Fish oil nutrition cream for preventing pet hair slip and low-temperature filling device and process thereof

Abstract

The invention provides a fish oil nutrition cream low-temperature filling device capable of preventing pet hair from falling, which comprises a top cover, a low-temperature filling part and a discharging end, and the lower end of the top cover is provided with a group of low-temperature filling parts for filling fish oil nutrition cream; compared with the prior art, the device has the following beneficial effects that an outer thermal insulation layer on the inner side of an outer protective shell and an inner thermal insulation layer on the inner side of an inner pipeline cavity form a double thermal insulation design, cold air in a guiding and conveying cavity can be effectively prevented from diffusing, and the fish oil nutrition cream process for preventing the pet from hair slip comprises the following steps that the temperature environment is controlled to be 0-5 DEG C, the temperature interval needs to be stably maintained, and the temperature is kept constant; and the fluctuation range does not exceed + / -0.5 DEG C. The process has the following beneficial effects that the filling quality stability of the fish oil nutrition cream is guaranteed through precise temperature control, the temperature is further controlled to be 0-3 DEG C in a low-temperature filling stage, and the fluidity change of the raw materials caused by temperature fluctuation can be inhibited.

Description

Technical Field

[0001] This invention relates to a fish oil nutritional paste for preventing pet hair loss, as well as its low-temperature filling device and process, belonging to the technical field of fish oil nutritional paste. Background Technology

[0002] The core drawback of maintaining low-temperature filling in the current production of fish oil nutritional paste is that the filling environment temperature fluctuates greatly, the paste is prone to layering and solidification, and the sealing and label adhesion are poor. These drawbacks are caused by the lack of professional thermal insulation design, the inability of conventional refrigeration equipment to maintain a stable low-temperature field, and the poor temperature connection between filling, sealing and labeling processes. The oil phase and water phase components in the raw materials are prone to separation due to differences in solubility when the temperature changes. The abnormal increase in the viscosity of the paste at low temperatures can also lead to flow obstruction. Conventional solutions include temporarily increasing the power of refrigeration equipment, shortening the filling process time, manually adjusting the temperature and viscosity of the paste, and increasing the ambient temperature during labeling. These methods have significant drawbacks: simply increasing the refrigeration power can lead to energy waste, and excessively low local temperatures can exacerbate paste solidification; shortening the process time may result in inaccurate filling volume and insufficient sealing; manually adjusting temperature and viscosity is difficult to control precisely, easily causing uneven mixing of ingredients; increasing the labeling temperature will disrupt the low-temperature environment of the filling process, leading to a decline in paste quality. At the same time, temporary adjustments cannot fundamentally solve the temperature fluctuation problem and may also increase equipment and production losses, affecting product qualification rate and stability. Therefore, there is an urgent need for a fish oil nutritional paste that prevents pet hair shedding and its low-temperature filling device and process to solve the above problems. Summary of the Invention

[0003] To address the shortcomings of existing technologies, the present invention aims to provide a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, comprising a top cover, a low-temperature filling component, and a discharge end. The lower end of the top cover is provided with a set of low-temperature filling components for filling fish oil nutritional paste, thereby solving the problems mentioned in the background art.

[0004] The technical solution of the present invention is implemented as follows: a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding includes a top cover, a low-temperature filling component, and a discharge end. The lower end of the top cover is provided with a set of low-temperature filling components for filling fish oil nutritional paste. The inner side of the lower end of the top cover and the upper end of the low-temperature filling component are provided with cavities for storing a cold air compressor. The left side of the upper end of the top cover is provided with a set of cold air compressors for providing a low-temperature filling temperature environment for the low-temperature filling component. The middle position inside the low-temperature filling component is provided with a set of guiding components for filling and conveying fish oil nutritional paste. The guiding components penetrate through the center position inside the low-temperature filling component. The upper end of the guide component is provided with a set of limiting strips on the front and rear sides to limit the position of the fish oil nutritional paste filling bottle. The limiting strips are distributed in a straight line and there are three sets of limiting strips on the same side. The three sets of limiting strips on the same side are connected and fixed by connecting support rods. The height of the uppermost limiting strip is located at three-quarters of the height of the filling bottle. The lower ends of the left and right sides of the guide component are provided with a set of support legs to support its bottom. The right side of the support leg has an inverted Y-shaped cross-section. The support leg also includes a set of electric telescopic rods for adjusting the support height. The middle right side of the low-temperature filling component has a discharge end for exporting the filled bottle. The middle left side of the low-temperature filling component has a feed end for importing the fish oil nutritional paste into the bottle. The rear left side of the low-temperature filling component has two sets of material tubes for importing the raw materials of the fish oil nutritional paste to be filled. First, start the cold air compressor on the upper left side of the top cover. Using the cavity on the lower inner side of the top cover and the upper part of the low-temperature filling component, create the required low-temperature filling environment for the low-temperature filling component. Then, introduce the raw material of the fish oil nutritional paste to be filled through the two sets of material pipes on the left rear side of the low-temperature filling component. At the same time, feed the filling bottle from the feed end in the middle of the left side of the low-temperature filling component. Then, use the guide component to fill and guide the bottle and paste. During the process, the limiting strips on the front and rear sides of the upper end of the guide component limit the position of the bottle, and the support legs support the bottom of the guide component. After filling is completed, the filled bottle is discharged from the discharge end in the middle of the right side of the low-temperature filling component, thus completing the entire filling operation process.

[0005] In a preferred embodiment, the low-temperature filling component includes an outer protective shell and a temperature sensor bracket. The outer protective shell has an outer insulation layer on its inner side to prevent the cold air inside the delivery cavity from dissipating. The outer insulation layer has an inner pipe cavity on its inner side for installing a low-temperature air circulation pipe. The right side cross-section of the inner pipe cavity is a U-shaped structure. The inner pipe cavity has an annular low-temperature air circulation pipe inside. The length of the low-temperature air circulation pipe corresponds to the length of the front cross-section of the inner pipe cavity. The inner walls on both the front and rear sides of the inner pipe cavity are treated with moisture-proof and corrosion-proof measures. The inner side of the inner pipe cavity is provided with an inner insulation layer for providing insulation for the low temperature inside the delivery cavity. The inner side of the inner insulation layer is provided with an inner protective shell for protecting the inner insulation layer from damage. The inner insulation layer and the inner protective shell are respectively provided with several sets of internal perforations for the cold air release pipe to pass through. The inner side of each internal perforation is provided with a sealing liner. The inner side of the low temperature air circulation pipe is provided with several sets of cold air release pipes for introducing low temperature cold air into the delivery cavity at equal intervals. The cold air release pipe is sealed through the inner insulation layer and the inner protective shell. The interior of the cold air release pipe is interconnected with the interior of the low-temperature air circulation pipe and the interior of the delivery cavity. A set of side limiting brackets is provided in the middle position between every two sets of low-temperature cold air delivery pipes to limit their position. A set of temperature sensor brackets for detecting the release temperature of the cold air release pipe is provided at the upper end of each set of side limiting brackets. A set of temperature sensors is provided inside each set of temperature sensor brackets.

[0006] In a preferred embodiment, the conveying cavity includes a filling component, a capping component, a labeling component, a limiting component, and a motor housing. The filling component is located inside the left side of the conveying cavity. On the right side of the conveying cavity, there is a set of labeling components for hot stamping trademarks on the outside of the filling bottle. On the right side of the labeling component, there is a set of capping components for sealing the opening of the filling bottle. In front of the capping component and the labeling component, there is a set of limiting components for guiding and limiting the flow of several groups of filling bottles. At the lower end of the limiting component, there is a set of motor housing for providing rotational power. Inside the motor housing, there is a set of drive motors. In actual use, the low-temperature filling component and the internal components of the conveying cavity work together to have many beneficial effects. The outer insulation layer on the inner side of the outer protective shell and the inner insulation layer on the inner side of the inner pipe cavity constitute a double insulation design, which can effectively prevent the cold air inside the conveying cavity from dissipating. The annular low-temperature air circulation pipe inside the inner pipeline cavity can evenly deliver low-temperature cold air. The two work together to ensure that the delivery cavity always maintains a stable low-temperature filling environment, avoiding problems such as layering and abnormal viscosity of fish oil nutritional paste due to temperature fluctuations, thus ensuring the quality of the paste. The temperature sensor inside the temperature sensor bracket can monitor the release temperature of the cold air release pipe in real time, which can facilitate timely adjustment of the refrigeration state and improve the control accuracy of the low-temperature environment. The side limit bracket can fix the position of the cold air release pipe. The inner insulation layer and the inner protective shell with the inner perforation and the inner sealing lining can prevent cold air leakage. The two work together to avoid cold air waste and ensure the stable operation of the cold air release pipe, reducing the risk of equipment failure. The filling component on the left side of the guide cavity can complete the filling of fish oil nutritional paste, the labeling component on the right side of the guide cavity can realize the hot stamping of the label on the outside of the bottle, the capping component on the right side of the labeling component can complete the sealing of the cap at the bottle opening, the limiting component can limit and guide multiple groups of bottles in the process, and the drive motor inside the motor box can provide stable power for the limiting component. The two work together to ensure that the bottle moves in an orderly manner in the guide cavity and avoid the bottle deviating.

