CN114451264B - Laminated irrigation system for garden landscape and method thereof - Google Patents

Abstract

The invention discloses a laminated watering system and a method thereof for garden landscapes, which include an embedded block, a lifting block is arranged on the upper surface of the embedded block, and four symmetrically distributed receiving grooves are arranged on the outer side of the lifting block. A rotary watering mechanism is arranged in the middle of the storage tank. The present invention can quickly and evenly water the garden landscape by providing the embedded block, the lifting block, the rotary watering mechanism, the watering pipeline and the regulating mechanism, which is convenient for hiding and will not damage the aesthetic feeling of the garden landscape too much, and It will not cause tripping to tourists and avoid harm to tourists. It solves the problem that the watering equipment of the existing garden landscape is located on the surface of the lawn, which is extremely prominent, affects the beauty of the lawn and is easy to cause tripping and injury to tourists, and the problem that the area close to the watering equipment cannot be watered during watering.

Description

Laminated watering system and method for garden landscape

technical field

The invention relates to the field of garden landscape watering, in particular to a laminated watering system and method for garden landscapes.

Background technique

With the rapid development of social economy, the basic components of garden landscape can be divided into two categories: one is soft things, such as trees, water, wind, drizzle, sunshine, sky; the other is hard things , such as paving, walls, railings, and landscape construction. Soft things are called soft landscapes, which are usually natural; hard things, called hard landscapes, are usually man-made. The irrigation system of garden landscapes refers to Equipment or devices for watering the interior of the garden.

However, the watering equipment of the existing garden landscape is located on the surface of the lawn, which is extremely prominent, affects the beauty of the lawn and is easy to cause tourists to trip and cause damage, and the area close to the watering equipment cannot be watered when watering; therefore, it is not satisfied Existing needs, for which we propose a laminated watering system and method for landscape gardening.

Contents of the invention

The object of the present invention is to provide a lamination watering system and method for garden landscape, to solve the problem that the existing garden landscape watering equipment proposed in the above background technology is located on the surface of the lawn, which is extremely prominent and affects the beauty of the lawn And it is easy to cause tripping and injury to tourists, and the area close to the irrigation equipment cannot be watered when watering.

In order to achieve the above object, the present invention provides the following technical solutions: a laminated watering system for landscape gardens, including an embedded block, a first lifting block is provided on the upper surface of the embedded block, and the outer side of the first lifting block is provided with Four symmetrically distributed storage tanks, a rotating watering mechanism is arranged in the middle of the storage tanks, the bottom end of the first lifting block is plugged into the surface of the embedded block and slidably connected with the embedded block, the first lifting block An anti-water central block is set below;

An irrigation pipeline is arranged in the middle of the anti-water central block, and the irrigation pipeline includes a telescopic water injection pipe. The top of the water injection pipe is inserted from the bottom of the first lifting block and an intermediate water storage block is arranged above. The top of the telescopic water injection pipe is inserted into the interior of the intermediate water storage block. A symmetrically distributed connecting water pipe, the bottom end of the connecting water pipe is plugged into the interior of the middle water storage block, and a buffer water pipe is movable outside the top of the connecting water pipe;

The rotary watering mechanism includes a multi-stage electric telescopic rod, one end of the multi-stage electric telescopic rod is embedded in the inside of the first lifting block, the other end of the multi-stage electric telescopic rod is located in the middle of the storage tank and the end is provided with a connecting block , the inside of the connecting block is provided with an L-shaped connecting water pipe, the top of the L-shaped connecting water pipe runs through the surface of the connecting block and a rotating water polo is arranged on the outside of the top, and the outer surface of the rotating water polo is provided with a spout, The bottom surface of the rotating water polo is provided with a rotating support column, the rotating supporting column surrounds the L-shaped connecting water pipe and the bottom end is inserted into the surface of the connecting block, and a driving gear is provided outside the bottom end of the rotating supporting column One side of the driving gear ring is provided with a transmission gear meshing with it, and a rotating motor is provided below the transmission gear, and the top of the connecting water pipe runs through one end of the multi-stage electric telescopic rod and is plugged into the multi-stage electric telescopic rod. Inside the telescopic rod, the buffer water pipe located outside the top end of the connecting water pipe runs through the other end of the multi-stage electric telescopic rod and runs through the connection block. The end face connected with the multi-stage electric telescopic rod contacts and seals the connection with the bottom end of the L-shaped connecting water pipe;

The outside of the anti-water central block is provided with an adjustment mechanism, the adjustment mechanism includes four second lifting blocks, the inside of the second lifting block is provided with an adjustment motor, and the top of the adjustment motor is provided with a lifting gear. One side of the lifting gear is provided with a bushing gear meshed with it, and a threaded bushing is provided through the middle of the bushing gear, and a guide post is provided through the middle of the threaded bushing, and the two guide posts of the guide post Both ends pass through the second lifting block, and a buffer storage hole is arranged above the guide column, and the buffer storage hole is located on the bottom surface of the lifting block, and a positioning groove is provided below the guide column, and the positioning groove and the anti-water There is a drainage hole in the middle of the center block;

One of the second lifting blocks is provided with a support plate facing the side of the anti-water central block, the surface of the support plate is provided with an auxiliary motor, the top of the auxiliary motor is provided with an auxiliary gear, and one side of the auxiliary gear An auxiliary gear ring meshing with it is provided, and a connecting ring is provided on the inner wall of the auxiliary gear ring, and the connecting ring and the auxiliary gear ring are connected by screws, and the top end surface of the connecting ring is in contact with the bottom surface of the first lifting block And fixed connection.

