DIN F BH LMR 400 CRIMP

The DIN F BH LMR 400 crimp connector is a specialized RF (radio frequency) connector designed to work with LMR 400 coaxial cables. This connector is widely used in telecommunications, broadcasting, and various RF applications. Here’s a detailed breakdown of its characteristics and features:

Detailed Description:
Connector Type:

DIN F: Refers to a DIN-style connector with a female interface. “DIN” stands for Deutsche Industrie-Norm, a set of standards by the German Institute for Standardization.
BH: The “BH” (BulkHead) in the designation typically indicates a specific variant or design within the DIN family, often signifying particular features or mounting styles. It could also refer to the connector’s body or housing style.
LMR 400: The connector is specifically designed for use with LMR 400 coaxial cables, which have a 0.405-inch (10.3 mm) diameter. LMR 400 is known for its low-loss properties and is used in high-frequency applications.
Crimp Connection:

Crimping: This method involves attaching the connector to the coaxial cable using a crimping tool. A metal sleeve or ferrule is crimped around the cable’s shield and inner conductor to secure the connector. This provides a reliable and low-loss connection.
Crimp Tools: Special tools are required to crimp the connector properly, ensuring that the connection is solid and meets performance specifications.
Design and Construction:

Body: The connector typically has a robust metal body, often made from brass or stainless steel, designed to provide durability and ensure a secure connection.
Contacts: The connector features a central contact pin for the inner conductor of the cable and an outer contact or shield for the cable’s outer conductor. The design ensures minimal signal loss and reliable performance.
Mounting: The “BH” designation may indicate a specific mounting style or design feature, such as a bulkhead (BH) design for panel mounting or other specific mounting requirements.
Frequency Range:

The DIN F BH connector for LMR 400 cables is engineered to handle high frequencies, typically up to 6 GHz or more, depending on the exact design and construction.
Power Handling:

The connector is designed to handle significant power levels, making it suitable for high-power RF applications.
Mechanical Properties:

Durability: Designed to withstand mechanical stresses, including vibrations and temperature variations, ensuring reliable performance in various environments.
Connector Interface: Typically features a threaded or locking interface for secure connection to other components.