With DLP technology, spectrometers for use in the food, pharmaceutical, oil and gas, and emerging industries will be able to deliver lab-quality performance out in the field and on the manufacturing line.

"Incorporating DLP technology into our range of OEM spectrometers revolutionizes our approach to classical spectroscopy," said Henrik Skov Andersen, CEO and President, Ibsen Photonics.

"Our new compact programmable polychromator with DLP technology allows pre-dispersive selection of multiple wavelengths for high-speed transmission or absorption measurements, using inexpensive broadband detectors across the VIS-NIR ranges. That unique ability will enable customers to generate dynamic measurement schemes and algorithms, gain speed and accuracy for critical applications, and protect samples from unnecessary exposure."

"We continue to push the limits of what DLP technology is capable of, opening it up for use in advanced scientific, industrial and medical solutions," said Mariquita Gordon, DLP Embedded manager at TI.

"With the new, near infrared DLP platform, spectroscopy equipment designers will be able to develop a whole new class of mobile equipment that moves the sensitivity and accuracy of lab equipment to the field, while reducing their overall system cost."

DLP4500NIR device

The approximately one million digitally programmable micromirrors at the heart of DLP technology set the new DLP4500NIR device apart from other components and solutions currently available for NIR spectroscopy. When paired with a single element detector, the DLP4500NIR allows engineers to replace expensive linear detector arrays to create high-performance spectrometer designs, while reducing the typical bill of materials. Optimized for use with 700- to 2500-nm light, the DLP4500NIR can be programmed to select and attenuate multiple wavelengths at speeds up to 4 kHz.

The DLP technology architecture also enables improved signal-to-noise ratios (SNRs) greater than 30,000:1 over a set measurement period for faster, more accurate results compared to spectrometers using traditional solutions.

Each of the micromirrors on the DLP4500NIR can be controlled to produce set patterns, with users able to further refine spectral resolution and wavelength ranges, adjust integration time, and equalize light throughput. As a result, users can employ adaptive scanning techniques to optimize material analysis on the fly for a broader range of substances using a single system.

The size of the DLP4500NIR allows for small product form factors, giving designers flexibility to create systems for use in the field or factory. Beyond spectroscopy, the DLP4500NIR can also be used in other applications, including single-pixel cameras, laser marking and microscopy.

DLP NIRscan evaluation module

The DLP NIRscan EVM represents a new option for engineers looking to create a truly portable, multi-function spectrometer at a lower cost. Offered as the first spectroscopy development platform based on DLP technology, DLP NIRscan includes numerous interfaces for design versatility. Featuring a DLP4500NIR device paired to a DLPC350 digital controller, DLP NIRscan also uses a single-element extended InGaAs detector matched with a transmission sampling module and a halogen lamp.

For processing power, DLP NIRscan features TI's Sitara AM3358 ARM Cortex - A8 Processor (AM3358), and a 24-bit, 30-kSPS delta-sigma analog-to-digital converter (ADC) (ADS1255). The built-in Ethernet port and two USB ports offer both wired and wireless (Wi-Fi and Bluetooth, connectors sold separately) connectivity options for interfacing with a computer.

The pre-loaded Linux operating system and integrated web server, based on the BeagleBone Black architecture, allow for setting up without any special downloads – designers can simply connect the DLP NIRscan to a computer over USB and open up a web browser. The web-driven interface enables remote connectivity for deployed systems through different devices, including smartphones or tablets. Users can also access support and tools from the BeagleBoard.org open source community.

Features:

• 1350 – 2450 nm wavelength range

• More than 30,000:1 signal to noise ratio for <1 second measurements

• Compatible with reflective or fiber-based sampling modules

• Connect through USB or Ethernet—no software download required!

• Open source code (Available April 2014)