Most of the time, the disclosed plant husbandry and food preparation apparatus encloses a garden plant, such that the plant is protected on all sides from animals. It may comprise a planter in which the plant is grown, a cage that is attached to the lip of the planter, and a dome containing apertures, which is seated atop the cage. The seated dome may be opened, while the dome is still attached to the cage, allowing the gardener to harvest produce. The opened dome is configured for use as a receptacle into which the harvested produce is deposited. The dome is also configured to be effortlessly detachable from the remainder of the apparatus, so that produce within it may be conveniently transported and rinsed. The dome may also be configured to serve as a strainer/steamer basket and as support for an auxiliary irrigation and/or animal deterrence system.

A planting device includes an outer shell and an inner shell. The outer shell has a closed first cavity therein. The inner shell is disposed in the first cavity. The inner shell is formed with a second cavity having an opening. The second cavity is filled with soil. Plant seeds are placed in the soil. The opening of the second cavity is sealed with a first water-permeable layer. A side wall of the first cavity, opposite the opening of the second cavity, is a seepage layer. A retaining wall is provided around an outer side of the seepage layer to form a water storage trough. A method for manufacturing the planting device is provided. The planting device enables plants to grow out of the shell from a closed cavity, reducing the soil pollution to the environment and the impact on human health. It is convenient for planting, just watering.

A self-watering portable greenhouse is disclosed having a tubular frame constructed of light-weight, water-tight tubular members which serves as a combined structural skeleton for external walls, a platform for plant containers, and a reservoir for liquid nutrients provided to plants in plant containers by self-watering through a wick connecting the reservoir and the plant containers.

Containerized plant growing solution systems are disclosed. Methods of making and using containerized plant growing solution systems are also disclosed.

A stackable tower planter includes a planter bucket having an open top and a hollow interior defined by a side wall and a bottom wall. The planter bucket includes a plurality of irrigation conduits that are disposed along an inner surface of the side wall. Each irrigation conduit has an open top end and an open bottom end that is disposed above the bottom wall of the planter bucket for delivering water to a water reservoir space located along the bottom wall. The stackable tower planter further includes a soil tray disposed within the hollow interior along a bottom of the planter bucket, with the water reservoir space being located below the soil tray. A water tray is coupled to a top edge of the planter bucket. The water tray has a plurality of drain openings that are fluid communication with a plurality of hollow bosses that are located along an underside of the water tray. The hollow bosses are inserted into the open top ends of the plurality of irrigation conduits to fluidly connect a top water collection space of the water tray with the water reservoir space.

A stackable tower planter includes a planter bucket having an open top and a hollow interior defined by a side wall and a bottom wall. The planter bucket includes a plurality of irrigation conduits that are disposed along an inner surface of the side wall. Each irrigation conduit has an open top end and an open bottom end that is disposed above the bottom wall of the planter bucket for delivering water to a water reservoir space located along the bottom wall. The stackable tower planter further includes a soil tray disposed within the hollow interior along a bottom of the planter bucket, with the water reservoir space being located below the soil tray. A water tray is coupled to a top edge of the planter bucket. The water tray has a plurality of drain openings that are fluid communication with a plurality of hollow bosses that are located along an underside of the water tray. The hollow bosses are inserted into the open top ends of the plurality of irrigation conduits to fluidly connect a top water collection space of the water tray with the water reservoir space.

The invention provides a crop cultivation receptacle. The receptacle comprises a base and side walls that project from the base to define a receptacle space between them. In the receptacle space, a body of growth medium for the cultivation of crops can in use be contained such that a major portion thereof is spaced from the base. The receptacle also comprises at least one recess that is defined in the base. Into the recess, a minor portion of the body of growth medium can extend and in which the minor portion of the body of growth medium can be contained. The receptacle further comprises water feed control means that limits water feed to the receptacle space so as not to exceed a predetermined depth of water in the receptacle space above non-recessed portions of the base.

The potted plant system of the present invention uses the space between the inner and outer pots as a reservoir for water. The water reservoir acts passively to transport water into the spoil of the inner pot which is subsequently used by the potted house plant. The reservoir is filled by over watering the inner pot and allowing the excess water to pass through the apertures within the inner pot. Passive transport of water from the reservoir to the soil occurs as the water saturation of the soil decreases. As a result, the soil and the potted plant remain hydrated for longer period of time as the reservoir continuously replenishes the water. The water within the reservoir can be drained through a quick connect sliding valve located on the outer pot. The quick connect sliding valve is either placed above another water receptacle or is fitted with a hose that transports the water to a drain.

A self-watering system includes a watering member, a pot support member, and a water container member. The watering member includes a support tube member and a water transfer member. The supporting member includes a head portion, a body portion, and a bottom portion. The head portion has a conical shape. The body portion has a hollow cylindrical shape, and includes a body groove formed in a longitudinal direction and at least one air hole formed in the body groove. The water transfer member serves to absorb water and transfer the water to soil and a root of a plant in a pot. The pot support member serves to support the pot, and includes a fixing hole. The water container member stores water to be absorbed by the water transfer member. The watering member is fixed to the pot support member such that the bottom portion is inserted into the fixing hole of the pot support member.

A self-watering system includes a watering member, a pot support member, and a water container member. The watering member includes a support tube member and a water transfer member. The supporting member includes a head portion, a body portion, and a bottom portion. The head portion has a conical shape. The body portion has a hollow cylindrical shape, and includes a body groove formed in a longitudinal direction and at least one air hole formed in the body groove. The water transfer member serves to absorb water and transfer the water to soil and a root of a plant in a pot. The pot support member serves to support the pot, and includes a fixing hole. The water container member stores water to be absorbed by the water transfer member. The watering member is fixed to the pot support member such that the bottom portion is inserted into the fixing hole of the pot support member.