Organic Product Distribution System

Abstract

The present invention relates to an organic product distribution system that maintains the quality of organic products, improves inventory management and delivery efficiency, and enables real-time communication between a manager and distribution staff. The system comprises: a distribution vehicle that transports organic products contained in glass bottles; a distribution server that stores inventory management data of organic products and collects and analyzes location data of said distribution vehicle to optimize the distribution route; and a manager terminal that links with said distribution server to check the order history and inventory status of organic products in real time, checks and adjusts the route of said distribution vehicle, and transmits and receives messages between a manager and distribution staff.

Description

Technology Field

[0001] The present invention relates to the distribution of organic products, and more specifically, to an organic product distribution system that maintains the quality of organic products, improves inventory management and delivery efficiency, and enables real-time communication between managers and distribution staff. Background Technology

[0003] Organic products are produced using natural cultivation methods, offering consumers a healthy option, but maintaining quality during distribution can be challenging. Existing distribution systems can lead to quality degradation due to external impacts or environmental changes during transport, and organic products, in particular, require special management to preserve their quality.

[0004] Furthermore, while inventory management and distribution channel optimization in the organic product distribution process must be carried out efficiently according to consumer demands, existing systems often fail to support these in real time. To resolve issues such as delays and unnecessary costs arising during the delivery of organic products, technology is required to effectively integrate distribution vehicles, servers, and administrator terminals.

[0005] Meanwhile, the aforementioned background technology is technical information that the inventor possessed for the derivation of the present invention or acquired during the process of deriving the present invention, and it cannot necessarily be considered publicly known technology disclosed to the general public prior to the filing of the present invention. Prior art literature

[0007] Korean Patent Publication No. 10-2001-0083825 (Published September 3, 2001) The problem to be solved

[0008] One aspect of the present invention provides an organic product distribution system that maintains the quality of organic products and promotes homogenization, optimizes the organic product distribution process through inventory management and distribution channel optimization, and enables real-time communication between managers and distribution staff.

[0009] The technical problems of the present invention are not limited to those mentioned above, and other unmentioned technical problems will be clearly understood by those skilled in the art from the description below. means of solving the problem

[0011] An organic product distribution system according to one embodiment of the present invention comprises: a distribution vehicle for transporting organic products contained in glass bottles; a distribution server for storing inventory management data of organic products and collecting and analyzing location data of said distribution vehicle to optimize the distribution route; and a manager terminal linked with said distribution server for checking order history and inventory status of organic products in real time, checking and adjusting the route of said distribution vehicle, and transmitting and receiving messages between a manager and a distribution employee.

[0012] In one embodiment, the distribution vehicle may be equipped with a cargo compartment having a stirring system for stirring the glass bottle containing the organic product during transport.

[0013] In one embodiment, the stirring system may include: a moving rail installed along the loading container to move the glass bottles in a row; a detachment prevention fence installed along one side and the other side of the moving rail to prevent the glass bottles from detaching from the moving rail; a glass bottle rotation connection installed between two adjacent glass bottles to support the gap between the two glass bottles while rotating the glass bottles; a fastening belt installed on each side and the other side of two adjacent glass bottle rotation connections positioned at the front and rear ends of the glass bottles to support the two adjacent glass bottle rotation connections and fasten the glass bottles; and a glass bottle sterilization unit that performs sterilization of the glass bottles moving along the moving rail.

[0014] In one embodiment, the glass bottle rotation connecting member comprises: a first mounting block forming a first glass bottle mounting groove corresponding to the circumference shape of the glass bottle so as to be mounted and wrapped around the side of the glass bottle; a second mounting block positioned facing away from the first mounting block and forming a second glass bottle mounting groove corresponding to the circumference shape of the glass bottle so as to be mounted and wrapped around the side of the glass bottle; a cushioning block installed between the first mounting block and the second mounting block to cushion vibration or shock; a first sterilization unit mounting groove extending vertically along the middle of the first glass bottle mounting groove so as to allow the glass bottle sterilization unit to move downward along the first glass bottle mounting groove in a state where the glass bottle is mounted; and a second sterilization unit mounting groove extending vertically along the middle of the second glass bottle mounting groove so as to allow the glass bottle sterilization unit to move downward along the second glass bottle mounting groove in a state where the glass bottle is mounted. It may include: a pair of first rotary drive rollers connected to one side and the other side of the first glass bottle mounting groove, respectively, with the first sterilization unit mounting groove in between, so as to be rotatably driven, to support the side of the glass bottle and to rotate the glass bottle in a connected state by rotating drive; and a pair of second rotary drive rollers connected to one side and the other side of the second glass bottle mounting groove, respectively, with the second sterilization unit mounting groove in between, so as to be rotatably driven, to support the side of the glass bottle and to rotate the glass bottle in a connected state by rotating drive.

