Moisture can be harmful to implantable medical devices that operate with electronics. The excess moisture can cause oxidation and dendritic growth in metal parts and wires, and can cause many problems including a fatal electrical shortage or complete device failure as worst case scenarios.
The biocompatibility of silicone is important for medical devices. This article offers a brief overview on the types of silicone that can be used in the different classes of medical devices, the required molding processes, and additional quality considerations.
A common myth is that larger pixel size image sensors are always more sensitive than smaller pixel size image sensors. To explain that this isn’t always the case, this paper will look at the effect that the pixel size has on image quality, especially for the overall sensitivity, which is determined by the quantum efficiency.
The medical device industry is familiar with quality audits, but is less familiar with the benefits of having a cultural audit to assess the competence, dedication, and passion that each party brings to the table.
Collaborating with a lighting expert can help ensure that a medical device’s lighting system is optimized for the instrument design while keeping manufacturing costs down and streamlining the path from product idea to operating room.
Designing robust products with fiber optics components for everything from medical instruments to jet planes not only demands optical considerations, but thermal, electrical, and mechanical requirements.
Problem solving is what drives the medical device industry. For OEMs to successfully produce medical solutions, they often need to overcome manufacturing challenges. Whether manufacturing a micro component in-house or working with another molding supplier, sometimes OEMs hit roadblocks.
Unique manufacturability and production properties in plastics are increasingly being utilized in the development of medical devices and medical packaging. This article discusses material biocompatibility, as well as the tested biocompatibility of plastics in medical devices.
Liquid crystal polymers (LCPs) have been adapted to a variety of uses, including the development of catheters in the medical industry. This article discusses the use of LCPs and how ZEUS has exploited their properties to produce a monofilament fiber for the construction of a fully MRI-compatible catheter.
ZEUS has improved upon PTFE extrusion technology by producing an ultra-thin-walled PTFE catheter liner for the Sub-Lite-Wall® StreamLiner™ series. These liners make for a sturdier, more robust finished device while retaining sufficient functional properties such as torquability pushability, and flexibility.
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