437 results about "Hydroponics" patented technology

This invention provides method and devices for receiving and/or delivering liquid to an object, devices for delivering liquid to a plant/seed/growing medium comprising: a conduit comprising: at least two about parallel plates one or more walls substantially sealing the plates and forming a substantially enclosed space, such that the devices are useful in hydroponic gardens. This invention also provides hydroponic gardens with such devices. The parallel plates and the walls can be rigid and hydrophobic.

A dietary inclusion model for an integrated aquaculture-hydroponics system is derived from the concept of mass conservation. The model enables the maintenance of near-equilibrium concentrations of Ca, K, Mg, N, and P, suitable concentrations of Mn and Cu, and acceptable accumulation rates of Na and Zn, in representative integrated aquaculture-hydroponics systems, by modifying the mineral concentrations of the fish diets according to the model. The model is readily applicable to virtually any freshwater recirculating fish culture system operating at a recycle ratio sufficiently high to maintain appropriate nitrogen concentrations and having an environment suitable for hydroponic plant culture.

Disclosed is a hydroponic assembly for planting pots of diverse sizes. The assembly is formed of a reservoir having a top and bottom with an opening in said top; a support frame disposed in said opening; a first and a second insert supported by said frame. The first insert has a first access port and the second insert has a second access port with a different size than the first.

This invention provides smart garden devices for hydroponics growing systems, wherein the devices include a means for delivering electricity to the smart garden device; at least one timer; and means for determining, receiving, sending, or processing data regarding the status of a component or characteristic of the hydroponics device. This invention also provides smart garden kits and methods for using smart garden devices for growing plants.

A hydroponic system useful for providing a continuous flow nutrient solution to the roots of a plurality of plants. The system includes a tubular assembly of horizontally inclined members interconnected to each other at elbow joints, and comprising a plurality of cutouts configured to receive the roots of the plurality of plants, and having a top entry and a bottom exit. A pump is configured to pump the nutrient solution to the top entry of the tubular assembly, wherein the angles of the horizontally inclined members allow the solution to flow downward through the tubular assembly before exiting through the bottom to return to the pump.

The present invention circumvents inherent inefficiencies of photosynthesis by exposing chloroplast (or equivalents thereof) to light in a periodic manner during the organisms' “daylight” cycle. Optical, electro-optical, and/or electromechanical techniques are introduced to conventional farming methods to increase the conversion efficiency and farming yield many-fold. A module is provided that carries out the above benefits. The module includes: a solar distribution sub-system; and a structure having a plurality of growing levels configured and dimensioned to support a desired quantity of plant life and associated nutrient sources (e.g., soil, hydroponic, or an equivalent nutrient source).

The described invention is an integrated multi-trophic farming process and methods thereof that creates a linkage between aquaculture, hydroponics, agriculture, and algae production. The process and methods described herein enable one skilled in the art of aquaculture, agriculture, hydroponics, and/or algae production to integrate aquaculture practices with their respective industry. The process and methods described within are applied to freshwater, brackish, and/or saltwater aquaculture production systems. The processes and methods described herein enable one skilled in the art to produce fish and/or aquatic animals in conjunction with plant and/or algae crops with less consumption of water, feed, and/or fertilizers when compared to conventional open source farming practices such as but not limited to aquaculture, agriculture, and/or algae production

The present invention provides a complete, safe, cost-effective, simple-to-use, and pH balanced hydroponics nutrient feeding kit for culturing plants indoors, outdoors and in green houses, wherein the hydroponics nutrient feeding kit comprises a set of formulations for making chronologically sequential nutrient solutions to culture a hydroponic crop through an entire growth cycle, wherein each formulation comprises all of the nutrient components required in a batch of nutrient solution. The nutrient components are pre-measured for a specific hydroponic nutrient reservoir size to consistently provide plants with their nutrient requirements for the specific stage of growth through the vegetative phase and the flowering and fruiting phase through to harvest. The hydroponics nutrient feeding system can be used with rock-wool, sphagnum moss, leca, coir, lava rock, soil mixes, aeroponics, drip irrigation, flood and drain, wick, NFT, systems and all other hydroponic growth mediums and systems.

