Furnace end and cotton candy machine

Abstract

The utility model relates to a furnace end and a marshmallow machine, and belongs to the field of marshmallow machines. The sugar inlet, the sugar inlet channel and the shred outlet cavity are communicated in sequence; the thread throwing assembly is arranged on the thread discharging assembly and located at the sugar feeding channel; the heat dissipation assembly is arranged on the thread throwing assembly, the heat dissipation assembly is provided with a first connector, a liquid conveying channel and a second connector, the first connector and the second connector are both communicated with the liquid conveying channel, one of the first connector and the second connector is used for liquid inlet, and the other one of the first connector and the second connector is used for liquid outlet. According to the furnace end, the liquid conveying channel communicates with the first connector and the second connector, and rapid heat dissipation of the thread throwing assembly is achieved through water supply. By means of the design, the working temperature of the thread throwing assembly is stabilized within the optimal thread forming interval of sugar raw materials.

Description

Technical Field

[0001] This utility model relates to the field of cotton candy machines, and in particular to a stove head and a cotton candy machine. Background Technology

[0002] In cotton candy machines operating at continuously high temperatures, the sugar raw materials, after being heated and melted, need to be centrifugally spun into filaments through a high-speed rotating spun-filament structure. Excessive temperature of this structure can lead to poor cotton candy forming. However, traditional cotton candy machines lack a cooling system for the spun-filament structure, or the existing cooling system is ineffective. Therefore, further improvements are needed to address this deficiency in traditional cotton candy machines. Utility Model Content

[0003] Therefore, it is necessary to provide a furnace head and cotton candy machine to address the problem that traditional cotton candy machines lack a structure for heat dissipation of the spinning structure or that the structure used for heat dissipation of the spinning structure has poor heat dissipation effect.

[0004] A furnace head includes: a wire-eating assembly having a wire-eating chamber; a sugar inlet and a sugar inlet channel, the sugar inlet, the sugar inlet channel, and the wire-eating chamber being sequentially connected; a wire-spinning assembly disposed on the wire-eating assembly and located at the sugar inlet channel; and a heat dissipation assembly disposed on the wire-spinning assembly, the heat dissipation assembly having a first interface, a liquid inlet channel, and a second interface, both the first interface and the second interface being connected to the liquid inlet channel, one of the first interface and the second interface being used for liquid inlet, and the other of the first interface and the second interface being used for liquid outlet, the heat dissipation assembly being used to cool the wire-spinning assembly.

[0005] The first aspect of this application discloses a furnace head, which is sequentially connected by a sugar inlet, a sugar inlet channel, and a silk-outlet chamber, enabling the sugar raw material to be fed, conveyed, silk-formed, and output, thus demonstrating strong practicality. A liquid inlet channel is connected to a first interface and a second interface respectively, forming a closed-loop water-cooling circulation. The liquid medium can exchange heat with the silk-spinning assembly, quickly dissipating the heat generated by the silk-spinning assembly itself, as well as the heat accumulated due to sugar liquid friction and environmental conduction, achieving rapid heat dissipation of the silk-spinning assembly. This design ensures that the operating temperature of the silk-spinning assembly is stabilized within the optimal silk-forming range of the sugar raw material, preventing carbonization or premature solidification, thereby ensuring that the sugar silk has a uniform color, fluffy texture, and no burnt odor. Furthermore, the inlet and outlet directions of the first and second interfaces are adjustable, supporting co-current, counter-current, or bi-directional circulation modes, suitable for various working conditions.

[0006] In one embodiment, the infusion channel includes a first flow channel, a second flow channel, and a third flow channel. The first flow channel is connected to the first interface, and the third flow channel is connected to the second interface. The first, second, and third flow channels are sequentially connected. The sequential connection of the first, second, and third flow channels enables smooth liquid transfer and effectively achieves heat dissipation.

[0007] In one embodiment, the infusion channel is arranged around the spinning assembly. By arranging the infusion channel around the spinning assembly, a continuous cooling circuit is formed, resulting in higher heat dissipation efficiency and effectively maintaining the temperature of the spinning assembly and the sugar inlet channel within an appropriate range, thus ensuring the quality of the cotton candy forming.