[0015] In one embodiment, the glass bottle sterilization unit may include: a lifting cylinder installed upright and spaced upward from the moving rail while facing the moving rail; a lifting frame installed on the lifting cylinder, which moves downward as the lifting cylinder extends and is inserted into the first sterilization unit seating groove or the second sterilization unit seating groove; a disinfectant supply tank that supplies a disinfectant solution for sterilizing the glass bottle to the lifting frame; and a plurality of disinfectant spray nozzles installed at regular intervals in the vertical direction along the front edge of the lifting frame, which spray the disinfectant solution supplied from the disinfectant supply tank onto the glass bottle when the lifting frame is inserted into the first sterilization unit seating groove or the second sterilization unit seating groove.

[0016] In one embodiment, the disinfectant spray nozzle part comprises: a nozzle groove formed at the front end of the lifting frame; a sphere mounting part protruding from the inner side of the nozzle groove; a sphere mounting groove formed at the front end of the sphere mounting part; a rotating sphere formed in a circular spherical shape corresponding to the shape of the sphere mounting groove and connected to the sphere mounting groove so as to be rotatable; a nozzle installed at the front end of the rotating sphere exposed from the sphere mounting groove, installed at an angle, which rotates together with the rotating sphere as it rotates and sprays the disinfectant at an angle; and at least one branch pipe installed from the disinfectant supply line to the sphere mounting groove to deliver the disinfectant to the rotating sphere from the disinfectant supply line installed vertically along the inner side of the lifting frame to supply the disinfectant. It may include: a delivery pipe extending from the rear end of the rotating sphere facing the discharge port of the branch pipe to the nozzle, delivering the disinfectant solution delivered through the branch pipe to the nozzle, and inducing the disinfectant solution sprayed through the nozzle to be sprayed in a cycle pattern only when the disinfectant solution is delivered when the rotating sphere meets the discharge port of the branch pipe as it rotates; a driving chamber formed in the disinfectant solution supply line facing the rotating sphere; a driving shaft installed by axial coupling at the rear end of the rotating sphere and positioned in the driving chamber to rotate the rotating sphere as it is driven; and a plurality of rotating driving blades spaced apart along the circumference of the driving shaft, which rotate in a waterwheel manner by the disinfectant solution moving through the driving chamber to drive the driving shaft.

[0017] In one embodiment, the rotary drive blade comprises: a wing frame installed upright on the drive shaft exposed to the drive chamber; a wing plate having its lower rear end rotatably connected to the lower side of the wing frame, wherein when the lower side is separated from the drive shaft, the upper side is seated on the inner circumference of the drive chamber, thereby maximizing the contact area with the disinfectant moving through the drive chamber, and when the lower side is seated on the drive shaft, the upper side is inclined so as to minimize the contact area with the disinfectant moving through the drive chamber; a first magnetic body installed along the lower side of the wing plate; and a second magnetic body installed along the drive shaft facing the first magnetic body, which pulls the first magnetic body when forming opposite polarity with the first magnetic body through electrical switching, and pushes the first magnetic body apart when forming the same polarity with the first magnetic body through electrical switching. It may include a wing cover made of a thin film of an expandable or contractible elastic material, installed between the wing plate and the drive shaft, and covering the gap formed as the distance between the wing plate and the drive shaft increases. Effects of the invention

[0019] According to one aspect of the present invention described above, the organic product distribution system according to the present invention provides the following effects.

