• Part of the MicroBrite™ family of high performance, compact machine vision lights. 
• Provides diffuse illumination at a low angle to cast shadows used to identify surface defects, embossed text, etc. 
• This ring light is more diffuse and less directional than the DF196. 
• Can be used to produce a bright field effect when the outer diameter is smaller than the working distance. 
• Available in 4 sizes with an intensity of 47klux (working distance of 64mm with DF198-180).

The SM7000 Series microwave switching modules are members of the VXI Technology SMIPII™ family. They offer a modular design allowing custom switching configurations to be easily assembled and modified in the field.

The SM7000 is a single-wide, C-size VXI module, which can support up to six different microwave switches including: a dual SPDT; SP3T through SP6T; transfer switches and passthrough adapters that allow the module to control up to eight externally mounted relays each.

Our surface mount SMD reed switch products feature a bare, hermetically sealed glass envelope designed for reliability and precision. With five distinct surface mount lead designs, these switches offer enhanced flexibility for various PCB layouts and applications.

Magnetically actuated, these reed switches are ideal for both switching and sensing functions across a wide range of industries, from automotive and medical to industrial and consumer electronics.

We offer nine different switch models, with glass lengths starting as small as 7 mm, and a variety of switching configurations. Choose from power ratings up to 100 W and switching voltages reaching 1,000 VDC, tailored to meet your specific performance requirements.

For streamlined manufacturing, our SMD reed switches are typically supplied in tape and reel packaging per IEC 286/Part 3, making them compatible with automatic pick-and-place equipment.

High density matrix reed relays are designed for ultra-compact, high-channel-count applications where space efficiency and performance are critical. With footprints as small as 4.35 × 4.35 mm, these relays enable dense relay arrays, up to 1000 relays on a 12” board, ideal for IC wafer testing, functional PCB test systems, and data acquisition platforms. Featuring low power consumption, fast switching speeds, and optional shielding configurations, they offer reliable performance in demanding environments. Their modular design supports vertical and horizontal stacking, making them a versatile solution for high-density signal routing and matrix switching.

• Up to 96 differential channels per full rack mainframe 
• Constantly monitor input signals for fault conditions 
• Flexible configurations for detecting edges, out-of-bounds conditions and measuring pulse widths 
• Inputs can be masked, inverted, and combined to produce interrupts 
• Can be used as a time stamp module and as a digital I/O 
• Programmable debounce circuitry prevents erroneous readings 
• 10 V and 100 V input ranges 
• On-board memory stores events with IEEE 1588 timestamps 
• Synchronize reading of input states with other scanned analog channels

Xena2544 offers full support for the 4 test-types specified in RFC2544, and also lets you partially enable one or more test types. Xena2544 supports different network topologies and traffic flow directions on both Layer 2 and Layer 3, as well as both IPv4 and IPv6.

The Xena B720/2400 is a 4U modular chassis that can be equipped with up to 12 Ethernet test modules to provide high port density and low power consumption.

There are 2 versions of the Xena chassis: the standard B720 and the high-performance B2400.

The latching / bi-stable (1 Form E) reed switch is a magnetically operated switch designed for ultra-low power applications, particularly in battery-powered and energy-sensitive systems. Unlike traditional reed switches, this bistable variant maintains its contact state, either open or closed, without continuous power, thanks to its dual-magnet latching mechanism.

The switch operates by using two permanent magnets: one partially magnetized to bring the contacts near each other, and a second magnet that controls the contact state by reversing its magnetic field. This design allows the switch to remain in either the normally open (N.O.) or normally closed (N.C.) state until actively changed, making it ideal for applications requiring stable switching with minimal energy consumption.