An air-moving appliance includes a body defining a cavity, an inlet for airflow to enter the cavity, and an outlet for the airflow to exit the cavity. The air-moving appliance also includes an attachment configured to connect to the body in flow communication with at least one of the inlet and the outlet. The air-moving appliance further includes a grip feature configured to extend between and contact the attachment and the body when the attachment is connected to the body. The grip feature is configured to provide an interference fit between the attachment and the body and resist movement of the attachment relative to the body when the attachment is connected to the body.

The present invention provides methods and systems for a portable modular drying device that includes a distributing manifold for receiving a blower device that distributes air through the device, and at least one drying manifold having a first end, a second end, and at least one opening between the first end and the second end for distributing the drying air selectively secured to the distributing manifold. The device further includes at least one drying hose or glove tube selectively secured to the at least one opening of the at least one drying manifold.

Embodiments of an air flow generator outlet concentrator are described. The air flow generator outlet concentrator may change the direction or pressure/velocity of air exiting an air flow generator, such has a hair dryer. Other embodiments may be described and claimed.

An embodiment of the hair styling attachment can include a top portion and a bottom portion. The top portion can include a plurality of projections. Each projection in the plurality of projections can extend away from the top portion. Each projection can terminate at an apex. In addition, at least one of the projections comprises a substrate and a heat conductive material, where the heat conductive material is in the groove of the projections. Further, bottom portion can mechanically couple to the top portion and configured to engage at least a portion of a hair dryer.

A dryer includes a hollow casing, a fan disposed inside the casing so as to cause air to be introduced into the casing and to be discharged therefrom, a heater disposed inside the casing to heat the air introduced into the casing by the fan, and a discharge tube including an inlet into which the air is introduced, and an outlet from which the air is discharged. The fan includes a first fan and a second fan, which rotate in opposite directions about an imaginary axis shared by the first and second fans. A discharge amount or a discharge rate can be controlled in a stepwise manner. The discharge tube is disposed inside the casing so as to be rotated in at least one direction, thereby diffusely discharging drying air to a region desired to be dried.

A dryer includes a hollow casing having an open front, a fan configured to introduce air into the casing and blow the air, a heater configured to heat the air introduced into the casing, a discharge tube disposed at a downstream side of the fan to be thereby rotatable inside the casing, and having an air inlet formed at a rear and an air outlet formed at a front, a motor configured to generate power for driving the discharge tube, and having a rotation shaft, and a connector connected to the rotation shaft so as to enable the discharge tube to be rotated about a first axial line of the rotation shaft, and connected to the discharge tube so as to enable the discharge tube to be rotated about a second axial line forming a predetermined angle relative to the first axial line.

An attachment for a hair dryer includes a first end configured to selectively connect to a body of the hair dryer, and a second end spaced from the first end. The second end includes at least one outlet that is an elongate slot. The attachment also includes prongs extending from the second end and configured to engage hair, a body defining a passage for airflow between the first end and the second end, and a connector configured to extend into a central passage defined by the body of the hair dryer and connect the first end of the attachment to the body of the hair dryer. The connector includes a wall extending along an axis and forming an elongate cylinder that corresponds to the shape of the central passage.

A hairdryer including: a handle; a body comprising a duct extending within the body; a fluid flow path extending through the duct from a fluid inlet through which a fluid flow enters the hairdryer to a fluid outlet for emitting the fluid flow from a front end of the body; a primary fluid flow path extending at least partially through the body from a primary fluid inlet through which a primary fluid flow enters the hairdryer to an annular primary fluid outlet at a front end of the body; a fan unit for drawing the primary fluid flow through the primary fluid inlet; and an attachment for adjusting at least one parameter of fluid emitted from the hairdryer, the attachment being attachable to the hairdryer so that the attachment protrudes from the front end of the body, wherein the attachment is configured to inhibit the generation of the fluid flow.

A carbon formed body covers an outlet of a dryer. The carbon formed body is formed into a disc made from isotropic high-density graphite, and elongated holes are provided along a spiral line so as to penetrate through the disc. Hence, the opening areas of the carbon formed body can be extended while preventing reduction in the strength of the carbon formed body. Therefore, when the dryer that includes the carbon formed body attached to the outlet is in use, a smaller pressure loss is caused at the carbon formed body and the heat accumulation phenomenon is prevented. Furthermore, breakage of carbon formed bodies is inhibited at the time of manufacturing.

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.