Food waste disposal equipment and its usage

Abstract

This invention provides a food waste treatment facility that is free from problems related to reaction efficiency, clogging, and operational functionality, as well as a method for using the food waste treatment facility. [Solution] A food waste processing facility 1000 includes a cabin section 1100 in which an outer cabin 1110 and an inner shaft 1120 are installed and partitioned into at least one reaction chamber by a plurality of partition plates 1130, a drive device 1310 connected to the inner shaft to which a plurality of paddle brackets 1140 are connected, a plurality of paddles 1141 installed on the plurality of paddle brackets, and a rotating module 1150 that supports and rotates the outer cabin. Depending on the selection of a concentrated mode or a propulsion mode, the drive device rotates and fixes the inner shaft at different angles, and the fixed plurality of paddles and the outer rotating side cabin process food waste together.

Description

Technical Field

[0001] The present invention relates to a food waste treatment facility that solves problems such as low reaction efficiency, easy clogging, and limited operating functionality in conventional food waste treatment facilities, and a method for using the same.

Background Art

[0002] There are mainly three methods for treating food waste: composting, landfill, and incineration. Among them, only composting can be said to be a resource reuse, while landfill and incineration are both regarded as waste and discarded, so they are harmful to the environment and have no benefits. With the increasing awareness of environmental protection and the accelerating urbanization, the amount of food waste generated by households in urban areas has been increasing year by year, and various household food waste treatment facilities have emerged in the market. However, these facilities face several problems during the use process, mainly including problems such as a decrease in reaction efficiency and limitations in operating functionality.

[0003] Currently, many of the structures of common food waste treatment machine products are upright outer tanks with an inner cylinder (reaction chamber) having a rotatable blade at the bottom inside the cylinder. The blade rotates to crush and dry the food waste into small particles. Many food waste treatment facilities only perform treatment by the drying function, and the small particles themselves do not reach the reaction process. Even if there is a reaction, it is only a very small proportion. In addition, the structures of conventional food waste treatment facilities all have the middle blade for stirring, but the cylinder body is fixed and does not move, resulting in the following drawbacks. 1. Low stirring efficiency: Since only the blade stirs, the food waste may be concentrated in a part of the area of the cylinder body, and the food waste in other areas may not be stirred, resulting in uneven mixing and affecting the treatment effect. 2. The blade is likely to get caught: The fixed and non-moving cylinder body easily deposits the food waste somewhere, especially for food waste with a large volume or easy to get entangled, which may cause the blade to get caught, resulting in equipment failures or the need for frequent cleaning. 3. Blind spots in agitation: Fixed cylindrical bodies have blind spots where agitation is not possible. Residue can easily accumulate in these blind spots, potentially causing hygiene problems and unpleasant odors with long-term use. 4. High energy consumption: Uneven agitation prolongs processing time, requiring the equipment to complete the processing of food waste for a longer period, thus increasing energy consumption. 5. Uneven wear: Because the cylinder does not move, the blades travel along a fixed trajectory. This results in relatively heavy wear between the blades and the cylinder in some areas, while wear is relatively lighter in other areas, shortening the service life of the equipment. 6. Limited processing capacity: Due to low agitation efficiency and the blades being prone to getting stuck, the processing capacity of conventional food waste treatment equipment is limited, and it may not be possible to process large quantities or various types of food waste.

[0004] Furthermore, conventional household food waste processing equipment suffers from uneven agitation during the processing process, resulting in slow reaction rates and an inability to quickly decompose household food waste. This leads to excessively long retention times of food waste within the equipment, affecting processing efficiency and potentially causing unpleasant odors, thus reducing the practicality of the equipment. Conventional household food waste processing equipment also has relatively limited functionality, capable of performing only basic, single food waste processing operations and unable to perform flexible, multi-mode processing to improve the reaction rate of food waste. This limits the scope of application and processing effectiveness of the equipment, failing to meet the diverse needs of households. [Prior art documents] [Patent Documents]

[0005] [Patent Document 1] Patent No. 4049983 specification [Overview of the project] [Problems that the invention aims to solve]

