Batching mechanism and method for producing emulsified balanced oil powder

Abstract

The invention relates to the technical field of mixing devices, in particular to a batching mechanism and method for emulsified balanced oil powder production, a batching assembly comprises a batching shell, an oil material feeding pipe, a powder material feeding pipe, a supporting barrel, dispersing blades, a screw and a stirring structure, the batching shell is fixed to a supporting frame, the oil material feeding pipe is arranged on the batching shell, and the powder material feeding pipe is arranged on the powder material feeding pipe; the powder feeding pipe is arranged on the batching shell, the multiple powder feeding assemblies are connected with the powder feeding pipe, the multiple oil feeding assemblies are connected with the oil feeding pipe, the screw is rotationally arranged in the batching shell, the output end of the first motor is connected with the screw, the supporting barrel is fixed in the supporting shell and located on the outer side of the screw, and the stirring structure is connected with the first motor. And the dispersing blades are fixed at the tops of the dispersing blades. The proportioning accuracy and the mixing uniformity in the emulsified balanced oil powder production process are improved, and the oil powder quality is improved.

Description

Technical Field

[0001] This invention relates to the field of mixing equipment technology, and in particular to a batching mechanism and method for producing emulsified and balanced oil powder. Background Technology

[0002] The production of emulsified and balanced oil powder typically employs a specialized batching mechanism. This mechanism consists of a high-precision electronic metering system, an automatic feeding device, a mixing uniformity control system, and a central integrated PLC operating system, which can precisely control the proportion and addition sequence of various raw materials.

[0003] In the existing oil powder production process, the powder is not sufficiently dispersed, thus failing to mix adequately with the oil, which reduces the quality of the produced oil powder. Summary of the Invention

[0004] The purpose of this invention is to provide a batching mechanism and method for producing emulsified and balanced oil powder, which aims to improve the accuracy of batching and the uniformity of mixing during the production of emulsified and balanced oil powder, thereby improving the quality of the oil powder.

[0005] To achieve the above objectives, the present invention provides a batching mechanism for producing emulsified and balanced oil powder, including a support component, multiple powder feeding components, multiple oil feeding components, and a batching component. The support component includes a base and a support frame, the support frame being fixedly connected to the base and located on top of the base. The batching assembly includes a batching shell, an oil feed pipe, a powder feed pipe, a support cylinder, dispersing blades, a screw, a first motor, and a stirring structure. The batching shell is fixed on the support frame. The oil feed pipe is disposed on the batching shell, and the powder feed pipe is disposed on the batching shell. Multiple powder feeding components are connected to the powder feed pipe, and multiple oil feeding components are connected to the oil feed pipe. The screw is rotatably disposed inside the batching shell. The output end of the first motor is connected to the screw. The support cylinder is fixed inside the support shell and located outside the screw. The stirring structure is connected to the first motor and located outside the support cylinder. The dispersing blades are fixed to the top of the dispersing blades.

[0006] The powder feeding assembly includes a feeding shell, a feeding box, and a feeding valve. The feeding shell is connected to the powder feed pipe, the feeding valve is disposed inside the feeding shell, and the feeding box is connected to the feeding valve.

[0007] The powder feed pipe includes a pipe body, a rotating disk, and a rotating motor. The pipe body has multiple powder outlet holes. The rotating disk is rotatably disposed below the pipe body. The output end of the rotating motor is connected to the rotating disk. The rotating disk is used to control the opening and closing of the powder outlet holes.

[0008] The rotating disk includes a disk body, multiple limiting blocks, and multiple baffles. The multiple limiting blocks are fixed on the disk body and are used to cooperate with the limiting grooves on the tube body. The multiple baffles are respectively disposed on one side of the multiple limiting blocks and are used to close the powder outlet hole.

[0009] The rotating disk also includes multiple sealing rings, which are respectively disposed on one side of the multiple baffles.

[0010] The ingredient dispensing assembly also includes a protective shell, which is disposed on the outside of the first motor.

[0011] The protective shell includes a protective shell body and a heat sink, with the heat sink disposed on the inner side of the protective shell body.

[0012] The stirring structure includes a support arm, a rotating cylinder, and rotating blades. The support arm is connected to the output end of the first motor. The rotating cylinder is fixedly connected to the support arm and located outside the support cylinder. The rotating blades are fixed to the outside of the rotating cylinder.