[0008] In one embodiment, the sugar inlet channel includes a first channel and a second channel, with the sugar inlet, the first channel, the second channel, and the fiber outlet cavity sequentially connected. The fiber-spinning assembly is located in the second channel. The first channel facilitates sugar inlet feeding. The second channel provides a stable space for the sugar raw material to form fibers, ensuring the quality of the cotton candy. Furthermore, the location of the fiber-spinning assembly within the second channel makes the overall structure more compact, the product smaller, and more practical.

[0009] In one embodiment, the heat dissipation assembly includes the sugar inlet and the sugar inlet channel. By integrating the sugar inlet and the sugar inlet channel onto the heat dissipation assembly, the heat dissipation assembly not only has a heat dissipation function but also enables the sugar inlet and fibrous processes, achieving multi-functional integration, reducing the number of independent components in traditional designs, and lowering structural complexity and assembly costs.

[0010] In one embodiment, the heat dissipation assembly includes a support member and a water-cooling member. The support member is disposed on the extrusion assembly and has a second channel communicating with the extrusion cavity. The water-cooling member is disposed on the support member and has the sugar inlet. The water-cooling member has a first channel communicating with both the sugar inlet and the second channel. The water-cooling member has a first interface, a liquid delivery channel, and a second interface. The support member ensures stable extrusion of the sugar raw material and provides stable support for the water-cooling member. The flow of cooling liquid in the water-cooling member effectively absorbs heat, ensuring that the sugar raw material extruding in the second channel is always at a suitable temperature, preventing excessive temperature from causing carbonization or premature solidification of the sugar raw material, resulting in a burnt taste.

[0011] In one embodiment, a heating plate assembly is further included, which is disposed on the heat dissipation assembly. The heating plate assembly is capable of generating and transferring heat into the sugar inlet channel. By disposing of the heating plate assembly on the heat dissipation assembly, the heating assembly can generate heat and transfer it into the sugar inlet channel, thereby maintaining a suitable fibrillation temperature for the sugar raw materials in the sugar inlet channel and preventing the fibrillation temperature from being too high or too low, which would affect the formation of the marshmallow.

[0012] In one embodiment, the system further includes a temperature measuring device and a mainboard. The temperature measuring device is mounted on the heating plate assembly or electrically connected to the heating plate assembly. The temperature measuring device detects the temperature of the heating plate assembly and outputs a temperature measurement signal. The mainboard is mounted on the heating plate assembly or electrically connected to the heating plate assembly. The mainboard receives the temperature measurement signal and adjusts the temperature of the heating plate assembly based on the received signal. By continuously monitoring the heating plate temperature and transmitting the corresponding signal to the mainboard in real time, the mainboard dynamically matches the output power of the heating plate according to the signal, ensuring the temperature is controlled within a suitable range. This maintains a suitable silkening temperature for the sugar raw material, preventing excessively high or low silkening temperatures from affecting the formation of the marshmallow. Preferably, the temperature measuring device and the mainboard can be paired via Bluetooth to transmit temperature signals, achieving a high degree of automation.

[0013] In one embodiment, the temperature measuring device includes a temperature measuring component, a first power supply component, and a second power supply component. The temperature measuring component is electrically connected to the heating plate assembly. The first power supply component is disposed on the temperature measuring component and supplies power to it. The second power supply component is disposed adjacent to the first power supply component and can be connected to an external power source, enabling the first power supply component to generate electrical energy. The first power supply component provides a stable power supply to the temperature measuring component, allowing it to continuously monitor the temperature of the heating plate assembly. The second power supply component, connected to an external power source, supplies power to the system's main circuit and also replenishes the first power supply component with energy through energy conversion, such as electromagnetic induction or photovoltaic effect, significantly reducing the risk of temperature measurement interruption.