[0006] To solve the above problems, the object of the present invention is to provide a food waste treatment facility that enables uniform stirring and direct reaction with food waste using the food waste treatment facility. The present invention provides a food waste treatment facility comprising: a cabin section having an outer cabin and an inner shaft installed and partitioned into at least one reaction chamber by a plurality of partition plates; a drive device connected to the inner shaft to which a plurality of paddle brackets are connected; a plurality of paddles installed on the plurality of paddle brackets; and a rotating module that supports and rotates the outer cabin, wherein, in accordance with the selection of a concentration mode or a propulsion mode, the drive device rotates the inner shaft to different angles, and accordingly the plurality of paddles in at least one rotational direction on the plurality of paddle brackets are pushed into the at least one reaction chamber, and the plurality of paddles process the food waste together with the rotation of the outer cabin. [Means for solving the problem]

[0007] According to one embodiment of the present invention, the cabin portion further includes a supply portion and a discharge portion communicating with each end thereof, the supply portion includes an upper cover for a sliding groove, a sliding groove, a circuit cover plate, a bearing, a central shaft connecting block, and a baffle, the discharge portion includes a holder and a sliding groove, and the cabin portion includes a discharge portion side cabin cover plate, a cabin plate, a cabin plate link, a quartz glass tube, an auxiliary cabin plate, and a supply portion side cabin cover plate.

[0008] According to one embodiment of the present invention, the drive unit includes a reduction gear and / or a motor, a shaft coupling connecting the drive unit and the internal shaft, and at least one shaft coupling block connecting the internal shaft which is divided into segments, and the rotary module includes a rubber wheelset, a frame plate, a rubber wheel, a gear, a motor, a motor holder, and a belt.

[0009] According to one embodiment of the present invention, both ends of each of the plurality of paddles are locked and fixed to two adjacent paddle brackets in the circumferential direction of the outer cabin, and the inner shaft of the at least one reaction chamber of the cabin can be divided into segments to be adapted to either the concentration mode or the propulsion mode, thereby pushing out the plurality of paddles in different rotational directions on the plurality of paddle brackets, and the plurality of paddles process food waste together with the rotation of the outer cabin.

[0010] According to one embodiment of the present invention, in the concentration mode, in the at least one reaction chamber, two adjacent paddle brackets of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of at least two paddles that process food waste together with the rotation of the outer cabin are not parallel to each other. In the propulsion mode, in the at least one reaction chamber, two adjacent paddle brackets of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of at least two paddles that process food waste together with the rotation of the outer cabin are parallel to each other.

[0011] The present invention provides a method for using a food waste treatment facility applicable to a food waste treatment facility, the method comprising the steps of: introducing a material to be reacted into a cabin section in which an outer cabin and an inner shaft are installed and which is partitioned into at least one reaction chamber by a plurality of partition plates; selecting a concentration mode or a propulsion mode, and accordingly activating a drive device in the at least one reaction chamber to rotate the inner shaft at different angles, the drive device being connected to the inner shaft and a plurality of paddle brackets being connected to the inner shaft, thereby pushing out the plurality of paddles in at least one rotational direction on the plurality of paddle brackets, and the plurality of paddles processing the food waste together with the rotation of the outer cabin; and activating a rotating device to which a rotating roll set is connected, and the rotating roll set contacts and rotates the outer cabin.

[0012] According to one embodiment of the present invention, in the concentrated mode, in the at least one reaction chamber, the two paddle brackets adjacent to each other in the circumferential direction of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of the at least two paddles that process food waste together with the rotation of the outer cabin are not parallel to each other.

[0013] According to one embodiment of the present invention, in the propulsion mode, in the at least one reaction chamber, two adjacent paddle brackets of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of the at least two paddles that process food waste together with the rotation of the outer cabin are parallel to each other.

[0014] According to one embodiment of the present invention, the inner shaft of the at least one reaction chamber of the cabin can be divided into segments to be combined into either the concentration mode or the propulsion mode, and accordingly the plurality of paddles in the plurality of paddle brackets in different rotation directions are pushed out, and the plurality of paddles process food waste together with the rotation of the outer cabin.