[0007] In a preferred embodiment, the filling component includes an inner frame and a mixing tube. The inner frame is a rectangular structure and has two sets. The rear inner frame is a fixed structure, while the front inner frame is a movable structure. Each set of inner frames has a clamping frame at its lower end for positioning the bottle to be filled. The two sets of clamping frames are arranged symmetrically. The inner side of the clamping frames is provided with several sets of positioning and filling grooves for positioning and fitting the upper end of the filling bottle. The positioning and filling grooves are arc-shaped. When the distance between the two sets of clamping frames and the inner frame is shortened, the two sets of positioning and filling grooves form an elliptical overall filling groove. The left inner end of the two sets of inner frames is provided with a set of clamping electric cylinders one for adjusting the distance between them, and the right inner end of the two sets of inner frames is provided with a set of clamping electric cylinders two for adjusting the distance between them. The clamping electric cylinders one and two have the same structure and move synchronously. The clamping electric cylinder one and clamping electric cylinder two are connected and fixed to the front inner frame by bolts. The driving ends of clamping electric cylinder one and clamping electric cylinder two are both located on the rear side and are connected and fixed to the rear inner frame by bolts. Several sets of filling heads for filling fish oil nutritional paste are provided in the middle position between the two sets of inner frames. The number of filling heads corresponds to the number of filling tanks in the whole. Each set of filling heads has a filling column at the upper end for guiding and supplying fish oil nutritional paste. The filling column has a control valve for controlling the filling amount and an inner cavity for storing fish oil nutritional paste raw materials. The upper end of the filling column has a buffer spring one for supporting the reverse force when the upper end of the bottle contacts. The lower end of the buffer spring has an inner locking groove at the contact position with the filling column. The upper end of each of the several sets of buffer springs is provided with an upper fixing frame for supporting its top. The upper end of each of the filling columns is provided with a conveying pipe for conveying the raw materials of fish oil nutritional paste. The conveying pipe is connected to the inner cavity. The lower outer side of the conveying pipe is provided with a fixing nut for fixing its position. The fixing nut is connected to the lower outer side of the conveying pipe by thread until the bottom of the fixing nut is in contact with the upper surface of the upper fixing frame. The upper left side of the upper fixing frame is provided with a lifting electric cylinder II for controlling the height of the upper fixing frame. The upper right side of the upper fixed frame is equipped with a set of lifting electric cylinders (first and second) for controlling the height of the upper fixed frame. Lifting electric cylinders (first and second) are of the same specifications and operate synchronously. Above the lifting electric cylinders (first and second) is a set of top beams for supporting their tops. The top beams have a hollow internal structure. Inside the top beams is a set of mixing pipes (second) for synchronously introducing other mixed raw materials of the fish oil nutritional paste. At the upper end of mixing pipes (second), there is a mixing pipe (first) for conveying the raw materials of the fish oil nutritional paste. Mixing pipes (first and second) are connected at right angles, and a mixing tee is provided at the connection point. In actual use, when the filling component is working, the two sets of inner frames, fixed at the rear and movable at the front, are on their inner left... The clamping electric cylinders 1 and 2, which move synchronously at both ends on the right, adjust their spacing under the drive, causing the symmetrical clamping frame at the lower end to move closer together. This allows the arc-shaped positioning filling grooves inside the clamping frame to be spliced ​​into an elliptical integral filling groove, thus achieving the positioning of the bottle. Inside the top beam, mixing pipe 1 and mixing pipe 2, which are connected at right angles, simultaneously introduce fish oil nutritional paste raw materials and other mixed raw materials, which are then transported to the inner cavity of the filling column through the conveying pipe. The control valve inside the filling column regulates the filling volume, and the filling head at the lower end fills the positioned bottle. Lifting electric cylinders 1 and 2, which move synchronously on the left and right sides of the upper fixed frame, can adjust the height of the upper fixed frame. The buffer spring 1 at the upper end of the filling column provides a reverse force support when the bottle contacts the container, ensuring a stable and accurate filling process.

[0008] In a preferred embodiment, the capping component includes a capping motor and a capping screw head. The lower end of the capping motor is provided with a set of support bases for supporting its bottom. The lower end of the support bases is provided with a set of movable seat plates for connecting to the support bases and driving the support bases to move up and down. The upper front end of the movable seat plates is fixed to the support bases by bolts. The right side of the movable seat plate is considered to be an L-shaped structure. The right side of the movable seat plate is provided with two sets of movable inserts for guiding its up and down movement. The movable inserts are fixed to the movable seat plate by bolts. The right side of the movable insert is provided with a set of guide rails. The guide rails are movably fitted and connected to the movable inserts. The right side of the movable insert is provided with a set of support back frame for fixing it. The support back frame is fixed to the two sets of guide rails by bolts. The upper left side of the support back frame is provided with a set of mounting plate for fixing the adjusting electric cylinder. The mounting plate is fixed to the adjusting electric cylinder by bolts. The lower end of the adjusting electric cylinder is equipped with a set of telescopic columns for adjusting the up and down movement of the movable base plate. The bottom of the telescopic columns is fixedly connected to the inside of the right side of the movable base plate. The lower end of the capping motor is equipped with a set of telescopic universal joints for driving the connecting end to rotate. The outer side of the telescopic universal joint is equipped with a set of buffer springs to support the reverse force during the capping process. The lower end of the buffer springs is equipped with a set of connecting ends for easy installation of different capping heads. The upper end of the connecting end is fixedly connected to the bottom of the telescopic universal joint by bolts. The lower end of the connecting end is equipped with a set of capping heads for easy installation of bottle caps of various sizes. The inner side of the capping head is equipped with a cap groove, and the inside of the cap groove is mutually positioned and fitted with the upper cap of the bottle. The middle position of the lower end of the support frame is equipped with a set of connecting support columns for supporting its bottom. In actual use, when the capping component is working, the support frame is supported by the connecting support columns. The bottom is stably supported, and an adjustable electric cylinder with a fixed plate is installed at the top. This cylinder drives the telescopic column to move the movable seat plate up and down. The movable fitting seat on the right side of the movable seat plate engages with the guide rail to ensure precise guidance when the movable seat plate moves. The upper front end of the movable seat plate is bolted to the support frame, which in turn supports the capping motor. The lower end of the capping motor is connected to the connecting end via a telescopic universal joint. The buffer spring on the outside of the telescopic universal joint can buffer the reverse force during capping. The cap tightening head installed at the lower end of the connecting end is positioned and engaged with the cap body at the top of the bottle through the inner cap groove. The capping motor drives the cap tightening head to rotate and complete the capping. In the entire process, all components work together to achieve precise positioning and stable capping of the bottle and cap. The buffer structure can prevent damage to the cap or bottle, and the guiding structure ensures operational accuracy, ultimately achieving a high-efficiency and high-quality capping effect and ensuring that the product's sealing performance meets the standards.

[0009] In a preferred embodiment, the limiting component includes a locking plate and a synchronous connecting column 2. The locking plate has a circular cross-section when viewed from above. The outer side of the locking plate is uniformly provided with several sets of locking grooves for mutually limiting and fitting with the outer side of the bottle body. The several sets of locking grooves are arranged in a ring structure. The cross-section of the several sets of locking grooves when viewed from above is an arc-shaped semi-circular structure. Each set of the chuck slots has a set of reinforcing liner plates on the outer side of the upper end to enhance the strength of the outer side of the chuck slots. The reinforcing liner plates are fixed to the chuck disc by bolts. The upper end of the middle position of the chuck disc has a set of fixing flanges to provide transmission effect. The fixing flanges are fixed to the chuck disc by several sets of bolts. The middle position of the fixing flange has a set of core rods to transmit the power inside the motor box. The core rods pass through the fixing flanges and are fixed to them. The lower end of the card head plate is evenly distributed with several sets of synchronous connecting posts 2 for connecting and fixing with the bottle carding plate 1. The lower end of the several sets of synchronous connecting posts 2 is provided with a bottle carding plate 1 for rotating and guiding the filling bottle body. The outer side of the bottle carding plate 1 is evenly distributed with several sets of bottle carding grooves 1 for providing fitting and positioning to the outer side of the filling bottle body. The number of bottle carding grooves 1 is the same as the number of card head grooves. The inner diameter of the bottle carding groove 1 in the top view cross-section is greater than the inner diameter of the card head groove in the top view cross-section.

[0010] In a preferred embodiment, the lower end of the bottle-holding disc is provided with several sets of synchronous connecting posts 1 for connecting and fixing it to the bottle-holding disc 2. The lower end of the several sets of synchronous connecting posts is provided with a set of bottle-holding disc 2 for driving the outer side of the bottom of the filling bottle to rotate. The bottle-holding disc 1 and bottle-holding disc 2 are of the same specifications, and the bottle-holding disc 2 is evenly provided with several sets of bottle-holding grooves 2. The bottle-holding grooves 1 and bottle-holding grooves 2 are of the same specifications and are completely overlapped in the vertical direction. The center position of both the bottle-holding disc 1 and bottle-holding disc 2 is provided with a set of rod grooves for the core rod to pass through. The lower end of the core rod is provided with a set of driven gears for power transmission. The middle position of the driven gear is connected and fixed to the outer side of the lower end of the core rod. A set of driving gears for power connection is provided on the front side of the driven gear. The driving gears mesh with the driven gears. A set of drive rods for transmitting power is provided at the lower end of the middle position of the driven gear. The lower end of the drive rods passes through the inside of the motor box. The motor box contains a rotary motor for providing rotation for several sets of filling bottles. A set of universal joints is provided at the connection between the driven gear and the drive rods. A set of base plates for supporting the universal joints is provided on the outer side of the lower end of the universal joints. Four sets of stable support frames are provided at the lower end of the base plates for stable support. In actual use, the rotary motor in the motor box drives the driven gear through the drive rods and universal joints. After meshing with the driving gears, the driven gears are efficiently transmitted through the core rod. With the synchronous rotation structure formed by the clamping head plate, the first clamping plate, and the second clamping plate through the synchronous connecting columns one and two, the rotation speed of multiple sets of components can be kept consistent, avoiding positional deviation caused by speed deviation during bottle conveying, and providing a stable bottle conveying state for subsequent processes. In terms of positioning and limiting, the arc-shaped semi-circular groove on the outer side of the clamping head plate vertically overlaps with the bottle clamping grooves on the first and second bottle clamping plates. The inner diameter of the bottle clamping groove is adapted to the bottom of the bottle body, and the clamping head groove is adapted to the upper middle part of the bottle body, achieving dual positioning of the upper and lower ends of the bottle body. At the same time, the reinforcing liner on the outer side of the clamping head groove increases the strength of the groove body and prevents the groove body from deforming after long-term use, thus affecting the positioning accuracy and effectively preventing the bottle body from shaking or tilting during rotation and conveying. In terms of structural support, the base plate and four sets of stable support structures form a solid bottom support system, reducing vibration when components rotate and further improving overall operational stability. This not only reduces the risk of equipment failure but also ensures that each process can be precisely connected, ultimately improving production efficiency and product qualification rate, and meeting the needs of large-scale, high-precision production of anti-pet hair shedding fish oil nutritional paste.

