一种用于耐高温柔性材料高温性能测试箱
By designing a high-temperature performance testing chamber suitable for high-temperature resistant flexible materials, and adopting a heat insulation structure with a wire mesh frame and adjustable clamp support, the problem that traditional devices cannot test these materials has been solved, achieving efficient and accurate material performance evaluation.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- DALIAN JIAOTONG UNIVERSITY
- Filing Date
- 2025-06-23
- Publication Date
- 2026-07-17
AI Technical Summary
Traditional high-temperature performance testing equipment cannot meet the testing requirements of high-temperature resistant flexible materials, especially due to significant differences in size and protection.
A high-temperature performance testing chamber for high-temperature resistant flexible materials was designed. It adopts a wire mesh frame with internal and external heat insulation layers arranged inside and outside. The clamps and supports are adjustable, and the shape and size of the through slots are adjustable to adapt to different materials. It uses aerogel or ceramic fiber heat insulation materials.
It enables effective testing of high-temperature resistant flexible materials, meets the size requirements of different materials, improves testing accuracy and safety, and is suitable for large-scale mass production.
Smart Images
Figure CN224518622U_ABST
Abstract
Claims
1. A high temperature performance test chamber for high temperature resistant flexible materials, characterized in that, It includes a box body (1), a clamp (8) and a bracket (7); an internal heat insulation layer (3) and an external heat insulation layer (4) are arranged inside and outside the wire mesh frame (2) respectively to form a box body (1) with an open front; the box body (1) is fixed by the clamp (8), and an upper through groove (5) and a lower through groove (6) are opened at the top and bottom of the box body (1) respectively.
2. The high temperature performance test chamber for high temperature resistant flexible material of claim 1, wherein, The upper through groove (5) and the lower through groove (6) are both narrow and long, and the projection of the upper through groove (5) at the bottom coincides with the lower through groove (6).
3. The high temperature performance test chamber for high temperature resistant flexible material of claim 1, wherein, The wire mesh frame (2) is formed by interlacing horizontal and vertical metal rods to create a cubic frame structure with notches.
4. The high temperature performance test chamber for high temperature resistant flexible material of claim 1, wherein, The bracket (7) includes a base (71), a vertical support column (72) and a movable arm (73). The vertical support column (72) is vertically fixed on the base (71). The vertical support column (72) and the movable arm (73) are connected by a pivot. The movable arm (73) can rotate around the pivot to achieve angle adjustment. The movable arm (73) and the clamp (8) are connected by a pivot.
5. The high temperature performance test chamber for high temperature resistant flexible material of claim 4, wherein, The vertical support column (72) includes an inner rod (721) and an outer cylinder (722). The outer cylinder (722) is a hollow column fixed on the base (71). The inner cylinder has a reserved sliding space to match the inner rod (721). The inner rod (721) can slide freely along the axial direction of the outer cylinder (722). The inner rod (721) is tightened by a set screw to restrict the relative sliding between the inner rod (721) and the outer cylinder (722).
6. The high temperature performance test chamber for high temperature resistant flexible material of claim 4, wherein, The clamp (8) has a C-shaped opening structure, and a butterfly bolt (9) is provided on the top of the clamp (8) to ensure that the box (1) is clamped.
7. The high temperature performance test chamber for high temperature resistant flexible material of claim 1, wherein, The internal insulation layer (3) and the external insulation layer (4) are aerogel layers, aluminum silicate ceramic fiber layers, or mullite fiber layers.