[0015] According to one embodiment of the present invention, the concentration mode or the propulsion mode each corresponds to a combination of the plurality of paddles in different rotational directions. [Brief explanation of the drawing]

[0016] [Figure 1] This is a schematic diagram showing the food waste treatment equipment of the present invention. [Figure 2] This is a schematic diagram showing the interior of the cabin section of the food waste processing equipment of the present invention. [Figure 3] This is an exploded perspective view showing the interior of the cabin section of the food waste processing equipment of the present invention. [Figure 4] This is an exploded perspective view showing the supply section of the food waste treatment equipment of the present invention. [Figure 5] This is an exploded perspective view showing the discharge section of the food waste treatment equipment of the present invention. [Figure 6] It is an exploded perspective view showing the cabin part of the garbage treatment equipment of the present invention. [Figure 7] It is an exploded perspective view showing the rotation module of the garbage treatment equipment of the present invention. [Figure 8] It is a schematic diagram showing the rotation direction of the paddle of the cabin part of the garbage treatment equipment of the present invention. [Figure 9] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention. [Figure 10] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention. [Figure 11] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention. [Figure 12] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention. [Figure 13] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention. [Figure 14] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention. [Figure 15] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention. [Figure 16] It is a schematic diagram showing the operation of the garbage treatment equipment of the present invention.

Embodiments for Carrying Out the Invention

[0017] The same reference numerals in different drawings represent the same or similar elements and therefore perform similar functions. For the sake of brevity, descriptions and details of well-known steps and elements are omitted. Furthermore, many specific details are provided in the following detailed description of the present invention to provide a complete understanding of its content. However, it should be understood that the present invention can be implemented even without these specific details. Also, well-known methods, programs, and components are not described in detail so as to ensure that each aspect of this application is clearly focused. Various examples of embodiments are described below. It should be understood that this description is not intended to limit the claims to the specific embodiments described. On the contrary, it is intended to include possible substitutes, modifications, and equivalents that fall within the spirit and scope of the invention as defined by the claims.

[0018] The terminology used in this invention is for the purpose of describing specific embodiments and is not intended to limit the scope of the invention. For example, where the terms “includes” or “composes” are used herein, they mean to specify the presence of the described features, wholes, operations, elements and / or components, but it is not intended that the presence or addition of one or more other features, wholes, operations, elements, components and / or parts thereof is excluded.

[0019] The embodiments of the present invention will be clearly and completely described below with reference to the drawings of the embodiments, and the embodiments described are clearly only some, not all, embodiments of the present invention. All other embodiments that can be easily obtained by those skilled in the art without expedient effort based on the embodiments described in the specification are all within the scope of protection of the present invention.

[0020] While the following description includes many specific details to allow for a full understanding of the present invention, the present invention may be carried out in other forms different from those described herein, and those skilled in the art will be able to draw analogies without departing from the spirit of the invention; therefore, the present invention is not limited to the specific embodiments disclosed below.

[0021] Next, the present invention will be described in detail with reference to schematic diagrams. When detailing embodiments of the present invention, for the sake of clarity, cross-sectional diagrams showing the structure of device components will be partially enlarged, but not according to general proportions. The relative sizes of the device components do not represent their actual sizes, and the schematic diagrams are merely illustrative and should not limit the scope of protection of the present invention. Furthermore, actual products corresponding to this application should include three-dimensional dimensions of length, width, and height.

