1016results about "Flower-pot filling" patented technology

Methods for classifying plants by remote sensing and image analysis technology are presented. These methods are useful for evaluating plants and for selecting plants for a plant breeding program which has as its goal to selectively alter phenotype. The methods combine the newer techniques of remote sensing technology to obtain indirect correlates of the traits of interest, with classical pedigree breeding strategies. Thermal and infrared reflectance measures of plant canopies are examples of energy values measured by remote sensing, used to indirectly predict the selected traits.

The invention is a system and method for managing a plurality of areas of interest of a golf course. The system comprises a plurality of subsurface aeration subsystems and a programmable master control module. Each subsystem provides to a specific area at least one of air under pressure and a partial vacuum. In each area of interest, a local control module is responsive to a directive and to a datum (environmental or operational parameter). The local control module is configured to operate the subsystem and is in communication with the programmable master control module. The programmable master control module receives from the local control modules area information representing a status of the respective specific area to which the local control module is dedicated, and in response to the area information and to a command, the programmable master control module issues a directive to the local control module to operate the subsurface aeration subsystem.

The invention provides an automatic transplanter for plug seedlings, comprising a transplanting mechanical hand mechanism, a planer-type mechanical arm mechanism, a seedling plug, a flowerpot conveying mechanism and a stand. The automatic transplanter for the plug seedlings is characterized in that the planer-type mechanical arm mechanism is provided with a mechanical arm horizontal movement guiderail and a synchronous belt on the upper part of the stand, the mechanical arm horizontal moving guide rail is connected with a mechanical arm connection plate in a sliding way, and the mechanical arm connection plate is connected with the synchronous belt and provided with a mechanical arm vertical movement guide rail and a transmission chain, and both ends of the mechanical arm are respectivelyarranged on the mechanical arm vertical movement guide rail and respectively connected with the transmission chain; a mechanical hand split-joint movement guide rail is assembled with a plurality ofmechanical hands in a sliding way, the end part of a cylinder piston rod is connected with a fore-end mechanical hand, and inelastic connection belts are arranged among the mechanical hands; the transplanting mechanical hand mechanism is fixedly connected with a mechanical finger installation positioning block at the lower end of a cylinder, the cylinder piston rod is fixedly connected with a mechanical hand installation positioning block which is fixedly connected with a finger sleeve, and a mechanical finger penetrating through the finger sleeve and the mechanical hand installation positioning block is fixedly connected on the mechanical finger installation positioning block. The automatic transplanter is characterized by replacing the manual operation with the machine to automatically complete transplantation of the plug seedlings of vegetables and flowers and plants and having simple structure, convenience, practicality and reliable property.

A soil manipulating tool is disclosed which has a handle (12) and a soil penetrating portion (14). The soil penetrating portion (14) is formed from a helical or spiral rod or wire (13) which defines a cavity (18). The rod or wire (13) may be hollow so that fertilizer or other liquid material can pass through the hollow rod wire (13) into the soil in which the tool is to be used. The tool may also include an abutment member for limiting the amount of penetration of the tool into the soil to facilitate churning up of the soil and a blade may also be provided across one of the spirals of the portion (14) to provide a chopping of soil so that a hole can be formed by removal of a plug of soil but at the same time leaving loosened soil at the bottom of the hole. The tool has particular application in aerating and manipulating composted material and the removal of composted material from a compost bin as well as garden applications for the formation of holes, and the aeration of soil facilitating plant growth.

A plant cultivating device (A), comprising aluminum long square pipe trays (5) for storing plants (35) together with culture solution, a conveyor device (2) for feeding the trays (5) in order in lateral direction, and a lighting device (3), having a number of light-emitting diodes disposed thereon, located over the conveyor device (5), the lighting device (3) being disposed so as to be higher gradually from the upstream side to the downstream side of the conveyor device (2), wherein a funnel-shaped holder (30) holding the upper part of the plant (35) is provided on the upper surface of the tray (5), and a planting conveyor (6) and a harvesting conveyor (7) for supply and retrieval, a reflecting wall (8) provided between these conveyors and the conveyor device (2), and transfer bars (41) for transferring the trays (5) between the conveyor device (2) and the planting and harvesting conveyors (6,7) are installed on the upstream and downstream sides of the conveyor device (2).

