Awarepoint Corporation

Fundamental Solutions Corporation

Harris Corporation

Eagle Technology, LLC

Reel Drag Technologies, Inc

Anthony Truscott

Andrew Weiman

Thomas J Zupancic

Robert Baranowski

Richard Simon Brody

Marvin R Williams

Charles McBrairty

Lingchun Zeng

Daniel W Pfautz

Joseph D Kittle

Matthew R Perkins

Peter A Wasilousky

Derek Matthew Smith

Richard S Brody

Bradley Charles Steele

Steven J Behrens

Wei Geng

Dyami Caliri

Ian J Fettes

David Pekin

Dean A Heimmermann

Philip Smith

Graham Nelson

Charles Wilson

Kenneth Laprade

Tim Christianson

Gregory S Stotesbury

Charles Mcbrairty

Joseph Kittle

Peter Alan Wasilousky

A geospatial data collection system is for an aerial vehicle and includes a data collection light detection and ranging (LiDAR) device and a protection LiDAR device. The data collection LiDAR device is configured to collect geospatial data as the aerial vehicle moves along a collection path. The protection LiDAR device is configured to sense a geospatial area ahead of the data collection LiDAR device. The data collection LiDAR device is switchable from an operating mode to a protected mode based upon the protection LiDAR device.

Geospatial data collection system with a look ahead sensor and associated methods

A system for use in rapid sample analysis that includes a biosensor reagent, wherein the biosensor reagent includes living biological cells; a reservoir card, wherein the reservoir card stores the biosensor reagent; and a test cartridge base, wherein the test cartridge base is configured to accept the reservoir card, and wherein the test cartridge base further includes a contoured reaction chamber; and an inlet channel connected to and entering the reaction chamber at a predetermined angle thereto.

Reaction chambers for use in systems for rapid analysis of biological samples

A system for use in rapid sample analysis that includes a biosensor reagent, wherein the biosensor reagent includes living biological cells; a reservoir card, wherein the reservoir card stores the biosensor reagent; and a test cartridge base, wherein the test cartridge base is configured to accept the reservoir card, and wherein the test cartridge base further includes a reaction chamber having a central axis, wherein the reaction chamber has the shape of a revolved half ellipse; and an inlet channel connected to the reaction chamber, wherein the inlet channel is positioned above the reaction chamber at an angle of 15-60 degrees above the horizontal, and wherein the inlet channel is offset from the central axis of the reaction chamber.

Prevention of cross-contamination in systems for rapid analysis of biological samples

A laser imaging system may include a laser source, a laser receiver, a rotatable base defining a rotation axis, and an optical element (OE) carried by the rotatable base in an optical path between the laser source and laser receiver. An adjustable OE mounting fixture may mount the OE to be adjustably movable with respect to the rotatable base in a plane transverse to the rotation axis. A controller may be configured to adjust the adjustable OE mounting fixture to provide scan angle compensation.

Laser imaging system with adjustable optical element mounting fixture and related methods

System for rapid analysis of biological samples

A test cartridge for use in sample analysis is provided. The test cartridge includes a reservoir card that further includes a reagent that includes living biological cells; and a test cartridge base configured to accept the reservoir card. The reservoir card is configured to interface with a test cartridge base through at least one fluid port. The test cartridge base includes an elliptical reaction chamber having a central axis and an inlet channel connected to the reaction chamber. The inlet channel is positioned above the reaction chamber at an angle of 15-60 degrees above the horizontal and is offset from the central axis of the reaction chamber. Upon introducing a sample to be analyzed into the test cartridge base through the inlet channel, the sample is homogeneously mixed with the reagent while minimizing damage to the living biological cells.

Test cartridge for use in rapid analysis of biological samples

A method and system for determining a real-time location of an object or person in a facility using low frequency magnetic induction positioning is disclosed herein. Each of the plurality of low frequency receivers is configured to receive a signal packet from a low-frequency magnetic induction transmitter, decode the signal packet, and estimate a distance from the low-frequency magnetic induction transmitter to the low-frequency receiver based on the decoded signal packet.

Low frequency magnetic induction positioning system and method

A portable system for real time detection of the presence of an infectious agent in a biological sample employs a reagent which detects the presence of a specific infectious agent in the sample, and emits a detectable signal when the reagent reacts with the sample and detects the presence of the infectious agent. A test cartridge has a reaction chamber for receiving the sample and the reagent. The reaction chamber has a predetermined internal geometry and at least one inner surface. Introducing the sample and the reagent into the test cartridge mixes the sample and the reagent. A testing unit receives the test cartridge, and includes a sensor for detecting an emitted detectable signal. The detection of the emitted detectable signal is indicative of the presence of the infectious agent in the sample.

Device for rapid detection of infectious agents

The present invention provides a solution to determining a near-field communication interaction in a wireless tracking mesh network. The present invention utilizes near-field communication devices in conjunction with tracking tags to transmit signals for reception by sensors stationed throughout a facility which form a mesh network and forward the signals to an information engine for analysis.

Wireless tracking system and method utilizing near-field communication devices

The present invention provides a method and system to determining a near-field communication interaction in a wireless tracking mesh network. The present invention preferably utilizes near-field communication devices in conjunction with tracking tags to transmit signals for reception by sensors stationed throughout a facility which form a mesh network and forward the signals to an information engine for analysis.

A wireless tracking system and method with a tag removal detection feature is disclosed herein. The system and method utilize a tag attached to an asset which includes a processor, a motion sensor (such as an accelerometer), a transceiver, a tag removal sensor and a power source having a limited supply of power. The tag removal sensor is a closed circuit device which is activated only when the motion sensor detects motion. In this manner, the tag conserves power since the tag is typically only in motion ten percent of the day. If the tag is removed from the asset, the closed circuit is opened, which confirms the removal of the tag from the asset, and an alert is activated by the system.

Wireless tracking system and method with tag removal detection

The present invention provides a method and system for determining a near-field communication interaction in a wireless tracking mesh network. The present invention preferably utilizes near-field communication devices in conjunction with tracking tags to transmit signals for reception by sensors stationed throughout a facility which form a mesh network and forward the signals to an information engine for analysis. Bearers of the near-field communication devices preferably include individuals, objects, assets and rooms of the facility.

Fishing rod handle section with display

Growing community of inventors

San Diego, CA, United States of America

Anthony Truscott