[0011] A process for filling fish oil nutritional paste using a low-temperature filling device includes the following steps: S1: The temperature environment is controlled at 0-5℃. This temperature range needs to be maintained stably, with fluctuations not exceeding ±0.5℃. In the raw material pretreatment stage, the basic raw materials of fish oil nutritional paste and the auxiliary mixing raw materials are introduced into the internal cavity of the top beam through mixing pipe one and mixing pipe two, respectively. The raw materials need to be filtered through an 80-mesh filter in advance to remove impurities with a particle size greater than 0.18mm. After the cold air compressor starts, it continuously delivers cold air to the delivery chamber through the low-temperature air circulation pipe. The temperature sensor monitors the internal temperature of the delivery chamber in real time. When the temperature is higher than 5°C, the cold air compressor automatically increases its power, and when it is lower than 0°C, it reduces its output to ensure that the insulation layer between the inner pipe chamber and the delivery chamber plays its role and prevents the cold air from dissipating. At the same time, the support legs adjust their height through an electric telescopic rod to keep the overall horizontal error of the device within 0.3 mm / m, ensuring the subsequent filling accuracy. S2: The temperature environment is maintained at 0-5℃, consistent with the pretreatment stage, with no temperature fluctuation deviation. The filling bottle is introduced through the feeding end. After the limiting component is activated, the drive motor drives the active gear to rotate through the drive rod, which in turn meshes with the driven gear to make the core rod rotate. The carding plate and the upper and lower bottle carding plates rotate synchronously. The head slot, bottle slot one, and bottle slot two respectively fit and position the upper, middle, and bottom of the bottle body. The inner diameter of the bottle slot is 0.2-0.3mm larger than the outer diameter of the corresponding position on the bottle body to ensure a close fit without jamming. The limiting strips are fixed by connecting support rods. The three sets of limiting strips are distributed in a straight line. The uppermost strip is located at three-quarters of the height of the bottle body, limiting the left and right deviation of the bottle body during the conveying process to no more than 0.5mm. The bottle conveying speed is set to 10-15 bottles / minute to match the subsequent filling rhythm. S3: The temperature environment is maintained at 0-3℃. This temperature can prevent the fish oil nutritional paste from becoming abnormally fluid due to excessive temperature during the filling process. Clamping cylinder one and clamping cylinder two operate synchronously, driving the two sets of inner frames to move closer to each other. The positioning filling groove on the clamping frame surrounds the elliptical integral filling groove, which is precisely aligned with the upper opening of the bottle body. The alignment deviation does not exceed 0.2mm. Lifting cylinder one and lifting cylinder two drive the upper fixed frame to descend, and the filling head slowly extends into the bottle opening to a depth of one-third of the bottle height. The delivery pipe introduces the filtered raw material into the inner cavity of the filling column. The control valve adjusts the opening and closing degree according to the preset dosage. The filling volume error of a single bottle is controlled within ±0.5g. The buffer spring provides reverse support force when the filling head contacts the bottle body. The buffer stroke is 5-8mm to avoid the bottle body being damaged by pressure. S4: Maintain the temperature environment at 0-5℃ to ensure the finished product remains at a low temperature before discharge. The labeling component hot stamps the label onto the filled bottle, with the hot stamping temperature controlled at 40-50℃ and the stamping time at 2-3 seconds to avoid high temperature affecting the quality of the paste. During the capping stage, the adjusting electric cylinder drives the movable seat plate to descend along the guide rail, and the capping screw head is positioned and engaged with the cap at the top of the bottle. The capping motor drives the capping screw head to rotate through the telescopic universal joint at a speed of 30-40 revolutions per minute. The buffer spring buffers the reverse force during the capping process, ensuring that the tightening torque of the cap is between 0.8-1.2 N·m, preventing bottle damage caused by loosening or over-tightening. After capping, the bottle clamping plate continues to rotate, exporting the finished bottle through the discharge end. During the export process, the distance between the bottles is maintained at 5-8 cm to avoid collision and wear.

[0012] A fish oil nutritional paste for preventing pet hair loss includes: active ingredients, a carrier matrix, a nutritional fortifier, a stabilizer, and the remaining ingredients. The active ingredients include soy lecithin and deep-sea fish oil, wherein the soy lecithin has a phospholipid content of ≥95%, the deep-sea fish oil has an EPA+DHA content of ≥30%, the soy lecithin accounts for 12% of the total content, and the deep-sea fish oil accounts for 8% of the total content. The carrier matrix comprises food-grade glycerin, malt syrup, and food-grade hydrogenated vegetable oil, wherein the food-grade glycerin accounts for 15% of the total content, the malt syrup has a DE value between 40 and 50, the malt syrup accounts for 20% of the total content, and the food-grade hydrogenated vegetable oil accounts for 8% of the total content. The nutritional fortifier includes vitamin E, vitamin B7, and zinc gluconate, wherein the proportion of vitamin E is 0.2%, the proportion of vitamin B7 is 0.001%, and the proportion of zinc gluconate is 0.05%. The stabilizer includes food-grade xanthan gum and food-grade potassium sorbate, wherein the proportion of food-grade xanthan gum is 0.5% and the proportion of food-grade potassium sorbate is 0.15%. The remaining component is deionized water, which accounts for 36.1% of the total composition.

[0013] After adopting the above technical solution, the beneficial effects of the device of the present invention are: in actual use, the low temperature filling component and the internal components of the delivery cavity work together to have many beneficial effects. The outer insulation layer on the inner side of the outer protective shell and the inner insulation layer on the inner side of the inner pipe cavity constitute a double insulation design, which can effectively prevent the cold air inside the delivery cavity from dissipating. The annular low-temperature air circulation pipe inside the inner pipeline cavity can evenly deliver low-temperature cold air. The two work together to ensure that the delivery cavity always maintains a stable low-temperature filling environment, avoiding problems such as layering and abnormal viscosity of fish oil nutritional paste due to temperature fluctuations, thus ensuring the quality of the paste. The temperature sensor inside the temperature sensor bracket can monitor the release temperature of the cold air release pipe in real time, which can facilitate timely adjustment of the refrigeration state and improve the control accuracy of the low-temperature environment. The side limit bracket can fix the position of the cold air release pipe. The inner insulation layer and the inner protective shell with the inner perforation and the inner sealing lining can prevent cold air leakage. The two work together to avoid cold air waste and ensure the stable operation of the cold air release pipe, reducing the risk of equipment failure. The filling component on the left side of the guide cavity can complete the filling of fish oil nutritional paste, the labeling component on the right side of the guide cavity can realize the hot stamping of the label on the outside of the bottle, the capping component on the right side of the labeling component can complete the sealing of the cap at the bottle opening, the limiting component can limit and guide multiple groups of bottles in the process, and the drive motor inside the motor box can provide stable power for the limiting component. The two work together to ensure that the bottle moves in an orderly manner in the guide cavity and avoid the bottle deviating. In actual use, when the filling component is working, the two sets of inner frames, which are fixed at the rear and movable at the front, are adjusted in distance by the clamping electric cylinders 1 and 2 moving synchronously at their inner left and right ends. This causes the symmetrical clamping frame at the lower end to move closer, so that the arc-shaped positioning filling grooves on the inner side of the clamping frame are spliced ​​into an elliptical integral filling groove, thus achieving the positioning of the bottle. The mixing pipe 1 and the mixing pipe 2, which are connected at right angles inside the top beam, simultaneously introduce the fish oil nutritional paste raw materials and other mixed raw materials, and then transport them to the inner cavity of the filling column through the conveying pipe. The control valve inside the filling column regulates the filling volume, and the filling head at the lower end fills the positioned bottle. The lifting electric cylinders 1 and 2, which move synchronously on the left and right sides of the upper fixed frame, can adjust the height of the upper fixed frame. The buffer spring 1 at the upper end of the filling column provides a reverse force support when the bottle contacts the frame, ensuring a stable and accurate filling process. In practical use, when the capping component is working, the support back frame achieves stable support at the bottom through the connecting support column. The upper end of the frame is equipped with an adjustable electric cylinder that is fixed to the plate. This cylinder can drive the telescopic column to move the movable seat plate up and down. The movable fitting seat on the right side of the movable seat plate is movablely fitted with the guide rail to ensure accurate guidance when the movable seat plate moves. The upper front end of the movable seat plate is fixed to the support base frame with bolts. The support base frame supports the capping motor. The lower end of the capping motor is connected to the connecting end via a telescopic universal joint. The buffer spring on the outside of the telescopic universal joint can buffer the reverse force during capping. The cap tightening head installed at the lower end of the connecting end is positioned and fitted with the cap body at the upper end of the bottle through the inner cap groove. The capping motor drives the cap tightening head to rotate and complete the capping. In the whole process, all components work together to achieve accurate positioning and stable capping of the bottle and cap. The buffer structure can prevent damage to the cap or bottle. The guiding structure ensures the accuracy of operation and ultimately achieves efficient and high-quality capping effect, ensuring that the product's sealing performance meets the standards. In practical use, the rotary motor inside the motor box drives the driven gear through the drive rod and universal joint. After meshing with the driving gear, the driven gear is efficiently transmitted through the core rod. Together with the chuck, bottle chuck one, and bottle chuck two, the synchronous rotation structure formed by the synchronous connecting columns one and two can ensure that the speed of multiple components is consistent, avoid the positional deviation caused by speed deviation during bottle conveying, and provide a stable bottle conveying state for subsequent processes. In terms of positioning and limiting, the arc-shaped semi-circular groove on the outer side of the clamping head plate vertically overlaps with the bottle clamping grooves on the first and second bottle clamping plates. The inner diameter of the bottle clamping groove is adapted to the bottom of the bottle body, and the clamping head groove is adapted to the upper middle part of the bottle body, achieving dual positioning of the upper and lower ends of the bottle body. At the same time, the reinforcing liner on the outer side of the clamping head groove increases the strength of the groove body and prevents the groove body from deforming after long-term use, thus affecting the positioning accuracy and effectively preventing the bottle body from shaking or tilting during rotation and conveying. The structural support system consists of a base plate and four sets of stable support structures to form a robust bottom support structure, reducing vibration during component rotation and further improving overall operational stability. This reduces the risk of equipment failure and ensures precise connection of each process, ultimately improving production efficiency and product qualification rate, and meeting the needs of large-scale, high-precision production of anti-pet hair shedding fish oil nutritional paste. After adopting the above technical solution, the beneficial effects of the process of the present invention are as follows: This process, through the combination of precise temperature control and structural design, ensures the stability of the filling quality of fish oil nutritional paste. The low temperature environment of 0-5℃ runs through the entire process, and the filling stage is further controlled at 0-3℃ to suppress the fluidity changes of raw materials caused by temperature fluctuations, reduce the layering or uneven texture of the paste, and retain the activity of effective ingredients. The temperature sensor and the cold air compressor are linked to adjust to ensure that the ambient temperature fluctuation does not exceed ±0.5℃, providing a basic guarantee for product quality. The raw material pretreatment stage uses an 80-mesh filter to remove impurities with a particle size greater than 0.18mm, reducing the risk of filling head clogging and improving product purity. Multiple positioning structures work together, with the head slot and bottle slot working in conjunction with the limiting strip to control the bottle offset within 0.5mm. The alignment deviation between the filling head and the bottle opening does not exceed 0.2mm, ensuring filling accuracy. The dosage error of a single bottle is controlled within ±0.5g. The buffer mechanism design reduces the risk of physical damage. Buffer spring one provides a 5-8mm buffer stroke to prevent breakage when the filling head contacts the bottle. Buffer spring two, in conjunction with capping torque control, prevents damage to the bottle or cap during capping. It also avoids the impact of high temperature on the quality of the ointment in low-temperature environments while completing the labeling process. After adopting the above technical solution, the beneficial effects of the ointment of the present invention are as follows: the active ingredients contained therein can repair the cell membrane of pet hair follicles, reduce dryness and breakage, and inhibit skin inflammation and relieve hair loss caused by allergies, thereby improving the health of the hair from the root. The carrier matrix can effectively prevent the nutritional paste from hardening, improve the smoothness of the paste, increase the pet's willingness to eat and provide the pet with basic energy, and help the pet easily absorb nutrients. The nutritional fortifier can enhance the pet's immunity, promote hair growth, and reduce hair loss caused by abnormal sebaceous gland secretion, further strengthening hair health. The stabilizer can ensure uniform flow during filling of the nutritional paste, improve the stable fluidity of the paste, and extend the shelf life of the product, ensuring stable quality. The remaining ingredients, as solvents, can dissolve water-soluble substances and assist each ingredient in playing its role, providing comprehensive support for the health of pet hair. Long-term use helps reduce pet hair loss and maintain a good hair condition. Attached Figure Description