Compositions, methods and business applications of using new and recycled cardboard infused with a plurality of saprophytic (including endophytic) and mycorrhizal fungi matched with seeds of plants (including trees, vegetables, herbs and grasses) whereby the cardboard can be sprouted by end-users to start ecosystems. Such containers may have carbon-credit value for companies and consumers when planted and grown as a carbon sink or carbon offset for the photosynthetic and mycelial sequestration of carbon dioxide. The relative weight of the Life Box's added seeds and spores does not significantly affect the total weight of the infused cardboard, thus not increasing transportation costs.

An automated handling system for moving objects from one location to another location is provided with a self-mobile system having a grabber subsystem for grasping objects, including assemblies for movement in four directions, along X, Y and Z axes and through an angle θ. The system also has a translating carriage assembly for moving the grabber subsystem and power supply and drive systems. A sensing device, such as an imager, is provided to determine the geometric position of the objects and to move the grabber subsystem accordingly. Another embodiment of the system is provided as an accessory to a prime mover. It includes an alignment articulation system, a gross advance system, a tine storage system, a loading head system, and pot grabbers. This automated handling system can be used to move plant containers in nurseries from the ground to a trailer bed and/or from a trailer bed to the ground in a variety of container configurations.

To provide an illuminator for plant growth that can illuminate a plant intermittently (pulse illumination) or continuously to cause an effect similar to sunbeam spot phenomenon, thereby accelerating photosynthetic reaction.

Specifically, the illuminator for plant growth includes a light source composed of a semiconductor optical device, a control unit for outputting a turn-on timing signal for the light source, a rhythm signal detecting unit for A/D converting an input rhythm signal, a timing signal modulating unit for modulating the turn-on timing signal with the output signal from the rhythm signal detecting unit, and a pulse drive unit for pulse-modulating a power signal with the modulated turn-on timing signal outputted from the timing signal modulating unit and supplying the pulse-modulated power signal to the light source.

A conveyor system (4, 5) moves vertical poles (2) in an agricultural facility between a growing area (20) and a workstation (W). Each pole carries plant growing containers (3) at multiple levels (H1-H9). An irrigation reservoir (30) may be mounted atop each pole. Irrigation lines (31-33) from the reservoir may be individually metered (35) at each level to compensate for differing water pressure with height. Sensors (40) in the reservoir and at each level of the poles may provide a controller (36) with data input. The controller may impose different growing conditions in different areas of the facility, including vertically different grow areas (20A, 20B), and controls pole movements and locations selectively to provide a sequence of poles at the workstation ready to harvest on a demand schedule. The workstation may have multiple heights (W1, W2, W3) for tall poles that increase plant density per facility footprint.

An apparatus for growing and harvesting a tangled mass composed of sprouted seed grain includes a plurality of overlying immobile, substantially planar surfaces having a length. Each surface is configured to receive a layer of seed grain that is permitted to grow for a predetermined period of time on each surface, the layer of seed grain becoming a continuous tangled mass of sprouted seed grain. An extraction device removes the mass from each surface. A cleaning device removes debris from each surface prior to each surface receiving a subsequent layer of seed grain.

The present invention is directed to methods for delaying a plant development process comprising exposing a plant or plant part to one or more bacteria or enzymes. In specific embodiments, the one or more bacteria are selected from the group consisting of Rhodococcus spp., Pseudomonas chloroaphis, Brevibacterium ketoglutamicum, and a mixture comprising any combination of these bacteria. Apparatuses for delaying a plant development process comprising a catalyst that comprises one or more of the above bacteria.

An automatic flower transplanting device belongs to the field of automatic seedling transplanting equipment in protected agriculture. A conveyor of original flowerpots and a conveyor of empty flowerpots respectively convey the original flowerpots and the empty flowerpots into a transplanted flower pot positioning device. An earthing device for empty flowerpots is used for earthing the empty flowerpots before the empty flowerpots are conveyed into the transplanted flower pot positioning device. A flowerpot rubbing device is disposed below a position, at which the transplanted flower pot positioning device positions the original flowerpots and is used for rubbing the original flowerpots being positioned. A flower transplanting gripper above the transplanted flower pot positioning device is used for transplanting flowers from the positioned and rubbed original flowerpots to the empty flowerpots. A flowerpot collecting device is adjacent to the back of the transplanted flower pot positioning device and is used for collecting the flowerpots containing the transplanted flowers and arranging and positioning the flowerpots. The automatic flower transplanting device is available for transplanting and the like of various flower plants, and is applicable to various specifications of flowerpots, high in automation level and simple and reliable to operate during transplanting.

