A hair care device comprises a body having an output to supply heated air, and at least two different attachments that can be attached to the output of the body. In accordance with the invention, the body comprises a detector for detecting whether one of the attachments is attached to the body, and if so, which attachment is attached to the body, to provide a detection result, and a controller for controlling the supply of heated air in dependence on the detection result. According to the invention, each attachment has at least one magnet at predefined positions at an attachment contact area of the attachment for contacting the body, the at least two attachments having mutually different magnet configurations, and the detector comprises a plurality of Hall effect sensors at predefined positions (.square-solid.) at a body contact area for contacting a selected one of the attachments.

Hairstyling devices include one or more heat transmissive elements having a coating disposed thereon, the coating having ceramic and lava rock incorporated therein. The use of lava rock-containing coatings as described herein results in hairstyling devices with heat transmissive elements exhibiting enhanced heat retention, faster heat recovery, and increased ion emission. Furthermore, lava rock-containing coatings have been found more durable than equivalent heat transmissive element coatings that do not have lava rock incorporated therein.

Hairstyling devices include one or more heat transmissive elements having a coating disposed thereon, the coating having ceramic and lava rock incorporated therein. The use of lava rock-containing coatings as described herein results in hairstyling devices with heat transmissive elements exhibiting enhanced heat retention, faster heat recovery, and increased ion emission. Furthermore, lava rock-containing coatings have been found more durable than equivalent heat transmissive element coatings that do not have lava rock incorporated therein.

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 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 styling appliance is described that includes an airflow unit for generating an airflow, a heating unit for heating the airflow, and a control unit for controlling the airflow unit and the heating unit. The control unit controls the airflow unit and the heating unit in a predefined sequence of modes that includes a first mode, a second mode and a third mode. The airflow unit has a different flow rate and/or the heating unit has a different heat setting in each of the modes, and the control unit determines when to transition between modes of the predefined sequence.

A haircare appliance has an air inlet, an air outlet, and an airflow generator for generating an airflow from the air inlet to the air outlet. The air outlet is at least partially defined by movable member. Movement of the movable member varies a cross-sectional area of the air outlet, and the movable member is movable in a radial direction relative to a central axis of the haircare appliance.

A haircare appliance has an air inlet, an air outlet, and an airflow generator for generating an airflow from the air inlet to the air outlet. The air outlet is at least partially defined by movable member. Movement of the movable member varies a cross-sectional area of the air outlet, and the movable member is movable in a radial direction relative to a central axis of the haircare appliance.

A multiple channel diffuser system is disclosed that is designed to conform to the scalp of a user. The system includes a multiple channel diffuser with a first chamber and first diffuser channels. Each first diffuser channel has a proximal portion with a channel inlet and a distal portion with one or more channel outlets. The system also includes a fan, a power source connected to the fan's motor, a switch connected to the power source, a hose with a first and second end, and a housing that retains the power source, fan, and switch. The housing has an inlet opening where the first end of the hose is connected, allowing air from the fan to be discharged into the first chamber of the multiple channel diffuser. The one or more first diffuser channels then distribute the air to at least a portion of the user's scalp.

A multiple channel diffuser system is disclosed that is designed to conform to the scalp of a user. The system includes a multiple channel diffuser with a first chamber and first diffuser channels. Each first diffuser channel has a proximal portion with a channel inlet and a distal portion with one or more channel outlets. The system also includes a fan, a power source connected to the fan's motor, a switch connected to the power source, a hose with a first and second end, and a housing that retains the power source, fan, and switch. The housing has an inlet opening where the first end of the hose is connected, allowing air from the fan to be discharged into the first chamber of the multiple channel diffuser. The one or more first diffuser channels then distribute the air to at least a portion of the user's scalp.