CN214802976U - Hair care hurricane barrel - Google Patents

Abstract

The utility model relates to the field of household appliances, in order to set up the water ion module in column hurricane, especially relate to a hair care hurricane, including the casing subassembly, the inside airflow path that restricts of casing subassembly, airflow path's upper reaches have the air current entry that supplies the air current to get into, and airflow path's low reaches have the air current export of exhaust air current, be equipped with in the casing subassembly and be used for making the air current get into the fan unit inside the casing subassembly from the air current entry, in its characteristics, still include the water ion module that is used for forming water ion, be equipped with in the casing subassembly and be used for holding the accommodation space of water ion module, the accommodation space has the water ion export of the environment of intercommunication outside; the shell assembly is designed in a columnar shape, the maximum radial effective size of the shell assembly is D, and D is more than or equal to 20mm and less than or equal to 60 mm; the accommodating space is located at an uppermost end of the housing assembly in a direction in which the air flow in the air flow path flows.

Description

Hair care hurricane barrel

Technical Field

The utility model relates to the field of household appliances, especially, relate to a hair care hurricane cylinder.

Background

Most hair-dryer on the present market comprises handle and aircraft nose two parts, and handle and aircraft nose are connected, wholly are the T style of calligraphy, because the hair-dryer need bear the great spare part of occupation installation space such as fan unit, heating element, the whole volume of hair-dryer is bigger than normal, occupies great storage space. The airflow inlet is arranged on the handle or the handpiece, and the airflow outlet is arranged at the end part of the handpiece.

To the hairdryer of above structure, the inside spare part of hair-dryer generally distributes in handle and aircraft nose, because partial spare part can set up in the handle for the aircraft nose is inside can obtain relatively great installation space, and water ion module need occupy certain space and install, and general water ion module sets up inside the aircraft nose. The existing blower with the T-shaped structure has larger internal space, so that the mounting position of the water ion module can be freely designed according to the requirement.

SUMMERY OF THE UTILITY MODEL

The utility model provides a column hair care hurricane section of thick bamboo solves and sets up the purpose of water ion module in order to reach the hair care in less space.

A hair care hurricane comprising a housing assembly defining an air flow path therein, the air flow path having an air flow inlet upstream for entry of an air flow and an air flow outlet downstream for exit of the air flow, a fan unit disposed within the housing assembly for passing the air flow from the air flow inlet into the interior of the housing assembly,

the water ion generator is characterized by also comprising a water ion module for forming water ions, wherein an accommodating space for accommodating the water ion module is arranged in the shell assembly, and the accommodating space is provided with a water ion outlet communicated with the external environment;

the shell assembly is designed in a columnar shape, the maximum radial effective size of the shell assembly is D, and D is more than or equal to 20mm and less than or equal to 60 mm;

the accommodating space is located at an uppermost end of the housing assembly in a direction in which the air flow in the air flow path flows.

The advantage is, be the housing assembly of column design, combine housing assembly's radial maximum effective size 20mm to be less than or equal to D and be less than or equal to 60mm, the hair-dryer of interior space than traditional T font design (handle plus aircraft nose structure) is very little, and water ion module is also a relatively great subassembly, how make full use of housing assembly's interior space, and reduce the influence to airflow channel's space, the problem that needs to solve, set up uppermost, make can have great space installation water ion subassembly, and do not influence the amount of wind through airflow channel, guarantee that airflow in the airflow channel is in time followed the air outlet and is discharged. Additionally, the utility model provides a hurricane cylinder, the volume is less, and it is little to occupy storage space.

Preferably, the water ion outlet is arranged on the side wall of the shell assembly, the water ion module comprises a condensation rod for forming condensed water and a discharge electrode group for discharging the condensation rod to form water ions, and the condensation rod faces the water ion outlet.

The condensing rod is closer to the external environment through the technical scheme, so that the condensing rod can condense moisture in air quickly, and water vapor in the blowing process can enter the accommodating space through the water ion outlet and is attached to the condensing rod, the efficiency of condensing water drops on the condensing rod is improved, and the generation efficiency of water ions is improved; and the formed water ions can be discharged from the water ion outlet quickly through the shortest path, and the loss of the water ions in the discharging process is reduced.