[0020] First, by including a stirring system inside the distribution vehicle, it is possible to maintain the quality of organic products, prevent the sedimentation of specific ingredients, and promote the homogenization of organic products.

[0021] Second, by tracking the location of distribution vehicles in real time through the distribution server and optimizing distribution routes, delivery efficiency can be increased and distribution costs and time can be reduced.

[0022] Third, through the manager terminal, order details and inventory status can be checked, distribution vehicle routes can be adjusted, and the distribution process can be managed quickly by exchanging messages between the manager and distribution staff.

[0023] The effects of the present invention are not limited to those mentioned above, and various effects may be included within the scope obvious to a person skilled in the art from the contents described below. Brief explanation of the drawing

[0025] FIG. 1 is a diagram showing the schematic configuration of an organic product distribution system according to one embodiment. Figure 2 is a drawing showing the stirring system of Figure 1. Figure 3 is a drawing showing the rotating connection of the glass bottle of Figure 2. Figure 4 is a drawing showing the disinfectant spray nozzle part of Figure 3. Figure 5 is a drawing showing the rotary drive blade of Figure 4. Specific details for implementing the invention

[0026] The following detailed description of the invention refers to the accompanying drawings, which illustrate specific embodiments in which the invention may be practiced. These embodiments are described in sufficient detail to enable those skilled in the art to practice the invention. It should be understood that various embodiments of the invention are different but need not be mutually exclusive. For example, specific shapes, structures, and characteristics described herein may be implemented in other embodiments without departing from the spirit and scope of the invention in relation to one embodiment. It should also be understood that the location or arrangement of individual components within each disclosed embodiment may be changed without departing from the spirit and scope of the invention. Accordingly, the following detailed description is not intended to be limiting, and the scope of the invention is limited only by the appended claims, including all equivalents to those claimed therein, provided appropriately described. Similar reference numerals in the drawings refer to the same or similar functions across various aspects.

[0027] Hereinafter, preferred embodiments of the present invention will be described in more detail with reference to the drawings.

[0028] FIG. 1 is a diagram showing the schematic configuration of an organic product distribution system according to one embodiment.

[0029] Referring to FIG. 1, the organic product distribution system (10) includes a distribution vehicle (100), a distribution server (200), and a manager terminal (300).

[0030] The distribution vehicle (100) transports organic products contained in glass bottles (P). The organic products contained in glass bottles are transported while maintaining certain conditions inside the vehicle to ensure safety and quality preservation during transport.

[0031] In one embodiment, the distribution vehicle (100) may include a cargo box (110) and a stirring system (400).

[0032] The storage box (110) is designed to safely transport a glass bottle (P) containing an organic product during transport. The interior of the storage box (110) is constructed with a structure to minimize impact on the glass bottle and provides a stable transport environment for maintaining the quality of the organic product.

[0033] The stirring system (400) is mounted in the loading container (110) and stirs the glass bottle (P) containing the organic product. This stirring process is performed to maintain the quality of the organic product or to prevent specific components from settling. The stirring system (400) stirs the glass bottle according to a set cycle, and this process can be adjusted according to the characteristics of the loaded product.

[0034] A distribution vehicle (100) having the configuration described above provides the effect of maintaining the quality and homogenization of organic products, and improves the quality control function of the organic product distribution system (10).

[0035] The distribution server (200) stores inventory management data for organic products. In addition, it collects and analyzes location data of the distribution vehicle (100) to optimize the distribution route. Through this, efficient delivery is possible based on real-time location information, and distribution costs and time can be reduced.

[0036] The manager terminal (300) checks the order history and inventory status of organic products in real time by linking with the distribution server (200). It also checks and adjusts the route of the distribution vehicle (100) and sends and receives messages between the manager and the distribution staff. Through this, smooth communication between the manager and the distribution staff is possible, and real-time management and rapid adjustment of the distribution process are achieved.

[0037] An organic product distribution system (10) having the configuration described above can optimize the distribution process of organic products by enabling efficient delivery and inventory management of organic products as well as effective communication between a manager and a distribution employee.

[0039] Figure 2 is a drawing showing the stirring system of Figure 1.

