Mechanc RF & Microwave Components

| Part Number | CRE141UMDS |
|---|---|
| Loss at Max. Frequency | 2.566 |
| Power at Max. Frequency | 0.042 kW |
| Outer Diameter | 3.58 |
| Min. Bend Radius (Static) | 15.00 |
| Velocity of Propagation | 70% |
| Flex Type | Semi-Rigid |
When repeatable chassis layouts must be routed through a defined cable geometry, CRE141UMDS supplies cost-efficient semi-rigid RF coaxial cable capability to 26.5 GHz. In the CRE141UMDS implementation at 3.58 mm, the cre family provides an economical semi-rigid format for fixed, repeatable paths inside filters, amplifiers and integrated microwave housings. Its individual values distinguish the CRE141UMDS coaxial cable within the Cost-Efficient Semi-Rigid Coaxial Cables range.
Its particular balance of bandwidth and size merits consideration in fixed microwave modules and filter and amplifier interconnects, especially where routing is decided early in the design. Broader geometry and performance choices are listed under Semi-Rigid Coaxial Cables when comparing alternatives to CRE141UMDS.
The maximum-frequency line item combines 26.5 GHz bandwidth, 2.566 dB/m attenuation and 0.042 kW power handling. The CRE141UMDS core uses a 0.92 mm silver plated copper inner conductor works with a 70% velocity of propagation. Delay modelling for CRE141UMDS can start from its documented 70% velocity-of-propagation figure.
Mechanical layout begins with a 3.58 mm profile, a 15.00 mm static bending requirement, and the stated -55 to +125 °C operating window. For CRE141UMDS, routing decisions should remain within the documented bend geometry rather than relying on a generic family assumption. Its 3.58 mm profile gives the CRE141UMDS RF cable a middle-ground geometry between miniature routing and larger power-oriented cables.
The individual data behind CRE141UMDS lets designers evaluate this Mechanc cable on its own electrical and mechanical merits. The Mechanc Shanghai Information Technology Co., Ltd. portfolio provides the wider context for CRE141UMDS and its intended RF role.