A foot force detection system includes first and second shoe force detection units. The first shoe force detection unit includes pressure sensors, a processing module, and a communication unit. The pressure sensors are operably coupled to produce first force data. The processing module is operably coupled to produce a first digital representation of the first force data. The second shoe force detection unit includes its own pressure sensors, a processing module, and a communication unit. The first and second shoe force detection units communicate with each other via the communication units.

A foot force detection system includes first and second shoe force detection units. The first shoe force detection unit includes pressure sensors, a processing module, and a communication unit. The pressure sensors are operably coupled to produce first force data. The processing module is operably coupled to produce a first digital representation of the first force data. The second shoe force detection unit includes its own pressure sensors, a processing module, and a communication unit. The first and second shoe force detection units communicate with each other via the communication units.

A method includes determining, by a processing module of a foot force detection system, an athletic mode. The method further includes, when the athletic mode is active, determining, by the processing module, an athletic burst mode. The method further includes determining, by the processing module, a sampling rate for the foot force detection system based on the athletic burst mode for sampling foot force data.

A wearable foot controller for a surgical instrument may include a body configured to be worn on a foot and including a heel portion and a ball portion on an opposite end of the body from the heel portion, a heel pressure sensor, a ball pressure sensor, a heel movement sensor, a ball movement sensor, and a processor. The processor may be configured to detect activation of the heel pressure sensor and generate control data for the surgical instrument based upon the ball movement sensor when the heel pressure sensor is activated using the processor, and detect activation of the ball pressure sensor and generate control data for the surgical instrument based upon the heel movement sensor when the ball pressure sensor is activated using the processor. The processor may also be configured to communicate the control data from the processor to the surgical instrument via a communications link.

Provided is an insole-type electronic device that has high communication performance and high reliability. This insole-type electronic device comprises an insole body, an extension part, a first electronic module, a second electronic module, and a wire. The insole body is a sheet-like member placed on the sole of a shoe. The extension part is a sheet-like member which is connected to the insole body and with which the instep of a foot is wrapped from above when the electronic device is worn on the foot. The first electronic module is an electronic circuit embedded in the insole body. The second electronic module is an electronic circuit that is embedded in the extension part and enables at least some of the communication functions. The wire electrically connects the first electronic module and the second electronic module.

Provided is an insole-type electronic device that has high communication performance and high reliability. This insole-type electronic device comprises an insole body, an extension part, a first electronic module, a second electronic module, and a wire. The insole body is a sheet-like member placed on the sole of a shoe. The extension part is a sheet-like member which is connected to the insole body and with which the instep of a foot is wrapped from above when the electronic device is worn on the foot. The first electronic module is an electronic circuit embedded in the insole body. The second electronic module is an electronic circuit that is embedded in the extension part and enables at least some of the communication functions. The wire electrically connects the first electronic module and the second electronic module.

Aspects of the present disclosure describe systems, methods, and structures that scavenge mechanical energy to provide electrical energy to a wearable, where the mechanical energy is scavenged by a bending-strain-based transducer that includes a non-resonant energy harvester. By employing a non-resonant energy harvester that operates in bending mode, more electrical energy can be generated that possible with prior-art energy harvesters. In some embodiments the bending-strain-based transducer also includes a sensor and/or a haptic device. Some transducers in accordance with the present disclosure comprise a piezoelectric layer comprising a low-K piezoelectric material, such as aluminum nitride, which enables generation of higher voltage and power/energy output and/or a thinner transducer. As a result, transducers in accordance with the present disclosure can be included in wearables for which large transducer thickness would be problematic, such as sole members (e.g., shoe insoles, midsoles or outsoles), garments, bras, handbags, backpacks, and the like.

An interactive visual display platform including low power wearable satellite accessories for identifying and interfacing with users. A visual display sensing surface generates graphical images according to objects detected proximate to the surface. Three dimensional gaming upon a two dimensional surface by the creation of environments according to a user's physical movements.

Embodiments include a footwear device for controlling an electronic device, the footwear device including a toe portion, a heel portion, and a sole portion defined along a bottom portion of the footwear device between the toe and heel portion. The device further including one or more sensors incorporated with the sole portion and configured to detect a movement of the footwear device. The device further includes a controller configured to store a footwear action database comprising footwear actions respectively assigned to input control actions of the electronic device. receive the output signal of the sensors, identify a corresponding input control action using the footwear action database, and generate a control signal based on the input control action. The device further includes a communication module to transmit a control signal to a game controller such that the movement of the footwear device causes the input control action of the electronic device.

An immobility system for a free-fall environment includes an immobility device including at least one suction cup configured to engage the immobility device to a surface, and a valve that, when activated, results in release of the at least one suction cup from engagement with the surface. A remote controller is spaced apart from the valve and is configured to selectably transmit an activation signal to the valve. An immobility device includes at least one suction cup configured to engage the immobility device to a surface, and a valve that, when activated, results in release of the at least one suction cup from engagement with the surface. A receiver at the device is configured to receive an activation signal and activate the valve.