Adsorption type garment steaming brush head and fabric cleaning machine

Abstract

The utility model relates to the technical field of garment steamer brush head, concretely relates to the brush head of matching adsorption type garment steamer and cloth art cleaning machine, including: host computer, hold module is equipped with the first pipeline and second pipeline of steam and condensate water conduction and can control the opening and closing unit of first pipeline opening and closing, brush head, detachable setting in the front end of holding module, condensate water back suction module, embeddedly installed in the front end of brush head, the suction cavity that can suck back condensate water is opened in condensate water back suction module, steam export module, embeddedly installed in condensate water back suction module and steam export end passes through condensate water back suction module and is set towards the front end of condensate water back suction module, the suction cavity is divided into first chamber and second chamber through steam export module and first chamber communicates with the import end of steam export module, the present application can not only carry out efficient ironing to clothes and can realize the even ring of condensate water.

Description

Technical Field

[0001] This utility model relates to the field of garment steamer brush head technology, specifically to a garment steamer brush head with adsorption and a fabric cleaning machine. Background Technology

[0002] Garment steamers, as common clothing care devices in daily life, typically use an internal steam chamber to spray steam onto the surface of clothing, thus smoothing out wrinkles. Most common garment steamer heads have an array of spray holes in the center to directly spray high-temperature steam onto the clothing. However, this design still has some shortcomings: 1. High-temperature steam easily condenses into water droplets on the surface of the clothing after being sprayed, causing localized dampness or even re-wetting, affecting the ironing effect. 2. When the steam volume is high, water vapor can easily overflow, reducing steaming efficiency and potentially causing discomfort to the clothing or the operator.

[0003] To address the aforementioned issues, some improved brush heads incorporate a circumferential suction channel or suction hole in the steam jet area. This allows for the recovery of condensate or excess moisture from the clothing surface through negative pressure adsorption, reducing condensate residue and improving ironing performance. However, existing suction structures still suffer from the following drawbacks: 1. Lack of coordinated design between the suction and jet structures, resulting in insufficient suction for effective condensate recovery and limited practical effectiveness; 2. Uneven distribution of the adsorption area, leading to areas where condensate cannot be effectively removed, resulting in damp spots on clothing; 3. Lack of dynamic balance between adsorption efficiency and steam jet intensity, causing instability in adsorption performance when steam volume increases, as existing suction structures often fail to achieve synchronized increases. Utility Model Content

[0004] To address the aforementioned issues, an absorbent garment steamer brush head is provided. This invention proposes a garment steamer brush that can not only efficiently iron clothes but also efficiently recover excess condensate and water, thereby solving the technical problems of existing garment steamer brushes that easily cause localized dampness and re-wetting of clothes and have poor condensate absorption.

[0005] To address the problems of existing technologies, this utility model provides a garment steamer brush head with an adsorption type, comprising: a main unit; a holding module, having a first pipe and a second pipe for the conduction of steam and condensate, and an opening / closing unit capable of controlling the opening and closing of the first pipe; a brush head, detachably mounted at the front end of the holding module; a condensate back-suction module, embedded in the front end of the brush head; the condensate back-suction module having an intake chamber capable of drawing back condensate; a steam output module, centrally embedded in the condensate back-suction module with its steam output end passing through the condensate back-suction module and facing the front end of the condensate back-suction module; the intake chamber is divided into a first chamber and a second chamber via the steam output module, and the first chamber is connected to the inlet end of the steam output module.

[0006] Preferably, the condensate back-suction module further includes a water storage box for storing condensate and a suction panel for sucking condensate from the surface of clothing.

[0007] Preferably, the water storage box is further provided with a first through hole and a second through hole that can communicate with the first chamber and the second chamber, and a diversion plate disposed at the first through hole that can divert the introduced steam to both sides of the first chamber.

[0008] Preferably, the steam output module is provided with an installation plate, an output nozzle that can uniformly output steam, and a liquid guide plate that can prevent condensate from entering the suction end of the output nozzle; the output nozzle is fixedly installed horizontally in the condensate return suction module through the installation plate; the liquid guide plate is vertically installed on the rear side of the installation plate and above the suction end of the output nozzle.

[0009] Preferably, the bottom of the mounting plate is further provided with a guide hole that can guide the condensate in the first chamber to the second chamber.