[0014] In one embodiment, the temperature measuring component includes a temperature measuring shell and a temperature acquisition plate. The temperature measuring shell is disposed on the spinning assembly, and the temperature acquisition plate is disposed on the temperature measuring shell. The temperature acquisition plate is electrically connected to the heating plate assembly. The temperature acquisition plate can monitor the temperature of the heating plate assembly and output a temperature measuring signal. The main board can receive the temperature measuring signal output by the temperature acquisition plate. The temperature acquisition plate enables real-time monitoring of the heating plate assembly temperature and feedback to the main board for temperature control of the heating plate assembly, ensuring that the spinning temperature of the sugar raw material is always within the optimal range, avoiding excessively high or low spinning temperatures that could affect the quality of the cotton candy forming. The temperature measuring shell protects the temperature acquisition plate from external factors.

[0015] In one embodiment, the first power supply component includes a first power supply housing and a first induction coil. The first power supply housing is disposed on the temperature measuring component, and the first induction coil is disposed on the first power supply housing. The second power supply component includes a second power supply housing and a second induction coil. The second induction coil is disposed on the second power supply housing, and the second induction coil is positioned opposite to the first induction coil. By positioning the second induction coil opposite to the first induction coil and energizing the second induction coil to generate a magnetic field, the first induction coil cuts magnetic field lines in the magnetic field generated by the second induction coil, inducing alternating current, thereby powering the temperature acquisition board. This design achieves wireless charging and stable power supply. The coincidence of the axes of the second and first induction coils ensures high efficiency in electromagnetic induction energy transmission. Since both the first and second power supply housings are made of acrylic sheets, they provide insulation protection for the first and second induction coils, preventing water droplets from falling onto them, while the non-metallic nature ensures effective wireless transmission.

[0016] In one embodiment, the heating plate assembly includes a heating shell, a retaining ring, and a heating element. The heating shell is disposed on the heat dissipation assembly, the retaining ring is sleeved on the heat dissipation assembly, and the heating element is disposed on the heating shell and / or the retaining ring, with the heating element located between the heating shell and the retaining ring. By sleeved on the heat dissipation assembly, the heat generated by the heating element can be transferred to the sugar inlet channel. The placement of the heating element between the heating shell and the retaining ring allows for effective fixation, as the heating shell and retaining ring work together to secure the heating element.

[0017] In one embodiment, the heating plate assembly is arranged around the sugar inlet channel. By forming a closed thermal field around the sugar inlet channel, the sugar raw material is heated synchronously from all directions during its transport through the channel, ensuring that the sugar raw material in each part forms fibers at a consistent temperature and with a consistent fiber diameter, resulting in higher forming quality.

[0018] In one embodiment, the spun cotton candy assembly includes a drive motor, an output shaft, and a fan blade structure. The drive motor is mounted on the heat dissipation assembly, and the output shaft is mounted on the drive motor and located within the sugar inlet channel. The fan blade structure is mounted on the output shaft, and the fan blade structure and the output shaft can rotate together relative to the heat dissipation assembly. The output shaft drives the fan blade structure to rotate at high speed within the sugar inlet channel, directly applying centrifugal force to the sugar raw material, uniformly stretching it into fine filaments, thus forming the cotton candy. The integrated design of the drive motor and output shaft provides a continuous power supply to the drive fan blades.

[0019] In one embodiment, the assembly further includes a support block, a support frame, and an elastic element. The support block is disposed on the spinning assembly, the support frame is disposed opposite to the support block, and the two ends of the elastic element abut against the support frame and the support block, respectively. The support frame provides stable support for the entire product. The support block improves the stability of the spinning assembly. The elastic element's abutments against the support frame and the support block at both ends provide cushioning and shock absorption.

[0020] A cotton candy machine includes: the aforementioned burner head.

