Solar induction type path lamp and plant growth lamp

Abstract

The utility model discloses a solar energy induction type path lamp and a plant growth lamp, the structure comprises a fixed frame, a switch, an irradiation plate, a control end, a watering end, a placing plate, a solar panel, a watering controller and an induction type path lamp, the watering end comprises a pipeline, an external interface, a water injection nozzle and a connecting pipe, the irradiation plate irradiates plants at regular time, and the lamp is turned on for 16 hours. And then automatically entering a light-off mode for 8 hours, automatically turning on the light for 16 hours after the light is turned off for 8 hours, circulating in this way, setting 16 hours as a unit through the system of the water sprinkling controller, and pumping water in the external water tank through the external interface once every 3 hours by the water sprinkling controller. After being flushed out of the limiting block, the water is atomized through the atomizing head, so that large-area small molecules can be sprayed on the surface of the plant, and when the plant is irradiated by light for a long time in a standing state, the water of the upper half part can be supplemented by spraying the water at fixed intermittent time, so that the plant can be kept in a healthy state under long-time irradiation.

Description

Technical Field

[0001] The utility model belongs to the field of plant growth lamps, and more specifically, particularly relates to a solar induction path lamp and a plant growth lamp. Background Art

[0002] Plant growth lights are electric light sources that use artificial light sources to supplement the lighting for flowers, vegetables and other plants. Especially in winter when daylight hours are insufficient, they can improve the utilization rate of light energy for plants and help plants maintain normal growth and development.

[0003] Based on the above, the inventor of the present invention has found that the existing solar induction path lights and plant growth lights have the following shortcomings, such as:

[0004] When hydroponic flowers are placed under a plant growth lamp for irradiation, the hydroponic flowers and the irradiation lamp are in a static state during the irradiation process, so that the light source mainly illuminates the upper part of the flower, while the lower part is always in the culture solution, which can easily cause excessive imbalance of water between the upper and lower parts and affect the state of the plant.

[0005] Therefore, it is necessary to provide a solar induction path light and a plant growth light. Utility Model Content

[0006] In order to solve the above technical problem, when hydroponic flowers are placed under a plant growth lamp for irradiation, the hydroponic flowers and the irradiation lamp are in a static state during the irradiation process, so that the light source mainly illuminates the upper part of the flower, while the lower part is always in the culture solution, which easily causes the water in the upper and lower parts to be too unbalanced, thus affecting the state of the plant.

[0007] The purpose and function of the solar-powered induction path light and plant growth light of the utility model are achieved by the following specific technical means:

[0008] Its structure includes a fixing frame, a switch, an irradiation board, a control end, a sprinkler end, a placement board, a solar panel, a sprinkler controller, and an induction path light. The fixing frame is fixed to the left and right sides of the control end and the placement board for support. The switch is electrically connected to the control end. The irradiation board is connected and fixed to the lower surface of the control end with the sprinkler end. The solar panel is fixed to the upper surface of the control end. The induction path light is provided with two mounted on both sides of the front and rear ends of the irradiation board.

[0009] The sprinkler end includes a pipeline, an external interface, a water spray port, and a connecting pipe. The pipeline is connected to the external interface through a sprinkler controller, and the water spray port is connected to the pipeline through a connecting pipe. The sprinkler controller sets the sprinkler time through a control system, and the sprinkler controller and the control end are switched through a switch. The sprinkler end is provided with two and is symmetrically installed on both sides of the irradiation plate. When the sprinkler controller controls the water output, it will be connected to the external water tank through the external interface for extraction. The irradiation plate is located directly above the placement plate to facilitate the irradiation of the plants. The water spray port is provided with four and two are in a group.

[0010] As a further improvement of the utility model, the water spray port is inclined at an angle of degrees, so that water can be sprayed on plants over a larger range. The solar panel can store energy for the control end to manipulate the absorbed light energy. The external interface is connected to an external water tank to provide water to the internal sprinkler. The induction path light is connected to the illumination board circuit and can be switched on and off together. When the induction system of the induction path light is turned on, it can light up after recognizing that a moving object is approaching.

