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Home»TRIZ Case»Efficient Resistor Design for Medical Implants

Efficient Resistor Design for Medical Implants

May 22, 20263 Mins Read
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Efficient Resistor Design for Medical Implants

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Summary

Problems

The production of electrical resistors for medical implants, such as defibrillators, is complex and costly due to the need for precise welding and metallization processes, which complicates the integration of resistors into the final assembly.

Innovation solutions

An electrical resistor design featuring a resistance conductor applied to a carrier layer with connection elements that can be welded or soldered, utilizing a metal layer as a heat sink and incorporating through-contact areas for efficient energy absorption and reduced resistance, allowing for simplified production and adaptive current limitation.

TRIZ Analysis

Specific contradictions:

electrical and mechanical requirements
vs
manufacturing process

General conflict description:

Reliability
vs
Device complexity
TRIZ inspiration library
2 Taking out (Extraction)
Try to solve problems with it

Principle concept:

If the resistor is etched from a base material and locally electroplated with nickel and gold, then the electrical and mechanical requirements are met, but the manufacturing process becomes complex and costly

Why choose this principle:

The patent extracts the metallization step entirely by using a carrier layer with pre-formed contact areas that have appropriate electrical and mechanical properties. The connecting elements are directly bonded to these contact areas without requiring electroplating, thus eliminating the complex nickel and gold electroplating process while maintaining reliability requirements.

TRIZ inspiration library
6 Universality (Multi-functionality)
Try to solve problems with it

Principle concept:

If the resistor is etched from a base material and locally electroplated with nickel and gold, then the electrical and mechanical requirements are met, but the manufacturing process becomes complex and costly

Why choose this principle:

The carrier layer serves multiple functions: it provides mechanical support, contains the contact areas for electrical connection, and enables direct bonding of connecting elements. This multi-functional design eliminates the need for separate metallization and insulation layers, simplifying the manufacturing process while meeting all electrical and mechanical requirements.

Application Domain

resistor design medical implants thermal management

Data Source

Patent EP3514806B1 Electrical resistor, particularly for medical implants
Publication Date: 02 Jun 2021 TRIZ 电器元件
FIG 01
IMGF0001
FIG 02
IMGF0002
FIG 03
IMGF0003
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AI summary:

An electrical resistor design featuring a resistance conductor applied to a carrier layer with connection elements that can be welded or soldered, utilizing a metal layer as a heat sink and incorporating through-contact areas for efficient energy absorption and reduced resistance, allowing for simplified production and adaptive current limitation.

Abstract

The invention relates to an electrical resistor (1) comprising: a resistance conductor (2) applied to a carrier layer (3), and two connection elements (4) electrically connected to the resistance conductor (2). According to the invention, the two connection elements (4) are configured to be welded or soldered to an electrical contact for electrical contacting the resistor (1), and the resistance conductor (2) has a region (20) overlapping with the respective connection element (4), which electrically contacts the respective connection element (4).

Contents

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    medical implants resistor design Thermal Management
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    Table of Contents
    • Efficient Resistor Design for Medical Implants
      • Summary
      • TRIZ Analysis
      • Data Source
      • Accelerate from idea to impact
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