Greenhouse Cultivation TRIZ Cases

Coned seed cartridges with layered substrate and side openings help compact indoor growers deliver plant-specific water and controlled conditions.

Matches LED spectra with natural light to meet plant-specific growth needs, improving photosynthesis while limiting energy use.

Slidable inclined sheets and movable nets let orchards switch quickly between hail, rain, and frost protection while directing runoff and limiting irrigation demand.

Controlled NOx at 15-65 ppb in greenhouse air boosts plant biomass while reducing reliance on fertilizers and other crop chemicals.

Coned seed cartridges with side openings let indoor growers water and monitor each plant individually while saving space and reducing upkeep.

Chains, gears, and support bars rotate hanging plants through a vertical tower to save land and automate watering, lighting, and growth control.

Central scanning and overhead conveyor sorting group indeterminate plants by harvest stage, simplifying automation and greenhouse logistics.

Integrated suction and circulation fans with a fill light stabilize airflow and lighting in an indoor planting box for easier plant care.

Automatic PV panel orientation uses camera-based fruit color detection to reduce shade, improve coloring, and maintain power generation.

Chlorophyll fluorescence and solar forecasts guide supplemental lighting and shading to hit plant growth targets with less energy and light damage.

Humidified air from a root-side chamber irrigates both roots and aerial parts in vertical aeroponics, improving growth while lowering root rot risk.

Double-paned walls and roof cavities circulate conditioned air to balance light, insulation, humidity, and mold prevention in extreme climates.

Interlockable pot and platform modules add watering, nutrients, lighting, and sensing without making plant care hardware overly complex.

RF transmitters and receivers monitor plant volume and water condensation non-invasively, reducing manual checks in indoor horticulture.

Day and night rack slots let a rail robot shift plant containers by growth phase, cutting lighting energy and improving space use.

Automated sterile handling, imaging, lighting, and liquid control speed plant growth experiments while improving reproducibility.

Detachable spacers let the grow light height track plant growth while a storage cover protects electrical parts from water ingress.

Tailored primary and secondary wavelengths boost plant growth while keeping combined light below saturation and reducing energy use.

Real-time crop and location data drive irradiance and temperature adjustments to raise photosynthetic yield while limiting photoinhibition.

A movable plant light doubles as a vent cover to balance insulation, airflow, and temperature control for healthier indoor cultivation.

An adjustable input-output offset sets receptacle retention time in rotating grow systems, preserving germination quality and throughput.

A self-supporting heat exchanger directly supports horticultural substrate, reducing thermal mass and losses for tighter temperature control.

Opaque photovoltaic modules can reduce interior light; segmented transparent coatings coordinate solar generation with light transmission and local energy control.

Multiple apertures in the pot base and divided tray receptacles improve substrate contact, uniform water uptake, and ebb-and-flood watering.

Indoor grow systems combine circumferential lighting with directed fans to reduce stagnant air, mold risk, and weak plant growth.

Long-term kiwifruit lighting can cause overheating and dust-clogged heat dissipation; a fan and rotating brush preserve operation.

Evaporative cooling pads, end-wall air units, and a centered exhaust fan regulate temperature, humidity, and VPD while reducing HVAC capacity limits.

Integrated sensors and modular controls address imprecise conditions while supporting scalable cultivation and automated sterilization.

Interchangeable plant supports and replaceable HVAC components let one container farm adapt to different crops and urban sites.

This case routes data center waste heat through conditioned air to heat high-density farming, lowering HVAC costs and emissions.

A sealed tray, plant lamp, heating component, and monitoring controls help stabilize temperature, light, and humidity for plant growth.

Automated growth and collection modules enrich crops with CO2 while recovering gas to support safe, continuous production.

This case combines a portable plant holder, lighting fixture, and power supply to simplify installation and relocation.

Hindered amine light stabilizers and benzoate compounds in agricultural films suppress sulfur uptake, maintaining weather resistance during fumigation.

An air dome smart farm uses geothermal heat exchange to maintain stable internal temperatures without external equipment.

A translucent light screen shields users from direct cabinet illumination while maintaining plant growth lighting.

A carbon dioxide supply device manages gas flow through an accumulation unit and control logic to store exhaust gas for later greenhouse distribution.

Segmented platform design with automated transfer eliminates manual packaging handling, reducing harvester physical effort and time loss.

Cluster root-zones and offset canopies to improve water-use effectiveness, resolving the trade-off between ease of mechanization and yield per unit water.

Shape memory polymer support elements transform from flat to domed configurations upon heating, enabling automatic structural erection.

An inverse lighting system places light sources under plant canopies to direct energy away from the growing structure.

Leaf manipulation creates canopy gaps, increasing UV-C light penetration to 49.4% of the plant base.

Segmented biovoxels with independent sensors overcome homogeneous chamber limitations, enabling precise spatiotemporal control of plant growth parameters.

Continuous flow design eliminates batch workflow bottlenecks by moving plants through vertically stacked planes, maximizing density while reducing labor.

Controller synchronizes plant growth rate with market demand and energy availability to reduce waste and lower electricity costs.

Recirculating air through an evaporator plenum extracts moisture for reuse, resolving inefficiencies in passive time-based hydration systems.

Individual growth chambers isolate plants to prevent dense foliage barriers, enabling independent environmental control and reducing contaminant exposure.

An extendable shade housed in a planter container deploys via a runner to protect plants without removing the basket.

A horticultural illumination system adjusts photoperiods during flowering to enhance plant development and yield.

Nesting the ventilation shield inside the housing protects it from debris and mechanical damage during stacking while maintaining reliable frost protection.

Doped silicon carbide electrodes resist chemical reaction with sulfur, extending lamp lifetime while maintaining high illumination intensity.