[0022] As shown in Figures 1 to 3, the food waste processing equipment 1000 includes a cabin section 1100 in which an outer cabin 1110 and an inner shaft 1120 are installed and partitioned into at least one reaction chamber by a plurality of partition plates 1130; a drive device 1310 connected to the inner shaft 1120 to which a plurality of paddle brackets 1140 are connected; a plurality of paddles 1141 installed on the plurality of paddle brackets 1140; and a rotating module 1150 that supports and rotates the outer cabin 1110. The greatest feature of the present invention is that the outer cabin 1110 is rotated by the rotating module 1150, the plurality of paddles 1141 are fixed relative to the plurality of paddle brackets 1140, and the movement of food waste inside is facilitated simply by changing the angle of rotation to match the rotation of the outer cabin 1110. Furthermore, depending on the selection of the concentration mode or the propulsion mode, the drive unit 1310 rotates the inner shaft 1120 to different angles, thereby pushing at least one of the paddles 1141 in the rotational direction of the paddle bracket 1140 into the at least one reaction chamber, and the paddles 1141 process the food waste together with the rotation of the outer cabin 1110. The concentration mode can be used for powerful stirring and crushing of food waste, and the propulsion mode can be used to gradually propel or discharge the processed food waste to the next processing stage, adapting to different processing needs by adjusting the rotation angle of the inner shaft 1120, thereby increasing the flexibility and adaptability of the equipment.

[0023] As shown in Figures 4 to 6, the food waste treatment equipment of the present invention further includes a supply section 1200 and a discharge section 1300. As shown in Figure 1, the supply section 1200 and the discharge section 1300 are connected to both ends of the cabin section 1100, respectively. The supply section 1200 includes a sliding groove upper cover 1210, a sliding groove 1220, a circuit cover plate 1230, a bearing 1240, a central shaft connection block 1250, and a baffle 1260. The opening of the baffle 1260, which has a specific shape (e.g., fan-shaped), is used to control the rate and amount of supply, prevent excessive amounts of reactant from simultaneously entering the cabin section 1100, and ensure the efficiency and effectiveness of the treatment. The discharge section 1300 includes a holder 1320 and a sliding groove 1330, and the cabin section 1100 includes a discharge section side cabin cover plate 1111, a cabin plate 1112, a cabin plate link 1113, a quartz glass tube 1114, an auxiliary cabin plate 1115, and a supply section side cabin cover plate 1116, the quartz glass tube 1114 being used to observe the photocatalytic reaction.

[0024] As shown in Figures 3 and 7, the drive unit 1310 includes a reducer and / or motor that ensures the rotational speed and torque of the inner shaft 1120 are precisely adjusted according to the needs and that the appropriate power can be provided to drive the equipment; a shaft coupling that connects the drive unit 1310 to the inner shaft 1120 and reduces mechanical wear; and at least one shaft connection block that connects the segmented inner shaft 1120 and is adapted to different operating modes (e.g., concentrated mode or the propulsion mode) by flexible combination and adjustment according to the needs. Since the concentrated mode or the propulsion mode each corresponds to a combination of the plurality of paddles in different rotation directions, the equipment is adjusted according to different processing needs and the most preferred processing effect is achieved. The rotary module 1150 includes a rubber wheelset 1151, a frame plate 1152, a rubber wheel 1153, a gear 1154, a motor 1155, a motor holder 1156, and a belt. The reduction gear can be driven by a stepping motor, and a belt (not shown) is connected between gear 1154 and motor 1155 to transmit rotation, thereby rotating the gear and a coaxial rubber wheel 1153, which in turn rotates the outer cabin 1110. These structures allow the food waste processing equipment to flexibly and precisely control the movement of the inner shaft and paddle in different operating modes, ensuring efficiency and stability in the food waste processing process. Furthermore, the design of the rubber wheel 1153 and the reduction gear provides effective support and dynamic adjustment, further enhancing the performance and reliability of the equipment.

