The "fast-curing" technology for bonding materials enhances production efficiency and is well-suited for automated manufacturing environments.

In automated production lines, the curing speed of adhesive materials directly affects the production cycle time, while the application of "rapid curing" technology has significantly boosted manufacturing efficiency, marking a major technological breakthrough in the field of adhesives. Rapid-curing adhesives can achieve complete solidification within just seconds to minutes, eliminating the need for prolonged baking processes, making them ideal for automated assembly scenarios involving automotive parts, electronic components, and more.

2025-09-09

In automated production lines, the curing speed of adhesive materials directly affects the production cycle time. The application of "rapid curing" technology has significantly boosted manufacturing efficiency, marking a major technological breakthrough in the field of adhesives. Rapid-curing adhesives can achieve complete solidification within just seconds to minutes, eliminating the need for prolonged baking processes, making them ideal for automated assembly scenarios such as automotive parts and electronic components.
R&D personnel explained that fast-curing adhesive materials are primarily achieved through two key technological approaches: First, by employing a light-curing system, where an initiator rapidly decomposes under ultraviolet or visible light exposure, generating free radicals that trigger cross-linking and solidification of the resin matrix. Second, by utilizing a quick-drying chemical curing system, which shortens the curing reaction time through optimized formulations of curing agents. Take the bonding of electronic components as an example: Traditional epoxy adhesives typically require 24 hours for complete curing at room temperature. In contrast, the fast-curing adhesive can reach 80% cure within just 10 seconds of UV irradiation, with full curing completed in no more than 5 minutes. Moreover, these fast-curing adhesives retain excellent bonding strength and outstanding aging resistance. During high-and-low temperature cycling and humidity-heat environment tests, their bonding performance degradation remained below 10%, easily meeting the stringent quality standards required for automated manufacturing processes.

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