• Capture/display/analyze peak and average power
• Frequency range from 4 kHz to 40 GHz
  • Industry-leading video bandwidth (195 MHz) and rise time (3 ns)
  • Industry-leading 100,000 measurements per second
  • Industry-leading 100 ps time resolution
• Synchronous multi-channel measurements (up to 4 channels)
• Sensors can be used as standalone instruments

• Calibration-grade metrology standards
• Used for VNA calibration and/or calibration validation

A precision fixed termination (or load) consists of an immovable, (fixed) termination which, when mated to the end of a trans-mission line or cable, absorbs nearly all of the signal energy traveling toward it. An ideal “matched” condition exists when a termination with an impedance value of Z0, is connected to the end of a transmission line or cable that also has a characteristic impedance of Z0. Such an ideal “matched” condition (one with no mismatch between the termination and its mated line or cable) is critical if a voltage standing wave ratio (VSWR) of 1.0:1 is to be achieved in a system with a 50 or 75 ohm impedance value. Simply put, the more closely the 1.0:1 ratio is approached, the more accurate the measurements that can be made from a system.

• Leverage dual-camera single-laser design to deliver exceptionally high 3D reproduction fidelity 
• Scan scenes quickly with profiling rates of up to 11,000 per second 
• Gain from unique embedded algorithms to generate consistent profiles, depth maps, or point clouds 
• Benefit from truly standard GigE Vision® interface to work directly with Zebra Imaging and third-party vision software 
• Simplify cabling with Power-over-Ethernet (PoE) support 
• Deploy confidently in tough industrial settings thanks to a solid IP67-rated2 aluminum housing and M12 connectors 
• Benefit from several fastening points to facilitate fixing one or more sensors to gantries and robots 
• Streamline sensor setup and verification via the Aurora Capture Works utility for Windows® and Linux®

ProPhotonix designs and manufactures easy to use, plug and play laser diode modules for a wide range of laser applications including uniform laser lines and DOE patterns for machine vision and rugged laser modules for industrial alignment applications. ProPhotonix also partners with leading manufacturers to develop laser modules for life science applications, scientific instrumentation, particle measurement, 3D printing and more.

Diode laser modules are available in a wide variety of wavelengths, output powers, beam shapes and with a variety of electronic functionality and form factors. Wavelengths from 405nm laser to 1300nm laser are available with maximum output power up to 2W. Circular and elliptical spot, Gaussian and uniform lines and various diffractive optical patterns are also available. In terms of electronics, ProPhotonix can offer CW, pulsed or TTL modulation options. Temperature stabilized (TE cooled) laser modules are also possible.

To find the laser module range that best suits your application, try the Laser Module Selector below. Simply enter your specification criteria to see suitable laser modules. Click on the results to go to that specific page where you can download relevant datasheets.

SlimVue Microscope

• Combined eye-pieces and CCD camera mount
• 3x zoom and quick lens exchange
• Quick lens exchange
• 1 um optical resolution
• Minimized scope footprint
• Fast change from navigation optics to high-resolution optics
• Resolving ‹ 50 μm pads
• Simple integration with any mmW modules

Application Specific Sigma Kits

• Engraved guides on mmW platen
• Supports broadband, load pull, coax RF and banded waveguide configuration
• Optical feedback on platen position (gauge)
• Adaptable to any mmW/sub-THz applications
• Seamless integration with any mmW modules and tuners
• Fast mounting and setup change

THz measurement capability

• Rock-solid mechanical design
• Submicron stage accuracy
• Optical feedback on platen and probe position (gauge)
• Motorized positioner
• <+-1 um separation repeatability
• Micrometer-accurate and repeatable probe placement and overtravel
• Highly-precise and stable THz measurements

• Excellent temperature and voltage stability
• Units for noise figure meters feature 15.5-dB ± 0.75 dB ENR output
• High-output units for radar and satellite communications system testing feature output between 26 and 35 dB ± 1 dB ENR

The NC3000 Series calibrated coaxial AWGN sources are well suited for receiver testing, noise figure measurements, or applications that require broadband noise and fast switching times. Several models include output isolators, and voltage regulators that provide excellent stability over varying temperature and voltage ranges. The NC3000 Series includes the NC3100 units with 15 dB ENR output for noise-figure meters, and the NC3200 Series high-output noise sources with outputs between 26 and 35 dB ENR for radar and satellite communications system testing.

Environmental Control

• Wafer temp verified <4.5 K (with 44 RF probes in contact) 
• Magnetic field suppression to <200 nT​
• Highly uniform wafer temperature
• Precise thermal stability and control
• Solid construction with granite base enables precision motion and vibration control

See "Specifications & Details" tab for more key features

• S-parameters comparison of user-characterized and factory-characterized verification standards
• S-parameters comparison of user-characterized and factory-characterized verification standards with measurement uncertainty boundaries
• Includes beaded airline, mismatch airline, offset shorts and fixed loads

• Outstanding stability
• Fast switching speed
• Ripple-free response over standard waveguide bands

The NC5000A Series AWGN noise sources feature outstanding stability, switching speed, and ripple-free response over standard waveguide bands. The high stability of the NC5000A Series allows these units to be used in place of cumbersome gas tube noise sources.

Ripple in the output of noise sources has a direct effect on measurement accuracy, so Noisecom has tailored the response of the NC5000A Series so that ripple is minimized throughout the specified frequency range.