[0011] As a further improvement of the utility model, the water spray outlet includes a connecting body, a delivery pipe, a fixed shaft, and a nozzle. The connecting body is fixed to the outer shell by the fixed shaft. The delivery pipe runs through the inside of the connecting body and is connected to the nozzle. The inclination angle of the connecting body mainly fixes the installation spraying angle of the nozzle. The nozzles are provided in a group with two, a total of four groups and are symmetrically distributed. The nozzles are connected to the connecting pipe through the delivery pipe.

[0012] As a further improvement of the present invention, the nozzle includes a limit block, a through opening, and an outer solid layer. The limit block is installed inside the through opening. The through opening and the outer solid layer are an integrated structure. The through opening is connected to the delivery pipe. The limit block is a symmetrical structure and has a certain arc shape, which can allow water to pass better.

[0013] As a further improvement of the utility model, the through opening includes an atomizing head and a protective ring, the protective ring is sleeved on the outer ring of the atomizing head, the atomizing head is fixed to the outer solid layer through the protective ring, the atomizing head can allow the rushing water flow to play an atomizing role, the protective ring is for the restricted rushing water flow to output to the atomizing head with more impact, and the protective ring plays a protective and buffering role in the installation of the atomizing head, so that the atomizing head will not fall off due to the large impact, and the atomizing head is provided with four small openings and one large opening in a group.

[0014] As a further improvement of the utility model, the irradiation board includes a white light, a red light, a main board, an electrical terminal, and a fixed block. The white lights are provided with 42 and are evenly distributed on the same horizontal plane. The red lights are provided with 6 and are symmetrically distributed. The white lights and the red lights are fixed to the outer surface of the main board and are electrically connected to the electrical terminal. The fixed block fixes the electrical terminal and the main board.

[0015] As a further improvement of the utility model, the power connection terminals are provided with two and are symmetrically distributed, the white light is white light, the red light is red light, the color temperature of the white light is 6400K, the wavelength is 488mm, the color temperature of the red light is 1600K, the wavelength is 645mm, and the fixed blocks are provided with six and are distributed in three columns and two rows.

[0016] Compared with the prior art, the utility model has the following beneficial effects:

[0017] 1. Start the control end through the switch, and the irradiation board will irradiate the plants at a fixed time. The light will be on for 16 hours, and then it will automatically enter the light-off mode for 8 hours. After being turned off for 8 hours, the light will be automatically turned on for 16 hours in this cycle. Within the 16 hours of the light, the sprinkler controller is set to a unit of 16 hours. Every 3 hours, the sprinkler controller will extract water from the external water tank through the external interface, and the water will be diverted into two streams by the delivery pipe and output along the nozzle. The limit block inside the nozzle is wide on both sides and narrow in the middle, so that the output amount can be controlled to a certain extent and can be evenly output with impact. After rushing out of the limit block, it can be atomized by the atomizer head to spray a large area of ​​fine molecules on the surface of the plant. When the plant is in a static state and exposed to light for a long time, it can be sprayed at a fixed interval to replenish the water in the upper half, so that the plant can maintain a healthy state under long-term exposure.

[0018] 2. When the induction path light senses a moving object around, it will light up to illuminate the surrounding area. The power supply inside the control end is connected to the power supply and the setting is used to control the irradiation time of the red light and the white light. The white light and the red light are evenly distributed to illuminate the plants in the largest range, so that the plants can grow better under the effect of artificial light. The irradiation time of the plants can be set under a specific light source, so that they can better absorb the light source and grow. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 The utility model is a schematic diagram of the structure of a solar induction path light and a plant growth light.

[0020] Figure 2 The utility model is a schematic diagram of the structure of a solar induction path light and a plant growth light.

[0021] Figure 3 The utility model is a schematic diagram of the internal structure of a sprinkler end viewed from above.

[0022] Figure 4 The utility model is a front view of a three-dimensional structure of a water spray nozzle.

[0023] Figure 5It is a schematic diagram of the cross-sectional three-dimensional structure of a nozzle of the utility model.

[0024] Figure 6 The utility model is a schematic diagram of the internal structure of a through opening in a front view.

[0025] Figure 7 It is a three-dimensional structural schematic diagram of an irradiation plate of the utility model.

