TSMJ-3A-1550-9/125-0.25-70-2.5-14-2 SM Tapered and Lensed Fiber

SM Fiber; 1550 nm; 9/125 µm Fiber; FC/APC; 0.25 mm Jacket; 2.5 µm Spot Diameter; 14 µm Working Distance; 2 m Length; AR Coating; 70 mm Stripped Length

SMD Surface-Mount Device;SWIR;1040 nm;1500 mA

1526-1563 nm; Output Power ≤17 dBm; Termination SM Fiber Pigtail, FC/APC Connector; Spectrum Flatness 1 dB Typ.; Full Temperature Power Stability ≤5% Beogold Technology's BG-ASE low-coherence broadband ASE (amplified spontaneous emission) light source is designed for industrial manufacturing and laboratory R&D applications. BG-ASE’s unique ATC and APC circuit control technology ensures very stable output power. The flattened ASE light source features high output power, low polarization and wide spectral width. The device is small and of high stability and reliability. With 5 VDC power supply and upper computer software, the user can read and set the module parameters via R232 communication serial port in real time. Module and benchtop structures are available for different needs. Key Features: Operating Wavelength Range: 1526 nm to 1563 nm Excellent Spectrum Flatness: 1 dB Typical (@ Room Temperature) Small Output Ripple High Adjustable Output Power: ≤17 dBm High Output Power Stability: ≤0.03 dB (Short Term), ≤0.2 dB (Long Term) Full Temperature Power Stability: ≤5% High Reliability Module and Benchtop Structures Available Customized Output Power and Configuration Operating Temperature Range: -45 °C to +85 °C Fiber Connector: SM Fiber Pigtail (Module), FC/APC or Customized (Benchtop) Communication Interface: RS232 (Module), RS232 Console or RJ45 (Benchtop) Power Supply: 5 VDC (Module), 220 VAC (Benchtop) Dimensions: 90 x 70 x 15 mm (Module), 260.6 x 162.8 x 76 mm (Benchtop) Applications: Fiber Optic Sensing; Component Test and Measurement; Medical and Biological Imaging; Fiber Optic Telecommunication

VIS-NIR; 260-1080 nm; Resolution 1.0-<30 pm; Simultaneous Range 15-350 nm; Interface USB; 156x114x54, 185x185x92 mm LightMachinery’s Hornet series of compact spectrometers provide resolutions better than 30 pm in the visible (VIS) and near infrared (NIR) range. Hornet series spectrometers are based on LightMachinery's patented Fluid Jet Polishing technology. Designed for characterizing laser spectra, the Hornet spectrometers achieve the resolution of large gratings spectrometers while covering a larger wavelength range. Simple PC-based software allows the user to review spectra in real time and save or export for more analysis. Labview drivers enable the Hornet spectrometers to be integrated into automated experimental setups. Sometimes you need something special - if you are looking for a customized spectrometer with specifications or functionalities that exactly meet your specific requirements, please get in touch with the AMS Technologies spectrometer experts. Our supplier LightMachinery is extremely experienced with specifying, designing and manufacturing custom spectrometers. We are looking forward to discussing your customized spectrometer solution! Key Features: Simple to use Can Measure Spectra From CW and Pulsed Sources High Resolution: 1.0 to <30 pm, sub 20 pm @532 nm (Resolving Power >25,000), 0.02/cm to 1.7/cm Simultaneous Range/Resolution Ratio: >10,000 @532 nm Accuracy: <200 pm Following Calibration (External Calibration Source Required) Dynamic Range: 100:1 to 500:1 (Single-shot Measurement, up to 50 dB With Exposure Bracketing) Wavelength Range: 260 to 1080 nm, Visible (VIS) to Near Infrared (NIR) Fast Real-time Measurements - Acquisition and Processing Speed >10 Hz Fiber Optic Input Quick Data Acquisition and Export Simple USB Interface LabView Drivers No Moving Parts (Single-shot Laser Spectrum Analysis) Ultra-compact Ultra-reliable Dimensions: 156 x 114 x 54 mm, 185 x 185 x 92 mm (HN-935x) Applications: Light Sources Characterization (Lasers, Diode Lasers, Super-luminescent Diodes); Monitoring Laser Modes in Real Time; Passive Components (Filters, Etalons, Fiber Bragg Gratings) Characterization to the 25 pm Level; Checking the Spectral / Mode Purity of Lasers; Classic Undergraduate and Graduate Experiments