KR101015514B1 - Rotation assembly pot - Google Patents

Abstract

The present invention comprises one or more stackable jars, the first pot portion for receiving a nutrient solution therein; A second pot portion including one or more stackable jars and accommodating the nutrient solution therein; A rotation generator for rotating at least one of the first and second plant pots in an engaged state with at least one of the first and second pollen parts; And a rotation transmission unit rotating the first plant pot and the second plant pot in an engaged state with the first plant pot and the second plant pot, wherein the first plant pot and the second plant pot include the nutrient solution. A cylindrical bucket for receiving; The jar is inserted, the rotating plate to rotate with the jar on top of the bucket; And a nutrient solution hose formed on the outside of the bucket to provide a path for moving the nutrient solution to the outside. Rotary granules as described above to implement a variety of vegetables or flowers in a narrow area to hydroponic cultivation while preventing the lack of photosynthesis and distortion of vegetables or flowers.

Flower pot, rotation, rotation transmission, rotation occurrence

Description

ROTATION ASSEMBLY POT}

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a rotating granulated plant, and more particularly, to a rotating granulated plant that is capable of keeping the sun evenly while cultivating a plurality of vegetables or plants that can be planted in a plurality of areas.

The proportion of people living in apartment houses such as apartments and villas is gradually increasing. In particular, in the case of large cities, the share of multi-family dwellings exceeds 80%. In such large urban apartments, there is a lack of opportunities to encounter the natural environment. Recently, in the case of large urban apartments, parks that can enjoy the natural environment are being built together. In addition, there are frequent cases of using a veranda or an interior space in order to feel eco-friendly and natural beauty even in a multi-family house. Pots that can be cultivated with a variety of vegetables and flowers are being used to feel eco-friendly and natural.

However, conventional pots are only one way to grow vegetables or flowers by hanging one by one or hanging on a branch or wall. For this reason, the area occupied by the pollen is considerable, and there is a problem that there are some limitations in cultivating a plurality of vegetables or flowers in a narrow space. In addition, vegetables or flowers will be a flexural movement in accordance with the stimulation of light. This is referred to as opticality. As a result, the stems and leaves exhibit positive fibrillation that grows in the direction of the stimulus of light, and the roots exhibit negative flexure that grows in the opposite direction of the stimulus of light. Conventional flower pots are fixed on the veranda or indoor space, and are irradiated with light in one direction, causing distortion of vegetables or flowers due to their flexibility, and also having a problem of low growth rate due to lack of photosynthesis. In order to receive the stimulation of the light evenly picked vegetables or flowers caused the hassle of artificially moving the pot. In order to grow vegetables or flowers using pots, it is necessary to supply water, which is inconvenient to supply water to a plurality of pots individually.

The present invention is to provide a rotary granular plant that can grow a variety of vegetables or flowers in a narrow space. That is, to provide a rotary granulated plant that can be cultivated a plurality of vegetables or flowers that can be planted in a single area having a plurality of areas.

In addition, the present invention is to provide a rotating granulated plant that can increase the photosynthesis while reducing the distortion of vegetables or plants by the equal stimulation of light. That is, to provide a rotating granulated flower pot that can prevent distortion of vegetables or flowers due to uneven stimulation of light and increase photosynthesis.

In addition, the present invention is to provide a rotary granular flower that can be easily supplied with nutrients to vegetables or flowers.

The present invention comprises one or more stackable jars, the first pot portion for receiving a nutrient solution therein; A second pot portion including one or more stackable jars and accommodating the nutrient solution therein; A rotation generator for rotating at least one of the first and second plant pots in an engaged state with at least one of the first and second pollen parts; And a rotation transmission unit rotating the first plant pot and the second plant pot in an engaged state with the first plant pot and the second plant pot, wherein the first plant pot and the second plant pot include the nutrient solution. A cylindrical bucket for receiving; The jar is inserted, the rotating plate to rotate with the jar on top of the bucket; And a nutrient solution hose formed on the outside of the bucket to provide a path for moving the nutrient solution to the outside.