[0013] The rotating blades include primary blades and secondary blades. The primary blades are located above the rotating cylinder, and the secondary blades are located below the rotating cylinder. The number of primary blades is greater than the number of secondary blades.

[0014] Secondly, the present invention also provides a batching method for producing emulsified and balanced oil powder, using the aforementioned batching mechanism for producing emulsified and balanced oil powder.

[0015] This invention discloses a batching mechanism and method for producing emulsified and balanced oil powder. The base is made of high-strength metal material to ensure the stability and shock resistance of the entire machine during operation. The support frame is vertically fixed to the top of the base and is securely assembled by welding or bolting, providing a reliable installation platform for the various functional modules above. The batching shell is cylindrical in shape and is firmly installed on the support frame with fasteners, forming a sealed mixing chamber inside to prevent material splashing or environmental pollution. Oil feed pipes and powder feed pipes are respectively located on the side wall or top of the batching shell for introducing liquid oil and solid powder, respectively. Multiple powder feeding components are connected to the powder feed pipes, allowing precise control of the addition amount of different types of powder according to the formula requirements; similarly, multiple oil feeding components are connected to the oil feed pipes, enabling quantitative supply and flexible switching of multiple oil sources. Inside the batching shell, there is a screw driven by a first motor. This screw penetrates the mixing chamber axially and has helical blades on its surface, which can axially push and initially mix the materials during rotation. A support cylinder is fitted around the screw, fixed to the inner wall of the mixing chamber, serving to stabilize screw operation and separate the internal and external flow fields. Outside the support cylinder, a stirring structure driven by the same first motor or a separate second motor is installed. This stirring structure can be a paddle type, anchor type, or frame type agitator, used to strongly shear and circulate the material that has entered the outer area of ​​the mixing chamber, further improving the mixing uniformity. Dispersing blades are fixedly installed at the top of the screw or near the discharge end. These dispersing blades have a radial or multi-blade structure, and when rotating at high speed, they can finely disperse localized high-concentration areas, effectively preventing powder agglomeration or oil-water separation, thereby ensuring that the final emulsified, balanced oil powder has high uniformity and stability.

[0016] This invention significantly improves the accuracy of ingredient proportioning, the uniformity of mixing, and the level of automation in the production of emulsified and balanced oil powder by integrating multiple mixing mechanisms such as multi-channel feeding, screw propulsion, internal and external dual-stage stirring, and top dispersion. Attached Figure Description

[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0018] Figure 1 This is a structural diagram of a batching mechanism for producing emulsified and balanced oil powder according to the present invention.

[0019] Figure 2 This is a first cross-sectional view of a batching mechanism for producing emulsified and balanced oil powder according to the present invention.

[0020] Figure 3 yes Figure 2 A magnified view of detail A.

[0021] Figure 4 This is a second cross-sectional view of a batching mechanism for producing emulsified and balanced oil powder according to the present invention.

[0022] Figure 5 yes Figure 4 A magnified view of detail B.

[0023] 101. Base, 102. Support frame, 103. Ingredient shell, 104. Oil feed pipe, 105. Powder feed pipe, 106. Support cylinder, 107. Dispersing blade, 108. Screw, 109. Stirring structure, 110. Feeding shell, 111. Feeding box, 112. Feeding valve, 113. Pipe body, 114. Rotating disc, 115. Rotating motor, 116. Disc body, 117. Limiting block, 118. Baffle, 119. Sealing ring, 121. Protective shell body, 122. Heat sink, 123. Support arm, 124. Rotating cylinder, 125. Rotating blade, 126. First-stage blade, 127. Second-stage blade. Detailed Implementation

[0024] Embodiments of the present invention are described in detail below, examples of which are illustrated in the accompanying drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the accompanying drawings are exemplary and intended to explain the present invention, and should not be construed as limiting the present invention.

[0025] In the description of this invention, it should be understood that the terms "length," "width," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicating orientation or positional relationships, are based on the orientation or positional relationships shown in the accompanying drawings and are only for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of the invention. Furthermore, in the description of this invention, "a plurality of" means two or more, unless otherwise explicitly specified.

