Super Thin Copper Magnet Wire 0.012 - 0.8mm UEW / PEW For Computer
Using ultra-fine wires to manufacture inductive components and
provide connectivity within miniature
devices requires the interplay of several innovative technologies.
These technologies are predicated
on an array of methods for handling copper and other metal wires at
any diameter, down to the finest serially
manufactured size of 56 AWG (0.012mm). Handling wires which can be
5‑10 times thinner than a
human hair is a non-trivial challenge, especially if the expected
final shape of the wound coil is constrained
by a long list of physical and environmental factors, and must meet
very strict tolerance requirements. The
machinery used for winding such coils, which controls and monitors
the wire’s position and tension at any
given time during the winding process, is in most cases
custom‑built by the coil manufacturer, and requires
state‑of‑the‑art micro‑motion and control systems. As a result,
only a handful of manufacturers in the world
claim to have the technical capability to serially manufacture
coils that small.
Features and benefits:
The use of innovative ultra-fine wire technologies opens a
limitless range of new possibilities to designers of
miniaturization based medical equipment. The growing need to access
very dense body regions, while minimizing interference with the
body’s regular functioning, reducing energy consumption and
lengthening implanted components’ lifetimes, underscores the
importance of miniaturization in medical devices. Thus, for
example, a miniature coil manufactured as the navigation component
in a cardio‑vascular catheter
performing cardiac ablation. This component, serving as a key
element in a disposable catheter, is a typical
example of the technological ability to mass‑produce a miniature
component having a high and predictable
quality at a reasonable cost. We foresee that as designers become
more aware of these advanced technologies and the variety of
applications that can utilize them, their usage will become
increasingly widespread
Certificates:
ISO 9001-2000, ISO TS 16949, ISO 14001-2004,
UL Approved, RoHS Directive Met
Application:
1. Transferring energy to implants requiring battery charging or
electrical charge input to activate and
operate their systems
2. Radiating energy for RF treatments, heat treatments, or
electromagnetic radiation‑based treatments
3. In‑vivo magnetic navigation, employing a local or external
magnetic field
Specification:
