Samsung Electronics Co., Ltd.

Sergio Perdices-Gonzalez

Sajid Hassan Sadi

Pranav K Mistry

Nigel A Clarke

Ernest Rehmatulla Post

Marc Estruch Tena

Mohammad J Abu Saude

Ian David Parker

Brian Thomas Harms

Ayesha Mudassir Khwaja

Rahul Budhiraja

Brian Dongwoo Lee

Cathy Kim

Brian R Patton

Link Chun Huang

Dean N Reading

Masaki Suzuki

Jun Yeon Cho

Santiago Ortega Avila

Pedro Martinez Lopez

Curtis D Aumiller

Philipp Schoessler

Dane Mason

Kushal Kardam Vyas

Ruokan He

Catherine S Kim

William Augustus Workman

Michael Noh

Jason Yeh

Jacob A Marks

Simon J Gibbs

Abhijit Z Bendale

Jiawei Zhang

Ranhee Chung

Jihee Kim

Anthony S Liot

Kathleen Sofia Hajash

Ye Zhao

Iliya Tsekov

Thomas Brenner

Anil Unnikrishnan

Tara Sriram

Hanjin Park

Ivan France

Musa Maharramov

Sangwoo Han

Junyeon Cho

Yedan Qian

Jose Marcel Santos

Yufeng Wu

Jack Thrun

Gustavo A Guayaquil Sosa

John Novak

Forrest G Tran

Santiago Ortega-Avila

Pedro Martinez-Lopez

Soichan Nget

Mustafa Ismail

Yingying Ren

Kenil S Shah

Bob W Cheng Lian

Akash Mittal

Eunseo Cho

Perdo Martinez Lopez

In one embodiment, a method includes, by an electromagnetic device, generating an initial map of a temperature profile of a load disposed inside a cavity, emitting electromagnetic radiation into the cavity based on initial control parameter configurations, where a change in temperature of the load during the emission is measured by one or more sensors, generating updated maps of electromagnetic energy absorbed by the load based on the measured change in temperature of the load, where the updated maps comprise an indication of a spatial heating rate within the load, determining a sufficient number of the updated maps of electromagnetic energy absorbed by the load disposed inside the cavity have been measured, and, in response to determining that a sufficient number of the one or more updated maps of electromagnetic energy have been measured, storing the updated maps of electromagnetic energy absorbed by the load.

Systems and methods for mapping heat deposition in a cooking appliance through fast pattern temperature imaging

A method by an electromagnetic device includes determining a pattern of electromagnetic energy absorbed by a load disposed inside a cavity into which electromagnetic radiation is directed and generating one or more maps of the pattern of electromagnetic energy absorbed by the load. The one or more maps comprises an indication of a distribution of heating within the load. The method further includes determining, based on the one or more maps, a plurality of sequences of operating parameter combinations configured so as to heat the load via absorption of the electromagnetic radiation in accordance with a target temperature profile with respect to the load. The method thus includes emitting electromagnetic radiation into the cavity based on the plurality of sequences of operating parameter combinations to achieve the target temperature profile with respect to the load.

Systems and methods for temperature profile control of microwave oven devices

In one embodiment, a method includes, by an electromagnetic device, accessing multiple previously recorded heating maps corresponding to a load disposed inside a cavity, where each heating map indicates a temperature profile change of the load as a function of one or more control parameter configurations, accessing a target temperature profile of the load, measuring a current temperature profile of the load, calculating a difference in temperature profiles between the current temperature profile of the load and the target temperature profile of the load, determining a first sequence of control parameter configurations to heat the load, wherein the first sequence is optimized to yield a temperature rise that achieves the target temperature profile of the load, emitting electromagnetic radiation into the cavity based on the first sequence of control parameter configurations.

Systems and methods for achieving a user-specified temperature profile in a cooking appliance through heating control algorithms

In one embodiment, an apparatus includes determining a context associated with a current use of a display screen and determining, based on the determined context associated with the current use of the display screen, a subsequent pose of the display screen. The method further includes determining, by one or more actuators configured to control an arm coupled to the display screen, a current pose of the display screen to the determined subsequent pose.

Automatically adjusting display-screen pose

Image de-skewing can include acquiring pixel coordinates of an image captured by a camera adjoining an electronic display device. The pixel coordinates can be mapped to de-skewing coordinates using a predetermined de-skewing transformer that maps the pixel coordinates to de-skewing coordinates. A de-skewed image can be generated based on the de-skewing coordinates such that the de-skewed image is perpendicular to a principal axis extending from a predetermined location of an apparent camera on the electronic display device.

Perspective de-skewing of electronic images

In one embodiment, a method includes, by an electromagnetic device, emitting optical radiation on one or more objects disposed inside an interior of the electronic device, where the optical radiation is emitted by one or more radiation sources, capturing a set of 2D images of the one or more objects illuminated by the optical radiation, where variation of illumination or of an imaging process permits the set of 2D images to be combined into a representation of the one or more objects, determining whether the set of images comprises a representation of the one or more objects as imaged, in response to determining that the set of images comprises a representation of the one or more objects as imaged, generating a three-dimensional (3D) spectral data cube of the one or more first objects based on spectral information of the first set of images, and storing the 3D spectral data cube for processing by the electronic device.

