LIQ-702BU-05L Koolance Liquid Coolant UV Blue 5000 ml (169 fl oz)

CMOS Photodiode Detector Array; Pixel Pitch 0.05-1.6 mm; X-Ray Tube Voltage 15-160 kV; Length ≥205 mm; Line Rate ≤0.55-≤23 kHz X-Scan Imaging’s XI8800 Falcon single-energy linear diode array (LDA) camera module series offers high performance for x-ray scanning applications at extra-long lengths. The XI8800 line scan cameras incorporate X-Scan Imaging’s buttable CMOS silicon imaging detector array chips and an integrated computer interface module. Multiple chips can be tiled together in a virtually seamless fashion for imaging applications requiring longer active detector lengths. A variety of resolutions and selection of lengths ranging from 152 to 1,829 cm are available as standard sizes. Other custom lengths can be provided as required. A wide selection of scintillation material converts x-rays into visible light for detection by the imaging array and optimizes both sensitivity and resolution. The close proximity of the analog-to-digital converters (ADC) to the detector chips helps minimize noise and maximize bandwidth. Interfacing options include Gigabit Ethernet (GigE), USB 3.0 and Camera Link. The XI8800 camera module includes a camera unit, software development kit, power adapter and cabling. An optional frame-grabber which can be installed in the computer is also available. Standard housings are compatible and interchangeable with the XID8800 Hawk dual-energy and XTI12848 Harrier TDI series. Systems utilizing standard housings can be easily interchanged between single-energy, dual-energy and high-resolution TDI. A collection of hardware for interfacing to computers and software including drivers, an intuitive application programming interface (API) and example code software expedite developments of x-ray scanning systems. Key Features: Wide Range of Resolutions & Selection of Lengths Compact Form Factor Incorporates X-Scan Imaging’s Proprietary XB8800 Photodiode Detectors Selectable Resolution: 0.1/0.2 mm and 0.4/0.8 mm Low Noise Wide Dynamic Range High Sensitivity Hight MTF 16-bit Analog-to-Digital Conversion Supports Variable Scan Speed With Position Synchronization Maximum Line Rate: 0.55 to 23 kHz Software Development Kit, Including Device Drivers, Libraries and Standard API X-Ray Tube Voltages: 15 to 160 kV Interface: Gigabit Ethernet (GigE), Camera Link, USB 3.0 Applications: Food and Industrial Inspection; Package Content Inspection; Security and Cargo Screening; Industrial Non-destructive testing (NDT)

3 or 4 Control Channels; 1250-1650 nm, Other; Insertion Loss 0.05 dB; Polarization Dependent Loss <0.06 dB; Fiber Type SM, OtherOZ Optics' EPC-3000 high-speed electrically driven polarization controller provides a simple, efficient means to quickly manipulate the state of polarization within a single mode (SM) fiber. Employing a novel fiber squeezing technique, the device is controlled by either three or four (depending on the model) input voltages to provide endless polarization control and scrambling in a robust, easy to operate package. The EPC-3000 controller's rapid response speed easily handles changes in polarization caused by the external environment and is highly suitable for polarization controlling and scrambling for either averaging PDL, PDG effects, or for making PMD, PDL or DOP measurements. Because the fiber within the device is continuous, all insertion losses, return losses, and PDL effects are limited only by the fiber itself. This makes the EPC-3000 ideal for precise test and measurement applications. The polarization controller is available in either a three or four channel configuration. The three-channel system is ideal for polarization scrambling applications such as for polarization averaging, PDL or PDG measurements. The added redundancy of the four-channel version opens the way to continuous polarization control, without having to occasionally reset the device when a controller reaches its limit. The innovative design of the OZ Optics EPC-3000 high-speed polarization controller provides an integrated module that allows users easily to implement the polarization controller in their systems with both analog and digital inputs. Key Features: Negligible Insertion Loss: 0.05 dB (Excluding Connectors) Negligible Return Loss Negligible Polarization Dependent Loss (PDL) Continuous Polarization Control Capability Compact and PCB Compatible Up to 2 kHz Response Speed and 30 kHz at Resonance Frequency Number of Control Channels: 3, 4 Voltage Range: 0 V to 140 V Typ. Input Capacitance (Each Channel): 0.2 μF -3dB Bandwidth: >30 kHz Electrical Interface: 8-Pin Board Connector Wavelength Range: 1260 nm to 1650 nm Standard, Other Wavelengths Available on Request - Min. Retardation Range: 2π Back Reflection: >60 dB (Excluding connectors) Activation Loss: ±0.05 dB Polarization Dependent Loss (PDL) <0.06 dB Operating Temperature: -10°C to +50°C Fiber Type: Standard 9/125 μm Single Mode Fiber, Other Fiber Types Available on Request Dimensions: 83 mm x 19 mm x 16.5 mm Applications: Polarization Scrambling; Polarization Stabilization; Polarization Mode Dispersion (PMD) Mitigation; Polarization Dependent Loss (PDL) Mitigation; Polarization Dependent Gain (PDG) Mitigation; PDL, DOP, and PMD Measurement Systems; Interferometers and Sensors; Fiber Lasers; Polarization Demultiplexing; Test Instrumentation

