USDA Chooses zNose to Combat Contraband Food

NEWBURY PARK, CA--(BUSINESS WIRE)--Electronic Sensor Technology (OTCBB:ESNR), a leading manufacturer of ultra-fast vapor analyzers, announced that its zNose has been selected by U.S. Department of Agriculture (USDA) for evaluation of its suitability for use to detect contraband meat products and vegetation. Presently, the USDA randomly inspects incoming packages and mail at ports of entry for contraband food products. The zNose will enable the USDA to be more comprehensive in its inspection as well as improving the efficiency of the process.

The zNose is the first electronic nose, based on ultra-fast gas chromatography, whose results have been validated by independent laboratories, including the Environmental Protection Agency and the White House Office of National Drug Control. The zNose contains a library of retention time indices for over 700 volatile organics which enables it to easily identify specific volatile organic compounds (VOCs).

A detailed discussion (PDF) on the use of the zNose for the detection of meat can be accessed here.

About Electronic Sensor Technology
Founded in 1995, Electronic Sensor Technology has developed a patented chemical vapor analytical process that enables analysis of nearly any odor, fragrance, or chemical vapor within ten seconds. We believe that the company's product line is strategically positioned to address key vulnerabilities in the homeland security market, and is also suited for environmental and quality assurance applications.

Electronic Sensor Technology
Frank Zuhde, 805-480-1994, ext. 135

Suggested Articles

OmniVision's new OX01F10 SoC module provides automotive designers with a small form factor with low-light performance, ultra-low power and reduced cost.

Several industry leaders have formed a QSFP-DD800 Multi-Source Agreement (MSA) Group to expedite development of high-speed, double-density, quad small form…

NXP Semiconductors N.V. has announced its secure fine ranging chipset, SR100T, to achieve precise positioning performance for next-generation UWB-enabled…