LLPS Line-Laser Beam Profilers LLPS-200-LCM
The Line Laser Profiling System (LLPS) is a complete solution for line lasers up to 200mm long and down to 55um wide. It uses our flagship WinCamD-LCM4 beam profiling camera to scan a 200 millimeter linear stage. Full-featured free software displays the complete line-laser intensity distribution, vertical centroid and line-width plots, and other useful measurements. Standard product catalogue: Model | pixel size | measurement length | measurement width | measurement wavelength. LLPS-200-LCM | 4.2 M, 2048*2048 | 200mm | down to 55um | 355-1150nm. LLPS-200-LCM-NE | 4.2 M, 2048*2048 | 200mm | down to 55um | 355-1150nm. LLPS-200-LCM-UV | 4.2 M, 2048*2048 | 200mm | down to 55um | 190-1150nm. LLPS-50-LCM | 4.2 M, 2048*2048 | 50mm | down to 55um | 355-1150nm. Ordinary beam profilers struggle to measure line lasers because they generally measure spots only up to 2/3 of the active sensor area. For example, the S-WCD-LCM sensor size is 11.3mm, limiting measurable line length to within 7.7mm. Longer lines have large length and small width, a distinctive geometry difficult for ordinary profilers. Our complete line-laser profiling solution therefore uses the flagship WinCamD-LCM4 camera with a 50mm or 200mm translation stage for scanning, plotting and measurement through dedicated software. The system is effectively a WinCamD-LCM4 plus a movable rail, available in 50mm and 200mm versions, for line lasers measuring 50mm-200mm long and 55um-3mm wide. Software offers automatic exposure configuration, custom start/end positions, automatic PDF reports, residual sensor-tilt compensation, Excel or CSV export, and saving/loading line-laser files (*.l_wcf). There are no license fees, installation limits or software-update charges. It controls stage motion, automatically configures optimal scanning exposure and provides full-featured, highly customizable line analysis.
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BRM-6301 divergence angle tester BRM-6301-02 Beam Profilers Brolight
Wavelength measurement range: 200~1100nm Angular measurement range (γ axis): －90°～＋90° Angular measurement range (c axis): 0°～360°
The BRM-6301 is a fully automatic divergence-angle tester designed specifically for laser diodes with large divergence angles, addressing the limitation of beam profilers that measure only LDs with small far-field divergence. One-button automatic measurement produces angular-distribution plots in polar and Cartesian coordinates, with optional half-intensity-angle data. The BRM-6301 is flexibly configured with detectors and mounts selected for the tested LD's wavelength, power, package, and other characteristics. The BRM-6301 also measures LED angular distributions. When the BRM-6301 is used with BRM-610X laser-driver controllers and BRM-620X TEC temperature controllers, small-angle LDs can be analyzed not only for divergence but also for P-I-V curves, threshold current, WPE, and other characteristics.
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The BRM-6301 is a fully automatic divergence-angle tester designed specifically for laser diodes with large divergence angles, addressing the limitation of beam profilers that measure only LDs with small far-field divergence. One-button automatic measurement produces angular-distribution plots in polar and Cartesian coordinates, with optional half-intensity-angle data. The BRM-6301 is flexibly configured with detectors and mounts selected for the tested LD's wavelength, power, package, and other characteristics. The BRM-6301 also measures LED angular distributions. When the BRM-6301 is used with BRM-610X laser-driver controllers and BRM-620X TEC temperature controllers, small-angle LDs can be analyzed not only for divergence but also for P-I-V curves, threshold current, WPE, and other characteristics.
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Imported Beam Profiler CinCamCMOS-1.001-Nano(S)-UV Beam Profilers Jcoptix
Operating Wavelength: < 150-1150 nm Pixel Size: 5.5 μm × 5.5 μm Beam Diameter min/max [Before Slash: Minimum Spot Diameter in μm; After Slash: Maximum Spot Diameter in mm; Units Not Converted or Combined]: 55 μm/7.5 mm
JCOPTIX imported beam profilers cover nearly all UV-to-NIR beam-measurement needs, improving product quality, process reliability, and efficiency for laser-spot inspection/testing. Optimized CinCam technology from Germany's CINOGY provides highly sensitive CMOS coverage from UV to near IR. High resolution and small pixels ensure accurate CW/pulsed beam analysis. Plug-and-play design adapts easily to standard optomechanics. Filters, attenuators, and M² instruments are also available. Imported beam profilers. Models: CinCamCMOS-1202, CinCamCMOS-1202-RT, CinCamCMOS-1202-IR, CinCamCMOS-1202-UV, CinCamCMOS-1.001-Nano(S), CinCamCMOS-1.001-Nano(S)-RT, CinCamCMOS-1.001-Nano(S)-IR, CinCamCMOS-1.001-Nano(S)-UV, CinCamCMOS-1.001-Nano(L), CinCamCMOS-1.001-Nano(L)-RT, CinCamCMOS-1.001-Nano(L)-IR, CinCamCMOS-1.001-Nano(L)-UV, CinCamCMOS-3501, CinCamCMOS-3501-RT. Pixel size 4.6-6.4 μm; large sensor dimensions listed as up to 36-27 mm. JCOPTIX supplies German Cinogy CMOS profilers. Large-aperture cameras reach 30 mm for large laser spots, line beams, and highly divergent far-field