290 W @ 20°C; >2 lpm @ 14 psig; 1/4 Valved CPC Fittings; Centrifugal Pump; Stainless Steel This thermoelectric recirculating chiller is a low-cost, high-performance device optimized for lasers, optics and life sciences. It features precise temperature control (±0.05°C repeatability), long-life reliability, quiet operation and environmental friendliness in a compact size. Using universal power, the TEC chiller is very energy efficient only drawing power when required.

10 A; 1 channel; 15 V; benchtop/rackmount The TC LAB series of temperature controllers integrates high-end Digital Control with a precision output current drive stage to offer the best stability temperature control instrument commercially available today. Many different sensors can be used in the feedback loop including thermistors, RTDs, linear current and voltage sensors. The TC10 LAB) drives 10 A maximum with 15 V compliance.

Aluminum fin, flat tube, 1250 W, maximum pressure 150 psi. Aavid-Boyd's (formerly Lytron's) flat tube Oil Cooler heat exchangers are designed for optimum cooling with poor heat transfer fluids such as oil and ethylene glycol and water solutions (EGW). They provide up to 2.5 times greater thermal performance per unit volume than competitive oil cooler models.

Cooling Capacity 200 to 500 W @+20 °C; Process Fluid Flow Rate 1.5 to 3.0 lpm @ 30 psig; 1/4” John Guest or Other Fittings; 9 Diaphragm, Gear or Centrifugal Pump Options; Wetted Materials Al, Cu or Stainless Steel Cold PlateThe ThermoCube II 200–500 Thermoelectric Chillers from Solid State Cooling Systems are engineered for precision temperature control in laboratory, analytical, and OEM environments. These advanced benchtop chillers offer configurable cooling capacities ranging from 200 to 500 watts, delivering exceptional thermal stability and repeatability. Built on robust thermoelectric technology, the ThermoCube II eliminates the need for compressors and refrigerants, offering a quiet, low-maintenance solution for applications where uptime and accuracy are essential.Compact yet powerful, the ThermoCube II measures 11 x 13 x 13 inches (28 x 32 x 33 cm) and weighs just 28 lbs (12.7 kg), making it ideal for installations with limited space. The standard operating range of 5°C to 50°C can be extended to -5°C or up to 65°C with optional configurations. A digital PID controller ensures ±0.05°C temperature stability, while the modular design allows users to tailor the unit to specific process requirements.Key FeaturesHighly Configurable Design: Four base models with options for extended temperature ranges, flow meters, leak detectors, and alternate fluids.Thermoelectric Cooling: Solid-state technology ensures quiet operation, low vibration, and long service life without refrigerants.Advanced Control & Communication: RS232, RS485, Ethernet, TTL, and keypad interface for seamless integration into automated systems.Flexible Pump & Fitting Options: Six pump types (diaphragm, centrifugal, gear) and nine fitting choices (John Guest, CPC, APC, Swagelok, NPT).Compact Footprint: Fits easily on lab benches or within OEM enclosures; universal power input (100–240 VAC, 50/60 Hz).Quiet Operation: Below 50 dBA at 50% load and under 63 dBA at full load.Safety & Compliance: Alarms for temperature, fluid level, and system faults; UL, CE, CAN/CSA, and RoHS certified.ApplicationsAnalytical Instruments: Spectroscopy, chromatography, and mass spectrometry systems requiring stable thermal environments.Laser & Photonics Systems: Diode lasers and optical components needing precise temperature regulation.Life Sciences & Biotech: Microfluidics, sample preparation, and temperature-sensitive assays.OEM Integration: Medical, diagnostic, and scientific equipment with space and control constraints.Imaging Systems: CCD and CMOS sensors used in low-light or high-resolution imaging applications.What's Next?If your application demands precise, reliable, and customizable thermal control, the ThermoCube II 200–500 Thermoelectric Chillers offer a proven solution. With over 34,000 units shipped globally, this platform is trusted by researchers and engineers for its performance and adaptability.Contact our sales team today to discuss your requirements, request a quote, or explore configuration options tailored to your system. 