In addition, the rotation generating unit receives the nutrient solution from the first plant pot portion and the second plant pot portion and supplies it back to the first plant pot portion and the second plant pot portion, and the rotation transmission unit the first plant pot portion and the first Disclosed is a rotary granular flower that is engaged between the two pots.

In addition, the rotation generating unit includes a switching gear for transmitting a rotational force for rotating the first plant pot portion in the state engaged with the first plant pot portion, the rotating plate is engaged with the switch gear to rotate the rotating plate, Disclosed is a rotating granulation pot which engages with the rotation transmission unit to transmit the rotational force of the rotating plate of the first plant pot to the rotating plate of the second plant pot, and includes a rotary gear formed along an edge of the upper surface of the rotating plate.

The rotation generating unit may include a water tank configured to receive the nutrient solution and be connected to the nutrient solution hose; A pump for pushing up the nutrient solution supplied from the water tank to the water tank; A water supply hose for introducing a portion of the raised nutrient solution into the jar; Aberration to be rotated by the fall of the remaining portion of the pushed nutrient solution; A reduction gear box including an input shaft and an output shaft, wherein the shaft of the aberration is connected as the input shaft; And a switching gear connected to the output shaft of the reduction gear box.

In addition, the rotary granular powder, the support for providing a rotating shaft to the rotation transmission portion; And it discloses a rotary granulation pot further comprising a support for fixing the support to the first plant pot, the second plant pot or the first plant pot and the second plant pot.

In addition, the switching gear of the rotation generating unit is connected to the rotary gear of the rotating plate to rotate the rotating plate of the first rotating plate, the rotation transmission unit is engaged with the first plant pot and the second plant pot part at the same time by the rotation generating unit Disclosed is a rotary granulation pot which simultaneously rotates the first plant pot portion and the second plant pot portion.

The rotating plate may include a transmission gear formed along the circumference of the rotating plate, and the rotation transmission unit may include a worm gear shaft rotatably connected to the rotation generating unit; Worm gears disposed on the worm gear shaft and gear-engaged with the transmission gears; And a swivel table positioned at both ends of the worm gear shaft to rotatably support the worm gear shaft. As the worm gear shaft rotates, the worm gears provide rotational force to the rotating plate while being engaged with the transmission gear, thereby providing the rotational force. Disclosed is a rotating granulated pot that rotates the potted part and the second potted part.

In addition, the first plant pot portion and the second plant pot portion discloses a rotary granulated plant arranged in a row of 5 to 100 times.

In addition, it discloses a rotary granulated powder in which a bearing is located between the rotating plate and the bucket.

In addition, the jar is fixed to the jar is inserted into the jar fixture; And a potted pot comprising potted pots formed so that plants can be inserted along the jar fixture.

In addition, the jar, the insertion portion is inserted into the fixture; And covering the top of the jar including a jar lid removably located from the top of the jar, the center of the jar lid is formed with an insertion hole through which the insert of the other jar is formed, the plant around the jar insert Disclosed is a rotating granulated pot having jar pots into which the pots are inserted.

The rotating granulated plant according to the present invention includes a rotation generating unit and a first pollen unit for providing a rotational force to at least one of the first and second plant pots including the stackable jars, the first plant pot and the second plant pot. It includes a rotation transmission for rotating the first pot portion and the second pot portion in a state engaged with the second pot portion. Since the first and second pots include stackable jars, many vegetables or flowers can be grown in a narrow space. In addition, as the pots rotate at the same time by the operation of the rotation generating unit and the rotation transmission unit, vegetables or flowers can be evenly sunburned to reduce the distortion at the same time as the right growth.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. In describing the present invention, if it is determined that the detailed description of the related known function or configuration may unnecessarily obscure the subject matter of the present invention, the detailed description thereof will be omitted.