[0025] Figure 8 is a schematic diagram showing the rotation direction of the paddles in the cabin section of the food waste processing equipment of the present invention, and referring to Figure 1, both ends of the plurality of paddles 1141 are locked and fixed to two adjacent paddle brackets 1140 in the circumferential direction of the outer cabin 1110. The inner shaft (not shown) in at least one reaction chamber of the cabin section 1100 can be divided into segments to be set to either a concentration mode or a propulsion mode, and accordingly the plurality of paddles 1141 in different rotation directions on the plurality of paddle brackets 1140 are pushed out, and the plurality of paddles 1141 process food waste together with the rotation of the outer cabin 1110. As shown in Figure 8, when there are two reaction chambers, the front reaction chamber may be set to propulsion mode, in which case the multiple paddles 1141 on the multiple paddle brackets 1140 in different rotation directions are pushed out and rotate simultaneously with the outer cabin 1110, and by making the rotation directions of the multiple paddles 1141 in the front reaction chamber parallel to each other, the material to be reacted is pushed into the rear reaction chamber, ensuring that the food waste to be reacted moves smoothly within the equipment and preventing clogging and stagnation. The rear reaction chamber may be set to concentration mode, in which case the multiple paddles 1141 on the multiple paddle brackets 1140 in different rotation directions are pushed out, and the multiple paddles 1141 process the food waste together with the rotation of the outer cabin 1110, and by making the rotation directions of the multiple paddles 1141 in the rear reaction chamber not parallel to each other, the material to be reacted is concentrated in the center, which helps in sufficient mixing and reaction of the food waste and improves the effectiveness and efficiency of the processing.

[0026] Furthermore, by allowing selection of either a concentrated mode or a propulsion mode within different reaction chambers depending on the needs, the equipment can flexibly adapt to the food waste processing needs at different stages. For example, in the early stages of the process, if it is necessary to send food waste to the reaction chamber at the rear, the propulsion mode can be selected, and in the later stages of the process, if concentrated mixing is required, the concentrated mode can be selected. This design enhances the flexibility and adaptability of the equipment. The design of multiple reaction chambers enables different stages of food waste processing to be carried out within the same equipment. The propulsion mode ensures that food waste flows smoothly from the front reaction chamber to the rear reaction chamber, while the concentrated mode ensures sufficient mixing and reaction of the food waste in the rear reaction chamber. Through such continuous operation, the efficiency and quality of the reaction are enhanced. The automatic operation of the internal shaft and paddles and their mode switching reduce the need for human intervention; the equipment can spontaneously complete the food waste propulsion and concentrated operations simply by the operator setting the mode, saving manpower and time costs.

[0027] As shown in Figures 9 to 11, in the concentrated mode, the drive unit 1310 rotates the inner shaft 1120 at different angles, thereby pushing the plurality of paddles 1141 in at least one rotational direction of the plurality of paddle brackets 1140 into the at least one reaction chamber, and the plurality of paddles 1141 process food waste together with the rotation of the outer cabin 1110. In the at least one reaction chamber, two adjacent paddle brackets 1140 in the circumferential direction of the outer cabin 1110 are located on either side of the centerline of each reaction chamber, and the rotational directions of at least two of the paddles 1141 that process food waste together with the rotation of the outer cabin 1110 are not parallel to each other. Furthermore, as shown in Figures 9 to 11, when the material to be reacted is introduced into the supply unit 1200 and enters the cabin unit 1100, the rotation directions of at least two paddles 1141, which process the food waste in conjunction with the rotation of the outer cabin 1110, are not parallel to each other, as they are positioned on both sides of the centerline of each reaction chamber. The concentration effect of the paddles 1141 allows the food waste to come into more sufficient contact with the reaction bacteria and reaction medium, improving the rate and quality of the reaction. As a result, it is possible to produce food waste that is less contaminated and odorless.