[0010] Fabric cleaning machine, including an absorbent ironing brush head.

[0011] The advantages of this utility model compared to the prior art are: 1. This utility model forms a synergistic structure of steam output and condensate back absorption by setting a steam output module in the middle of the brush head and surrounding it with a condensate back absorption module. This not only enables stable and uniform steam spraying on the surface of clothing to improve ironing efficiency, but also allows the condensate back absorption module to simultaneously extract residual moisture from the clothing during the steam action, avoiding dampness or ironing marks caused by condensate accumulation.

[0012] 2. This invention ensures the independence and stability of steam transmission and condensate drainage by setting a first chamber and a second chamber inside the brush head, and respectively installing a first pipe and a second pipe. Simultaneously, the design of the guide plate and guide holes effectively prevents condensate from directly entering the steam outlet port, ensuring the purity and continuity of steam output. Furthermore, the multiple sets of suction holes on the suction panel and the negative pressure structure of the suction chamber enable the brush head to evenly remove moisture from the surface of clothing during ironing, thereby preventing moisture accumulation from affecting the ironing effect. Attached Figure Description

[0013] Figure 1 It is a 3D image of a garment steamer with an absorbent brush head.

[0014] Figure 2 It is a three-dimensional device for removing the main unit when equipped with an absorbent steamer brush head. Figure 1 .

[0015] Figure 3 This is a side view of the main unit being removed when using an absorbent steamer brush head.

[0016] Figure 4 yes Figure 3 Sectional view at point AA.

[0017] Figure 5 yes Figure 4 A magnified view of section B.

[0018] Figure 6 yes Figure 4 A magnified view of a portion of point C.

[0019] Figure 7 It is a three-dimensional device for removing the main unit when equipped with an absorbent steamer brush head. Figure 2 .

[0020] Figure 8 It is a three-dimensional device for removing the main unit from the suction-type garment steamer brush head. Figure 1 .

[0021] Figure 9 It is a three-dimensional device for removing the main unit from the suction-type garment steamer brush head. Figure 2 .

[0022] Figure 10 This is a 3D structural diagram of the condensate back-absorption module in the absorbent garment steamer brush head.

[0023] The numbers on the map are: 1. Host computer; 2. Holding module; 21. Opening and closing unit; 211. Plug; 212. Spring; 213. Switch; 22. First pipe; 23. Second pipe; 3. Brush head; 4. Condensate back suction module; 41. Suction chamber; 411. First chamber; 412. Second chamber; 42. Water storage box; 421. First through hole; 422. Second through hole; 423. Diverter plate; 43. Suction panel; 431. Suction hole; 5. Steam export module; 51. Mounting plate; 52. Export nozzle; 53. Liquid guide plate; 531. Flow guide hole. Detailed Implementation

[0024] To further understand the features, technical means, and specific objectives and functions achieved by this utility model, the following detailed description of this utility model is provided in conjunction with the accompanying drawings and specific embodiments.

[0025] See Figures 1 to 10 As shown: A garment steamer with an absorbent brush head includes: a main unit 1; a holding module 2, which has a first pipe 22 and a second pipe 23 for the conduction of steam and condensate, and an opening and closing unit 21 for controlling the opening and closing of the first pipe 22; a brush head 3, which is detachably mounted on the front end of the holding module 2; a condensate back-suction module 4, which is embedded in the front end of the brush head 3; the condensate back-suction module 4 has an intake chamber 41 for drawing back condensate; a steam output module 5, which is centrally embedded in the condensate back-suction module 4 and the steam output end passes through the condensate back-suction module 4 and faces the front end of the condensate back-suction module 4; the intake chamber 41 is divided into a first chamber 411 and a second chamber 412 via the steam output module 5, and the first chamber 411 is connected to the inlet end of the steam output module 5.

[0026] The first pipe 22 is connected to the first chamber 411 and is used to introduce steam into the first chamber 411; the second pipe 23 is connected to the second chamber 412 and is used to remove condensate from the second chamber 412.

