CP10G01 Aluminum Cold Plate with 2-Pass Copper tube, straight fittings

Press-Lock Technology; Thermal Performance 0.004 to 0.059 °C/W; Max. Pressure 10 bar; Max. Flow Rate 4, 8 l/min; Straight Fittings Lytron’s CP10/CP12/CP15 series of standard tubed cold plates provide cost-effective thermal solutions for component cooling applications where the heat load is low-to-moderate. These tubed cold plates consist of copper or stainless steel tubes pressed into a channeled aluminum extrusion. The CP10/CP12/CP15 series of tubed cold plates is manufactured using Lytron’s proprietary Press-Lock technology, which mechanically locks the tubes into the aluminum plate. Press-Lock technology eliminates the need for performance-limiting epoxy between the tube and the plate, resulting in superior thermal performance. Compared to similar tubed cold plates, the CP12 cold plate offers 30% better performance and the CP15 offers 40% to 50% better performance. Copper tubes are compatible with water and most other common coolants, while stainless steel tubes (CP10 only) can be used with deionized water or corrosive fluids. Each tubed cold plate has a single tube with no joint, ensuring leak-free operation. The tubes of the CP12 and CP15 cold plates are coplanar with the plate to allow for dual-sided mounting. The cold plate's tube side offers higher performance as the copper tubes are in direct contact with the component being cooled. CP10 models are available with 9.5 mm copper and stainless steel tubes in 2-pass or 4-pass configuration for single-sided mounting. CP12 models are available with 9.5 mm copper tubes in 4-pass configuration for dual-sided mounting. CP15 models are available with 6.4 mm copper tubes in 6-pass configuration for dual-sided mounting. If you can’t find a tubed cold plate that meets your requirements, please get in touch with the AMS Technologies thermal technology experts to discuss your customized solution! Key Features: Thermal Performance: 0.004 to 0.059 °C/W @ 7.6 l/min (3.8 l/min for CP15) Fluid Compatibility: Water, Common Coolants (Copper Tubes); Deionized Water, Corrosive Fluids (Stainless Steel Tubes) Configuration: 2-pass (CP 10), 4-pass (CP10, CP12), 6-pass (CP15) Mounting Surface: Single Sided (CP 10), Double Sided (CP12, CP15) Tube Diameter: 9.5 mm (CP10, CP12), 6.4 mm (CP15) Fitting: Straight Plate Material: Aluminium Maximum Pressure: 10 bar Maximum Flow Rate: 8 l/min, 4 l/min (CP 15) Applications: Component Cooling Where the Heat Load is Low-to-moderate

Peltier Cooling Assembly Kit; Cooling Capacity 130 W @+25°C; with Detachable Carrier Plate; Power Supply 24 VDC Key Features: Ideal for Precise Cooling of Medical and Industrial Lasers Efficient Peltier System, no Liquids, no Moving Parts (Except Fans) Allows for Excellent Temperature Stability Low Vibration, Low Noise Lightweight, Very Compact Easy to Integrate The compact mDC-T-130-24-KIT thermoelectric plate-to-air cooling kit was developed for precise temperature control of laser diode modules and direct heat transfer to the ambient air. The highly efficient, solid state mini direct cooling system reaches a cooling capacity of 130 W for 24 VDC supply voltage and +25°C on laser mounting plate and +25 °C ambient temperature. The mDC-T-130-24-KIT Peltier cooling assembly kit comes with a 108 mm x 108 mm mounting plate that can be removed without the need to dismantle the Peltier assembly and can be worked on, i.e. individual mounting patterns can be drilled by the customer. The kit comes with graphite foil and screws pre-mounted. The Peltier modules can be configured for either 12 or 24 VDC. Depending on cooling requirements, the 60 x 60 mm fans' speed can be reduced for quiet operation. We also carry a large range of suitable temperature controllers that can be found here. If your application requires higher cooling capacities, take a look at our mRC-C-450-100/240 mini Recirculating Chiller and our liquid cooling solutions offerings – or browse our large portfolio of liquid to air temperature management assemblies. Your customized direct cooler: AMS Technologies’ thermal management specialists are happy to develop a direct cooling solution tailored to your needs – based on Peltier or compressor technology – and offer all services from development and proof-of concept to series production. Get in touch with us now to discuss your customized direct cooler.  Specifications: Nominal Cooling Capacity: 130 W (@+25°C Ambient, +25°C Mounting Plate (Bottom)) Power Consumption per Fan (Manufacturer’s Data): 6 W Max. Noise (Manufacturer’s Data): 49 dB(A) Coefficient of Performance (COP): 0.57  Applications: Direct Cooling and Precise Temperature Control of Laser Diode Modules With Power Dissipation of up to 130 W  