Preferably, the outer surface of the top end of the L-shaped connecting water pipe plugged into the rotating water polo is provided with an alloy sealing ring, and the alloy sealing ring is snapped into the inner wall of the rotating water polo and slidably connected with the rotating water polo.

Preferably, the inner wall of the upper surface of the connection block is provided with an annular slot, and a support ring is provided above the driving gear ring, and the support ring is fixed on the outer surface of the bottom end of the rotating support column and snapped into the annular slot. inside.

Preferably, balls are inlaid on the part of the outer surface of the support ring that is clamped on the inner side of the annular slot, and the ball part protrudes from the support ring and is in contact with the inner side of the annular slot.

Preferably, an anti-seepage rubber ring is provided on the outer surface of the end of the connecting water pipe plugged into the buffer water pipe. The anti-seepage rubber ring is sleeved on the outside of the connecting water pipe and is slidably connected with the buffer water pipe. The inner wall of the buffer water pipe Both the surface and the outer surface of the anti-seepage rubber ring are smooth.

Preferably, the outer sides of the four second lifting blocks are provided with a supporting outer ring, and the upper surface of the supporting outer ring is movably engaged with a bottom supporting snap ring, and the bottom supporting snap ring is fixed on the bottom surface of the first lifting block , the part of the outer surface of the bottom supporting snap ring snapped inside the supporting outer ring is inlaid with balls.

Preferably, the bottom end of the guide column is fixed on the inner bottom surface of the positioning groove, the outer surface of the guide column and the inner surface of the threaded sleeve penetrated by it are all provided with threads with the same direction of rotation, and the guide column And the threaded sleeve is driven by the thread.

Compared with the prior art, the beneficial effect of the adjusting mechanism of the present invention is that the adjusting motor is started when watering the plants in the garden, so that the adjusting motor drives the threaded sleeve to rotate on the outside of the guide column by driving the lifting gear and the sleeve gear to rotate. Move so that the threaded casing pushes the lifting block out of the embedded block, and when the watering is stopped, start the adjustment motor in reverse, so that the threaded casing is reset along the axis of the guide column, so that the lifting block that is pushed out of the embedded block It falls back to the inside of the embedded block and the surface of the lifting block is kept flush with the surface of the embedded block, so that the device can be quickly hidden after use, and it will not be too prominent to damage the beauty of the garden landscape, and will not cause tourists to stumble. Tourists cause harm.

A kind of lamination watering method for garden landscape, described watering method comprises the following steps:

(A) First, embed the embedded block into the ground at a suitable location in the garden, and ensure that the surface of the embedded block and the first lifting block are kept flush with the ground, and then turn on the power supply of the device and the power supply of the external water pump connected by the telescopic water injection pipe , when the plants in the garden need to be watered, start the device;

(B) When the device starts, the four adjusting motors start synchronously and drive the lifting gear and casing gear to rotate, so that the threaded casing rotates around its axis. At this time, the rotating threaded casing will pass through the gap between the guide column and The thread transmission fits the outside of the guide column and moves upward along the axis of the guide column, so that the threaded sleeve drives the second lifting block to move as a whole and drives the first lifting block above the second lifting block to move upwards as a whole, so that the first lifting The block protrudes from the embedded block and exposes the receiving groove on the outside of the first lifting block;

(C) Then the multi-stage electric telescopic rod is powered on and stretched. The stretching multi-stage electric telescopic rod will protrude from the middle of the storage tank and move the connecting block and the rotating water ball out of the storage tank. At the same time, it will drive the buffer water pipe from the connecting water pipe The outer side of the telescopic water injection pipe is moved until the multi-stage electric telescopic rod is fully expanded. At this time, the external water pump connected to the telescopic water injection pipe injects water into the interior of the telescopic water injection pipe, and makes the water flow along the telescopic water injection pipe into the middle water storage block and then The flow is diverted to the connecting water pipe, enters the buffer water pipe from the connecting water pipe, and enters the L-shaped connecting water pipe through the buffer water pipe, and then the water flows along the L-shaped connecting water pipe into the inside of the rotating water polo and flows out of the rotating water polo through the spout on the outer surface of the rotating water polo Shows a parabolic spray from the middle to the outside;

