettura rapida. Controlla i dati essenziali della risorsa e accedi al contenuto con il pulsante principale. La scheda mostra solo le informazioni necessarie per identificare, citare e aprire l’opera.

Accesso alla risorsa

Apri il contenuto dall’opzione principale o scegli un’altra fonte disponibile.

DOAJ DOAJ Articles
Entrar por DOAJ
Accesso principale

Accesso aperto disponibile

Recurso identificado como acceso abierto, sin confirmar automáticamente si es texto completo directo.
Apri risorsa

Riepilogo

Descripción general del contenido del recurso.

Abstract Solar-powered electric-vehicle (EV) charging in tropical, PV-rich regions such as Uganda faces coupled stressors from high ambient temperature and intermittent solar irradiance, which can destabilize conventional constant-current/constant-voltage (CC/CV) charging and accelerate lithium-ion battery degradation. This systematic narrative review synthesizes experimental, simulation, and pilot evidence (2015–2025) on battery-side charging algorithms for solar-EV systems, focusing on how control strategies influence battery temperature, state-of-charge (SOC) accuracy, energy efficiency, and capacity fade under climate-relevant operating conditions. Across the reviewed literature, adaptive and intelligent approaches, including pulse and multistage CC/CV, Model Predictive Control (MPC), and neural-network (NN)/fuzzy-logic methods, are frequently reported to improve charging robustness and reduce thermal and electrochemical stress relative to baseline CC/CV in hot and solar-variable settings. Under specific conditions, individual studies report SOC-error reductions of up to ~ 70%, capacity-loss reductions of ~ 40–60%, and energy-efficiency gains of ~ 5–8%; other field/laboratory studies in hot, PV-driven environments report more moderate improvements (SOC tracking ~ 10–15%, peak temperature reductions ~ 4–6 °C, and capacity-retention gains ~ 8–12% over ~ 12 months, depending on system architecture and control inputs). Collectively, the evidence indicates that climate-resilient charging benefits from integrating predictive/adaptive control, explicit thermal constraints, and, where feasible, PV buffering/energy storage to stabilize charging trajectories and slow degradation in tropical deployments. The review also highlights a critical gap: battery-level, long-duration validations under realistic Uganda/East Africa irradiance and temperature profiles remain scarce, motivating targeted experimental campaigns to support standardization and scalable implementation.

Come citare

Elegí el formato que necesitás y copiá la referencia al portapapeles.

APA 7

al, G. W. S. E. (2026). Climate-resilient intelligent charging of solar electric vehicles for improved algorithmic performance and battery stress mitigation under tropical conditions in Uganda. https://doi.org/10.1007/s43621-026-02915-5

MLA

al, George Williams Ssebagala et. "Climate-resilient intelligent charging of solar electric vehicles for improved algorithmic performance and battery stress mitigation under tropical conditions in Uganda." 2026. https://doi.org/10.1007/s43621-026-02915-5.

Chicago

al, George Williams Ssebagala et. 2026. "Climate-resilient intelligent charging of solar electric vehicles for improved algorithmic performance and battery stress mitigation under tropical conditions in Uganda.". https://doi.org/10.1007/s43621-026-02915-5.

Harvard

al, G. W. S. E. 2026, Climate-resilient intelligent charging of solar electric vehicles for improved algorithmic performance and battery stress mitigation under tropical conditions in Uganda, Springer, available at: https://doi.org/10.1007/s43621-026-02915-5 [Accessed 8 Aug. 2026].

Condividi e stampa

Salva la scheda, copia il link permanente o stampala in PDF.

Esporta riferimento

Esporta il record nei formati più comuni per usarlo con un gestore bibliografico.

Dettagli della risorsa

Informazioni bibliografiche utili per verificare che sia il materiale corretto.

Titolo
Climate-resilient intelligent charging of solar electric vehicles for improved algorithmic performance and battery stress mitigation under tropical conditions in Uganda
Autore / collaboratori
George Williams Ssebagala et al
Editore
Springer
Anno di pubblicazione
2026
ISSN
2662-9984
ISSN
2662-9984
Lingua
Inglés

Soggetti

Esplora risorse correlate a partire da questi soggetti.

Copiato