[0021] The second aspect of this application discloses a cotton candy machine. Through the design of a heat dissipation component, the temperature of the spinning component and the sugar inlet channel can be effectively reduced, thereby maintaining the sugar spinning temperature within a suitable range and preventing excessively high or low temperatures from affecting the cotton candy forming quality. A temperature device monitors the heating plate temperature and is paired with the motherboard via Bluetooth to ensure stable temperature throughout the entire process from melting to spinning, resulting in uniform sugar filament diameter, no caramelization or crystallization, and a fluffy and delicate texture. Attached Figure Description

[0022] Figure 1 A 3D view of the stove head;

[0023] Figure 2 An exploded view of the stove;

[0024] Figure 3 This is the first sectional view of the stove head;

[0025] Figure 4 This is a magnified view of point A in the diagram;

[0026] Figure 5 This is a second sectional view of the stove head;

[0027] Figure 6 This is a 3D view of the heat dissipation components;

[0028] Figure 7 A three-dimensional view of the temperature measuring device;

[0029] Figure 8 This is an exploded view of the temperature measuring device;

[0030] Figure 9 This is a 3D view of the heat dissipation components;

[0031] Figure 10 This is a three-dimensional view of the support block, support frame, and elastic element.

[0032] The correspondence between the reference numerals and the component names is as follows:

[0033] 1. Filament outlet assembly, 101 filament outlet chamber;

[0034] 2. Wire spinning assembly; 21. Drive motor; 22. Output shaft; 23. Fan blade structure;

[0035] 3 Heat dissipation components, 31 Support components, 32 Water cooling components, 301 Sugar inlet, 302 Sugar inlet channel, 3021 First channel, 3022 Second channel, 303 First interface, 304 Infusion channel, 3041 First flow channel, 3042 Second flow channel, 3043 Third flow channel, 305 Second interface;

[0036] 4 heating plate assembly, 41 heating shell, 42 retaining ring, 43 heating element;

[0037] 5 Temperature measuring device, 51 Temperature measuring component, 511 Temperature measuring housing, 512 Temperature acquisition board, 52 First power supply component, 521 First power supply housing, 522 First induction coil, 53 Second power supply component, 531 Second power supply housing, 532 Second induction coil;

[0038] 6 support blocks;

[0039] 7. Support frame;

[0040] 8. Elastic components. Detailed Implementation

[0041] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0042] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0043] Example 1

[0044] like Figure 1-3 and Figure 5 As shown, this embodiment discloses a furnace head, including: a wire-eating assembly 1, which has a wire-eating chamber 101; a sugar inlet 301 and a sugar inlet channel 302, which are sequentially connected; a wire-spinning assembly 2, which is disposed on the wire-eating assembly 1 and located at the sugar inlet channel 302; and a heat dissipation assembly 3, which is disposed on the wire-spinning assembly 2 and has a first interface 303, a liquid inlet channel 304, and a second interface 305. The first interface 303 and the second interface 305 are both connected to the liquid inlet channel 304. One of the first interface 303 and the second interface 305 is used for liquid inlet, and the other of the first interface 303 and the second interface 305 is used for liquid outlet. The heat dissipation assembly 3 is used to cool the wire-spinning assembly 2.

[0045] The first aspect of this application discloses a furnace head, which is sequentially connected by a sugar inlet 301, a sugar inlet channel 302, and a silk-outlet chamber 101, thereby enabling the sugar raw material to be fed, conveyed, formed into silk, and output, making it highly practical. A liquid inlet channel 304 is connected to a first interface 303 and a second interface 305 respectively, forming a closed-loop water-cooling circulation. The liquid medium can exchange heat with the silk-spinning assembly 2, quickly dissipating the heat generated by the silk-spinning assembly 2 itself, as well as the heat accumulated due to sugar liquid friction and environmental conduction, achieving rapid heat dissipation of the silk-spinning assembly 2. This design ensures that the operating temperature of the silk-spinning assembly 2 is stabilized within the optimal silk-forming range of the sugar raw material, preventing carbonization or premature solidification of the sugar raw material, thus ensuring that the sugar silk has a uniform color, a fluffy texture, and no burnt odor. Furthermore, the inlet and outlet directions of the first interface 303 and the second interface 305 are adjustable, supporting co-current, counter-current, or bidirectional circulation modes, suitable for various working conditions.

[0046] like Figure 5 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the infusion channel 304 includes a first flow channel 3041, a second flow channel 3042, and a third flow channel 3043. The first flow channel 3041 is connected to the first interface 303, and the third flow channel 3043 is connected to the second interface 305. The first flow channel 3041, the second flow channel 3042, and the third flow channel 3043 are sequentially connected. Through the sequential connection of the first flow channel 3041, the second flow channel 3042, and the third flow channel 3043, smooth liquid transfer is achieved, effectively realizing heat dissipation.

