Illumagear, Inc.

Toaster Labs, Inc.

Microsoft Technology Licensing, LLC

Toaster Loabs, Inc.

Jonathan Brandt Hadley

Kristin Marie Will

Alexander Michael Diener

Raymond Walter Riley

John Russell Murkowski

John Maxwell Baker

Trent Robert Wetherbee

Andrew Royal

Chad Austin Brinckerhoff

Kyle S Johnston

Keith W Kirkwood

Mark John Ramberg

Evan William Mattingly

Clint Timothy Schneider

Amy Carol Buckalter

Roland Horth

Garet Glenn Nenninger

David Oscar Iverson

Joel Bernard Jacobs

Perry Q Anderson

Craig Kortick Black

Jeanine E Spence

Lilac Muller

Aaron D Johnson

Alex Michael Diener

Gordon Alan Cohen

Jesse Staub

Roland David Horth

A light-emitting system is provided which is removably attachable to headgear for personal illumination to enhance visibility of the user to others. The light-emitting system includes a housing that defines a receiving aperture and is configured to surround a portion of the headgear when the light-emitting system is removably attached to the headgear for use. The light-emitting system further includes at least one lens and a plurality of lighting elements coupled to the annular housing which are configured to selectively generate a halo or at least a partial halo of light that radiates outwardly away from the annular housing through the at least one lens to provide enhanced personal illumination.

Light-emitting systems for headgear

A fluid reservoir includes a reservoir body, a heating structure, a piston, and an outlet port. The reservoir body includes a cross section, and a translation axis. The cross section is uniform along the translation axis. When fluid is housed in the reservoir, the heating structure is thermally coupled to the fluid. The heating structure energizes the fluid housed in the reservoir. The piston translates along the translation axis. An available volume of the reservoir to house the fluid is defined by a distance between the piston and an end of the reservoir body. When the piston is translated along the translation axis toward the end, a volume of the fluid that has been energized by the heating structure flows from the reservoir and through the outlet port. The volume of energized fluid is linearly proportional to a length of the translation of the piston.

Inductively heatable fluid reservoir

A dispenser includes a housing, an aperture within the housing, a receptacle within the housing, and a pneumatically driven actuator. The receptacle removably receives a reservoir, such that when the reservoir is received by the receptacle, an outlet port of the reservoir is exposed through the aperture. When the pneumatically driven actuator is actuated, the pneumatically driven actuator provides a dispensing force that induces a flow of a predetermined volume of fluid within the reservoir through the exposed outlet port of the reservoir and dispenses the predetermined volume through the aperture. In some embodiments, the dispenser includes an internal pneumatic source. The internal pneumatic source may include an air compressor. The dispenser may include a pneumatic input port that receives a pneumatic hose. The dispensing force translates a piston in the reservoir a predetermined distance. The predetermined distance may be linearly proportional to the predetermined volume of dispensed fluid.

Pneumatically driven fluid dispenser

The presently disclosed multi-position biased rotating logo components permit an electronic device to display a logo associated with the device in a variety of positions with reference to a device housing while the device is re-positioned in different orientations. This allows the logo to maintain a desired orientation with reference to a support surface or a direction of gravity as the device is re-positioned in the different orientation. Further, the rotating logo is biased to achieve and maintain two or more preselected orientations within the housing that correspond to two or more intended orientations of the device.

Multi-position biased rotating logo component

A dispenser includes a housing, an aperture, a receptacle, a heating element, and an actuator. When a reservoir is received within the receptacle, an outlet port of the reservoir is exposed through the aperture. The heating element heats fluid housed within the reservoir. The actuator provides a dispensing force that induces a flow of the heated fluid. In some embodiments, the heater is an inductive heater. In other embodiments, the heater is a resistive heater. The dispenser dispenses the fluid through the aperture. Another embodiment of a dispenser may include a housing, an aperture, a receptacle within the housing, an actuator configured to receive a fluid reservoir, and a power source. The power source provides power to the actuator. The power source includes an alternating current source.

Automatic heated fluid dispenser

A motion-activated dispenser includes a housing having a base and top defining a gap sized to receive a human hand. The top portion defining cavity sized to receive a fluid reservoir and an opening extending directly through a lower surface of the top portion to the cavity, a neck of the fluid reservoir extending through the opening. A pressing member is positioned within the cavity and an actuator is coupled to the pressing member and configured to urge the pressing member toward and away from the opening. The pressing member may include, for example, a sliding member positioned opposite a stop face; a roller moved by the actuator toward the opening; a plunger positioned above the opening and driven by an actuator toward the opening; or a pair of rods spanning the cavity and urged by the actuator through the cavity, the rods pressing against sides of the reservoir.

Automatic fluid dispenser

Light-emitting device for headgear

Growing community of inventors

Renton, WA, United States of America

Jonathan Brandt Hadley