Abstract: An input knob for use with a touch screen device includes stationary and moveable members. The stationary member adheres to a touch screen of the device. The moveable member moves relative to the stationary member, and is secured to the surface via the stationary member. The moveable member produces touch events on the touch surface as bits of data in response to movement of the moveable member. The moveable member may include a rotary encoder. The stationary member may include conductive pads in contact with the surface and in selective contact with a conductive mass of the moveable member. The moveable member may be ring-shaped, removeable and repositionable with respect to the surface, and/or constructed of or coated by dielectric materials. The knob may lack a direct hardwired electrical connection to or through the surface. A display system includes the touch screen device and knob.

Abstract: An input knob for use with a touch screen device includes stationary and moveable members. The stationary member adheres to a touch screen of the device. The moveable member moves relative to the stationary member, and is secured to the surface via the stationary member. The moveable member produces touch events on the touch surface as bits of data in response to movement of the moveable member. The moveable member may include a rotary encoder. The stationary member may include conductive pads in contact with the surface and in selective contact with a conductive mass of the moveable member. The moveable member may be ring-shaped, removeable and repositionable with respect to the surface, and/or constructed of or coated by dielectric materials. The knob may lack a direct hardwired electrical connection to or through the surface. A display system includes the touch screen device and knob.

Abstract: A method of operating a touch assembly having a touch surface, a haptic feedback device and a switch is provided. The method includes activating the haptic feedback device in response to the switch deactivating. The method also includes monitoring and adjusting the monitoring of the switch in response to the switch deactivating to prevent continued deactivation of the switch by the haptic feedback. A method of operating a touch assembly having a touch surface, a base, a haptic feedback device and a switch is also provided. The method includes sensing the location of a touch force on the touch surface and deactivating a switch in response to the touch force moving the touch surface relative to the base. The method proceeds with transmitting a signal only in response to the location of the touch force being sensed and the at least one switch being in the deactivated configuration.

Abstract: Methods of forming a control panel include providing an electrically conductive substrate having a front surface. A first dielectric layer is disposed on the front surface of the substrate. A first electrode layer is disposed on a front surface of the first dielectric layer, wherein the first dielectric layer electrically isolates the first electrode layer from the substrate. The first electrode layer is in electrical communication with a switch circuit adapted to detect a change in a capacitance of the first electrode layer. A substantially transparent film can be provided to cover the electrode. The front surface of the substrate is a decorative surface substantially visible through the first dielectric layer, the first electrode layer, and the film.

Abstract: A touch assembly is provided including a touch surface for receiving a touch force. At least one haptic feedback device is coupled to the touch surface for selectively vibrating the touch surface. At least one switch is operably coupled with the touch surface and is adjustable between an activated configuration and a deactivated configuration. At least one microprocessor is in electrical communication with the at least one haptic feedback device and the at least one switch for actuating the at least one haptic feedback device in response to the at least one switch adjusting from the activated configuration to the deactivated configuration.

Abstract: The aspects of the present disclosure provide an apparatus for and method of reducing rotary knob produced by a plurality of detents. In particular, a rotary retainer within a rotary knob assembly. The rotary retainer has a generally cylindrical body and an angular flange protruding outwardly from and around the generally cylindrical body and a plurality of detents disposed on the angular flange. The angular flange is made of a first material capable of sustaining a torque exceeding a first predetermined threshold and wherein the plurality of detents are made from a second material different from the first material, the second material being capable of sustaining a torque exceeding a second predetermined threshold, and the first material and the second material are configured to dampen noise generated by the plurality of detents when the rotary knob is operated.

Abstract: The aspects of the present disclosure provide an apparatus for and method of reducing rotary knob produced by a plurality of detents, in particular, a rotary retainer within a rotary knob assembly. The rotary retainer has a generally cylindrical body and an angular flange protruding outwardly from and around the generally cylindrical body and a plurality of detents disposed on the angular flange. The angular flange is made of a first material capable of sustaining a torque exceeding a first predetermined threshold and wherein the plurality of detents are made from a second material different from the first material, the second material being capable of sustaining a torque exceeding a second predetermined threshold, and the first material and the second material are configured to dampen noise generated by the plurality of detents when the rotary knob is operated.

Abstract: A control panel is disclosed. The control panel includes an electrically conductive substrate having a front surface. A first dielectric layer is disposed on the front surface of the substrate. A first electrode layer is disposed on a front surface of the first dielectric layer, wherein the first dielectric layer electrically isolates the first electrode layer from the substrate. The first electrode layer is in electrical communication with a switch circuit adapted to detect a change in a capacitance of the first electrode layer. A substantially transparent film can be provided to cover the electrode. The front surface of the substrate is a decorative surface substantially visible through the first dielectric layer, the first electrode layer, and the film.