[0047] like Figure 5As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the infusion channel 304 is arranged around the spinning assembly 2. By arranging the infusion channel 304 around the spinning assembly 2, a continuous cooling circuit is formed, resulting in higher heat dissipation efficiency. This effectively maintains the temperature of the spinning assembly 2 and the sugar inlet channel 302 within an appropriate range, ensuring the quality of the cotton candy forming.

[0048] like Figure 3 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the sugar inlet channel 302 includes a first channel 3021 and a second channel 3022, the sugar inlet 301, the first channel 3021, the second channel 3022 and the fiber outlet 101 are sequentially connected, and the fiber-spinning assembly 2 is located at the second channel 3022. The first channel 3021 enables sugar inlet. The second channel 3022 provides a stable fiber-forming space for the sugar raw material, ensuring the quality of the cotton candy forming. Furthermore, the location of the fiber-spinning assembly 2 at the second channel 3022 makes the overall structure more compact, the product smaller, and more practical.

[0049] like Figure 3 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the heat dissipation component 3 is provided with the sugar inlet 301 and the sugar inlet channel 302. By integrating the sugar inlet 301 and the sugar inlet channel 302 onto the heat dissipation component 3, the heat dissipation component 3 not only has a heat dissipation function, but also realizes the sugar inlet and fibrous process, achieving multi-functional integration, reducing the number of independent components in traditional designs, and reducing structural complexity and assembly costs.

[0050] like Figure 3 and Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the heat dissipation component 3 includes a support member 31 and a water-cooling component 32. The support member 31 is disposed on the extrusion assembly 1, and the support member 31 has a second channel 3022 communicating with the extrusion cavity 101. The water-cooling component 32 is disposed on the support member 31, and the water-cooling component 32 has the sugar inlet 301. The water-cooling component 32 has a first channel 3021 communicating with the sugar inlet 301 and the second channel 3022 respectively. The water-cooling component 32 has a first interface 303, a liquid delivery channel 304, and a second interface 305. The support member 31 enables the sugar raw material to be stably extruded and stably supports the water-cooling component 32. The flow of cooling liquid in the water-cooling component 32 can effectively absorb heat, ensuring that the sugar raw material extruded in the second channel 3022 is always at a suitable temperature, avoiding excessive temperature that could lead to carbonization or premature solidification of the sugar raw material, resulting in a burnt taste.

[0051] like Figure 3As shown, in addition to the features of the above embodiments, this embodiment further includes a heating plate assembly 4, which is disposed on the heat dissipation assembly 3. The heating plate assembly 4 is capable of generating and transmitting heat into the sugar inlet channel 302. By disposing of the heating plate assembly 4 on the heat dissipation assembly 3, the heating assembly can generate heat and transfer it into the sugar inlet channel 302, thereby maintaining a suitable silkening temperature for the sugar raw materials in the sugar inlet channel 302 and preventing the silkening temperature from being too high or too low, which would affect the formation of the cotton candy.

[0052] like Figure 3 and Figure 4 As shown, in addition to the features of the above embodiments, this embodiment further includes: a temperature measuring device 5 and a main board. The temperature measuring device 5 is disposed on the heating plate assembly 4 or electrically connected to the heating plate assembly 4. The temperature measuring device 5 is used to detect the temperature of the heating plate assembly 4 and output a temperature measuring signal. The main board is disposed on the heating plate assembly 4 or electrically connected to the heating plate assembly 4. The main board can receive the temperature measuring signal and adjust the temperature of the heating plate assembly 4 according to the received temperature measuring signal. By continuously monitoring the temperature of the heating plate through the temperature measuring device 5 and transmitting the corresponding signal to the main board in real time, the main board dynamically matches the output power of the heating plate according to the signal, so that the temperature is controlled within a suitable range, thereby maintaining a suitable silkening temperature for the sugar raw materials and avoiding excessively high or low silkening temperatures that would affect the shaping of the cotton candy. Preferably, the temperature measuring device 5 and the main board can be paired and connected via Bluetooth to realize the transmission of temperature signals, achieving a high degree of automation.

