Abstract: A cup-loading device for planting cups includes a profile bracket, a horizontal driving mechanism, a pressing mechanism and a planting cup grasping mechanism fixed at an output end of the pressing mechanism, wherein the horizontal driving mechanism and the pressing mechanism are disposed on the profile bracket, an output end of the horizontal driving mechanism is connected to the pressing mechanism so that the pressing mechanism move horizontally along the profile bracket, and the planting cup grasping mechanism includes a plurality of mechanical clamping jaws and a guide device for adjusting a spacing between adjacent mechanical clamping jaws. The pressing mechanism moves to the arranged planting cups, the planting cup grasping mechanism is pushed downward to touch the planting cup, and then the planting cups are arranged at equal distances on the planting cup grasping mechanism, and then accurately fill in the planting plate.

Abstract: A hydroponic cultivation system includes a plurality of hydroponic cultivation units vertically stacked one over another, each configured to provide a cultivation bed for the plants and including: a tank with an integrated structure; separation bars on a bed of the tank; a planting board; a plurality of removable dispensers, and a plurality of removable dam members. Every two neighboring hydroponic cultivation units are hydrologically coupled to one another such that the culture solution flows top-to-bottom through each of the plurality of hydroponic cultivation units on each level. The removable dam members and the separation bars are configured to facilitate flexible control of depths and passageways of a culture solution flowing in the tank, thereby allowing for convenient switching between a deep cultivation mode and a shallow cultivation mode to support different growth stages of plants being cultivated in the tank of the hydroponic cultivation unit.

Abstract: A multifunctional seedling culturing apparatus includes a fixed seedling culturing pedestal and a movable seedling culturing shelf cart, where the fixed seedling culturing pedestal includes a frame, and light sources are disposed on the frame; the movable seedling culturing shelf cart includes a board shelf, at least two boards are disposed on the board shelf, planting plates are disposed on the at least two boards, a movable apparatus is disposed on a bottom of the board shelf, and the at least two boards on the board shelf match light source positions on the fixed seedling culturing pedestal.

Abstract: The present invention relates to the technical field of planting, in particular to a cup-loading device for planting cups, which includes a profile bracket, a horizontal driving mechanism, a pressing mechanism and a planting cup grasping mechanism fixed at an output end of the pressing mechanism, wherein the horizontal driving mechanism and the pressing mechanism are disposed on the profile bracket, an output end of the horizontal driving mechanism is connected to the pressing mechanism so that the pressing mechanism move horizontally along the profile bracket, and the planting cup grasping mechanism includes a plurality of mechanical clamping jaws and a guide device for adjusting a spacing between adjacent mechanical clamping jaws.

Abstract: The disclosure discloses a bicolored plant cultivation apparatus. It contains two parts: a cultivation tank and a planting plate which can be assembled as a cavity for storing nutrient solutions and nutrient aerosols, or both can be used separately. In order to create a dark environment inside the cavity, the surface of inner bottom and lateral walls of the cultivation tank, the lower surface of the planting plate, or at least one of them will be coated with one layer of light blocking material. The principle behind the disclosure is to minimize the light intensity below the planting plate in order to provide a low light environment which is suitable for plant root growth and inhibits the alga growth at the same time. The preparation methods of the light-blocking layer include coating, injection moulding, lamination, adhesion and spraying.

Abstract: A planting device, a multilayer stereo-planting system using the planting device, and a planting system of a plant factory using the multilayer stereo-planting system are provided. The planting device includes the planting tray and the planting board which can be moved as a whole. The nutrient solution inlet and the nutrient solution outlet are located on the same side of the planting tray. The multilayer stereo-planting system includes the support rack and the nutrient solution supply system installed on the support rack. The planting device can be detachably installed on the support rack as a whole. The planting tray and the planting board of the planting device can be taken out and placed in together, protects the plant seedlings from injuries, and avoids the leakage phenomenon of the nutrient solution.

Abstract: Disclosed is an setup-free planting case, which includes at least one planting box. Each planting box is provided with a box body and a box cover; a light source module is arranged on the box cover; a heat dissipation module is arranged on the box cover or the box body; the box body is provided with a connection port; the top of the box cover is provided with a connection portion; the connection portion at the top of the box cover matches the connection port at the bottom of the box body; and the light source module and the heat dissipation module are arranged in a cavity.

Abstract: A multifunctional seedling culturing apparatus includes a fixed seedling culturing pedestal and a movable seedling culturing shelf cart, where the fixed seedling culturing pedestal includes a frame, and light sources are disposed on the frame; the movable seedling culturing shelf cart includes a board shelf, at least two boards are disposed on the board shelf, planting plates are disposed on the at least two boards, a movable apparatus is disposed on a bottom of the board shelf, and the at least two boards on the board shelf match light source positions on the fixed seedling culturing pedestal.

Abstract: A hydroponic cultivation system includes a plurality of hydroponic cultivation units vertically stacked one over another, each configured to provide a cultivation bed for the plants and including: a tank with an integrated structure; separation bars on a bed of the tank; a planting board; a plurality of removable dispensers, and a plurality of removable dam members. Every two neighboring hydroponic cultivation units are hydrologically coupled to one another such that the culture solution flows top-to-bottom through each of the plurality of hydroponic cultivation units on each level. The removable dam members and the separation bars are configured to facilitate flexible control of depths and passageways of a culture solution flowing in the tank, thereby allowing for convenient switching between a deep cultivation mode and a shallow cultivation mode to support different growth stages of plants being cultivated in the tank of the hydroponic cultivation unit.