Cooling Capacity 230 to 460 W @+20 °C; Process Fluid Flow Rate >2 lpm @ 14 psig; 1/4" Valved CPC Fittings; Centrifugal Pump; Wetted Materials: Aluminium or Stainless SteelThe TCube Edge Thermoelectric Recirculating Chiller is a compact, high-performance thermal management solution designed for precision cooling in laboratory, medical, and photonics applications. Engineered by Solid State Cooling Systems, this benchtop chiller combines solid-state reliability with advanced control features, offering cooling capacities from 230 to 460 watts and temperature stability of ±0.05°C. Its thermoelectric design eliminates the need for compressors or refrigerants, resulting in quiet operation, low vibration, and long-term durability.With a footprint of 13 x 11 x 11 inches (33 x 28 x 28 cm) and a weight of just 25 lbs (11.3 kg), the TCube Edge is ideal for space-constrained environments. It supports a wide operating range from 0°C to 65°C and responds rapidly to changes in thermal load. The system is equipped with a digital PID controller and offers RS232 or optional Ethernet communication for seamless integration into automated workflows. Designed for ease of use and global compatibility, it features universal power input (100–240 VAC, 50/60 Hz) and can be configured to run on 24–28 VDC external supply.Key FeaturesCooling capacity from 230 to 460 watts at 20°C depending on model and configuration±0.05°C temperature stability and repeatability at constant loadCompact and lightweight benchtop design for easy integrationThermoelectric cooling with no compressor or FreonExtended operating range from 0°C to 65°CCentrifugal pump with adjustable flow rates up to 4.5 lpm1-liter internal tank with fluid level sensorWetted materials include aluminum or stainless steel cold platesUniversal power input and optional DC operationRS232 or Ethernet communication optionsVariable speed fan for quiet operation (<50 dBA at 50% load)Configurable audible alarms and auto restart functionalityCertified to UL, CE, CAN/CSA, EN 61010-1 and RoHS standardsApplicationsLaser cooling for diode and solid-state systems requiring stable thermal conditionsOptical instrumentation including interferometers and spectrometersAnalytical equipment such as chromatography and sample preparation platformsLaboratory automation systems with temperature-sensitive componentsMedical devices and diagnostics requiring compact, reliable coolingOEM integration into scientific and industrial systems with limited spaceWhat's Next?If your application demands compact, precise, and energy-efficient thermal control, the TCube Edge Thermoelectric Recirculating Chiller offers a robust and configurable solution. With its solid-state design, advanced control features, and global compatibility, it is trusted by researchers and engineers across disciplines.Contact our sales team today to discuss your requirements, request a quote, or explore customization options tailored to your system. 