[0026] Figure 8 The utility model is a schematic diagram of the process of a solar induction path light and a plant growth light.

[0027] In the figure: fixed frame-1, switch-2, irradiation plate-3, control end-4, sprinkler end-5, placement plate-6, solar panel-7, sprinkler controller-8, induction path light-9, pipeline-a1, external interface-a2, water spray outlet-a3, connecting pipe-a4, connecting body-01, conveying pipe-02, fixed axis-03, nozzle-04, limit block-g1, through-g2, outer solid layer-g3, atomizing head-w1, protective ring-w2, white light-201, red light-202, main board connection-203, power connection end-204, fixed block-205. DETAILED DESCRIPTION

[0028] The utility model is further described below in conjunction with the accompanying drawings:

[0029] Embodiment 1:

[0030] As attached Figure 1 To Attachment Figure 6 As shown:

[0031] The utility model provides a solar induction path light and a plant growth light, which structure includes a fixing frame 1, a switch 2, an irradiation plate 3, a control end 4, a sprinkler end 5, a placement plate 6, a solar panel 7, a sprinkler controller 8, and an induction path light 9. The fixing frame 1 is fixed to the left and right sides of the control end 4 and the placement plate 6 for support, the switch 2 is electrically connected to the control end 4, the irradiation plate 3 is connected and fixed to the lower surface of the control end 4 with the sprinkler end 5, the solar panel 7 is fixed to the upper surface of the control end 4, and the induction path light 9 is provided with two mounted on both sides of the front and rear ends of the irradiation plate 3;

[0032] The sprinkler end 5 includes a pipeline a1, an external interface a2, a water spray port a3, and a connecting pipe a4. The pipeline a1 is connected to the external interface a2 through a sprinkler controller 8, and the water spray port a3 is connected to the pipeline a1 through a connecting pipe a4. The sprinkler controller 8 sets the sprinkler time through a control system, and the sprinkler controller 8 and the control end 4 are switched through a switch 2. The sprinkler end 5 is provided with two and is symmetrically installed on both sides of the irradiation plate 3. When the sprinkler controller 8 controls the water output, it will be connected to the external water tank through the external interface a2 for extraction. The irradiation plate 3 is located directly above the placement plate 6 to facilitate the irradiation of the plants. The water spray port a3 is provided with four and two are in a group. The irradiation plate 3 can control the irradiation time and light source adjustment through the control end 4.

[0033] Among them, the water spray port a3 is inclined at an angle of 45 degrees, which can spray water on plants in a larger range. The solar panel 7 can use the absorbed light energy to store energy for control by the control end 4. The external interface a2 is connected to the external water tank to provide water to the internal sprinkler. The induction path light 9 is connected to the irradiation board 3 circuit and can be switched on and off together. When turned on, the induction system of the induction path light 9 can light up after recognizing that a moving object is approaching. The induction path light 9, the irradiation board 3, and the sprinkler end 5 are installed on the same plane and are all in the most favorable operating position for plants.

[0034] Among them, the water spray outlet a3 includes a connecting body 01, a delivery pipe 02, a fixed shaft 03, and a nozzle 04. The connecting body 01 is fixed to the outer shell through the fixed shaft 03. The delivery pipe 02 runs through the inside of the connecting body 01 and is connected with the nozzle 04. The inclination angle of the connecting body 01 mainly fixes the installation spraying angle of the nozzle 04. The nozzles 04 are provided in a group with two, a total of four groups and are symmetrically distributed. The nozzles 04 are connected to the connecting pipe a4 through the delivery pipe 02, and the water delivered by the delivery pipe 02 will be sprayed through the two nozzles 04 for diversion.

[0035] Among them, the nozzle 04 includes a limit block g1, a through port g2, and an outer solid layer g3. The limit block g1 is installed inside the through port g2. The through port g2 and the outer solid layer g3 are an integrated structure. The through port g2 is connected to the delivery pipe 02. The limit block g1 is a symmetrical structure with a certain arc shape, which can allow water to pass better. The limit block g1 is wide on both sides and narrow in the middle, which can limit and compress the water flow. The narrow part in the middle can make the original large amount of water play a role of spatial compression and rush out, so that it can reach the spraying distance. The port of the output port becomes larger so that the required amount can be sprayed evenly and appropriately.