[0053] like Figure 3-4 and Figure 7-8 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the temperature measuring device 5 includes a temperature measuring component 51, a first power supply component 52, and a second power supply component 53. The temperature measuring component 51 is electrically connected to the heating plate assembly 4. The first power supply component 52 is disposed on the temperature measuring component 51 and can supply power to the temperature measuring component 51. The second power supply component 53 is disposed adjacent to the first power supply component 52 and can be connected to an external power source. The second power supply component 53 can enable the first power supply component 52 to generate electrical energy. The first power supply component 52 provides a stable power supply to the temperature measuring component 51, thereby enabling the temperature measuring component 51 to continuously monitor the temperature of the heating plate assembly 4. The second power supply component 53 can be connected to an external power source to supply power to the main circuit of the system and also to supplement the first power supply component 52 with electrical energy through energy conversion such as electromagnetic induction or photovoltaic effect, significantly reducing the risk of temperature measurement interruption.

[0054] like Figure 3-4 and Figure 8As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the temperature measuring component 51 includes a temperature measuring shell 511 and a temperature acquisition plate 512. The temperature measuring shell 511 is disposed on the spinning component 2, and the temperature acquisition plate 512 is disposed on the temperature measuring shell 511. The temperature acquisition plate 512 is electrically connected to the heating plate component 4. The temperature acquisition plate 512 can monitor the temperature of the heating plate component 4 and output a temperature measuring signal. The main board can receive the temperature measuring signal output by the temperature acquisition plate 512. The temperature acquisition plate 512 enables real-time monitoring of the temperature of the heating plate component 4 and feedback to the main board to achieve temperature control of the heating plate component 4, ensuring that the spinning temperature of the sugar raw material is always within the optimal range, avoiding excessively high or low spinning temperatures that would affect the quality of the cotton candy forming. The temperature measuring shell 511 protects the temperature acquisition plate 512 from external factors.

[0055] like Figure 3-4 and Figure 8 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the first power supply component 52 includes a first power supply housing 521 and a first induction coil 522. The first power supply housing 521 is disposed on the temperature measuring component 51, and the first induction coil 522 is disposed on the first power supply housing 521. The second power supply component 53 includes a second power supply housing 531 and a second induction coil 532. The second induction coil 532 is disposed on the second power supply housing 531, and the second induction coil 532 is disposed opposite to the first induction coil 522. By having the second induction coil 532 disposed opposite to the first induction coil 522 and energized to generate a magnetic field, the first induction coil 522 cuts magnetic field lines in the magnetic field generated by the second induction coil 532, inducing alternating current, thereby completing the power supply to the temperature acquisition board 512. This design can achieve the effects of wireless charging and stable power supply. The coincidence of the axes of the second induction coil 532 and the first induction coil 522 can make the electromagnetic induction energy transmission efficiency high. Since both the first power supply housing 521 and the second power supply housing 531 are made of acrylic sheets, they can respectively insulate and protect the first induction coil 522 and the second induction coil 532, preventing water droplets from falling on the first induction coil 522 and the second induction coil 532. At the same time, the non-metallic nature ensures effective wireless transmission.

[0056] like Figure 3As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the heating plate assembly 4 includes a heating shell 41, a fixing ring 42, and a heating element 43. The heating shell 41 is disposed on the heat dissipation assembly 3, the fixing ring 42 is sleeved on the heat dissipation assembly 3, and the heating element 43 is disposed on the heating shell 41 and / or the fixing ring 42, with the heating element 43 located between the heating shell 41 and the fixing ring 42. Because the heating element 43 is sleeved on the heat dissipation assembly 3, the heat generated by the heating element 43 can be transferred to the sugar inlet channel 302. The arrangement of the heating element 43, located between the heating shell 41 and the fixing ring 42, allows the heating shell 41 and the fixing ring 42 to work together to fix the heating element 43, resulting in a good fixing effect.