[0026] First Embodiment Please see Figures 1-5This invention provides a batching mechanism for producing emulsified and balanced oil powder, including a support assembly, multiple powder feeding assemblies, multiple oil feeding assemblies, and a batching assembly. The support assembly includes a base 101 and a support frame 102, with the support frame 102 fixedly connected to the base 101 and located on top of the base 101. The batching assembly includes a batching shell 103, an oil feed pipe 104, a powder feed pipe 105, a support cylinder 106, dispersing blades 107, a screw 108, a first motor, and a stirring structure 109. The batching shell 103 is fixed to the support frame 102, and the oil feed pipes 104 are arranged on the support cylinder 106. On the ingredient shell 103, the powder feed pipe 105 is disposed on the ingredient shell 103, a plurality of powder feeding components are connected to the powder feed pipe 105, a plurality of oil feeding components are connected to the oil feed pipe 104, the screw 108 is rotatably disposed inside the ingredient shell 103, the output end of the first motor is connected to the screw 108, the support cylinder 106 is fixed inside the support shell and located outside the screw 108, the stirring structure 109 is connected to the first motor and located outside the support cylinder 106, and the dispersing blade 107 is fixed on the top of the dispersing blade 107.

[0027] In this embodiment, the support assembly serves as the basic load-bearing structure of the entire device, including a base 101 and a support frame 102. The base 101 is made of high-strength metal material to ensure the stability and shock resistance of the entire machine during operation. The support frame 102 is vertically fixed to the top of the base 101 and is securely assembled by welding or bolting, providing a reliable installation platform for the various functional modules above.

[0028] The mixing tank 103 is cylindrical in shape and is securely mounted on the support frame 102 with fasteners. It forms a sealed mixing chamber to prevent material splashing or environmental contamination. Oil inlet pipe 104 and powder inlet pipe 105 are respectively located on the side wall or top of the mixing tank 103 for introducing liquid oil and solid powder, respectively. Multiple powder feeding components are connected to the powder inlet pipe 105, allowing for precise control of the amount of different types of powder added according to the formula requirements. Similarly, multiple oil feeding components are connected to the oil inlet pipe 104, enabling quantitative supply and flexible switching of multiple oil streams.

[0029] Inside the mixing chamber 103, a screw 108 driven by a first motor is installed. The screw 108 extends axially through the mixing chamber and has helical blades on its surface, enabling it to axially push and initially mix the materials during rotation. A support cylinder 106 is fitted around the screw 108 and fixed to the inner wall of the mixing chamber 103, stabilizing the screw 108's operation and separating the internal and external flow fields. Outside the support cylinder 106, a stirring structure 109 driven by the same first motor or a separate second motor is installed. This stirring structure 109 can be a paddle-type, anchor-type, or frame-type agitator, used for powerful shearing and circulating mixing of the materials that have entered the outer area of ​​the mixing chamber, further improving the mixing uniformity. Dispersing blades 107 are fixedly installed at the top of the screw 108 or near the discharge end. The dispersing blade 107 has a radial or multi-blade structure. When rotating at high speed, it can finely disperse local high-concentration areas, effectively preventing powder agglomeration or oil-water separation, thereby ensuring that the final emulsified and balanced oil powder has high uniformity and stability.

[0030] This invention significantly improves the accuracy of ingredient proportioning, the uniformity of mixing, and the level of automation in the production of emulsified and balanced oil powder by integrating multiple mixing mechanisms such as multi-channel feeding, screw 108 propulsion, internal and external dual-stage stirring, and top dispersion.

[0031] The powder feeding assembly includes a feeding shell 110, a feeding box 111, and a feeding valve 112. The feeding shell 110 is connected to the powder feed pipe 105, the feeding valve 112 is disposed inside the feeding shell 110, and the feeding box 111 is connected to the feeding valve 112.

[0032] The feeding shell 110 is a hollow cylindrical structure, one end of which is securely connected to the powder feed pipe 105 via a flange or quick-connect fitting to ensure that the powder does not leak or block during the conveying process. The feeding valve 112 is installed inside the feeding shell 110, preferably a pneumatic butterfly valve, rotary valve, or slide valve, and is used to control the start and stop of the flow of powder from the feeding box 111 to the batching system and to regulate the flow rate. The feeding box 111 is located above the feeding valve 112 and is usually a storage bin with a conical bottom, which facilitates the smooth falling of powder by gravity. It can be equipped with a vibrator or an arch-breaking device to prevent material bridging or agglomeration, thereby ensuring continuous and stable feeding performance.

