Garden integrated seedling raising device

Abstract

The utility model provides a kind of integrated nursery equipment in gardens, comprising: nursery box, control cavity and nursery cavity are provided in the nursery box, several nursery shelves are fixed with equal intervals in the nursery cavity, several The nursery shelf is slidably connected with drainage rack on, the control cavity is fixedly connected with liquid supply tank, the liquid supply tank side is connected with filter tank, the control cavity top and part The bottom of the nursery shelf is equipped with several light supplementing lamps;Nursery part, several The nursery part is respectively arranged on several The drainage rack;The integrated nursery equipment in gardens is cooperated with temperature control part by being set irrigation part, while realizing the double mode irrigation of seedling drip irrigation and spraying, effectively control irrigation water temperature and temperature and humidity in nursery cavity, improve the good environment for the growth of seedling, effectively improve the efficiency of seedling raising, survival rate and seedling quality, and several seedlings are placed in nursery part, can realize no injury seedling taking, effectively improve the survival rate of seedling after transplanting.

Description

Technical Field

[0001] This utility model relates to the field of seedling technology, and more specifically, to an integrated seedling cultivation device for gardens. Background Technology

[0002] Seedling cultivation is an important part of landscaping work. Scientific seedling cultivation methods can ensure the good growth of plants and enhance their adaptability and survival rate. Seedling cultivation means cultivating seedlings in nurseries, hotbeds or greenhouses in preparation for transplanting to the ground. Seedling cultivation equipment is used in the process of landscaping seedling cultivation.

[0003] However, existing seedling equipment has low functional integration. Most equipment's temperature control, irrigation, and supplemental lighting systems are independent and fail to form an effective synergy. The temperature control system only controls the temperature of the seedling environment, while the temperature of the irrigation solution used in the irrigation system is not linked to it. When the ambient temperature is low, the low-temperature water can easily stimulate the seedling roots, potentially causing temperature stress, delaying seedling growth, or even causing diseases. Furthermore, after the seedlings are cultivated, it is inconvenient to quickly and completely remove the seedling roots from the seedling hole, which reduces the efficiency of seedling transplanting. Forcibly digging them out can also damage the seedling roots and stems, resulting in a long recovery period and a lower survival rate after transplanting. At the same time, although some equipment is equipped with an irrigation system, most of them use single flood irrigation or sprinkler irrigation, which makes it difficult to achieve precise water and fertilizer supply, cannot effectively adapt to the needs of different seedling stages, and easily leads to water waste. Utility Model Content

[0004] The purpose of this invention is to provide an integrated seedling cultivation device for gardens to solve the above-mentioned problems.

[0005] To achieve the above objectives, this utility model provides an integrated garden seedling raising device, comprising: a seedling box, wherein a control chamber and a seedling raising chamber are provided inside the seedling box, a plurality of seedling racks are fixedly fixed at equal intervals inside the seedling raising chamber, and a drain rack is slidably connected to each of the seedling racks; a liquid supply tank is fixedly connected inside the control chamber, and a water filter tank is connected to one side of the liquid supply tank; and a plurality of supplementary lights are installed at the top of the control chamber and at the bottom of some of the seedling racks.

[0006] The seedling raising section is provided on several drainage racks.

[0007] The irrigation section is located in the control chamber and the seedling chamber, and is used to transport the aqueous solution in the supply tank to several of the seedling sections;

[0008] Temperature control unit, which is installed in the control cavity and the seedling cavity;

[0009] A mixing unit is installed inside the liquid supply tank, wherein...

[0010] The temperature control unit, in conjunction with the mixing unit, is used to adjust the temperature inside the seedling chamber and the liquid supply tank.

[0011] Furthermore, the temperature control unit includes a heating box fixed inside the liquid supply tank, several air inlet boxes and exhaust boxes fixed to the inner walls on both sides of the seedling cavity and corresponding to several seedling racks, several vent holes equally spaced on the air inlet boxes and exhaust boxes, an exhaust pipe connected at one end to the heating box and at the other end to the exhaust boxes, a fan fixed inside the control cavity, an air supply pipe connected at one end to the air inlet of the fan and at the other end to the heating box, an air inlet pipe connected at one end to the exhaust of the fan and at the other end to the air inlet boxes, and a temperature sensor fixed inside the seedling cavity.

[0012] Furthermore, the seedling section includes a seedling box mounted on the drain rack, several seedling tubes fixed at equal intervals on the seedling box, several sliding grooves symmetrically opened on the several seedling tubes, several top material trays slidably inserted into the several seedling tubes and slidably connected to the several sliding grooves, a control frame movably sleeved on the outside of the several seedling tubes and fixed to the several top material trays, several control slots symmetrically opened on both sides of the seedling box and allowing the control frame to move, two top material plates hinged to both sides of the control frame, several strong magnetic blocks symmetrically fixed on the two top material plates and magnetically connected to the seedling box, and filter covers disposed in the several seedling tubes and used to cover the several top material trays and the several sliding grooves respectively.

[0013] Furthermore, the irrigation unit includes a water pump installed on the liquid supply tank, an inlet pipe with one end connected to the inlet end of the water pump and the other end extending to the bottom of the liquid supply tank, a water supply pipe connected to the outlet end of the water pump, several first transition pipes fixed in the seedling cavity and corresponding to several seedling racks, several drip irrigation pipes respectively connected to several first transition pipes, several drip irrigation heads symmetrically installed at equal intervals on several drip irrigation pipes and corresponding to several seedling pipes, several first water delivery pipes with one end connected to several first transition pipes and the other end connected to the water supply pipe, and a filter installed on the water supply pipe.

[0014] Furthermore, the irrigation section also includes several second water supply pipes with one end connected to the water supply pipe and corresponding to several seedling racks, several second transition pipes respectively connected to the other end of several second water supply pipes, several spray pipes respectively connected at equal intervals to several first transition pipes, several spray heads respectively installed at equal intervals on several spray pipes, and a humidity sensor fixed in the seedling cavity.

[0015] Valves are installed on several of the first transition pipes and several of the second transition pipes.

[0016] Furthermore, the mixing section includes a drive motor fixed to the outer wall of the liquid supply tank, a stirring shaft rotatably installed inside the liquid supply tank, and several mixing blades fixed to the outside of the stirring shaft.

[0017] Furthermore, each of the seedling racks has a flow channel inside, and the seedling racks are connected by a drain pipe. A filter tray is slidably installed on the filter box, and a filter cotton board is installed inside the filter tray. A drainage pipe is connected to the seedling rack at the bottom, and the other end of the drainage pipe extends to the top of the filter tray.

[0018] Compared with the prior art, the embodiments of this utility model have the following beneficial effects:

[0019] 1. This integrated garden seedling raising equipment can circulate and heat the seedling chamber through the temperature control unit when the ambient temperature is low, providing a suitable and stable environment for seedling growth. Furthermore, since the heating box is located inside the liquid supply tank, and the mixing unit disturbs the aqueous solution in the liquid supply tank, it can achieve uniform heating of the aqueous solution in the liquid supply tank. This avoids the temperature stress on the seedling roots caused by cold water during seedling irrigation, providing a mild and consistent cultivation environment for seedling growth and promoting the healthy and rapid growth of plants.

[0020] 2. This integrated garden seedling raising equipment, through the setting of a sliding top material net tray and control frame structure in the seedling raising section, can easily and steadily lift the seedling roots along with the substrate out of the seedling tube after the seedling raising is completed, avoiding the mechanical damage to the root system caused by the traditional seedling pulling method. In addition, with the movement of the control frame, several top material net trays can be driven to move synchronously, thereby enabling the simultaneous removal of multiple seedlings in batches. It is highly efficient, has a good root protection effect, and ensures rapid recovery and high survival rate of seedlings after transplanting.

[0021] 3. This integrated garden seedling raising equipment, through its irrigation section, enables precise irrigation of seedlings in the seedling chamber using both drip and sprinkler irrigation modes. This allows for flexible selection or combination of modes based on the different growth stages of the seedlings or environmental parameters, achieving on-demand supply and reducing water and fertilizer waste. Combined with the guide channels on the seedling racks, the drainage pipes connecting several seedling racks, and the water filter box with filter cotton board, it effectively collects excess water solution for easy recycling. Attached Figure Description

[0022] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0023] Figure 1 A perspective view of the present invention is shown;

[0024] Figure 2 This invention provides a partially cross-sectional perspective view. Figure 1 ;

[0025] Figure 3 A partial three-dimensional representation of the present invention is shown. Figure 1 ;

[0026] Figure 4 A partial three-dimensional representation of the present invention is shown. Figure 2 ;

[0027] Figure 5 A partial top perspective view of the present invention is shown;

[0028] Figure 6 A partial three-dimensional representation of the present invention is shown. Figure 3 ;

[0029] Figure 7 A partially disassembled perspective view of this utility model is shown;

[0030] Figure 8 A partially disassembled perspective view of this utility model is shown;

[0031] Figure 9 This invention provides a partially cross-sectional perspective view. Figure 2 .

[0032] In the picture

[0033] 1. Seedling box; 2. Control chamber; 3. Seedling cavity; 4. Seedling rack; 5. Draining rack; 6. Liquid supply tank; 7. Filter tank; 8. Supplemental lighting; 9. Seedling section; 10. Irrigation section; 11. Temperature control section; 12. Mixing section; 13. Heating box; 14. Air inlet box; 15. Exhaust box; 16. Vent; 17. Exhaust pipe; 18. Fan; 19. Air supply pipe; 20. Air inlet pipe; 21. Temperature sensor; 22. Seedling box; 23. Seedling tube; 24. Slide chute; 25. Valve; 26. Top material tray; 27. Control frame; 28. 1. Control tank; 29. ​​Top plate; 30. Strong magnetic block; 31. Filter cover; 32. Water pump; 33. Inlet pipe; 34. Supply pipe; 35. First transition pipe; 36. Drip irrigation pipe; 37. Drip irrigation head; 38. First water delivery pipe; 39. Filter; 40. Second water delivery pipe; 41. Second transition pipe; 42. Spray pipe; 43. Spray head; 44. Humidity sensor; 45. Drive motor; 46. Stirring shaft; 47. Mixing blade; 48. Guide channel; 49. Drain pipe; 50. Filter drawer; 51. Filter cotton plate; 52. Drainage pipe. Detailed Implementation

[0034] The present invention will now be described in further detail with reference to the accompanying drawings. These drawings are simplified schematic diagrams, illustrating only the basic structure of the present invention, and therefore only show the components relevant to the present invention.

[0035] like Figure 1-9 As shown, an integrated garden seedling raising device includes: a seedling box 1, a control chamber 2 and a seedling chamber 3 are provided in the seedling box 1, a plurality of seedling racks 4 are fixed at equal intervals in the seedling chamber 3, and a drain rack 5 is slidably connected to each of the seedling racks 4; a liquid supply tank 6 is fixedly connected in the control chamber 2, and a water filter tank 7 is connected to one side of the liquid supply tank 6; a plurality of supplementary lights 8 are installed in the top of the control chamber 2 and at the bottom of some of the seedling racks 4.

[0036] Seedling section 9, several of the seedling sections 9 are respectively arranged on several of the drain racks 5;

[0037] Irrigation section 10, which is disposed in the control chamber 2 and the seedling chamber 3, is used to transport the aqueous solution in the liquid supply tank 6 to a plurality of the seedling sections 9;

[0038] Temperature control unit 11, the temperature control unit 11 is installed in the control cavity 2 and the seedling cavity 3;

[0039] Mixing unit 12, wherein the mixing unit 12 is installed inside the liquid supply tank 6, wherein

[0040] The temperature control unit 11 is driven to work with the mixing unit 12 to adjust the temperature in the seedling chamber 3 and the liquid supply tank 6.

[0041] In use, the seedling substrate and the seeds to be cultivated are placed into the seedling tubes 23 of several seedling sections 9. Then, the seedling sections 9 are placed on several drainage racks 5 on several seedling racks 4. The environmental parameters inside the seedling chamber 3 are monitored in real time by the temperature sensor 21 and humidity sensor 44 in the temperature control unit 11 and the irrigation unit 10. The external control system determines whether to start temperature adjustment, irrigation or supplemental lighting based on the preset seedling growth model or real-time sensor data. When the temperature in the seedling chamber 3 is lower than the set value, the temperature control unit 11 works to form a closed-loop hot air channel in the seedling chamber 3, which efficiently and evenly raises the environmental temperature inside the seedling chamber 3. At the same time, the outer wall of the heating box 13 continuously heats the nutrient solution in the liquid supply box 6 to ensure the temperature of the irrigation solution and meet the temperature requirements for seedling growth. At the same time, according to the time setting or the signal from the humidity sensor 44, the system starts the irrigation unit 10, and several drip irrigation heads 37 can provide daily and precise watering to the seedlings in several seedling tubes 23. Fertilizer is supplied, and when the seedling growth status changes or the humidity in the seedling chamber 3 is insufficient, several spray heads 43 can spray atomized water solution to increase the ambient humidity or perform foliar fertilization, meeting the water and fertilizer needs of the seedlings at different stages. After irrigation, excess water flows from the drain rack 5 into the guide groove 48 of the seedling rack 4, flows down layer by layer through the drain pipe 49, and finally collects in the filter box 7 through the drainage pipe 52. The filter cotton plate 51 in the filter drawer 50 filters and removes impurities and root secretions, leaving a clean solution. Water is stored and can be recycled, effectively reducing water waste. When seedlings reach a certain stage of production and need to be transplanted, the seedling section 9 is removed from the seedling box 1, the two top material plates 29 are flipped to contact the ground, and the seedling box 22 is pressed down, so that the control frame 27 drives several top material trays 26 to move upward synchronously, and several seedlings along with the seedling substrate are pushed out smoothly from several seedling tubes 23, realizing batch, fast, and root-free transplanting, ensuring rapid recovery and high survival rate of seedlings after transplanting.

[0042] Optionally, the temperature control unit 11 includes a heating box 13 fixed in the liquid supply tank 6, several air inlet boxes 14 and exhaust boxes 15 respectively fixed on the inner walls of both sides of the seedling cavity 3 and corresponding to several seedling racks 4, several vent holes 16 equally spaced on the air inlet boxes 14 and exhaust boxes 15, an exhaust pipe 17 connected at one end to the heating box 13 and at the other end to the exhaust boxes 15, a fan 18 fixed in the control cavity 2, an air supply pipe 19 connected at one end to the air inlet of the fan 18 and at the other end to the heating box 13, an air inlet pipe 20 connected at one end to the exhaust of the fan 18 and at the other end to the air inlet boxes 14, and a temperature sensor 21 fixed in the seedling cavity 3; wherein the heating box 13 is composed of a metal shell and heating tubes installed inside;

[0043] When the ambient temperature is low, the heating box 13 and the fan 18 work to draw air from the seedling chamber 3 through the air inlet pipe 20, and then input it into the heating box 13 through the air delivery pipe 19 for heating. The heated air is sent to several exhaust boxes 15 through the exhaust pipe 17, and blown evenly and gently into the seedling chamber 3 through several vent holes 16. After the airflow passes through the seedling area, it is drawn back by the fan 18 through the vent holes 16 on several air inlet boxes 14 on the other side, forming a closed circulating hot air path with high energy utilization. The temperature sensor 21 monitors the temperature in the seedling chamber 3 in real time, and the feedback signal controls the start and stop of the heating box 13 and the fan 18 to achieve constant temperature control and ensure that the seedling chamber 3 is at a suitable temperature for seedling growth. At the same time, under the control of the heating box 13, in conjunction with the mixing unit 12, the aqueous solution in the liquid supply tank 6 can be heated to a certain extent, thereby avoiding the low temperature of the aqueous solution sprayed onto the seedlings through the irrigation unit 10, which would affect the growth of the seedlings.

[0044] Optionally, the seedling section 9 includes a seedling box 22 mounted on the drain rack 5, several seedling tubes 23 fixed at equal intervals on the seedling box 22, several sliding grooves 24 symmetrically opened on the several seedling tubes 23, several top material trays 26 slidably inserted into the several seedling tubes 23 and slidably connected to the several sliding grooves 24, a control frame 27 movably sleeved on the outside of the several seedling tubes 23 and fixed to the several top material trays 26, several control slots 28 symmetrically opened on both sides of the seedling box 22 and allowing the control frame 27 to move, two top material plates 29 hinged to both sides of the control frame 27, several strong magnetic blocks 30 symmetrically fixed on the two top material plates 29 and magnetically connected to the seedling box 22, and filter covers 31 respectively set in the several seedling tubes 23 and used to cover the several top material trays 26 and the several sliding grooves 24.

[0045] In use, sufficient seedling substrate is filled into each of the seedling tubes 23. A filter cover 31 prevents substrate leakage from the chute 24. During seedling irrigation, excess water can pass through the filter cover 31 and flow from the top material tray 26 and chute 24 to the drain rack 5, effectively reducing substrate and water leakage from the top material tray 26 while preventing water accumulation. When the seedlings reach a certain stage and need transplanting, the seedling box 22 is removed from the drain rack 5. The two top material plates 29 are rotated so that their movable ends face the ground. As the seedling box 22 is lowered, the two top material plates 29 move the control frame 27 through several control slots 28. The mechanism moves several top-feeding trays 26 within several seedling tubes 23, smoothly ejecting the seedlings along with their root substrate. This avoids the root damage caused by pulling out seedlings in the traditional method, greatly improving the transplant survival rate and seedling recovery speed. Furthermore, a single action can eject all seedlings from the entire seedling box 22 simultaneously, resulting in high seedling removal efficiency. After seedling removal, the two top-feeding plates 29 can be controlled to move the control frame 27 down to its original position. The two top-feeding plates 29 are then rotated, and with the cooperation of several strong magnetic blocks 30, they are magnetically attached to the seedling box 22, maintaining the position of the top-feeding trays 26 for subsequent effective planting and seedling cultivation.

[0046] Optionally, the irrigation section 10 includes a water pump 32 installed on the liquid supply tank 6, an inlet pipe 33 with one end connected to the inlet end of the water pump 32 and the other end extending to the bottom of the liquid supply tank 6, a water supply pipe 34 connected to the outlet end of the water pump 32, a plurality of first transition pipes 35 fixed in the seedling cavity 3 and corresponding to a plurality of seedling racks 4, a plurality of drip irrigation pipes 36 respectively connected to a plurality of first transition pipes 35, a plurality of drip irrigation heads 37 respectively installed symmetrically at equal intervals on a plurality of drip irrigation pipes 36 and corresponding to a plurality of seedling tubes 23, a plurality of first water delivery pipes 38 with one end connected to a plurality of first transition pipes 35 and the other end connected to the water supply pipe 34, and a filter 39 installed on the water supply pipe 34.

[0047] In use, the water pump 32 pumps the aqueous solution in the supply tank 6 into the supply pipe 34 through the inlet pipe 33, and then through several first transition pipes 35 to several drip irrigation pipes 36. The solution is then dripped into each seedling tube 23 through several drip irrigation heads 37, directly and precisely delivering the aqueous solution to the seedlings in the seedling tubes 23. This method consumes less water and ensures that each seedling receives an equal and sufficient amount of water and nutrients, avoiding the uneven irrigation problem caused by traditional spraying methods. It ensures that water and fertilizer are accurately delivered to the roots of the seedlings, greatly reducing waste caused by evaporation, runoff, and deep seepage, resulting in high utilization. The filter 39 can intercept and remove particulate impurities, undissolved fertilizer clumps, or other suspended matter that may be present in the liquid, effectively preventing clogging of the subsequent drip irrigation heads 37.

[0048] Optionally, the irrigation section 10 further includes a plurality of second water supply pipes 40 with one end connected to the water supply pipe 34 and corresponding to a plurality of seedling racks 4, a plurality of second transition pipes 41 respectively connected to the other end of the plurality of second water supply pipes 40, a plurality of spray pipes 42 respectively connected at equal intervals to a plurality of first transition pipes 35, a plurality of spray heads 43 respectively installed at equal intervals on a plurality of spray pipes 42, and a humidity sensor 44 fixed in the seedling cavity 3.

[0049] Valves 25 are installed on several of the first transition pipes 35 and several of the second transition pipes 41;

[0050] In use, by opening the valves 25 on several second transition pipes 41, the aqueous solution enters several second water supply pipes 40 through several first transition pipes 35, and is then atomized and sprayed out through several spray heads 43 on several spray pipes 42 to adjust the air humidity in the seedling chamber 3. This can promote the growth of some moisture-loving seedlings or regulate and lower the temperature in the seedling chamber 3. At the same time, the air humidity is monitored by the humidity sensor 44, and the signal can be fed back to the external control system to adjust the spraying time of the several spray heads 43 to ensure that the seedling chamber 3 is in the humidity environment required by the seedlings. Furthermore, the spray irrigation of the several spray heads 43 and the drip irrigation of the several drip irrigation heads 37 can be flexibly selected or combined according to the needs of different growth stages of plants or environmental parameters, effectively improving the practicality of the seedling equipment.

[0051] Optionally, the mixing unit 12 includes a drive motor 45 fixed to the outer wall of the supply tank 6, a stirring shaft 46 rotatably installed inside the supply tank 6, and several mixing blades 47 fixed outside the stirring shaft 46. In use, the drive motor 45 starts the stirring shaft 46 and the several mixing blades 47 thereon to rotate, thereby disturbing the aqueous solution in the supply tank 6. This ensures that the nutrient solution is quickly and evenly mixed with the water when adding nutrient solution to the supply tank 6, avoiding uneven concentration of nutrient solution that could affect the normal growth of seedlings, and ensuring the effectiveness and consistency of fertilization. At the same time, the disturbed aqueous solution can effectively improve the heating effect of the heating box 13 on the aqueous solution in the supply tank 6, avoiding local overheating.

[0052] Optionally, each of the seedling racks 4 has a guide groove 48 inside, and each of the seedling racks 4 is connected to a drain pipe 49. A filter tray 50 is slidably installed on the filter box 7. A filter cotton plate 51 is provided inside the filter tray 50. A drainage pipe 52 is connected to the seedling rack 4 at the bottom. The other end of the drainage pipe 52 extends to the top of the filter tray 50.

[0053] Excess water after irrigation flows from the drain rack 5 into the guide trough 48, and then flows down layer by layer between several seedling racks 4 through the drain pipe 49. Finally, it is collected in the filter tank 7 through the drainage pipe 52. Under the filtration of the filter cotton plate 51 in the filter drawer 50, the clean water flows into the supply tank 6 for reuse, which greatly saves water and nutrient solution. It can also drain water in time to avoid the seedling roots from being soaked in water for a long time, which would cause root rot. In addition, the recovered water solution is initially filtered, which reduces the filtration pressure of the subsequent filter 39.

[0054] The above description is merely a preferred embodiment of this utility model and is not intended to limit the utility model. Various modifications and variations can be made to this utility model by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. An integrated seedling cultivation device for gardens, characterized in that, include: A seedling box (1) is provided with a control chamber (2) and a seedling chamber (3). Several seedling racks (4) are fixed at equal intervals in the seedling chamber (3). A drain rack (5) is slidably connected to each of the seedling racks (4). A liquid supply tank (6) is fixedly connected in the control chamber (2). A water filter tank (7) is connected to one side of the liquid supply tank (6). Several supplementary lights (8) are installed at the top of the control chamber (2) and at the bottom of some of the seedling racks (4). Seedling section (9), several of the seedling sections (9) are respectively arranged on several of the drain racks (5); Irrigation section (10), which is disposed in the control chamber (2) and the seedling chamber (3), is used to transport the aqueous solution in the liquid supply tank (6) to a plurality of the seedling sections (9); Temperature control unit (11), the temperature control unit (11) is installed in the control cavity (2) and the seedling cavity (3); A mixing unit (12) is installed inside the liquid supply tank (6), wherein... The temperature control unit (11) is driven to work with the mixing unit (12) to adjust the temperature in the seedling chamber (3) and the liquid supply tank (6).

