PZ1 Fiber Stretchers

High Efficiency, Open and Enclosed Versions; Fiber Type SM, PM, RC; 780-1625 nm; Fiber Length 40-82 m; Fiber Stretch 3.8-8.0 µm/V; Fiber Leads 1 m, 0.9 mm OD Jacket; Connector Type Bare Fiber, FC/PC, FC/APC The PZ2 series provides the most extensive stretch of Optiphase’s stretcher product family. At the core of the PZ2 high-efficiency fiber stretchers is a fiber wound piezoelectric element for use in a wide range of optical interferometric measurement and sensing system applications. The PZ2 is ideal for use in OCT (Optical Coherence Tomography) and OCDR (Optical Coherence Domain Reflectometry) applications requiring scattering or boundary definition measurements. Optiphase’s expertise in the design, manufacture and use of all-fiber interferometers has produced a unique multi-layer winding approach resulting in an enhanced modulation function while maintaining a high operational frequency. PZ2 high-efficiency fiber stretchers are available with single mode (SM), commercial polarization maintaining (PM, Panda or Bowtie) or SM reduced cladding (RC) fiber types PZ2 high-efficiency fiber stretchers are available in two versions: Housed in an enclosure with connectors, making set-up and use quick and easy Bare lead fiber stretcher, not enclosed and including a convenient mounting kit consisting of a top-mount aluminum retainer and two silicone rubber pads - the mounting kit includes top or bottom mount Optiphase fiber stretchers are unique in that they do not require proprietary drivers. For most low-voltage applications (<±15 V) Optiphase stretchers can be driven by standard electronics such as signal generators, op-amps or other laboratory equipment without modification. For more information on how to drive PZ2 high-efficiency fiber stretchers see the downloadable application note. Key Features: High Efficiency Housed in Enclosure With Connectors or Bare Lead Fiber Stretcher With Mounting Kit Fiber Type: Single Mode (SM), Polarization Maintaining (PM )or Reduced Cladding SM (RC) Fiber Multiple Termination Choices Unique Multi-layer Winding Can Be Driven With General Purpose Electronics Operational Wavelength: 780 to 1625 nm Fiber Stretch: 3.8, 5.5, 8.0 µm/V Optical Path Displacement: 5.6, 8.1, 11.8 µm/V Time Delay: 0.019, 0.027, 0.039 ps/V Fiber Length: 40, 60, 82 m Inclusive Fiber Wind: 2, 3 Layer Optical Loss: ≤0.5 dB Maximum Voltage Range: ±400 V up to 300 Hz, Then Derate -6 dB/Octave Connector Type: 1 m Bare Fiber Leads (Open Stretchers), FC/PC or FC/APC (Enclosed Stretchers) Dimensions: Ø63.5 x 38.1 mm (Open Stretchers), 101.6 x 152.4 x 44.5 mm (Enclosed Stretchers) Applications: Open Loop Demodulation; Sensor Simulation; White-light Scanning Interferometry; Large-angle Modulation of Interferometric Phase; Optical Coherence Tomography (OCT); Optical Coherence Domain Reflectometry (OCDR)

The PZ1-SM4-E-980 from Optiphase is an advanced, high-speed fiber stretcher designed for precision applications in optical interferometric measurement and sensing systems. Featuring bare leads and operating at a wavelength of 980.0 nm, this enclosed model is ideal for researchers and industrial professionals seeking reliable performance and cost-efficiency. Engineered with single-mode (SM) fiber, the PZ1-SM4-E-980 offers a compact form factor that seamlessly integrates into tight spaces. Its unique multi-layer winding approach enhances modulation capabilities while maintaining high operational frequencies, setting it apart from competitive devices. The PZ1 series is renowned for its versatility and efficiency, offering various models tailored to specific needs, including SM, commercial PM, and RC fiber types. These fiber stretchers support applications like open loop demodulation, sensor simulation, variable optical delay, and general-purpose fiber interferometry. The PZ1 family is distinguished by its ability to function with general electronics such as signal generators and op-amps, eliminating the need for proprietary drivers. This flexibility, combined with multiple termination options, ensures quick and easy setup across diverse systems. Key Features The PZ1-SM4-E-980 provides high-speed operation, optimizing performance for demanding optical applications. Its cost-effective design delivers superior performance-to-cost ratio, making it an attractive choice for budget-conscious projects. The compact and enclosed configuration allows for seamless integration into limited spaces without compromising functionality. Compatible with standard electronics, the PZ1 eliminates the need for specialized drivers, enhancing user convenience and operational flexibility. The unique multi-layer fiber winding improves modulation functions, ensuring precise and reliable results in measurement applications. Capable of operating over a wide wavelength range, it supports diverse applications from 780 to 1625 nm. Designed for bipolar drive operations, it offers greater convenience compared to unipolar systems requiring offset voltage drive. Applications Ideal for open loop demodulation tasks, providing accurate phase modulation critical for data integrity. Used in sensor simulation to replicate and test sensor behaviors under controlled conditions, ensuring system reliability. Facilitates variable optical delay processes, crucial in fine-tuning time-sensitive optical systems. Supports general-purpose fiber interferometry, enhancing functionality across various optical experiments and analyses. Enables large angle modulation of interferometric phase, essential for advanced research in optical physics. Suitable for integration in large-scale modulation systems where space and performance are key considerations. Applicable in environments requiring high modulation frequency without sacrificing performance quality. What's Next? With the PZ1-SM4-E-980, Optiphase continues to lead in delivering innovative solutions for optical measurement and sensing. Researchers and industry professionals looking for high-speed, versatile fiber stretching solutions will find this product indispensable for their advanced applications. By choosing Optiphase’s PZ1 series, users gain access to a robust, reliable tool that simplifies complex optical processes and allows for seamless integration with existing systems. AMS Technologies, a trusted provider of cutting-edge technology solutions, can assist you further in selecting the right Optiphase product tailored to your specific needs. Our experts are ready to provide comprehensive support and guidance to ensure optimal utilization of your fiber stretching capabilities. Reach out today to explore how the PZ1-SM4-E-980 can elevate your research and industrial projects to new heights.