measurements. Unique CinCam algorithms/technology optimize UV-to-NIR response in CMOS cameras. High resolution/small pixels ensure accurate continuous/pulsed analysis. Universal C/F-Mount interfaces simplify adding attenuating filters, expanders, and UV/IR converters. CinCamCMOS-3501, with aperture exceeding 24 mm, includes full-featured RayCi-Standard software for real-time monitoring, spot size, centroid, ellipticity, normalized relative power, two-/three-dimensional intensity distribution, pointing stability/centroid jitter, power fluctuation curves, and divergence. Data and PDF reports can be exported for routine measurements. M² systems. Models: CS200-FB-LP, CS200-FB-HP, CS300-HP. Compact robust systems requiring no assembly; up to 6 focusing lenses for wide M² range; 2D/3D Gaussian fitting; optional large spots 24 mm at 1/e2 or 14 mm FWHM; CW/pulsed compatibility; accuracy 2~3%; fast measurement 20~40 s. Cinogy professional M² systems include focusing optics, precision automated rails, and CinCam CCD/CMOS/InGaAs cameras. RayCi automatically controls/tracks the entire analysis for accuracy and precision, calculating spot sizes at different caustic planes to ISO 11146-1/2. RayCi-Pro measures M², K, waist size/location, divergence, and Rayleigh length. Visualization, extensive analysis, and advanced algorithms ensure precise, accurate beam-quality measurement. Technical notes: camera-based CinCamCMOS profilers directly capture profiles and analyze two-dimensional energy distributions, including Gaussian-like, flat-top, annular, and irregular patterns. Besides CW beams, synchronous triggering measures pulsed and single-pulse beams. High-value CinCamCMOS basic models combine economical cameras and free basic software for most users, particularly industrial production-line setup/calibration, basic research, and low-power measurements. Download the instructions below for details.
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Imported Beam Profiler CinCamCMOS-1.001-Nano(L) Beam Profilers Jcoptix
Operating Wavelength: 400-1320 nm Pixel Size: 5.5 μm × 5.5 μm Beam Diameter min/max [Before Slash: Minimum Spot Diameter in μm; After Slash: Maximum Spot Diameter in mm; Units Not Converted or Combined]: 55 μm/7.5 mm
JCOPTIX imported beam profilers cover nearly all UV-to-NIR beam-measurement needs, improving product quality, process reliability, and efficiency for laser-spot inspection/testing. Optimized CinCam technology from Germany's CINOGY provides highly sensitive CMOS coverage from UV to near IR. High resolution and small pixels ensure accurate CW/pulsed beam analysis. Plug-and-play design adapts easily to standard optomechanics. Filters, attenuators, and M² instruments are also available. Imported beam profilers. Models: CinCamCMOS-1202, CinCamCMOS-1202-RT, CinCamCMOS-1202-IR, CinCamCMOS-1202-UV, CinCamCMOS-1.001-Nano(S), CinCamCMOS-1.001-Nano(S)-RT, CinCamCMOS-1.001-Nano(S)-IR, CinCamCMOS-1.001-Nano(S)-UV, CinCamCMOS-1.001-Nano(L), CinCamCMOS-1.001-Nano(L)-RT, CinCamCMOS-1.001-Nano(L)-IR, CinCamCMOS-1.001-Nano(L)-UV, CinCamCMOS-3501, CinCamCMOS-3501-RT. Pixel size 4.6-6.4 μm; large sensor dimensions listed as up to 36-27 mm. JCOPTIX supplies German Cinogy CMOS profilers. Large-aperture cameras reach 30 mm for large laser spots, line beams, and highly divergent far-field measurements. Unique CinCam algorithms/technology optimize UV-to-NIR response in CMOS cameras. High resolution/small pixels ensure accurate continuous/pulsed analysis. Universal C/F-Mount interfaces simplify adding attenuating filters, expanders, and UV/IR converters. CinCamCMOS-3501, with aperture exceeding 24 mm, includes full-featured RayCi-Standard software for real-time monitoring, spot size, centroid, ellipticity, normalized relative power, two-/three-dimensional intensity distribution, pointing stability/centroid jitter, power fluctuation curves, and divergence. Data and PDF reports can be exported for routine measurements. M² systems. Models: CS200-FB-LP, CS200-FB-HP, CS300-HP. Compact robust systems requiring no assembly; up to 6 focusing lenses for wide M² range; 2D/3D Gaussian fitting; optional large spots 24 mm at 1/e2 or 14 mm FWHM; CW/pulsed compatibility; accuracy 2~3%; fast measurement 20~40 s. Cinogy professional M² systems include focusing optics, precision automated rails, and CinCam CCD/CMOS/InGaAs cameras. RayCi automatically controls/tracks the entire analysis for accuracy and precision, calculating spot sizes at different caustic planes to ISO 11146-1/2. RayCi-Pro measures M², K, waist size/location, divergence, and Rayleigh length. Visualization, extensive analysis, and advanced algorithms ensure precise, accurate beam-quality measurement. Technical notes: camera-based CinCamCMOS profilers directly capture profiles and analyze two-dimensional energy distributions, including Gaussian-like, flat-top, annular, and irregular patterns. Besides CW beams, synchronous triggering measures pulsed and single-pulse beams. High-value CinCamCMOS basic models combine economical cameras and free basic software for most users, particularly industrial production-line setup/calibration, basic research, and low-power measurements. Download the instructions below for details.
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