[0027] When garments need to be ironed, an external power source is first connected to power the main unit 1. The main unit 1 generates high-temperature steam, which is then conducted to the first chamber 411 via the first pipe 22. After pressure stabilization and flow guidance in the first chamber 411, the steam is finally delivered to the steam output module 5 and evenly sprayed out through the nozzle array, thus achieving rapid ironing of the garment surface. During the steam output module 5's steam injection process, the condensate return module 4 operates synchronously. The internal suction pump of the main unit 1 simultaneously generates negative pressure, which is continuously introduced into the second chamber 412 via the second pipe 23, keeping the second chamber 412 in a constant suction state. Because the steam output module 5 is embedded in the center of the condensate return module 4, the steam injection area is circumferentially covered by the surrounding suction channel. When a negative suction pressure is formed, the condensate return module 4 can perform full-coverage suction of the garment surface around the steam injection area, effectively recovering condensate and excess steam and preventing condensate from remaining on the garment surface.

[0028] By integrating the steam export module 5 and the condensate return module 4 on the same axis, and combining the stable steam supply in the first chamber 411 with the continuous negative pressure suction in the second chamber 412, not only can the synchronous linkage of ironing and condensate recovery be achieved, but also the phenomenon of clothes becoming damp due to condensate deposition can be effectively avoided, thereby improving the dryness and uniformity of ironing and ensuring the stability of ironing effect and a comfortable experience.

[0029] The opening and closing unit 21 consists of a plug 211 that can dynamically open and close the first pipe 22, a spring 212 that can always provide elastic force to the plug 211, and a switch 213 that can drive the plug 211 to extend and retract to open and close the first pipe 22. When it is necessary to open the first pipe 22, simply press the switch 213 to drive the plug 211 to retract longitudinally, and the effect of opening the first pipe 22 can be achieved.

[0030] See Figure 9 As shown: The condensate back suction module 4 also includes a water storage box 42 for storing condensate and a suction panel 43 for suctioning condensate from the surface of clothing.

[0031] Both the water storage box 42 and the suction panel 43 are hollow and rectangular shells with an opening on one side. During installation, they are fastened together through their corresponding openings on one side, thereby forming a sealed suction chamber 41 inside.

[0032] This structure ensures that when the suction panel 43 is in contact with the surface of the clothing, it achieves stable and uniform negative pressure suction through the suction chamber 41. When the main unit 1 generates suction negative pressure and transmits it to the suction chamber 41 through the second pipe 23, the suction chamber 41 can maintain a negative pressure state continuously. At this time, when the suction panel 43 contacts the surface of the clothing, it can efficiently extract and recover the water vapor and condensate remaining in the gaps between the clothing fibers under the action of negative pressure.

[0033] The suction panel 43 is also provided with a plurality of suction holes 431 for suctioning condensate.

[0034] When the suction panel 43 is in close horizontal contact with the surface of the clothing during use, the condensed moisture remaining inside the clothing fibers will be guided into the multiple suction holes 431 that are provided through the suction panel 43 under the action of negative pressure. Since these suction holes 431 are evenly distributed on the surface of the suction panel 43, they can ensure that the moisture in the contact area is evenly sucked out, so that water vapor and condensate can be quickly introduced into the suction chamber 41 without damaging the structure of the clothing fibers, thereby achieving efficient dehumidification and recycling.

[0035] See Figure 6 and Figure 10 As shown: The water storage box 42 is also provided with a first through hole 421 and a second through hole 422 that can communicate with the first chamber 411 and the second chamber 412 respectively, and a diversion plate 423 provided at the first through hole 421 that can divert the introduced steam to both sides inside the first chamber 411.

[0036] The first through-hole 421 and the second through-hole 422 are used for independent conduction of steam and negative pressure, respectively, ensuring that they can enter the first chamber 411 and the second chamber 412 to form independent working flow fields. When stable steam transmission is required, the high-temperature steam generated by the main unit 1 is first transported to the first through-hole 421 via the first pipe 22. After entering the first chamber 411 through the first through-hole 421, the steam is dispersed to both sides of the first chamber 411 by the guide plate 423, and then simultaneously introduced into the steam outlet module 5 via the flow channels on both sides. This diversion design avoids unilateral flow or local eddies in the first chamber 411, thus ensuring that the steam is always output in a uniform and stable flow state when finally conducted to the steam outlet module 5.

[0037] By setting a flow divider 423 in the first chamber 411 and cooperating with the inlet structure of the first through hole 421, the uniform distribution of steam flow is achieved, which effectively avoids the problem of local overheating or insufficient steam due to concentrated or uneven steam transmission. This ensures that the steam output module 5 can always output steam at a stable flow rate, thereby improving the uniformity and reliability of the ironing process.

