A plant growing system, having a plant container made of flexible material, the container having a plurality of air and water exchange pores disposed throughout the flexible material and a cavity defined by the contours of the flexible material, and a volume of living horticultural media disposed inside the cavity. The distribution of the exchange pores, the nutrient profile, and the water retention profile of the living horticultural media promote desired plant growth and characteristics.

The present invention provides a smart plant cultivation device and a smart plant cultivation system which, by using an Internet of things (IoT) technology, can automatically configure a cultivation environment according to a variety of plants, automatically perform zoning control of a light source module, and monitor and record a cultivation process of a plant through a user device.

The present invention provides a smart plant cultivation device and a smart plant cultivation system which, by using an Internet of things (IoT) technology, can automatically configure a cultivation environment according to a variety of plants, automatically perform zoning control of a light source module, and monitor and record a cultivation process of a plant through a user device.

The present disclosure refers to a keratin-based substrate, comprising a keratin derivative and natural biopolymer, where the keratin derivative and natural biopolymer are crosslinked. The present disclosure also refers to a method of forming a keratin-based substrate, comprising (i) mixing a solution of keratin derivative with a solution of natural biopolymer; and (ii) drying the resulting solution of step (i) to obtain the keratin-based substrate. The present disclosure further relates to the use of the substrate as a plant growth medium or hydroponic support medium. In a preferred embodiment, a substrate comprising keratin intermediate filament protein and cellulose nanofibers is provided.

A hydroponic plant production apparatus comprising: a hollow grow tube with a slot formed in the front face of the grow tube, and a matrix media insert composed of two halves, where the media is insertable into the grow tube, allowing plants to be inserted and grown between the two halves of the matrix media insert in the grow tube. Methods for use of a hollow grow tube with a slot formed in the front face of the grow tube, and a matrix media insert composed of two halves, where the media is insertable into the grow tube, allowing plants to be inserted and grown between the two halves of the matrix media insert in the grow tube.

A seed and/or plant system contains a strand-shaped seed and/or plant carrier suspended on a mounting. The seed and/or plant carrier contains several seed and/or plant locations with seeds and/or plants arranged spaced apart from each other in its longitudinal extension. The seeds and/or the plants are supplied with a liquid via a supply tube. In order for the seed and/or plant locations in the seed and/or plant system to be provided at a distance from one another definable by the manufacturer of the seed and/or plant system in a simple manner, a sleeve is provided on each of the seed and/or plant locations, from which a substrate with the seed and/or the plant is received or receivable and/or which at least partially forms a substrate for the seed and/or the plant, wherein the sleeve is formed from the or around the seed and/or plant carrier.

A synthetic soil substrate system has a plurality of synthetic soil substrate layers that are individually designed to promote plant growth as the roots grow into the layer and as a function of the growth stage. The synthetic soil substrate layers may be planar or may be concentrically arranged with a first synthetic soil substrate ring layer being configured inside of a second synthetic soil substrate ring layer. A synthetic soil substrate has pores that are configured for plant growth and retention and/or deliver of water and growth additives. The average pore size of a first synthetic soil substrate layer may be substantially different from the average pore size of an adjacent synthetic soil substrate layer. Also, the pore structure or shape of the pores may be different between synthetic soil substrate layers, The synthetic soil substrate may have an integral growth additive retained in the pores.

A synthetic soil substrate system has a plurality of synthetic soil substrate layers that are individually designed to promote plant growth as the roots grow into the layer and as a function of the growth stage. The synthetic soil substrate layers may be planar or may be concentrically arranged with a first synthetic soil substrate ring layer being configured inside of a second synthetic soil substrate ring layer. A synthetic soil substrate has pores that are configured for plant growth and retention and/or deliver of water and growth additives. The average pore size of a first synthetic soil substrate layer may be substantially different from the average pore size of an adjacent synthetic soil substrate layer. Also, the pore structure or shape of the pores may be different between synthetic soil substrate layers, The synthetic soil substrate may have an integral growth additive retained in the pores.

A modular hydroponic tower array fixture system for the growth of organisms such as plants and fungi on arrays of hydroponic towers, allowing for the insertion and removal of individual towers from the array, is provided. Methods for the production of organisms such as plants and fungi using a modular hydroponic tower array fixture system are also provided herein.

A greenwall cladding system for the growth of organisms such as plants and fungi on the side of structures, such as internal and external walls of buildings, is provided. Methods for the production of organisms on a greenwall cladding system, such as plants and fungi are also provided herein.