Temperature adjustment device

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Solution Overview

Problem

The existing temperature adjustment devices using resin as channel plates are prone to creep deformation under time-dependent loads, which can lead to leakage and reduced sealing performance.

Innovation Solution

Incorporating a spacer member with higher compressive strength than the channel plates, positioned between the channel plates and heat transfer plates, to control creep deformation and maintain sealing efficiency.

Engineering Contradictions & Design Principles

VSEngineering Contradiction Analysis

1Ease of manufacture

If resin is used as channel plates for temperature adjustment, then the device achieves good sealing performance and ease of manufacture, but creep deformation occurs under time-dependent load

Engineering Contradiction:
Improveease of manufactureVSAvoidstability of channel plate shape
Core Design Contradiction:
Ease of manufactureVSStability of the object's composition

Solution Approach 1:

The invention uses a composite structure where a resin channel plate is combined with a metal reinforcement plate. The resin provides sealing performance and ease of manufacture, while the metal plate provides high compressive strength to prevent creep deformation. This composite approach allows both materials to contribute their advantageous properties to the overall structure.

Inventive Principle:
Principle #40Composite materials

Solution Approach 2:

The channel plate is divided into two functional segments: the resin channel plate for sealing and fluid passage, and the metal reinforcement plate for structural support. This segmentation allows each component to be optimized for its specific function while working together as an integrated assembly.

Inventive Principle:
Principle #1Segmentation

2Device complexity

If resin channel plates are used in temperature adjustment devices, then the device structure is simple and cost-effective, but large creep deformation occurs due to time-dependent load

Engineering Contradiction:
Improvedevice complexityVSAvoidcompressive strength of channel plate
Core Design Contradiction:
Device complexityVSStrength

Solution Approach 1:

By combining resin and metal materials in a composite structure, the invention achieves high compressive strength from the metal plate while maintaining the overall simplicity and cost-effectiveness of the device. The metal reinforcement plate is strategically positioned to provide strength where needed without adding excessive complexity.

Inventive Principle:
Principle #40Composite materials

Solution Approach 2:

The metal reinforcement plate acts as an intermediary element between the resin channel plate and the external loading forces. It mediates the mechanical stress, protecting the resin material from direct exposure to high compressive loads that would cause creep deformation.

Inventive Principle:
Principle #24Intermediary (Mediator)

3Ease of manufacture

If resin is used as the channel plate material, then the device is easy to manufacture with good sealing, but the sealing performance deteriorates over time due to creep deformation

Engineering Contradiction:
Improveease of manufactureVSAvoidsealing performance reliability
Core Design Contradiction:
Ease of manufactureVSReliability

Solution Approach 1:

The composite structure of resin channel plate with metal reinforcement maintains sealing performance reliability over time. The metal plate prevents creep deformation that would otherwise compromise the sealing interface, while the resin maintains its sealing properties without undergoing time-dependent deformation.

Inventive Principle:
Principle #40Composite materials

Solution Approach 2:

The metal reinforcement plate provides beforehand cushioning against creep deformation forces. By pre-positioning this high-strength element, the structure is prepared in advance to resist time-dependent loads that would otherwise cause sealing failure, thereby maintaining reliability throughout the device's operational life.

Inventive Principle:
Principle #11Beforehand cushioning (Prior cushioning)

Applied Scientific Principles

This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.

Function Achieved in This Case

The solution effectively controls creep deformation and maintains the sealing performance over time, preventing leakage and ensuring consistent temperature adjustment in the device.

Implementation Method 1

resin is a material that is likely to undergo creep deformation, there is a possibility that large creep deformation due to a time-dependent load is generated

Methodology Applied
Scientific EffectCreep deformation: Creep

Implementation Method 2

the spacer member has higher compressive strength than the channel plates

Methodology Applied
Scientific EffectCompressive strength: Compression

Implementation Method 3

a pair of heat transfer plates that respectively faces the channel grooves respectively provided in the pair of channel plates

Methodology Applied
Scientific EffectHeat transfer: Conduction (thermal)

Data Source

PatentUS20250012488A1Temperature adjustment device
Publication Date: 2025.01.09 KELK LTD
  • US20250012488A1 patent drawing
  • US20250012488A1 patent drawing
  • US20250012488A1 patent drawing

AI summary

To control creep deformation due to a time-dependent load. A temperature adjustment device includes: a pair of channel plates 40 each of which has a front surface 40A and a channel groove 42 provided in at least a part of the front surface 40A; a pair of heat transfer plates 11 that respectively faces the channel grooves 42 respectively provided in the pair of channel plates 40; a seal member 47 that seals a boundary between the front surface 40A of each of the channel plates 40 and each of the heat transfer plates 11; a spacer member 41 that is arranged in a manner of facing back surfaces 40B of the channel plates 40 and is arranged in at least a part of a region immediately below the seal member 47; and a bolt 60 and a nut 61 that fasten the pair of channel plates 40 and the pair of heat transfer plates 11 in an overlapped state. The spacer member 41 has higher compressive strength than the channel plates 40.