Accelerated aging device for structural sealant and accelerated aging method for structural sealant
An accelerated aging and sealant technology, which is applied in the direction of measuring devices, using repeated force/pulsation force to test the strength of materials, instruments, etc., can solve the problems of small fit, no consideration of stress, low accuracy and precision, etc.
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Embodiment 1
[0034] see figure 1 , figure 2 As shown, this embodiment relates to an accelerated aging device 10 for structural sealant. The structural sealant accelerated aging device 10 includes an aging simulation box 100, a temperature detection component 200, a light emitting component 300, a temperature regulator, a stretching component, a clamping component and a controller. Wherein the controller can be a PLC, most preferably the controller can be a computer, wherein the computer is installed with tensile cycle testing software.
[0035] The aging simulation box 100 satisfies the following conditions:
[0036] 1) The size of the working chamber is not less than 1000mm×500mm×300mm;
[0037] 2) Temperature range: -150°C—+500°C;
[0038] 3) Temperature deviation: ≤±1.0℃;
[0039] 4) Temperature fluctuation: ≤±0.5℃. For example, the aging simulation box 100 can use Shenzhen Sansi Zongheng SGDX70-150.
[0040] Furthermore, an air-cooled temperature regulator can also be used in t...
Embodiment 2
[0071] According to the accelerated aging method of the structural sealant in Example 1, the silicone structural sealant was prepared according to the provisions of 6.8.1 and 6.8.2 in GB16776-2005 to form a structural sealant test piece A for curing. Both sides of the structural sealant test piece A are glass substrates.
[0072] According to the design requirements of JGJ 102-2003, the standard tensile strength of silicone structural sealant is 0.14MPa. In this example, set the tensile strength value of the tensile drive part to 0.14MPa. The stretching cycle period of the stretching driving part is 8 seconds, that is, the loading stress time is 2 seconds, the holding time is 2 seconds, the stress unloading time is 2 seconds, and the next cycle starts after waiting for 2 seconds.
[0073] The thermostat was fixed at 70°C. Select two UV lamps with a wavelength of 400nm and an energy of 40W / m 2 Xenon lamp, cycle the structural sealant test piece A of the same batch 10000, 200...
Embodiment 3
[0075] According to the accelerated aging method of the structural sealant in Example 1, the silicone structural sealant was prepared according to the provisions of 6.8.1 and 6.8.2 in GB16776-2005 to form a structural sealant test piece B for curing. Both sides of structural sealant test piece B are glass substrates.
[0076] According to the design requirements of JGJ 102-2003, the standard tensile strength of silicone structural sealant is 0.14MPa. In this example, set the tensile strength value of the tensile drive part to 0.21MPa. The stretching cycle period of the stretching driving part is 6 seconds, that is, the loading stress time is 2 seconds, the holding time is 2 seconds, and the stress unloading time is 2 seconds, and the next cycle starts.
[0077] The thermostat was fixed at 90°C. Select two UV lamps with a wavelength of 340nm and an energy of 60W / m 2 Xenon lamp, cycle the structural sealant test piece B of the same batch 10000, 20000, 30000, 50000, 80000, 100...
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