Topic Editors

Institute of Engineering Thermophysics, Chinese Academy of Sciences, Beijing 100190, China
School of Automation, Central South University, Changsha 410083, China
School of Energy and Power Engineering, Changsha University of Science & Technology, Changsha 410114, China
Institute of Plasma Physics, Chinese Academy of Sciences, Hefei 230031, China

Advanced Modern Technologies for Renewable Energy Development and Utilization

Abstract submission deadline
31 May 2027
Manuscript submission deadline
31 July 2027
Viewed by
2010

Topic Information

Dear Colleagues,

The development and utilization of renewable energy have become critical strategic imperatives globally, driven by the mounting constraints of traditional fossil energy and pressing ecological challenges. Conventional energy sources (oil, natural gas, coal) that long dominated the energy mix face the dual challenges of supply scarcity and unsustainability. With global industrialization and urbanization advancing, surging energy demand widens the fossil energy supply–demand gap, triggering energy price volatility and threatening national energy security, urging a shift toward renewable alternatives.

Moreover, fossil energy utilization entails severe environmental costs, with massive greenhouse gas emissions exacerbating climate change and pollutants endangering public health. This has spurred a global consensus on ecological conservation, fostering an irreversible trend of expanding renewable energy’s share in the global energy structure.

This transition is jointly propelled by improved policy frameworks, enhanced public environmental awareness, and, crucially, technological innovations in the energy sector. Over 130 countries have set carbon neutrality goals, with supportive policies facilitating renewable energy development. However, large-scale adoption and efficient utilization of renewable energy still rely on advanced technologies to overcome existing bottlenecks.

Against this backdrop, this Topic focuses on “Advanced Modern Technologies for Renewable Energy Development and Utilization,” aiming to showcase cutting-edge technological breakthroughs and applications that underpin the sustainable energy transition, providing vital insights for academia and industry.

This Topic mainly aims to include original research and studies related to (but not limited to) the following topics:

Solar Energy Technologies

  • Advanced photovoltaic (PV) materials, devices, and systems (e.g., perovskite solar cells, tandem solar cells, bifacial PV modules);
  • Concentrated solar power (CSP) systems, thermal energy storage, and hybrid CSP-PV configurations;
  • Solar thermal utilization technologies (e.g., solar water heating, solar cooling, solar-driven industrial processes);
  • Smart solar energy management, grid integration, and off-grid solar applications.

Wind Energy Technologies

  • Design, optimization, and manufacturing of next-generation wind turbines (e.g., large-scale offshore turbines, floating wind turbines, vertical-axis wind turbines);
  • Wind resource assessment, site selection, and wind farm layout optimization;
  • Wind turbine condition monitoring, fault diagnosis, and predictive maintenance technologies;
  • Wind energy grid integration, power quality control, and wind–solar hybrid systems.

Hydro Energy Technologies

  • Advanced small-scale hydropower, micro-hydropower, and run-of-river hydropower systems;
  • Pumped storage hydropower (PSH) technologies for energy storage and grid regulation;
  • Hydrokinetic energy conversion (e.g., tidal, wave, and current energy technologies);
  • Environment-friendly hydro energy development and ecological impact mitigation.

Bioenergy Technologies

  • Advanced biomass conversion technologies (e.g., pyrolysis, gasification, anaerobic digestion, fermentation);
  • Biofuel production (e.g., bioethanol, biodiesel, biogas, synthetic biofuels) and upgrading processes;
  • Waste-to-energy technologies (e.g., municipal solid waste, agricultural residue, industrial organic waste utilization);
  • Integrated bioenergy systems for power, heat, and fuel co-production.

Geothermal Energy Technologies

  • Enhanced geothermal systems (EGSs) and advanced geothermal resource exploration technologies;
  • Geothermal power generation, direct use for heating/cooling, and district heating systems;
  • Geothermal energy storage and hybrid geothermal–renewable energy systems;
  • Geothermal reservoir modeling, monitoring, and sustainable management.

Energy Storage Systems for Renewable Integration

  • Advanced battery technologies (e.g., lithium-ion, flow batteries, sodium-ion batteries, solid-state batteries);
  • Mechanical energy storage (e.g., compressed air energy storage, flywheel energy storage);
  • Chemical energy storage (e.g., hydrogen storage, ammonia synthesis and utilization);
  • Energy storage system integration, control strategies, and cost optimization.

Smart Grid and Renewable Energy Integration Technologies

  • Microgrid, nanogrid, and virtual power plant (VPP) technologies for distributed renewable energy;
  • Power electronics devices (e.g., inverters, converters, transformers) for renewable energy grid connection;
  • Demand response, energy management systems (EMSs), and artificial intelligence (AI)-driven grid optimization;
  • Energy internet, blockchain-based energy trading, and peer-to-peer (P2P) renewable energy sharing.

Emerging Renewable Energy Technologies

  • Ocean energy (tidal, wave, ocean thermal energy conversion, salinity gradient energy);
  • Hydrogen energy production from renewable sources (green hydrogen) and fuel cell technologies;
  • Algae-based bioenergy systems and innovative biomass resources;
  • Novel renewable energy harvesting technologies (e.g., piezoelectric energy, thermoelectric energy).

