Antonio Alonso-Cepeda

Mr. Antonio Alonso-Cepeda

orcid

Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 August 2024 in Applied Sciences
Verified
Journal Article
Open access
PDF file
AAAntonio Alonso-Cepeda
Antonio Alonso-Cepeda
Raquel Villena-RuizRaquel Villena-Ruiz
Raquel Villena-Ruiz
Andrés Honrubia-EscribanoAndrés Honrubia-Escribano
Andrés Honrubia-Escribano
Emilio Gomez-LazaroEmilio Gomez-Lazaro
Emilio Gomez-Lazaro
Electric vehicle technology is transitioning from mobility based on fossil fuel combustion to one based on vehicle electrification, in which the primary energy is increasingly renewable, and the generation of pollutants and CO2 emissions is being reduced. This paper provides a tour of the key aspects of these systems, reviewing their most important historical, legislative, and grid impact topics. For this purpose, a literature review of publications up to 2022 is conducted. The last decade is the subject of a deeper analysis, shedding light on the essential characteristics of this technology and fundamentally focusing on its integration into electrical distribution networks. This work is carried out based on a review of a selection of articles written by authors worldwide who have researched these topics. We ordered and analyzed the temporal evolution of the defined categories, obtaining their research line direction. A meta-analysis of grid impact was also carried out, prompting clear conclusions about the state of the art and potential future works.


10 April 2026 in Remote Sensing
Verified
Journal Article
Open access
PDF file
GAGoretti Arias-Ferreiro
Goretti Arias-Ferreiro
MGMarco Antonio Montes Grova
Marco Antonio Montes Grova
FPFrancisco Javier Perez-Grau
Francisco Javier Perez-Grau
SRSergio Noriega del Rivero
Sergio Noriega del Rivero
RHRafael Herguedas
Rafael Herguedas
AAAntonio Alonso-Cepeda
Antonio Alonso-Cepeda
Post-blast operations in tunnel construction represent a critical bottleneck due to mandatory downtime and hazardous environmental conditions. This study addresses these challenges by developing and validating an integrated cyber–physical architecture that coordinates an autonomous Unmanned Aerial Vehicle (UAV) and an Autonomous Wheel Loader (AWL) under the supervision of a Digital Twin acting as central operational digital interface. Specifically, this technology was designed to access the tunnel, evaluate post-blasting conditions, and initiate operations during mandatory exclusion periods for personnel. The system was validated in a realistic, Global Navigation Satellite System (GNSS)-denied tunnel environment emulating post-detonation visibility constraints. The results demonstrate that the aerial agent successfully navigated and mapped the excavation front in less than 8 min, establishing a shared coordinate system for the ground machinery. Through this collaborative workflow, the autonomous deployment enabled operations to commence 50% to 80% earlier than conventional manual procedures. Furthermore, the system reduced daily operational time by approximately 8%, with an estimated return on financial investment between one and seven months. Overall, the proposed framework eliminates human exposure during high-risk inspections and transforms the fragmented excavation cycle into a continuous, data-driven process.

20 July 2026 in Sustainability
Verified
Journal Article
Open access
PDF file
AAAntonio Alonso-Cepeda
Antonio Alonso-Cepeda
Raquel Villena-RuizRaquel Villena-Ruiz
Raquel Villena-Ruiz
Andrés Honrubia-EscribanoAndrés Honrubia-Escribano
Andrés Honrubia-Escribano
Emilio Gomez-LazaroEmilio Gomez-Lazaro
Emilio Gomez-Lazaro
Electric vehicles (EVs) are increasingly regarded as a key component of low-carbon mobility and the sustainable energy transition. However, their large-scale deployment raises challenges that extend beyond vehicle technologies and require a system-level understanding of interactions with power networks, energy resources and users. This paper presents a critical review of the literature published since 2012, examining EV development from an integrated energy perspective that includes vehicle technologies, charging infrastructure, power electronics, grid integration, renewable energy coupling and environmental implications. A structured methodology is used to identify and analyze peer-reviewed studies, with particular emphasis on high-impact review articles that consolidate knowledge across disciplines. The analysis shows that, despite significant technological progress, large-scale EV deployment remains constrained by infrastructure limitations, distribution grid readiness, charging coordination strategies, material availability and socio-technical factors. Simulation-based studies play a central role in anticipating these impacts and informing deployment strategies before real-world implementation. Rather than addressing individual components in isolation, this review highlights interdependencies between technologies, control approaches and energy systems. Based on this synthesis, key research priorities and high-level challenges are identified, providing guidance for future research and policy aimed at enabling EVs to effectively support sustainable ambient energy and mobility systems worldwide deployment.