Projects |

Carbon-based nanomaterials for electrochemical energy conversion and storage systems

Wed, 21 Jan 2026 00:00:00 +0000

Project Description:

This project focuses on the synthesis and characterization of nitrogen-doped graphene and metal–organic framework (MOF) based nanomaterials for advanced electrochemical energy systems. The research explores graphene-derived nanomaterials as heterogeneous catalysts for the oxygen reduction reaction (ORR) and as battery electrode materials for next-generation energy storage technologies.

Nitrogen doping and integration with porous MOF structures are employed to tune the electronic structure, active sites, and surface chemistry of the nanomaterials. These modifications aim to improve current density, onset potential, catalytic activity, and long-term material stability in electrochemical systems. The project also investigates the potential of these materials to enhance volumetric efficiency and electrochemical performance in battery electrodes and catalytic energy devices. Through systematic synthesis, advanced materials characterization, and electrochemical evaluation, this research contributes to the development of cost-effective, high-performance nanomaterials for sustainable energy conversion and storage applications.

Advanced Phase Change Materials for Wide-Range Thermal Energy Storage

Sun, 16 Mar 2025 00:00:00 +0000

Project Description

This project focuses on the development of advanced Phase Change Materials (PCMs) operating across a broad temperature range of −80 °C to 180 °C for diverse industrial and technological applications. Targeted application areas include cold-chain storage, domestic temperature regulation, transportation of temperature-sensitive bio-products, and thermal management of sensitive electrical and electronic devices.

A central objective of this research is the enhancement of thermal performance of PCMs through innovative material formulation and synthesis strategies. Molecular-level design approaches are investigated to optimize key thermal properties such as latent heat capacity, thermal conductivity, and thermal stability.

To address low-temperature energy storage requirements, eutectic PCM systems are being designed to achieve tailored phase transition temperatures and efficient thermal energy storage and release. Additionally, the project explores the integration of graphene-based nanomaterials into PCM matrices to leverage their exceptional thermal conductivity and improve heat transfer performance.

Furthermore, Metal-Organic Frameworks (MOFs) and bio-derived materials are being studied as potential additives and structural supports to further enhance the stability, durability, and thermal efficiency of PCM systems.

Through interdisciplinary materials research, advanced characterization, and collaborative development, this work aims to create next-generation PCMs with improved performance, adaptability, and energy efficiency for a wide spectrum of thermal management applications.

Integrated Solar Photovoltaic and Heat Pump System for Combined Thermal and Electrical Energy Utilization

Tue, 25 Feb 2025 00:00:00 +0000

Project Description

This research project focuses on the integration of solar photovoltaic (PV) systems with domestic heat pump technologies to enhance the efficiency and utilization of renewable energy in residential energy systems. The study investigates the capability of solar PV panels to generate both electrical energy and recoverable thermal energy under different geographic locations and seasonal conditions.

A key objective of this work is to evaluate the potential of capturing the thermal energy generated by PV panels and redirecting it to support household heat pump systems, thereby improving overall energy utilization. By coupling photovoltaic electricity generation with thermal energy recovery, the project aims to develop a more efficient hybrid renewable energy system for domestic applications.

In addition, the project examines household energy consumption patterns and heat pump system performance, focusing on energy efficiency and system-level optimization. Through quantitative analysis and modeling, we aim to determine the energy gains and performance improvements achieved through integrated solar–heat pump systems.

Ultimately, this research contributes to the broader goal of integrating renewable energy technologies to improve residential energy efficiency and sustainability, supporting the development of next-generation hybrid thermal and power systems.