Techno-Economic Analysis and Sustainability Assessment

  • Cost reduction strategies and life cycle assessment (LCA) of renewable energy systems;
  • Policy and market mechanisms for promoting renewable energy deployment;
  • Environmental impact mitigation, carbon footprint reduction, and circular economy in renewable energy sectors;
  • Resilience and reliability assessment of renewable energy systems under extreme climate conditions.

This Topic aims to gather cutting-edge research that bridges theory and practice, fostering collaboration among researchers, engineers, and policymakers to accelerate the global energy transition.

Prof. Dr. Qingan Li
Prof. Dr. Dongran Song
Prof. Dr. Mingzhu Tang
Dr. Xiaojiao Chen
Topic Editors

Keywords

  • renewable energy technologies
  • renewable energy utilization
  • energy system optimization
  • electric vehicles (EVs)
  • vehicle-to-grid (V2G)
  • power electronics
  • energy storage integration
  • microgrid management
  • renewable energy estimation
  • grid
  • low-carbon energy transition
  • hybrid renewable energy systems
  • energy security
  • renewable energy penetration
  • smart grid control

Participating Journals

Journal Name Impact Factor CiteScore Launched Year First Decision (median) APC
Applied Sciences
applsci
2.5 5.5 2011 16 Days CHF 2400 Submit
Energies
energies
3.2 7.3 2008 16.8 Days CHF 2600 Submit
Processes
processes
2.8 5.5 2013 14.9 Days CHF 2400 Submit
Sci
sci
- 5.2 2019 26.7 Days CHF 1400 Submit
Sensors
sensors
3.5 8.2 2001 17.8 Days CHF 2600 Submit
Technologies
technologies
3.6 8.5 2013 19.1 Days CHF 1800 Submit

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Published Papers (2 papers)

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17 pages, 4735 KB  
Article
Open-Source Design of Solar-Powered Picnic Table for Outdoor Device Charging
by Sara Khan and Joshua M. Pearce
Technologies 2026, 14(5), 254; https://doi.org/10.3390/technologies14050254 - 24 Apr 2026
Viewed by 606
Abstract
The ubiquitous use of electronic devices requires outdoor charging capabilities. A successful approach uses solar photovoltaic (PV)-powered picnic tables, but the existing designs share several limitations including proprietary designs that limit replication/modification and high costs. This study addresses these limitations by presenting the [...] Read more.
The ubiquitous use of electronic devices requires outdoor charging capabilities. A successful approach uses solar photovoltaic (PV)-powered picnic tables, but the existing designs share several limitations including proprietary designs that limit replication/modification and high costs. This study addresses these limitations by presenting the design of a novel open-source solar-powered picnic table fabricated from reused, decommissioned PVs and recycled plastic lumber. The open-source solar-powered picnic table acts as a conventional picnic table and provides electrical charging that supports learning and connectivity by providing outdoor power. The system integrates a 320 W PV module, maximum power point charge controller, and 12 V LiFePO4 battery, enabling reliable off-grid power generation and storage. The device was validated under real outdoor operating conditions using everyday user loads, including smartphones, tablets, and laptops as individual and multiple connected devices at different times of the day and night. In addition to this functionality, the materials cost was <USD 450, 90–95% less than commercially available options. The system, built using recycled and repurposed components, further enhances sustainability while maintaining durability for outdoor deployment. These results indicate that open-source solar furniture can provide an affordable and replicable approach for expanding renewable-powered charging access in outdoor environments. Full article
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20 pages, 2209 KB  
Article
Integrated Sliding Mode Control and Adaptive-Step P&O MPPT Strategy for DC–DC Boost–Buck Converter in Photovoltaic Systems
by Jesús A. González-Castro, Guillermo J. Rubio-Astorga, Jesús R. Castro-Rubio, Martin A. Alarcón-Carbajal, Julio C. Picos-Ponce, Juan Diego Sánchez-Torres and David E. Castro-Palazuelos
Energies 2026, 19(5), 1123; https://doi.org/10.3390/en19051123 - 24 Feb 2026
Cited by 1 | Viewed by 674
Abstract
The efficient utilization of solar energy largely depends on the capability of a photovoltaic system to operate at its maximum power point under variable irradiance and temperature conditions. In this context, a control strategy that combines a sliding mode control scheme with a [...] Read more.
The efficient utilization of solar energy largely depends on the capability of a photovoltaic system to operate at its maximum power point under variable irradiance and temperature conditions. In this context, a control strategy that combines a sliding mode control scheme with a Perturb-and-Observe-based maximum power point tracking (MPPT) algorithm with adaptive step size is proposed and applied to a DC–DC boost–buck converter. The proposed approach aims to improve the dynamic stability of the system, ensure robustness against model uncertainties, and enhance conversion efficiency. The MPPT algorithm employs an adaptive perturbation step that reduces steady-state oscillations and accelerates convergence toward the optimal operating point, while the sliding mode controller guarantees accurate tracking of the converter voltage reference under external disturbances. Simulation and experimental results validate the effectiveness of the proposed strategy, achieving an overall efficiency of 99.42% and a startup time of 180 ms in the implemented version. These results confirm improved transient response, reduced steady-state error, and high efficiency compared to competing control strategies reported in the literature. Full article
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