Nokia Technologies Oy

Jvc Kenwood Corporation

Electricite De France

Harry Cronin

Phil Catton

Christopher James Wright

William Schnabel

Christopher John Wright

David Michael Duffy

Jan Jasper Van Den Berg

Christopher Wright

Bernadette Elliott-Bowman

Thierry Lucidarme

Anne-Sophie Coince

Mike Van Iseghem

Jean-Marc Lauruol

Laura Kristine Bujouves

Rory Andrew Bruce McDonald

Introduced here are approaches to transferring relevant information from a first electronic device (also called a 'source electronic device') that is presently outputting an interfacing signal that is detectable by a second electronic device (also called a “recipient electronic device”) via modification of the interfacing signal. Such modification causes the relevant information to be appended to the interfacing signal and then transferred to the recipient electronic device. This can be accomplished by superimposing another signal that is representative of the relevant information onto the interfacing signal. Thus, the relevant information can be transferred from the source electronic device to the recipient electronic device by superimposing a signal onto the interfacing signal that is output by the source electronic device.

Broadcasting contextual information through modification of audio and video interfaces

Lidar imaging techniques are disclosed. An example method includes projecting direct laser beams toward an area of interest, and projecting reflected laser beams toward the area of interest, wherein the reflected laser beams are reflected from a reflective surface disposed at a known location relative to an electronic device. The method also includes receiving light scattered in the area of interest due to the direct laser beams and the reflected laser beams. The method also includes determining signal characteristics of the detected scattered light received from the area of interest caused by both the direct laser beams and the reflected laser beams. The method also includes computing a depth map corresponding to the area of interest based on the signal characteristics.

High resolution lidar scanning

An apparatus, method and computer program is described including: generating a display pattern including features with spatial variations, wherein the spatial variations are configured to enable determination, by a first radar device, of at least one of an orientation of a first user device, position of the first user device, size of a display of the first user device, or one or more gestures associated with the display.

Device orientation detection

Examples of the disclosure relate to apparatus, methods and computer programs for calibrating machine learning systems by using images captured by an imaging device. The apparatus can comprise means for: enabling at least one of a first device or second device to display one or more calibration images, the first device comprising an embedded machine learning system wherein the one or more calibration images are for calibrating the embedded machine learning system. The apparatus can also comprise means for controlling an imaging device to capture, at least part of, the one or more calibration images, wherein the imaging device is provided within the first device, and using the one or more calibration images captured by the imaging device to calibrate the embedded machine learning system of the first device.

Apparatus, methods and computer programs for calibrating machine learning systems

A system for generating electrical energy, for instance at an agricultural site. The system includes at least one mobile robot, referred to as 'collecting robot' and a plurality of mobile robots, referred to as “producing robots”. Each collect robot includes at least one input port adapted for coupling with an output port of a producing robot and an output port for outputting electrical energy received from each producing robot coupled with the collecting robot. Each producing robot includes a photovoltaic generator, at least one input port adapted for coupling with an output port of another producing robot, and at least one output port for outputting electrical energy generated by the producing robot and received from each other producing robot coupled with the producing robot.

Method and system for generating electrical energy comprising a collecting robot and a plurality of producing robots

An apparatus, method and computer program is disclosed. The apparatus may comprise means for receiving video data representing a video recording of at least one input made by a user at a user device; receiving audio data representing an audio recording of at least one audio input made by the user at the user device; determining whether there is a correspondence between the at least one input represented in the video data and the at least one audio input represented in the audio data; and providing verification based on the determination.

Method and apparatus for providing verification

The method, apparatus and computer program product estimate the depth to objects within a scene that is captured by first and second cameras of a mobile terminal. A method includes determining, based upon an image including an eye of a user captured by a first camera of a mobile terminal and an image of a scene captured by a second camera of the mobile terminal, two or more angles of a geometric shape defined by the eye, the mobile terminal and an object of the scene. Based upon the image captured by the first camera, the method also determines a first distance from the first camera to the eye. The method further estimates the depth to the object in the scene relative to the mobile terminal based upon the first distance and one or more angles of the geometric shape defined by the eye, the mobile terminal and the object.

Method and apparatus for depth estimation relative to a mobile terminal

Dust mitigation techniques are disclosed. An example apparatus includes a first component coupled in a movable relationship with a second component. The first component or the second component includes a recess accessible through an aperture. The apparatus also includes a brush disposed at the aperture and comprising fibers configured to prevent intrusion of dust into the recess. The apparatus also includes a vibration device configured to deliver a vibrational stimulus to the brush, wherein the vibration device activates a dust collection mode in response to a first movement of the first component relative to the second component and activates a dust shedding mode in response to a second movement of the first component relative to the second component.

Dust mitigation

Introduced here are approaches to authenticating unknown persons based on variations in the spatial properties and directionality of blood flow through vessels over time. At a high level, these approaches rely on monitoring vascular dynamics to recognize unknown persons. For example, an authentication platform may examine digital images of an anatomical region to establish how a property of the vasculature within the anatomical region changed as a result of deformation. Examples of properties include the position, size, volume, and pressure of vessels included in the vasculature, as well as the velocity and acceleration of blood flowing through the vasculature.

Biometric authentication through vascular studies

According to various, but not necessarily all, embodiments there is provided an apparatus comprising means for: obtaining a position of a user device; locating one or more surfaces providing one or more putative reflection points for a non-line-of-sight (NLOS) path between the user device and a wearable device; conditional upon locating the one or more surfaces, causing ranging signals to be exchanged between the user device and the wearable device to determine a relative position of the wearable device with respect to the user device; determining, from at least the relative position and position of the user device, data that enables calibration of one or more sensors of the wearable device; and causing transmission of the data to the wearable device.

Non-line-of-sight ranging

Examples of the disclosure relate to at least apparatus, methods, and computer programs, configured to control capture of two images of an area, across which a pulse propagates, using different shutter scanning directions. Either the images are converted into pulse-phase maps of the area and a pulse-phase difference map obtained which identifies differences between the pulse-phase maps of the area, or a colour difference map is obtained which identifies differences between the two images and the colour difference map is converted into a pulse-phase difference map. A shutter-time difference map is obtained which identifies differences between capture times of corresponding locations in the two images. Using the shutter-time difference map, the pulse-phase difference map is corrected to obtain a map of pulse-phase changes which have occurred over a duration of a shutter scan.

Mapping pulse propagation

A method, apparatus and computer program are described to determine a configuration of a reconfigurable screen of a user device, identify potentially problematic sources of reflection from a scene around a user device based, at least in part, on the determined configuration, and compensate for the potentially problematic sources of reflection.

Growing community of inventors

Cambridge, United Kingdom

Harry Cronin