[0057] like Figure 3 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the heating plate assembly 4 is arranged around the sugar inlet channel 302. The heating plate assembly 4 forming a closed thermal field around the sugar inlet channel 302 ensures that the sugar raw material is heated synchronously from all directions during its transport through the sugar inlet channel 302, guaranteeing that the sugar raw material in each part has a consistent filament forming temperature and diameter, resulting in higher forming quality.

[0058] like Figure 3 and Figure 9 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the spun cotton assembly 2 includes a drive motor 21, an output shaft 22, and a fan blade structure 23. The drive motor 21 is mounted on the heat dissipation assembly 3, the output shaft 22 is mounted on the drive motor 21, the output shaft 22 is located within the sugar inlet channel 302, and the fan blade structure 23 is mounted on the output shaft 22. The fan blade structure 23 and the output shaft 22 can rotate together relative to the heat dissipation assembly 3. The output shaft 22 drives the fan blade structure 23 to rotate at high speed within the sugar inlet channel 302, directly applying centrifugal force to the sugar raw material, uniformly stretching the sugar raw material into fine filaments, thus achieving the formation of cotton candy. The integrated configuration of the drive motor 21 and the output shaft 22 provides a continuous power supply to the drive fan blades.

[0059] like Figure 2 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further includes a support block 6, a support frame 7, and an elastic element 8. The support block 6 is disposed on the spinning assembly 2, the support frame 7 is disposed opposite to the support block 6, and the two ends of the elastic element 8 abut against the support frame 7 and the support block 6, respectively. The support frame 7 provides stable support for the entire product. The support block 6 improves the stability of the spinning assembly 2. The elastic element 8, with its two ends abutting against the support frame 7 and the support block 6, provides cushioning and shock absorption.

[0060] Example 2

[0061] This embodiment discloses a cotton candy machine, including: the aforementioned burner head.

[0062] The second aspect of this application discloses a cotton candy machine. The heat dissipation component 3 effectively reduces the temperature of the spinning component 2 and the sugar inlet channel 302, thereby maintaining the sugar spinning temperature within a suitable range and preventing excessively high or low temperatures from affecting the cotton candy forming quality. A temperature device monitors the heating plate temperature and is paired with the motherboard via Bluetooth to ensure stable temperature throughout the process from melting to spinning, resulting in uniform sugar filament diameter, no caramelization or crystallization, and a fluffy and delicate texture.

[0063] The above embodiments only illustrate several implementation methods of this utility model, and their descriptions are relatively specific and detailed, but they should not be construed as limiting the scope of the utility model patent. 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 patent should be determined by the appended claims.

Claims

1. A burner tip, characterized by, The application relates to a furnace head, comprising: a wire outlet assembly (1) provided with a wire outlet cavity (101); a sugar inlet (301) and a sugar inlet channel (302), which are sequentially communicated with the wire outlet cavity (101); a wire spinning assembly (2) arranged on the wire outlet assembly (1) and located at the sugar inlet channel (302); a heat dissipation assembly (3) arranged on the wire spinning assembly (2), the heat dissipation assembly (3) is provided with a first interface (303), a liquid conveying channel (304) and a second interface (305), the first interface (303) and the second interface (305) are both communicated with the liquid conveying channel (304), one of the first interface (303) and the second interface (305) is used for liquid inlet, and the other of the first interface (303) and the second interface (305) is used for liquid outlet, and the heat dissipation assembly (3) is used for cooling the wire spinning assembly (2).

2. The furnace head according to claim 1, wherein the liquid conveying channel (304) comprises a first flow channel (3041), a second flow channel (3042) and a third flow channel (3043), the first flow channel (3041) is communicated with the first interface (303), the third flow channel (3043) is communicated with the second interface (305), and the first flow channel (3041), the second flow channel (3042) and the third flow channel (3043) are sequentially communicated; and / or the liquid conveying channel (304) is arranged around the wire spinning assembly (2); and / or the sugar inlet channel (302) comprises a first channel (3021) and a second channel (3022), the sugar inlet (301), the first channel (3021), the second channel (3022) and the wire outlet cavity (101) are sequentially communicated, and the wire spinning assembly (2) is located at the second channel (3022); and / or the heat dissipation assembly (3) is provided with the sugar inlet (301) and the sugar inlet channel (302).

