Access Business Group International LLC

Philips IP Ventures B.v.

Uv Partners, Inc.

Other

Caterpillar Inc.

Hollymatic Corporation

Global Battery Solutions, LLC

Inductive Intelligence, LLC

New Frontier Technologies LLC

Shoreline Tracking Systems, LLC

Corning Incorporated

Amway Corporation

Group Dekko, Inc.

Philips I.p. Ventures

Atc Holland, LLC

David W Baarman

Scott A Mollema

Christopher B Houghton

Stephen J McPhilliamy

Joshua K Schwannecke

Terry Lee Lautzenheiser

Thomas Jay Leppien

Matthew J Norconk

William T Stoner, Jr

Joshua B Taylor

Roy W Kuennen

Colin J Moore

Benjamin C Moes

Neil W Kuyvenhoven

John James Lord

Hai D Nguyen

Ronald C Markham

Dennis Joseph Denen

Ryan D Schamper

Wesley J Bachman

Richard J Weber

Robert D Gruich

Eric K Bartkus

Joseph C Van Den Brink

Nathan P Stien

Sean T Eurich

Dale R Liff

Kenneth E Conrad

Mark A Blaha

Richard B Bylsma

Kaitlyn J Turner

Andrew C Zeik

Brad A Zylstra

Paul Byrne

Luke Platz

Gregory L Clark

Brian B Steketee

Jason L Amistadi

Mark Gregory Marshall

Pierre Becker

Jennifer S Sierra

Cathy L Wiler

Ellington L Ellis

Kristine A Hunter

Lynne A Sybesma

Cody D Dean

Julian Andrew John Fells

Henry William Sybesma

Victor Guynn

Kenneth Michael Burns

A Esai Umenei

Mark Strayer

Thad Senti

Esai E Umenei

Warren Edwin Guthrie

Steve O Mork

Paul C Duckworth

Jesse C Leverett

Greg S Snyder

Roy M Taylor, Jr

Erik Bauer

Matthew K Runyon

Scott J Anderson

Carolyn E Johnson

Ronald L Stoddard

Scott A Tiedemann

Nima Veiseh

Paschal Early Smith, Iii

Chinh Huu Bui

Randall Kevin Sambursky

Donald Craig Walker

Bruce A Patterson

Robert J Zuker

Thomas E Deater

Kevin Stephens

Ming-Jun Li

Stephan Lvovich Logunov

Michael E Miles

Andrew Gay

Garrett S Waggoner

Robert D Faber

Karlis Vecziedins

Thomas A Niezgoda

David B Fry

Thomas J Berwald

Joseph S Melton, Jr

Kristen J Blood

Shawn Lord

Robert Wolford

Kristen J Zellers

Scott A Gauche

Ryan Joseph Nussbaum

Nicholas J VanderStel

Jeffrey Lee VanOss

Richard A Wahl

Dennis J Dennen

Andrew M Clews

Wesly J Bachman

Greg Synder

Michael Halloran

A remote controlled battery cell monitoring and control system that utilizes empirical and theoretical data to compare performance, sensor data, stored patterns, historical usage, use intensity indexes over time and tracking information to provide a sophisticated data collection system for batteries. This tracking is designed to better the specifications, designs, training, preventative maintenance, and replacement and recycling of batteries.

Battery monitor system and method

A disinfecting tracking network for creating healthier environments. The system and methods for tracking and utilizing this information to build and maintain healthier environments with a laboratory approach to data inputs. This system is a cloud based system with IOT interface and APIs to enable broad reaching inputs for analysis. This system creates a safer ecosystem and cross statistic sharing of performance parameters.

Disinfection tracking network

A disinfection platform for at least partially disinfecting a proximal surface is provided. A disinfection apparatus includes a housing defining an aperture, a UV light source enclosed in the housing configured to project a UV illumination pattern toward a target disinfection area where the disinfection apparatus is disposed above one end and oriented at a downward angle. The illumination pattern output from the disinfection apparatus at least partially defined by louvers and an occlusion nose with reflective fins positioned at the aperture such that the illumination pattern at the target disinfection surface has improved intensity distribution. Multiple sensors cooperate with a control circuit operating the UV light source to provide intelligent and automated control with pattern detection, event based disinfection, and validation. Dual passive infrared sensors enable improved pattern detection for presence detection, accelerometer improves touch detection, and gyroscope provides attitude installation configuration.