This invention provides methods, devices, and kits for growing a plant or germinating a seed into a plant; methods and devices for delivering oxygen to a plant or a seed which will germinate into a plant; methods and devices for delivering liquid to a plant; methods and devices for increasing the dissolved oxygen concentration in a liquid to be delivered to a plant; methods and devices for increasing the dissolved oxygen concentration in a liquid within a hydroponics device; terraced oxygenators; aspirators, downdraft venturis, net baskets; germination caps, sets of germination caps; methods for increasing the likelihood of germination of a seed; seed-bearing support media; methods for germinating a seed; and smart garden devices for hydroponics growing systems.

An oxygen emitter which is an electrolytic cell is disclosed. When the anode and cathode are separated by a critical distance, very small microbubbles and nanobubbles of oxygen are generated. The very small oxygen bubbles remain in suspension, forming a solution supersaturated in oxygen. A flow-through model for oxygenating flowing water is disclosed. The use of supersaturated water for enhancing the growth of plants is disclosed. Methods for applying supersaturated water to plants manually, by drip irrigation or in hydroponic culture are described. The treatment of waste water by raising the dissolved oxygen with the use of an oxygen emitter is disclosed.

A hydroponic growing unit having a base shaped to hold liquid, the outer periphery of the base defined by an outer, vertical base wall. The unit has a vertical plant support wall forming a generally annular enclosure, the support wall mounted on the wall of the base to extend above the base and to enclose space above the base. There is at least one opening in the support wall providing access to the enclosed space and to the inner surface of the support wall. The opening is normally closed by at least one wall panel forming part of the support wall. The unit has vertical light means mounted in the center of the annular enclosure. Planting block support means are arranged on the inner surface of the support wall near the top and planting blocks, in which plants are planted, are mounted on the support means in a circle to have the plants face the central light means. A watering member is associated with each support means to provide water, pumped from the base, to the top of each block mounted on the support means.

Present invention relates to a hydroponic plant grow cabinet, comprising a housing, said housing comprising main plant growing chamber and a pre-growing chamber for seeds/seedlings, main tank and auxiliary tanks for a nutrient solution and pH level regulating solutions, pumps and tubing, lighting means, ventilating means, control means, sensors, display means, loudspeaker and user input means, network communication means, connection to electric main, connections to water mains and sewage.

Utilizing the latest microprocessor technology, the digital moisture monitor controller along with its wide applications alternating current conduction moisture sensors and optional X10 multi sensor multi pump controller, controls moisture levels in all soils and all of today's hydroponics mediums.

This invention provides a container and associated growing process that promotes the growth of at least two different, specialized types of roots and that provides the optimal conditions for these two types of roots. In particular, the container defines an upper section that promotes growth of a fine intricate web of roots that is surrounded by an organic, non-organic or mixed organic and non-organic nutrient-rich medium. This upper section is separated by a permeable medium divider that allows predetermined quantities of water to pass into the upper section (to maintain desired moisture in the nutrient medium (soil), while a lower/bottom section contains a reservoir of hydroponic water that may be relatively free of any nutrients (e.g. “non-nutrient” water). Extending from the upper root ball are a series of water-drinking straw-like roots that transpire water directly from the non-nutrient reservoir and that are continually exposed to massive amounts of atmospheric oxygen. A transport (capillary) device allows water to wick from the reservoir into the upper section to maintain a desired level of moisture in the upper roots, and carrying with it additional dissolved oxygen via evaporation and transpiration. The bottom section can be filled with an acceptable porous, water-storing medium such as gravel or rock wool. The permeable medium divider can include one or more capillary devices that allow transfer of water from the lower reservoir into the upper section. In certain embodiments, the divider can include a series of formations that allow it to sit in an elevated manner on a water-containing structure (such as a sponge-like medium).

Systems and methods for hydroponically growing microorganisms within a self-contained air-supported structure, in which microorganisms are grown in an organic slurry, harvested, and processed to obtain and process and distribute molecules useful for biofuel or other purposes.