Preferably, the condensation bar is approximately perpendicular to the axis of the housing assembly.

The advantages are that the approximately vertical condition comprises the condition that the condensation rod is vertical to the axis of the shell assembly and the condition that the angle error between the condensation rod and the axis of the shell assembly is plus or minus 10 degrees; the arrangement mode enables the installation of the water ion module to be matched with the inner space of the cylindrical shell assembly as much as possible, the volume of the accommodating space is relatively small, the installation space of other core structures is not occupied, the technical performance is not affected, and the shell assembly with small size or volume can be obtained.

Preferably, the axis of the water ion module is approximately perpendicular to the axis of the housing assembly.

The advantage is that the approximate perpendicularity includes the perpendicular condition and the condition that the angle error between the two is plus or minus 10 degrees; the arrangement mode is to ensure that the installation of the water ion module is matched with the inner space of the cylindrical shell assembly as much as possible, the volume of the accommodating space is relatively small, the installation space of other core structures is not occupied, the technical performance is not influenced, and the shell assembly with smaller size or volume can be obtained.

Preferably, the airflow outlet is located on the side wall of the housing assembly and is arranged in the same direction as the water ion outlet, and the water ion outlet is located above the airflow outlet.

The benefit is, combines the design of column casing subassembly through this technical scheme, in the use, compares in traditional T type hair-dryer, has overcome the axial distance overlength of aircraft nose among the prior art, makes user's arm apart from the hair distance great, and the arm lasts the drawback of power, and the distance between arm and the hair is shortened to this technical scheme's setting mode, reduces the fatigue degree of blowing the hair in-process, accords with human engineering. The airflow outlet and the water ion outlet are positioned on the same side, so that moisture and negative ions are supplied to the hair while the hair is dried, the phenomena of frizziness and dryness after the hair is dried are reduced, and the hair is glossy and smooth. The water ion outlet is positioned above the airflow outlet, so that the structural design complexity of the internal airflow passage is reduced.

Preferably, the air flow path includes a cold air flow path and a hot air flow path, a heating unit for heating the air flow is disposed in the hot air flow path, the external air flow enters the air flow path through the air flow inlet under the action of the fan unit, and enters the cold air flow path and the hot air flow path downstream of the fan unit and is discharged from the water ion outlet and the air flow outlet respectively, the water ion module is disposed in the cold air flow path, the accommodating space is formed as at least a part of the cold air flow path, and the cold air flow path and the hot air flow path are thermally isolated.

The water ion generator has the advantages that through the design of the cold air flow passage, water ions generated by the water ion module are rapidly discharged from the water ion outlet, and the efficiency of replenishing water to hair is improved; the cold air flow path is thermally isolated from the hot air flow path to prevent hot air from entering the receiving space, making it difficult to form water ions.

Preferably, the receiving space is located above the hot gas flow path.

The advantage is, hot gas flow path and accommodation space are two independent spaces, and the hot gas flow is difficult to enter into accommodation space, makes the stable and reliable formation water ion of water ion module.

Preferably, the housing assembly includes an outer housing and an inner housing located in the outer housing, the cold airflow path is located between the inner housing and the outer housing, the hot airflow path is formed in the inner housing, and the accommodating space is located between the inner housing and the outer housing.

Preferably, the inner casing includes a first inner casing for fixing the fan unit, and a second inner casing located above and connected to the first inner casing, the second inner casing is provided with an airflow reversing structure for reversing the airflow flowing along the axial direction of the casing assembly and discharging the airflow from the airflow outlet, the accommodating space is located between the second inner casing and the outer casing, and the accommodating space is located above the airflow reversing structure.

The air flow reversing structure has the advantages that through the design of the air flow reversing structure, the wind resistance is reduced, and the air flow is guided by the air flow reversing structure to change the direction and is discharged from the air flow outlet; through this technical scheme, the assembly of the spare part in the inner shell of still being convenient for, abundant, reasonable utilization casing assembly's inner space to obtain the casing assembly of less volume, can realize the installation of water ion module, can construct cold air circulation way, hot air circulation way through the structure of inner shell, shell again.

