Abstract: A user interface device comprising a heat pump, a signal generating circuit, and a control circuit is presented. The control circuit is configured to control the signal generating circuit to generate a driving portion of a driving signal. All of the driving portion has a first polarity and causes the heat pump to generate the thermal effect, and causes heat flux to flow in a first direction. The control circuit is further configured to control the signal generating circuit to generate a braking portion of the driving signal, wherein all of the braking portion of the driving signal has a second polarity opposite the first polarity and causes the heat pump to stop the thermal effect.

Abstract: Systems and methods or a low profile haptic actuator are disclosed. In one embodiment, a system for a low profile haptic actuator includes: a moveable surface comprising a first coil, the moveable surface configured to move in a degree of freedom; a fixed surface beneath the moveable surface, the fixed surface comprising a second coil coupled underneath the first coil; a suspension coupled to the fixed surface and the moveable surface and configured to suspend the moveable surface; and a controller coupled to the first coil and the second coil.

Abstract: A wearable haptic-enabled user interface device comprising a plurality of magnetic elements and at least one electromagnet that are configured to generate a haptic effect at the user interface device by being disposed to generate at least one of an attractive force and a repelling force on each other when the at least one electromagnet is activated. The wearable haptic-enabled user interface device further comprises a processor configured to activate the at least one electromagnet in response to a determination to output the haptic effect.

Abstract: Systems and methods or a low profile haptic actuator are disclosed. In one embodiment, a system for a low profile haptic actuator includes: a moveable surface comprising a first coil, the moveable surface configured to move in a degree of freedom; a fixed surface beneath the moveable surface, the fixed surface comprising a second coil coupled underneath the first coil; a suspension coupled to the fixed surface and the moveable surface and configured to suspend the moveable surface; and a controller coupled to the first coil and the second coil.

Abstract: Systems and methods or a low profile haptic actuator are disclosed. In one embodiment, a system for a low profile haptic actuator includes: a moveable surface comprising a first coil, the moveable surface configured to move in a degree of freedom; a fixed surface beneath the moveable surface, the fixed surface comprising a second coil coupled underneath the first coil; a suspension coupled to the fixed surface and the moveable surface and configured to suspend the moveable surface; and a controller coupled to the first coil and the second coil.

Abstract: Systems and methods or a low profile haptic actuator are disclosed. In one embodiment, a system for a low profile haptic actuator includes: a moveable surface comprising a first coil, the moveable surface configured to move in a degree of freedom; a fixed surface beneath the moveable surface, the fixed surface comprising a second coil coupled underneath the first coil; a suspension coupled to the fixed surface and the moveable surface and configured to suspend the moveable surface; and a controller coupled to the first coil and the second coil.

Abstract: A wearable haptic-enabled user interface device comprising a plurality of magnetic elements and at least one electromagnet that are configured to generate a haptic effect at the user interface device by being disposed to generate at least one of an attractive force and a repelling force on each other when the at least one electromagnet is activated. The wearable haptic-enabled user interface device further comprises a processor configured to activate the at least one electromagnet in response to a determination to output the haptic effect.

Abstract: A magnetic suspension system is disclosed for use in mounting an electronic touch screen. The magnetic suspension system may be designed to provide more or less movement in any direction, i.e., along the x-axis, the y-axis, and/or the z-axis, depending upon the application. The magnetic suspension system includes a first programmable magnet coupled to a first body and a second programmable magnet coupled to a second body. The programmable magnets simultaneously repel and attract each other in a nominal configuration such that the second body is suspended a programmed spaced-apart distance from the first body. The programmable magnets also allow movement between the first and second bodies in reaction to a force applied to the second body by a haptic actuator with a programmed spring force such that the first and second bodies return to the nominal configuration when no force is applied to the second body.

Abstract: A haptic peripheral including a magnetic actuator coupled to a user input element for providing haptic effects to the user input element. The magnetic actuator includes at least two opposing programmable magnets, a first programmable magnet and a second programmable magnet, with pre-programmed patterns to control the motion of the user input element. Each programmable magnet has a pre-programmed pattern of magnetic elements. The pre-programmed patterns of the magnetic elements interact with each other to cause haptic effects. In order to vary to haptic effects output by the magnetic actuator, the second programmable magnet is spun, rotated, or otherwise moved to change the orientation or position of the pre-programmed pattern. The re-oriented pattern of the second programmable magnet changes the interaction between the first and second programmable magnets and thereby results in different haptic effects being output to the user input device.

Abstract: A magnetic suspension system is disclosed for use in mounting an electronic touch screen. The magnetic suspension system may be designed to provide more or less movement in any direction, i.e., along the x-axis, the y-axis, and/or the z-axis, depending upon the application. The magnetic suspension system includes a first programmable magnet coupled to a first body and a second programmable magnet coupled to a second body. The programmable magnets simultaneously repel and attract each other in a nominal configuration such that the second body is suspended a programmed spaced-apart distance from the first body. The programmable magnets also allow movement between the first and second bodies in reaction to a force applied to the second body by a haptic actuator with a programmed spring force such that the first and second bodies return to the nominal configuration when no force is applied to the second body.

Abstract: A haptic peripheral including a magnetic actuator coupled to a user input element for providing haptic effects to the user input element. The magnetic actuator includes at least two opposing programmable magnets, a first programmable magnet and a second programmable magnet, with pre-programmed patterns to control the motion of the user input element. Each programmable magnet has a pre-programmed pattern of magnetic elements. The pre-programmed patterns of the magnetic elements interact with each other to cause haptic effects. In order to vary to haptic effects output by the magnetic actuator, the second programmable magnet is spun, rotated, or otherwise moved to change the orientation or position of the pre-programmed pattern. The re-oriented pattern of the second programmable magnet changes the interaction between the first and second programmable magnets and thereby results in different haptic effects being output to the user input device.