Systems and methods for operating a vehicle using a smart shoe device. For example, some embodiments of the application may monitor operation of a vehicle system and monitor operation of a smart shoe device. The process may determine that the smart shoe device is within a threshold period of time of performing an future action associated with commanding movement of the vehicle and enable a response by the vehicle based on the future action.

A protective footwear includes a foot engagement portion, a lower-leg engagement portion, and a cable closure system. The lower-leg engagement portion defines a cable end interface and a buckle interface. The cable closure system is configured to facilitate at least partially securing the protective footwear to a leg of a wearer. The cable closure system includes a buckle assembly configured to releasably couple to the buckle interface and a cable extending between the cable end interface and the buckle assembly. The cable has a first end coupled to the cable end interface and an opposing second end coupled to the buckle assembly.

A protective footwear includes a foot engagement portion, a lower-leg engagement portion, and a cable closure system. The lower-leg engagement portion defines a cable end interface and a buckle interface. The cable closure system is configured to facilitate at least partially securing the protective footwear to a leg of a wearer. The cable closure system includes a buckle assembly configured to releasably couple to the buckle interface and a cable extending between the cable end interface and the buckle assembly. The cable has a first end coupled to the cable end interface and an opposing second end coupled to the buckle assembly.

A pair of electronic shoe insoles aids an individual with peripheral neuropathy in walking without falling, despite the user having little or no sensation in her feet. Each insole uses a number of pressure sensors and provides various forms of biofeedback to the user such as auditory, haptic, and vibratory feedback which corresponds to the position of the user's foot on the ground. Vibration feedback is provided through vibration motors disposed against the soles of the user's feet at selected locations which correspond to locations of pressure sensors. This allows for direct neural stimulation of the sole of the foot at three biomechanically appropriate locations. Auditory and haptic feedback are provided through auxiliary devices that the user wears on appropriate parts of the body. Biofeedback transmitted through these mechanisms would correspond to change in foot position as detected by the pressure sensors. The shoe insoles may provide one or more of these forms of feedback, and other types of feedback may be provided by output devices as well. An embedded microcontroller wirelessly connected to a computer, tablet or phone permits an individual to monitor gait performance and to adjust numerous parameters of this biofeedback mechanism, such as time delays and strength of vibration or audio feedback. The device may also include a driving mode in which small variations of pressure on the gas pedal would be conveyed to the user through haptic and auditory feedback, thereby allowing the user to drive.

A shoe includes a shoe upper and a sole coupled to the shoe upper and that includes a lower surface comprising a first material. A heel insert is embedded in a heel portion of the sole and includes a second material having a coefficient of friction less than a coefficient of friction of the first material, such as less than half. The heel insert may include projections made of a low-friction material such as nylon or UHMW whereas the sole is made from rubber. The projections may be embedded in a frame that seats within an inverted U-shaped channel defined by the sole.

A protective footwear includes a foot engagement portion, a lower-leg engagement portion, and a cable closure system. The lower-leg engagement portion defines a cable end interface and a buckle interface. The cable closure system is configured to facilitate at least partially securing the protective footwear to a leg of a wearer. The cable closure system includes a buckle assembly configured to releasably couple to the buckle interface and a cable extending between the cable end interface and the buckle assembly. The cable has a first end coupled to the cable end interface and an opposing second end coupled to the buckle assembly.

The disclosure as detailed herein is in the technical field of Footwear accessories. The invention is a cushion that can be reversibly attached to a car's components. The advantage is that it is removable and easy to clean and provides a cushioned barrier to protect a person's heel/shoe and a car's components. The Shoe Protector Device allows a person to protect the heel of the person's shoe by forming a protective layer between the heel and floor board and/or floor mat. It also allows for protection from damage to the floor mats and/or floor board. It prevents uneven wear on shoes that may be expensive to fix. Because the Shoe Protector Device is removable, it is easy to clean in case of dirt or moisture accumulation. It provides cushioning for a person's heel to prevent pain or discomfort when driving long distances.

A shoe includes a shoe upper and a sole coupled to the shoe upper and that includes a lower surface comprising a first material. A heel insert is embedded in a heel portion of the sole and includes a second material having a coefficient of friction less than a coefficient of friction of the first material, such as less than half. The heel insert may include projections made of a low-friction material such as nylon or UHMW whereas the sole is made from rubber. The projections may be embedded in a frame that seats within an inverted U-shaped channel defined by the sole.

A heel guard for guarding a heel of a shoe includes a barrier having a base wall and a sidewall. The sidewall is coupled to and extends upwardly from the base wall. The sidewall also extends along a perimeter of the base wall and has a U-shape wherein a concave surface of the sidewall is configured to abut and extend around the heel of the shoe. The barrier is configured to be positionable to support the shoe over a floor surface. A clip is coupled to a top edge of the sidewall and extends from the sidewall over and toward the base wall. The clip is configured to extend into an opening of the shoe when the barrier is used to support the shoe to retain the sidewall against the heel.

A device for protecting a heel of a shoe includes a body including an upper end and a lower end, a flexible material positioned along a portion of an outer edge of the body, and an attachment mechanism positioned at the upper end of the body.