GoldenEye™ Snapshot Hyperspectral Imager

1-8 Channels; Max. Sensor Length/Channel 20m (Standard), 50 m (Extended); Measurement Points/m 384 (100 m Sensors), 1,538 (up to 20 m Sensors); Measurement Rate 2.5-250 Hz; Strain Measurement Range ±15,000 µɛ; Temperature Measurement Range -40 to 200 °C; Ethernet Data InterfaceThe ODiSI 7100 Series by Luna Innovations represents a breakthrough in high-definition fiber optic sensing, engineered to meet the rigorous demands of modern materials testing and structural monitoring. Designed for researchers, engineers, and industrial users, this advanced system delivers unparalleled spatial resolution and real-time data acquisition for strain and temperature measurements. With the ability to capture thousands of data points per meter, the ODiSI 7100 enables comprehensive insight into the behavior of materials and systems under dynamic conditions.Unlike traditional point sensors, the ODiSI 7100 leverages distributed sensing technology to provide continuous measurement along the entire length of a fiber optic sensor. This capability is critical for applications requiring high fidelity model validation, process optimization, and structural health monitoring. The system’s passive, dielectric sensors are corrosion-resistant and immune to electromagnetic interference, making them ideal for deployment in challenging environments, including embedded installations and sharply curved surfaces.Key FeaturesThe ODiSI 7100 Series sets a new standard in distributed fiber optic sensing with the following key features:High-definition distributed sensing: Achieve sub-millimeter gage pitch with up to 1,538 measurements per meter, enabling detailed strain and temperature mapping.Multichannel architecture: Supports up to 8 channels, each capable of handling up to 100 meters of sensing fiber, allowing for scalable and flexible deployment.Real-time data acquisition: Provides immediate feedback from demanding environments, facilitating rapid decision-making and process control.Robust sensor design: Flexible, lightweight, and easy to install, the sensors require no electrical power and offer long-term stability without recalibration.Extended reach: Standoff cable lengths of up to 200 meters per channel enable remote sensing in hard-to-access locations.ApplicationsThe versatility and precision of the ODiSI 7100 Series make it suitable for a wide range of technical applications:Advanced materials characterization: Capture strain profiles in composites, metals, and hybrid materials to support R&D and quality assurance.Process optimization: Monitor in-situ temperature distributions to enhance efficiency in manufacturing and energy systems.Finite element model validation: Measure two- and three-dimensional strain fields to verify simulation accuracy.Structural integrity assessment: Detect micro-cracks and defects in aerospace, automotive, and civil infrastructure components.Smart part integration: Embed sensors within materials to create intelligent components capable of self-monitoring.What's Next?The ODiSI 7100 Series is more than a sensor system, it’s a platform for innovation. Whether you're developing next-generation aerospace structures, optimizing battery performance, or validating complex simulations, the ODiSI 7100 delivers the data density and reliability needed to push boundaries. Its seamless integration with Luna’s visualization and analysis software further enhances usability and insight.To explore how the ODiSI 7100 Series can elevate your research or industrial application, contact our sales team today for a personalized consultation or quote. 

