A hair heating device is presented, which provides a solution to the problem of allowing a person to move around while heat conditioning one's hair. The heating cap has a heating element embedded in the cap with a layer of heat distributing insulation between the heating element and the head of the user, and a pocket in the cap to hold a battery pack to power the heating element. Generally speaking, the components are configured as follows: the hair cap has the heating element internally attached between a first layer of fabric and a second layer of fabric. The battery pack is detachably connected through an inside pocket of the heating cap to the heating element. The heating cap provides an improved way to heat conditioning hair (which helps produce healthier and shinier hair) while utilizing the heat generated by the battery and allowing the user to move about freely.

A hair heating device is presented, which provides a solution to the problem of allowing a person to move around while heat conditioning one's hair. The heating cap has a heating element embedded in the cap with a layer of heat distributing insulation between the heating element and the head of the user, and a pocket in the cap to hold a battery pack to power the heating element. Generally speaking, the components are configured as follows: the hair cap has the heating element internally attached between a first layer of fabric and a second layer of fabric. The battery pack is detachably connected through an inside pocket of the heating cap to the heating element. The heating cap provides an improved way to heat conditioning hair (which helps produce healthier and shinier hair) while utilizing the heat generated by the battery and allowing the user to move about freely.

A hair cooling and dehumidification apparatus is disclosed. The apparatus comprises a wearable headgear/two-part fitness cap having an inner cavity for receiving a portion of a user's head. The wearable headgear comprises a top/outer insert and a bottom/inner insert. Both inserts comprise a plurality of offsets to maintain an air space gap between them. A pouch holder is provided to secure a desiccant pouch and attached to the top insert to absorb the water vapour from user's hair. The apparatus further comprises a thermo-electric cooling system having a thermoelectric cooler. A small heat sink is attached to a cold side of the thermoelectric cooler whereas a large heat sink is attached to a hot side. Further, a blower unit is attached to the small heat sink which is connected to the cold side of the thermoelectric cooling plate, to circulate the ambient air within the housing over the cold heat sink, to cool the incoming air circulating within the housing, thereby providing cooling and dehumidification of user's hair.

A universal hair scent diffuser having a hollow upper body hingedly affixed to a lower body, the upper body having an open end that houses an interior lining therein made of heat resistant elastomeric material, wherein the lining is graduated at the open end to facilitate a press fit connection to a barrel end of a conventional hand hair dryer. The lower body houses a wire mesh that receives a scented disc thereon. The upper body has a wire mesh located at a lower open end. The scented sheet is placed between both wire meshes when the upper body and lower body are in a latch position. The diffuser is then fitted on the barrel end. The user may then turn on the hair dryer to the desired fan and heat levels and the sheet is vaporized providing a pleasant and refreshing aromatic scent onto the user's hair.

Provided is a system and a heating method for the system, that includes a stand, a heatable headform disposed on a one end of the stand, and a power supply for receiving power via a power connector from an external power source. The heatable headform receives power from the external power source via the power supply. The system further includes a replaceable human hair covering formed of heat conductive material, to be placed over the heatable headform and heated via the heatable headform for performing hair processing or other chemical processing operations thereon, to simulate that of a human being.

A hair heating cap includes a cap body, a fastener belt, a heating element and an adjusting element. The cap body includes a bottom part and a side wall. The bottom part and the side wall form a wearing chamber and a wearing opening. The side wall has a first inner chamber and two first openings. A part of the fastener belt is located in the first inner chamber and the other part of the fastener belt connected extending from the two first openings. The heating element is located in second inner chamber. The adjusting element is able to slide along the fastener belt and to be fixed at two positions adjacent to the two first openings, so as to adjust a length of the part of the fastener belt located in the first inner chamber and fasten the cap body on a user's head.

A hair heating cap includes a cap body, a fastener belt, a heating element and an adjusting element. The cap body includes a bottom part and a side wall. The bottom part and the side wall form a wearing chamber and a wearing opening. The side wall has a first inner chamber and two first openings. A part of the fastener belt is located in the first inner chamber and the other part of the fastener belt connected extending from the two first openings. The heating element is located in second inner chamber. The adjusting element is able to slide along the fastener belt and to be fixed at two positions adjacent to the two first openings, so as to adjust a length of the part of the fastener belt located in the first inner chamber and fasten the cap body on a user's head.

The present invention provides a method for promoting hair growth and improving white hair condition, including supplying hydrogen and oxygen to scalp and hair. The present invention further provides a hear wearable device or a hairdressing apparatus for promoting hair growth and improving white hair condition, including a gas supply device, wherein the gas supply device includes a separation layer, a hydrogen-producing composition wrapped in the separation layer, and an oxygen-producing composition wrapped in the separation layer; the hydrogen-producing composition includes: (1) a metal hydroxide and aluminum powder, or (2) a metal peroxide and aluminum powder, or (3) a hydride, or (4) a combination of the three above; and the oxygen-producing composition includes a metal peroxide.

A hair cooling apparatus includes a wearable headgear. The wearable headgear includes a flexible hose, securely positioned in a zigzag pattern within an interior cavity of the wearable headgear. The flexible hose is configured to circulate air within the interior cavity via a plurality of openings via a connector using a blower unit. The blower unit is securely positioned in a portable carrier and powered using one or more batteries. The blower unit is configured to supply air within the interior cavity of the wearable headgear via the flexible hose. The apparatus produces cooling to the user's hair and protects from the moisture for preserving an opted hairstyle of the user without affecting the lifestyle. The wearable headgear further comprises a moisture absorbing material, configured to effectively absorb the sweat around the user's brow, ear portions, and the neck portion.

A hair dryer, including: a housing provided with an air intake and an air outlet, and having an air passage communicating the air intake with the air outlet; a fan installed in the air passage for discharging air from the air intake to the air outlet; and a water particle generator installed in the housing for providing water particles in a direction towards the air outlet; where an installing cavity for installing the water particle generator is provided in the housing, the installing cavity has a cold air passage connected to the air intake and a particle outlet for releasing the water particles, and when in operation of the hair dryer, cold air flowing through the cold air passage that carries the water particles generated by the water particle generator is blown out of the particle outlet.