(D) When the water polo is rotated to spray water, the rotating motor is energized and started. At this time, the rotating motor will rotate through the driving transmission gear to drive the driving gear ring meshed with it to rotate, so that the driving gear ring drives the rotating support column to rotate around The axis of the water polo rotates. At this time, the rotation of the water polo will make the water nozzle on its outer surface make a circular motion around its axis, so that the water sprayed from the water nozzle will form a hemispherical watering area;

(E) When the rotating motor is energized, the auxiliary motor will be energized and started synchronously. After starting, the auxiliary motor will drive the auxiliary gear to rotate, so that the auxiliary gear drives the auxiliary gear ring meshed with it to rotate, so that the auxiliary gear ring drives and fixes it. The connecting ring rotates, so that the first lifting block at the top of the connecting ring rotates around the axis of the telescopic water injection pipe. At this time, the rotating first lifting block will drive four multi-stage electric telescopic rods to rotate synchronously around its axis, so that The multi-stage electric telescopic rod drives the rotating water ball to perform circular motion around the axis of the telescopic water injection pipe;

(F) At this time, the water flow from the spray nozzles on the surface of the four rotating water polo will form a circular watering area with the center of the first lifting block as the origin, and the centerline of the first lifting block as the circle point to rotate The double size of the distance between the central point of the water polo and the central point of the first lifting block is the area of diameter for uniform watering.

Preferably, the outer surface of the end of the telescopic water injection pipe inserted into the middle water storage block is provided with a sealing ring, and the maximum diameter of the sealing ring is larger than the inner diameter of the middle water storage block.

Preferably, the bottom surface of the first lifting block and the upper surfaces of the four second lifting blocks are all provided with laser sensors, and there are four laser sensors on the bottom surface of the first lifting block and are symmetrical to each other, and the first lifting block The laser sensor on the bottom is electrically connected to the bottom of the second lifting block.

Compared with the prior art, the beneficial effects of the stacked watering method of the present invention are:

In the present invention, by starting and adjusting the motor and driving the threaded casing to rotate and move up along the outside of the guide column, the guide column drives the lifting block as a whole to protrude from the embedded block, and then the multi-stage electric telescopic rod starts to drive the rotating water polo from The inside of the storage tank is expanded outwards, and then the water pump connected to the telescopic water injection pipe injects the water flow into the telescopic water injection pipe and sends it to the inside of the rotating water polo through the water nozzle for parabolic spraying to the outside, while the water nozzle sprays the water and rotates the motor drive Drive the rotation of the gear ring so that the rotating support column drives the rotating water polo and the nozzle in the spray water flow to rotate around the axis of the rotating water polo, and at the same time, the auxiliary motor drives the auxiliary gear to rotate so that the auxiliary gear ring drives the connecting ring and the lifting block around the telescopic water injection pipe The axis rotates, so that the rotating water polo moves in a circle around the axis of the lifting block, ensuring that the device can evenly water the plants in the garden, and ensure that the area around the device is also watered without omission.

Description of drawings

Fig. 1 is the overall structural representation of the present invention;

Fig. 2 is the overall sectional view of the present invention;

Fig. 3 is the structural enlarged view of place A in Fig. 2 of the present invention;

Fig. 4 is the structural enlarged view of place B in Fig. 2 of the present invention;

Fig. 5 is the structural enlarged view of C place in Fig. 2 of the present invention;

Fig. 6 is the structural enlarged view of D place in Fig. 2 of the present invention;

FIG. 7 is an enlarged view of the structure at E in FIG. 4 of the present invention.

In the figure: 1. Embedding block; 2. First lifting block; 3. Storage tank; 4. Rotary watering mechanism; 401, multi-stage electric telescopic rod; 402, connecting block; 403, rotating water ball; 404, water nozzle; 405, rotating support column; 406, L-shaped connecting water pipe; 407, alloy sealing ring; 408, driving gear ring; 409, transmission gear; 410, rotating motor; 411, supporting ring; 501, retractable water injection pipe; 502, connecting water pipe; 503, buffer water pipe; 504, intermediate water storage block; 505, sealing ring; 506, anti-seepage rubber ring; 6, adjustment mechanism; 601, second lifting block; 602, guide column; 603, threaded sleeve; 604, adjustment motor; 605, laser sensor; 606, auxiliary motor; 607, auxiliary gear; 608, auxiliary gear ring; 609, connecting ring; 610, support outer ring; 611, Bottom support snap ring; 612, casing gear; 613, lifting gear; 7, anti-water central block; 8, drainage hole; 9, buffer storage hole; 10, positioning groove.

detailed description

The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only some, not all, embodiments of the present invention.

The rotary motor 410 (model ncv28-400-60C), regulating motor 604 (model 6IK180W-200W) and auxiliary motor 606 (model 5IK60RGN-CF) mentioned in the present invention can all be purchased from the market or privately customized.

Please refer to Fig. 1 to Fig. 7, an embodiment provided by the present invention: a kind of lamination watering system for garden landscape, comprises embedded block 1, the upper surface of embedded block 1 is provided with first lifting block 2, the first The outer side of the lifting block 2 is provided with four symmetrically distributed storage tanks 3, and the middle of the storage tank 3 is provided with a rotary watering mechanism 4. The bottom end of the first lifting block 2 is plugged into the surface of the embedded block 1 and slides with the embedded block 1 Connected, the bottom of the first lifting block 2 is provided with an anti-water central block 7;

An irrigation pipeline 5 is arranged in the middle of the anti-water central block 7, and the irrigation pipeline 5 includes a telescopic water injection pipe 501. The bottom end of the telescopic water injection pipe 501 runs through the bottom of the embedded block 1 and is connected to an external water pump. The telescopic water injection pipe The top of 501 is inserted from the bottom of the first lifting block 2 and an intermediate water storage block 504 is arranged above. A symmetrically distributed connection water pipe 502, the bottom end of the connection water pipe 502 is plugged into the inside of the middle water storage block 504, and the top outside of the connection water pipe 502 is movable to be provided with a buffer water pipe 503;

The rotary watering mechanism 4 includes a multi-stage electric telescopic rod 401. One end of the multi-stage electric telescopic rod 401 is embedded in the inside of the first lifting block 2. The other end of the multi-stage electric telescopic rod 401 is located in the middle of the storage tank 3 and the end is provided with a connecting block. 402, the inside of the connecting block 402 is provided with an L-shaped connecting water pipe 406, the top of the L-shaped connecting water pipe 406 runs through the surface of the connecting block 402 and a rotating water polo 403 is provided on the outside of the top, and the outer surface of the rotating water polo 403 is provided with a spout 404, the bottom surface of the rotating water polo 403 is provided with a rotating support column 405, the rotating supporting column 405 surrounds the L-shaped connecting water pipe 406 and the bottom end is plugged into the surface of the connecting block 402, and the outside of the bottom end of the rotating supporting column 405 is provided with Drive gear ring 408, one side of the drive gear ring 408 is provided with a transmission gear 409 meshing with it, the bottom of the transmission gear 409 is provided with a rotating motor 410, and the top of the connecting water pipe 502 runs through one end of the multi-stage electric telescopic rod 401 and plugs into it. Inside the multi-stage electric telescopic rod 401, the buffer water pipe 503 located outside the top end of the connecting water pipe 502 runs through the other end of the multi-stage electric telescopic rod 401 and runs through the end face connected to the connecting block 402 and the multi-stage electric telescopic rod 401 and the L-shaped connecting water pipe 406 The bottom end contacts and seals the connection;

An adjusting mechanism 6 is arranged on the outside of the anti-flooding central block 7, and the adjusting mechanism 6 includes four second lifting blocks 601, the inside of the second lifting block 601 is provided with an adjusting motor 604, and the top of the adjusting motor 604 is provided with an elevating gear 613, One side of the lifting gear 613 is provided with a bushing gear 612 meshing with it, the middle of the bushing gear 612 is provided with a threaded bushing 603 , the middle of the threaded bushing 603 is provided with a guide post 602 , and the two ends of the guide post 602 Both run through the second lifting block 601, the top of the guide column 602 is provided with a buffer storage hole 9, the buffer storage hole 9 is located on the bottom surface of the first lifting block 2, and the bottom of the guide column 602 is provided with a positioning groove 10, the positioning groove 10 and the anti-accumulation A drainage hole 8 is arranged in the middle of the water center block 7;

One of the second lifting blocks 601 is provided with a support plate towards the side of the anti-water central block 7, the surface of the support plate is provided with an auxiliary motor 606, the top of the auxiliary motor 606 is provided with an auxiliary gear 607, and one side of the auxiliary gear 607 is provided with The auxiliary gear ring 608 meshed with it, the inner wall of the auxiliary gear ring 608 is provided with a connecting ring 609, the connecting ring 609 and the auxiliary gear ring 608 are connected by screws, the top end surface of the connecting ring 609 is in contact with the bottom surface of the first lifting block 2 and Fixed connection.

Further, the L-shaped connecting water pipe 406 is inserted into the outer surface of the top end of the rotating water polo 403, and an alloy sealing ring 407 is provided. , the alloy sealing ring 407 can ensure the sealing performance between the L-shaped connecting water pipe 406 and the rotating water balloon 403 after the L-shaped connecting water pipe 406 is connected to the rotating water balloon 403, so as to avoid water flow along the L-shaped connecting water pipe 406 and the rotating water balloon 403 The gaps in between leak out.