Refractive Index 1.56; 250 cps Viscosity at 25°C Norland Optical Adhesive 88 ("NOA 88") is an optically clear, liquid adhesive that will cure when exposed to long wavelength ultraviolet light. The adhesive is a one-part, 100% solids material that offers advantages in optical bonding applications. The use of NOA 88 eliminates premixing, drying, or heat curing operations common to other adhesive systems. Curing time can be regulated by the end user by varying the intensity of the curing source.NOA 88 was formulated as a low outgassing (CVCM) and low Total Mass Loss (TML) adhesive. The ideal applications for this adhesive is for coating of parts destined for space exploration, bonding of high tech computer components,adhering parts in very sensitive instruments and coating sensitive components.NOA 88 is cured by ultraviolet light (315 nm to 395nm) with maximum sensitivity at 365 nanometers. The adhesive requires 5 Joules/sq.cm of energy to fully cure a 25 to 50 micron bond. The material has low oxygen inhibition, so adhesive exposed to air will cure tack-free with sufficient exposure to UV light.Typical Properties of NOA 88 Solids 100% Refractive Index of Monomer 1.52 Elongation at Failure 41% Modulus of Elasticity (psi) 131,000 Tensile Strength (psi) 2,000 Hardness - Shore D 90 Total Mass Loss (TML) 1.07% Collected Volatile Condensable Material (CVCM) <0.01% Dielectric Constant (1 MHz) 4.06 Dielectric Strength (V/mil) 457 Dissipation Factor (1 MHz) 0.0341 Volume Resistivity (ohm-cm) 6.85 x 10 to the 14 power Surface Resistivity (MEgohms) 3.71 x 10 to the 12 power The shelf life of the liquid material is at least four months from the shipment date if kept in a cool (5-22° C) dark place in the original container. If refrigerated, allow the adhesive to come to room temperature prior to use.

152.4 mm X 88.9, 0.015 °C/W, tubed cold plate.The CP10™ 4-pass is a cost-effective, single-sided aluminum cold plate available with either copper or stainless steel tubes. It is ideal for component cooling applications where the heat load is low-to-moderate. Our range of standard tubed cold plates provide cost-effective thermal solutions for component cooling applications where the heat load is low-to-moderate. These tubed cold plates consist of copper or stainless steel tubes pressed into a channeled aluminum extrusion. This “Press-Lock” technology eliminates the need for performance-limiting epoxy between the tube and the plate, resulting in superior thermal performance. Each tubed cold plate has a single tube with no joint, ensuring leak-free operation.

1310, 1550 nm; IL 1.0 dB; DOP <5%; ER <0.5 dB; RL 55 dB General Photonics’ DEP depolarizer module is a passive device (requiring no external power) that depolarizes laser output. The standard configuration can be used for coherence lengths less than 10 m. Custom units can be specified for coherence lengths of multiple kilometers. The DEP polarizer is ideal for minimizing the polarization sensitivity of fiber optic sensor systems such as systems for quasi-distributed temperature and strain sensing based on fiber Bragg gratings (FBG), systems for distributed temperature and strain sensing based on Brillouin or Raman scattering and systems for distributed acoustic sensing based on Rayleigh scattering. It can also help to eliminate the effects of PDL or polarization sensitivity of optical components and instruments. Equally important, it can be used for depolarizing pump lasers to eliminate the polarization sensitivity of Raman amplifiers. The DEP polarizer is packaged in a small (85 × 60 × 10 mm), rugged aluminium box, providing high performance and superb environmental stability. The internal structure and package size may be different depending on the coherence length or spectral width of the light signal to be depolarized. Contact AMS Technologies for an optimized configuration for your intended applications. Key Features: Customizable for Light Sources With Different Coherence Lengths Low Output Degree of Polarization (DOP): <5% Center Operating Wavelength: 1310, 1550 nm Wide Operating Wavelength Range: ±50 nm Low Insertion Loss: 1.0 dB Typical, 1.4 dB Maximum Compact Size: 85 × 60 × 10, 85 x 85 x 15 mm, Larger Package for Coherence Length >200 m No Power Source Required Coherence Length of Light Source: 10 m Standard, Others Specify Residual Extinction Ratio (ER): <0.5 dB Return Loss: 55 dB Optical Power Handling: ≥300 mW Fiber Type Input: PM Panda Fiber Fiber Type Output: SMF-28 Applications: Minimize Polarization Sensitivity of Fiber Sensors; Depolarize Pump Lasers; Remove Polarization Sensitivity of Raman Amplifiers; Eliminate Polarization Sensitivity of Optical Instruments; Eliminate the Effects of PDL; Can Be Integrated Into Remote Monitors