1 is a perspective view showing a separated state of the rotary granulated powder 100 according to a preferred embodiment of the present invention, Figure 2 is a perspective view showing a rotating plate 115 of the rotary granulated powder 100 shown in FIG. FIG. 3 is a perspective view illustrating a combined state of the rotary granular powder 100 shown in FIG. 1, and FIG. 4 is an enlarged perspective view of part A of the rotary granular powder 100 illustrated in FIG. 3. As shown in Figures 1 to 4, the rotary granulated plant 100 according to a preferred embodiment of the present invention is the first plant pot portion 101, the second plant pot portion 201, the rotation generating portion 102 and rotation It includes a transmission unit 103, the first potted portion 101 rotates the second potted portion 201 in engagement with the rotation transmission unit 103 due to the operation of the rotation generating unit (102). In addition, the first planter 101 and the second planter 201 is made of the same configuration, the description of the configuration of the second planter 201 except for the portion different from the first planter (101). Will be omitted. In addition, the number of the potted portion is not limited and may be added in the same connection method as the first potted portion 101 and the second potted portion 201 described below, it may be arranged in a line of 5 to 100 times.

The first plant pot portion 101 and the second plant pot portion 201 are positioned adjacent to each other without overlapping each other while receiving the nutrient solution therein. As a result, various kinds of vegetables or flowers may be disposed in the first flower pot part 101 and the second flower pot part 201 so that the nutrient solution may be supplied and hydroponically grown. The first flower pot part 101 includes a jar 111, a bucket 113, a rotating plate 115, a bearing 117, and a nutrient solution hose 119.

Jar 111 is a component that can be stacked on top of the other jars and various kinds of vegetables or flowers in the first pot portion 101, the jar 111 is a plurality of jars can be stacked, For convenience of explanation, only one jar 111 will be described by way of example. In addition, the jar 111 is provided with the nutrient solution for cultivating the placed plants, the nutrient solution through the drain hole 112 to another jar located in the lower portion after receiving the nutrient solution more than a predetermined amount using a stackable structure To discharge. In addition, the jars 111 are provided with insertion portions 111a, jar lids 111b, jar insertion holes 111c, and jar pots 111d, respectively.

The inserting portion 111a is positioned below the jar 111 and is a portion inserted into other jars when the jars 111 are stacked on each other. In addition, as the insertion portion 111a is inserted into the other jar insertion hole 111c, the jar 111 is stacked on the other jar.

The jar lid 111b covers the upper portion of the jar 111 and is closely attached to the upper portion of the jar 111 and is detachably positioned, that is, disassembled.

The jar insertion hole 111c may be formed at the center of the jar lid 111b, and an insertion portion of another jar may be inserted therein. At this time, since the diameter of the jar insertion hole 111c is larger than the diameter of the insertion portion 111a, the insertion portion 111a is easily inserted into the jar insertion hole 111c. However, in the case where the diameter of the insertion portion 111a increases gradually toward the upper portion, the outer circumferential surface of the insertion portion 111a and the inner circumferential surface of the jar insertion opening 111c through the process of inserting the insertion portion 111a into the jar insertion opening 111c. Are in close contact with each other. For this reason, the insertion part 111a is limited to be further inserted into the jar insertion hole 111c, and the jar 111 is stacked in another jar while being inserted into the jar insertion hole 111c.

One or more jar pots 111d are formed along the periphery of the jar insertion hole 111c. The plants are placed in the jar 111 as they are inserted into the jar 111 through the jar pots 111d. In addition, the pot pot 111d may be formed in various shapes such as a circle and a rhombus.

The bucket 113 receives the nutrient solution in a cylindrical shape, and the nutrient solution provided in the stacked jars 111 reaches the bucket 113 through the drain hole 112.