[0036] Among them, the through opening g2 includes an atomizer head w1 and a protective ring w2. The protective ring w2 is sleeved on the outer ring of the atomizer head w1. The atomizer head w1 is fixed to the outer solid layer g3 through the protective ring w2. The atomizer head w1 can allow the rushing water flow to atomize. The protective ring w2 is for outputting the restricted rushing water flow to the atomizer head w1 with more impact. The protective ring w2 plays a protective and buffering role in the installation of the atomizer head w1, so that the atomizer head w1 will not fall off due to the large impact. The atomizer head w1 is provided with four small openings and one large opening in a group, and the protective ring w2 is a circular ring structure.

[0037] The specific usage and function of this embodiment are as follows:

[0038] In the utility model, the device can be placed outdoors to absorb light energy by the solar panel 7, which plays an auxiliary energy-saving role in the electricity consumption of the device. The hydroponic flowers to be irradiated are placed on the placement board 6, which is located directly below the irradiation board 3. The control end 4 is started by the switch 2, and the irradiation board 3 irradiates the plants at a fixed time. According to the system setting of the control end 4, the light is on for 16 hours, and then automatically enters the light-off mode for 8 hours. After being turned off for 8 hours, the light is automatically turned on for 16 hours. In this cycle, within the 16 hours of the light, the system setting of the sprinkler controller 8 is changed from 16 hours to 8 hours. A unit, once every 3 hours, the sprinkler controller 8 will extract water from the external water tank through the external interface a2, and transport it to the water outlet a3 through the pipeline a1 and the connecting pipe a4, and then it will be divided into two streams by the delivery pipe 02 and output along the nozzle 04. The limit block g1 inside the nozzle 04 is wide on both sides and narrow in the middle, so that the output amount can be controlled to a certain extent and can be output evenly and equally with impact. After rushing out from the limit block g1, it is atomized by the atomizing head w1 and can be sprayed on the surface of the plant over a large area of ​​fine molecules, which plays a role in evenly replenishing water for the continuously irradiated plants.

[0039] Embodiment 2:

[0040] As attached Figure 7 As shown:

[0041] Among them, the irradiation plate 3 includes a white light 201, a red light 202, a main board 203, an electrical terminal 204, and a fixed block 205. The white lights 201 are provided with 42 and are evenly distributed on the same horizontal plane. The red lights 202 are provided with 6 and are symmetrically distributed. The white lights 201 and the red lights 202 are fixed on the outer surface of the main board 203 and are electrically connected to the electrical terminal 204. The fixed block 205 fixes the electrical terminal 204 and the main board 203. The white lights 201 and the red lights 202 are mainly used to irradiate plants with light.

[0042] Among them, the power connection terminals 204 are provided with two and are symmetrically distributed, the white light 201 is white light, the red light 202 is red light, the color temperature of the white light 201 is 6400K, the wavelength is 488mm, the color temperature of the red light 202 is 1600K, and the wavelength is 645mm, the fixed blocks 205 are provided with six and are distributed in three columns and two rows, and the upper end of the main board 203 is connected to the control terminal 4 and the solar panel 7, which plays a role in control and auxiliary energy supply.

[0043] The specific usage and function of this embodiment are as follows:

[0044] In the utility model, when plants are placed on the placement board 6 and illuminated by the illumination board 3, the induction path lights 9 on both sides will light up to illuminate the surrounding area when the sensors sense moving objects around them. The system of the control end 4 sets the illumination board 3 to light up for 16 hours, and then automatically enters the light-off mode for 8 hours. After being shut down for 8 hours, it automatically turns on the light for 16 hours, and repeats this cycle. The power supply inside the control end 4 is connected by the power terminal 204, and the illumination time of the red light 202 and the white light 201 are set and controlled. The white light and the red light of the white light 201 and the red light 202 are evenly distributed, so that the plants can be illuminated in the largest range, so that the plants can grow better under the action of artificial light.

[0045] Utilizing the technical solution described in the utility model, or those skilled in the art designing similar technical solutions inspired by the technical solution of the utility model to achieve the above-mentioned technical effects, all fall within the protection scope of the utility model.

