Sony Ericsson Mobile Communications Ab

Sony Corporation

Sony Mobile Communications Ab

Sony Mobile Communications Inc.

Qoitech Ab

Sony Group Corporation

Bombardier Transportation Gmbh

Flatfrog Laboratories Ab

Alstom Holdings

Gunnar Klinghult

Mats Kleverman

Andreas Kristensson

Magnus Jendbro

Ola Karl Thörn

Mats Wernersson

Magnus Abrahamsson

Peter Åberg

Eral Denis Foxenland

Johan F Gulliksson

Anna-Maria Lagerstedt

Mats Larsson

William O Camp, Jr

Kåre Agardh

Magnus Midholt

Pär-Anders Aronsson

Magnus Ola Johansson

Paul Leonard Futter

Tomas Karl-Axel Wässingbo

Håkan Jonsson

Randi-Lise Hjelmeland Almås

Pär Stenberg

Henrik Bengtsson

David De Léon

Vanja Plicanic Samuelsson

Aleksandar Rodzevski

Martin Nystrom

Martin Ek

Stjepan Begic

Anders Linge

Richard Nilsson

Andrej Petef

Hakan Jonsson

Scott Bloebaum

Johan Nyman

Ivan Karlsson

Alexandar Rodzevski

Torbjörn Karlelid

Mohanraj Manoharan

Rajeev Rema Shanmugam

Randi-Lise Hjelmeland Almas

Magnus Fredholm

Kent Ådán

Anna Tomasson

Nercivan Kerimovska

Björn Rosqvist

Lars-Ove Mogren

Ola Thörn

Tomas Karl-Axel WÄSSINGBO

Randi-Lise Almas Hjelmeland

Magnus Johansson

Kent Adán

Stand-alone remote sensor arrangement for monitoring parameter activity in a cable including a sensor unit, a power source unit, a connecting cable, and a control unit. The sensor unit includes a shielded housing enclosing a toroid-shaped core fixed around the cable to be monitored. The arrangement operates in a low current consumption mode and a measurement mode, in which measurement mode a Hall sensor element senses a predetermined parameter activity of the cable. The sensor unit includes a sensor activation unit arranged and structured to sense parameters related to magnetic field variations in the core caused by parameter activity of the cable, and to generate a sensor activation signal including parameter values dependent on sensed parameters. The control unit receives the signal and evaluates the parameter values in relation to predetermined mode changing criteria, and changes mode of operation of the arrangement dependent on the result of the evaluation.

Remote sensor arrangement

Sensors in one or more remote devices provide sensor output to a device having a controller. The controller analyzes the sensor data to determine the accuracy of the sensors outputting the sensor data. Based on the analysis, the controller calculates a calibration value to utilize in calibrating one or more of the sensors in the remote devices, or in one or more other devices.

System and method for the assisted calibration of sensors distributed across different devices

A weight pin for use with a stacked weight exercise machine includes a handle portion, and a shaft portion extending outwardly from the handle portion. The shaft portion is configured to be removably positioned adjacent to one or more weights of the exercise machine to selectively engage the one or more weights during use of the exercise machine. The weight pin also includes interrogation circuitry arranged relative to the handle portion, the interrogation circuitry configured to read information from the adjacent one or more weights.

Deciding weight and repetitions in a gym machine with no mechanical impact

A base unit includes a sensor calibration function. When a user communicatively couples a consumer electronic device having a sensor to the base unit, a controller at the base unit retrieves a calibration reference value for the sensor and/or a sensor algorithm that utilizes data output by the sensor. The base unit then sends the calibration reference value to the consumer electronic device to set a sensor calibration parameter associated with the sensor and/or the sensor algorithm.

System and method for calibrating sensors across loosely coupled consumer electronic devices

The disclosure relates to a device for measuring electrical current in an electrical conductor (), the device comprising: a measuring circuit configured to be connected to the electrical conductor, the measuring circuit comprising: a resistor based measuring circuit comprising a resistor (), a transformer based measuring circuit comprising a current transformer () comprising a primary coil (), connected in series with the resistor () of the resistor based measuring circuit, a first inverter () configured to transform a first digital signal using a transfer function being an inverse of a transfer function representing the resistor based measuring circuit; a second inverter () configured to transform a second digital signal using a transfer function being an inverse of a transfer function representing the transformer based measuring circuits; and a signal combiner () configured to combine the transformed first and second digital signals, thereby providing a digital signal representing the electrical current in the electrical conductor. The disclosure also relates to a method for measuring electrical current in an electrical conductor.

