Systems, methods, and kits for plant propagation are disclosed. In some embodiments, the systems, methods, and kits for plant propagation involve a plug, a wrap, and a container. The container is configured to house the plug with a plant growing therein, where the plug is encircled by the wrap within the container, and where the plug and the wrap may include the same material.

Systems, methods, and kits for plant propagation are disclosed. In some embodiments, the systems, methods, and kits for plant propagation involve a plug, a wrap, and a container. The container is configured to house the plug with a plant growing therein, where the plug is encircled by the wrap within the container, and where the plug and the wrap may include the same material.

A self-contained soil module, the soil module including a biodegradable outer frame forming the shape of the soil module, a biodegradable wrapping disposed within the biodegradable outer frame, a soil composition contained within the biodegradable wrapping and at least one plant seed of at least one type of plant disposed within the soil module.

A self-contained soil module, the soil module including a biodegradable outer frame forming the shape of the soil module, a biodegradable wrapping disposed within the biodegradable outer frame, a soil composition contained within the biodegradable wrapping and at least one plant seed of at least one type of plant disposed within the soil module.

A method for making a growing medium includes a step of combining tree bark and/or wood components together to form an initial composition; heating the initial composition to a temperature greater than about 149 C. under steam in a pressurized vessel; processing the initial composition through a refiner with a plurality of opposing disks to obtain the fibrous growing medium, the refiner separating fibers from each other; wherein the growing medium has total porosity of 88 volume % or more.

A method for making a growing medium includes a step of combining tree bark and/or wood components together to form an initial composition; heating the initial composition to a temperature greater than about 149 C. under steam in a pressurized vessel; processing the initial composition through a refiner with a plurality of opposing disks to obtain the fibrous growing medium, the refiner separating fibers from each other; wherein the growing medium has total porosity of 88 volume % or more.

The self watering bottle planter insert allows a regular bottle to be transformed into a hydroponic planter. The self watering bottle planter insert is insertable into a bottle and removes the need for a separate source of nutrients. The planter uses composite media with an enriched substrate layered beneath a more standard hydroponic growth media to add nutrients to the water for the life cycle of the plant.

The self watering bottle planter insert allows a regular bottle to be transformed into a hydroponic planter. The self watering bottle planter insert is insertable into a bottle and removes the need for a separate source of nutrients. The planter uses composite media with an enriched substrate layered beneath a more standard hydroponic growth media to add nutrients to the water for the life cycle of the plant.

In some implementations, an indoor grow system for plants includes at least a plant substrate system; a luminaire positioned adjacent to the plant substrate system, the luminaire includes a plurality of grow light panels, a lighting frame, and at least one luminaire connector, the lighting frame includes a plurality of frame members, the at least one luminaire connector is coupled between one frame member and another frame member adjacent to the one frame member, the luminaire connector adjusts the spatial position of the plurality of frame members that define the lighting frame and shape of the luminaire; and a plant canopy zone, defined between the plant substrate system and the luminaire rendered in a curvilinear configuration, and whereby the plant canopy zone defines a curvilinear space for illuminating the plants.

A horticultural growth medium includes a filler and a binder. The binder is a moisture-cured, isocyanate-terminated quasi-prepolymer made from an organic polyisocyanate that includes a large proportion of 4,4-diphenylmethane diisocyanate. This binder system provides excellent curing properties and imparts excellent physical properties to the growth medium.