[0014] 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.

[0015] Figure 1 This is a schematic diagram of the structure of a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, according to the present invention. Figure 2 This is a schematic cross-sectional view of the right side of the inner side of the outer protective shell in a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, according to the present invention. Figure 3 This is a schematic diagram of the left oblique front view of the internal structure of several sets of low-temperature air circulation pipes in a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, according to the present invention. Figure 4 This is a schematic diagram of the internal structure of the low-temperature filling component in a low-temperature filling device for preventing pet hair shedding, as described in this invention. Figure 5 This is a schematic diagram of the right oblique front view of the filling component in a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, according to the present invention. Figure 6 This is a schematic diagram of the right oblique front view of the filling component in a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, according to the present invention. Figure 7 This is a front view of the guide limit frame and the capping component in a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, according to the present invention. Figure 8This is a schematic diagram of the right side view of the capping component in a low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, according to the present invention. In the diagram: 1-Top cover, 2-Refrigeration compressor, 3-Limit stop bar, 4-Guide component, 5-Support leg, 6-Low temperature filling component, 7-Discharge end; 61-Outer protective shell, 62-Outer insulation layer, 63-Inner pipe cavity, 64-Inner insulation layer, 65-Inner protective shell, 66-Conveying cavity, 67-Cold air pipe, 68-Low temperature air circulation pipe, 69-Side limiting frame, 601-Temperature sensor bracket; 6a-Filling component, 6b-Capping component, 6c-Labeling component, 6d-Limiting component, 6e-Motor box; a1-Inner frame, a2-Clamping electric cylinder one, a3-Lifting electric cylinder one, a4-Upper fixed frame, a5-Conveying pipe, a6-Buffer spring one, a7-Filling column, a8-Filling head, a9-Clamping adjustment rod, a10-Clamping frame, a11-Lifting electric cylinder two, a12-Mounting top frame, a13-Top beam, a14-Mixing pipe one, a15-Mixing pipe two; b1-Capping motor, b2-Supporting base frame, b3-Adjusting electric cylinder, b4-Telescopic cylinder, b5-Modible seat plate, b6-Modible fitting seat, b7-Guide rail, b8-Supporting back frame, b9-Connecting support column, b10-Buffer spring II, b11-Connecting end, b12-Capping screw head; d1-Card head plate, d2-Reinforcing liner, d3-Core rod, d4-Fixing flange, d5-Card head groove, d6-Card plate one, d7-Card groove one, d8-Synchronous connection column one, d9-Rod groove, d10-Driven gear, d11-Drive gear, d12-Drive rod, d13-Stabilizing bracket, d14-Synchronous connection column two. Detailed Implementation

[0016] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0017] Please see Figures 1-8As the first embodiment of the present invention: a low-temperature filling device for fish oil nutritional paste to prevent pet hair shedding, including a top cover 1, a low-temperature filling component 6 and a discharge end 7. The lower end of the top cover 1 is provided with a set of low-temperature filling components 6 for filling fish oil nutritional paste. The inner side of the lower end of the top cover 1 and the upper end of the low-temperature filling component 6 are provided with cavities for storing cold air compressor 2. The upper left side of the top cover 1 is provided with a set of cold air compressor 2 for providing a low-temperature filling temperature environment for the low-temperature filling component 6. The middle position inside the low-temperature filling component 6 is provided with a set of guiding components 4 for filling and conveying fish oil nutritional paste. The guiding components 4 penetrate through the center position inside the low-temperature filling component 6. The upper end of the guide component 4 is provided with a set of limiting bars 3 on the front and rear sides to limit the position of the fish oil nutritional paste filling bottle. The limiting bars 3 are distributed in a straight line and there are three sets of limiting bars 3 on the same side. The three sets of limiting bars 3 on the same side are connected and fixed by connecting support rods. The height of the uppermost limiting bar 3 is located at three-quarters of the height of the filling bottle. The lower ends of the left and right sides of the guide component 4 are provided with a set of support legs 5 to support its bottom. The right side of the support leg 5 has an inverted Y-shaped cross-section. The support leg 5 also includes a set of electric telescopic rods for adjusting the support height. The middle right side of the low-temperature filling component 6 has a set of discharge end 7 for exporting the filled bottle. The middle left side of the low-temperature filling component 6 has a set of feed end for importing the fish oil nutritional paste into the bottle. The rear left side of the low-temperature filling component 6 has two sets of material tubes for importing the raw materials of the fish oil nutritional paste to be filled. First, start the air compressor 2 on the upper left side of the top cover 1. Using the cavity on the lower inner side of the top cover 1 and the upper part of the low-temperature filling component 6, create the required low-temperature filling environment for the low-temperature filling component 6. Then, introduce the raw material of the fish oil nutritional paste to be filled through the two sets of material pipes on the left rear side of the low-temperature filling component 6. At the same time, feed the filling bottle from the feed end in the middle position on the left side of the low-temperature filling component 6. Then, use the guide component 4 to fill and guide the bottle and paste. During the process, the limiting strips 3 on the front and rear sides of the upper end of the guide component 4 limit the position of the bottle, and the support leg 5 supports the bottom of the guide component 4. After filling is completed, the filled bottle is discharged from the discharge end 7 in the middle position on the right side of the low-temperature filling component 6, thus completing the entire filling operation process.

[0018] Please see Figures 1-4As a second embodiment of the present invention: based on the description in Embodiment 1, the low-temperature filling component 6 further includes an outer protective shell 61 and a temperature sensor bracket 601. The outer protective shell 61 has an outer insulation layer 62 on its inner side to prevent the cold air inside the delivery cavity 66 from dissipating. The outer insulation layer 62 has an inner pipe cavity 63 on its inner side for installing a low-temperature air circulation pipe 68. The right cross-section of the inner pipe cavity 63 is a U-shaped structure. The inner pipe cavity 63 has an annular low-temperature air circulation pipe 68 inside. The length of the low-temperature air circulation pipe 68 corresponds to the length of the front cross-section of the inner pipe cavity 63. The inner walls of the front and rear sides of the inner pipe cavity 63 are treated with moisture-proof and corrosion-proof measures. The inner side of the inner pipe cavity 63 is provided with an inner insulation layer 64 for providing insulation for the low temperature inside the guide cavity 66. The inner side of the inner insulation layer 64 is provided with an inner protective shell 65 for protecting the inner insulation layer 64 from damage. The inner insulation layer 64 and the inner protective shell 65 are respectively provided with several sets of inner perforations for the cold air release pipe to pass through. The inner side of each inner perforation is provided with a sealing liner. The inner side of the low temperature air circulation pipe 68 is provided with several sets of cold air release pipes for introducing low temperature cold air into the guide cavity 66 at equal intervals. The cold air release pipe is sealed through the inner insulation layer 64 and the inner protective shell 65. The inside of the cold air release pipe is connected to the inside of the low temperature air circulation pipe 68 and the inside of the delivery cavity 66. A set of side limiters 69 is provided in the middle between every two sets of low temperature cold air delivery pipes to limit their position. Each set of side limiters 69 has a set of temperature sensor brackets 601 at the upper end to detect the temperature of the cold air release pipe. Each set of temperature sensor brackets 601 has a set of temperature sensors inside.