Center Wavelength 440 to 1625 nm; Insertion Loss 0.8 to 2.5 dB; Return Loss ≥14 to ≥60 dB; Polarization Extinction Ratio 20, 25, 30; Fiber Type SM, Coating ≤400 µm; Max. Input Power 200 mW OZ Optics’ FPR line of polarization rotators, controllers and analyzers manipulate and control the state of polarization of an input beam of light and couple the adjusted light into an output fiber or detector. These systems typically consist of an input with fiber pigtail or connector receptacle, from one to three polarization optic components and an output coupler with fiber pigtail or connector receptacle. The FPR product line uses bulk waveplates and polarizing glass to accomplish the polarization control. Each polarization optic stage can be removed without loss of coupling. These stages may be replaced or interchanged as the application requires. Separate stages with polarization optics mounted in a rotary platform may be purchased to allow using only one fiber optic assembly for multiple applications. Three types of polarization optics are employed: Plate polarizers, with high extinction ratio and low loss, half wave plates rotating the plane of polarization and quarter wave plates changing the ellipticity of the input light. Consult AMS Technologies for special component performance requirements. For extreme applications, custom achromatic waveplates can be supplied that allow operation over wider bands. These components are much more expensive than simple waveplates and detailed requirements should be supplied to ensure the proper component is supplied. OZ Optics manufactures two standard sizes of FPR devices. The standard size uses 2.5" square rotational stages and is the preferred choice for applications where frequent adjustments must be made or repeatability is important. The miniature stage uses 1" stages to fit into tight spaces and is preferred for use in equipment boxes or where a single state needs to be found and subsequent alignment is minimal. Key Features: User-friendly Lab Package or Compact Package for Inside Systems Single Mode (SM), Multi Mode (MM) and Polarization Maintaining (PM) Fiber Versions Removable/Replaceable Optics (Interchangeable) Wide Range of Available Wavelengths High Polarization Extinction Ratio Convert Any Polarization State to Any Other Polarization State Compatible With Standard Detector Housings Applications: Laser to Fiber Coupling; Polarization Dependent Component or PM Fiber Testing; Fiber Amplifiers; Coherent Communications; Polarization Error Rate Measurements; PM Fiber Axis Conversion

Detector Type Linear Array PbSe FPA; Spectral Range 1.0-5.0 µm; Pixel Size 600x60 µm; 256 Pixels; Resolution 1x256; Max. Line Rate 500 lps; Interface USB 2.0 New Infrared Technologies’ (NIT) LUXELL Series of line array MWIR (midwave infrared) cameras provide line rates of up to 300 lps (lines per second) at 1×256 pixels resolution – in uncooled operation. The LUXELL CAMERA-S with IP67-rated housing is the plug-and-play industrial version featuring a USB 2.0 interface and industrial connector. The lens, with f/35 mm and CS-mount optical interface, is IP67-rated as well. The camera includes the LUXELL software suite and a development kit for LabVIEW. This ready-to-use system is well suited for the development of affordable solutions and integration in the customer’s production line. The LUXELL CAMERA-S is based on the linear scanning array LUXELL CORE-S, an electronic module based on a microcontroller architecture, which includes the linear, 1x256 pixels LUXELL FPA (Focal Plane Array), 2-channel readout electronics (300 lines per second max), USB 2.0 output, and a powerful software suite and SDK for LabVIEW. Though not housed in an industrial case, the LUXELL CORE-S module also is functionally plug and play, ready to read the FPA signal and ideal for the development of very cost-effective solutions based on the LUXELL FPA. With dimensions of 56 mm x 40 mm x 29.5 mm (without connector), the compact-size LUXELL CORE-S module enables full integration in Industry 4.0 applications and factories of future production lines. For larger and two-dimensional array cameras from New Infrared Technologies, please refer to the TACHYON series of high-speed imaging MWIR cameras. And for applications requiring single-pixel MWIR detection, have a look at NIT’s LEPTON series of single-pixel VPD PbS MWIR detectors. Key Features: Detector Type: Linear Array PbSe FPA Uncooled Operation Array Format: 1x256 (256 Pixels) Aspect Ratio: 1:10 Pixel Size: 600 µm x 60 µm Readout Method: x-y Addressed (Rolling Shutter) Number of ADC Readout Channels: 2 Maximum Line Rate: 500 lps (Lines per Second) Spectral Range: MWIR, 1.0 µm to 5.0 µm Peak Wavelength of Detection: 3.7 µm Integration Time: >4.10 µs to 20 µs, Selectable Data Format: Raw Data 14 Bit Optimum Temperature Detection Range: >+100 °C Interface: USB 2.0 High-speed ((480 Mbps )With Industrial Connector (LUXELL CAMERA S) Includes Shutter for 1-pt Offset Correction Software Included: NIT Software Suite (Acquisition & Visualization), LabVIEW SDK Start-up Time: <10 s (LUXELL CAMERA S) Power Supply: 5 VDC, 0.2 A Through USB Connection IP67-rated Metal Housing With CS-mount Optics Interface, M12x1 Industrial USB Connector, Tripod Screw Holes and Water Block for Thermal Stabilization of FPA With Water or Air (LUXELL CAMERA S) Dimensions LUXELL CAMERA S: 70 x 131.5 x 17 mm (With Housing, Water Block and Lens) Weight LUXELL CAMERA S: 400 g Optics LUXELL CAMERA S: Silicon Lens f = 35 mm, F# 1.1, FoV 25° x 1°, AR Coating, Manual Focus, CS-mount, IP67 Dimensions LUXELL CORE-S Module: 56 x 44.5 x 41.5 mm Weight LUXELL CORE-S Module: 60 g Dimensions 1x257 Pixels LUXELL FPA; 24 x 24 x 2.2 mm Applications: Industrial Process Control (Scanning); Glass Manufacturing Industry; Gas and Flame Detection; Industrial Welding Process Monitoring; Laser Manufacturing Process Monitoring; Machine Vision, Spectroscopy; OEM Integration

Disc, Sheet and Roll Type Available; Grit from 0.3 to 60 µm; Aluminum Oxide; Stainless Steel Ferrule; Fiber Optic Polishing Nanolap's high-quality lapping films use precision-graded aluminum oxide particles coated on a polyester film. They provide precision finishes in diverse applications including polishing of industrial rolls (coating, calandering, etc.), micromotor shafts, CD/DVD stampers, as well as other applications requiring controlled surface finishes on metals, alloys and ceramics. 

