An insole for controlling and adjusting the temperature of the foot. The insole includes a first heat conductive layer made of fabric, a second heat insulating layer comprising a Peltier cell. The Peltier cell includes a first surface and has a predetermined polarity such that, when the Peltier cell is on, the first surface is heated or cooled. A third heat dissipating layer includes an accelerometer and a logic control unit connected to the accelerometer and to the Peltier cell. The insole further includes a first flexible printed circuit configured to measure the temperature of the foot, through at least a first temperature sensor and the temperature of the first surface of the Peltier cell, through a further first temperature sensor.

A massaging boot assembly for massaging a foot includes a boot that may be worn on a foot. A massage unit is coupled to the boot and the massage unit selectively massages the foot when the boot is worn. The massage unit is selectively turned on and off. A heating unit is coupled to the boot such that the heating unit is in thermal communication with the boot. The heating unit is selectively turned on to selectively heat the foot thereby enhancing therapeutic relief of the foot.

An insole with heat generating system is disclosed, which comprises an insole, a piezoelectric module disposed inside the insole and electrically connected with each other to form an electrical circuit, two flexible conductive strips having a first conductive copper piece and a second conductive copper piece disposed thereon, and at least one resistive heating chip. Wherein the piezoelectric module generates the electrical energy through stepping on the insole, and then turns into the heat energy through the resistive heating chip, thereby generating a temperature for the insole, so the insole with heat generating system can adjust the temperature appropriately, its safety is high, most importantly, the invention does not need to add the battery to generate heat.

A wearable step-counting shoe includes a shoe body and a pedometer. The shoe body includes a shoe sole having opposite inner and outer sides, and a groove surface defining amounting groove. The pedometer is removably disposed in the mounting groove and includes a pedometer body having opposite first and second faces and configured to detect and record the number of steps taken by a user, and a screen disposed on the second face and configured to display the detected number of steps. An engaging unit is provided to fix the pedometer on the shoe body, and includes a first engaging portion provided on the groove surface, and a second engaging portion provided on the pedometer and releasably engageable with the first engaging portion.

An indicator for a heated article of footwear that includes an outer shell and a removable inner liner is described. The inner liner includes a heating system with an indicator disposed on a forefoot region of the inner liner. The heating system is integrated within the inner liner and is removable with the inner liner from the outer shell. A viewing window is disposed on the outer shell at a location corresponding to the indicator located on the inner liner. With this arrangement, the status condition of the heating system on the inner liner may be communicated to a wearer of the article through the viewing window from within the interior of the article.

A heated article comprises a circuit board; one or more batteries electrically connected to the circuit board; a flexible heating element electrically connected to the circuit board; a control switch electrically connected to the circuit board and configured to selectively adjust the heating element; and circuitry configured to charge the one or more batteries.

Provided are a smart shoe, a smart device and a method for switching functional area. The smart shoe includes a shoe body and a smart device provided on a surface of the shoe body. The smart device includes a processing unit, a locating unit, a communication unit, a solar energy receiving unit and a power supply unit. The locating unit is configured to acquire current position information of the smart shoe and send it to the processing unit. The processing unit sends the received position information to a user terminal or a remote server via the communication unit. The solar energy receiving unit is configured to receive solar energy and converting it into electrical energy which is transferred to the power supply unit. The power supply unit is connected with individual functional units of the smart device to supply the electrical energy to the smart device.

A shoe, and a method for tying such a shoe, in particular to a sports shoe, having a sole and a shoe upper, wherein the shoe upper has a first material section which at least partially extends around the foot of the wearer of the shoe. To enable the tying of the shoe on the foot of the wearer in a comfortable manner a second material section is arranged on the outside of the first material section which second material section at least partially covers the first material section, wherein the second material section is a plastic material having a shape memory effect.

A wearable, portable, self-contained refrigeration/cooling garment may effectively convert the energy of human movement into heat flux. The heat flux can then used to actively control the temperature of the human body or of part of it. In one example of the present disclosure, the garment is a type of footwear powered by the wearer's ambulation.

An intelligent temperature controller for shoes includes a master chip, a heating unit, a temperature detecting unit detecting a current temperature of the shoes, a power source and a charging circuit connected with the power source, wherein the master chip is respectively and electrically connected with the heating unit, the temperature detecting unit and the power source, wherein the master chip controls the power source to supply power to the heating unit, wherein the master chip is communicated with an electric device to control the temperature of the shoes and provides operating states feedback to the electric device.