[0019] The guide cavity 66 includes a filling component 6a, a capping component 6b, a labeling component 6c, a limiting component 6d, and a motor housing 6e. The filling component 6a is located inside the left side of the guide cavity 66. On the right side of the guide cavity 66, there is a set of labeling components 6c for hot stamping trademarks on the outside of the filling bottle. On the right side of the labeling component 6c, there is a set of capping components 6b for sealing the opening of the filling bottle. In front of the capping component 6b and the labeling component 6c, there is a set of limiting components 6d for guiding and limiting the flow of several groups of filling bottles. At the lower end of the limiting component 6d, there is a set of motor housing 6e for providing rotational power. Inside the motor housing 6e, there is a set of drive motors. In actual use, the low-temperature filling component 6 and the internal components of the guide cavity 66 work together to have many beneficial effects. The outer insulation layer 62 on the inner side of the outer protective shell 61 and the inner insulation layer 64 on the inner side of the inner pipe cavity 63 constitute a double insulation design, which can effectively prevent the cold air inside the guide cavity 66 from dissipating. The annular low-temperature air circulation pipe 68 inside the inner pipeline cavity 63 can evenly deliver low-temperature cold air. The two work together to ensure that the delivery cavity 66 always maintains a stable low-temperature filling environment, avoiding problems such as layering and abnormal viscosity of fish oil nutritional paste due to temperature fluctuations, thus ensuring the quality of the paste. The temperature sensor inside the temperature sensor bracket 601 can monitor the release temperature of the cold air release pipe in real time, which facilitates timely adjustment of the refrigeration state and improves the accuracy of low-temperature environment control. The side limit bracket 69 can fix the position of the cold air release pipe. The inner insulation layer 64 and the inner protective shell 65 have internal perforations and inner side sealing lining to prevent cold air leakage. The two work together to avoid cold air waste and ensure the stable operation of the cold air release pipe, reducing the risk of equipment failure. The filling component 6a on the left side of the guide cavity 66 can complete the filling of fish oil nutritional paste. The labeling component 6c on the right side of the guide cavity 66 can realize the hot stamping of the trademark on the outside of the bottle. The capping component 6b on the right side of the labeling component 6c can complete the sealing of the cap at the bottle opening. The limiting component 6d can limit and guide multiple groups of bottles in the process. The drive motor inside the motor box 6e can provide stable power to the limiting component 6d. The two work together to ensure that the bottle moves in an orderly manner in the guide cavity 66 and avoid the bottle from deviating.

[0020] Please see Figures 1-6 As a third embodiment of the present invention: based on the description in Embodiments 1 and 2, the filling component 6a further includes an inner frame a1 and a mixing tube a15. The inner frame a1 is a rectangular structure. There are two sets of inner frames a1. The rear inner frame a1 is a fixed structure and the front inner frame a1 is a movable structure. Each set of inner frames a1 has a clamping frame a10 for positioning the bottle to be filled at its lower end. Two sets of clamping frames a10 are arranged symmetrically. Several sets of positioning filling grooves are opened on the inner side of the clamping frame a10 for positioning and fitting the upper end of the filling bottle. The positioning filling grooves are arc-shaped. When the distance between the two sets of clamping frames a10 and the inner frame a1 is shortened, the two sets of positioning filling grooves form an elliptical overall filling groove. A set of clamping electric cylinder a2 is provided on the left inner side of the two sets of inner frames a1 for adjusting the distance between them. A set of clamping electric cylinder a2 is provided on the right inner side of the two sets of inner frames a1 for adjusting the distance between them. The clamping electric cylinder a2 and the clamping electric cylinder a2 have the same structure and move synchronously. Clamping cylinder a2 and clamping cylinder a2 are connected and fixed to the front inner frame a1 by bolts. The driving ends of clamping cylinder a2 and clamping cylinder a2 are both located on the rear side and are connected and fixed to the rear inner frame a1 by bolts. Several sets of filling heads a8 for filling fish oil nutritional paste are provided in the middle position between the two sets of inner frames a1. The number of filling heads a8 corresponds to the number of filling tanks in the whole. Each set of filling heads a8 has a filling column a7 at the top for guiding and supplying fish oil nutritional paste. The filling column a7 has a control valve for controlling the filling amount and an inner cavity for storing fish oil nutritional paste raw materials. The filling column a7 has a buffer spring a6 at the top for supporting the reverse force when the bottle is in contact with the top. The lower end of the buffer spring a6 has an inner locking groove at the contact position with the filling column a7. Several sets of buffer springs a6 are provided with an upper fixed frame a4 for supporting their top. Each set of filling columns a7 is provided with a conveying pipe a5 for conveying the raw materials of fish oil nutritional paste. The conveying pipe a5 is connected to the inner cavity. A set of fixing nuts is provided on the outer side of the lower end of the conveying pipe a5 for fixing its position. The fixing nuts are connected to the outer side of the lower end of the conveying pipe a5 by thread until the bottom of the fixing nut is in contact with the upper surface of the upper fixed frame a4. A set of lifting electric cylinders a11 is provided on the upper left side of the upper fixed frame a4 for controlling the height of the upper fixed frame a4. A set of lifting cylinders a1 and a2 is provided on the upper right side of the upper fixed frame a4 to control the height of the upper fixed frame a4. Lifting cylinder a1 and lifting cylinder a11 are of the same specifications and operate synchronously. A set of top beams a13 is provided on the upper end of lifting cylinders a1 and a2 to support their top. The top beams a13 have a hollow structure inside. A set of mixing pipes a2 and a15 is provided inside the top beams a13 to synchronously introduce other mixed raw materials of fish oil nutritional paste. A mixing pipe a14 is provided on the upper end of mixing pipe a15 to transport the raw materials of fish oil nutritional paste. Mixing pipes a14 and a15 are connected at right angles and a mixing tee is provided at the connection. In actual use, when the filling component 6a is working, the two sets of inner frames a1, which are fixed at the rear and movable at the front, are simultaneously connected at their left and right ends. The clamping electric cylinders a2 and a11, driven by the step movement, adjust their distance, causing the symmetrical clamping frame a10 at the lower end to move closer, so that the arc-shaped positioning filling grooves on the inner side of the clamping frame a10 are spliced ​​into an elliptical integral filling groove, thus achieving the positioning of the bottle. The mixing pipe a14 and the mixing pipe a15 connected at right angles inside the top beam a13 simultaneously introduce the fish oil nutritional paste raw materials and other mixed raw materials, and then transport them to the inner cavity of the filling column a7 through the conveying pipe a5. The control valve inside the filling column a7 regulates the filling volume, and the filling head a8 at the lower end fills the positioned bottle. The lifting electric cylinders a3 and a11, which operate synchronously on the left and right sides of the upper fixed frame a4, can adjust the height of the upper fixed frame a4. The buffer spring a6 at the upper end of the filling column a7 provides a reverse force support when the bottle contacts, ensuring a stable and accurate filling process.

[0021] Please see Figures 1-4 as well as Figure 8 As a fourth embodiment of the present invention: based on the description in embodiments one and two, the capping component further includes a capping motor b1 and a capping screw head b12. The lower end of the capping motor b1 is provided with a set of support bases b2 for supporting its bottom. The lower end of the support bases b2 is provided with a set of movable seat plates b5 for connecting to the support bases b2 and driving the support bases b2 to move up and down. The upper front end of the movable seat plates b5 is fixed to the support bases b2 by bolts. The right side of the movable seat plate b5 is considered to be an L-shaped structure. The right side of the movable seat plate b5 is provided with two sets of movable inserts for guiding its up and down movement. The movable inserts are fixed to the movable seat plate b5 by bolts. The right side of the movable insert is provided with a set of guide rails b7, which are movably fitted and connected to the movable inserts. The right side of the movable insert is provided with a set of support back frame b8 for fixing it. The support back frame b8 is fixed to the two sets of guide rails b7 by bolts. The upper left side of the support back frame b8 is provided with a set of mounting plate for installing and fixing the adjusting electric cylinder b3. The mounting plate is fixed to the adjusting electric cylinder b3 by bolts. The lower end of the adjusting electric cylinder b3 is equipped with a set of telescopic columns for adjusting the up-and-down movement of the movable seat plate b5. The bottom of the telescopic columns is fixedly connected to the inside of the right side of the movable seat plate b5. The lower end of the capping motor b1 is equipped with a set of telescopic universal joints for driving the connecting end b11 to rotate. The outer side of the telescopic universal joint is equipped with a set of buffer springs b10 for supporting the reverse force during the capping process. The lower end of the buffer springs b10 is equipped with a set of connecting end b11 for easy installation of different cap tightening heads b12. The upper end of the connecting end b11 is fixedly connected to the bottom of the telescopic universal joint by bolts. The lower end of the connecting end b11 is equipped with a set of cap tightening heads b12 for easy installation of bottle caps of different models. The inner side of the cap tightening head b12 is equipped with a cap groove, which is mutually positioned and fitted with the cap at the top of the bottle. The lower middle position of the support frame b8 is equipped with a set of connecting support columns b9 for supporting its bottom. In actual use, when the capping component is working, the support frame b8 achieves stable bottom support through the connecting support columns b9. The upper end is equipped with a fixed adjusting electric cylinder b3, which drives the telescopic column to move the movable seat plate b5 up and down. The movable fitting seat b6 on the right side of the movable seat plate b5 is movably fitted with the guide rail b7 to ensure accurate guidance when the movable seat plate b5 moves. The upper front end of the movable seat plate b5 is fixed with a support frame b2 by bolts. The support frame b2 supports the capping motor b1. The lower end of the capping motor b1 is connected to the connecting end b11 via a telescopic universal joint. The buffer spring b10 on the outside of the telescopic universal joint can buffer the reverse force during capping. The cap tightening head b12 installed at the lower end of the connecting end b11 is positioned and fitted with the cap body at the upper end of the bottle through the inner cap groove. The capping motor b1 drives the cap tightening head b12 to rotate and complete the capping. In the whole process, all components work together to achieve accurate positioning and stable capping of the bottle and cap. The buffer structure can avoid damage to the cap or bottle, and the guiding structure ensures the accuracy of operation, ultimately achieving a high-efficiency and high-quality capping effect and ensuring that the product's sealing performance meets the standards.