3. The burner tip of claim 1, wherein The heat dissipation assembly (3) comprises a support (31) and a water cooling piece (32), the support (31) is arranged on the wire outlet assembly (1), the support (31) is provided with a second channel (3022) communicated with the wire outlet cavity (101), the water cooling piece (32) is arranged on the support (31), the water cooling piece (32) is provided with the sugar inlet (301), the water cooling piece (32) is provided with a first channel (3021) communicated with the sugar inlet (301) and the second channel (3022) respectively, and the water cooling piece (32) is provided with the first interface (303), the liquid conveying channel (304) and the second interface (305).

4. The burner tip of claim 1, wherein The application further comprises a heating disc assembly (4) arranged on the heat dissipation assembly (3), the heating disc assembly (4) can generate and convey heat into the sugar inlet channel (302).

5. A burner tip as claimed in claim 4, characterised in that The temperature measuring device (5) is arranged on or electrically connected with the heating disc assembly (4), and is used to detect the temperature of the heating disc assembly (4) and output a temperature measuring signal.

6. A burner tip as defined in claim 5, wherein The temperature measuring device (5) comprises a temperature measuring assembly (51), a first power supply assembly (52) and a second power supply assembly (53). The temperature measuring assembly (51) is electrically connected with the heating disc assembly (4). The first power supply assembly (52) is arranged on the temperature measuring assembly (51) and can supply power to the temperature measuring assembly (51). The second power supply assembly (53) is arranged adjacent to the first power supply assembly (52) and can be connected with an external power source. The second power supply assembly (53) can make the first power supply assembly (52) generate electric energy.

7. The burner head according to claim 6, wherein The temperature measuring assembly (51) comprises a temperature measuring shell (511) and a temperature acquisition board (512). The temperature measuring shell (511) is arranged on the spinning assembly (2). The temperature acquisition board (512) is arranged on the temperature measuring shell (511) and electrically connected with the heating disc assembly (4). The temperature acquisition board (512) can monitor the temperature of the heating disc assembly (4) and output a temperature measuring signal. The mainboard can receive the temperature measuring signal output by the temperature acquisition board (512). The first power supply assembly (52) comprises a first power supply shell (521) and a first induction coil (522). The first power supply shell (521) is arranged on the temperature measuring assembly (51). The second power supply assembly (53) comprises a second power supply shell (531) and a second induction coil (532). The second induction coil (532) is arranged on the second power supply shell (531) and oppositely arranged with the first induction coil (522).

8. The burner head according to claim 4, wherein The heating disc assembly (4) comprises a heating shell (41), a fixing ring (42) and a heating element (43). The heating shell (41) is arranged on the heat dissipation assembly (3). The fixing ring (42) is sleeved on the heat dissipation assembly (3). The heating element (43) is arranged on the heating shell (41) and / or the fixing ring (42) and located between the heating shell (41) and the fixing ring (42). The heating disc assembly (4) is arranged around the sugar inlet channel (302).

9. The burner tip according to claim 1, characterized in that The spinning assembly (2) comprises a driving motor (21), an output shaft (22) and a fan structure (23), the driving motor (21) is arranged on the heat dissipation assembly (3), the output shaft (22) is arranged on the driving motor (21), the output shaft (22) is located in the sugar inlet channel (302), the fan structure (23) is arranged on the output shaft (22), the fan structure (23) and the output shaft (22) can rotate together relative to the heat dissipation assembly (3); And / or further comprising a supporting block (6), a supporting frame (7) and an elastic member (8), the supporting block (6) is arranged on the spinning assembly (2), the supporting frame (7) is arranged opposite to the supporting block (6), and the two ends of the elastic member (8) are respectively in abutment with the supporting frame (7) and the supporting block (6).

10. A marshmallow machine characterized by, Comprising: The burner tip according to any one of claims 1-9.

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