UV disinfection platform

A heavy-duty interactive (HDi) system may include a heavy-duty vehicle; a work tool installed on the heavy-duty vehicle; a memory that stores a plurality of patterns representing operation events for the heavy-duty vehicle; a first sensor affixed to the heavy-duty vehicle that collects first sensor data as the heavy-duty vehicle is operated; a second sensor affixed to the work tool that collects second sensor data as the work tool is operated; and a controller operatively coupled to the first sensor, the second sensor, and the memory. The controller may be configured to identify a heavy-duty vehicle operation event by comparing at least one of the first sensor data and the second sensor data with the plurality of patterns in the memory, and associate the work tool with the heavy-duty vehicle based on a comparison of the first sensor data and the second sensor data.

Configurable monitor and parts management system

Disclosed herein are embodiments of an illuminator for disinfecting a surface. The surface defines a first plane. The illuminator includes a line emitter configured to emit light in a continuous line along at least a portion of at least one edge of the surface. The light has a peak wavelength in a range of 100 nm to 400 nm. The illuminator also includes a curved reflector surface and an exit aperture defining a second plane transverse to the first plane. The line emitter is positioned between the curved reflector surface and the exit aperture, and the curved reflector surface is configured to redirect the light from the line emitter through the exit aperture across the surface.

Surface illuminator having a line emitter and configured to disinfect a surface

A disinfectant transmissive material incorporated into a case for a mobile device or a supporting surface of a disinfecting charger to enable disinfection of hard to reach areas. The case can be self-disinfecting. The disinfecting charger can have monitoring and safety systems that detect proximity and provide user feedback on safety, disinfection, and charge status along with automatic interlocks to protect the user from overexposure to disinfectant.

Mobile device disinfection

A disinfection system that provides homogenous UV light output. The system can utilize a sensor system to detect proper use provide user feedback on safety and functional operation. By tracking cumulative dosage of low energy UV-C the system can disinfect without violating safety exposure standards. The system can automatically provide a disinfection dose according to the type and length of body contact device the disinfection device is mounted to, while tracking operational details. The system can include crypto security that enables a safer ecosystem and HIPAA compliant statistic sharing of operational parameters.

Disinfection and monitoring of a body contact device

A low dose disinfection and control system that utilizes empirical and theoretical data to compare performance, sensor data, stored patterns, historical usage, use intensity indexes over time and tracking information to provide a sophisticated data collection system for disinfection. The data can be used to dynamically control UV treatment parameters. This tracking is designed to enable a learning and feedback tool that helps to modify behavior and the understanding of infection. The present invention provides a system for integrating UV treatment into products. The product may include an outer layer of UV transmissive material forming an external touch surface. The UV disinfection system includes a UV source internal to the product. In use, the internal UV source produces UV-C light that passes into and permeates the outer layer to treat the touch surface. A UV reflective layer may be disposed beneath the outer layer.

Disinfection behavior tracking and ranking

A dynamic treatment system incorporates multiple pathogen reduction devices and sensors for enhanced pathogen reduction. The system can provide coordinated multi-level control to provide automated engineered control of pathogen reduction that is suitable for use in confined spaces, such as building and vehicle systems. Room level occupancy tracking provides biological load level estimates while pressure level sensing provides pathogen travel path estimation through the building. Combining this pathogen load information and airflow path information the system can drive room level and building level pathogen reduction device adjustments to enhance pathogen reduction based on expected pathogen travel. Zone level pathogen interception, height adjustable portable treatment devices, along with various application specific pathogen reduction devices can be integrated into the dynamic treatment system.

Dynamic treatment system and pathogen reduction devices

A system including at least one sub-system that includes a first actuator configured to control a supply of a respective energy; a power lockout system including at least one switch configured to open and close an electrical connection between a power supply and the first actuator; a body configured to move between a first position and a second position to open and close the electrical connection; and at least one processor configured to control, during a power down process, the first actuator of the each of the at least one sub-system to reduce the respective energy of the sub-system.

Lock out and tag out control system and method

The present invention provides a system and method for determining when a battery, or one or more batteries within a battery pack, undergoes an undesired thermal event such as thermal runaway. A sensor pack is mounted in close proximity to, or in contact with, an external surface of the battery or batteries to be monitored and communicates battery information, including battery compartment information, to a battery package monitor outside the battery compartment. Cloud connectivity can be provided via a mobile application to a battery thermal management package.

Battery event monitoring system for thermal managed battery

Growing community of inventors

Fennville, MI, United States of America

David W Baarman