Palo Alto Research Center Inc.

Xerox Corporation

Palo Alto Research Corporation Incorporated

Genesee Valley Innovations, LLC

Ashish V Pattekar

David Kalman Biegelsen

Eric Peeters

Christopher L Chua

Armin R Volkel

Eugene Michael Chow

Patrick Yasuo Maeda

Timothy D Stowe

Jengping Lu

Peter Gordon Odell

Warren Bruce Jackson

Carolyn Patricia Moorlag

David G Duff

Philipp Helmut Schmaelzle

Nan-Xing Hu

Naveen Chopra

Steven E Ready

Alan G Bell

Jessica Louis Baker Rivest

Guerino G Sacripante

Paul J McConville

Gabriel Iftime

Edward Graham Zwartz

Jennifer Lynne Belelie

Palghat Srinivas Ramesh

Mandakini Kanungo

William S Wong

James R Larson

Trevor James Snyder

Jurgen Hans Daniel

Ramkumar Abhishek

Lars Erik Swartz

Christopher A Paulson

Anne Plochowietz

Gregory Joseph Kovacs

Felicia Linn

Janos Veres

Gregory B Anderson

Eugene S Beh

Divyaraj Desai

Mandana Veiseh

Jamie Kalb

Sourobh Raychaudhuri

Lars-Erik Swartz

Dane Andrew Boysen

Erik L Swartz

T Brian McAneney

Daniel Gureasko Bobrow

Joerg Martini

Michael L Chabinyc

Tse Nga Ng

Gregory J Kovacs

Craig Eldershaw

John E Northrup

Sean Roark Garner

Michael I Recht

Mahati Chintapalli

Shane Patrick Ahern

Martin Sheridan

Jonathan Rubin

Vedasri Vedharathinam

Hoda M A Eldardiry

Srinivas Mettu

Pengfei Qi

James Charles Zesch

David Garcia

Rui Abreu

Antonio Williams

Honglu Du

Rajesh Kumar Padmarajan

Fatemeh Primoradi

Hoda MA Eldardiry

A computer-implemented system and method for real-time feedback collection and analysis is provided. A location of a patient associated with an RFID tag is monitored. A space occupied by the patient is determined based on the location and one or more prompts for feedback are identified based on the occupied space. At least one of the prompts is provided to the patient. Feedback is received from the patient in response to the prompt. The received feedback is analyzed.

Computer-implemented system and method for real-time feedback collection and analysis

A computer-implemented system and method for entity tracking and identification is provided. A tracker associated with an entity is tracked. Communication is continuously attempted between the tracker and a tracking device associated with an individual in custody of the entity. During one of the attempted communications, an absence of the tracker is determined by identifying a time of the attempted communication and applying a time threshold to the time for the attempted communication. The absence of the tracker is identified when no communication has been established with the tracking device within the time threshold. The entity is classified as missing when the absence of the tracker is determined.

Computer-implemented system and method for entity tracking and identification

A device for delivery of particles into biological tissue includes at least one conduit and a propellant source fluidically coupled to the conduit and configured to deliver a propellant into the conduit. A particle source is configured to release elongated particles into the conduit, the elongated particles having a width, w, a length, l>w. The propellant source and the conduit are configured to propel the elongated particles in a collimated particle stream toward the biological tissue. An alignment mechanism is configured to align a longitudinal axis of the elongated particles to be substantially parallel to a direction of the particle stream in an alignment region of the conduit. The aligned elongated particles are ejected from the conduit and impact the biological tissue.

Alignment of elongated particles in a particle delivery device

Methods comprising: evaporating a catalyst source to produce a catalyst gas; condensing the catalyst gas to produce a catalyst vapor comprising catalyst droplets suspended in a gas phase; and contacting the catalyst vapor with a hydrocarbon gas to catalyze a decomposition reaction of the hydrocarbon gas into hydrogen gas and carbon. And, systems comprising: a catalyst source evaporator that provides a first stream to a reactor; a hydrocarbon source that provides a second stream to the reactor; a cooling column coupled to the reactor via a third stream comprising hydrogen, catalyst liquid, solid carbon, optionally catalyst gas, and optionally unreacted hydrocarbon gas such that the cooling column receives the third stream from the reactor; and wherein the cooling column has effluent streams that include (a) a fourth stream that comprises hydrogen and optionally catalyst gas and (b) a fifth stream that comprises catalyst liquid.