Robots for autonomous harvesting of hydroponically grown organic matter with different harvesters are disclosed. The autonomous harvesting involves using one or more robots to (1) navigate a hydroponics arrangement or environment to arrive at locations of harvestable organic matter, (2) identify mature organic matter for harvesting from under-ripe or over-ripe organic matter using the robot's sensors, (3) identify the irregular positions and the irregular extraction points at which the mature organic matter is to be correctly harvested using the robot's sensors, (4) harvest the organic matter at the identified positions using the robot harvester, and (5) place the extracted organic matter into a storage bay for delivery to a packaging or shipment station. The harvester includes one or more of a vacuum, gripper, cutting saw, or clipping shears disposed about a distal end of an extendable or mechanical arm mounted atop a lift.

In order to provide an efficient hydroponic cultivation system, the present invention provides a hydroponic cultivation system comprising: a plurality of vessels extending in a predetermined direction; a plant holding plate that holds a plant and is disposed to span across the plurality of vessels; and at least one support mechanism provided between vessels adjacent to each other among the plurality of vessels, wherein each of the plurality of vessels is configured to contain a culture solution required for the growth of the plant, and the support mechanism supports the plant holding plate above the plurality of vessels.

A hydroponic growing unit is provided, the hydroponic growing unit comprising a substantially cylindrical frame adapted to receive a plurality of substantially vertically mounted racks therein, each rack being suitable for receiving a growing medium thereto; a light source disposed in the frame; and an irrigation system adapted to collect a fluid to a remote reservoir and draw the fluid on the growing medium.

This invention provides Adaptive Growth Technology, smart garden devices for gardening systems, including hydroponics systems, and methods for modifying plant growth regimes based on the liquid usage rate and/or the nutrient usage rate of the plant. Characteristics of the plant growth regimes that are modified include: liquid delivery rate and/or quality, nutrient delivery rate and/or quality, add nutrient rate and/or quality, display or display rate of add nutrient quality and/or quantity, and/or photoradiation delivery rate and/or quality. This invention provides methods for making the devices of this invention and provides methods for using the devices of this invention. In an embodiment, the hydroponics system includes the smart garden device or the smart garden device fits in a chamber of the hydroponics device. In an embodiment, the steps are performed automatically without human intervention.

An ecological hydroponics control system includes an ecological hydroponics house, wherein: the ecological hydroponics house is provided with ecological control system, smart host system, sensing system and planting system, the smart host system is connected to the ecological control system, the sensing system and the planting system, the ecological control system includes: water supplying and draining system, lighting system, air conditioning system, ventilating system, humidifying system and gas supplying system. The present invention has characteristics of high productivity and high stability, also has ability of controlling various ecological environments including main environments of plant growing, providing ecological environment suitable for the plant growing best, the cultivation period can be shortened to ½-⅔ of the conventional cultivation period, it also has water saving function, where the water volume required will be about 1/50 of that required in the normal open-type plant culture, which obtaining the maximized productivity and resource utilization.

The present device relates to a home electronic appliance-type vegetable-growing machine which can be cleanly installed in an interior living room or a kitchen in the form of an independent home electronic appliance using an LED light source and a hydroponic technique. The home electronic appliance-type vegetable-growing machine comprises: a frame; a plurality of culture trays and culture solution supplying-tanks slidably coupled to a guide rail of the frame; an LED light source; a culture solution pump; pipes for supplying the culture solution; a pipe connection port; and a casing for receiving the culture solution pump, the pipes, and the pipe connection port. The vegetable-growing machine may be disposed near the kitchen or the living room so as to provide decorative effects by means of the LED light source and provide fresh chemical-free foods on the spot.

A hydroponic plant display is provided that allows consumers to select and harvest fresh produce while shopping at their local market. The display system maintains the health and vitality of the produce until it is selected by the end consumer for harvesting. As such, the display system includes (i) a plant display, (ii) plant growth media that provides a suitable support system for each plant's root structure, and (iii) a moisture and nutrient transport system.