1 to 48 Channels; Channel Spacing 250 µm; Fiber Type SM, MM, PM; Connector Type SC, FC, ST, LC, MU; Insertion Loss <0.5 dB per Fiber OZ Optics’ VGA series of V-Groove array assemblies assists in developing next generation photonic devices. The arrays are manufactured using precision silicon wafer V-Groove technology or Pyrex V-Groove in conjunction with a Pyrex lid, enabling sub-micron alignment accuracy with UV cure attachment capabilities. VGA series V-Groove array assemblies are available with single mode (SM), multi mode (MM) or PANDAtype polarization maintaining (PM) fibers. Customization can even include different types of fibers assembled into a single array. In general, OZ Optics uses polarization maintaining fibers based on the PANDA fiber structure when building polarization maintaining components and patch cords. However OZ Optics can construct devices using other PM fiber structures. OZ Optics also carries some alternative fiber types in stock, please contact AMS Technologies for availability. If necessary, OZ Optics is willing to use customer supplied fibers to build devices. Standard PANDA style PM arrays are manufactured with the polarization axis (stress rods) aligned vertical to the V-Groove base within 3°. High grade assemblies with one to eight channels can be provided with the stress rods aligned to 1°. Arrays can also be provided with the fibers aligned parallel to the base, alternating axes or at custom angles. When supplied with a breakout and connectors, the alignment of the connector is also to the slow axis, within 3° for standard connectors or available to within 1.5° for high grade connectors. V-Groove array assemblies can be manufactured with a hermetic feedthrough attached. This enables the development of multichannel photonic devices capable of meeting Telcordia requirements. Fiber breakouts can also be added, to convert ribbonized fibers into separated fibers, capable of being connectorized. Key Features: Up to 48 Fiber V-Groove Arrays Hermetic Feed-through Versions With Glass or Metal Solder Available Single Mode (SM), Multi Mode (MM) or Polarization Maintaining Fibers High Polarization Extinction Ratios up to 30 dB Available Ribbon or Individual Fibers Assemblies With Bare Fiber or 900 µm Jacketing With or Without Connectors 900 µm Jacketed Breakouts Available, up to 2 m Length Custom Configurations Possible for OEM Applications Designed to Meet Telcordia Specifications (GR 1221-core, GR 326-core) Applications: Arrayed Waveguide (AWG) Devices; Planar Lightwave Chips (PLC); Dense Wavelength Division Multiplexers (DWDM); MEMS Devices; Miniaturized or Integrated Fiber Optic Components