The inner wall of the upper surface of the connection block 402 is provided with an annular slot 412, and the top of the driving gear ring 408 is provided with a support ring 411, and the support ring 411 is fixed on the outer surface of the bottom end of the rotating support column 405 and snapped into the inner side of the annular slot 412. The support ring 411 located outside the bottom end of the rotating support column 405 integrally supports the rotating support column 405 and the rotating water polo 403 to ensure that the rotating support column 405 can rotate freely.

The part of the outer surface of the support ring 411 snapped on the inner side of the annular slot 412 is inlaid with balls. The ball part protrudes from the support ring 411 and contacts with the inner surface of the annular slot 412. The balls embedded in the outer surface of the support ring 411 can effectively reduce the support. The frictional resistance between the ring 411 and the annular slot 412 makes the rotating support column 405 better drive the rotating water polo 403 to rotate.

The outer surface of the end of the connecting water pipe 502 plugged into the buffer water pipe 503 is provided with an anti-seepage rubber ring 506. The anti-seepage rubber ring 506 is sleeved on the outside of the connecting water pipe 502 and is slidably connected with the buffer water pipe 503. The inner wall surface of the buffer water pipe 503 and The outer surface of the anti-seepage rubber ring 506 is smooth, and the anti-seepage rubber ring 506 can ensure the sealing performance after the connecting water pipe 502 and the buffer water pipe 503 are connected, and the smooth surface can reduce the wear probability of the anti-seepage rubber ring 506 during use.

The outer sides of the four second lifting blocks 601 are provided with a supporting outer ring 610, and the upper surface of the supporting outer ring 610 is movably engaged with a bottom supporting snap ring 611, and the bottom supporting snap ring 611 is fixed on the bottom surface of the first lifting block 2, and the bottom supporting The snap ring 611 is inlaid with balls on the part of the outer surface of the support outer ring 610, and the bottom support snap ring 611 with the balls inlaid with the bottom support snap ring 611 isolates the first lifting block 2 from the second lifting block 601, so that the first lifting block 2 can rotate around its axis and will not contact the second lifting block 601 during the rotation.

The bottom end of the guide column 602 is fixed on the inner bottom surface of the positioning groove 10, the outer surface of the guide column 602 and the inner surface of the threaded sleeve 603 penetrated by it are all provided with the same thread of rotation, the guide column 602 and the threaded sleeve 603 is driven by a thread, which enables the threaded sleeve 603 to move up and down along the axis of the guide column 602 when rotating, so that the threaded sleeve 603 can jack up the first lifting block 2 .

A kind of lamination watering method for landscape, the watering method comprises the following steps:

(A) First embed the embedded block 1 into the ground at a suitable location in the garden, and ensure that the surfaces of the embedded block 1 and the first lifting block 2 remain flush with the ground, and then turn on the power of the device and connect it to the telescopic water injection pipe 501 The power supply of the external water pump is used to start the device when the plants in the garden need to be watered;

(B) When the device is started, first the four adjusting motors 604 are started synchronously and rotate by driving the lifting gear 613 and the sleeve gear 612, so that the threaded sleeve 603 rotates around its axis. At this time, the rotating threaded sleeve 603 will pass through and The thread transmission between the guide columns 602 fits the outside of the guide columns 602 and moves upward along the axis of the guide columns 602, so that the threaded sleeve 603 drives the second lifting block 601 to move as a whole and drives the first lifting block 601 above the second lifting block 601. The lifting block 2 moves up as a whole, so that the first lifting block 2 protrudes from the embedded block 1 and exposes the storage groove 3 outside the second lifting block 2;

(C) Then the multi-stage electric telescopic rod 401 is energized and started to stretch, the multi-stage electric telescopic rod 401 in stretching will protrude from the middle of the storage tank 3 and move the connecting block 402 and the rotating water ball 403 out of the storage tank 3, and at the same time Drive the buffer water pipe 503 to move from the outside of the connecting water pipe 502 until the multi-stage electric telescopic rod 401 is fully unfolded. At this time, the external water pump connected to the telescopic water injection pipe 501 injects water into the interior of the telescopic water injection pipe 501, and makes the water flow smoothly. The telescopic water injection pipe 501 enters the intermediate water storage block 504 and then diverts to the connecting water pipe 502, enters the buffer water pipe 503 from the connecting water pipe 502 and enters the L-shaped connecting water pipe 406 through the buffer water pipe 503, and then flows along the L-shaped connecting water pipe 406 to inject Rotate the inside of the water polo 403 and present a parabolic spray outward from the rotating water polo 403 through the water nozzle 404 on the outer surface of the rotating water polo 403;

(D) When rotating the water polo 403 to spray water, the rotating motor 410 is energized and started. At this time, the rotating motor 410 will rotate through the drive transmission gear 409 so that the transmission gear 409 drives the drive gear ring 408 meshed with it to rotate, so that the drive gear ring 408 drives the rotating support column 405 to rotate around the axis of the rotating water polo 403. At this time, the rotating water polo 403 will make the water nozzle 404 on its outer surface make a circular motion around its axis, so that the water sprayed from the water nozzle 404 will form a flow. Hemispherical watering area;

