Tactual Labs Co.

Mitsubishi Electric Research Laboratories, Inc.

Mitsubishi Electric Research Labs.

Mitsubishi Denki Kabushiki Kaisha

Darren L Leigh

Clifton L Forlines

Daniel John Wigdor

Steven Leonard Sanders

William Yerazunis

Braon Moseley

Adam Landa

Robert Joseph Alack, Jr

Ricardo Jorge Jota Costa

Paul H Dietz

Bruno Rodrigues De Araujo

Kaan Duman

Ramesh Raskar

David C Reynolds

David Holman

David Clark Wilkinson

Dirk Brinkman

Giovanni Vannucci

Jonathan Deber

Johnny Chung Lee

Jonathan Westhues

Marco S Carbone

Clifton Forlines

Robert Alack Jr

Daniel Wigdor

A multimodal sensing system comprises a plurality of sensors placed proximate to a body part. The sensing system receives, using a plurality of sensors, a plurality of signals related to at least one of a movement and a pose of the body part. The sensing system then extrapolates information regarding the type of movement or pose and at least one characteristic of the type a movement or pose.

Wearable multimodal-sensing device

A low-latency touch sensitive device provides a method for determining a location of a touch event thereon. The touch sensitive device row conductors and column conductors, the path of each of the row conductors crossing the path of each of the column conductors. Each of a set of orthogonal row signals are simultaneously transmitted on a respective one of at least some of the row conductors and an amount of each of the plurality of orthogonal row signals present on each of the plurality of column conductors is detected. A set of orthogonal column signals are simultaneously transmitted on a respective one of at least some of the column conductors. An amount of each of the orthogonal column signals present on each of the plurality of row conductors is detected. The detected amount of each of the plurality of orthogonal row signals and the detected amount of each of the plurality of orthogonal column signals is used to determine the location of a touch event on the device.

Fast multi-touch noise reduction

A plurality of frequency orthogonal signals are transmitted into a person. At least one of the plurality of frequency orthogonal signals is received at a receiving antenna or conductor. The received signal is measured. Characteristics of the received signal are used to establish a result related to that person.

Biometric frequency

A system and method for determining location of a touch event on or in proximity to a touch sensitive device is disclosed. Sampling of data is performed during different frames. The frames are processed to determine touch events and information related to the touch events.

Transmitting and receiving system and method for bidirectional orthogonal signaling sensors

A sensor for use with vehicular components. The sensors may comprise transmitting and receiving antennas that can be interleaved or placed within the various materials throughout the vehicle so that interaction with the materials will provide information related to the use. Sensors may also infuse signal into an occupant within the vehicle via the material which can provide enhanced interactions with various vehicle features and components.

Vehicular components comprising sensors

Two or more objects, or an object and an environment are each fitted with two or more range measurement devices. Each of the range measurement devices is provided with a transceiver capable of outputting a unique code and information that can be used in range measurement, and receiving from other range measurement devices unique codes and information that can be used in range measurement. Range measurements from range measurement devices on the object or located in the environment are used to derive the relative position of the range measurement devices, from which a relative position of the objects, or of the object and an environment can be derived.

Human-computer interaction applications of precise ranging technology and geometric dilution of precision in a ranging positioning system for VR

A plurality of sensors for application to a steering wheel or other generally toroidal objects is disclosed. In an embodiment, the sensor comprises interleaving transmit and receive conductors. In an embodiment, the sensor comprises crossing transmit and receive conductors. In an embodiment, sensor conductors are first provided on a flat substrate, which sensors placed on the flat substrate in a configuration that will permit expansion application of the substrate to the steering wheel.

Toroidal sensor

A close-range motion detector has at least one transmitter, at least one receiver, and at least one more transmitter or receiver. The transmitter(s) transmit, and the receiver(s) receive signals in one of the ultrasonic or mm-wave ranges. Multiple transmitters or receivers are spaced apart from one-another along a plane, and transmission of a signal takes place at a known time. Echos of the signal that bounce of a scatterer are received and digitized during a receive window, and the time-of-flight is determined using CAF. Time scaling may be determined as well, and may be determined using CAF. The determined time-of-flight is used to determine an X-Y-coordinate for the scatterer, and its motion (e.g., velocity) can be determined, which are output. In an embodiment, a such a close-range motion detector can be implemented on the side of a smart-watch, making a virtual writing surface on the back of a user's hand.

Systems and methods for ultrasonic, millimeter wave and hybrid sensing

Disclosed are a method and corresponding touch sensitive device that can be altered to change sensitivity and distance over which it interacts with an object. A touch sensor is configured to detect location of a touching object hovering above a touch surface. A ground plane is located behind the touch surface at a predetermined distance from the touch surface. A processor in the touch sensor is configured to control the effective distance between the ground plane and the touch surface and sensitivity of detection of a finger or touching object hovering above the touch surface.

Alterable ground plane for touch surfaces

A sensor is located within a vehicle that is able to determine pressure and location of an occupant or object. The sensor is able to take measurements during static conditions and situations where an object or occupant is moving due to the movement of, for example, a vehicle. The measurements taken during movement and during the static conditions and are used in order to enhance and refine the results of measurements that would be obtained if the measurements were taken alone.

Movement enhanced detection

A sensor for sensing contact with an outside object is disclosed. A sensor stackup has top surface, having an outer skin adapted for contact with the outside object. The stackup also including, a deformable layer below top surface in the stackup, the deformable layer including patches made from conductive or high dielectric material. The stackup further including a capacitive sensor layer below the deformable layer, the capacitive sensor layer comprising conductors that are insulated from the patches. Each of the patches is displaceable with respect to the capacitive sensor layer in response contact with the outside object. The stackup also includes a backing layer below the capacitive sensor layer in the stackup. The sensor further includes capacitive sensor circuitry operatively connected to the capacitive sensor layer, the capacitive sensor circuitry configured to detect changes in capacitive coupling between the conductors of the capacitive sensor layer resulting from displacement of the patches with respect to the capacitive sensor layer.

Pressure and shear sensor

An infusion system including two infusors is operatively connected to a source of infusion signals. In an embodiment, the infusors being adapted for attachment to different parts of the same hand of a user. In an embodiment, the infusors are embedded in a glove or other wearable component. In an embodiment, a choke is used to mitigate infusion signals in other parts of a body. The infusion signal source is configured to transmit differing, orthogonal signals to the two infusors. In an embodiment, each of the differing signals is made up of at least a high frequency signal and a low frequency signal. In an embodiment, the high frequency signal and the low frequency signal are at least one octave apart and orthogonal to each other. In an embodiment, the infusion system includes a steering wheel sensor made from a plurality of conductors attached to a receiver.

Signal infusion to enhance appendage detection and characterization

Methods are disclosed for dynamic assignment of possible channels in a touch sensitive device having rows and columns. In an embodiment, a method determines a first signal space in which to generate signals for use in the touch sensor. Signals are then generated in the first signal space on separate ones of the rows and a column signal is sensed on a column. The first signal space is replaced with a second signal space, and a second plurality of signals is generated for use in the touch sensor in the second frequency space. The second plurality of signals is sensed to identify a touch event in the touch sensitive device.

Growing community of inventors

Belmont, MA, United States of America

Darren L Leigh