2. The integrated seedling cultivation equipment for gardens as described in claim 1, characterized in that, The temperature control unit (11) includes a heating box (13) fixed in the liquid supply tank (6), several air inlet boxes (14) and exhaust boxes (15) fixed on the inner walls of both sides of the seedling cavity (3) and corresponding to several seedling racks (4), several ventilation holes (16) equally spaced on several air inlet boxes (14) and exhaust boxes (15), an exhaust pipe (17) with one end connected to the heating box (13) and the other end connected to several exhaust boxes (15), a fan (18) fixed in the control cavity (2), an air supply pipe (19) with one end connected to the air inlet end of the fan (18) and the other end connected to the heating box (13), an air inlet pipe (20) with one end connected to the exhaust end of the fan (18) and the other end connected to several air inlet boxes (14), and a temperature sensor (21) fixed in the seedling cavity (3).

3. The integrated seedling raising equipment for gardens as described in claim 2, characterized in that, The seedling section (9) includes a seedling box (22) mounted on the drain rack (5), several seedling tubes (23) fixed at equal intervals on the seedling box (22), several grooves (24) symmetrically opened on the several seedling tubes (23), several top material trays (26) slidably inserted into the several seedling tubes (23) and slidably connected to the several grooves (24), and a control frame movably sleeved on the outside of the several seedling tubes (23) and fixed to the several top material trays (26). 27) A number of control slots (28) symmetrically opened on both sides of the seedling box (22) and for the movement of the control frame (27), two top material plates (29) respectively hinged to both sides of the control frame (27), two strong magnetic blocks (30) respectively symmetrically fixed on the two top material plates (29) and magnetically connected to the seedling box (22), and a filter cover (31) respectively set in the seedling tubes (23) and used to cover the top material mesh trays (26) and the sliding grooves (24) respectively.

4. The integrated seedling raising equipment for gardens as described in claim 3, characterized in that, The irrigation section (10) includes a water pump (32) installed on the liquid supply tank (6), an inlet pipe (33) with one end connected to the inlet end of the water pump (32) and the other end extending to the bottom of the liquid supply tank (6), a water supply pipe (34) connected to the outlet end of the water pump (32), a number of first transition pipes (35) fixed in the seedling cavity (3) and corresponding to a number of seedling racks (4), a number of drip irrigation pipes (36) respectively connected to a number of first transition pipes (35), a number of drip irrigation heads (37) respectively corresponding to a number of seedling tubes (23), a number of first water delivery pipes (38) with one end connected to a number of first transition pipes (35) and the other end connected to the water supply pipe (34), and a filter (39) installed on the water supply pipe (34).

5. The integrated seedling raising equipment for gardens as described in claim 4, characterized in that, The irrigation section (10) also includes several second water supply pipes (40) with one end connected to the water supply pipe (34) and corresponding to several seedling racks (4), several second transition pipes (41) respectively connected to the other end of several second water supply pipes (40), several spray pipes (42) respectively connected at equal intervals to several first transition pipes (35), several spray heads (43) respectively installed at equal intervals on several spray pipes (42), and a humidity sensor (44) fixed in the seedling cavity (3); Valves (25) are installed on several of the first transition pipes (35) and several of the second transition pipes (41).

6. The integrated seedling raising equipment for gardens as described in claim 2, characterized in that, The mixing section (12) includes a drive motor (45) fixed on the outer wall of the liquid supply tank (6), a stirring shaft (46) rotatably installed in the liquid supply tank (6), and a plurality of mixing blades (47) fixed outside the stirring shaft (46).

7. The integrated seedling raising equipment for gardens as described in claim 6, characterized in that, Each of the seedling racks (4) has a guide groove (48) inside, and each of the seedling racks (4) is connected to a drain pipe (49). A filter tray (50) is slidably installed on the water filter box (7). A filter cotton board (51) is provided inside the filter tray (50). A drainage pipe (52) is connected to the seedling rack (4) at the bottom. The other end of the drainage pipe (52) extends to the top of the filter tray (50).

Images