LPC, LPF Pigtail Style Collimators & Focusers

405-980 nm; Max. Optical Output Power 40-12 mW; Beam Diameter 0.75-4 mm; Power Stability <0.5%; Fiber Type SM, MM, PM Blue Sky Research’s FiberTec II™ series of high-performance, fiber-coupled diode laser modules incorporates highly integrated, sophisticated electronics for laser drive, protection, modulation and feedback functions. It has been optimized to meet the demanding performance requirements of applications that include medical, life sciences and automated instrumentation. This ultra-compact stand-alone assembly is RoHS compliant and can be ordered with a variety of collimation optics which allow easy integration into your system. A wide variety of wavelength and power options are available including the FiberTec II SLED series covering the visible to near-infrared wavelengths and FiberTec II laser diode modules which include 405, 488, 532 and 635 nm wavelength products. The FiberTec II lasers utilize several distinct technical approaches compared to other laser diode modules. Blue Sky Research’s patented micro lens approach optimizes the efficiency of coupling power into the fiber, allowing to drive the lasers less hard than competitors, which results in more stable power output over time and temperature. This means that with a FiberTecII product you’ll never have to re-align your fiber, as proven by Blue Sky Research with hundreds of thousands of hours of real time test data and extreme environmental test. In the FiberTec II series, the thermoelectric cooler (TEC) stabilizes laser power output and lasing wavelength over varying operational temperatures. Power stability is better than 0.5% over any 1-hour period. Our highly integrated electronic control is entirely contained within the laser module and no separate control box required. The lasers require DC power for operation. Output options include polarization maintaining (PM) fiber (typical extinction ratio of 100:1) and single mode or multi mode fiber. Termination options include fiber connectorization or collimation optics with diameters ranging from 0.8 to 3.3 mm. For the FiberTEC II series of fiber-coupled diode laser modules the dedicated power supply CLPS is available as an accessory. This device provides up to 2.5 A of current for laser diode and TEC and allows the operation of the FiberTEC II series from standard power sockets with 100 to 240 VAC. Key Features: Ultra Compact Fiber Coupled Diode Laser Modules Fiber Options: Single Mode, Multi Mode, Polarization Maintaining Integrated Micro-Optic Beam Shaping for High Efficiency & Stability Fully Integrated Laser Driver, Protection and Control Electronics Diffraction Limited Performance Solid State Reliability Stable, Low-noise Power Output: <0.5% RMS 20 Hz to 2 MHz Wavelengths: 405 to 980 nm, Including Violet, Blue, Green, Red, NIR Laser Diode Power: 40 to 120 mW (Depending on Wavelength) Power Stability (1 h): <0.5% Beam Size: 0.75 to 4 mm Beam Pointing Stability <10 µrad/C Sharp Edge Modulation to 100 kHz for Most Wavelengths Package Size: Dia. 11 mm, Length 17.5, 25 mm Applications: Analytical Instruments; Biomedical & Medical; Flow Cytometry; Confocal Microscopy; Defense & Homeland Security; Particle Analysis; Inspection & Metrology

Single Mode Patchcords; 440 to 1625 nm; Attenuation 0.5 to 20 dB; Return Loss 50, 60 dB; Power Handling ≤2 W OZ Optics’ PFA series of low cost fixed attenuating single mode fiber patchcords are ideal for high power applications and can be easily installed into fiber splice enclosures. The Attenuating Fiber Advantage: OZ Optics has recently enhanced its fixed attenuator product line by developing a new technology to precisely attenuate signals in fibers. This patent pending, fully automatable technique allows one to create fixed attenuators within any standard fiber, with low polarization dependent loss (PDL) and high power handling. The resultant attenuating fiber is physically identical in appearance and behaviour to the original fiber, allowing it to be used to build attenuating fiber patchcords. As the process used does not require the manufacture of special fiber, fixed attenuators can be constructed in small batch quantities economically. At the same time the automation aspect of the techniques allows large quantity orders to be manufactured at a reasonable cost. Attenuating fiber is capable of handling up to 2 W of optical power at 1550 nm. The attenuating section is only a couple of millimetres to a couple of centimeters long, depending on the attenuation. The fiber used in OZ attenuators features a double cladding, with an absorbing dopant in the inner cladding layer. This double cladding structure effectively suppresses light scattering into the cladding. Thus the readings will not significantly depend on the application. Attenuating patchcords are available with between 0.5 and 20 dB attenuation, in 0.1 dB increments. Higher attenuation levels and higher resolution attenuation steps are possible. Prototype and custom designs can be made quickly and in small volumes economically. Key Features: New Patented Technique Not Based on Fusion Splice Wide Wavelength Range Low Backreflection Polarization Insensitive Wide Range of Connectors Applications: Optical Power Equalization; CATV, LAN and Telecommunications; Test and Measurement; Channel Balancing for WDM Systems; Receiver Padding; Optical Transmission Systems

4 Channels; 8,192 Sensors; Total Sensing Length 52 m; Spatial Resolution 1.6 mm; Temperature Measurement Range -270 to +1,200 °C Sensuron’s Summit series of fiber optic distributed strain and temperature measurement systems brings the next generation of sensing technology to the fingertips of today’s engineers. With 8,000+ continuously inscribed sensors, Summit is the only fiber optic sensing system that provides fully distributed sensing and multi-sensing capabilities. Summit empowers engineers across industries to gather the data they need, not just the data they can get.Summit can simultaneously measure strain, temperature, deflection, and more—making vast amounts of data available in real time. In today’s world, success is increasingly predicated on the ability of an organization to obtain and interpret large quantities of data. Summit allows engineers across industries to gather the data they want, not just the data they can get.With Sensuron’s Summit series, the lead length is fully adjustable so users can place the sensor exactly where it needs to be. here it needs to be. Use the Summit series to replace multiple sensing technologies in a single platform. Gain confidence in your testing data and model validation. Summit’s fully distributed sensing provides the entire picture of what’s going on rather than a handful of data points.Sensuron enables engineers to collect and analyze material and structural data based on minute changes in tens of thousands of points of light. Measured in real-time, Sensuron’s technology ensures precise measurement and optimal performance. Sensuron’s range of fiber optic sensing platforms fit a variety of applications across industries. Along with obtaining spatially continuous measurements along the entire length of a fiber, each platform has multi-sensing capabilities: they can simultaneously measure strain, temperature, deflection, 3D shape, and more. In addition to sensing platforms, Sensuron offers a range of accessories to complement your fiber optic sensing needs. Key Features: Four Simultaneously Monitored Fibers with Over 2,000 Equally Spaced Sensors per Fiber Aggregate Sensing Length of 52 m Software-selectable Spatial Resolution down to 1.6 mm Real-time, High-resolution Distributed Strain and Temperature Measurements Up to 60 Hz Acquisition Rate- Structural Deflection and 3D Shape Sensing Capability Immune to EMI/RFI and Radiation for Reliable Operation in Demanding Environments Low Latency Networking Capability Adjustable Sensor Standoff Length Applications: Medical – Determining the Three-dimensional Shape and Orientation of Medical Instruments in (Minimally) Invasive Surgical Procedures; Aerospace – Monitoring Changes in Wing Load Distribution, Shape, Liquid Level and More in Real Time; Automotive – Studying Automobile Frame Deformation to Improve Safety and Performance