Employing controlled illumination for hyperspectral or multispectral imaging of food in an appliance

An apparatus includes a display device having a lenticular layer. The lenticular layer includes (i) a first side, (ii) a second side opposite the first side, and (iii) particles in a fluid medium between the first and second sides of the lenticular layer. The second side of the lenticular layer includes lens elements forming a lenticular array. The particles of the lenticular layer are configured to move within the fluid medium such that (i) the lens elements are filled with the particles in a first mode or (ii) the lens elements are filled with the fluid medium in a second mode. The display device is configured to operate as a directional display in one of the first and second modes and as a single display in another of the first and second modes.

Adaptive resolution for multi-view display system and method thereof

A method for controlling content rendering by a multi-view, directionally dependent display includes defining a first display as a first pixel of a pixelated array of the multi-view display, the first display associated with a first viewing angle relative to a first axis; and defining a second display as a second pixel of the pixelated array, the second display. The method includes controlling chromatic properties of the first pixel by applying a filter based on a rendering of first content to be displayed. The method also includes controlling chromatic properties of the second pixel by applying a filter based on a rendering of second content to be displayed; and controlling points of incidence of light from the first and second pixel relative to an optical multiplexer thereby changing the directionality of the multi-view, directionally dependent display.

Multi-view display system and method therefor

In one embodiment, a method includes by an electronic device: receiving sensor data indicative of a touch input from one or more sensors of a touch panel of the electronic device, where the touch input occurs at a detected touch location of the touch panel, accessing a baseline of signal data corresponding to the touch panel, calculating a delta change based on the baseline of the signal data and the sensor data, determining a touch state corresponding to the touch input based on a comparison of the delta change to a plurality of touch threshold levels, selecting a touch location prediction method from a plurality of touch location prediction methods based on the touch state, and determining a predicted touch location of the touch input based on the touch location prediction method and the sensor data.

Touch and hover sensing on single-layer segmented sheets

In one embodiment, a method includes by an electronic device: receiving sensor data indicative of a touch input from sensors of a human interface-device (HID) of the electronic device, where the touch input occurs at a set of actual coordinates with respect to the HID, and where the sensor data indicates the touch input occurs at a set of detected coordinates with respect to the HID, determining a context associated with the touch input, determining, by one or more generative models, context-dependent statistics to apply a delta change to the set of detected coordinates, where the context-dependent statistics are based on the context associated with the touch input, and where the one or more generative models comprises one or more system parameters and one or more latent parameters, and determining a set of time-lapsed predicted coordinates of the touch input with respect to the HID based on the delta change.

Systems and methods for using statistical inference to enhance the precision of sparsified capacitive-touch and other human-interface devices

In one embodiment, a method includes by a robotic system: sending, by an automatic tuning controller, driving commands to actuators of the robotic system, performing, for each of the actuators, one or more measurements of an actual pose of the respective actuator in response to the driving commands, generating, for each of the actuators, one or more configuration parameters for the respective actuator based on the one or more measurements, and storing the configuration parameters for the actuators in a data store of the robotic system.

Systems and methods for automated tuning of robotics systems

In one embodiment, a method includes accessing real-time content captured by a first user's client device, where the real-time content is captured at a first high quality and is one of a plurality of content frames in a real-time stream of content. The method includes downgrading the quality of the real-time content to a second lower quality for transmission to a second user and transmitting the downgraded content to the second user. The method includes determining, based on a request made by the second user, an area of interest of a subsequent real-time image, where the subsequent real-time image is at the first high quality, modifying the subsequent real-time image to focus on the area of interest, where the modified subsequent real-time image is at the first high quality, and downgrading and transmitting the modified subsequent real-time image for to the second user.

Electronic real-time communications

In one embodiment, a method includes by a robotic system: accessing a trajectory plan to be executed by the robotic system, where the trajectory plan includes desired poses at specified times, respectively, for each actuator of the robotic system, executing the trajectory plan for each actuator of the robotic system; monitoring, in real-time for each actuator during execution of the trajectory plan, an actual pose of the respective actuator, determining, based on the monitoring of the actuators, that one or more of the actuators is lagging, where the actual pose of each lagging actuator deviates from the desired pose by more than an error threshold, and adjusting, in real-time responsive to determining that one or more of the actuators is lagging, one or more of the desired poses at one or more specified times, respectively, of the trajectory plan.

Systems and methods for adaptive robotic motion control

A system and method include generating environment data from skylight sensor data. The environment data includes a value of a geospatially dependent parameter associated with light received from a predetermined celestial light source. At least two of a compass direction of the predetermined celestial light source when the skylight sensor data was received, a time at which the skylight sensor data was received, or a geospatial coordinate at which the skylight sensor data was collected are received. At least one of the compass direction of the predetermined celestial light source when the skylight sensor data was received, the time at which the skylight sensor data was received, or the geospatial coordinate at which the skylight sensor data was collected is determined, at least in part, from the environment data.

Determining location or orientation based on environment information

An apparatus includes a backlight, a color filter disposed in front of the backlight along a viewing direction, wherein the color filter includes a plurality of pixels repeating at a first spacing along a first axis. The apparatus further includes a lenticular layer disposed in front of the backlight, the lenticular layer including a section of material having a first index of refraction, a first, substantially flat side, and a second side defining a lenticularly patterned cross section along the first axis, the lenticularly patterned cross section including lens elements repeating at a second spacing and directing light originating from the backlight in two or more directions.

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Sunnyvale, CA, United States of America

Sergio Perdices-Gonzalez