MKS Ophir
Ophir is a brand within the MKS Instruments Photonics Solutions Division. The Ophir product portfolio consists of laser and LED measurement products, including laser power and energy meters, laser beam profilers measuring femto-watt to hundred-kilowatt lasers, high-performance IR and visible optical elements, IR thermal imaging lenses and zoom lenses for defense and commercial applications, OEM and replacement high-quality optics and sub-assemblies for CO2 and high-power fiber laser material processing applications. Ophir products enhance our customers’ capabilities and productivity in the semiconductor, advanced electronics and specialty industrial markets. For more information, visit www.ophiropt.com.
- 1-800-383-0814
435-753 3729 - 435-753 5231
- sales.ophir.usa@mksinst.com
- 3050 North 300 West
North Logan,, UT 84341
United States of America
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Product
*Optical Power Meters for Telecom
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If you’re involved in any kind of photonic measurements in Telecom applications, you already know that it can be challenging. The measurements need to account for things like –*Wide dynamic range – powers from pW up to several W*For free space beams – possibly widely diverging beams*For fiber transport - losses as the beam enters and emerges from a fiber
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Product
*Laser Thermal Power Sensors
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Thermal sensors have a series of bimetallic junctions called a thermopile. Radial or axial heat flow through the sensor creates a voltage proportional to the power absorbed as it flows through the thermopile. The reading is not dependent on the ambient temperature since only the temperature difference is measured and not the absolute temperature. The thermopile elements are so arranged that the reading is almost independent of beam size and position. Generally, Ophir specifies ±2% or better uniformity of reading over the surface.
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Product
Portable Laser Power & Energy Meter
StarLite 7Z01565
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*Brilliant large size TFT 320x240 display*Compact handheld design with rubberized bumpers and optimized kickstand*Choice of digital or analog needle display*Select between English, Japanese, Russian and Chinese interfaces*Analog output*Easy to use soft keys*Easy measurement configuration with context sensitive help*Backlighting and rechargeable battery*Single shot energy measurement with thermal sensors*Power averaging*Resizable Screen graphics*EMI rejection
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Product
Scanning Slit Beam Profiling
NanoScan
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Measure your beam as never before with the NanoScan™ beam profiler. The advantage of scanning slit beam profiling is sub-micron precision for measuring beam position and size. Scan head configurations include Silicon, Germanium, and Pyroelectric versions for a wide range of wavelengths and laser power levels. The NanoScan software is available in two versions: Standard and Professional, and includes an extensive set of ISO quantitative measurements, an M2 Wizard, and the ability to measure laser power.
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Product
NanoModeScan M² Measuring System
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This scanning slit M² measurement system accurately analyzes lasers with wavelengths from UV to Far Infrared with its silicon, germanium, or pyroelectric head. It features a compact portable design, immediate results, ISO compliant measurements, and operates in CW or kHz Pulsed modes which makes it ideal for comprehensive analysis of lasers of most wavelengths.
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Product
*Divergent Light Measurement
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The IS1.5-VIS-FPD-800 & IS1.5-IRG-FPD-800 contain 2 photodiodes: a calibrated photodiode for precise power measurement using Ophir meters and a fast photodiode with integral reverse bias circuit for temporal characterization using third-party instrumentation such as oscilloscopes and spectrum analyzers. Their small, 1.5" internal diameter preserves the temporal shape of pulses down to 3.5 nsec for VIS and 6 nsec for IRG. An SMA fiber optic connector is provided for connection to a spectrometer. The large, 20 mm input aperture allows for wide acceptance angles and long working distances, making these spheres well suited for testing VCSELs and other types of laser.
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Product
Photodiode Energy Sensors
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Our photodiode laser energy sensors are able to measure low energy pulses down to 10 pJ at frequencies up to 20 kHz. Silicon photodiodes for the UV and visible spectrum and Germanium photodiodes for infrared.
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Product
Pyroelectric Energy Sensors
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Our pyroelectric energy sensors use innovative, patented technology which facilitates accurate and repeatable laser measurements of pulses over an extensive range of conditions including long pulses to 20 ms.
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Product
*High-Power Beam Profiling
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Beam analysis of high-powered industrial lasers have always proved to be difficult because of the power levels (affecting the power densities) that these lasers operate at. Yet, the measurement of these lasers are critical for their success because of thermal effects which are more of a factor at these higher powers. These high-power performance measurement products have proven to be solutions for laser users who operate and maintain these high-powered lasers
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Product
*High Power Laser Beam Dumps & Low Power Beam Traps
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Laser beam dumps for high power laser processing, laser measurement and other applications, and low power beam traps
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Product
Power/Position/Size Sensors
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Thermal sensors that measure laser power and single shot energy like standard thermal sensors but in addition measure laser beam position and laser size. This position sensing detector measures laser beam position to 0.1 mm accuracy and laser size measurement of a Gaussian beam to +/-5% accuracy. Measuring laser position is important for laser alignment where the laser position sensor can provide feedback to the laser position control.
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Product
*Beam Propagation Analysis
M²
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M², or Beam Propagation Ratio, is a value that indicates how close a laser is to being a single mode TEM00 beam, which in turn determines how small a beam waist can be focused. For the perfect Gaussian TEM00 condition the M² equals 1. M² cannot be determined from a single beam profile measurement. The ISO/DIS 11146 requires that M² be calculated from a series of measurements. M² is measured on real beams by focusing the beam with a fixed position lens of known focal length, and then measuring the characteristics of the artificially created beam waist and divergence. We have a number of solutions for the measurement of M² ranging from simple manual processes to fully automated dedicated instruments, depending on the frequency of the need to measure M² of lasers and laser systems.
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Product
*Industrial Power Meter (IPM) - Industrial High Power System
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Based on the tried-and-true 10K-W sensor, the new IPM modular industrial sensor for measuring the average power of high-power lasers up to 11kW is ideal for tough industrial use. Ruggedized by design, it has all the features needed for reliable, fail-safe operation in a tough operational environment. Its modular design provides the flexibility needed to address customers' specific needs.
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Product
*OEM Power Sensors
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The OEM “standard” sensors are actually families of existing OEM sensors with typical specifications shown. They can be tailored as needed to fit your specific requirements. In addition to the products described, Ophir has developed hundreds of other OEM solutions. These compact laser power sensors have built-in amplifiers and are easy to install. They contain all the electronics needed including algorithms to increase the sensor's speed of response. Connections to the sensors are simple, with the host providing DC power and the sensor providing a voltage or digital output. Outputs Available: DB15 smart sensor output; Calibrated analog output; RS232; USB; Ehthernet. Simply fill out the Sensor Customization form so we can provide just the right solution for your needs.
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Product
*Beam Profiling For 266nm To 3000µm
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Unlike a power meter that measures average or instantaneous Watts or Joules of the overall laser beam, knowing how the power is distributed within the beam is equally as important. As an example, if you want to cut something the power should generally be focused in the center of the beam to concentrate the power density in a very small area but if you were trying to weld something with all the power in the center you would poke a hole in the weld; requiring the power to be equally distributed as in a top hat profile.
















