Approach

Our research delves into environmentally benign, facile, robust, scalable, and generic processes for producing graphene-composite materials. By utilizing sustainable methods, we aim to ensure that the synthesis of these advanced materials is not only efficient but also environmentally friendly. The scalability of these processes is critical to their practical application, ensuring that they can be produced in large quantities without compromising quality.

Target

The primary objective is to leverage these composite materials in the fabrication of various components used in energy storage and energy conversion devices. By enhancing the performance of these devices, we aim to contribute significantly to the advancement of energy technology. The improved efficiency and durability of energy storage systems and conversion devices, such as batteries and supercapacitors, are critical for meeting the growing global demand for sustainable energy solutions. Through our research, we strive to develop graphene-composite materials that can offer superior conductivity, stability, and overall performance, pushing the boundaries of current energy technologies.

Approach

Our focus is on the design and synthesis of suitable metal-organic or organo-metallic compounds using compatible and non-hazardous chemical moieties. This approach ensures that the materials we develop are safe to handle and environmentally friendly. By carefully selecting and engineering these compounds, we can create precursors that are ideally suited for use in printable paste or ink formulations. These materials are designed to be easily processed and applied, making them highly suitable for the demands of modern electronics manufacturing.

Target

The ultimate goal is the development of printable electronics paste or ink for next-generation electronics circuitry and assembly materials. By optimizing these materials for performance, we aim to create products that offer significant benefits in terms of conductivity, adhesion, and overall reliability. These advances will facilitate the creation of more efficient and compact electronic devices, supporting the continued miniaturization and performance enhancement of consumer electronics, medical devices, and other high-tech applications. Our research strives to set new standards in the field of printable electronics, providing a foundation for future innovations.

Approach

Our research involves a comprehensive study of the thermal properties of various product form factors of graphene and related 2-D materials-based polymer matrix composites. By understanding the behavior of these materials under different conditions, we can tailor them for specific applications. This includes examining their mechanical reinforcement capabilities and their efficiency in thermal management. Our approach emphasizes the development of materials that are both economically viable and superior in performance.

Target

The target is to develop efficient, economic, robust, and best-in-class thermal management materials for practical applications. These materials are crucial for maintaining the performance and longevity of electronic devices, particularly as they become smaller and more powerful. Effective thermal management is essential to prevent overheating and ensure the reliable operation of electronic components. Our goal is to produce advanced composites that not only enhance the mechanical properties of devices but also provide superior thermal conductivity, thereby addressing one of the key challenges in modern electronics assembly. Through our innovative research, we aim to support the development of next-generation electronic devices with improved performance and durability.