Biocide TRIZ Cases

Dissolved zinc and silver salts protect resin optics while preserving antimicrobial activity.

This case uses ascarosides to prime salicylic acid, jasmonic acid, and ethylene defenses against nematodes and pathogens.

Food-grade grease components gel in seawater to block marine fouling without toxic biocides.

This case uses 1:0.6–1:1.6 fatty acid–arginine complexes to inhibit MRSA and other pathogens with minimal cytotoxicity.

This case uses a containment chamber, mist generator, and filtered outlet to disinfect instruments while limiting residual-agent exposure.

This case shows how hub-linker frameworks provide inherent antibacterial activity for PPE against gram-positive and gram-negative bacteria.

Specific Methylobacterium strains applied in solid or emulsion form enhance corn yield and early vigor during key growth stages.

TIC4064 and related protein variants broaden Lepidopteran pest control while supporting resistance management in transgenic crops.

A controlled 1.80–3.00 g/s aerosol with 100–200 μm droplets supports even pest coverage and more accurate application.

This case combines lentinan, ethephon, polyaspartic acid salt, and surfactant to improve lodging resistance and yield.

A preservative- and antioxidant-free formulation uses sodium citrate buffering for stable intraocular delivery during surgery.

Polyglycerol esters with emulsifiers improve microorganism survival, leaf adhesion, and spray-drift control during plant treatment.

Glutamate-malate and glutamate-aspartate chelates support soluble, biodegradable nutrient delivery with lower logistics burden.

This case uses peptide- and sugar-based biosurfactants to suppress stress-related ROS generation and maintain plant photosynthetic capacity.

This case uses substituted phenylpyrazole compounds, N-oxides, or salts to address inadequate plant disease control efficacy.

This case uses glyphosate before or after infection to suppress soybean disease and reduce yield loss, with optional fungicide use.

A quinoline-based additive delivers antibacterial and antifungal protection across polymers without nanometal particles or color loss.

Plants convert pathogen-derived ascarosides into defensive metabolites to inhibit disease.

This case combines a hermetic oxygen barrier with insecticidal film to suffocate insects and stop penetration without direct crop contact.

This case combines pyridine carboxylate herbicides with azole carboxylate safeners to control weeds while limiting crop phytotoxicity.

This case uses modified non-pathogenic bacteria to express Hyde1 through T6SS and limit pathogenic bacterial growth.

Specific VHH antibodies bind fungal species, retard spores, and maintain effective control at elevated salt concentrations.

A separate antimicrobial surface layer keeps additives concentrated at the ceramic interface while preserving glaze color and texture.

A portable compressed CO2 unit and Venturi-agitating tip mix medical solution for controlled, safer suspension delivery.

This case combines GRAS organic acids with 3-phenylpropanol to control microbes at lower processing temperatures in thermoplastics.

This case replaces supercritical CO2 extraction with freeze-drying to scale high-loading aerogel particles for antifouling coatings.

This case uses coated absorbent granules to control sanitation-agent delivery, disrupt viral envelopes, and decontaminate surfaces.

Limited attractant duration and weak agent uptake are addressed with a seven-compound formulation that sustains mosquito attraction.

MFC stabilizes pesticide suspensions in ionic media and limits agglomeration.

Multiple Chryseobacterium metabolites inhibit Aedes and other Dipteran insects while reducing reliance on single-mode insecticides.

This soil composition uses Bacillus subtilis UD1022 and EPS to reduce hydraulic conductivity and evaporation during drought.

Nanoscale metal projections disrupt microbial membranes through charge transfer, reducing disinfection time from minutes to seconds.

A carboxamide derivative supports prolonged animal ectoparasite control through oral, parenteral, or dermal systemic application.

This case combines fungicides with different modes of action to reduce disease, delay resistance, and support crop yield.

pH 2-3 and redox control help peroxygen kill mycobacteria and yeasts quickly while aromatic alcohols and polyols support skin compatibility.

This case combines chelating agents with Blad antimicrobial peptides to broaden pathogen control while reducing peptide concentration.

A polyurea shell encapsulates cinmethylin to limit volatility, reduce concentration loss, and sustain herbicidal activity.

This case combines HLB-tuned PEG surfactants with antiseptics to reach deeper skin layers and sustain antimicrobial protection.

This case balances high alcohol content with dissolved cellulose ether for stable viscosity, transparency, and a moist application feel.

This case uses phosphoenolpyruvate or its salts before storage to preserve seed vigor, improve germination, and promote root growth.

Explore imidazole compounds and composite formulations that improve weed control across tolerant and genetically modified crops.

Specific substituents broaden methoxyacrylate fungicide activity against Qo inhibitor-resistant phytopathogenic fungi.

Combined osmoprotectants, anti-desiccants, and anti-respirants support crop stress tolerance.

This case uses oxygen, redox, and nitrate signals to target chlorate dosing, disrupt biofilms, and broaden antibiotic susceptibility.

Al, Zr, or Si incorporated into the crystalline phase improves ion elution and antibacterial and antiviral performance.

High-molecular-weight polymers reduce fine droplets while limiting bulk viscosity.

Fatty acids from vegetable oils form a thin lipid layer that helps surfaces resist viral and bacterial contamination between applications.

Flagellin and related priming polypeptides activate innate plant defenses, improving disease resistance and reducing abiotic stress.

This case combines selected Methylobacterium isolates with adjuvants and excipients to improve colonization and corn yield.

Two linked α/β peptide domains attack bacterial membranes and cell walls, improving plant disease control with low toxicity.