Abstract: A control panel is disclosed. The control panel includes an electrically conductive substrate having a front surface. A first dielectric layer is disposed on the front surface of the substrate. A first electrode layer is disposed on a front surface of the first dielectric layer, wherein the first dielectric layer electrically isolates the first electrode layer from the substrate. The first electrode layer is in electrical communication with a switch circuit adapted to detect a change in a capacitance of the first electrode layer. A substantially transparent film can be provided to cover the electrode. The front surface of the substrate is a decorative surface substantially visible through the first dielectric layer, the first electrode layer, and the film.

Abstract: A capacitive sensor includes a conductive elastomer portion formed into a pre-determined shape to sense a touch of a user within a sensing zone of the conductive elastomer portion, a dielectric portion disposed adjacent the conductive elastomer portion within the sensing zone of the conductive elastomer portion, and a controller in electrical communication with the conductive elastomer portion to detect a change in an electrical characteristic of the conductive elastomer portion.

Abstract: A touch assembly is provided including a touch surface for receiving a touch force. At least one haptic feedback device is coupled to the touch surface for selectively vibrating the touch surface. At least one switch is operably coupled with the touch surface and is adjustable between an activated configuration and a deactivated configuration. At least one microprocessor is in electrical communication with the at least one haptic feedback device and the at least one switch for actuating the at least one haptic feedback device in response to the at least one switch adjusting from the activated configuration to the deactivated configuration.

Abstract: A method of operating a touch assembly having a touch surface, a haptic feedback device and a switch is provided. The method includes activating the haptic feedback device in response to the switch deactivating. The method also includes monitoring and adjusting the monitoring of the switch in response to the switch deactivating to prevent continued deactivation of the switch by the haptic feedback. A method of operating a touch assembly having a touch surface, a base, a haptic feedback device and a switch is also provided. The method includes sensing the location of a touch force on the touch surface and deactivating a switch in response to the touch force moving the touch surface relative to the base. The method proceeds with transmitting a signal only in response to the location of the touch force being sensed and the at least one switch being in the deactivated configuration.

Abstract: A haptic system including a plurality of mechanical buttons driven by a single haptic feedback driver. The mechanical buttons are integrated within the haptic surface and are configured to move with the haptic interface relative to said base. The haptic surface may include a touch screen interface.

Abstract: A haptic system including a compliant member which limits the direction of motion of an interface surface providing haptic feedback to motion along a single axis. The compliant member allows for easy assembly, reduced ports, lighter weight and improved longevity and performance. The compliant member typically has a longitudinal extent that is greater than its lateral extent and height, and its height is greater than its lateral extent.

Abstract: A method for reducing noise in a vehicle by adjusting the rotational speed of various rotational components.

Abstract: A capacitive sensor includes a conductive elastomer portion formed into a pre-determined shape to sense a touch of a user within a sensing zone of the conductive elastomer portion, a dielectric portion disposed adjacent the conductive elastomer portion within the sensing zone of the conductive elastomer portion, and a controller in electrical communication with the conductive elastomer portion to detect a change in an electrical characteristic of the conductive elastomer portion.

Abstract: A control panel is disclosed. The control panel includes an electrically conductive substrate having a front surface. A first dielectric layer is disposed on the front surface of the substrate. A first electrode layer is disposed on a front surface of the first dielectric layer, wherein the first dielectric layer electrically isolates the first electrode layer from the substrate. The first electrode layer is in electrical communication with a switch circuit adapted to detect a change in a capacitance of the first electrode layer. A substantially transparent film can be provided to cover the electrode. The front surface of the substrate is a decorative surface substantially visible through the first dielectric layer, the first electrode layer, and the film.

Abstract: A haptic interface is disclosed. The haptic interface includes a base having a front surface. A haptic member is disposed adjacent the front surface of the base to receive an input from a user. An actuator is interposed between the base and the haptic member. A control system is provided that is in electrical communication with the haptic member and the actuator, wherein the control system receives the input from the haptic member effective to control an operation of the control system and provides an output to the actuator to produce a vibration of the haptic member having a frequency domain and a peak amplitude. A tuned mass damper is coupled to the haptic interface, wherein the tuned mass damper minimizes the peak amplitude of the vibration and minimizes a transfer of the vibration from the haptic member to a support structure.

Abstract: A haptic system including a compliant member which limits the direction of motion of an interface surface providing haptic feedback to motion along a single axis. The compliant member allows for easy assembly, reduced ports, lighter weight and improved longevity and performance. The compliant member typically has a longitudinal extent that is greater than its lateral extent and height, and its height is greater than its lateral extent.

Abstract: A haptic system including a plurality of mechanical buttons driven by a single haptic feedback driver. The mechanical buttons are integrated within the haptic surface and are configured to move with the haptic interface relative to said base. The haptic surface may include a touch screen interface.