The rotating plate 115 is positioned above the bucket 113 and rotates in contact with the bucket 113 about the axis of the bucket 113. In addition, the jar 111 is inserted into the rotating plate 115. For this reason, as the rotating plate 115 rotates, the jar 111 rotates together with the rotating plate 115. That is, in the present embodiment, the rotation of the first plant pot part 101 and the second plant pot part 201 is caused by the rotation of the respective rotating plates 115 and 215 in the state where the respective buckets 113 and 213 are fixed. It means the rotation of the field (111, 211).

In addition, the rotating plate 115 is formed with a jar fixture (115a), pot pots (115b), the rotating gear (115c) and the transmission gear (115d).

Jar fixing device (115a) is formed in the center of the rotating plate 115, by inserting the insertion portion (111a) of the jar 111 to fix the jar 111 on the rotating plate (115). For this reason, the jar 111 is rotated together with the rotating plate 115. The pot pot 115b is formed on the rotating plate 115 at least one along the periphery of the jar fixture 115a. Plants are placed in the bucket 113 as they are inserted through the pot pot 115b. Therefore, as the jar fixture 115a and the pot pot 115b are formed on the rotating plate 115, the water container 113 may serve to grow plants, such as the jar 111.

The rotary gear 115c is formed along the edge of the upper surface of the rotating plate 115 to be engaged with the rotation generating unit 102 by gear coupling, and receives the rotational force from the rotating generating unit 102 and transmits it to the rotating plate 115. Used to. Therefore, the rotating plate 115 rotates by the rotational force transmitted from the rotation generating unit 102 through the rotating gear 115c.

The transmission gear 115d is formed along the circumference of the rotating plate 115.

Bearing 117 is located between the contact surface between the bucket 113 and the rotating plate 115 to facilitate the rotation of the rotating plate 115, at least four are located on the bucket 113 in all directions.

The nutrient solution hose 119 may connect the buckets 113 and 213 of the first planter 101 and the second planter 201, and the first planter 101 and the second planter 201. At least one of the buckets 113 and 213 of the rotation generating unit 102 may be specifically connected to the water tank 130. For this reason, the nutrient solution is moved to the rotation generating unit 102, specifically the water tank 130 through the nutrient solution hose 119. In addition, as the nutrient solution is moved through the nutrient solution hose 119, the first plant pot portion 101 and the second plant pot portion 201 are able to receive the constant nutrient solution, respectively.

The rotation generator 102 rotates the first plant pot 101 in a state of being engaged with the first plant pot 101, and extracts the nutrient solution from the first plant pot 101 and / or the second plant pot 201. Receiving the supply again through the pot insertion port (111c, 211c) of the uppermost pot (111, 211) of the first pot portion 101 and / or the second pot pot portion 201. Thus, the jar 111 rotates and receives the nutrient solution at the same time. In addition, the rotation generator 102 includes the water tank 130, the pump 121, the water supply hose 123, the aberration 125, and the switching. And a gear 127 and a reduction gear box 129.

The water tank 130 allows the rotation generator 102 to receive the nutrient solution.

The pump 121 pushes the nutrient solution supplied from the buckets 113 and 213 to the water tank 130 upwards. Specifically, the nutrient solution contained in the buckets 113 and 213 by the pump 121 is pushed up to the top jars 111 and 211 of the stacked jars. In addition, the nutrient solution contained in the buckets 113 and 213 is lowered in the water tank 130 due to the operation of the pump 121 to move to the rotation generating unit 102, specifically the water tank 130 due to the water pressure do.

The water supply hose 123 is connected to the pump 121 and induces the nutrient solution being pushed up by the pump 121. In addition, at the ends of the water supply hose 123, the jar insertion ports 111c and 211c of the aberration 125 and the uppermost jars 111 and 211 are positioned. That is, some of the nutrient solution guided and pushed up through the water supply hose 123 are supplied to the jars 111 and 211, and the other part is supplied to the aberration 125, respectively.

