Fireproof air door adjusting valve function detector
By designing a fireproof damper regulating valve function detector, and utilizing a combination of a movable hammer and a telescopic handle, the problems of low detection efficiency and poor safety in existing technologies have been solved, achieving safe and efficient valve function testing.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-26
- Publication Date
- 2026-03-13
AI Technical Summary
The existing fireproof damper control valves lack dedicated testing tools, resulting in low efficiency and mechanical rebound hazards when the valve rotation positioning card's notched positioning bolt is pressed down for release.
A fireproof damper regulating valve function tester was designed, which includes a movable hammer, a telescopic handle and an operation positioning bayonet. The valve function test can be achieved safely and effectively by the cooperation of the slightly arc-shaped concave impact surface of the movable hammer with the temperature sensor positioning pin.
This technology enables convenient and safe testing of fireproof damper regulating valves, preventing operator injury and improving testing efficiency.
Smart Images
Figure CN223992693U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to a fireproof damper regulating valve function detector for fire protection systems. Background Technology
[0002] There are no dedicated testing tools for the existing fireproof damper regulating valves. During the testing process, the valve rotation positioning card's notched positioning bolt is released when pressed down, resulting in low operating efficiency and a risk of mechanical rebound. Summary of the Invention
[0003] This utility model provides a functional detector for a fireproof damper regulating valve. Its features include: a movable hammer 1 at one upper end, an upper telescopic handle 2 at the other upper end, an operation positioning bayonet 3 at one lower end, a lower telescopic handle 4 at the other lower end, and a support 5 in the middle. The upper and lower parts of the detector are connected by a rotating shaft 6 of the support 5. The impact surface 7 of the movable hammer 1 is slightly concave and arc-shaped. The movable hammer 1 itself is threaded and equipped with an adjusting nut 8 and a locking nut 9. Adjusting the adjusting nut 8 and the locking nut 9 allows the movable hammer 1 to be in the optimal operating position. The slightly concave and arc-shaped impact surface 7 of the movable hammer 1 facilitates convenient and effective positioning and pressing tests on the temperature sensor positioning bolt 10 of the fireproof damper regulating valve. The operation positioning bayonet 3 serves to lock and position the circular base 11 of the temperature sensor positioning bolt 10 of the fireproof damper regulating valve during testing. When the upper telescopic handle 2 and the lower telescopic handle 4 are properly extended, they facilitate labor-saving operation and prevent injury to the operator's hands from rebounding when the fireproof damper regulating valve is released. Operation process: The positioning latch 3 engages the circular base 11 of the temperature sensor positioning bolt 10 of the fire damper regulating valve. The impact surface 7 of the movable hammer 1 is naturally aligned with the top of the temperature sensor positioning bolt 10. By raising the upper telescopic handle 2 and fixing the lower telescopic handle 4, the temperature sensor positioning bolt 10 is easily pressed down and released, simulating the release of the fire damper regulating valve during a fire. In terms of design, the slightly arc-shaped concave shape of the impact surface 7 of the movable hammer 1 ensures that it does not affect the release process of the temperature sensor positioning bolt 10 after it is pressed down.
[0004] This invention enables convenient, effective, and safe testing of the function of fireproof damper regulating valves. Attached Figure Description
[0005] Figure 1 The structural schematic diagram of this utility model.
[0006] Figure 2 The schematic diagram shows the structure of the fireproof damper regulating valve in the released state, which is the subject of this utility model.
[0007] Figure 3 The schematic diagram shows the structure of the fireproof damper regulating valve in the reset state before release, which is the target of this utility model.
[0008] Figure 4 This utility model provides a schematic diagram of the functional test operation of the fireproof damper regulating valve in the reset state. Detailed Implementation
[0009] Example 1: See Figure 1 , Figure 2 , Figure 3 and Figure 4 A functional detector for a fireproof damper regulating valve is disclosed. The detector has a movable hammer 1 at one upper end and an upper telescopic handle 2 at the other upper end. An operation positioning bayonet 3 is located at one lower end of the detector, and a lower telescopic handle 4 is located at the other lower end. A support 5 is located in the middle. The upper and lower parts of the detector are connected by a rotating shaft 6 of the support 5. The impact surface 7 of the movable hammer 1 is slightly arc-shaped and concave. The movable hammer 1 itself is threaded and equipped with an adjusting nut 8 and a locking nut 9. The entire device is made of steel. The following tests are performed on the fireproof damper regulating valve using this detector:
[0010] When the fireproof damper regulating valve is in the released state ( Figure 2 ), Move the handle 15 of the fireproof damper regulating valve in the direction of the arrow. The positioning card 14 of the fireproof damper regulating valve passes through its guide slope 13 and presses down the elastic temperature sensor positioning bolt 10 of the fireproof damper regulating valve, so that the notch 12 of the positioning card 14 locks into the temperature sensor positioning bolt 10, forming a fireproof detection state. Figure 3 When performing functional testing during a simulated fire: see... Figure 1 , Figure 4 The fireproof damper regulating valve is tested using a fireproof damper regulating valve function detector. Figure 4 The operation is as shown. During testing, the operating positioning bayonet 3 of the fireproof damper regulating valve function detector is engaged with the circular base 11 of the temperature sensor positioning bolt 10 of the fireproof damper regulating valve. The impact surface 7 of the movable hammer 1 is naturally aligned with the top of the temperature sensor positioning bolt 10 of the fireproof damper regulating valve. By raising the upper telescopic handle 2 and fixing the lower telescopic handle 4, the impact surface 7 of the movable hammer 1 presses down the elastic temperature sensor positioning bolt 10. After the temperature sensor positioning bolt 10 is pressed down, the fireproof damper regulating valve releases its own energy storage spring force, causing the fireproof damper regulating valve to switch to [position]. Figure 2 The release state is shown. After completing the functional test, manually determine whether the tested fire-resistant regulating valve is functioning correctly and effectively.
Claims
1. A fire damper damper modulator valve function detector characterized by: The upper end of the detector is a movable hammer (1), the other end of the upper part of the detector is an upper telescopic handle (2), the lower end of the detector is an operating positioning bayonet (3), the other end of the lower part of the detector is a lower telescopic handle (4), and the middle is a support (5). The upper part and the lower part of the detector are connected through the rotating shaft (6) of the support (5), the impact surface (7) of the movable hammer (1) is a micro-arc concave shape, and the movable hammer (1) is provided with an adjusting nut (8) and a locking nut (9).