Device and method for measuring electrical current in an electrical conductor

The one or more processors of an electronic device execute program code. While executing the program code, measurements are performed on the electronic device to obtain first data. Further, execution of the program code is monitored to obtain second data, e.g., debug information. The measurements are coordinated with the monitoring of the execution of the program code.

Measurement coordination by monitoring of program code execution

A method and device for user authorization is presented herein. The authorization device may be integrated in a display interface configured to receive an infrared input signal. The device may include a means for converting the infrared signal into an electric signal. The device may further include a processor configured to analyze the electrical signal. The processor may further be configured to provide an authorization of a user based on the analysis of the electrical signal.

Method and device

A touch-sensitive display, comprising a transmissive panel defining the touch surface, a first set of OLED emitters forming display pixels, a second set of OLED emitters configured to emit light via an adjacent cell into the transmissive panel for propagation therein via total internal reflection, and a set of detectors configured to receive light from the second set of OLED emitters after the light has propagated inside the transmissive panel via total internal reflection. The first set and the second set of OLED emitters are arranged on the same substrate.

Touch-sensing OLED display with tilted emitters

Method, means, portable terminal accessory and system for calibrating a sensor device comprising a positioning unit detecting the position of the electronic device, an image capturing unit capturing an image of the environment around the electronic device, a processing unit detecting the presence of at least one identifiable object in the image captured and from a comparison of the position of the object in relation to the position of the user determining the heading of a user of the electronic device. Once the heading of the user is determined, it is used to calibrate one or more sensor devices or sensor functionalities in the electronic device.

Method for calibration of a sensor unit and accessory comprising the same

The invention relates to a method and an electric device comprising a screen, cooperating with said screen a sensor for detecting a presence of an object on or close to said screen, a controller and a feedback element. The controller is configured to interpret said presence of the object and calculate a force value and control said feedback element to provide a feedback with respect to the force value.

Touch screen interface with feedback

A method for operating a touch sensitive user interface is provided. The touch sensitive user interface comprises a touch sensitive surface and at least two force sensitive sensors. The touch sensitive surface is configured to provide a touch information indicating touch positions of at least two concurrent touches on the touch sensitive surface. The at least two force sensitive sensors are mounted at the touch sensitive surface at different predetermined locations. Each of the at least two force sensitive sensors is configured to generate a corresponding force information depending on a force being exerted on the corresponding force sensitive sensor. According to the method, the touch positions are determined based on the touch information and the force information is received from the at least two force sensitive sensors. Based on the at least two touch positions, the force information from the force sensitive sensors and the predetermined locations of the force sensitive sensors a corresponding touch force is determined for each of the concurrent touches.

Method for operating a touch sensitive user interface

The invention relates to a method and an electric device comprising a screen (), cooperating with said screen a sensor for detecting a presence of an object on or close to said screen, a controller () and a feedback element (). The controller () is configured to interpret said presence of the object and calculate a force value and control said feedback element () to provide a feedback with respect to the force value.

A liquid crystal display with a force sensitive display surface has a liquid crystal layer between a liquid crystal control layer and a window layer. A color filter layer with color filters or a 3D filter layer with 3D barrier units may be provided between the liquid crystal layer and the window layer. The control, window, color or 3D filter layer comprises an electrically conductive sensor structure comprising piezoresistive material for sensing the force applied by a user's finger on the display, and the sensor structure may, additionally, provide capacitance varying for sensing the touch position.

Liquid crystal display

A force sensitive touch sensor () is provided. The sensor () comprises an insulating support layer () and an electrically conductive sensor structure (). The electrically conductive sensor structure () comprises a piezoresistive material and is configured to provide a resistance varying in response to a force being applied to the insulating support layer (). The piezoresistive material comprises graphene.

Force sensitive touch sensor

A portable electronic equipment comprises a first sensor to record media and at least one second sensor to capture data representing a physical condition of a user of the portable electronic equipment, the at least one second sensor being configured to capture the data in response to the first sensor recording the media. A processing device is interfaced with the at least one second sensor. The processing device is configured to retrieve the data captured by the at least one second sensor, to generate metadata for the recorded media based on the data, the metadata being indicative of the physical condition, and to cause the metadata to be stored in association with the recorded media.

Portable electronic equipment and method of recording media using a portable electronic equipment

Growing community of inventors

Lund, Sweden

Gunnar Klinghult