Industrial Consultancy & Sponsored Research (IC&SR) , IIT Madras

Electrochemical Semi Cylindrical Cell

Categories for this Invention

Categories: Electronics & Circuits | Chemistry & Chemical Analysis

IndustryElectrochemical Cells

Applications: Electrochemical Devices, Energy Technologies, Energy Science, Electrochemistry

Market: The global electrochemical cell market is estimated to be at US$ 23.73 B in 2023. It is expected to reach US$ 67.05 B by 2030, growing at 16% CAGR from 2023 to 2030.

Image Gallery

Problem Statement

  • Existing electrochemical cells are designed to study the working of electrode reaction kinetics at various Temperature, Pressure and Concentration in three-electrode system.
  • Current cells lack efficient methods to selectively heat working electrode for observing & enhancing reactions in a localized manner.
  • External heat sources, like infrared sunlight or industrial/vehicular exhaust heat, are not used well to improve electrochemical reactions in current cell designs.
  • Integrating external heat sources into the working electrode of H-cell system is the current challenge in cell design.
  • Addressing these challenges could improve our understanding of reactions at different temperatures, benefiting technologies like fuel cells and metal-air batteries by leveraging Temp. variations for optimized performance.
  • Hence, there is a need for a technology to heat the working electrode alone, enabling precise observation and optimization within an Electrochemical Cell setup.

Technology

  • The present patent invention discloses an Electrochemical Glass Semi-Cylindrical Cell designed with specific parts for precise control.

Temperature-Selective Control:

  • Enables precise temperature variation solely on the working electrode.
  • Facilitates the study of reaction kinetics at different temperatures for enhanced understanding.

Heat Harvesting and Localization:

  • Utilizes external heat sources like infrared sunlight or industrial heat for enhanced reactions.
  • Ensures effective localization of heat onto the working electrode for improved reaction observations.

Enhancement in Energy Devices:

  • Potential impact on fuel cells and metal-air batteries by optimizing reactions based on temperature variations.
  • Offers opportunities for improved efficiency and performance in energy conversion technologies.

Key Features / Value Proposition

User Perspective:

  • Enables precise control and study of reactions at varying temperatures.
  • Optimizes energy device performance by utilizing external heat sources.
  • Serves as a sophisticated tool for optimizing electrochemical reactions.

Industrial Perspective:

  • Maximizes industrial heat sources for improved energy device efficiency.
  • Offers potential advancements in fuel cell & batteries via temperature optimization.
  • Provides adaptable solutions for tailored electrochemical reaction studies.
  • To transcend traditional electrochemical kinetics measurement the potential benefits of integrating localized heating, especially through sunlight; goes beyond conventional electrochemical instrumentation & metrology.

Technical Perspective:

  • Enables precise heating of working electrode for localized reaction observation.
  • Efficiently integrates external heat sources into cell design.
  • Provides comprehensive insight of reaction kinetics at varying temperature conditions.

Questions about this Technology?

Contact For Licensing

sm-marketing@imail.iitm.ac.in
ipoffice2@iitm.ac.in

Research Lab

Prof. Tiju Thomas

Department of Metallurgical & Materials Engineering

Intellectual Property

  • IITM IDF No: 2272
  • IP No: 404435 (Granted)

Technology Readiness Level

TRL – 3

Proof of Concept

error: Content is protected !!