MICROXCAM-384i-HS

LIDAR

INFRARED CAMERA MODULE

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The MICROXCAM-384i-HS is intended for developers of spectroscopic applications. It is provided as a development kit that includes driver electronics and data acquisition software.

The MICROXCAM-384i-HS is a hyperspectral imager operating over the whole Mid-InfraRed (MIR) spectral range, also known as the molecular fingerprint region, where chemical compounds can be better discriminated than in the Vis-NIR range. The MICROXCAM-384i-HS consists of a tunable Fabry-Pérot interferometer (FPI), an optical lens, and an uncooled infrared camera. The hyperspectral data is obtained by acquiring spatial 2D images at different wavelengths. The FPI is a micro-electro-mechanical-system that provides control of the wavelength through the simple application of a voltage. Thanks to its unique broadband detector technology, the MICROXCAM-384iHS allows, in a single modular assembly, the selection of different spectral ranges of interest by exchanging the FPI-containing optical module.

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APPLICATIONS • Agriculture • Food industry • Cosmetics • Spectroscopy • Security • Mineralogy • Biomedical • Pharmaceutical

INO has devised a development kit for the MICROXCAM-384i-HS imaging spectrometer, to make it easy for end-users to develop and test infrared imaging applications. In addition to the spectral imaging camera, the development kit includes as an option an infrared source and a sample holder designed to allow users to perform reflectance-mode spectral imaging measurements. In the proposed development kit configuration (figure 4), a hot source provides illumination over a 1.5-inch diameter area of the sample. With the camera at a distance of 80 mm from the sample, this corresponds to a 40 pixels diameter image, with each pixel corresponding to a 0.9 mm spatial resolution at the sample. Hence, the system can measure “macro”-size spectral images, unlike the small sample imaging areas currently provided by imaging FTIR systems. This could prove very useful in applications such as impurity detection. Under typical operating conditions, a signal to noise ratio close to 1280 is achieved with this system.

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MIR hyperspectral imaging

MIR hyperspectral imaging will find a wealth of applications in markets such as defense and security, advanced manufacturing, biomedical or environment and natural resources. The figure below (Figure 6) illustrates a potential application in food counterfeiting namely the discrimination between pure maple syrup, corn syrup and molasses. Images and IR spectra (transflectance) were recorded from thin layers of these liquid sugars deposited onto a gold-coated glass slide.

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Spe.

 

At INO, we specialize in developing solutions designed to make businesses more competitive, no matter what their size or area of activity. From consultation to production, we offer fast lead times and share the risks associated with technology development.

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Modular 3D Sensors

INO’s high power and high speed 3D profilers are designed to measure surfaces several meters wide with unprecedented accuracy in full sunlight. To this end, INO develops a series of dedicated software and hardware tools. Features are offered “à la carte” to speed up the product development cycle and deliver performance.

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Lidar

Lidar (light detection and ranging) is the leading optical technology for measuring distances, from a few meters to several kilometers. Like radar, it measures the travel time of light backscattered or reflected by a target. However, lidar makes it possible to determine distances and map its environment with greater precision.

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Fiber Laser

INO’s industrial fiber laser platform allows users to select arbitrarily shaped pulse waveforms with durations ranging from 1 ns to over 1 µs to address a wide variety of laser materials processes. The energy deposition rate at the workpiece may be further controlled by regulating the temporal pulse shape, using either pulse-on-demand or pulse bursts, thanks to a proprietary MOPA system architecture featuring synchronous pumping. Pulse energy up to the mJ level and peak power in excess of 50 kW are readily achieved with outstanding pulse-to-pulse stability for consistent and precise results.

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Fiber Optic Chemical Sensor

INO has developed a novel fiber optic chemical sensor technology based on ion-selective membranes. This sensor relies on the membrane’s absorption spectrum, which depends on the concentration of a target ion. The membrane is used as the cladding when deposited on a multimode fiber, which guides the signal. The uniqueness of this technology comes from the fact that the concentration of ions in the solution is monitored via evanescent wave spectroscopy. This configuration allows concentration measurements in colored or even opaque solutions, since the light propagating in the core only interrogates the membrane and never “sees” the medium under testing. Moreover, the membrane composition can be adjusted to detect different ions.

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MEMS Foundry Service

INO offers a complete range of MEMS/MOEMS foundry services. Whether you need a very specific service or a fully-integrated MEMS creation process, we have the resources and expertise to help you reach your goals and deliver results. Our state-of the-art MEMS foundry clean room facility is perfectly adapted to the processing of 6″ and 8″ silicon substrates.

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Silicon Photonics Packaging

Packaging accounts for a gigantic part of silicon photonics devices’ overall cost. Thanks to more than 20 years of experience in multiple packaging applications, INO can assume this critical challenge. We build custom silicon photonics packages that will meet your specifications.