[0022] Please see Figures 1-4 as well as Figure 8 As the fifth embodiment of the present invention: based on the description in embodiments one and two, further, the limiting member 6d includes a card head plate d1 and a synchronous connecting column d14. The card head plate d1 has a circular cross-section when viewed from above. The outer side of the card head plate d1 is uniformly provided with a number of card head grooves d5 for mutually limiting and fitting with the outer side of the bottle body. The number of card head grooves d5 are arranged in a ring structure. The cross-section of the number of card head grooves d5 when viewed from above is an arc-shaped semi-circular structure. Each set of card slots d5 has a set of reinforcing liner plates d2 on the outer side of the upper end to strengthen the outer strength of the card slots d5. The reinforcing liner plates d2 are fixed to the card plate d1 by bolts. The upper end of the middle position of the card plate d1 has a set of fixing flanges d4 to provide transmission effect. The fixing flanges d4 are fixed to the card plate d1 by several sets of bolts. The middle position of the fixing flanges d4 has a set of core rods d3 to transmit the power inside the motor box 6e. The core rods d3 pass through the fixing flanges d4 and are fixed to them. Several sets of synchronous connecting posts d14 are evenly distributed at the lower end of the card head plate d1 for connecting and fixing with the bottle card plate d6. At the lower end of the several sets of synchronous connecting posts d14, there is a set of bottle card plates d6 for rotating and guiding the filling bottle. Several sets of bottle card slots d7 are evenly distributed on the outer side of the bottle card plate d6 for providing fitting and positioning on the outer side of the filling bottle. The number of bottle card slots d7 is the same as the number of card head slots d5. The inner diameter of the bottle card slot d7 in the top view cross section is greater than the inner diameter of the card head slot d5 in the top view cross section.

[0023] The lower end of the bottle-holding disc 1 d6 is provided with several sets of synchronous connecting posts 1 d8 for connecting and fixing it to the bottle-holding disc 2. The lower end of the several sets of synchronous connecting posts 1 d8 is provided with a bottle-holding disc 2 for driving the outer side of the bottom of the filling bottle to rotate. The bottle-holding disc 1 d6 and the bottle-holding disc 2 have the same specifications, and the bottle-holding disc 2 has several sets of bottle-holding grooves 2 evenly arranged inside. The bottle-holding groove 1 d7 has the same specifications as the bottle-holding groove 2 and is completely overlapped in the vertical direction. The center position of both the bottle-holding disc 1 d6 and the bottle-holding disc 2 is provided with a rod groove d9 for the core rod d3 to pass through. The lower end of the core rod d3 is provided with a driven gear d10 for power transmission. The middle position of the driven gear d10 is connected and fixed to the outer side of the lower end of the core rod d3. A set of driving gears d11 for power connection is provided on the front side of the driven gear d10. The driving gears d11 and driven gears d10 mesh with each other. A set of drive rods d12 for power transmission is provided at the lower end of the middle position of the driven gear d10. The lower end of the drive rods d12 passes through the interior of the motor housing 6e. The motor housing 6e contains a rotary motor for providing rotation of several sets of filling bottles. A set of universal joints is provided at the connection between the driven gear d10 and the drive rods d12. A set of base plates for supporting the universal joints is provided on the outer side of the lower end of the universal joints. The lower end of the base plate is equipped with four sets of stable support frames for stable support. In actual use, the rotary motor in the motor box 6e drives the driven gear d10 through the drive rod d12 and universal joint. After meshing with the driving gear d11, the force is efficiently transmitted through the core rod d3. With the synchronous rotation structure formed by the clamping head plate d1, the bottle clamping plate one d6, and the bottle clamping plate two through the synchronous connecting column one d8, it can ensure that the rotation speed of multiple components is consistent, avoid the positional deviation caused by the speed deviation during the bottle conveying process, and provide a stable bottle conveying state for subsequent processes. In terms of positioning and limiting, the arc-shaped semi-circular groove d5 on the outer side of the clamping head plate d1 vertically overlaps with the grooves d7 and d8 on the bottle clamping plates d6 and d7, respectively. The inner diameter of the bottle clamping groove is adapted to the bottom of the bottle, and the clamping head groove d5 is adapted to the upper middle part of the bottle, thus achieving dual positioning of the upper and lower ends of the bottle. At the same time, the reinforcing liner d2 on the outer side of the clamping head groove d5 increases the strength of the groove and prevents the groove from deforming after long-term use, which would affect the positioning accuracy. This effectively prevents the bottle from shaking or tilting during rotation and conveying. In terms of structural support, the base plate and four sets of stable support structures form a solid bottom support system, reducing vibration when components rotate and further improving overall operational stability. This not only reduces the risk of equipment failure but also ensures that each process can be precisely connected, ultimately improving production efficiency and product qualification rate, and meeting the needs of large-scale, high-precision production of anti-pet hair shedding fish oil nutritional paste.

[0024] A process for filling fish oil nutritional paste using a low-temperature filling device includes the following steps: S1: The temperature environment is controlled at 0-5℃. This temperature range needs to be maintained stably, with fluctuations not exceeding ±0.5℃. In the raw material pretreatment stage, the basic raw materials of fish oil nutritional paste and the auxiliary mixing raw materials are introduced into the internal cavity of the top beam through mixing pipe one and mixing pipe two, respectively. The raw materials need to be filtered through an 80-mesh filter in advance to remove impurities with a particle size greater than 0.18mm. After the cold air compressor starts, it continuously delivers cold air to the delivery chamber through the low-temperature air circulation pipe. The temperature sensor monitors the internal temperature of the delivery chamber in real time. When the temperature is higher than 5°C, the cold air compressor automatically increases its power, and when it is lower than 0°C, it reduces its output to ensure that the insulation layer between the inner pipe chamber and the delivery chamber plays its role and prevents the cold air from dissipating. At the same time, the support legs adjust their height through an electric telescopic rod to keep the overall horizontal error of the device within 0.3 mm / m, ensuring the subsequent filling accuracy. S2: The temperature environment is maintained at 0-5℃, consistent with the pretreatment stage, with no temperature fluctuation deviation. The filling bottle is introduced through the feeding end. After the limiting component is activated, the drive motor drives the active gear to rotate through the drive rod, which in turn meshes with the driven gear to make the core rod rotate. The carding plate and the upper and lower bottle carding plates rotate synchronously. The head slot, bottle slot one, and bottle slot two respectively fit and position the upper, middle, and bottom of the bottle body. The inner diameter of the bottle slot is 0.2-0.3mm larger than the outer diameter of the corresponding position on the bottle body to ensure a close fit without jamming. The limiting strips are fixed by connecting support rods. The three sets of limiting strips are distributed in a straight line. The uppermost strip is located at three-quarters of the height of the bottle body, limiting the left and right deviation of the bottle body during the conveying process to no more than 0.5mm. The bottle conveying speed is set to 10-15 bottles / minute to match the subsequent filling rhythm. S3: The temperature environment is maintained at 0-3℃. This temperature can prevent the fish oil nutritional paste from becoming abnormally fluid due to excessive temperature during the filling process. Clamping cylinder one and clamping cylinder two operate synchronously, driving the two sets of inner frames to move closer to each other. The positioning filling groove on the clamping frame surrounds the elliptical integral filling groove, which is precisely aligned with the upper opening of the bottle body. The alignment deviation does not exceed 0.2mm. Lifting cylinder one and lifting cylinder two drive the upper fixed frame to descend, and the filling head slowly extends into the bottle opening to a depth of one-third of the bottle height. The delivery pipe introduces the filtered raw material into the inner cavity of the filling column. The control valve adjusts the opening and closing degree according to the preset dosage. The filling volume error of a single bottle is controlled within ±0.5g. The buffer spring provides reverse support force when the filling head contacts the bottle body. The buffer stroke is 5-8mm to avoid the bottle body being damaged by pressure. S4: Maintain the temperature environment at 0-5℃ to ensure the finished product remains at a low temperature before discharge. The labeling component hot stamps the label onto the filled bottle, with the hot stamping temperature controlled at 40-50℃ and the stamping time at 2-3 seconds to avoid high temperature affecting the quality of the paste. During the capping stage, the adjusting electric cylinder drives the movable seat plate to descend along the guide rail, and the capping screw head is positioned and engaged with the cap at the top of the bottle. The capping motor drives the capping screw head to rotate through the telescopic universal joint at a speed of 30-40 revolutions per minute. The buffer spring buffers the reverse force during the capping process, ensuring that the tightening torque of the cap is between 0.8-1.2 N·m, preventing bottle damage caused by loosening or over-tightening. After capping, the bottle clamping plate continues to rotate, exporting the finished bottle through the discharge end. During the export process, the distance between the bottles is maintained at 5-8 cm to avoid collision and wear.

