Background of the case
Recently, a client with whom we work is working on the development of a new generation of intelligent driving vehicles and is facing the challenge of a tight timeline for testing the prototypes of the key components in the intelligent cockpit. The design plans for components such as the housing for integrating multiple sensors in the cockpit and the housing for the domain controller have been finalized, and it is necessary to produce all the prototypes within 10 days in order to conduct tests on actual vehicles. Traditional machining and molding methods would take more than 30 days to complete these tasks, which creates significant pressure on the project timeline. Given the tight deadlines and high quality requirements, the client turned to its existing suppliers right away, but all of them stated that they could not deliver the products on time. The traditional processes of mold making and injection molding are slow, and it is not possible to manufacture complex components, apply surface coatings, or handle logistics within such a short period of time. As a result, the client’s intelligent driving development project was put on hold, with the risk of delays in testing and setbacks in the overall project progress.
Solutions and project outcomes
To overcome the delivery challenges and ensure the customer’s research and development progress, the customer promptly reached out to the RPS team. Upon receiving the request, RPS activated its emergency response mechanism, abandoning traditional manufacturing methods in favor of 3D printing technology to develop solutions that met the customer’s requirements, thereby accelerating the production process. The team worked around the clock to optimize printing parameters and fine-tune various processes, ensuring that the complex curved surfaces and precise assembly requirements of the smart cockpit components were met. Additionally, sophisticated spraying and light-transmission treatment processes were applied to ensure that the appearance, texture, and functional performance of the components satisfied all specifications. Thanks to its efficient production capabilities and advanced manufacturing techniques, RPS managed to complete the production and spraying of 16 key components for the smart cockpit within just a week, with all components passing the customer’s quality checks right away. To minimize delays and ensure timely delivery, the team skipped rest time and traveled by high-speed train on Saturday to deliver the components and conduct on-site assembly tests.
In the end, RPS helped the customer carry out the road tests for the smart driving system as planned, successfully resolving the urgent delivery crisis. This case highlights RPS’s ability to respond quickly to emergencies, its advanced 3D printing technologies, and its commitment to providing excellent service. With its efficient and reliable performance, RPS has been able to support the customer’s research and development efforts in smart driving, earning the customer’s high praise and trust.