Meanwhile, the nutrient solution provided to the jars 111 and 211 is used for hydroponic cultivation of the plants disposed in the jars 111 and 211. In addition, when the nutrient solution is supplied to the jars (111, 211) located at the highest point, the nutrient solution is absorbed by the medium in the jars (111. 211) or other jars located below the jars (111, 211) The nutrient solution is stored at the same water level in all the buckets 113 and 213.

The aberration 125 rotates by supplying the remaining part of the nutrient solution moving through the water supply hose 119, specifically, the drop. Rotation of the aberration 125 enables the rotation of the first plant pot portion 101 by the rotation generator 102.

The changeover gear 127 rotates by the rotation of the aberration 125, transmits a rotational force for rotating the first ashing portion 101, meshes with the rotary gear 115c, meshes with the rotation of the aberration 125, and rotates. By rotating the rotating plate 115. That is, the conversion gear 127 is gear-coupled with the rotary gear 115c to transmit the rotational force for rotating the first pot portion 101.

The reduction gear box 129 includes an input shaft and an output shaft, and is located between the switching gear 127 and the aberration 125. The input shaft is connected to the shaft of the aberration 125 and the output shaft is connected to the switching gear 127. When the rotational speed of the aberration 125 is transmitted to the switching gear 127 as it is, the rotating plate 115 rotates corresponding to the rotational speed of the aberration 125. This provides unnecessary high speed rotation to the rotating plate 115, resulting in the wear of the rotating gear 115c of the rotating plate 115 with the demand of a relatively large pump 121 and aberration 125 due to unnecessary energy. Therefore, the reduction gear box 129 transmits the reduced rotational speed of the aberration 125 to the switching gear 127 and causes the rotating plate 115 to rotate at the reduced rotational speed. The reduction gear box 129 of this embodiment makes the rotational speed of the switching gear 127 reach 1/172 with respect to the rotational speed of the aberration 125. For this reason, the rotating plate 115 rotates once per hour. Plants disposed in the jars 111 and 211 are able to be stimulated by the light evenly unrestricted in its position.

The rotation transmission unit 103 is positioned between the first plant pot portion 101 and the second plant pot portion 201, and is gear-coupled with the rotary gears 115c and 215c formed on the respective rotating plates 115 and 215 to form a first gear. It meshes with the potted portion 101 and the second potted portion 201. That is, the rotation transmission unit 103 is engaged with each of the rotary gears 115c and 215c on the centerline of the first planter 101 and the centerline of the second planter 102. In addition, the rotation transmission unit 103 is provided with a rotating shaft from the support 103a fixed to the first planter 101 and / or the second planter 201 by using a holder 103b such as a string or a wire. . Thus, the rotation transmission unit 103 receives the rotational force from the first planter 101 as the rotating plate 115 of the first planter 101 rotates, and receives the rotational force provided from the second planter 201. By transmitting to the rotating plate 215 of the second potted portion 201. At this time, the rotating plate 115 of the first pot portion 101 and the rotating plate 215 of the second pot portion 201 rotates in the same direction. Accordingly, the rotation transmission unit 103 rotates the first plant pot 101 and the second plant pot 201 by the rotation generator 102 at the same time. Due to the rotation transmission unit 103 can be realized to rotate at the same time even if a plurality of flower pots are arranged. That is, plants placed in the pot portion may be stimulated by the even light. On the other hand, the rotation transmission unit 103 may be provided with a plurality of to adjust the speed and the rotation direction of the rotating plate (115, 215).

5 is a perspective view showing a rotating granulated plant 600 according to another embodiment of the present invention. As shown in FIG. 5, the rotary granular plant 600 according to another exemplary embodiment of the present invention simultaneously rotates a plurality of flower pots 601, 701, 801, and 901 using one reduction motor 635. The supply and recovery of nutrient solution is automatic. In addition, the rotary granular flower pot 600 includes potted parts 601, 701, 801, and 901, a nutrient supply part 602, a rotation transmitting part 603, and a rotation generating part 635.