[0038] See Figure 8 and Figure 9 As shown: The steam export module 5 is provided with an installation plate 51, an export nozzle 52 that can uniformly export steam, and a liquid guide plate 53 that can prevent condensate from entering the suction end of the export nozzle 52; the export nozzle 52 is fixedly installed horizontally in the condensate return module 4 through the installation plate 51; the liquid guide plate 53 is vertically installed on the rear side of the installation plate 51 and located above the suction end of the export nozzle 52.

[0039] The liquid guide plate 53 is specifically a U-shaped strip plate, which is fixedly installed on the rear side of the mounting plate 51 using an inverted installation method. The liquid guide plate 53 is structurally tightly fitted to the mounting plate 51 and forms a condensate drainage channel during use. Its main function is to effectively intercept and guide the condensate generated due to temperature changes during long-term steam transmission via the first pipe 22. Through the blocking effect of the liquid guide plate 53, condensate is prevented from flowing directly into the suction end of the steam outlet nozzle 52 under uncontrolled conditions, thereby preventing impure steam, unstable jetting, or localized water droplet splashing caused by condensate mixing into the steam flow.

[0040] See Figure 9 As shown: The bottom of the mounting plate 51 is also provided with a guide hole 531 that can guide the condensate in the first chamber 411 to the second chamber 412.

[0041] The guide hole 531 is located at the bottom of the first chamber 411 and is used to guide the condensate that gradually accumulates inside the first chamber 411 due to temperature differences to the second chamber 412 during steam transmission and diversion. Under the negative pressure suction, the second chamber 412 can quickly extract and discharge the condensate entering through the guide hole 531, thereby avoiding excessive accumulation of condensate in the first chamber 411 and preventing it from flowing back or directly entering the steam output module 5 and affecting the stable output of steam. Through the setting of the guide hole 531, the reasonable diversion and dynamic discharge of condensate between the two chambers are realized, effectively improving the stability of the fluid environment inside the chambers.

[0042] Fabric cleaning machine, including an absorbent ironing brush head.

[0043] This invention not only enables efficient ironing of clothing but also achieves uniform absorption of condensate.

[0044] The above embodiments only illustrate one or more implementations of this utility model, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of this utility model. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model should be determined by the appended claims.

Claims

1. Equipped with an absorbent steam ironing brush head, characterized in that, include: Host; The holding module is equipped with a first pipe and a second pipe for the conduction of steam and condensate, as well as an opening and closing unit that can control the opening and closing of the first pipe; The brush head is detachably mounted on the front end of the holding module; A condensate back-suction module is embedded in the front end of the brush head; the condensate back-suction module has a suction chamber that can suck back condensate. The steam export module is centrally embedded within the condensate return module, with its steam export end passing through the condensate return module and facing its front end. The suction chamber is divided into a first chamber and a second chamber via the steam export module, and the first chamber is connected to the inlet end of the steam export module.

2. The garment steamer brush head with adsorption as described in claim 1, characterized in that, The condensate back-suction module also includes a water storage box for storing condensate and a suction panel for sucking condensate from the surface of clothing.

3. The garment steamer brush head with adsorption as described in claim 2, characterized in that, The water storage box is also provided with a first through hole and a second through hole that can communicate with the first chamber and the second chamber, respectively, and a diversion plate provided at the first through hole that can divert the introduced steam to both sides of the first chamber.

4. The garment steamer brush head with adsorption as described in claim 1, characterized in that, The steam output module is equipped with an installation plate, an output nozzle that can uniformly output steam, and a liquid guide plate that can prevent condensate from entering the suction end of the output nozzle. The outlet nozzle is fixed horizontally within the condensate back suction module via the mounting plate. The liquid guide plate is vertically disposed on the rear side of the mounting plate and located above the suction end of the outlet nozzle.

5. The garment steamer brush head with adsorption as described in claim 4, characterized in that, The bottom of the mounting plate is also provided with a guide hole that can guide the condensate in the first chamber to the second chamber.

6. A fabric cleaning machine, characterized in that, Includes the absorbent steam ironing brush head as described in any one of claims 1-5.

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