Wet microbial cellulose is homogenized into a pulp that preserves water retention while opening the structure for root penetration.
Agitated particle grading places finer material near the top to balance moisture, drainage, and root growth across the growing medium.
An open-cell biodegradable foam substrate balances root aeration, water retention, and dimensional stability while avoiding pollution and clogging.
A cured cocopeat substrate forms its own planting pot, avoiding soaking, reducing plastic waste, and helping block soil-borne diseases.
Water-based crosslinking of lignin-rich hemp fibers improves bonding, strength, porosity, and water retention without VOC emissions.
A bentonite-carrageenan hydrogel replaces contaminated substrates while improving water retention, germination, biomass, and reuse in automated growing.
Sugar-derived biochelants and ring openers improve micronutrient stability at higher pH while lowering sodium and preserving biodegradability.
Mixing carbon black into topsoil improves moisture retention, reduces erosion and dust drift, and warms soil without mulch or pellets.
Real-time vacuum and airflow feedback controls substrate compaction and aeration, cutting waste, energy use, and seedling variability.
Biodegradable permeable growth rods replace plastic pots and stone wool, enabling root-medium recycling while reducing waste and clogging.
Natural agarophyte hydrogel retains irrigation water without carcinogenic monomers, helping crops resist hydric stress with less watering.
An agarophyte red algae hydrogel stores irrigation water near roots, cutting watering frequency without carcinogenic polymer monomers.
Controlled lignin sulfonic acid composition boosts soil microorganisms and inorganic components, supporting higher crop yield and organic agriculture.