The pot parts 601, 701, 801, 901 are horizontally arranged in a straight line, and have the same configuration as the first pot pot part 101 and the second pot pot part 201 of the previous embodiment. Therefore, descriptions of the respective pots 601, 701, 801, 901 will be omitted. In addition, the nutrient solution hoses 620, 720, 820, 920 are formed in the buckets 611, 711, 811, 911 of the flower pots 601, 701, 801, 901. On the other hand, the potted parts 601, 701, 801, 901 are arranged in a line of 5 to 100 times.

The nutrient solution supply unit 602 is used for supply and recovery of the nutrient solution, and includes a pump 602a, a water supply hose 602b, a collection hose 602c, an underground nutrient solution tank 602d, and nutrient solutions hoses 620, 720, 820, 920).

The pump 602a is located inside the subterranean nutrient solution tank 602d and pushes up the nutrient solution to supply it to the uppermost pot of each of the pots 601, 701, 801, and 901. In addition, the water supply hose 602b is The nutrient solution is used to guide the top jar of the pots 601, 701, 801, 901. Accordingly, the nutrient solution is pushed up by the pump 602a and supplied to the uppermost pot of the respective pots 601, 701, 801, 901 through the feed hose 602b, and the pots 601, 701, 801, It is used for hydroponic cultivation of vegetables and flowers arranged in 901.

The nutrient solution is fed to the top jar of the pots 601, 701, 801, 901 and then absorbed in artificial soil or medium or down to the jar located below. Repeating this process, the nutrient solution reaches the respective buckets 611, 711, 811, and 911.

The nutrient solution arrived at each of the buckets (611, 711, 811, 911) is stored only up to a certain level and the rest through the collection hose 602c through the nutrient solution hoses (620, 720, 820, 920) through the underground nutrient solution tank ( 602d). By repeating the above process, the nutrient solution is supplied and recovered.

The rotation transmission unit 603 is used to rotate the flower pots 601, 701, 801, 901 simultaneously with the flower pots 601, 701, 801, 901. In addition, the rotation transmission unit 603 includes a worm gear shaft 633, worm gears 631 and the rotating table 634.

The worm gear shaft 633 is connected to the rotation generator 635 in a state in which the worm gear shaft 633 is disposed adjacent to the flower pots 601, 701, 801, and 901, and is rotatable. The worm gears 631 are disposed on the worm gear shaft 633 and gear-coupled with the transmission gear 115d (shown in FIGS. 2 and 4) to rotate the transmission unit 603 and the flower pots 601, 701, 801, and 901. ) Mesh with each other. Swivel 634 is located at both ends of the worm gear shaft 633 to support the worm gear shaft 633 rotatably in a fixed position to maintain a constant rotation of the worm gears 631 according to the rotation of the worm gear shaft 633. .

The rotation generator 635 is connected to the rotation transmission unit 603, specifically, the worm gear shaft 633 to rotate it, and a deceleration motor is used. As the rotation generator 635 operates, the worm gear shaft 633 connected thereto rotates. The worm gears 631 disposed on the worm gear shaft 633 provide rotational force to the respective rotating plates 611, 711, 811, and 911 in engagement with the transmission gear 115d. As the rotating plates 611, 711, 811, 911 rotate, the pot parts 601, 701, 801, 901 rotate at the same time. Therefore, the rotation generator 635 is used to rotate the flower pots 601, 701, 801, 901 by rotating the rotation transmission part 603. In addition, the pots 601, 701, 801, 901 are rotated at the same time to allow even planted sunlight to be planted plants.

Although specific embodiments and other embodiments have been described above, it will be apparent to those skilled in the art that various modifications can be made without departing from the scope of the present invention.

1 is a perspective view showing a separated state of the rotary granulated powder in accordance with a preferred embodiment of the present invention.

FIG. 2 is a perspective view illustrating a rotating plate of the rotary granular powder shown in FIG. 1.

Figure 3 is a perspective view showing a combined state of the rotary granulated powder shown in FIG.