[0025] A fish oil nutritional paste for preventing pet hair loss, comprising: active ingredients, a carrier matrix, a nutritional fortifier, a stabilizer, and the remaining ingredients, characterized in that the active ingredients include soy lecithin and deep-sea fish oil, wherein the soy lecithin has a phospholipid content of ≥95%, the deep-sea fish oil has an EPA+DHA content of ≥30%, the soy lecithin accounts for 12% of the total content, and the deep-sea fish oil accounts for 8% of the total content. The carrier matrix includes food-grade glycerin, malt syrup, and food-grade hydrogenated vegetable oil. The proportion of food-grade glycerin is 15%, the DE value of malt syrup is between 40 and 50, the proportion of malt syrup is 20%, and the proportion of food-grade hydrogenated vegetable oil is 8%. The nutritional fortifiers include vitamin E, vitamin B7, and zinc gluconate, with vitamin E accounting for 0.2%, vitamin B7 accounting for 0.001%, and zinc gluconate accounting for 0.05%. The stabilizers include food-grade xanthan gum and food-grade potassium sorbate, with the proportion of food-grade xanthan gum being 0.5% and the proportion of food-grade potassium sorbate being 0.15%. The remaining ingredient is deionized water, comprising 36.1% of the product. Its active ingredients repair hair follicle cell membranes, reduce dryness and breakage, inhibit skin inflammation, and alleviate allergy-induced hair loss, improving hair health from the root. The carrier matrix effectively prevents the nutritional paste from hardening, improves its smoothness, increases pets' willingness to eat, and provides basic energy, helping pets easily absorb nutrients. Nutritional fortifiers enhance pets' immunity, promote hair growth, and reduce hair loss caused by abnormal sebaceous gland secretion, further strengthening hair health. Stabilizers ensure uniform flow during filling, improve paste stability and fluidity, extend shelf life, and guarantee consistent quality. The remaining ingredients act as a solvent to dissolve water-soluble substances, assisting each ingredient in its function, providing comprehensive support for pet hair health. Long-term use helps reduce pet hair loss and maintain a healthy coat. The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding, characterized in that: Includes a top cover (1), a low-temperature filling component (6), and a discharge end (7). The lower end of the top cover (1) is provided with a set of low-temperature filling components (6) for filling fish oil nutritional paste. The inner side of the lower end of the top cover (1) and the upper end of the low-temperature filling component (6) are provided with cavities for storing a cold air compressor (2). The left side of the upper end of the top cover (1) is provided with a set of cold air compressor (2) for providing a low-temperature filling temperature environment for the low-temperature filling component (6). The middle position inside the low-temperature filling component (6) is provided with a set of guiding components (4) for filling and conveying fish oil nutritional paste. The guiding components (4) penetrate through the center position inside the low-temperature filling component (6). The upper end of the guide component (4) is provided with a set of limiting strips (3) on the front and rear sides for limiting the position of the fish oil nutritional paste filling bottle. The limiting strips (3) are distributed in a straight line and three sets of limiting strips (3) are provided on the same side. The three sets of limiting strips (3) on the same side are connected and fixed by connecting support rods. The height of the uppermost limiting strip (3) is located at three-quarters of the height of the filling bottle. The lower ends of the left and right sides of the guide component (4) are provided with a set of support legs (5) for supporting its bottom. The right side of the support leg (5) has an inverted Y-shaped cross-section. The support leg (5) also includes a set of electric telescopic rods for adjusting the support height. The middle right side of the low-temperature filling component (6) is provided with a set of discharge end (7) for exporting the filled bottle. The middle left side of the low-temperature filling component (6) is provided with a set of feed end for importing the fish oil nutritional paste into the bottle. The rear left side of the low-temperature filling component (6) is provided with two sets of material tubes for importing the raw materials of the fish oil nutritional paste to be filled.

2. The low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding according to claim 1, characterized in that: The low-temperature filling component (6) includes an outer protective shell (61) and a temperature sensor bracket (601). The outer protective shell (61) has an outer insulation layer (62) inside to prevent the cold air inside the delivery cavity (66) from dissipating. The outer insulation layer (62) has an inner pipe cavity (63) inside to install a low-temperature air circulation pipe (68). The right cross-section of the inner pipe cavity (63) is a U-shaped structure. The inner pipe cavity (63) has an annular low-temperature air circulation pipe (68) inside. The length of the low-temperature air circulation pipe (68) corresponds to the length of the front cross-section of the inner pipe cavity (63). The inner walls of the front and rear sides of the inner pipe cavity (63) are treated with moisture-proof and corrosion-proof measures. The inner pipe cavity (63) is provided with an inner insulation layer (64) for providing insulation for the low temperature inside the guide cavity (66). The inner insulation layer (64) is provided with an inner protective shell (65) for protecting the inner insulation layer (64) from damage. The inner insulation layer (64) and the inner protective shell (65) are respectively provided with several sets of internal perforations for the cold air release pipe to pass through. The inner side of each internal perforation is provided with a sealing liner. The inner side of the low temperature air circulation pipe (68) is provided with several sets of cold air release pipes for introducing low temperature cold air into the guide cavity (66) at equal intervals. The cold air release pipe is sealed through the inner insulation layer (64) and the inner protective shell (65). The interior of the cold air release pipe is connected to the interior of the low temperature air circulation pipe (68) and the interior of the guide cavity (66). A set of side limiters (69) for limiting the position is provided in the middle between every two sets of cold air release pipes. A set of temperature sensor brackets (601) for detecting the release temperature of the cold air release pipe is provided at the upper end of each set of side limiters (69). A set of temperature sensors is provided inside each set of temperature sensor brackets (601).

3. The low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding according to claim 2, characterized in that: The guide cavity (66) includes a filling component (6a), a capping component (6b), a labeling component (6c), a limiting component (6d), and a motor housing (6e). The filling component (6a) is located inside the left side of the guide cavity (66). A set of labeling components (6c) for hot stamping trademarks on the outside of the filling bottle is provided inside the guide cavity (66). A set of capping components (6b) for sealing the opening of the filling bottle is provided to the right side of the labeling component (6c). A set of limiting components (6d) for guiding and limiting the flow of several groups of filling bottles is provided in front of the capping component (6b) and the labeling component (6c). A set of motor housing (6e) for providing rotational power to the limiting component (6d) is provided at the lower end of the motor housing (6e). A set of drive motors is provided inside the motor housing (6e).

4. The low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding according to claim 3, characterized in that: The filling component (6a) includes an inner frame (a1) and a mixing tube (a15). The inner frame (a1) is a rectangular structure. There are two sets of inner frames (a1), with the rear inner frame (a1) being a fixed structure and the front inner frame (a1) being a movable structure. Each set of inner frames (a1) has a clamping frame (a10) at its lower end for positioning the bottle to be filled. The two sets of clamping frames (a10) are arranged symmetrically. The inner side of the clamping frame (a10) is provided with several sets of positioning and filling grooves for positioning and fitting the upper end of the filling bottle. The positioning and filling grooves are arc-shaped. When the distance between the two sets of clamping frames (a10) and the inner frame (a1) is shortened, the two sets of positioning and filling grooves form an elliptical overall filling groove. The left inner side of the two sets of inner frames (a1) is provided with a set of clamping electric cylinder one (a2) for adjusting the distance between them. The right inner side of the two sets of inner frames (a1) is provided with a set of clamping electric cylinder two for adjusting the distance between them. The clamping electric cylinder one (a2) and the clamping electric cylinder two have the same structure and move synchronously. The clamping electric cylinder one (a2) and clamping electric cylinder two are connected and fixed to the front inner frame (a1) by bolts. The driving ends of clamping electric cylinder one (a2) and clamping electric cylinder two are both located on the rear side and are connected and fixed to the rear inner frame (a1) by bolts. Several sets of filling heads (a8) for filling fish oil nutritional paste are provided in the middle position between the two sets of inner frames (a1). The number of filling heads (a8) corresponds to the number of filling tanks in the whole. Each set of filling heads (a8) has a filling column (a7) at the upper end for guiding and supplying fish oil nutritional paste. The filling column (a7) has a set of control valves for controlling the filling amount and an inner cavity for storing fish oil nutritional paste raw materials. The filling column (a7) has a set of buffer spring one (a6) at the upper end for supporting the reverse force when the upper end of the bottle is in contact. The lower end of the buffer spring one (a6) has an inner locking groove at the contact position with the filling column (a7). Each of the several sets of buffer springs (a6) has an upper fixing frame (a4) at its upper end for supporting its top. Each of the filling columns (a7) has a conveying pipe (a5) at its upper end for conveying the raw materials of fish oil nutritional paste. The conveying pipe (a5) is connected to the inner cavity. The lower outer side of the conveying pipe (a5) has a fixing nut for fixing its position. The fixing nut is connected to the lower outer side of the conveying pipe (a5) by thread until the bottom of the fixing nut is in contact with the upper surface of the upper fixing frame (a4). The upper left side of the upper fixing frame (a4) has a lifting electric cylinder (a11) for controlling the height of the upper fixing frame (a4). The upper right side of the upper fixed frame (a4) is provided with a set of lifting electric cylinders (a3) ​​for controlling the height of the upper fixed frame (a4). The lifting electric cylinders (a3) ​​and the lifting electric cylinders (a11) are of the same specifications and operate synchronously. The upper ends of the lifting electric cylinders (a3) ​​and the lifting electric cylinders (a11) are provided with a set of top beams (a13) for supporting their tops. The top beams (a13) have a hollow structure inside. Inside the top beams (a13) are a set of mixing pipes (a15) for synchronously introducing other mixed raw materials of fish oil nutritional paste. The upper end of the mixing pipes (a15) is provided with mixing pipes (a14) for conveying the raw materials of fish oil nutritional paste. The mixing pipes (a14) and the mixing pipes (a15) are connected at right angles and a mixing tee is provided at the connection.