(E) When the rotating motor 410 is energized, the auxiliary motor 606 will be energized and started synchronously. After the auxiliary motor 606 is started, it will drive the auxiliary gear 607 to rotate, so that the auxiliary gear 607 drives the auxiliary gear ring 608 meshed with it to rotate, so that the auxiliary motor 606 rotates. The gear ring 608 drives the fixed connecting ring 609 to rotate, so that the first lifting block 2 at the top of the connecting ring 609 rotates around the axis of the telescopic water injection pipe 501. At this time, the rotating first lifting block 2 will drive four The multi-stage electric telescopic rod 401 rotates synchronously around its axis, so that the multi-stage electric telescopic rod 401 drives the rotating rotating water ball 403 to perform circular motion around the axis of the telescopic water injection pipe 501;

(F) At this time, the water sprayed from the nozzles 404 on the surface of the four rotating water balloons 403 will form a circular watering area with the center of the first lifting block 2 as the origin, and the centerline of the first lifting block 2 as The dot is evenly watered with the double size of the distance between the central point of the rotating water polo 403 and the center point of the first lifting block 2 as the diameter.

The outer surface of the end portion of the telescopic water injection pipe 501 plugged into the middle water storage block 504 is provided with a seal ring 505. The maximum diameter of the seal ring 505 is larger than the inner diameter of the middle water storage block 504. The seal ring 505 can connect the telescopic water injection pipe 501 with the The middle part of the inner wall of the middle water storage block 504 is filled to ensure that the water flow entering the middle water storage block 504 from the telescopic water injection pipe 501 will not leak out along the outer wall of the telescopic water injection pipe 501 .

The bottom surface of the first lifting block 2 and the upper surfaces of the four second lifting blocks 601 are all provided with laser sensors 605, and there are four laser sensors 605 on the bottom surface of the first lifting block 2 and are symmetrical to each other. The sensor 605 is electrically connected to the bottom surface of the second lifting block 601, and can accurately control the stop position of the first lifting block 2 after the first lifting block 2 stops rotating, so as to ensure that the guide column 602 is aligned with the buffer storage hole 9.

It will be apparent to those skilled in the art that the invention is not limited to the details of the above-described exemplary embodiments, but that the invention can be embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Accordingly, the embodiments should be regarded in all points of view as exemplary and not restrictive, the scope of the invention being defined by the appended claims rather than the foregoing description, and it is therefore intended that the scope of the invention be defined by the appended claims rather than by the foregoing description. All changes within the meaning and range of equivalents of the elements are embraced in the present invention. Any reference sign in a claim should not be construed as limiting the claim concerned.

Claims (10)

1. A stromatolite irrigation system for landscape architecture, includes embedding piece (1), its characterized in that: a first lifting block (2) is arranged on the upper surface of the embedded block (1), four symmetrically distributed accommodating grooves (3) are formed in the outer side of the first lifting block (2), a rotary pouring mechanism (4) is arranged in the middle of each accommodating groove (3), the bottom end of the first lifting block (2) is inserted into the surface of the embedded block (1) and is in sliding connection with the embedded block (1), and a water accumulation preventing center block (7) is arranged below the first lifting block (2);

the middle of the water accumulation preventing center block (7) is provided with a watering pipeline (5), the watering pipeline (5) comprises a telescopic water injection pipe (501), the bottom end of the telescopic water injection pipe (501) penetrates through the bottom of the embedded block (1) to be connected with an external water pump, the top end of the telescopic water injection pipe (501) is inserted from the bottom of the first lifting block (2), a middle water storage block (504) is arranged above the telescopic water injection pipe, the top end of the telescopic water injection pipe (501) is inserted into the middle water storage block (504), four symmetrically distributed connecting water pipes (502) are arranged above the middle water storage block (504), the bottom end of each connecting water pipe (502) is inserted into the middle water storage block (504), and the outer side of the top end of each connecting water pipe (502) is movably provided with a buffer water pipe (503);