No. of Channels 12, 24; 1310, 1550, 1625 nm; Source Type SLED; Output Power Level >-6 dBm; IL Repeatability ±0.025 dB; IL Dynamic Range 50 dB; Fiber Type SMF-28; Connector Type Ultra FC/PC, FC/APC, SC, SCA, LC, MU OZ Optics has developed an environmental multi-channel optical test system allowing fast, simple and flexible long-term reliability testing. The system integrates an optimized optoelectronic design (including sources, optical switches, and photodetectors) and robust system management software. The EOTS-100 system allows optical manufacturers to perform automated and flexible long-term testing for compliance with industry standards such as Telcordia generic requirements (GR-326-CORE, GR-1209-CORE and GR-1221-CORE). The meter offers the capability of characterizing very low insertion loss (IL) drift. It also offers the optional capability of measuring return loss and polarization dependent loss variations. Measurement capability using tunable sources can also be offered The system can be run through any computer operating Windows™. The management software has a built-in database for data processing and statistical analysis of multiple sets of measurements. Collected data can be graphically displayed for easy interpretation. Remote configuration and operation of the unit is possible with the unit via a parallel printer port, a standard serial communication port (RS232) or General Purpose Interface Bus (GPIB). Key Features: Long-period Testing Capability for Optical Passive Component Reliability Multiple Wavelength Configurations Multiple Channel Configurations Optional Swept Wavelength Capability Flexible and Simple User Interface Statistical Measurement Analysis Custom Configuration Designs Available Optional Optical Return Loss (ORL) Capability Optional Polarization Dependent Loss (PDL) Measurement Capability Wavelength: 1310 nm, 1550 nm or 1625 nm Source Type: SLED Output Power Level: >-6 dBm Number of Channels: 12 or 24 Insertion Loss (IL) Repeatability: ±0.025 dB Insertion Loss (IL) Dynamic Range: 50 dB Optical Return Loss (ORL) Accuracy: ±0.5 dB up to 55 dB, ±1 dB from 55 dB to 60 dB (for FC/APC on DUT) Polarization Dependent Loss (PDL) Accuracy: ±(0.01 dB + 5% of PDL) PDL Dynamic Range: 0.025 dB up to 10 dB Fiber Type: SMF-28 (9/125/900 μm) Single Mode (SM) Fiber Input/Output Connector Type: Ultra FC/PC, FC/APC, SC, SCA, LC, or MU Display Resolution: 0.01 or 0.001 dB Switch Life Time: Over 10 Mio. Cycles Adjacent Channel Switching Time: 10 ms Host Computer Operating System: Windows 2000, Me, XP, 98. Min. Computer Requirements: 300 MHz or faster Pentium III Computer, 128 MB of RAM, External Control Parallel Printer Port, RS-232 or GPIB Input Voltage: 100 VAC to 240 VAC / 50 Hz to 60 Hz Operating Temperature: 0°C to +50°C Dimensions (Without External Computer : 17.6 x 48 x 36 cm (19 Inch Rack Mountable) Weight: <10 kg Applications: DWDM Channel Testing; Long-term Reliability Testing on Optical Passive Components; Characterization of Insertion Loss (IL) Versus Wavelength Dependence; Optical Return Loss (RL) Measurement; Characterization of PDL Dependence Versus Wavelength; Product Qualification as per Telcordia; Quality Control