[0028] As shown in Figures 12 to 13, in the propulsion mode, the drive unit 1310 rotates the inner shaft 1120 at different angles, thereby pushing the plurality of paddles 1141 in at least one rotational direction of the plurality of paddle brackets 1140 into the at least one reaction chamber, and the plurality of paddles 1141 process the food waste together with the rotation of the outer cabin 1110. In the at least one reaction chamber, two of the paddle brackets 1140 adjacent to each other in the circumferential direction of the outer cabin 1110 are located on either side of the centerline of the reaction chamber, and the rotational directions of at least two of the paddles 1141 that process the food waste together with the rotation of the outer cabin 1110 are parallel to each other, thereby pushing the material to be reacted into the reaction chamber at the rear. In the rear reaction chamber, set to concentrated mode, the drive unit 1310 rotates the inner shaft 1120 at different angles, pushing out the paddles 1141 in at least one rotational direction on the paddle brackets 1140 corresponding to the rear reaction chamber, and the paddles 1141 process the food waste together with the rotation of the outer cabin 1110. The two adjacent paddle brackets 1140 are positioned on either side of the centerline of the reaction chamber, and the rotational directions of at least two of the paddles 1141 that process the food waste together with the rotation of the outer cabin 1110 are not parallel to each other, thereby concentrating the reactants in the center. As shown in Figure 13, in concentrated mode, the drive unit 1310 rotates the inner shaft 1120 at different angles, thereby pushing out the paddles 1141 in at least one rotational direction on the paddle brackets 1140, and the paddles 1141 process the food waste together with the rotation of the outer cabin 1110. Two adjacent paddle brackets 1140 in each reaction chamber are located on either side of the centerline of the reaction chamber, and the rotational directions of at least two of the paddles 1141 that process the food waste together with the rotation of the outer cabin 1110 are parallel to each other, thereby concentrating the reactants in the center of the reaction chamber and allowing the reaction to continue in each chamber.

[0029] As shown in Figures 14 and 15, the reactants are then reintroduced according to the needs, and when the reactants are introduced from the supply unit 1200 and enter the cabin unit 1100, the system is set to concentrated mode, and the drive unit 1310 rotates the inner shaft 1120 at different angles, pushing out the paddles 1141 in at least one rotational direction on the paddle brackets 1140 corresponding to the reaction chambers at the rear, and the paddles 1141 process the food waste together with the rotation of the outer cabin 1110. The rotational directions of at least two of the paddles 1141, which are located on either side of the centerline of each reaction chamber and process the food waste together with the rotation of the outer cabin 1110, are not parallel to each other, thereby concentrating the reactants in the center. As shown in Figure 16, after the reaction is complete, the system is set to propulsion mode, and the drive unit 1310 rotates the inner shaft 1120 to different angles, thereby pushing the plurality of paddles 1141 in at least one rotational direction on the plurality of paddle brackets 1140 into the at least one reaction chamber, and the plurality of paddles 1141 process the food waste together with the rotation of the outer cabin 1110. In the reaction chamber communicating with the discharge section 1300, the rotational directions of at least two of the paddles 1141, each located on either side of the centerline of the reaction chamber and processing the food waste together with the rotation of the outer cabin 1110, are parallel to each other, so that the reactants in the reaction chamber are pushed out to the discharge section 1300, and the discharge of the reactants is completed.

[0030] The present invention provides a method for using a food waste treatment facility applicable to food waste treatment equipment, the method comprising the following steps: Step 1, A reaction material is introduced into a cabin section, which is equipped with an outer cabin and an inner shaft and is partitioned into at least one reaction chamber by a plurality of partition plates. This provides a closed and separated environment, ensuring that the reaction material is processed stepwise in each reaction chamber, thus avoiding cross-contamination and mixing of food waste at different stages. Step 2, A concentrated mode or a propulsion mode is selected, and accordingly a drive device is activated in the at least one reaction chamber to rotate the inner shaft at different angles, the drive device is connected to the inner shaft and a plurality of paddle brackets are connected to the inner shaft, so that the plurality of paddles on at least one rotation direction in the plurality of paddle brackets are pushed out, and the plurality of paddles process the food waste together with the rotation of the outer cabin. This improves the quality and efficiency of the reaction and the smoothness of food waste transport. Step 3, A rotating device is activated to which a rotating roll set is connected, and the rotating roll set contacts and rotates the outer cabin. This maintains the agitation and movement of the food waste.

[0031] In the concentrated mode, in the at least one reaction chamber, the two paddle brackets adjacent to each other in the circumferential direction of the outer cabin are positioned on either side of the centerline of each reaction chamber, and the rotational directions of the at least two paddles that process the food waste in conjunction with the rotation of the outer cabin are not parallel to each other. The non-parallel movement of the paddles generates inward thrust, pushing the food waste from both sides towards the center of the reaction chamber. This helps to concentrate the reactants in the center of the reaction chamber, improving the mixing and uniformity of the food waste.