Claims

1. A solar induction path light and plant growth light, the structure of which comprises a fixing frame (1), a switch (2), an irradiation plate (3), a control end (4), a sprinkler end (5), a placement plate (6), a solar panel (7), a sprinkler controller (8), and an induction path light (9), wherein the fixing frame (1) is fixed to the left and right sides of the control end (4) and the placement plate (6) for support, the switch (2) is electrically connected to the control end (4), the irradiation plate (3) is connected and fixed to the lower surface of the control end (4) with the sprinkler end (5), the solar panel (7) is fixed to the upper surface of the control end (4), and the induction path light (9) is provided with two mounted on both sides of the front and rear ends of the irradiation plate (3), characterized in that: The watering end (5) comprises a pipeline (a1), an external interface (a2), a water spraying port (a3), and a connecting pipe (a4); the pipeline (a1) is connected to the external interface (a2) through a watering controller (8); the water spraying port (a3) ​​is connected to the pipeline (a1) through a connecting pipe (a4); the watering controller (8) sets the watering time through a control system; the watering controller (8) and the control end (4) are switched through a switch (2); the watering end (5) is provided with two and symmetrically installed on both sides of the irradiation plate (3); when the watering controller (8) controls the water output, it will be connected to an external water tank through the external interface (a2) for extraction; the irradiation plate (3) is located directly above the placement plate (6) to facilitate irradiation of the plants.

2. A solar induction path light and plant growth light according to claim 1, characterized in that: The water spray port (a3) ​​is inclined at an angle of 45 degrees, so that water can be sprayed on plants over a larger range. The solar panel (7) can absorb light energy for the control end (4) to store energy for operation. The external interface (a2) is connected to an external water tank to provide water to the internal sprinkler. The induction path light (9) is connected to the irradiation plate (3) in circuit and can be switched on and off together.

3. A solar induction path light and plant growth light according to claim 1, characterized in that: The water spray outlet (a3) ​​comprises a connecting body (01), a delivery pipe (02), a fixed shaft (03), and a nozzle (04); the connecting body (01) is fixed to the outer shell via the fixed shaft (03); the delivery pipe (02) runs through the inside of the connecting body (01) and is connected to the nozzle (04); the inclination angle of the connecting body (01) mainly fixes the installation spraying angle of the nozzle (04); the nozzles (04) are provided in a group of two, with a total of four groups and are symmetrically distributed.

4. A solar induction path light and plant growth light according to claim 3, characterized in that: The nozzle (04) comprises a limit block (g1), a through port (g2), and an outer solid layer (g3); the limit block (g1) is installed inside the through port (g2); the through port (g2) and the outer solid layer (g3) are an integral structure; and the through port (g2) is connected to the delivery pipe (02).

5. A solar induction path light and plant growth light according to claim 4, characterized in that: The through opening (g2) comprises an atomizing head (w1) and a protective ring (w2), wherein the protective ring (w2) is sleeved on the outer ring of the atomizing head (w1), and the atomizing head (w1) is fixed to the outer solid layer (g3) through the protective ring (w2). The atomizing head (w1) can atomize the rushing water flow, and the protective ring (w2) outputs the restricted rushing water flow to the atomizing head (w1) with greater impact. The protective ring (w2) plays a protective and buffering role in the installation of the atomizing head (w1), so that the atomizing head (w1) will not fall off due to the large impact.

6. A solar induction path light and plant growth light according to claim 1, characterized in that: The irradiation plate (3) comprises white lights (201), red lights (202), a main board connection (203), an electrical connection terminal (204), and a fixing block (205); 42 white lights (201) are provided and are evenly distributed on the same horizontal plane; 6 red lights (202) are provided and are symmetrically distributed; the white lights (201) and the red lights (202) are fixed to the outer surface of the main board connection (203) and are electrically connected to the electrical connection terminal (204).

7. A solar induction path light and plant growth light according to claim 6, characterized in that: The power connection terminals (204) are provided with two and are symmetrically distributed. The white light (201) is white light, and the red light (202) is red light. The color temperature of the white light (201) is 6400K and the wavelength is 488mm. The color temperature of the red light (202) is 1600K and the wavelength is 645mm.

Images