400-1700 nm; 12-240 Spectral Bands; Push-broom, Snapshot Operation Mode; Spectral Resolution 3-15 nm FWHM; Max. Frame Rate 8-120 fps; Standard Lens 16, 35, 45 mm (21°, 18°, 17° FOV) Within its OCI™ Series of hyperspectral imagers (OCI is a phonetic spelling of "all seeing eye"), BaySpec offers systems ranging from miniaturized push-broom cameras for visible to near-infrared (NIR) to handheld snapshot hyperspectral imagers, hyperspectral cameras designed specifically for use on unmanned aerial vehicles/systems (UAV/UAS), all the way to ready-to-fly UAV systems for aerial hyperspectral imaging. OCI™­ F Series cameras are miniaturized (14 x 7 x 7 cm) and lightweight (~570 g) push-broom hyperspectral cameras covering the full visible (VIS) to near-infrared (NIR) wavelength range from 400 to 1000 nm, or short-wave infrared (SWIR) wavelength range from 900 to 1700 nm. The cameras feature a super-speed USB 3.0 interface for fast data transfer rates up to 60 fps. Not dependent on a constant scanning speed, the OCI ­F Series offers versatility on various platforms such as UAVs with perfect hyperspectral image stitching. Three models with 60, 120 or 240 spectral bands are available. The OCI™-2000 snapshot handheld hyperspectral imager brings high-performance hyperspectral imaging in a handheld form factor weighing only approximately 450 g. The OCI™-2000 imager acquires full, continuous VIS to NIR hyperspectral/multispectral data with simple point-and-shoot operation. Compact OCI™-OEM hyperspectral cameras are the optical engines of the handheld OCI-1000™ (push-broom) and OCI-2000™ (snapshot) hyperspectral imager, featuring extreme compactness and fast data transfer rate. The high-performance hyperspectral/multispectral cameras work in push-broom mode (OCI™-U-1000) or snapshot mode (OCI™-U-2000) with high spectral resolution and fast speed in a compact form factor weighing less than 180 g. Continuous hyperspectral data capturing can happen at video rates. Compactness, simple operation and optional SDK makes the OCI™-OEM integration an effortless task. OCI™-UAV airborne hyperspectral cameras are push-broom (OCI™-UAV-1000) or snapshot (OCI™-UAV-2000) cameras designed specifically for use on unmanned aerial vehicles/systems (UAV/UAS), or remotely operated vehicles (ROV). Packed with a high-performance, miniature single-board-computer, they acquire VIS to NIR hyperspectral data with continuous spectral and spatial coverage. Ready-to-fly hyperspectral total solutions are also available. Operating of the OCI-UAV cameras is automatic and requires minimal human intervention. The OCI™-M+, a push-broom multispectral imager is specifically designed for aerial imaging, featuring a lightweight camera with compact size. It comes with 12 selective bands including three RGB bands, and nine spectral bands from red edge to NIR – most commonly used for precision agriculture. This imager is fully integrated with DJI Inspire 2 UAV allowing the maximum field coverage with high spatial resolution (4000 spatial pixels). Fully integrated and easy to operate, the OCI-M+ UAV ready-to-fly package has made aerial imaging process very straightforward, and is ideal for applications such as precision agriculture, remote sensing, and geological survey. BaySpec’s OCI™-D airborne VIS-NIR hyperspectral imager with extended wavelength range covers full VIS-NIR wavelength range from 475 to 975 nm. Being a snapshot hyperspectral imager, OCI-D2000 fundamentally eliminates artifacts caused by motions during flight. These innovations significantly reduce the requirements on UAV system, so that integration is almost effortless for many UAV/ROVs. Included with BaySpec’s SpecGrabber™ for camera control and data acquisition, and CubeCreator™ for hyperspectral data processing, the OCI™-D imager offes up