The present invention discloses a breathable and cooling shoe. The shole includes a sole. An exhaust channel is provided on the sole for communicating the interior of the shoe with the external environment. A heat-dissipating component is disposed on the sole, the heat-dissipating component cooperating with the exhaust channel such that, when air inside the shoe is discharged through the exhaust channel to the outside, the heat from the heat-dissipating component is carried away. By incorporating the heat-dissipating component in the exhaust direction, the invention enables faster transfer and discharge of heat from inside the shoe to effectively reducing the internal temperature and providing a more comfortable and cool wearing experience.

A shoe includes a shoe sole and a shoe main body. The shoe sole is configured to be connected to the shoe main body and forms an accommodating space with the shoe main body. The shoe sole includes a supporting member and a supporting insole. The supporting member is provided with a blowing device and a blowing channel. One end of the blowing channel is connected to the blowing device, and the other end is connected to the upper surface of the supporting member. The supporting insole includes an insole surface; an air hole is provided in the insole surface; one end of the air hole is configured to be communicated to the accommodating space; the supporting insole is arranged on the supporting member.

An article of footwear for warm-up and active recovery includes a sole and a light therapy system coupled to the sole. The light therapy system includes a plurality of LEDs, The article of footwear also includes a battery configured to power the light therapy system and control circuitry configured to control the light therapy system. The article of footwear may also include a vibration therapy system that includes a plurality of vibrating motors. The battery may power the vibration therapy system and the control circuitry may power the vibration therapy system.

An adjustment system for a wearable article includes an adjustment element operable to form at least a portion of the wearable article and including a bladder including an interior void and a compressible component disposed within the interior void, and a control module operably coupled to the adjustment element and configured to translate the compressible component between a relaxed state and a constricted state by controlling a volume of fluid within the interior void in response to a condition-responsive parameter.

A protective footwear is provided that selectively attaches to a cleat to at least partially cover the protrusions on the bottom of the cleat and allow an athlete or other person to safely traverse a hard surface like concrete. The protective footwear has a strap system that provides the selective attachment to the cleat, and a pliable inner sole of the protective footwear conforms to the protrusions on the cleat. As a result, the protrusions are protected and do not contact a hard surface like concrete. The athlete or other person is less likely to slip and fall by using the protective footwear among other benefits described herein.

Foot support systems include sole structures, portions of sole structures, drop-in midsole components, insertable sole components (e.g., midsoles or insoles), or the like. The foot support systems may include a foam base member (e.g., made from a relatively thick foam material) and at least one fluid-filled bladder. The fluid-filled bladder(s) may include one or more interior fluid chambers. When multiple interior fluid chambers are present, they may be at substantially the same or different pressures. Additional aspects of this technology relate to articles of footwear that include such foot support systems, such as slides, sandals, and/or other types of footwear. Foot support systems and/or footwear in accordance with some examples of this technology may include systems for applying heating, cooling, and/or vibrational forces to a foot. Additional aspects of this technology relate to methods of applying heating, cooling, and/or vibrational forces to a foot (e.g., for recovery, injury treatment, etc.).

A climate control system for a shoe is provided and includes a pumping assembly, a discharge-end assembly and a suction-end assembly. The pumping assembly is formed in a one-piece structure and includes a first layer structure, a second layer structure and a plurality of supporting structures located inside a chamber formed between the first layer structure and the second layer structure and integrally connected between the first layer structure and the second layer structure. When the pumping assembly is forced to be resiliently compressed, air inside the pumping assembly is driven to flow toward the discharge-end assembly and then flow out of the discharge-end assembly to an interior of the shoe through a plurality of ventilation openings. When the pumping assembly is released to resiliently recover, ambient air is driven to flow toward the pumping assembly through the suction-end assembly. Besides, a related shoe sole is also provided.