the rotary irrigation mechanism (4) comprises a plurality of stages of electric telescopic rods (401), one ends of the plurality of stages of electric telescopic rods (401) are embedded in the first lifting block (2), the other ends of the plurality of stages of electric telescopic rods (401) are located in the middle of the accommodating groove (3), connecting blocks (402) are arranged at the end portions of the other ends of the plurality of stages of electric telescopic rods (401), L-shaped connecting water pipes (406) are arranged in the connecting blocks (402), rotary water outlet balls (403) are movably arranged on the surface of the top ends of the L-shaped connecting water pipes (406), water outlet nozzles (404) are arranged on the outer surfaces of the rotary water outlet balls (403), rotary supporting columns (405) are arranged on the bottom surfaces of the rotary water outlet balls (403), the rotary supporting columns (405) surround the L-shaped connecting water pipes (406) and enable the bottom ends to be inserted into the surfaces of the connecting blocks (402), driving gear rings (408) are arranged on the outer sides of the bottom ends of the rotary supporting columns (405), one sides of the driving gear rings (408) are provided with transmission gears (409) meshed with the driving gear rings (409), a rotary motor (410) is arranged below the transmission gears (409), one ends of the multi-stage electric telescopic rods (502) are inserted into the electric telescopic rods (401), one ends of the other ends of the plurality of the electric telescopic rods (401), and the electric telescopic rods (502), and the electric telescopic rods (401) are connected with the electric telescopic rods (502), and the electric telescopic rods (401), the other ends of the electric telescopic rods (401), the electric telescopic rods (502), the electric telescopic rods (401), the electric telescopic rods (502), and the electric telescopic rods (401) are inserted into the electric telescopic rods (401), and the electric telescopic rods (502), and the electric telescopic rods (401) are connected with the electric telescopic rods (502) 402 The end surface connected with the multi-stage electric telescopic rod (401) is contacted and hermetically connected with the bottom end of the L-shaped connecting water pipe (406);

the outer side of the water accumulation preventing center block (7) is provided with an adjusting mechanism (6), the adjusting mechanism (6) comprises four second lifting blocks (601), an adjusting motor (604) is arranged inside each second lifting block (601), a lifting gear (613) is arranged at the top end of each adjusting motor (604), a sleeve gear (612) meshed with the lifting gear is arranged on one side of each lifting gear (613), a threaded sleeve (603) penetrates through the middle of each sleeve gear (612), a guide upright post (602) penetrates through the middle of each threaded sleeve (603), two ends of each guide upright post (602) penetrate through each second lifting block (601), a buffer accommodating hole (9) is formed above each guide upright post (602), each buffer accommodating hole (9) is located on the bottom surface of each first lifting block (2), a positioning groove (10) is formed below each guide upright post (602), and a drain hole (8) is formed between each positioning groove (10) and the water accumulation preventing center block (7);

one of the second lifting block (601) is provided with a support plate towards the side of the water accumulation preventing center block (7), the surface of the support plate is provided with an auxiliary motor (606), the top end of the auxiliary motor (606) is provided with an auxiliary gear (607), one side of the auxiliary gear (607) is provided with an auxiliary gear ring (608) meshed with the auxiliary gear ring, the inner wall of the auxiliary gear ring (608) is provided with a connecting ring (609), the connecting ring (609) is connected with the auxiliary gear ring (608) through a screw, and the end surface of the top end of the connecting ring (609) is in contact with and fixedly connected with the bottom surface of the first lifting block (2).

2. The laminated irrigation system for landscape architecture of claim 1, wherein: the L-shaped connecting water pipe (406) is inserted into the outer surface of the top end inside the rotary water outlet ball (403) and is provided with an alloy sealing ring (407), and the alloy sealing ring (407) is clamped in the inner wall of the rotary water outlet ball (403) and is connected with the rotary water outlet ball (403) in a sliding mode.

3. The laminated irrigation system for landscape architecture of claim 1, wherein: the inner wall of the upper surface of the connecting block (402) is provided with an annular clamping groove (412), a support ring (411) is arranged above the driving gear ring (408), and the support ring (411) is fixed on the outer surface of the bottom end of the rotating support column (405) and is clamped on the inner side of the annular clamping groove (412).

4. The laminated irrigation system for landscape architecture of claim 3, wherein: the outer surface of the part, clamped on the inner side of the annular clamping groove (412), of the support ring (411) is embedded with balls, and the ball part protrudes out of the support ring (411) and is in contact with the inside of the annular clamping groove (412).

5. The laminated irrigation system for landscape architecture of claim 1, wherein: the outer surface of the end part of the connecting water pipe (502) inserted into the buffer water pipe (503) is provided with an anti-seepage rubber ring (506), the anti-seepage rubber ring (506) is sleeved on the outer side of the connecting water pipe (502) and is in sliding connection with the buffer water pipe (503), and the inner wall surface of the buffer water pipe (503) and the outer surface of the anti-seepage rubber ring (506) are smooth.

6. The laminated irrigation system for landscape architecture of claim 1, wherein: four the outside of second elevator (601) is provided with supports outer loop (610), the upper surface activity joint that supports outer loop (610) has bottom sprag snap ring (611), the bottom sprag snap ring (611) is fixed in the bottom surface of first elevator (2), the partial surface of bottom sprag snap ring (611) joint inside supporting outer loop (610) is inlayed and is provided with the ball.

7. The laminated irrigation system for landscape architecture of claim 2, wherein: the bottom end of the guide upright post (602) is fixed on the inner bottom surface of the positioning groove (10), the outer surface of the guide upright post (602) and the inner side surface of the threaded sleeve (603) penetrated by the guide upright post are both provided with threads with the same turning direction, and the guide upright post (602) and the threaded sleeve (603) are in threaded transmission.