FIG. 4 is an enlarged perspective view of portion A of the rotary granular powder shown in FIG. 3.

5 is a perspective view showing a rotating granulated powder according to another preferred embodiment of the present invention.

Claims (11)

A first pot portion including one or more stackable jars and containing a nutrient solution therein; A second pot portion including one or more stackable jars and accommodating the nutrient solution therein; A rotation generator for rotating at least one of the first and second plant pots in an engaged state with at least one of the first and second pollen parts; And Includes a rotation transmission for rotating the first plant pot and the second plant pot in the state engaged with the first plant pot and the second plant pot, The first plant pot portion and the second plant pot portion, A cylindrical bucket containing the nutrient solution; The jar is inserted, the rotating plate to rotate with the jar on top of the bucket; And Rotary granules, characterized in that it comprises a nutrient solution hose formed on the outside of the bucket to provide a path for moving the nutrient solution to the outside. The method of claim 1, The rotating transmission unit is rotatable granules characterized in that the engagement between the first potted portion and the second potted portion positioned. The method of claim 1, The rotation generating unit, It includes a switching gear for transmitting a rotational force for rotating the first potted portion in the engaged state with the first potted portion, The rotating plate, And a rotating gear formed along an edge of the upper surface of the rotating plate while engaging with the switching gear to rotate the rotating plate, transmitting the rotational force of the rotating plate of the first plant pot to the rotating plate of the second plant pot by engaging the rotation transmission unit. Rotary assembly pot, characterized in that. The method of claim 1, The rotation generating unit, A tank for receiving the nutrient solution and connected to the nutrient solution hose; A pump for pushing up the nutrient solution supplied from the water tank to the water tank; A water supply hose for introducing a portion of the raised nutrient solution into the jar; Aberration to be rotated by the fall of the remaining portion of the pushed nutrient solution; A reduction gear box including an input shaft and an output shaft, wherein the shaft of the aberration is connected as the input shaft; And And a switching gear connected to the output shaft of the reduction gear box and transmitting a rotational force for rotating the first plant pot in engagement with the first plant pot. The method of claim 2, wherein the rotary granulated powder, A support for providing a rotation shaft to the rotation transmission unit; And The support assembly is a rotary granular flower pot, characterized in that it further comprises a fixing member to be fixed to the first pot portion, the second pot portion or the first pot portion and the second pot portion. The method of claim 1, The rotation generating unit is connected to the rotation transmission unit to rotate the rotation transmission unit, the rotation transmission unit is engaged with the first plant pot portion and the second plant pot portion at the same time by the rotation generating unit the first plant pot portion and the first Rotary granules, characterized in that at the same time rotating the two potted parts. The method of claim 6, The rotating plate, It includes a transmission gear formed along the circumference of the rotating plate, The rotation transmission unit, A worm gear shaft rotatably connected to the rotation generator; Worm gears disposed on the worm gear shaft and gear-engaged with the transmission gears; And It includes a swivel positioned on both ends of the worm gear shaft rotatably supporting the worm gear shaft, As the worm gear shaft rotates, the worm gears are provided with a rotational force to the rotating plate in the state engaged with the transmission gear, the rotating granulated pot, characterized in that for rotating the first pot portion and the second pot portion. The method according to claim 2 or 6, The first plant pot portion and the second plant pot portion rotary granules, characterized in that arranged in a row of 5 to 100 times. The method of claim 1, Rotary granules characterized in that the bearing is located between the rotating plate and the bucket. The method of claim 1, A jar fixture having the jar inserted and fixed to the rotating plate; And Rotary pots, characterized in that it comprises pot pots formed so that plants can be inserted around the jar fixture. The method of claim 1, wherein the jar, An insertion part positioned below the jar and inserted into the rotating plate; And A jar lid disposed removably from the top of the jar while covering the top of the jar, Rotating granules, characterized in that the center of the jar lid is inserted into the insertion hole which can be inserted into the insert portion, the jar port is formed around the jar insertion hole.

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