摘要:
An anti-slip footwear that can be used with an omnidirectional locomotion system or other virtual reality (VR) environment technology includes at least a sole layer and a rotatable traction portion. The sole layer includes an upper surface and a lower surface, wherein the lower surface includes one or more friction reducing elements having a first coefficient of friction with a platform of an omnidirectional treadmill. The rotatable traction portion is rotatably coupled to the lower surface of the sole layer and has a first face and a second face opposite from the first face. The first face includes one or more friction pads each having a second coefficient of friction with the platform of the omnidirectional treadmill that is greater than the first coefficient of friction. The rotatable traction portion can be rotated to a first, low-friction position in which the second face makes contact with a ground surface. The rotatable traction portion can be rotated to a second, high-friction position in which the one or more friction pads make contact with the ground surface.
摘要:
Embodiments herein describe techniques for operating an omnidirectional treadmill, the techniques include receiving VR (virtual reality) topographical information comprising a VR environment, and displaying the VR environment to a user wearing a headset. VR topographical information includes information about VR elements in front of the user in the VR environment relative to a facing direction of the user in the VR environment. The method includes sending topographical signals to active elements in an omnidirectional treadmill based upon the VR topographical information where the omnidirectional treadmill permits the user to move along at least two perpendicular directions of motion on a surface of the omnidirectional treadmill. The techniques include activating the active elements, based upon the VR topographical signals, to physically simulate the VR elements in the VR topographical information on the surface by at least one of expanding or contracting the active elements.
摘要:
A treadmill having a belt assembly allows a user the walk or run in any direction. A single helically wound belt over a flattened torus is powered by two independent drive systems. The drive systems are controlled by a combination of infrared cameras and a physical harness system.
摘要:
A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.
摘要:
A second embodiment of the present invention is an exercise device incorporating a treadmill platform and treadmill podium, whereby the user may walk/run on the treadmill, not only in the forward direction, but also in the side-to-side and backwards directions described above, while still facing the podium. This embodiment of the present invention provides a treadmill having a podium that can be adjusted with respect to the platform, so that regardless of the direction of travel in which the user is traveling on the platform (forward, side-to-side, or backwards), the user will always be facing the podium. This is accomplished by providing a pivoting podium element that pivots with respect to the platform.
摘要:
A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements and a heating/refrigeration layer formed over the base layer, and a top layer formed over the plurality of pressure-sensing elements. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.
摘要:
A virtual reality system transposes a user's position and movement in real space to virtual space. The virtual reality system includes a locomotion interface that outputs signals indicative of a user's position in real space. The locomotion interface includes a pressure-sensing mat having a base layer, a plurality of pressure sensing elements formed over the base layer, a top layer formed over the plurality of pressure-sensing elements, and an input interface formed between the base layer and the top layer. The locomotion interface further includes a base around which the pressure sensing mat is disposed, the base structure being fixed in a first position but freely moveable in a second position. The plurality of pressure sensing elements output a signal indicative of pressure applied to the top layer. A virtual reality processor uses the signals output by the locomotion interface to produce an output indicative of the user's position in the virtual space corresponding to the user's position and movement in the real space. A display uses the output from the virtual reality processor to produce an image of the virtual space.
摘要:
An omni-directional treadmill providing a surface with no gaps on which a user can move. The treadmill is generated by arranging a set of looped belts (1, 2, 10), each providing at least one elongated surface, abutting one another along the elongate edges provided by the elongate surface. A group of these elongate surfaces defines the treadmill surface. This set of belts (1, 2, 10) is itself arranged in a loop. Movement of the whole set of belts around this loop moves the treadmill surface in one direction. Simultaneous rotation of all the belts (1, 2, 10) providing the surface provides movement perpendicular to the first direction. Using these two components of motion the treadmill can move in any direction indefinetly. Feedback from user can be used to move the treadmill in the opposite direction to keep user in the same place, in the same way a treadmill maintains user moving in one direction in the same place.
摘要:
The invention provides a motion simulating device which provides the user with full freedom of motion. Ideally, the motion is coordinated with the user's senses. The motion simulating device may include a generally spherical capsule supported by a number of rollers, at least one of which is a multi-directional active roller which frictionally engages the spherical capsule. This causes the spherical capsule to rotate in any desired direction. The capsule may have mounted within it an interactive solid, which may take the form of an omni-directional treadmill for supporting the user.
摘要:
A modular omnidirectional motion platform includes left-rotating speed decomposition units and right-rotating speed decomposition units. Rotational speed of each left-rotating speed decomposition unit is the same. Rotational speed of each right-rotating speed decomposition unit is the same. The left-rotating and right-rotating speed decomposition units are alternately and parallelly arranged. The left-rotating speed decomposition units have different lengths. The right-rotating speed decomposition units have different lengths. Each speed decomposition unit comprises a load-bearing shaft and rotating shafts fixed around the load-bearing shaft. Parallel transmission assemblies are disposed on the load-bearing shafts. Two adjacent left-rotating speed decomposition units are connected by one parallel transmission assembly, and two adjacent right-rotating speed decomposition units are connected by one parallel transmission assembly. The left-rotating speed decomposition units rotate together at a same speed in a same direction. The right-rotating speed decomposition units rotate together at a same speed in a same direction.