8. An irrigation method based on the laminated irrigation system for the garden landscape, which is characterized in that: the irrigation method comprises the following steps:

(A) Firstly, embedding the embedded block (1) into the ground at a proper position of a garden, ensuring that the surfaces of the embedded block (1) and the first lifting block (2) are flush with the ground, then switching on a power supply of the device and a power supply of an external water pump connected with a telescopic water injection pipe (501), and starting the device when plants in the garden need to be irrigated;

(B) When the device is started, firstly, the four adjusting motors (604) are synchronously started and drive the lifting gear (613) and the sleeve gear (612) to rotate, so that the threaded sleeve (603) rotates around the axis of the threaded sleeve, at the moment, the rotating threaded sleeve (603) is attached to the outer side of the guide upright post (602) through the thread transmission between the threaded sleeve and the guide upright post (602) and moves upwards along the axis of the guide upright post (602), so that the threaded sleeve (603) drives the second lifting block (601) to integrally move and drives the first lifting block (2) above the second lifting block (601) to integrally move upwards, the first lifting block (2) protrudes out of the embedded block (1) and exposes the accommodating groove (3) on the outer side of the first lifting block (2);

(C) Then the multi-stage electric telescopic rod (401) is electrified and started to extend, the multi-stage electric telescopic rod (401) in extension can extend out of the middle of the accommodating groove (3) and move the connecting block (402) and the rotary water outlet ball (403) out of the accommodating groove (3), meanwhile, the buffer water pipe (503) can be driven to move from the outer side of the connecting water pipe (502) until the multi-stage electric telescopic rod (401) is completely unfolded, at the moment, an external water pump connected with the telescopic water injection pipe (501) injects irrigation water into the telescopic water injection pipe (501), water flow enters the middle water storage block (504) along the telescopic water injection pipe (501) and then is shunted to the connecting water pipe (502), enters the buffer water pipe (503) from the connecting water pipe (502) and enters the L-shaped connecting water pipe (406) through the buffer water pipe (503), and then flows into the inside of the rotary water outlet ball (403) along the L-shaped connecting water pipe (406) and is sprayed outwards in a parabolic shape from the rotary water outlet ball (403) through a water outlet nozzle (404) on the outer surface of the rotary water outlet ball (403);

(D) When the rotary water outlet ball (403) sprays water, the rotary motor (410) is electrified and started, at the moment, the rotary motor (410) can drive the transmission gear (409) to rotate so that the transmission gear (409) drives the driving gear ring (408) meshed with the transmission gear ring to rotate, the driving gear ring (408) drives the rotary supporting column (405) to rotate around the axis of the rotary water outlet ball (403), at the moment, the rotary water outlet ball (403) can enable the water outlet nozzle (404) on the outer surface of the rotary water outlet ball to do circular motion around the axis of the rotary water outlet ball, and the water sprayed from the water outlet nozzle (404) forms a hemispherical watering area;

(E) The auxiliary motor (606) is synchronously electrified and started while the rotary motor (410) is electrified, the started auxiliary motor (606) drives the auxiliary gear (607) to rotate, so that the auxiliary gear (607) drives the auxiliary gear ring (608) meshed with the auxiliary gear ring to rotate, the auxiliary gear ring (608) drives the connecting ring (609) fixed with the auxiliary gear ring to rotate, the first lifting block (2) at the top end of the connecting ring (609) rotates around the axis of the telescopic water injection pipe (501), at the moment, the rotating first lifting block (2) drives the four multi-stage electric telescopic rods (401) to synchronously rotate around the axes of the four multi-stage electric telescopic rods (401), and the multi-stage electric telescopic rods (401) drive the rotating water outlet ball (403) to perform circular motion around the axis of the telescopic water injection pipe (501);

(F) At the moment, the water flow sprayed from the water nozzles (404) on the surfaces of the four rotating water outlet balls (403) forms a circular irrigation area with the center of the first lifting block (2) as the origin, and the uniform irrigation is carried out on an area which takes the center line of the first lifting block (2) as a circular point and takes the double size of the distance between the center point of the rotating water outlet ball (403) and the center point of the first lifting block (2) as the diameter.

9. An irrigation method as claimed in claim 8 wherein: the outer surface of the end part of the telescopic water injection pipe (501) inserted in the middle water storage block (504) is provided with a sealing ring (505), and the maximum diameter of the sealing ring (505) is larger than the inner diameter of the middle water storage block (504).

10. The irrigation method of claim 8 wherein: the bottom surface of the first lifting block (2) and the upper surfaces of the four second lifting blocks (601) are provided with laser sensors (605), the number of the laser sensors (605) on the bottom surface of the first lifting block (2) is four, the laser sensors are symmetrical to each other, and the laser sensors (605) on the bottom surface of the first lifting block (2) are electrically connected with the bottom surfaces of the second lifting blocks (601).

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