Longsheng

Project Background:An automotive supplier required high-strength components to reinforce electric vehicle (EV) charging infrastructure, prioritizing safety, thermal stability, and mechanical performance.

Challenge: The client aimed for seamless integration of metal inserts into high-strength plastics to ensure reliable charging solutions that could endure thermal variations and high stress.

Solution: By implementing advanced insert molding technology, we produced components that combined heat resistance and mechanical durability, while meeting automotive industry safety standards.

Results: The components provided exceptional thermal resistance, contributing to safe, efficient EV charging stations that performed beyond expectations and enhanced system longevity.

Project Background:A medical device manufacturer sought precision parts for surgical instruments, needing to integrate biocompatible plastics with stainless-steel inserts in a sterile environment.

Challenge: The manufacturer’s goal was to ensure mechanical integrity, bio-compatibility, and ease of sterilization in every component while maintaining tight tolerances.

Solution: Using state-of-the-art insert molding, we produced parts that were both durable and biocompatible, ensuring strong adhesion between materials and meeting stringent regulatory requirements.

Results: The parts successfully passed regulatory inspections and performed flawlessly in clinical trials, ensuring a smooth market launch and contributing to high levels of patient safety.

Project Background:A consumer electronics brand needed insert-molded connectors for their next-gen devices, requiring a combination of electrical reliability and long-term durability.

Challenge: The brand sought components that would provide consistent electrical performance and endure repeated use, while maintaining tight dimensional tolerances for compact device designs.

Solution: We applied precision insert molding to create electrical connectors that maintained electrical integrity, even after extensive wear and tear, while ensuring high mechanical reliability.

Results: These connectors enhanced the performance of consumer electronics and ensured long-lasting durability, boosting the reliability and lifespan of the devices.

Project Background:A home appliance manufacturer required insert-molded parts for their new line of kitchen appliances, particularly focusing on parts that would endure high heat and prolonged use.

Challenge: The manufacturer was focused on ensuring that the components could withstand heat and mechanical stress from frequent use in high-temperature kitchen environments.

Solution: Our insert molding process used heat-resistant materials and carefully placed brass inserts to ensure parts were durable and could maintain mechanical integrity under high-heat conditions.

Results: The kitchen appliance parts performed well in demanding conditions, ensuring the reliability of appliances and increasing their lifespan in real-world usage.

Project Background:An industrial equipment company sought insert-molded parts to ensure heavy-duty performance in challenging environments, particularly with regard to corrosive and high-stress conditions.

Challenge: The priority was to develop components that could endure high mechanical stress, while remaining resistant to corrosion and ensuring the long-term performance of the machinery.

Solution: By using specialized materials and over-molding processes, we created robust, corrosion-resistant insert-molded parts that met performance specifications even under extreme conditions.

Results: The parts significantly improved machinery performance in harsh environments, reducing maintenance costs and ensuring reliability throughout their operational lifespan.