to 40 spectral bands with 500x250 pixels and 12 to 15 nm resolution with video rate speed. Key Features: Full Visible (VIS) to Near-infrared (NIR) Coverage: 400 (450, 600) to 1000 nm Full Short-wave Infrared (SWIR) Coverage: 900 to 1700 nm (OCI™-F-SWIR Hyperspectral Camera) Operation Mode: Push-broom, Snapshot Number of Spectral Bands: 12 to 240 Spectral Resolution: 3 nm to 15 nm FWHM Spatial Pixels: 250 to 3956 Pixels x Scan Length (Push-broom Models), Up to 400 x 200 Pixels (Snapshot Models) Standard Lens: 16 mm (21° FOV, OCI™­ F Series), 35 mm (18° FOV, OCI™-UAV, OCI™-OEM Series), 45 mm (17° FOV, OCI™-M+) Objective Lens Interface: C-Mount Faster Scanning With Wide-angle Lens (OCI™-M+) Exposure Time: 20 µs to 1 s (OCI™­ F Series, OCI™-M+), 0(1) to 300 ms (OCI™-UAV, OCI™-OEM Series) Max. Frame Rate: 8 to 120 fps Camera Interface: USB 3.0, USB 2.0 Real‐time Sample Preview (OCI™­ F, OCI™-M+, OCI™-UAV, OCI™-OEM Series) Extremely Compact and Lightweight Imagers With No Moving Parts, High Reliability “True Push‐broom” Scanning With Random Speed (Push-broom Models Only) Innovative Non-slit Design Significantly Reduces System Complexity (OCI™-M+, OCI™-UAV, OCI™-OEM) Extremely Easy-to-use Point-and-shoot Hyperspectral Imager; Self-contained System With Touchscreen Computer Integrated in a Handheld Form; Choice of Lenses for Different FOV (OCI™-2000) Easy Integration in a Variety of Platforms (OCI™­ F, OCI™-UAV, OCI™-OEM, OCI™-D Series) Effortless System Integration (OCI™-M+, OCI™-OEM Series) Eliminate Costly GPS/INS Orthorectification Post Processing Yields Distortion-free Hyperspectral Band Images Ready-to-fly System (OCI™-M+, OCI™-UAV) UAV (OCI™-M+): DJI Inspire 2; 22 min Flying Time; Remote Controller, Battery, Charger, CineSSD & Station Included UAV (OCI™-UAV Series): 700 mm Multi-rotor, Shock-resistant Light Polymer Frame; Up to 20 min Flying Time; Automatic Flight Control Via Mission Planner; Autopilot, 2 x 4500 mAH LiPo Battery, Gimbal for Imager Included Applications: Precision Agriculture; Food Quality Sorting; Sorting; Airborne (Mini) UAV/ROV; Remote Sensing; Chemical Detection; Process Control; Counterfeit Detection & Anti‐Counterfeiting; (Bio)medical Diagnostics; Forensics; Pharmaceuticals; Security; Defense; Oceanography; Ocean Monitoring; Forestry; Estuary Monitoring; Bathymetry; Mineral Discovery; Mining; Oil & Gas Exploration; Geological Survey; Ground Survey; Environmental Studies; Law Enforcement; Handheld Spectroscopy; Tissue Diagnostics; OEM Systems

Non hermetic, minimum bend radius: 5mm, mid-temperature acrylate coating type: 150°C.Single mode mid-temperature specialty optical fibers. Key optical specifications Operating Wavelength (nm)  1310, 1550 Cable Cutoff Wavelength (nm)  ≤ 1260 Maximum Attenuation (dB/km)  0.38 @ 1310 nm    0.24 @ 1550 nm Mode-field Diameter (µm)  8.6 ± 0.4 @ 1310 nm    9.65 ± 0.5 @ 1550 nm           Key geometric, mechanical and environmental specifications Cladding Outside Diameter (µm)  125 ± 1.0 Coating Outside Diameter (µm)  245 ± 10* Core-to-Cladding Offset (µm)  ≤ 0.5 Standard Lengths  500 m, 1 km, 2 km, 5 km Proof Test (kpsi)  100 Operating Temperature (°C)  -60 to 150 Coating  Mid-Temperature Acrylate Optional Hermetic Layer           * 200 ± 10 μm also available Performance characteristics** Numerical Aperture 0.12 Bend Loss (X mm radius; 1 turn) (dB/turn) ≤ 0.10 @ 1550 nm   ≤ 0.30 @ 1625 nm Recommended Minimum Bending Radius (mm) 5        ** Values in this table are nominal or calculated values