Abstract: The disclosed system may include a substructure configured to support various components, an actuator configured to provide substantially linear motion along a specified axis in response to an electrical input, an input component hingedly coupled to the substructure, where the input component is configured to receive input from a user, and a mechanical linkage coupled to the input component and to at least a portion of the actuator. The mechanical linkage may be configured to translate the substantially linear motion provided by the actuator to a rotary force applied to the input component via the mechanical linkage. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: As disclosed herein, a system may comprise a handheld device in electronic communication with a controller. The handheld device may comprise a housing defining an internal cavity and an orifice providing access to the internal cavity. A trigger may comprise an external and an internal surface. The trigger may be oriented to cover the orifice. A transfer member may be oriented in the internal cavity and coupled to the internal surface of the trigger. A force sensor may be oriented in the internal cavity and may engage a distal end of the transfer member and the internal surface of the trigger. A transfer roller may be oriented in the internal cavity and coupled to the distal end of the transfer member. A cam may be oriented in the internal cavity and may engage the transfer member. A motor may be oriented in the internal cavity and coupled to the cam.

Abstract: The disclosed system may include a substructure configured to support various components, an actuator configured to provide substantially linear motion along a specified axis in response to an electrical input, an input component hingedly coupled to the substructure, where the input component is configured to receive input from a user, and a mechanical linkage coupled to the input component and to at least a portion of the actuator. The mechanical linkage may be configured to translate the substantially linear motion provided by the actuator to a rotary force applied to the input component via the mechanical linkage. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: The disclosed handheld controllers may include a multi-degree of freedom sensor module, a mouse module, and a switch. The mouse module may include a mouse sensor and a proximity sensor. The switch may be configured to activate the mouse sensor and deactivate the multi-degree of freedom sensor module when the proximity sensor indicates that the mouse sensor is proximate to a physical surface and to deactivate the mouse sensor and activate the multi-degree of freedom sensor when the proximity sensor indicates that the mouse sensor is not proximate to the physical surface. Various other related methods, systems, and devices are also disclosed.

Abstract: The disclosed handheld controllers may include a multi-degree of freedom sensor module, a mouse module, and a switch. The mouse module may include a mouse sensor and a proximity sensor. The switch may be configured to activate the mouse sensor and deactivate the multi-degree of freedom sensor module when the proximity sensor indicates that the mouse sensor is proximate to a physical surface and to deactivate the mouse sensor and activate the multi-degree of freedom sensor when the proximity sensor indicates that the mouse sensor is not proximate to the physical surface. Various other related methods, systems, and devices are also disclosed.

Abstract: Examples are disclosed herein that relate to a six degree-of-freedom (DOF) input device. An example provides an input device comprising a body, a sensor system configured to sense motion of the input device with six DOF, a communication interface and a controller. The controller is configured to transmit output based on sensor data from the sensor system for use in controlling an application in a first mode in which each of the six degrees-of-freedom is used as input, the application being controlled in the first mode in response to detecting a first condition, and transmit output based on sensor data from the sensor system for use in controlling the application in a second mode in which one or more of the six degrees-of-freedom is not used as input, the application being controlled in the second mode in response to detecting a second condition.

Abstract: A head-mounted display device may display a holographic element with a portable control device. Image data of a physical environment including the control device may be received and used to generate a three dimensional model of at least a portion of the environment. Using position information of the control device, a holographic element is displayed with the control device. Using the position information, it is determined that the control device is within a predetermined proximity of either a holographic object or a physical object. Based on determining that the control device is within the predetermined proximity, the displayed holographic element is modified.

Abstract: A headband is disclosed for supporting a head-worn device with a comfortable and non-intrusive fit. In examples, the headband includes first and second loops supporting the headband on a wearer's head, and an adjustment mechanism for tightening the first and second loops. The adjustment mechanism tightens down the loops to a desired fit, at which point further actuation of the adjustment mechanism has no effect on the loops.

Abstract: Devices for attaching earpiece to a user's ear are described herein. In one embodiment, an earpiece that is removably attachable to an ear of a user can include a housing that has a proximal end portion and a distal end portion. A transducer may be positioned, for example, at the proximal portion of the housing, and a retention member can be elastically coupled to the distal portion of the housing. The retention member and the housing can be configured to compress a portion of the user's ear therebetween in a manner that positions the proximal end portion of the housing in a vestibule of the ear adjacent an entrance to the auditory canal of the user's ear when the earpiece is attached to the user's ear.

Abstract: A head-worn assembly is disclosed including a head-worn device supported on a headband. The headband may include a first loop positioned around the head, and possibly a second loop affixed to the first loop and positioned over the head. Weight distribution and comfort of the head-worn assembly may be optimized by mounting the head-worn device at an approximate center (front to back) of the headband, and further balancing the weight of the head-worn device (front to back) over the mounting point. The weight distribution and comfort of the head-worn assembly may be further optimized by providing several user-customizable adjustments to the head-worn assembly.

Abstract: A head-mounted display device may display a holographic element with a portable control device. Image data of a physical environment including the control device may be received and used to generate a three dimensional model of at least a portion of the environment. Using position information of the control device, a holographic element is displayed with the control device. Using the position information, it is determined that the control device is within a predetermined proximity of either a holographic object or a physical object. Based on determining that the control device is within the predetermined proximity, the displayed holographic element is modified.

Abstract: A mixed reality system may comprise a head-mounted display (HMD) device with a location sensor from which the HMD device determines a location of the location sensor in space and a base station mounted a predetermined offset from the location sensor and configured to emit an electromagnetic field (EMF). An EMF sensor affixed to an object may be configured to sense a strength of the EMF. The HMD device may determine a location of the EMF sensor relative to the base station based on the sensed strength and determine a location of the EMF sensor in space based on the relative location, the predetermined offset, and the location of the location sensor in space. In some aspects, the HMD device may comprise a see-through display configured to display augmented reality images and overlay a hologram that corresponds to the location of the EMF sensor in space over time.