[0033] The powder feed pipe 105 includes a pipe body 113, a rotating disk 114 and a rotating motor 115. The pipe body 113 has multiple powder outlet holes. The rotating disk 114 is rotatably disposed below the pipe body 113. The output end of the rotating motor 115 is connected to the rotating disk 114. The rotating disk 114 is used to control the opening and closing of the powder outlet holes.

[0034] The tube body 113 is a cylindrical or square hollow shell with multiple powder outlet holes evenly distributed along its circumference or bottom. Each powder outlet hole corresponds to a powder input channel, allowing multiple different types or batches of powder to be mixed as needed through independent control. A rotatable rotating disk 114 is located below the tube body 113. This rotating disk 114 is driven by a rotating motor 115 fixedly installed outside the tube body 113. Its output shaft passes through the bottom of the tube body 113 and is fixedly connected to the center of the rotating disk 114, thereby driving the entire rotating disk 114 to rotate uniformly or intermittently around its axis. By precisely controlling the rotation angle and speed of the rotating disk 114, the opening state and duration of each powder outlet hole can be dynamically adjusted, thereby achieving high-precision control of the amount of each powder added.

[0035] The rotating disk 114 includes a disk body 116, a plurality of limiting blocks 117 and a plurality of baffles 118. The plurality of limiting blocks 117 are fixed on the disk body 116 and are used to cooperate with the limiting grooves on the tube body 113. The plurality of baffles 118 are respectively disposed on one side of the plurality of limiting blocks 117 and are used to close the powder outlet hole.

[0036] The disc body 116, serving as the main body of the rotating disc 114, is made of wear-resistant and corrosion-resistant engineering plastics or stainless steel, possessing excellent mechanical strength and chemical stability. Multiple limiting blocks 117 are equidistantly fixed to the upper surface or edge of the disc body 116 along its circumference, forming a mating structure with the limiting grooves inside the tube body 113. This limits the rotational stroke of the rotating disc 114, ensuring it moves only within a preset angle range, preventing misalignment of the powder outlet or control failure due to excessive rotation. Each limiting block 117 has a baffle 118 on one side. The baffle 118 is fan-shaped or arc-shaped, its size matching the powder outlet. When the rotating disc 114 rotates to a specific position, the baffle 118 precisely covers the corresponding powder outlet, thus sealing the channel; conversely, when the baffle 118 is removed, the powder outlet opens, allowing powder to flow into the mixing shell 103.

[0037] The rotating disk 114 also includes a plurality of sealing rings 119, which are respectively disposed on one side of the plurality of baffles 118.

[0038] To further improve the system's sealing performance and prevent powder leakage due to gravity or airflow disturbances when not in operation, the rotating disk 114 also adds a sealing ring 119 to the side of each baffle 118 facing the powder outlet (i.e., the contact surface with the inner wall of the tube body 113). These sealing rings 119 are preferably made of flexible powder-resistant materials such as silicone, fluororubber, or polytetrafluoroethylene, which have good resilience and wear resistance. They can form an effective airtight and powder-tight barrier when the baffle 118 presses against the powder outlet, significantly reducing the risk of dust escape and reducing cross-contamination of materials.

[0039] The ingredient dispensing assembly also includes a protective shell, which is disposed on the outside of the first motor.

[0040] The protective shell includes a protective shell body 121 and a heat sink 122, with the heat sink 122 disposed on the inner side of the protective shell body 121.

[0041] The protective shell consists of two parts: a protective shell body 121 and heat sinks 122. The protective shell body 121 is made of high-strength, corrosion-resistant metal material (such as aluminum alloy or stainless steel), and has an overall cylindrical or shell-like structure. It tightly wraps around the first motor and is fixedly connected to the support frame 102 or the dispensing shell 103 by bolts or clips, ensuring its stability during high-speed operation. To effectively solve the problem of heat accumulation caused by prolonged motor operation, multiple heat sinks 122 are integrated on the outer circumference or top of the protective shell body 121. These heat sinks 122 are arranged in a fin-like or wavy pattern, significantly increasing the contact area between the shell and the air, enhancing heat dissipation efficiency under natural convection or forced air cooling conditions, thereby maintaining the motor's continuous operation within a safe temperature rise range and ensuring long-term stable operation of the system.

[0042] The stirring structure 109 includes a support arm 123, a rotating cylinder 124, and rotating blades 125. The support arm 123 is connected to the output end of the first motor. The rotating cylinder 124 is fixedly connected to the support arm 123 and is located outside the support cylinder 106. The rotating blades 125 are fixed to the outside of the rotating cylinder 124.

