LaCu type data sheet dowload  Louver_tron 112 high power contact

weftron LOUVER_tron^® 112

is a high performance LaCu type contact band within the weftron.com product line of
Low Resistance - High Power Contact Elements.
Multiple consecutive silver plated copper contact plates with a 3.5mm spacing are mounted on a stainless steel sprung band. Thus separating the function of the contact spring from the function of the current path. Therefore these LaCu type contact plates provide the essentially neccessary spring force required for high performance connections. Hence introducing precisely defined multiple contact points in the electrical connection when used in between two mating conducting surfaces. Consequently the number of contact louvers, the associated metal components and the ambient conditions define the electrical performance characteristics of this  high power contact system.
Especially the separation of the contact spring function from the electrical conduction function gives LOUVER_tron® 112 an exceptionally high current carrying capacity.
Aditionally the larger mass of the copper contact plates provide better heat sinking. So the operating temperature inside the connection will remain lower. Thus reducing the rise of contact resistance.
Technical parameters of LOUVER_tron^® 112 are in the table on the backside of the data sheet. So depending on the application LOUVER_tron^® 112 contact band may be used either in flat or in circular shaped connections.
For different requirements weftron offers a variety of application specific options. Please consult us for any of your projects involving connections with special requirements.

Features

contact band width of 12mm
free of beryllium
two component high performance contact band
separation of functions for electrical conduction and contact spring force
high conductive copper plates mounted on a strip of stainless steel spring
dense arrangement of defined contact bridges at a 3.5mm spacing
various contact strip lengths for flat contacting arrangements sliding and rotating contact feasibility