Cabinet Cooler - 210W Cooling Capacity - TEC based – 380-24-AA

Gas Leak Rate <1 x 10-8 scc/s; Fiber Type SM, MM, PM, High-Power Fibers; Cladding Diameter 125 to 1000 µm; Sealant Teflon, Viton; Operating Temperature -180 to +230 °C OZ Optics’ VAC series of fiber optic vacuum pressure feedthroughs provide a simple way to use optical fibers with vacuum and pressure chambers. They are available in two versions - a penetrating feedthrough fiber version and a receptacle style version. Penetrating versions have the fibers directly installed. One or four fiber versions are available. The fibers are installed in the OZ Optics factory. The fibers pass through a soft sealant material which is compressed by the compressive endcap and internal squeezer of the feedthrough. This conforms the sealant material surrounding the fiber, sealing the hole. A variety of sealant materials can be used. Viton is recommended for most applications up to +230 °C, and Teflon for cryogenic applications. A 1/4” NPT thread vacuum feedthrough is our standard. 1/8” NPT thread is also available for single channel assemblies with no connectors. In penetrating versions, the fiber can be protected in 900 µm loose tubing or a 3 mm OD stainless steel cable. The receptacle style version contains a short fiber stub, which is sealed using a vacuum rated glue. An O-ring is used between the chamber wall and the flange to seal the system. Adapters for various standard connectors are available. Key Features: Vacuum or Pressure Seal; Fiber in Penetrating Style Can Be Protected in Loose Tubing or Stainless Steel Cable Rugged Design Compact Low Transmission Loss (Excluding Connector Losses) Easy Installation Wide Range of Connector Types Single Fiber and Four Fiber Penetrating Versions Available Receptacle or Penetrating Type Available Operating Temperature Receptacle Type: -35 to +90 °C Operating Temperature Penetrating Type: -20 to 230 °C (Viton), -180 to +230 °C (Teflon) Applications: Laser Power Delivery or Optical Sensing in a Pressure or Vacuum Chamber

Input Voltage 5 VDC; Output Voltage 200 VDC; Output Power 0.1 W; PCB flat Mounting; Positive Output Voltage This item is compatible with Advanced Energy item number 0.2US5-P0.1 Further variants of this series with various inputs, outputs voltages and powers are available. For more information or to place an order please look into the datasheet or contact us.

350-440 nm; 340 nm Cutoff Wavelength; Ø3 mm, blue, PVC Jacket; FC/APCs; 1 m Cable Length The QPMJ-3A3A-350-2/125-3-1-1 high power polarization maintaining fiber patchcord is terminated with angle FC/APC connectors on both ends that are pre-aligned and locked on the slow axis. The PM patch cable is 1 m long and 3 mm OD jacketed. OZ Optics’ QPMJ series of polarization maintaining (PM) fiber optic patchcords is specifically designed for high-power applications.

Spectral Range 350-1700nm; Resolution 1280x1024 pixels; Maximum Pixel Rate 93 Mpixel/s, Maximum Dynamic Range 680:1; Global Shutter, Peltier Cooling with Forced Air The Excelitas pco.pixelfly™ 1.3 SWIR is recognized for its high-performance capabilities in machine vision, attributed to its specialized InGaAs image sensor designed to capture images across the shortwave infrared (SWIR), near infrared, and visible spectrum. It demonstrates notable sensitivity across the entire spectral range, reaching up to 90% sensitivity in the shortwave infrared band. Its small pixel size enables the utilization of compact magnification optics for microscopy, while also maintaining low dark current levels for prolonged exposure times. Key features: High sensitivity Wide spectral range Robust Design High Resolution Versatile Applications: Low-light imaging, industrial inspection, material analysis, and scientific research