[0043] One end of the support arm 123 is rigidly connected to the output end of the first motor via a coupling or flange, and the other end extends outward and is fixedly connected to the rotating cylinder 124, so that the entire stirring structure 109 can rotate synchronously with the motor. The rotating cylinder 124 is a hollow cylindrical component, which is sleeved on the outside of the aforementioned support cylinder 106, with an appropriate gap between them to form an annular mixing area, which is conducive to the full flow and exchange of materials in the radial and axial directions.

[0044] The rotating blade 125 includes a primary blade 126 and a secondary blade 127. The primary blade 126 is disposed above the rotating cylinder 124, and the secondary blade 127 is disposed below the rotating cylinder 124. The number of primary blades 126 is greater than the number of secondary blades 127.

[0045] Rotating blades 125 are fixedly installed circumferentially on the outer side of the rotating drum 124. These blades 125 adopt a modular, layered layout, specifically including primary blades 126 and secondary blades 127. Primary blades 126 are located in the upper region of the rotating drum 124, near the powder and oil inlet, primarily responsible for initial mixing, breaking up powder clumps, and promoting initial wetting of the powder and oil. Secondary blades 127 are located in the lower region of the rotating drum 124, near the outlet, focusing on enhancing shear emulsification, homogenization, and discharging uniformly mixed finished material. Notably, the number of primary blades 126 exceeds that of secondary blades 127. This design is based on the principle of material mixing dynamics: in the initial feeding stage, the powder is prone to clumping and uneven distribution, requiring more blades to provide high-frequency disturbance and dispersion; while in the later mixing stage, the material tends to be uniform, and too many blades would increase unnecessary energy consumption and shear heat. Therefore, by differentiating the number of blades, both mixing efficiency and energy utilization are improved.

[0046] Second Embodiment The present invention also provides a batching method for producing emulsified and balanced oil powder, which employs the aforementioned batching mechanism for producing emulsified and balanced oil powder.

[0047] The control system is activated, and each powder feeding component and oil feeding component undergoes a self-check to confirm that the feeding valve 112, metering pump, rotary motor 115, and first motor, among other actuators, are in standby mode. Based on the preset formula, the mixing ratio parameters of various powders and oils, the feeding sequence, stirring time, and rotation speed, among other process conditions, are input into the human-machine interface or central control unit.

[0048] The feeding valve 112 in the corresponding powder feeding assembly is opened, allowing the powder stored in the feeding box 111 to enter the feeding shell 110 under gravity or auxiliary vibration, and then be introduced into the batching shell 103 through the powder feed pipe 105. During this process, the control system drives the rotary motor 115 to rotate the rotating disk 114, precisely controlling the number and duration of opening of each powder outlet according to the set angle, realizing independent metering and sequential feeding of multiple powders. The synergistic effect of the sealing ring 119 and the baffle 118 effectively prevents powder leakage or cross-contamination, ensuring feeding accuracy within ±0.5%.

[0049] Simultaneously or shortly after the powder is added, the corresponding oil feeding component is activated. The liquid oil in the storage tank is quantitatively transported to the batching tank 103 via the oil inlet pipe 104 through the metering pump. The oil can be added all at once, or it can be sprayed in multiple batches according to process requirements to optimize the wetting effect and avoid local over-oiling that could lead to clumping.

[0050] Once the powder and oil have entered the mixing tank 103, the first motor is started, driving the screw 108 and the stirring structure 109 to operate synchronously. The screw 108 performs initial mixing while axially pushing the materials; the outer rotating cylinder 124 drives the first-stage blades 126 and second-stage blades 127 to rotate at high speed, forming a multi-stage shear flow field from top to bottom. Among them, the numerous first-stage blades 126 rapidly disperse and lubricate the newly added powder in the upper region, while the second-stage blades 127 enhance emulsification and homogenization in the lower region. Combined with the top disturbance of the dispersing blades 107, agglomeration is completely eliminated, achieving uniform coating of oil and powder at the microscale.

[0051] Once the mixing time reaches the preset value and the online sensors (such as torque, temperature, or image recognition modules) indicate that the mixing uniformity meets the standard, the motor stops running, and the discharge valve at the bottom of the ingredient tank 103 is opened to discharge the emulsified and balanced oil powder to the next process (such as granulation, drying, or packaging). Subsequently, the system can automatically execute a cleaning procedure, using compressed air or cleaning fluid to purge the pipelines and chambers, preparing for the next batch of production.