Preferably, the water ion module further comprises a discharge electrode group, a semiconductor refrigeration piece and a heat dissipation unit which are arranged in the accommodating space and electrically connected with the high-voltage power supply, wherein the refrigeration surface of the semiconductor refrigeration piece is in contact with the condensation rod, the heating surface of the semiconductor refrigeration piece is attached to the heat dissipation unit, and the discharge electrode group discharges to the condensation rod to form water ions.

The water ion module has the advantages that condensed water can be formed on the surface of the condensation rod through the water ion module, and water ions can be obtained; make this technical scheme constitute all parts of water ion module all be located accommodation space, the equipment of the water ion module of being convenient for.

Drawings

Fig. 1 is a schematic structural view of a hurricane drum of the present invention.

Fig. 2 is an exploded view of a hurricane cylinder in accordance with the present invention.

Fig. 3 is a sectional view of the duct structure of the hurricane drum of the present invention.

Fig. 4 is an enlarged view of a portion indicated by a in fig. 3.

Fig. 5 is yet another cross-sectional view of the duct structure of a hurricane drum in accordance with the present invention.

Fig. 6 is an exploded view of the inner wall and the components therein.

Fig. 7 is a schematic structural diagram of the water ion module of the present invention.

Fig. 8 is a schematic view of the radial dimension of the housing assembly of the present invention.

The names of the components identified in the figures are as follows:

1. a housing assembly; 101. an inner wall; 1011. a first inner wall; 1012. a second inner wall; 102. an outer wall; 103. a housing; 2. An airflow inlet; 3. an airflow outlet; 301. a hot air outlet; 302. a water ion outlet; 4. a heating unit; 5. a fan unit; 6. a hot gas flow path; 7. a cold air flow path; 8. a control component; 9. an anti-scald isolation layer; 10. an airflow reversing structure; 1001. an arc-shaped blade; 1002. a partition wall surface; 11. a water ion module; 1101. a condenser rod; 1102. A discharge electrode group; 1103. a semiconductor refrigeration sheet; 1104. a heat dissipation unit; 12. an accommodating space; 13. a cold air inlet; 14. a high voltage power supply; 15. a cylindrical portion.

Detailed Description

The following describes the present invention in detail with reference to the accompanying drawings.

As shown in fig. 1 to 8, a hurricane comprises a housing assembly 1, said housing assembly 1 defining an air flow path therein, said air flow path having an air flow inlet 2 upstream for the air flow to enter, and an air flow outlet 3 downstream for the air flow to exit, said housing assembly 1 having a fan unit 5 disposed therein for the air flow to enter from said air flow inlet 2 into the interior of said housing assembly 1,

the water ion generator further comprises a water ion module 11 for forming water ions, the shell assembly 1 is in a columnar design, an accommodating space 12 for accommodating the water ion module 11 is arranged in the shell assembly 1, and the accommodating space 12 is provided with a water ion outlet 302 communicated with the external environment;

the accommodating space 12 is located at the uppermost end of the housing assembly 1 in the direction in which the airflow in the airflow path flows.

In the above technical solution, all the components constituting the water ion module 11 may be located in the accommodating space 12, or may be partially located in the accommodating space 12.

In the above technical solution, the accommodating space 12 may or may not have an air flow passing through it.

In the foregoing technical solution, the water ion module 11 may generate water ions in different manners, that is, the components of the water ions are different, one manner is that the water ion module 11 includes a condensation rod 1101, a high voltage power supply 14, a semiconductor refrigeration sheet 1103 and a heat dissipation unit 1104, the high voltage power supply 14 is electrically connected to the discharge electrode group 1102, a refrigeration surface of the semiconductor refrigeration sheet 1103 is in contact with the condensation rod 1101, a heating surface of the semiconductor refrigeration sheet 1103 is attached to the heat dissipation unit 1104, and the discharge electrode group 1102 discharges to the condensation rod 1101 to form water ions; it is also possible that the water ion module 11 includes a condensation bar 1101, a high voltage power supply 14, and during the use of the hurricane wind, water molecules or water vapor enter the accommodating space 12 through the water ion outlet 302 during the drying of wet hair, and the discharge electrode group 1102 attached to the condensation bar 1101 discharges to the condensation bar 1101 to form water ions.

