Close Menu
  • About
  • Products
    • Find Solutions
    • Technical Q&A
    • Novelty Search
    • Feasibility Analysis Assistant
    • Material Scout
    • Pharma Insights Advisor
    • More AI Agents For Innovation
  • IP
  • Machinery
  • Material
  • Life Science
Facebook YouTube LinkedIn
Eureka BlogEureka Blog
  • About
  • Products
    • Find Solutions
    • Technical Q&A
    • Novelty Search
    • Feasibility Analysis Assistant
    • Material Scout
    • Pharma Insights Advisor
    • More AI Agents For Innovation
  • IP
  • Machinery
  • Material
  • Life Science
Facebook YouTube LinkedIn
Patsnap eureka →
Eureka BlogEureka Blog
Patsnap eureka →
Home»TRIZ Case»Efficient Heat Dissipation in Electrical Wires Using Conduction Path Design

Efficient Heat Dissipation in Electrical Wires Using Conduction Path Design

May 22, 20264 Mins Read
Share
Facebook Twitter LinkedIn Email

Efficient Heat Dissipation in Electrical Wires Using Conduction Path Design

Want An AI Powered R&D Assistant ?
Here’s PatSnap Eureka !
Go to Seek

Summary

Problems

Existing methods for heat dissipation in electrical wires, such as those in vehicles, face challenges due to low thermal conductivity of air and potential deformation of insulating covers leading to reduced heat dissipation, especially with larger wire cross-sectional areas.

Innovation solutions

A conduction path design featuring a wire with an insulating cover and a routing member with a curved groove and cover configuration that minimizes pressure on the wire, allowing efficient heat transfer through the routing member and cover while preventing deformation and permanent gaps, using a metal routing member and cover for enhanced thermal conductivity and electromagnetic shielding.

TRIZ Analysis

Specific contradictions:

heat dissipation efficiency
vs
heat dissipation capacity

General conflict description:

Temperature
vs
Productivity
TRIZ inspiration library
24 Intermediary (Mediator)
Try to solve problems with it

Principle concept:

If a heat-dissipating cover member with high thermal conductivity is provided on the insulating cover, then heat dissipation efficiency is improved, but the thermal conductivity of air limits further heat dissipation enhancement

Why choose this principle:

The patent introduces a cooling member as an intermediary element between the wire and the surrounding environment. This cooling member has a cooling surface that directly contacts the insulating cover and conducts heat away from the wire, serving as a mediator to overcome the low thermal conductivity of air and enhance heat dissipation capacity

TRIZ inspiration library
17 Another dimension (Dimensionality change)
Try to solve problems with it

Principle concept:

If a heat-dissipating cover member with high thermal conductivity is provided on the insulating cover, then heat dissipation efficiency is improved, but the thermal conductivity of air limits further heat dissipation enhancement

Why choose this principle:

The patent transitions from a one-dimensional heat dissipation approach (cover member on insulating cover) to a multi-dimensional approach by introducing a routing groove structure with a cooling member that creates additional heat transfer paths through the groove walls and cooling surface, effectively utilizing three-dimensional space for heat dissipation

Application Domain

heat dissipation conduction path thermal management

Data Source

Patent US20210229607A1 Conduction path
Publication Date: 29 Jul 2021 TRIZ 电器元件
FIG 01
US20210229607A1-D00001
FIG 02
US20210229607A1-D00002
FIG 03
No figure available
Login to view Image

AI summary:

A conduction path design featuring a wire with an insulating cover and a routing member with a curved groove and cover configuration that minimizes pressure on the wire, allowing efficient heat transfer through the routing member and cover while preventing deformation and permanent gaps, using a metal routing member and cover for enhanced thermal conductivity and electromagnetic shielding.

Abstract

A conduction path includes: a wire that has a circular cross section and includes a conductive body having an outer periphery covered by an insulating cover; a routing member that includes a routing groove in which the wire is routed; and a cover that is configured to be attached to the routing member and to cover the routing groove, wherein a curved surface having a curvature radius that is larger than the radius of the wire is formed in an inner surface of the routing groove, and in a state in which the cover is attached to the routing member, a distance between the cover and the inner surface of the routing groove in a direction that is perpendicular to an inward surface of the cover is the same length as the diameter of the wire.

Contents

    Accelerate from idea to impact

    Eureka harnesses unparalleled innovation data and effortlessly delivers breakthrough ideas for your toughest technical challenges.

    Sign up for free
    conduction path heat dissipation Thermal Management
    Share. Facebook Twitter LinkedIn Email
    Previous ArticleOriented Cathode Design for High-Performance Lithium Batteries
    Next Article Void-Free Contact Structures for Reliable Semiconductors

    Related Posts

    Balancing Bipolar High-Voltage Generators for X-Ray Systems

    May 22, 2026

    Additive Manufacturing Build Platform for Reduced Thermal Distortion

    May 22, 2026

    Floating PCB Design to Prevent Connector Stress

    May 22, 2026

    Compact Hydraulic Brake Control for Automated Vehicles

    May 22, 2026

    Efficient Sensor Cleaning with Dual-Pulse Control

    May 22, 2026

    Carbon Material Innovation for High-Performance Lithium Batteries

    May 22, 2026

    Comments are closed.

    Start Free Trial Today!

    Get instant, smart ideas, solutions and spark creativity with Patsnap Eureka AI. Generate professional answers in a few seconds.

    ⚡️ Generate Ideas →
    Table of Contents
    • Efficient Heat Dissipation in Electrical Wires Using Conduction Path Design
      • Summary
      • TRIZ Analysis
      • Data Source
      • Accelerate from idea to impact
    About Us
    About Us

    Eureka harnesses unparalleled innovation data and effortlessly delivers breakthrough ideas for your toughest technical challenges. Eliminate complexity, achieve more.

    Facebook YouTube LinkedIn
    Latest Hotspot

    Vehicle-to-Grid For EVs: Battery Degradation, Grid Value, and Control Architecture

    May 12, 2026

    TIGIT Target Global Competitive Landscape Report 2026

    May 11, 2026

    Colorectal Cancer — Competitive Landscape (2025–2026)

    May 11, 2026
    tech newsletter

    35 Breakthroughs in Magnetic Resonance Imaging – Product Components

    July 1, 2024

    27 Breakthroughs in Magnetic Resonance Imaging – Categories

    July 1, 2024

    40+ Breakthroughs in Magnetic Resonance Imaging – Typical Technologies

    July 1, 2024
    © 2026 Patsnap Eureka. Powered by Patsnap Eureka.

    Type above and press Enter to search. Press Esc to cancel.