[0052] The batching method provided by this invention, through high coordination with a dedicated batching mechanism, achieves closed-loop control of the entire process from raw material addition and dynamic metering to multi-stage mixing. This not only significantly improves the product quality consistency and production efficiency of emulsified and balanced oil powder, but also has good traceability and process flexibility, and can be flexibly adapted to various formulation systems, thus having significant industrial application value and promotion prospects.

[0053] The above description discloses only one preferred embodiment of the present invention, and should not be construed as limiting the scope of the present invention. Those skilled in the art will understand that all or part of the processes of the above embodiments can be implemented, and equivalent changes made in accordance with the claims of the present invention are still within the scope of the invention.

Claims

1. An ingredient mechanism for emulsified balanced oil powder production, characterized in that, it comprises a support assembly, a plurality of powder feeding assemblies, a plurality of oil feeding assemblies and an ingredient assembly, the support assembly comprises a base and a support frame, the support frame is fixedly connected with the base and located on the top of the base; the ingredient assembly comprises an ingredient shell, an oil feeding pipe, a powder feeding pipe, a support cylinder, a dispersion blade, a screw, a first motor and a stirring structure, the ingredient shell is fixed on the support frame, the oil feeding pipe is arranged on the ingredient shell, the powder feeding pipe is arranged on the ingredient shell, a plurality of the powder feeding assemblies are connected with the powder feeding pipe, a plurality of the oil feeding assemblies are connected with the oil feeding pipe, the screw is rotatably arranged in the ingredient shell, the output end of the first motor is connected with the screw, the support cylinder is fixed in the support shell and located outside the screw, the stirring structure is connected with the first motor and located outside the support cylinder, and the dispersion blade is fixed on the top of the dispersion blade. 2.The ingredient mechanism for emulsified balanced oil powder production according to claim 1, characterized in that, the powder feeding assembly comprises a feeding shell, a feeding box and a feeding valve, the feeding shell is connected with the powder feeding pipe, the feeding valve is arranged in the feeding shell, and the feeding box is in communication with the feeding valve. 3.The ingredient mechanism for emulsified balanced oil powder production according to claim 2, characterized in that, the powder feeding pipe comprises a pipe body, a rotating disc and a rotating motor, the pipe body has a plurality of powder outlets, the rotating disc is rotatably arranged below the pipe body, and the output end of the rotating motor is connected with the rotating disc, and the rotating disc is used for controlling the opening and closing of the powder outlets. 4.The ingredient mechanism for emulsified balanced oil powder production according to claim 3, characterized in that, the rotating disc comprises a disc body, a plurality of limiting blocks and a plurality of baffles, the plurality of limiting blocks are fixed on the disc body and used for cooperating with limiting grooves on the pipe body, and the plurality of baffles are respectively arranged on one side of the plurality of limiting blocks and used for closing the powder outlets. 5.The ingredient mechanism for emulsified balanced oil powder production according to claim 4, characterized in that, the rotating disc further comprises a plurality of sealing rings, and the plurality of sealing rings are respectively arranged on one side of the plurality of baffles. 6.The ingredient mechanism for emulsified balanced oil powder production according to claim 5, characterized in that, the ingredient assembly further comprises a protective shell, and the protective shell is arranged outside the first motor. 7.The ingredient mechanism for emulsified balanced oil powder production according to claim 6, characterized in that, the protective shell comprises a protective shell body and a cooling fin, and the cooling fin is arranged on the inner side of the protective shell body. 8.The ingredient mechanism for emulsified balanced oil powder production according to claim 7, characterized in that, the stirring structure comprises a support arm, a rotating cylinder and a rotating blade, the support arm is connected with the output end of the first motor, the rotating cylinder is fixedly connected with the support arm and located outside the support cylinder, and the rotating blade is fixed on the outer side of the rotating cylinder.

9. The ingredient preparation mechanism for producing emulsified and balanced oil powder according to claim 8, wherein the rotating vanes include primary vanes and secondary vanes, the primary vanes are arranged above the rotating cylinder, and the secondary vanes are arranged below the rotating cylinder, and the number of the primary vanes is more than that of the secondary vanes. The ingredient preparation mechanism for producing emulsified and balanced oil powder according to any one of claims 1 to 9.

10. A method of compounding an emulsified equalized oil powder production, characterized by, ​

Images