Further, the shell component 1 is designed in a columnar shape, the maximum radial effective size of the shell component 1 is D (as shown in fig. 8), and D is more than or equal to 20mm and less than or equal to 60 mm; a hurricane barrel with small volume and small occupied storage space is obtained; when D is less than 20mm, the internal space of the shell component 1 is too small to meet the power requirements of the fan unit 5 and the heating unit 4, so that the drying efficiency and the water ion discharge efficiency are reduced; when D is larger than 60mm, the size of the shell component 1 is too large, so that the shell component is inconvenient to hold and poor in use experience; preferably D =48 mm.

In the present solution, particular emphasis is placed on the arrangement of the water ion module 11 in a cylindrical housing assembly 1 with a limited maximum radial dimension.

Further, as shown in fig. 1, 3, 4, 5, and 7, the water ion outlet 302 is disposed on a side wall of the housing assembly 1, the water ion module 11 includes a condensation rod 1101 for forming condensed water, and a discharge electrode group 1102 for discharging the condensation rod 1101 to form water ions, and the condensation rod 1101 is disposed toward the water ion outlet 302.

Further, as shown in fig. 3 and 4, the condensation bar 1101 is disposed at an angle, preferably an obtuse angle, with respect to the axis of the housing assembly 1, so that a shorter length of the housing assembly 1 can be obtained.

Further, as shown in fig. 3 and 4, the axis of the water ion module 11 is arranged at an angle, preferably an obtuse angle, with the axis of the housing assembly 1, so that a shorter length of the housing assembly 1 can be obtained.

Further, as shown in fig. 1, the airflow outlet 3 is located on a side wall of the housing assembly 1 and is disposed in the same direction as the water ion outlet 302, and the water ion outlet 302 is located above the airflow outlet 3.

Further, as shown in fig. 3, 4 and 5, the airflow path includes a cold airflow path 7 and a hot airflow path 6, the hot airflow path 6 is provided with a heating unit 4 therein for heating airflow, external airflow enters the airflow path through the airflow inlet 2 under the action of the fan unit 5, and enters the cold airflow path 7 and the hot airflow path 6 respectively downstream of the fan unit 5 and is discharged from the water ion outlet 302 and the airflow outlet 3 respectively, the water ion module 11 is provided in the cold airflow path 7, the accommodating space 12 is formed as at least one portion of the cold airflow path 7, and the cold airflow path 7 and the hot airflow path 6 are thermally isolated. The receiving space 12 is discharged from the water ion outlet 302 by the unheated cold air stream carrying water ions.

The volume of the hot air flow passage 6 is larger than that of the cold air flow passage 7, so that heat generated by the heating unit 4 is taken away in time, the hair drying efficiency is improved, the hot spot generation probability can be reduced, and the heating unit 4 can be installed in a larger space, so that the heating unit 4 has higher heating power, and the hair drying speed is further improved. The area of the hot air outlet 301 is larger than that of the water ion outlet 302, air flow formed by the working of the fan unit 5 is mainly or completely used for entering the hot air flow passage 6, the technical scheme is favorable for discharging hot air flow in time, the drying efficiency is improved, and the occurrence probability of the condition that high-temperature air flow is accumulated in the shell assembly 1 and cannot be discharged in time to cause burning of internal parts is reduced as far as possible.

The cold gas flow path 7 is located outside the hot gas flow path 6 and extends along the hot gas flow path 6. The internal space of the shell assembly 1, especially the space in the radial direction, can be fully utilized, and the radial size of the shell assembly 1 is reduced on the premise of not obviously weakening the power of the heating unit 4; the hot air flow raises the temperature of part of the outer surface of the housing assembly 1, making the local outer surface of the housing assembly 1 hotter and with a higher probability that during operation hands may touch the aforementioned hotter local outer surface, thus by this solution the cold air flow path 7 is located outside the hot air flow path 6, reducing the temperature of the local outer surface of the housing assembly 1. Further, in this embodiment, the cold airflow channel 7 is located at one side of the hot airflow channel 6, and the cold airflow channel 7 is disposed opposite to the airflow outlet 3. It will be appreciated that the cold air flow path 7 extends around the hot air flow path 6 and the water ion outlet 302 is located outside the hot air outlet 301.

