Black Decker Inc.

Vita-mix Management Corporation

Vita-mix Corporation

James P Bascom

John K Horky

Geoffrey Stephen Howard

John E Buck

Gabriel E Concari

Richard D Boozer

Warren A Ceroll

Stamati Arakas

Robert P Welsh

Daniel Puzio

Michael Lester O'Banion

Daniel N Lopano

Adan Ayala

James R Parks

Robert Alan Berry

Philip T Miller

Michael L Agronin

Robert J Opsitos, Jr

David J Kolar

Andrew E Seman, Jr

Jack W Gee, Ii

Robert S Gehret

Craig Alan Schell

James B Watson

Mark E Brunson

Frederick R Bean

William R Stumpf

Daryl S Meredith

David A Carrier

Andrew E Seman

Michael P Baron

Peter Chaikowsky

Gary Noffke

John C Wenig

Todd J Huston

Matthew C Webster

Scott Christopher Bly

Kolman Juhasz

Michael Patrick Arnett

John Louis McKibben

Jia Yong Jiang

Michael A Nelson

Keith Moore

Kun Chang

Tyrone Manhoff

Jack Gee

Joseph M Paul

Adam Wilson

Christy Bezuijen

Daniel K Hardy

Fred S Watts

Andrzej R Wojcicki

Snehal S Choksi

Brenton Krivos

Todd Cassidy

Christian C Stewart

Xiang Wang

David J Doss

Jiang Jia Yong

Robert J Opsitos

Leon T Gibson

Rick J Heavel

Sheng Tao Xie

Wei Hua Si

Jeff Ransden

Wang Xiang

Xie Sheng Tao

Ray Adams

Si Wei Hua

Hongbo Yu

Michael L O'banion

Yong Jiang Jia

Hua Si Wei

Tao Xie Sheng

Daniel Hardy

Richard Heavel

John K Horkey

Qiang Zhang

A laser device operating system includes a laser device generating a laser beam when receiving a remote control unit command signal. The remote control unit operates in a public or private mode. In public mode the remote control unit generates a command signal transmitted to the laser device. In private mode the remote control unit generates a unique identifier prepended to the command signal. The laser device operates in a laser device public or private mode. In public mode the laser device responds to the remote control unit command signal or the command signal if transmitted by a second remote control unit. In private mode the laser device operates only upon receipt of the command signal and unique identifier, preventing laser device operation by the second remote control unit if the second unit does not include the unique identifier with the command signal.

Communication protocol for remotely controlled laser devices

A blending system is shown and described herein. The blending system may include a base including a motor, a blade assembly selectively and operably engaged with the base, where the motor drives the blade assembly, and a container having an inner and outer layer. The blending system may also include a magnet positioned between inner and outer layers of the container, and a sensor positioned in the base, where the magnet in operative proximity to the sensor permits operation of the motor.

Blending system

Container scraper

A blending system is shown and described herein. A blending system may include a base including a motor and a first shell that encases the motor. The blending system may also include a container that is removably coupled to the blender base. The blending system may also have a second shell selectively attached to the first shell. The blending system may also have a wall positioned within the base to direct airflow from the fan along a volute-shaped path.

A blending system is shown and described herein. The blending system may include a base including a motor, a blade base assembly selectively and operably engaged with the base, where the motor drives a blade assembly of the blade base, and a blending container engageable with the blade base. The blade base may be configured to prevent driving of the blade assembly when the blending container is not engaged with the blade base assembly. The blade base may be engaged with the blending container and the blade assembly may mechanically engage with the motor.

Translatable interlocking mechanism for a blending system

Shroud for a blending container

A blade assembly is provided that includes a base portion that is removably coupleable to a blender base and an aperture extending through the base portion. The blade assembly further includes a drive shaft rotatably coupled to the base portion, the drive shaft extending through the aperture and rotatable about a rotational axis. The blade assembly further includes one or more blades fixedly coupled to the drive shaft and a coupling member for removably coupling a container to the blade assembly. The blade assembly further includes a guard member extending from the base portion such that the guard member circumscribes the one or more blades about the rotational axis. Further, the guard member circumscribes a portion of the container about the rotational axis when the container is removably coupled to the coupling member.

Blade assembly with safety guard

A table saw guard assembly for guarding a blade on a table saw is provided. The table saw guard assembly includes a support structure and a hood assembly including at least one of a front curtain, first side curtain, second side curtain and top curtain, wherein each of said curtains are independently moveable and/or removable from the hood assembly. Furthermore, a table saw guard assembly is provided including a quick release mechanism for connecting the hood assembly to the support structure.

Table saw guard

A laser beam generating device is provided for generating multiple mutually orthogonal light beams. The device includes a laser light generator that generates at least three output beams. A beamsplitter of the laser light generator has two incident surfaces orientated at forty-five degrees in relation to an optical axis. A first portion of a light from a light source is incident on a first of the two incident surfaces and output as a first output beam in a first direction orthogonal to the optical axis. A second portion of the light is incident on a second of the two incident surfaces and output as a second output beam in a second direction opposite the first direction. The light source is arranged in relation to the beamsplitter such that a third portion of the light bypasses the beamsplitter and forms a third output beam projected parallel to the optical axis.

Laser line generating device

Growing community of inventors

Bel Air, MD, United States of America

James P Bascom