[0040] Referring to FIG. 2, the stirring system (400) includes a moving rail (410), a detachment prevention fence (420), a glass bottle rotation connection (430), a fastening belt (440), and a glass bottle sterilization unit (450).

[0041] The moving rail (410) is installed along the loading box (110) and moves the glass bottles (P) in a row. This allows the glass bottles to move smoothly along a predetermined path inside the loading box, and enables the consistent quality of the organic products to be maintained during movement.

[0042] The anti-detachment fence (420) is installed on one side and the other side of the moving rail (410), respectively, to prevent the glass bottle (P) from detaching from the moving rail (410). This prevents the glass bottle from falling or being damaged during movement and ensures the safe movement of the glass bottle.

[0043] The glass bottle rotation connection (430) is installed between two adjacent glass bottles (P) to support the gap between the two glass bottles. Additionally, it rotates the glass bottles to promote the homogenization of organic products and contributes to maintaining product quality.

[0044] The fastening belt (440) is positioned at the front and rear ends of the glass bottle (P) and is installed on each side of two adjacent glass bottle rotation connecting parts (430). This securely fastens the glass bottle (P) to prevent vibrations or shocks that may occur during movement.

[0045] The glass bottle sterilization unit (450) performs sterilization of the glass bottle (P) moving along the moving rail (410) as shown in FIG. 3. The sterilization process maintains the hygienic condition of the organic product and contributes to securing consumer trust.

[0046] In one embodiment, the glass bottle disinfection unit (450) may include a lifting cylinder (451), a lifting frame (452), a disinfectant supply tank (453), and a disinfectant spray nozzle unit (500).

[0047] The lifting cylinder (451) is installed upright, facing the moving rail (410) and spaced upward from the moving rail (410). This provides an up-and-down movement function for disinfecting the glass bottle (P) and stably supports the disinfection operation.

[0048] The lifting frame (452) is installed on the lifting cylinder (451) and moves downward as the lifting cylinder (451) extends and is inserted into the first disinfection part seating groove (434) or the second disinfection part seating groove (435). This enables disinfection in close contact with the outside of the glass bottle (P) and increases the efficiency of disinfection.

[0049] The disinfectant supply tank (453) supplies disinfectant to the lifting frame (452) and stores sufficient disinfectant for disinfecting glass bottles. The disinfectant is adjusted so that it is sprayed uniformly through the disinfectant spray nozzle section (500).

[0050] A plurality of disinfectant spray nozzles (500) are installed at regular intervals in the vertical direction along the front edge of the lifting frame (452). When the lifting frame (452) is inserted into the first disinfection unit seating groove (434) or the second disinfection unit seating groove (435), the disinfectant supplied from the disinfectant supply tank (453) is sprayed uniformly onto the glass bottle (P). Through this, the outer surface of the glass bottle (P) is evenly disinfected, and the hygienic condition of the organic product can be maintained.

[0051] A glass bottle sterilization unit (450) having the configuration described above can efficiently perform the sterilization of glass bottles (P) and improve the hygiene management level of the organic product distribution system (10).

[0052] The stirring system (400) having the configuration described above simultaneously maintains the quality and hygiene of organic products and enables the safe and homogeneous transport of glass bottles. This can improve the overall reliability and efficiency of the organic product distribution system (10).

[0054] Figure 3 is a drawing showing the rotating connection of the glass bottle of Figure 2.

[0055] Referring to FIG. 3, the glass bottle rotation connection part (430) includes a first seating block (431), a second seating block (432), a buffer block (433), a first disinfection part seating groove (434), a second disinfection part seating groove (435), a first rotation drive roller (436), and a second rotation drive roller (437).

[0056] The first mounting block (431) forms a first glass bottle mounting groove (S1) corresponding to the circumference shape of the glass bottle (P) so that it can be stably mounted by wrapping around the side of the glass bottle (P). Through this, the glass bottle (P) is maintained stably without shaking even when loaded.

[0057] The second mounting block (432) is positioned opposite the first mounting block (431) and forms a second glass bottle mounting groove (S2) corresponding to the circumference of the glass bottle (P) so that it can be mounted by wrapping around the side of the glass bottle (P). As a result, the glass bottle (P) is supported from both sides and stably fixed.