The flow rate of the air flow in the cold air flow path 7 is smaller than that of the air flow in the hot air flow path 6. The airflow in the hot airflow passage 6 needs to be quickly discharged to take away the heat generated by the heating unit 4, which is beneficial to improving the drying efficiency and reducing the occurrence probability of the condition that the high-temperature airflow is accumulated in the shell assembly 1 and cannot be discharged in time to burn out internal parts as far as possible; the air flow in the cold air flow passage 7 is slowly discharged, which is helpful to form a fluid heat insulation cavity on one hand, and reduces the temperature rise speed of the local surface of the shell assembly 1, thereby obtaining better scald-proof effect; on the other hand, the cold air flow path 7 is provided to reduce the probability of occurrence of hot spots, and to prevent the temperature of the air flow blown out from the hot air outlet 301 from being significantly reduced, thereby avoiding a significant reduction in hair drying efficiency as much as possible.

Further, the accommodating space 12 is located above the hot gas flow path 6.

As shown in fig. 2 to 6, the casing assembly 1 includes an inner wall 101 and an outer wall 102 outside the inner wall 101, the cold air flow path 7 is located between the inner wall 101 and the outer wall 102, the hot air flow path 6 is formed in the inner wall 101, and the accommodating space 12 is located between the inner wall 101 and the outer wall 102.

The inner wall 101 comprises a first inner wall 1011 for fixing the fan unit 5 and a second inner wall 1012 located above and connected to the first inner wall 1011, the second inner wall 1012 is provided with an airflow reversing structure 10, the seven-way reversing structure is used for changing the direction of airflow flowing along the axial direction of the housing assembly 1 and discharging the airflow from the airflow outlet 3, the accommodating space 12 is located between the second inner wall 1012 and the outer wall 102, and the accommodating space 12 is located above the airflow reversing structure 10. Through the arrangement of the airflow reversing structure 10, the wind resistance is reduced, and the loss of the airflow is reduced.

The hurricane barrel further comprises an anti-scald insulation layer 9 and a housing 103, wherein the outer wall 102 and the inner wall 101 are both located in the housing 103, the outer surface of the shell assembly 1 comprises the entire outer surface of the housing 103, the anti-scald insulation layer 9 is located outside the cold airflow passage 7, and the anti-scald insulation layer 9 is located between the outer wall 102 and the housing 103. The anti-scald isolation layer 9 is made of sponge or mica paper and other materials capable of insulating heat, in this example, the anti-scald isolation layer 9 is arranged on the inner wall 101 of the housing 103, and preferably, the anti-scald isolation layer 9 covers the whole inner wall 101 of the housing 103 corresponding to the hot air flow path 6.

In this example, the airflow path includes a hot airflow path 6 and a cold airflow path 7, and the airflow reversing structure 10 reverses the airflow in the cold airflow path 7 and the hot airflow path 6 simultaneously. The air flow in the two air flow passages is reversed through the same structural part, internal structural parts are reduced, the radial blowing size of the shell assembly 1 is reduced, and the shell assembly 1 with smaller size or volume is obtained.

More specifically, the airflow reversing structure 10 includes a plurality of curved blades 1001 spaced along the axial direction of the housing assembly 1 and curved toward the airflow outlet 3, wherein at least one curved blade 1001 simultaneously reverses the airflow in the cold airflow path 7 and the hot airflow path 6. According to the different arrangement modes of the cold air flow passage 7 and the hot air flow passage 6, different arc-shaped blades 1001 participate in reversing the air flow in the cold air flow passage 7 and the hot air flow passage 6 simultaneously, and may be the uppermost arc-shaped blade 1001 or the lowermost arc-shaped blade 1001, in this example, the water ion outlet 302 and the hot air outlet 301 are both located on the side wall of the housing assembly 1, the water ion outlet 302 is located above the hot air outlet 301, and the cold air flow passage 7 passes through the hot air flow passage 6 and is discharged from the water ion outlet 302, so that the arc-shaped blade 1001 located uppermost in this example is used for reversing the air flow in the cold air flow passage 7 and the hot air flow passage 6 simultaneously.

