The wearable training device comprises: a vision-control meeting configured for engaging an individual ‘s head regarding the consumer ‘s eyes, said vision-control assembly containing a lens frame using a translucent area about the user’s eyes and an opaque area enclosing the see-through place at least about a temporal facet, a nasal side, and an inferior side thereof. In some embodiments, the vision-control assembly comprises a lens frame and one or two lens components secured in the lens frame. The system includes a wearable coaching device disclosed herein for being worn by the consumer; one or more imaging device configured for capturing images of the user wearing the wearable training device; also at least one computing device in communication with the one or more imaging apparatus for monitoring the consumer ‘s movement working with the one or more imaging device. By utilizing the herein-disclosed apparatus, methods and systems, patients can learn to properly align their bodies at a stable position when specified motion tasks during rehabilitation.

Thus, in various embodiments, the wearable coaching device 100 may comprise a see-through region (like the transparent regions 132) and a vision-blocking region (like the opaque area 134 along with the sidewall 120). The see-through area is sized and positioned to permit a user to view through the wearable training device 100 within a reduced FOV region about the gaze management 206, along with the vision-blocking region blocks the user’s unwanted FOV regions peripheral to the reduced FOV region. In this embodiment, the sidewall 120 has a suitable rearward-extension depth and also the temple pieces 110 have the right configuration like a person can utilize the wearable training apparatus 100 in a manner very similar to sporting a pair of ordinary eyeglasses and the finish surface 124 of the sidewall 120 easily in contact with the consumer ‘s head blocking the consumer ‘s negative vision.

The central transparent region 132 of each lens element 104 is situated in front of a central vision-area of the eye of the consumer, and may not necessarily be located in the geometrical centre of the lens section 104. In some embodiments, the horizontal length 232 of this reduced FOV might be approximately 100 to approximately 140 (i.e., roughly 50 to about 70 on every temporal side). In some embodiments, 토토사이트 the flat span of the reduced FOV is about 100 to approximately 140 with about 50 to about 70 on each upper side.

Each of the two or one lens elements includes a transparent or see-through area, and the union of the two or one see-through regions form a see-through area configured for restricting an individual ‘s FOV to a reduced FOV that corresponds to some fundamental portion of the human FOV, and also an opaque area for blocking a peripheral section of the user’s FOV. In certain embodiments, the transparent material comprises a lens. In certain embodiments, a training system may include one or more wearable training apparatuses as explained previously, and a couple of imaging devices coupled to one or more computing devices through one or more appropriate wired or wireless links. Alternatively, the opaque region 134 could be rendered evident by gluing, staining, painting, or coupling thereto a layer of sterile material. Unlike the lens elements of traditional glasses that are usually entirely transparent or “see-through” for reducing the congestion of user’s eyesight, each lens element 104 inside this embodiment includes a central aperture or translucent region 132 to get “see-through”, and a surrounding, purposeful opaque area 134 for blocking an individual ‘s peripheral vision. In some embodiments, the headgear comprises a helmet frame having a front opening about the user’s eyes along with a protective fence covering the front gap; and whereas the vision-control assembly is attached between the helmet and the fence.