[0058] The buffer block (433) is installed between the first mounting block (431) and the second mounting block (432) to cushion vibrations or shocks. This protects the glass bottle (P) from external shocks that may occur during transport, thereby reducing the possibility of breakage.

[0059] The first disinfection unit seating groove (434) is formed to extend in the vertical direction along the middle of the first glass bottle seating groove (S1), allowing the glass bottle disinfection unit (450) to move downward while the glass bottle (P) is seated. Through this, effective disinfection can be performed on the outer surface of the glass bottle (P).

[0060] The second sterilization unit seating groove (435) is formed to extend in the vertical direction along the middle of the second glass bottle seating groove (S2) and supports the downward movement of the glass bottle sterilization unit (450) in the same way as the first sterilization unit seating groove (434).

[0061] The first rotary drive roller (436) is installed so as to be rotary driven on one side and the other side of the first glass bottle mounting groove (S1), with the first disinfection part mounting groove (434) in between. Through this, the glass bottle (P) in a connected state is rotary driven so that the contents of the organic product are homogenized.

[0062] The second rotary drive roller (437) is installed so as to be rotatably driven on one side and the other side of the second glass bottle mounting groove (S2), with the second sterilization part mounting groove (435) in between. It supports the side of the glass bottle (P) in the same way as the first rotary drive roller (436) and rotates to assist in homogenizing the contents.

[0063] The glass bottle rotation connecting part (430) having the configuration described above enables the homogenization of the contents of the organic product and the stable fixation and disinfection of the glass bottle (P) simultaneously, thereby improving the overall quality control and transport efficiency of the organic product distribution system (10).

[0065] Figure 4 is a drawing showing the disinfectant spray nozzle part of Figure 3.

[0066] Referring to FIG. 4, the disinfectant spray nozzle part (500) includes a nozzle groove (510), a sphere installation part (520), a sphere installation groove (530), a rotating sphere (540), a nozzle (550), a branch pipe (560), a delivery pipe (570), a driving chamber (580), a driving shaft (590), and a rotating driving blade (600).

[0067] The nozzle groove (510) is formed at the front end of the lifting frame (452) and provides a base for installing a nozzle (550) for spraying disinfectant solution.

[0068] The sphere installation part (520) is formed protruding from the inner side of the nozzle groove (510) and serves as a structural support for the sphere installation groove (530).

[0069] The sphere installation groove (530) is formed at the front end of the sphere installation part (520), and a rotating sphere (540) corresponding to the shape of the sphere installation groove (530) is connected and installed so that it can rotate.

[0070] The rotating sphere (540) is partially exposed from the sphere mounting groove (530) and is formed in a circular spherical shape. The rotating sphere (540) is designed to be driven to rotate and uniformly spray disinfectant solution through the nozzle (550).

[0071] The nozzle (550) is installed at the front end of the rotating sphere (540) and positioned at an angle. It rotates together with the rotating sphere (540) and sprays the disinfectant solution at an angle to increase the uniformity and efficiency of the spray range.

[0072] The branch pipe (560) is connected from a disinfectant supply line (4521), which is installed vertically along the inner side of the lifting frame (452) to supply disinfectant, to a sphere installation groove (530). Through this, the disinfectant is delivered to the rotating sphere (540).

[0073] The delivery pipe (570) extends from the rear end of the rotating sphere (540), which faces the outlet of the branch pipe (560), to the nozzle (550). The disinfectant solution is delivered only when the rotating sphere (540) rotates and comes into contact with the outlet of the branch pipe (560), thereby inducing the disinfectant solution to be sprayed in a cycle pattern through the nozzle (550).

[0074] The driving chamber (580) is formed in the disinfectant supply line (4521) and controls the flow of the disinfectant opposite the rotating sphere (540).

[0075] The drive shaft (590) is installed by axial coupling at the rear end of the rotating sphere (540) and is driven rotationally in the drive chamber (580). The drive shaft (590) rotates the rotating sphere (540) to increase the spraying efficiency of the disinfectant solution.