The airflow reversing structure 10 includes a partition wall 1002 extending along the axial direction of the housing assembly 1, and the cold airflow passage 7 and the hot airflow passage 6 are respectively located on two sides of the partition wall 1002. Further, the housing assembly 1 includes an outer wall 102 covering the exterior of the airflow direction changing structure 10, and the cold air flow path 7 is defined by a first surface of the partition wall 1002 and an inner wall 101 of the outer wall 102. The air flow reversing structure 10 further includes a plurality of arc-shaped blades 1001 extending between the hot air outlet 301 and a second surface of the partition wall 1002, the second surface being opposite to the first surface, side walls of the arc-shaped blades 1001 are abutted to the inner wall 101 of the outer wall 102, and the hot air flow path 6 is defined by the arc-shaped blades 1001, the second surface and the inner wall 101 of the outer wall 102. The plurality of arc-shaped vanes 1001 are located on one side of the partition wall 1002.

The housing assembly 1 comprises an inner wall 101 and an outer wall 102 sleeved outside the inner wall 101, the inner wall 101 and the outer wall 102 cooperate to define the airflow path, the airflow reversing structure 10 is formed as a part of the inner wall 101, the heating unit 4 is located between the airflow reversing structure 10 and the fan unit 5, and the fan unit 5 and the heating unit 4 are located in the inner wall 101. The inner wall 101 comprises a first inner wall 1011 and a second inner wall 1012 which are vertically split, the airflow reversing structure 10 is formed on the first inner wall 1011, the fan unit 5 is fixed in the second inner wall 1012, a cold airflow channel is defined by an outer wall 102 surface of the first inner wall 1011 and an inner wall 101 surface of the outer wall 102, and a cold airflow inlet 13 of the cold airflow channel is formed by a gap between the first inner wall 1011 and the second inner wall 1012. The first inner wall 1011 further includes a cylindrical portion 15 located below the airflow direction changing structure 10, and the heating unit 4 is cylindrical and fixed by the cylindrical portion 15.

In this example, as shown in fig. 7, the water ion module 11 includes a condensation rod 1101, a discharge electrode group 1102 electrically connected to the high voltage power supply 14, a semiconductor chilling plate 1103, and a heat dissipation unit 1104, all of which are disposed in the accommodating space 12, a chilling surface of the semiconductor chilling plate 1103 is in contact with the condensation rod 1101, a heating surface of the semiconductor chilling plate 1103 is attached to the heat dissipation unit 1104, and the discharge electrode group 1102 discharges to the condensation rod 1101 to form water ions. Further, the high voltage power supply 14 may be located in the accommodating space 12, or may be located at other positions, in this case, the high voltage power supply 14 is located in the accommodating space 12.

The fan unit 5 comprises a motor and an impeller driven by the motor to rotate, the motor is a three-phase synchronous motor, the rotating speed of the motor is 80000rpm and not more than n and not more than 130000rpm, the power of the heating unit 4 is P, and P is 1000W and not more than 1800W.

Furthermore, a hot air flow space for placing the heating unit 4 is further arranged in the housing assembly 1, and air flows formed by the action of the fan unit 5 respectively enter the hot air flow space and the accommodating space 12.

Further, the volume of the accommodating space 12 is smaller than that of the hot gas flow space. The volume of the accommodating space 12 is larger than that of the water ion module 11.

The housing assembly 1 comprises an inner wall 101 and an outer wall 102 sleeved outside the inner wall 101, the fan unit 5 and the heating unit 4 are positioned in the inner wall 101, the accommodating space 12 is defined by the outer wall 102 surface of the inner wall 101 and the inner wall 101 surface of the outer wall 102, and the hot air flow space is defined by at least the inner wall 101 surface of the inner wall 101. The inner wall 101 and the outer wall 102 abut against each other along the axial direction of the housing assembly 1 to thermally isolate the accommodating space 12 from the hot gas flow space. The inner wall 101 and the outer wall 102 cooperate to define the airflow path, which includes a hot airflow path 6 flowing through the hot airflow space and a cold airflow path 7 flowing through the accommodating space 12, and the cold airflow path 7 is located outside the hot airflow path 6. The inner wall 101 includes a first inner wall 1011 and a second inner wall 1012 which are vertically separated, the fan unit 5 is fixed in the second inner wall 1012, the cold air flow passage 7 is defined by the outer wall 102 of the first inner wall 1011 and the inner wall 101 of the outer wall 102, and the cold air inlet 13 of the cold air flow passage 7 is formed by a gap between the first inner wall 1011 and the second inner wall 1012. The fan unit 5, the heating unit 4 and the water ion module 11 are arranged in sequence along the flowing direction of the air flow in the air flow passage.

