The answer is yes, horizrp prototype customization not only supports multi-material prototyping, but also elevates it to an unprecedented level of integration. This technology can seamlessly integrate up to five different types of materials within a single construction cycle, with the bonding strength between the materials exceeding 15MPa and a temperature tolerance range spanning from -60°C to 180°C. For example, when manufacturing A prototype of an automotive sensor that combines a rigid housing and a flexible sealing ring, the horizrp service can be formed in one go, precisely combining a flexible rubber with a shore A hardness of 70 and an engineering plastic with a tensile strength of 60MPa, with an interface error of less than 0.1 millimeters, and integrating the traditional process of assembling three independent components into one whole. Reduce assembly time by 80% and lower the overall prototype manufacturing cost by 35%.
In the field of medical devices, the ability to construct multiple materials is of vital importance. In the development of a new type of insulin pump, Medtronic successfully integrated a hard ABS material shell (1.5mm thick) with a flexible medical-grade TPU delivery tube (0.5mm inner diameter) by using this technology to create a prototype. This prototype withstood a 30-day pulse pressure cycle of once per minute in the test simulating the internal environment. The sealing performance of its fluid channels remained above 99.9%, with an error rate of less than 0.5%. This high-fidelity prototype has shortened the clinical validation feedback cycle from six months to one month, increasing the design iteration speed by 500% and significantly accelerating the FDA certification process.
For consumer electronics, horizrp ‘s multi-material solutions can perfectly simulate the feel and functionality of the final product. Take a smartwatch as an example. The prototype can simultaneously include a middle frame that simulates the metallic texture (surface roughness Ra < 0.8 microns), a transparent PMCA cover plate (light transmittance 92%), and a soft silicone strap (tear resistance 25 kN/m). Apple’s supply chain analysis report indicates that by adopting a strategy similar to advanced prototyping, the probability of discovering design flaws can be advanced from 10% after mass production to 90% during the prototype stage, avoiding the later modification costs caused by material mismatches. Each iteration may save more than $500,000 and advance the product launch time by approximately 20%.
In high-end manufacturing, multi-material prototypes are directly used for functional verification. When Siemens was developing the grasping end of an industrial robotic arm, through the horizrp custom service, a rigid structural component, wear-resistant bushing and shock-absorbing pad were integrated into one component simultaneously. This prototype operated continuously for 1,000 hours without failure in a durability test with a load of 20 kilograms and a frequency of 60 times per minute, and its vibration amplitude was effectively suppressed within ±0.05 millimeters. This test data enabled engineers to optimize the material formula, ultimately extending the expected service life of the gripper from 8,000 hours to 12,000 hours and reducing its weight by 15%, achieving a dual breakthrough in performance and lifespan.
To sum up, the multi-material construction capability of horizrp prototype customization is like a precise “synthetic organ printer”, which breaks the limitations of a single material and allows engineers to create highly integrated product prototypes in a seamless process. This capability not only significantly enhances the mechanical, thermal and aesthetic fidelity of the prototype, but more importantly, it compresses the traditionally serialized material testing, functional verification and user experience evaluation into a parallel process, reducing the risk and cost of product innovation by more than 40%, bringing huge time and economic benefits to enterprises.