Cypress Semiconductor Corporation

Deako, Inc.

Parade Technologies, Ltd.

Erik Anderson

Patrick N Prendergast

Dana Jon Olson

Derek Richardson

Cole Wilson

Viktor Kremin

Hans Klein

Paul M Walsh

Erhan Hancioglu

Gajender Rohilla

Paul Kelleher

Scott Allen Swindle

Aaron Hogan

Keith O'Donoghue

In one embodiment, a configurable system may be capable of verification and include a modular control unit configured to control power. The modular control unit may include a first contact element configured to receive the power, a backplate, and at least one device control assembly. Other embodiments may include a system configured for dynamically assignable pairings. Further embodiments may include a backplate configured to control power to at least one load device, the backplate including one or more power control elements. Additional embodiments may include a system including a receptacle. The system with the receptacle may include a modular control unit, a backplate, a contact element, and at least one device control assembly configured to be removably coupled to the backplate.

User-upgradeable load control network

A system for occupancy prediction includes one or more occupancy sensors configured to detect a current occupancy state of one or more detection zones including at least one of occupied by one or more occupants or vacant of occupants. The system including one or more occupancy sensors configured to predict a future occupancy state of the one or more zones based on the current occupancy state and one or more historical occupancy states, wherein at least one occupancy sensor of the one or more occupancy sensor is communicatively coupled to an electrical load. The system including at least one occupancy sensor is configured to actuate the electrical load based on the predicted future occupancy state of the one or more zones.

Systems and methods for occupancy prediction

An occupancy-sensing apparatus a device control assembly including a detector configured to generate an image wherein the device control assembly includes one or more illumination sources configured to emit illumination including at least one wavelength of radiation measurable by the detector. The apparatus includes a controller communicatively coupled to the detector configured to detect occupants based on the image generated by the detector, wherein the controller is configured to determine an active state of the detected occupants, the activity state including at least one of a stationary state or moving state.

Occupancy sensing apparatus network

A network includes a first device control assembly and at least one second device control assembly. The first device control assembly is electrically connected to a power distribution panel. The first device control assembly is further configured to regulate a load. The at least one second device control assembly is electrically connected to a power distribution panel. The first device control assembly is in data communication with the at least one second device control assembly. The first device control assembly regulating the load based on the data communication from the at least one second device control assembly.

Configurable device control network

A method for configuring a touchscreen controller may include identifying a model of a touchscreen by measuring a capacitance or resistance of at least one element integrated in the touchscreen, identifying the model of the touchscreen based on the measured capacitance or resistance, and configuring the touchscreen controller based on the identified model of the touchscreen.

Method and apparatus for identification of touch panels

An active integrator for sensing capacitance of a touch sense array is disclosed. The active integrator is configured to receive from the touch sense array a response signal having a positive portion and a negative portion. The response signal is representative of a presence or an absence of a conductive object on the touch sense array. The active integrator is configured to continuously integrate the response signal.

Active integrator for a capacitive sense array

An embodiment of a method for detecting noise for a capacitance sensing panel may comprise generating an input signal based on a noise signal, performing a series of measurements for measuring capacitances from a capacitive sensor sensitive to the noise signal, and controlling timing for at least one of the subconversions based on the input signal.

Method and apparatus for automating noise reduction tuning in real time

A capacitance sensing system can include a noise detector coupled to a capacitance sensing network that generates a noise detect signal in response to noise; a delay circuit coupled to generate at least two different delayed sense signals in response to outputs from the capacitance sensing network; and a switch circuit that selectively outputs one of the delayed sense signals in response to the noise detect signal. Particular embodiments can include selectively discarding discrete analog samples of a capacitance signal when noise is detected in such a sample.

Noise suppression and/or reduction circuits and methods for capacitance sensing systems

Systems and methods for horizontal capacitively sensed pointing devices. Embodiments in accordance with the present invention capacitively sense planar movement with structures that are substantially perpendicular to the plane of movement. In accordance with a first embodiment of the present invention, a sensing mechanism for a pointing device operable to accept movement in a plane includes structures of the mechanism that are substantially perpendicular to the plane. The structures may include a parallel plate capacitor.

Horizontal capacitively sensed pointing device

A capacitive sensor with ratiometric voltage references includes a voltage source, a charge transfer switch, an integrating capacitor, and a comparator. The voltage source is configured to generate a first voltage reference and a second voltage reference in response to a supply voltage, where the first voltage reference changes proportionally to the second voltage reference in response to a change in the supply voltage. The charge transfer switch is coupled to the integrating capacitor to distribute charge between a sensing capacitor and the integrating capacitor, where the charge is accumulated in response to the first voltage reference. The comparator is coupled to the second voltage reference and the integrating capacitor to compare a voltage on the integrating capacitor against the second voltage reference.

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Shoreline, WA, United States of America

Erik Anderson