The hurricane drum further comprises a control component 8 for controlling the operation thereof, the control component 8 is fixed by the first inner wall 1011, the control component 8 is arranged upstream (referring to the upstream of the air flow direction) of the fan unit 5, and the control component 8 is arranged to overlap with the air flow inlet 2.

The basic principles and the main features of the invention and the advantages of the invention have been shown and described above. It will be understood by those skilled in the art that the present invention is not limited to the above embodiments, and that the foregoing embodiments and descriptions are provided only to illustrate the principles of the present invention without departing from the spirit and scope of the present invention. The scope of the invention is defined by the appended claims and equivalents thereof.

Claims (10)

1. A hair care hurricane comprising a housing assembly defining an air flow path therein, the air flow path having an air flow inlet upstream for entry of an air flow and an air flow outlet downstream for exit of the air flow, a fan unit disposed within the housing assembly for passing the air flow from the air flow inlet into the interior of the housing assembly,

the water ion generator is characterized by further comprising a water ion module for forming water ions, wherein an accommodating space for accommodating the water ion module is arranged in the shell assembly, and the accommodating space is provided with a water ion outlet communicated with the external environment;

the shell assembly is designed in a columnar shape, the maximum radial effective size of the shell assembly is D, and D is more than or equal to 20mm and less than or equal to 60 mm;

the accommodating space is located at an uppermost end of the housing assembly in a direction in which the air flow in the air flow path flows.

2. The hurricane drum of claim 1, wherein the water ion outlet is disposed in a side wall of the housing assembly, and the water ion module comprises a condensation bar for forming condensed water, and a set of discharge electrodes for discharging the condensation bar to form water ions, the condensation bar being disposed toward the water ion outlet.

3. The hurricane drum of claim 2, wherein the condensation bar is disposed at an angle to an axis of the housing assembly.

4. The hurricane drum of claim 2, wherein an axis of the water ion module is disposed at an angle to an axis of the housing assembly.

5. The hurricane drum of claim 2, wherein the airflow outlet is located in a side wall of the housing assembly and is co-directional with the water ion outlet, the water ion outlet being located above the airflow outlet.

6. The hurricane drum of claim 5, wherein the airflow path comprises a cold air flow path and a hot air flow path, a heating element disposed in the hot air flow path for heating the airflow, external airflow entering the airflow path through the airflow inlet under the action of the fan unit and entering the cold air flow path and the hot air flow path downstream of the fan unit and exiting the cold air flow path and the hot air flow path, respectively, the water ion module disposed in the cold air flow path, the containment space formed as at least a portion of the cold air flow path, the cold air flow path and the hot air flow path being thermally isolated.

7. The hurricane drum of claim 6, wherein the receiving space is located above the hot gas flow path.

8. The hurricane drum of claim 6, wherein the housing assembly comprises an outer housing and an inner housing positioned within the outer housing, the cold airflow path being positioned between the inner housing and the outer housing, the hot airflow path being formed within the inner housing, the receiving space being positioned between the inner housing and the outer housing.

9. The hurricane drum of claim 8, wherein the inner housing comprises a first inner housing for securing the fan unit, and a second inner housing positioned above and connected to the first inner housing, the second inner housing having airflow diverting structure thereon for redirecting airflow flowing along the axial direction of the housing assembly out of the airflow outlet, the receiving space being positioned between the second inner housing and the outer housing, and the receiving space being positioned above the airflow diverting structure.

10. The hurricane drum of any one of claims 2 to 9, wherein the water ion module further comprises a discharge electrode group, a semiconductor refrigeration sheet, and a heat dissipation unit, all disposed in the accommodating space and electrically connected to a high voltage power supply, wherein a refrigeration surface of the semiconductor refrigeration sheet is in contact with the condensation rod, a heating surface of the semiconductor refrigeration sheet is attached to the heat dissipation unit, and the discharge electrode group discharges to the condensation rod to form water ions.

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