[0032] In the propulsion mode, in the at least one reaction chamber, the two paddle brackets adjacent to each other in the circumferential direction of the outer cabin are positioned on either side of the centerline of each reaction chamber, and the rotation directions of the at least two paddles that process the food waste in conjunction with the rotation of the outer cabin are parallel to each other. The design of the paddles with parallel rotation directions is effective in pushing the food waste forward along the longitudinal direction of the reaction chamber. Such a design ensures that the food waste can move from the supply end to the discharge end, enabling continuous processing and preventing food waste from accumulating in any area.

[0033] The inner shaft located in the at least one reaction chamber of the cabin can be combined into either a concentration mode or a propulsion mode, thereby pushing out the paddles in different rotational directions on the paddle brackets, and the paddles process food waste in conjunction with the rotation of the outer cabin. Depending on the needs, an appropriate mode can be selected to process different types of food waste or different stages of the reaction process.

[0034] The aforementioned concentration mode or propulsion mode corresponds to a combination of the multiple paddles in different rotation directions. Designing different paddle rotation directions can optimize for different processing needs and enhance the response effect. For example, the paddle rotation direction in concentration mode helps to improve the uniformity and mixing effect of food waste. The paddle rotation direction in propulsion mode can promote continuous processing and transfer of food waste, thereby increasing the overall processing efficiency.

[0035] Based on the above, the food waste processing equipment and its usage method provided by the present invention effectively solve problems such as low reaction efficiency, clogging, and limited operability that exist in conventional equipment, thanks to its clever design and innovative structure. The cabin section of the equipment is equipped with an outer cabin and an inner shaft, and is partitioned into at least one reaction chamber by multiple partition plates, thereby providing food waste processing space for multiple reaction chambers. The drive device precisely rotates the inner shaft at different angles, and the installation of multiple paddle brackets and paddles enables flexible switching between concentration mode and propulsion mode. In concentration mode, paddles rotating in a non-parallel direction can concentrate the reaction material in the center, ensuring sufficient mixing of food waste and a uniform reaction. In propulsion mode, paddles rotating in a parallel direction can effectively propel the food waste and prevent clogging.

[0036] Furthermore, the design of the supply and discharge sections facilitates smoother transport of food waste and reduces operational complexity. The stable support and rotational function of the rotating module further enhance the stability and reliability of the equipment. In short, by comprehensively considering each stage of food waste processing, the equipment provides an efficient, reliable, and operationally flexible response solution for food waste.

[0037] Various embodiments of the present invention have been described in detail above. However, those skilled in the art can make various modifications to the above embodiments without departing from the scope of the present invention. Therefore, the scope of the present invention should not be limited to the embodiments described, but should be defined by the claims and equivalents described below. [Explanation of Symbols]

[0038] 1000 Food waste disposal facilities 1100 Cabin Section 1110 Outer cabin 1111 Exhaust Cabin Cover Plate 1112 Axis connection block 1113 Cabin Plate Link 1114 Quartz glass tube 1115 Auxiliary cabin plate 1116 Supply Cabin Cover Plate 1120 Inner shaft 1130 Partition Plate 1140 Paddle Bracket 1141 paddles 1150 Rotation Module 1151 Rubber Wheelset 1152 Frame Plate 1153 Rubber Wheel 1154 Gear 1155 Motor 1156 Motor Holder 1200 Supply section 1210 Top cover for sliding groove 1220 sliding groove 1230 Circuit Cover Plate 1240 bearing 1250 Central axis connection block 1260 Baffle 1300 Discharge section 1310 Drive unit 1320 Holder 1330 Sliding groove

Claims

1. A food waste disposal facility, The cabin section, which has an outer cabin and an inner shaft installed and is divided into at least one reaction chamber by multiple partition plates, A drive device connected to the internal shaft to which multiple paddle brackets are connected, Multiple paddles mounted on the aforementioned multiple paddle brackets, Includes a rotating module that supports and rotates the outer cabin, A food waste processing facility comprising: a drive device that rotates the inner shaft at different angles in conjunction with the selection of a concentrated mode or a propulsion mode, thereby pushing the plurality of paddles in at least one rotational direction on the plurality of paddle brackets into the at least one reaction chamber, and the plurality of paddles processing food waste in conjunction with the rotation of the outer cabin.