5. The low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding according to claim 3, characterized in that: The capping component (6b) includes a capping motor (b1) and a cap tightening head (b12). The capping motor (b1) has a set of support bases (b2) at its lower end for supporting its bottom. The support bases (b2) have a set of movable seat plates (b5) at their lower ends for connecting to the support bases (b2) and driving the support bases (b2) to move up and down. The upper front end of the movable seat plates (b5) is fixed to the support bases (b2) by bolts. The right side of the movable seat plate (b5) is considered to be an L-shaped structure. The right side of the movable seat plate (b5) is provided with two sets of movable inserts for guiding its up and down movement. The movable inserts are fixed to the movable seat plate (b5) by bolts. The right side of the movable insert is provided with a set of guide rails (b7). The guide rails (b7) are movably fitted and connected to the movable inserts. The right side of the movable insert is provided with a set of support back frame (b8) for fixing it. The support back frame (b8) is fixed to the two sets of guide rails (b7) by bolts. The upper left side of the support back frame (b8) is provided with a set of mounting plates for fixing the adjusting electric cylinder (b3). The mounting plates are fixed to the adjusting electric cylinder (b3) by bolts. The lower end of the adjusting electric cylinder (b3) is provided with a set of telescopic columns for adjusting the up and down movement of the movable seat plate (b5). The bottom of the telescopic columns is connected and fixed to the inside of the right side of the movable seat plate (b5). The lower end of the capping motor (b1) is provided with a set of telescopic universal joints for driving the connecting end (b11) to rotate. The outer side of the telescopic universal joint is provided with a set of buffer springs (b10) for supporting the reverse force during the capping process. The lower end of the buffer springs (b10) is provided with a set of connecting end (b11) for easy installation of different capping heads (b12). The upper end of the connecting end (b11) is connected and fixed to the bottom of the telescopic universal joint by bolts. The lower end of the connecting end (b11) is provided with a set of capping heads (b12) for easy installation of bottle caps of different models. The inner side of the capping head (b12) is provided with a cap groove. The inside of the cap groove is mutually positioned and fitted with the cap at the top of the bottle body. The middle position of the lower end of the support back frame (b8) is provided with a set of connecting support columns (b9) for supporting its bottom.

6. The low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding according to claim 3, characterized in that: The limiting component (6d) includes a clamping plate (d1) and a synchronous connecting column (d14). The clamping plate (d1) has a circular cross-section when viewed from above. The clamping plate (d1) has several sets of clamping grooves (d5) evenly arranged on its outer side for mutually limiting and fitting with the outer side of the bottle body. The sets of clamping grooves (d5) are arranged in a ring structure. The sets of clamping grooves (d5) have an arc-shaped semi-circular cross-section when viewed from above. Each set of the card slots (d5) has a set of reinforcing liner plates (d2) on the outer side of the upper end to strengthen the outer strength of the card slots (d5). The reinforcing liner plates (d2) are fixed to the card discs (d1) by bolts. The upper end of the middle position of the card discs (d1) has a set of fixed flanges (d4) for providing transmission effect. The fixed flanges (d4) are fixed to the card discs (d1) by several sets of bolts. The middle position of the fixed flanges (d4) has a set of core rods (d3) for transmitting the power inside the motor housing (6e). The core rods (d3) pass through the fixed flanges (d4) and are fixed to them. The lower end of the card head plate (d1) is evenly distributed with several sets of synchronous connecting posts 2 (d14) for connecting and fixing with the bottle card plate 1 (d6). The lower end of the several sets of synchronous connecting posts 2 (d14) is provided with a set of bottle card plate 1 (d6) for rotating and guiding the filling bottle. The outer side of the bottle card plate 1 (d6) is evenly distributed with several sets of bottle card groove 1 (d7) for providing fitting and positioning on the outer side of the filling bottle. The number of bottle card groove 1 (d7) is the same as the number of card head grooves (d5). The inner diameter of the bottle card groove 1 (d7) in the top view cross section is greater than the inner diameter of the card head groove (d5) in the top view cross section.

7. The low-temperature filling device for fish oil nutritional paste that prevents pet hair shedding according to claim 6, characterized in that: The lower end of the first bottle-holding plate (d6) is provided with several sets of synchronous connecting posts (d8) for connecting and fixing it to the second bottle-holding plate. The lower end of the several sets of synchronous connecting posts (d8) is provided with a second bottle-holding plate for driving the outer side of the bottom of the filling bottle to rotate. The first bottle-holding plate (d6) and the second bottle-holding plate are the same size, and the second bottle-holding plate is evenly provided with several sets of second bottle-holding slots. The first bottle-holding slot (d7) and the second bottle-holding slot are the same size and are completely overlapped in the vertical direction. The center position of the first bottle-holding plate (d6) and the second bottle-holding plate is provided with a set of rod slots (d9) for the core rod (d3) to pass through. The lower end of the core rod (d3) is provided with a set of driven gears (d10) for power transmission. The middle position of the driven gears (d10) is connected and fixed to the outer side of the lower end of the core rod (d3). The driven gear (d10) has a set of driving gears (d11) for power connection on its front side. The driving gears (d11) mesh with the driven gears (d10). The driven gears (d10) have a set of drive rods (d12) for power transmission at the lower end of the middle position. The lower end of the drive rods (d12) passes through the inside of the motor housing (6e). The motor housing (6e) has a rotary motor for providing rotation of several sets of filling bottles. The connection between the driven gears (d10) and the drive rods (d12) has a set of universal joints. The lower outer side of the universal joints has a set of base plates for support. The lower end of the base plates has four sets of stabilizing support frames for stable support.

8. A process for filling fish oil nutritional paste using the low-temperature filling device according to any one of claims 1-7, characterized in that: Includes the following steps, S1: The temperature environment is controlled at 0-5℃. This temperature range needs to be maintained stably, with fluctuations not exceeding ±0.5℃. In the raw material pretreatment stage, the basic raw materials of fish oil nutritional paste and the auxiliary mixing raw materials are introduced into the internal cavity of the top beam through mixing pipe one and mixing pipe two, respectively. The raw materials need to be filtered through an 80-mesh filter in advance to remove impurities with a particle size greater than 0.18mm. After the cold air compressor starts, it continuously delivers cold air to the delivery chamber through the low-temperature air circulation pipe. The temperature sensor monitors the internal temperature of the delivery chamber in real time. When the temperature is higher than 5°C, the cold air compressor automatically increases its power, and when it is lower than 0°C, it reduces its output to ensure that the insulation layer between the inner pipe chamber and the delivery chamber plays its role and prevents the cold air from dissipating. At the same time, the support legs adjust their height through an electric telescopic rod to keep the overall horizontal error of the device within 0.3 mm / m, ensuring the subsequent filling accuracy. S2: The temperature environment is maintained at 0-5℃, consistent with the pretreatment stage, with no temperature fluctuation deviation. The filling bottle is introduced through the feeding end. After the limiting component is activated, the drive motor drives the active gear to rotate through the drive rod, which in turn meshes with the driven gear to make the core rod rotate. The carding plate and the upper and lower bottle carding plates rotate synchronously. The head slot, bottle slot one, and bottle slot two respectively fit and position the upper, middle, and bottom of the bottle body. The inner diameter of the bottle slot is 0.2-0.3mm larger than the outer diameter of the corresponding position on the bottle body to ensure a close fit without jamming. The limiting strips are fixed by connecting support rods. The three sets of limiting strips are distributed in a straight line. The uppermost strip is located at three-quarters of the height of the bottle body, limiting the left and right deviation of the bottle body during the conveying process to no more than 0.5mm. The bottle conveying speed is set to 10-15 bottles / minute to match the subsequent filling rhythm. S3: The temperature environment is maintained at 0-3℃. This temperature can prevent the fish oil nutritional paste from becoming abnormally fluid due to excessive temperature during the filling process. Clamping cylinder one and clamping cylinder two operate synchronously, driving the two sets of inner frames to move closer to each other. The positioning filling groove on the clamping frame surrounds the elliptical integral filling groove, which is precisely aligned with the upper opening of the bottle body. The alignment deviation does not exceed 0.2mm. Lifting cylinder one and lifting cylinder two drive the upper fixed frame to descend, and the filling head slowly extends into the bottle opening to a depth of one-third of the bottle height. The delivery pipe introduces the filtered raw material into the inner cavity of the filling column. The control valve adjusts the opening and closing degree according to the preset dosage. The filling volume error of a single bottle is controlled within ±0.5g. The buffer spring provides reverse support force when the filling head contacts the bottle body. The buffer stroke is 5-8mm to avoid the bottle body being damaged by pressure. S4: Maintain the temperature environment at 0-5℃ to ensure the finished product remains at a low temperature before discharge. The labeling component hot stamps the label onto the filled bottle, with the hot stamping temperature controlled at 40-50℃ and the stamping time at 2-3 seconds to avoid high temperature affecting the quality of the paste. During the capping stage, the adjusting electric cylinder drives the movable seat plate to descend along the guide rail, and the capping screw head is positioned and engaged with the cap at the top of the bottle. The capping motor drives the capping screw head to rotate through the telescopic universal joint at a speed of 30-40 revolutions per minute. The buffer spring buffers the reverse force during the capping process, ensuring that the tightening torque of the cap is between 0.8-1.2 N·m, preventing bottle damage caused by loosening or over-tightening. After capping, the bottle clamping plate continues to rotate, exporting the finished bottle through the discharge end. During the export process, the distance between the bottles is maintained at 5-8 cm to avoid collision and wear.

9. A fish oil nutritional paste filled using the low-temperature filling apparatus according to any one of claims 1-7, characterized in that, include: The active ingredient, carrier matrix, nutrient fortifier, stabilizer, and balance are characterized in that the active ingredient includes soy lecithin and deep-sea fish oil, wherein the soy lecithin has a phospholipid content of ≥95%, the deep-sea fish oil has an EPA+DHA content of ≥30%, the soy lecithin accounts for 12% of the total content, and the deep-sea fish oil accounts for 8% of the total content. The carrier matrix comprises food-grade glycerin, malt syrup, and food-grade hydrogenated vegetable oil, wherein the food-grade glycerin accounts for 15% of the total content, the malt syrup has a DE value between 40 and 50, the malt syrup accounts for 20% of the total content, and the food-grade hydrogenated vegetable oil accounts for 8% of the total content. The nutritional fortifier includes vitamin E, vitamin B7, and zinc gluconate, wherein the proportion of vitamin E is 0.2%, the proportion of vitamin B7 is 0.001%, and the proportion of zinc gluconate is 0.05%. The stabilizer includes food-grade xanthan gum and food-grade potassium sorbate, wherein the proportion of food-grade xanthan gum is 0.5% and the proportion of food-grade potassium sorbate is 0.15%. The remaining component is deionized water, which accounts for 36.1% of the total composition.

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