Abstract: A hydroponic cultivation system includes a plurality of hydroponic cultivation units vertically stacked one over another. Each unit is configured to provide a cultivation bed for the plants, and every two neighboring hydroponic cultivation units are hydrologically coupled to one another such that the culture solution flows top-to-bottom through each hydroponic cultivation unit on each level. The system further includes a plurality of support members, which are disposed between, and can provide mechanical support for, two hydroponic cultivation units on every two neighboring levels. The plurality of support members include at least one pipe, and each pipe is configured to arrange at least one of a hydrological connection or an electrical coupling between the two hydroponic cultivation units on the every two neighboring levels therein. The hydroponic cultivation system can achieve a vertical recycling of the culture solution.

Abstract: A hydroponic cultivation system includes a plurality of hydroponic cultivation units vertically stacked one over another. Each hydroponic cultivation unit is configured to provide a cultivation bed for the plants. Every two neighboring units are hydrologically coupled to one another such that the culture solution flows top-to-bottom through each hydroponic cultivation units on each level. A plurality of support members, such as pipes, are disposed between, and provide mechanical support for, two hydroponic cultivation units on every two neighboring levels. A light source is disposed over a bottom side of one hydroponic cultivation unit on an upper level and can emit a plant-compatible light to support growth of the plants being cultivated on another hydroponic cultivation unit on a level immediately below the upper level. The hydroponic cultivation system can achieve a vertical recycling of the culture solution.

Abstract: A planting device, a multilayer stereo-planting system using the planting device, and a planting system of a plant factory using the multilayer stereo-planting system are provided. The planting device includes the planting tray and the planting board which can be moved as a whole. The nutrient solution inlet and the nutrient solution outlet are located on the same side of the planting tray. The multilayer stereo-planting system includes the support rack and the nutrient solution supply system installed on the support rack. The planting device can be detachably installed on the support rack as a whole. The planting tray and the planting board of the planting device can be taken out and placed in together, protects the plant seedlings from injuries, and avoids the leakage phenomenon of the nutrient solution.

Abstract: The disclosure discloses a bicolored plant cultivation apparatus. It contains two parts: a cultivation tank and a planting plate which can be assembled as a cavity for storing nutrient solutions and nutrient aerosols, or both can be used separately. In order to create a dark environment inside the cavity, the surface of inner bottom and lateral walls of the cultivation tank, the lower surface of the planting plate, or at least one of them will be coated with one layer of light blocking material. The principle behind the disclosure is to minimize the light intensity below the planting plate in order to provide a low light environment which is suitable for plant root growth and inhibits the alga growth at the same time. The preparation methods of the light-blocking layer include coating, injection moulding, lamination, adhesion and spraying.

Abstract: A configurable hydroponic cultivation device includes a tank. The tank includes at least one separation bar and at least one removable dam member. The at least one separation bar is disposed on a bottom side of the tank and is configured to separate the tank into a plurality of trough regions. The at least one removable dam member is configured to be removably mounted in the tank to thereby block the culture solution from flowing therethrough. The at least one separation bar and the at least one removable dam member are configured to allow a configurable passageway for the culture solution flowing in the tank. Due to its modular features, the configurable hydroponic cultivation unit can be stacked one another to form a multi-level hydroponic cultivation system, which achieves a vertical recycling of the culture solution.

Abstract: A hydroponic cultivation system includes a plurality of hydroponic cultivation units vertically stacked one over another. Each unit is configured to provide a cultivation bed for the plants, and every two neighboring hydroponic cultivation units are hydrologically coupled to one another such that the culture solution flows top-to-bottom through each hydroponic cultivation unit on each level. The system further includes a plurality of support members, which are disposed between, and can provide mechanical support for, two hydroponic cultivation units on every two neighboring levels. The plurality of support members include at least one pipe, and each pipe is configured to arrange at least one of a hydrological connection or an electrical coupling between the two hydroponic cultivation units on the every two neighboring levels therein. The hydroponic cultivation system can achieve a vertical recycling of the culture solution.

Abstract: A hydroponic cultivation system includes a plurality of hydroponic cultivation units vertically stacked one over another. Each hydroponic cultivation unit is configured to provide a cultivation bed for the plants. Every two neighboring units are hydrologically coupled to one another such that the culture solution flows top-to-bottom through each hydroponic cultivation units on each level. A plurality of support members, such as pipes, are disposed between, and provide mechanical support for, two hydroponic cultivation units on every two neighboring levels. A light source is disposed over a bottom side of one hydroponic cultivation unit on an upper level and can emit a plant-compatible light to support growth of the plants being cultivated on another hydroponic cultivation unit on a level immediately below the upper level. The hydroponic cultivation system can achieve a vertical recycling of the culture solution.

Abstract: A configurable hydroponic cultivation device includes a tank. The tank includes at least one separation bar and at least one removable dam member. The at least one separation bar is disposed on a bottom side of the tank and is configured to separate the tank into a plurality of trough regions. The at least one removable dam member is configured to be removably mounted in the tank to thereby block the culture solution from flowing therethrough. The at least one separation bar and the at least one removable dam member are configured to allow a configurable passageway for the culture solution flowing in the tank. Due to its modular features, the configurable hydroponic cultivation unit can be stacked one another to form a multi-level hydroponic cultivation system, which achieves a vertical recycling of the culture solution.