2. The cabin section further includes a supply section and a discharge section that communicate with each end of the cabin section, The supply unit includes a sliding groove upper cover, a sliding groove, a circuit cover plate, a bearing, a central shaft connection block, and a baffle. The discharge section includes a holder and a sliding groove. The food waste treatment apparatus according to claim 1, wherein the cabin section includes a discharge-side cabin cover plate, a cabin plate, a cabin plate link, a quartz glass tube, an auxiliary cabin plate, and a supply-side cabin cover plate.

3. The drive device is A gearbox and / or motor, A shaft coupling connecting the drive device and the internal shaft, It includes at least one shaft connection block connecting the internal shafts which are divided into segments, The aforementioned rotating module is Rubber wheels and axles, Frame plate and Rubber wheels and Gears and, Motor and, Motor holder and The food waste treatment apparatus according to claim 2, further comprising a belt.

4. Both ends of each of the aforementioned paddles are locked and secured to two adjacent paddle brackets in the circumferential direction of the outer cabin. The food waste processing apparatus according to claim 1, wherein the inner shaft of the at least one reaction chamber of the cabin portion can be divided into segments to be adapted to either the concentration mode or the propulsion mode, and accordingly the plurality of paddles on different rotational directions in the plurality of paddle brackets are pushed out, and the plurality of paddles process food waste together with the rotation of the outer cabin.

5. In the aforementioned concentration mode, In the at least one reaction chamber, the two paddle brackets adjacent to each other in the circumferential direction of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of the at least two paddles that process food waste together with the rotation of the outer cabin are not parallel to each other. In the aforementioned propulsion mode, The food waste processing apparatus according to claim 4, wherein in the at least one reaction chamber, two adjacent paddle brackets of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of at least two paddles that process food waste together with the rotation of the outer cabin are parallel to each other.

6. A method for using a food waste treatment facility, which is applicable to a food waste treatment facility, wherein the method is: The process involves introducing the reactants into a cabin section, which is equipped with an outer cabin and an inner shaft and is divided into at least one reaction chamber by multiple partition plates. A step of selecting a concentration mode or a propulsion mode, and accordingly activating a drive device in the at least one reaction chamber to rotate the inner shaft at different angles, the drive device connecting to the inner shaft and a plurality of paddle brackets connecting to the inner shaft, thereby pushing out the plurality of paddles in at least one rotational direction on the plurality of paddle brackets, and the plurality of paddles processing food waste together with the rotation of the outer cabin, A method for using a food waste treatment facility, comprising the steps of: starting a rotating device to which a rotating roll set is connected, and rotating the outer cabin by contacting it with the rotating roll set.

7. In the aforementioned concentration mode, A method of using the food waste processing apparatus according to claim 6, wherein in the at least one reaction chamber, two adjacent paddle brackets of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of at least two paddles that process food waste together with the rotation of the outer cabin are not parallel to each other.

8. In the aforementioned propulsion mode, A method of using the food waste processing apparatus according to claim 6, wherein in the at least one reaction chamber, two paddle brackets adjacent to each other in the circumferential direction of the outer cabin are located on either side of the centerline of each reaction chamber, and the rotation directions of at least two paddles that process food waste together with the rotation of the outer cabin are parallel to each other.

9. A method of using the food waste processing apparatus according to claim 6, wherein the inner shaft of the at least one reaction chamber of the cabin portion can be divided into segments to be adapted to either the concentration mode or the propulsion mode, and accordingly the plurality of paddles on the plurality of paddle brackets in different rotation directions are pushed out, and the plurality of paddles process food waste together with the rotation of the outer cabin.

10. The method of using the food waste processing equipment according to claim 6, wherein the concentration mode or the propulsion mode each corresponds to a combination of the plurality of paddles in different rotation directions.

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