Hewlett-packard Development Company, L.p.

Peridot Print LLC

John Joseph Briden

Bradley Neal Suggs

John P McCarthy

Marcus A Hoggarth

Matthew Allen Shepherd

Michael D Derocher

John William Pennington, Jr

Randall W Martin

Matthew Graeme Leck

Jean G Atallah

Morten Villiers Warren

Fred Charles Thomas, Iii

Benjamin Abraham

Walter A Gaspard

Kenneth Chan

Javier Ledesma Fernandez

Benjamin David Coughlin

Fred Charles Iii Thomas

John Mccarthy

According to examples, a non-transitory computer-readable medium may have stored thereon instructions that may cause a processor to obtain a digital model of a transfer screen to be 3D fabricated. The processor may also determine placements of pores in the digital model, in which the transfer screen is to be mounted on a transfer mold via an attachment mechanism and to engage a surface of a wet part formed on a corresponding forming screen. The forming screen may have a first shape and the transfer screen may have a second shape that is complementary to the first shape, and the locations of the pores may be determined to allow liquid to be suctioned from the wet part when a vacuum pressure is applied to the transfer mold. The processor may further modify the digital model of the transfer screen to include the pores at the determined placements.

Transfer screens to be 3D fabricated with determined pore placements

According to examples, an apparatus may include a processor that may access data pertaining to a part to be fabricated from material elements in a slurry of a liquid and the material elements, the data identifying a configuration of holes to be formed in the part. The processor may also access a digital model of a screen device having a plurality of pores based on the accessed data, the screen device to be used to fabricate the part, and may determine locations on a surface of the digital model of the screen device that correspond to the identified configuration of the holes to be formed in the part. The processor may further generate, at the determined locations on the surface of the digital model of the screen device, a plurality of walls that are to form the holes in the part.

Generate walls on screen devices to form holes in parts

According to examples, an apparatus may include a processor that may access information about a screen device having pores, in which the screen device is to be employed to filter liquid from a slurry composed of the liquid and material elements to form a part from the material elements. The processor may also access information about a main body, in which the main body is to support the screen device during formation of the part and has a plurality of openings that are larger than the pores in the screen device. The processor may identify, based on relative locations of the pores and the openings, pores that are to be removed from the screen device to increase uniformity of liquid flow through the pores across the screen device and may modify the accessed information about the screen device to remove the identified pores from the screen device.

Pore removal from screen devices to increase flow uniformity

According to examples, an apparatus may include a plurality of structures formed of fused sections of build material particles and a plurality of porous sections supported by the plurality of structures. The plurality of porous sections may be formed of partially-fused build material particles, in which the partially-fused build material particles may include build material particles that may be partially fused together to cause the plurality of porous sections to have at least a predefined porosity level.

Porous sections with partially-fused build material particles

Embodiments herein relate to loading boot data. In an embodiment, a device loads boot data from a first portion of a first non-volatile memory to complete a first booting of the device. The first portion of the first non-volatile memory is then released to allow the device to overwrite the first portion. Next, the boot data is written to the first non-volatile memory before the device enters a reduced power state. The written boot data is to be loaded from the first non-volatile memory to complete a second booting of the device, if the second booting is initiated.

Load boot data

A system including a display, a sensor and a controller. The sensor can detect an object and generate data related to the object. The controller can determine a first pose of the object from the data and display a first representative image on the display. The controller can determine a second pose of the object and display a second representative image on the display, wherein the second representative image is associated with a displayed element.

Representative image

Embodiments of the present invention disclose a wireless-enabled peripheral hub device. According to one embodiment, the hub device includes a communication module for wirelessly communicating with one of a plurality of mobile devices and a loudspeaker system configured to stream audio received from one of the mobile devices. Furthermore, the device housing includes a movable cover portion and an internal cavity area for storing an accessory input device for use with one of the plurality of mobile devices.

Wireless peripheral hub device

Embodiments of the present invention disclose a system and method of touch discrimination using a fisheye lens. According to one embodiment, touch discrimination is provided using a touch-enabled display and an imaging device equipped with a fisheye lens and housed within the display. Furthermore, image data captured using the fisheye lens of the imaging device is utilized to detect a touch on a surface of the display along with the user associated with said touch.

Touch discrimination using fisheye lens

A display system can include a paneland a three dimensional optical sensor. The three dimensional optical sensorcan be to determine depth of an object located in the field of view of the three dimensional optical sensor. A transparent layercan be in front of the panel and the three dimensional optical sensor.

Display with an optical sensor

A base, a chassis and a negator spring. The negator spring has a first cross sectional area and a second cross sectional area. The negator spring can oppose a force on the chassis.

Chassis, base, and negator spring

A curved track can be attached to a chassis. An extension can be attached to a base. The chassis can be attached to the base. The extension can be in contact with the curved track.

Chassis, base, extension and curved track

A media module of a device including a display component, an audio component, a sensor, a communication component to wirelessly couple the media module with the device to receive audio/video data from the device and to transmit input data to the device, and a power component to inductively receive power from the device if the media module is within proximity of the device.

Media module of a device

Subwoofer display support

A method for detecting an input command including configuring a sensor to determine whether a user is within a proximity of a computing machine, configuring an input device to detect an input command entered by the user when the user is within the proximity of the computing machine, and transmitting the input command for the computing machine to process.

Growing community of inventors

San Francisco, CA, United States of America

John Joseph Briden