Steelcase Inc.

Matthew Mead

Joel D Stanfield

Paul Noll

Lisa Mead

Rémi Marcel Louis Casal

Carl V Forslund, Iii

Joseph R Branc

Remi Marcel Louis Casal

Robert G Krestakos

A system for selectively controlling visibility of information in a work environment is provided. The system includes one or more polarized emissive screens located within the work environment. The screens have a first direction of polarization. Information displayed on the screens is visible from inside the work environment. The work environment includes at least one window which permits viewing of the polarized emissive screens from outside of the work environment. A polarizing filter having a second direction of polarization arranged at an angle to the first direction of polarization is positioned proximate to the window. From outside the work environment, the inside of the environment can be seen through the window, but with an altered view of the information on the displays.

Polarized enhanced confidentiality

A system for selectively controlling visibility of information in a work environment is provided. The system includes one or more polarized emissive screens located within the work environment. The screens have a first direction of polarization. Information displayed on the screens are visible to a person inside the work environment. The work environment includes at least one window which permits viewing of the polarized emissive screens from outside of the work environment. A polarizing filter having a second direction of polarization arranged at an angle to the first direction of polarization is positioned proximate to the window. A person outside the work environment can see inside the environment through the window, but has an altered view of the information on the displays.

A system for selectively controlling visibility of information in an environment is provided. The system includes one or more polarized emissive screens and polarized non-emissive surfaces located within the work environment. The screens have a first direction of polarization and the surfaces have a direction of polarization substantially aligned with the first direction of polarization. Information displayed on the screens and surfaces are visible to a person inside the work environment. The work environment includes at least one window which permits viewing of the polarized emissive screens and non-emissive surfaces from outside of the work environment. A polarizing filter having a second direction of polarization arranged at an angle to the first direction of polarization is positioned proximate to the window. A person outside the work environment can see inside the environment through the window, but has an altered view of the information on the displays and surfaces.

A system for selectively controlling visibility of information and for reducing or eliminating light energy in a robotic telepresence environment is provided. The system includes a robotic device in a work environment that is occupied or operated by a pilot at a station in a workspace remote from location of the robot in the work environment, a camera operably attached to the robotic device, a primary polarizing filter adjustably attached to the camera, a viewing area, at least one light source remote from the camera, and at least one secondary polarizing filter. The primary and at least one secondary polarizing filter can be adjusted to vary the lighting and artifacts seen by the pilot.

Polarized enhanced confidentiality in mobile camera applications

A system for lighting at least one individual positioned about a piece of furniture during a video recording process includes a piece of furniture having a work surface and at least one non-work surface. A lighting source is arranged along either the work surface or the non-work surface of the piece of furniture to project non-visible light away from the piece of furniture toward an individual positioned proximate to the piece of furniture to light the individual or recording during a video recording process.

Growing community of inventors

Grand Rapids, MI, United States of America

Matthew Mead