A lighting apparatus for controlling a plant disease is provided to reliably inhibit a spore formation and a hyphal growth of a filamentous fungi, reliably induce a disease resistance, prevent a leaf scorch, and promote a growth of a plant. A UV light source repeats a light irradiation which has an irradiation pattern of combining a light irradiation, in which UV-C and UV-B and a visible light are superimposed, with a visible light irradiation alone at least twice a day. The emission of UV-B and UV-C enables the reliable inhibition of the spore formation of the filamentous fungi, for example. Its intermittent emission prevents a plant from getting too used to ultraviolet rays, promotes a generation of an antibacterial substance, for example, and prevents a leaf scorch. The continuous emission of the visible light enables a promotion of a growth of the plant.

A system for transplant production comprising: at least one air conditioner installed in a completely light shielding closed structure surrounded by a thermally insulated wall, the air conditioner controlling the temperature and humidity of air in the closed structure; at least one box-shaped culturing module disposed in the internal space of the closed structure, the culturing module having a front face opening which is opened to the internal space of the closed structure; a plurality of transplant production shelves arranged vertically in multi-layer in the culturing module to form a transplant production space between the upper and lower transplant production shelves; a plurality of plug trays for holding a plant growing medium mounted on each transplant production shelf; a sub-irrigation unit capable of irrigation from the bottom of the plug trays mounted on each transplant production shelf; an artificial lighting unit provided on the back of each transplant production shelf, the artificial lighting unit irradiating light to the lower plug trays; and at least one air fan fixed to the back wall of each transplant production shelf of the culturing module. By sucking the air whose temperature and humidity have been controlled by the air conditioner using the air fan from the front face opening of the culturing module and sending the air to the rear of the back wall of each transplant production shelf, temperature-controlled and humidity-controlled air can be effectively generated.

The invention provides inter alia a mineral complex comprising about 40 wt. % to about 60 wt. % SiO₂, about 6 wt. % to about 16 wt. % Fe₂O₃, about 4 wt. % to about 12 wt. %. CaO, about 2 wt. % to about 8 wt. % MgO, wherein at least 85% of the mineral complex has a particle size of about 10 to about 6000 mesh, related compositions and methods for their use, including for growth medium augmentation and remediation.

Certain novel formulations of turf additives that act in such a manner as to permit proper amounts of moisture to contact root systems in order to reduce dry spots within highly managed turf areas and/or lawns. It is theorized that the accumulation of humic acid (and other natural byproduct deleterious compounds) at the topsoil surface in most cultivated grassy areas including sandy soils (such as, in particular, golf greens, pastures, lawns, and the like), as well as other non-grassy sandy areas in which such humic acid accumulation poses water repellency problems (such as beaches), results in the production of an effective organic waxy coating on the soil and/or sand components. Such a coating is hydrophobic in nature and thus dries out the soil itself. The inventive formulation thus permits removal of such accumulated humic acid (and other compounds) from the topsoil to the level necessary to provide effective moisture penetration for sustained grass growth therein (hereinafter referred to as "redistributes"). Methods of providing such beneficial removal of humic substances from target sandy soils are also contemplated within this invention, as well as specific test hydrophobic sand formulations.

The method for analysing the structure of cultured hedges, equally applicable by day or by night, for a mobile, continuously-moving machine in tied or staked plantations such as vineyards, includes a system using an artificial vision system, working by transmission, which permits a detection of the shadowing of the light between one or more transmitters and one or more detectors to one side and the other of the hedge. The information generated by said shadows of light are processed by an electronic analysis system, programmed or embodied to examine the elements of the structure of the hedge.

A plant-growing device with light emitting diode comprises a darkroom, a generator, a gas collecting device and a water supplying device. The darkroom comprises an accommodating space and a plurality of light emitting diodes disposed in the accommodating space for producing a light beam irradiating the accommodating space. The generator is disposed outside the darkroom. The generator is configured to receive sunlight from the atmospheric environment and convert it into an electric energy and provide the electric energy for the light emitting diodes. The gas collecting device connected between the accommodating space and the atmospheric environment is configured to transfer carbon dioxide from the atmospheric environment into the accommodating space and discharge oxygen from the accommodating space into the atmospheric environment. The water supplying device connected to the darkroom is configured to transport water outside the darkroom into the accommodating space.