Communication and Power Industries, Inc.

Protein Fluidics, Inc.

Communications & Power Industries, Inc.

Open Water Internet Inc.

Communication and Power Industires

Wilson Toy

Paul Allen Krzeminski

Edmund Thomas Davies

Christopher Paul Yates

Robert N Tornoe

Evan Francis Cromwell

Hong Jiao

Liran Yosef Haller

Braxton Dunstone

Ori Hoxha

Mary Lou Jepsen

Edgar Emilio Morales Delgado

Caitlin Regan

Soren Konecky

Sarmishtha Satpathy

Hosain Haghany

Provided are valveless microfluidic flowchips comprising fluid flow barrier structures or configurations. Further provided are systems and methods having increased fluid transfer control in a valveless microfluidic flowchip. The systems and methods can be used in the present valveless microfluidic flowchips as well as in currently available valveless microfluidic flowchips.

Valveless fluidic switching flowchip and uses thereof

An ultrasound emitter launches an ultrasonic signal into a diffuse medium such as tissue. The diffuse medium is illuminated with an infrared illumination signal. activating an ultrasound emitter to launch an ultrasonic signal into a diffuse medium. An infrared reference beam is interfered with an infrared exit signal having an infrared wavelength that is the same as the infrared illumination signal. An infrared image is captured of the interference of the infrared reference beam with the infrared exit signal.

Optical imaging with unshifted reference beam

A self-guiding cover assembly for a vacuum electron device (VED) enclosure has a breach lock mechanism for seating the VED into the VED enclosure having a base. The breach lock mechanism has a plurality of guide elements mounted on the VED, a first sleeve mounted on the base and configured to removably receive the VED, and a second sleeve mounted on the base and configured to removably receive the first sleeve and rotate around the first sleeve. The first sleeve has a plurality of vertical slots configured to mate with the plurality of guide elements. The second sleeve has tracks configured to mate with the guide elements. A rotation of the second sleeve pulls the VED into the base for seating the VED.

Breach lock mechanism for seating vacuum electron device

A self-guiding cover assembly for a vacuum electron device (VED) enclosure () has a cover (), a pair of guide plates, and a pair of guide elements (). The cover has at least one electrical connector () disposed on the inside thereof for mating with a VED. The pair of guide plates is disposed on opposite sides of the outside of the sidewall of the cover. The guide plates each have a track () which guides the guide elements () mounted on the cover such that the cover is constrained in its motion when opening or closing in order to avoid damaging the connectors to the VED. The cover further comprises a breach lock mechanism for seating the VED into the VED enclosure by rotation of a sleeve (). The cover () defines first () and second () chambers separated by a panel. The top of the VED protrudes into the first chamber through an adapter platehaving holefor passage of the VED there through.

Radio frequency isolation system and cover assembly for vacuum electron device

A high voltage direct current contact for a vacuum electron device (VED), including (a) an outer cathode line having a first hollow cylinder having a first VED connection end, (b) a contact block removably positioned within the outer cathode line, having a heater contact and a first threaded stem extending towards the first VED connection end, (c) an inner cathode line removably positioned within the first hollow cylinder and placed in contact with the contact block, the inner cathode line including a second hollow cylinder and a support plate having an opening removably receiving the first threaded stem, and (d) a heater contact line in contact with the heater contact, including a third hollow cylinder and a flange on an exterior thereof, the flange being in contact with the support plate, the third hollow cylinder having a threaded end removably coupled with the first threaded stem.

High voltage connection for vacuum electron device

A self guiding cover assembly for a vacuum electron device (VED) enclosure has a cover, a pair of guide plates, and a pair of guide elements. The cover has a top, a sidewall, an inside and an outside, and at least one electrical connector disposed on the inside of the cover for mating with an electrical connector on a VED. The pair of guide plates is disposed on opposite sides of the outside of the sidewall of the cover. The guide plates each have a track. The guide elements are mounted on the enclosure on opposite sides of the cover. The pair of guide elements each mates with the track to guide the cover as it is lifted from the enclosure. The cover further comprises a breach lock mechanism for seating the VED into the VED enclosure having the cover and a base. The breach lock mechanism has guide elements mounted on the cover. A sleeve is mounted on the base and removably receives the cover with the VED. The sleeve rotates about the cover. The sleeve has tracks for mating with the guide elements. A rotation of the sleeve pulls the top into the base for seating the VED.

Cover assembly for vacuum electron device

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San Francisco, CA, United States of America

Wilson Toy