A cooling system having a multitude of fluidly coupled cells for receiving a coolant is disclosed. The cooling system is characterized in that the cooling system has a flexible cover that covers the multitude of cells, an air gap between the flexible cover and the cells and an air pump for modifying the air gap.

A cooling system having a multitude of fluidly coupled cells for receiving a coolant is disclosed. The cooling system is characterized in that the cooling system has a flexible cover that covers the multitude of cells, an air gap between the flexible cover and the cells and an air pump for modifying the air gap.

A therapeutic garment for cooling an arm of a user includes a vest that is configured to position over a torso of the user. A sleeve is coupled to and extends from a circumference of an armhole of the vest so that the sleeve is configured to insert the arm of the user. The sleeve comprises an inner layer that is coupled to an outer layer so that the inner layer and the outer layer define an interior space. The interior space extends from a cuff of the sleeve to the armhole. An orifice is positioned in the outer layer proximate to the armhole. The orifice is configured to selectively insert a cooling material into the interior space, positioning the cooling material to cool the arm of the user. A closure is coupled to the outer layer proximate to the orifice and is positioned to selectively and sealably close the orifice.

A therapeutic garment for cooling an arm of a user includes a vest that is configured to position over a torso of the user. A sleeve is coupled to and extends from a circumference of an armhole of the vest so that the sleeve is configured to insert the arm of the user. The sleeve comprises an inner layer that is coupled to an outer layer so that the inner layer and the outer layer define an interior space. The interior space extends from a cuff of the sleeve to the armhole. An orifice is positioned in the outer layer proximate to the armhole. The orifice is configured to selectively insert a cooling material into the interior space, positioning the cooling material to cool the arm of the user. A closure is coupled to the outer layer proximate to the orifice and is positioned to selectively and sealably close the orifice.

A flexible evaporative cooling pad includes a fabric base and at least two rows of fabric chambers affixed to the base. Each row of fabric chambers includes a first hydrogel-containing fabric chamber and an adjacent hydrogel-containing fabric chamber. Stitching isolates the hydrogel in each hydrogel-containing fabric chamber. The cooling pad cools under the legs or the head and neck and promotes the sleep cycle. In addition, the cooling pad may be used to treat headaches, fever, and hot flashes or just to cool down when it is hot. Use of an evaporative cooling pad may reduce the demand for air conditioning.

A flexible evaporative cooling pad includes a fabric base and at least two rows of fabric chambers affixed to the base. Each row of fabric chambers includes a first hydrogel-containing fabric chamber and an adjacent hydrogel-containing fabric chamber. Stitching isolates the hydrogel in each hydrogel-containing fabric chamber. The cooling pad cools under the legs or the head and neck and promotes the sleep cycle. In addition, the cooling pad may be used to treat headaches, fever, and hot flashes or just to cool down when it is hot. Use of an evaporative cooling pad may reduce the demand for air conditioning.

Devices and systems for providing cooling and compression to a site needing hemostasis can include a compression member having a component that can be inflated with one or more fluids, including a coolant solution. Cooling can be initiated and maintained by securing such a device to the site and optionally equipping the device with the coolant solution. A system can include materials for equipping the device with a coolant solution.

Devices and systems for providing cooling and compression to a site needing hemostasis can include a compression member having a component that can be inflated with one or more fluids, including a coolant solution. Cooling can be initiated and maintained by securing such a device to the site and optionally equipping the device with the coolant solution. A system can include materials for equipping the device with a coolant solution.

The present disclosure discloses a textile-type multi-channel high-sensitivity sensing dry electrode plate including a body, a conductive cloth and at least one electrode connection part. The body is a sheet-shaped body. The conductive cloth is arranged on one side of the body. The conductive cloth includes at least one electrode part. The electrode connection part is arranged on the body, through the body and electrically connected to the electrode part of the conductive cloth. Moreover, the electrode connection part transmits currents onto the conductive cloth, so that the electrode part of the conductive cloth generates an effect of an electrotherapy or a thermotherapy, or both the electrotherapy and the thermotherapy simultaneously. The electrode part receives physiological electric signals transmitted by a human body and transmits the physiological electric signals back to an apparatus through the electrode connection part to perform a physiological measurement.

A wearable temperature control assembly includes a temperature control module comprising a contact and a thermal element configured to heat or cool the contact. The assembly also includes a primary strap configured to receive the temperature control module and secure the contact against a subject. The assembly also includes a secondary strap configured to be connected to the primary strap. The secondary strap is configured to provide adjustment of a pressure between the contact and the subject when the primary strap secures the contact to the subject.