Medical

Service Overview

As the medical device industry continues to flourish, OEMach, as a professional provider of medical device parts machining services, remains committed to building a solid safeguard for health and wellness through exceptional product quality. We have cultivated deep expertise in the field of precision mechanical parts machining, leveraging advanced CNC machining technologies and high-precision equipment to establish a rigorous and comprehensive quality management system. In response to the medical device industry’s demand for a wide variety of products in small batches, we provide customers with one-stop, full-spectrum services covering everything from R&D and design to large-scale production.

Whether it is high-precision surgical instrument components—such as scalpel blades and endoscope biopsy channels—or complex structural parts for medical equipment, including core drive components for CT scanners or precision air circuit modules for ventilators, OEMach easily meets the challenges of multi-variety, small-batch customized orders thanks to the flexible production capabilities of our CNC machining equipment. Throughout the manufacturing process, we maintain strict control over every step, utilizing advanced inspection equipment and systematic management procedures to minimize errors, ensuring both the precision of a diverse range of components and the quality consistency of small-batch production.

With a commitment to professionalism, efficiency, and safety, OEMach is deeply involved in the innovative development of the medical device industry, crafting every component with meticulous attention to detail, safeguarding every heartbeat, and becoming a trusted partner to medical device manufacturers.

Form

Material Process

Material selection is carried out based on the design requirements of medical devices, with priority given to materials that meet medical standards, such as medical-grade stainless steel, titanium alloys, plastics, and rubber. Next, raw blanks are prepared using casting, forging, injection molding, or other methods, depending on the material properties and part geometry. This is followed by mechanical or special processing steps, where techniques such as turning, milling, grinding, electrical discharge machining, and laser processing are employed to precisely shape the parts and achieve the required dimensions. Multiple quality inspections are conducted throughout the manufacturing process, including dimensional measurements, surface roughness testing, and non-destructive testing. Finally, surface treatments such as passivation and coating are applied to enhance the biocompatibility and corrosion resistance of the parts, with some components also requiring sterilization.

Medical Device Parts Machining Services | Surgical Tools & Implants | OEMach

Processing Materials

Processing materials include: stainless steel, titanium alloy, medical grade plastics, medical rubber, etc

Medical-Grade Rubber

Medical-Grade Rubber: Materials such as silicone rubber and polyurethane rubber possess excellent elasticity, flexibility, and biocompatibility, making them suitable for producing medical seals, catheters, balloons, and other components that require safe and stable performance within the human body.

Medical-Grade Plastics

Medical-grade plastics such as polylactic acid (PLA) and polyether ether ketone (PEEK) are characterized by their light weight, ease of processing, and excellent biodegradability or biostability. PLA is commonly used for manufacturing absorbable sutures and other disposable medical devices, while PEEK is employed in the production of advanced orthopedic implants and dental restoration materials, offering long-term stability within the human body

Titanium Alloy

Titanium alloys such as Ti-6Al-4V feature low density, high strength, and exceptional biocompatibility, making them ideal materials for orthopedic implants such as artificial joints and spinal fixation devices. Its outstanding mechanical properties and biocompatibility significantly reduce the risk of rejection after implantation.

Stainless Steel

Stainless steels such as 304 and 316 offer excellent corrosion resistance, strength, and biocompatibility, making them widely used in the production of surgical instruments, medical implants (such as suturing staples and bone screws), and medical device housings. Their ease of machining and stability ensure that components can be used reliably over the long term in complex medical environments.

Application Fields

Application areas include surgical instruments, orthopedic medical equipment, medical diagnostic equipment, rehabilitation medical equipment, etc

Rehabilitation Medical Devices: This covers the machining of parts for rehabilitation equipment such as wheelchairs, prosthetics, and orthoses. Precision machining based on ergonomic design ensures comfort, adaptability, and functionality, supporting patient recovery.

Medical Diagnostic Equipment: This includes the machining of internal precision components for large diagnostic devices such as CT and MRI machines, as well as key parts for home diagnostic devices like blood glucose meters and blood pressure monitors. The precision and stability of these components ensure the accuracy and reliability of diagnostic data.

Orthopedic Medical Devices: This covers the machining of implant components such as artificial joints, bone plates, and intramedullary nails, with stringent control over dimensional accuracy and surface quality to ensure optimal integration with the patient’s bone and restoration of skeletal function after implantation.

Surgical Instruments: This includes the machining of parts for scalpels, forceps, scissors, puncture needles, and other surgical tools, all of which demand high-precision machining to ensure sharpness, operational flexibility, and durability, thereby supporting safe and precise surgical procedures.