[0076] Multiple rotary drive blades (600) are spaced apart along the circumference of the drive shaft (590). They rotate in a waterwheel manner by the flow of disinfectant solution passing through the drive chamber (580), thereby driving the drive shaft (590) to rotate.

[0077] A disinfectant spray nozzle part (500) having the configuration described above can maximize the disinfection efficiency of the glass bottle (P) and optimize the amount of disinfectant used, thereby improving the hygiene management and transport efficiency of the organic product distribution system (10).

[0079] Figure 5 is a drawing showing the rotary drive blade of Figure 4.

[0080] Referring to FIG. 5, the rotary drive wing (600) includes a wing frame (610), a wing plate (620), a first magnetic body (630), a second magnetic body (640), and a wing cover (650).

[0081] The wing frame (610) is installed upright on the drive shaft (590) to provide structural support for the rotating drive wing. This enables stable installation of the wing plate (620) and related components.

[0082] The wing plate (620) is rotatably connected at its lower rear end to the wing frame (610). When the lower end of the wing plate (620) is separated from the drive shaft (590), the upper end is inclined, maximizing the contact area with the disinfectant passing through the drive chamber (580). Conversely, when the lower end of the wing plate (620) is seated on the drive shaft (590), the contact area with the disinfectant is minimized, thereby controlling the flow and spraying efficiency of the disinfectant.

[0083] The first magnetic body (630) is installed on the lower side of the wing plate (620) and is driven by electrical operation. This allows the position of the wing plate (620) to be adjusted, thereby controlling the state of contact with the disinfectant solution.

[0084] The second magnetic body (640) is installed along the drive shaft (590) opposite to the first magnetic body (630). By forming opposite polarity with the first magnetic body (630) through electrical switching, the first magnetic body (630) is pulled, causing the wing plate (620) to move closer to the drive shaft (590). By forming the same polarity, the first magnetic body (630) is pushed, increasing the gap between the wing plate (620) and the drive shaft (590).

[0085] The wing cover (650) is made of a thin film of an expandable or contractible elastic material and is installed between the wing plate (620) and the drive shaft (590). It covers the gap formed as the distance between the wing plate (620) and the drive shaft (590) increases, thereby preventing the disinfectant solution from leaking out and maintaining the efficiency of the disinfection operation.

[0086] The rotary drive blade (600) having the configuration described above can effectively control the contact area with the disinfectant solution to improve disinfection efficiency and further improve the hygiene management level of the organic product distribution system (10).

[0088] The embodiments described above are for illustrative purposes only, and those skilled in the art will understand that the embodiments described above can be easily modified into other specific forms without altering the technical concept or essential features of the embodiments described above. Therefore, the embodiments described above should be understood as illustrative in all respects and not restrictive. For example, each component described as a single unit may be implemented in a distributed manner, and components described as distributed may likewise be implemented in a combined form.

[0090] The scope of protection sought through this specification is defined by the claims set forth below rather than by the detailed description above, and should be interpreted to include all modifications or variations derived from the meaning and scope of the claims and the concept of equivalents. Explanation of the symbols

[0092] 10: Organic Product Distribution System 100: Distribution vehicle 110: Cargo box 200: Distribution Server 300: Administrator Terminal 400: Stirring system P: Glass bottle