Liquid metal condensate catalyzed hydrocarbon pyrolysis

A 3D printing system and methods to selectively pattern dense feedstock based on selective inhibition sintering (SIS). A sintering selectivity agent (inhibitor or promoter) is selectively deposited on a build layer according to the pattern boundary. When the layers are built-up and the part is sintered, the inhibited region remains unbound, thus defining the edge of the part. The material contain powder embedded in cohesive binder that make the adjacent layer adhere together. The build process involves forming the sheets of dense feedstock embedded binder, followed by depositing ink to promote selective sintering onto the layer. Once the build is complete, the process continues with the binder removal, sintering and finishing processes.

System and method for high throughput additive manufacturing of sintered parts with low anisotropy

A computer-implemented system and method for object tracking via identifier-tracker pairings is provided. At least one tracker-identifier pair is maintained. The tracker is associated with an entity, including a person or object. The identifier is accessed to locate the entity. The tracker associated with the identifier is identified and a location of the entity is determined based on a location of the tracker. The location of the entity is provided to the user.

Computer-implemented system and method for object tracking via identifier-tracker pairings

A printing system for producing at least one three dimensional (3D) printed part is described. The printing system includes a deposition system configured to continuously deposit a layer onto a cylinder to outwardly extend a diameter of the cylinder, wherein the layer comprises a first pattern. The printing system also includes a rotating system configured to rotate the cylinder, and a control system configured to synchronize the deposition system with the cylinder.

Apparatus for continuous high-speed 3D printing

A method of providing high-speed three dimensional (3D) printing is described. The method includes producing at least one three dimensional (3D) printed part. Producing the 3D part includes continuously constructing to extend outwardly a diameter of a rotating cylindrical core via continuous deposition of a layer, and defining a first pattern in the continuously deposited layer corresponding to a cross-section of the at least one 3D printed part.

Method of continuous high-speed 3D printing

Systems and methods for constructing 3-dimensional (3D) parts are disclosed. A printing system may include a deposition system configured to print a plurality of 2-dimensional (2D) layers onto a plurality of carrier sheets. The printing system also includes a transferring system configured to transfer a 2D layer from a carrier sheet of the plurality of carrier sheets, onto the 3D part. The 3D part may be located on a base substrate. The printing system further includes a feed system configured to provide the plurality of carrier sheets from the deposition system to the transfer system in a successive fashion while maintaining the directionality of printing in the deposition and transferring systems.

Constructing 3-dimensional parts using electrophotography

A method for providing high-speed three dimensional (3D) printing is provided. The method includes producing at least one three dimensional (3D) printed part. Producing the 3D part includes continuously constructing to extend outwardly a diameter of a rotating cylindrical core via continuous deposition of a layer, and defining a first pattern in the continuously deposited layer corresponding to a cross-section of the at least one 3D printed part.

A device for delivery of particles into biological tissue includes at least one conduit and a propellant source fluidically coupled to the conduit and configured to deliver a propellant into the conduit. A particle source is configured to release elongated particles into the conduit, the elongated particles having a width, w, a length, l&#x3e;w. The propellant source and the conduit are configured to propel the elongated particles in a collimated particle stream toward the biological tissue. An alignment mechanism is configured to align a longitudinal axis of the elongated particles to be substantially parallel to a direction of the particle stream in an alignment region of the conduit. The aligned elongated particles are ejected from the conduit and impact the biological tissue.

A computer-implemented system and method for tracking and authenticating interactions is disclosed. A tracking device is associated with an individual responsible for an entity. Information about the entity is recorded on the tracking device. The tracking device interfaces with at least one further tracking device during an interaction between the responsible individual and a further responsible individual. The information recorded by the tracking device is transferred to the further tracking device and further information is recorded on the further tracking device. The recorded information from each of the tracking devices is compiled as a record for the entity and displayed.

Computer-implemented system and method for tracking and authenticating interactions

Growing community of inventors

Cupertino, CA, United States of America

Ashish V Pattekar