Claims

Claim 1 An organic product distribution system comprising: a distribution vehicle for transporting organic products contained in glass bottles; a distribution server for storing inventory management data of organic products and collecting and analyzing location data of said distribution vehicle to optimize the distribution route; and a manager terminal linked with said distribution server for checking order history and inventory status of organic products in real time, checking and adjusting the route of said distribution vehicle, and transmitting and receiving messages between a manager and a distribution employee. Claim 2 In claim 1, the distribution vehicle is an organic product distribution system in which a cargo compartment equipped with a stirring system for stirring the glass bottle containing the organic product during transport is installed. Claim 3 In paragraph 2, the stirring system comprises: a moving rail installed along the loading container to move the glass bottles in a row; a detachment prevention fence installed along one side and the other side of the moving rail to prevent the glass bottles from detaching from the moving rail; a glass bottle rotation connecting part installed between two adjacent glass bottles to support the gap between the two glass bottles while rotating the glass bottles; a fastening belt installed on each side and the other side of two adjacent glass bottle rotation connecting parts positioned at the front and rear ends of the glass bottles to support the two adjacent glass bottle rotation connecting parts and fasten the glass bottles; and a glass bottle sterilization part that performs sterilization of the glass bottles moving along the moving rail; an organic product distribution system. Claim 4 In paragraph 3, the glass bottle rotation connecting part comprises: a first mounting block forming a first glass bottle mounting groove corresponding to the circumference shape of the glass bottle so as to be mounted and wrapped around the side of the glass bottle; a second mounting block positioned facing away from the first mounting block and forming a second glass bottle mounting groove corresponding to the circumference shape of the glass bottle so as to be mounted and wrapped around the side of the glass bottle; a cushioning block installed between the first mounting block and the second mounting block to cushion vibration or shock; a first sterilization part mounting groove extending vertically along the middle of the first glass bottle mounting groove so as to allow the glass bottle sterilization part to move downward along the first glass bottle mounting groove in the state where the glass bottle is mounted; a second sterilization part mounting groove extending vertically along the middle of the second glass bottle mounting groove so as to allow the glass bottle sterilization part to move downward along the second glass bottle mounting groove in the state where the glass bottle is mounted; and the first An organic product distribution system comprising: a pair of first rotary drive rollers connected to one side and the other side of a glass bottle mounting groove to enable rotary driving, supporting the side of the glass bottle, and rotating the glass bottle in a connected state by rotary driving; and a pair of second rotary drive rollers connected to one side and the other side of a second glass bottle mounting groove to enable rotary driving, with the second sterilization unit mounting groove in between, supporting the side of the glass bottle, and rotating the glass bottle in a connected state by rotary driving. Claim 5 In claim 4, the glass bottle sterilization unit comprises: a lifting cylinder installed upright and spaced upward from the moving rail while facing the moving rail; a lifting frame installed on the lifting cylinder, which moves downward as the lifting cylinder extends and is inserted into the first sterilization unit seating groove or the second sterilization unit seating groove; a disinfectant supply tank that supplies a disinfectant solution for sterilizing the glass bottle to the lifting frame; and a plurality of disinfectant spray nozzles installed at regular intervals in the vertical direction along the front edge of the lifting frame, which spray the disinfectant solution supplied from the disinfectant supply tank onto the glass bottle when the lifting frame is inserted into the first sterilization unit seating groove or the second sterilization unit seating groove; an organic product distribution system. Claim 6 In claim 5, the disinfectant spray nozzle part comprises: a nozzle groove formed at the front end of the lifting frame; a spherical mounting part protruding from the inner side of the nozzle groove; a spherical mounting groove formed at the front end of the spherical mounting part; a rotating sphere formed in a circular spherical shape corresponding to the shape of the spherical mounting groove and connected to the spherical mounting groove so as to be rotatable; a nozzle installed at the front end of the rotating sphere exposed from the spherical mounting groove, installed at an angle so as to rotate together with the rotating sphere and spray disinfectant liquid at an angle as it rotates; at least one branch pipe installed from the disinfectant supply line to the spherical mounting groove to deliver disinfectant liquid to the rotating sphere from a disinfectant supply line installed vertically along the inner side of the lifting frame to supply disinfectant liquid; and a nozzle extending from the rear end of the rotating sphere opposite to the outlet of the branch pipe to the nozzle, which delivers disinfectant liquid delivered through the branch pipe to the nozzle, provided that the disinfectant liquid is delivered only when the rotating sphere meets the outlet of the branch pipe as it rotates. An organic product distribution system comprising: a delivery pipe that induces the disinfectant sprayed through the nozzle to be sprayed in a cycle pattern as it is delivered; a drive chamber formed in the disinfectant supply line facing the rotating sphere; a drive shaft installed by axial coupling at the rear end of the rotating sphere and positioned in the drive chamber to rotate the rotating sphere as it is driven; and a plurality of rotating drive blades spaced apart along the circumference of the drive shaft, which rotate in a waterwheel manner by the disinfectant moving through the drive chamber to drive the drive shaft.

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