Plant Peptides TRIZ Cases

Isolating the RTSW gene from Nicotiana alata provides broad-spectrum orthotospovirus resistance in tobacco without linkage drag.

Exogenous transcription agents stimulate endogenous ODP2 and WUS2 expression in plant cells to enable tissue regeneration without genomic insertion.

Specific amino acid substitutions in the DNA Primase Large Subunit gene alter host-virus interactions, reducing Begomovirus replication and disease symptoms.

Engineered Transgene Integration Platform uses site-specific nucleases to resolve unpredictable random integration, ensuring stable heritable modifications.

Targeted deletions in the TFL1b promoter overcome limited Dt1 locus diversity to improve lodging resistance and yield.

Specific polynucleotides increase grain yield under drought conditions by resolving the contradiction between reliability and productivity.

Engineered WRI1 polypeptide increases triacylglycerol production by over 60% to address global vegetable oil supply demand.

Reduced enzymatic activity in the stay green gene slows chlorophyll degradation, extending cucumber shelf life without refrigeration.

A mutated stay green gene inhibits chlorophyll breakdown to extend shelf life and prevent yellowing during storage.

Cisgenic MYB12 homologs elevate flavonol concentrations to enhance disease resistance while simplifying transgenic plant production complexity.

Constitutive CBP60g promoter sustains salicylic acid signaling under elevated temperatures that normally suppress immune responses.

Targeted CRISPR-Cas9 editing of MS1 or MS5 genes eliminates manual emasculation and reduces screening time in hybrid seed production.

Co-delivered booster polypeptides promote cell regeneration and proliferation during transient genome editing in plant cells.

Engineering plant zinc tolerance by introducing bZIP19 and bZIP23 genes to overcome biomass limitations in phytoremediation applications.

Introducing Arabidopsis nonhost resistance genes into soybeans confers broad-spectrum protection against Fusarium and Phytophthora pathogens.

Introducing the FIS2 gene from Arabidopsis into rice genomes enables functional endosperm formation without fertilization, resolving productivity constraints.

CRISPR editing targets the GmDR1 gene in soybeans to boost pest resistance while maintaining genetic stability.

Overexpressing AtSRP genes in plants to improve survival under drought, salt, and cold conditions.

Agrobacteria deliver PLT5 or WIND1 transcription factors to promote de-novo shoot regeneration in adult plants.

UGT73E1 homologous protein enables efficient production of steviol glycosides like rebaudioside A through targeted enzymatic synthesis.

CslF6 mutations lower beta-glucan content while maintaining grain hardness, reducing malting time and energy consumption.

RNA interference targets AP1 and FUL genes to stop bolting, keeping energy in storage roots instead of flowers.

Genetic transformation using merged Ht1, Ht2, Ht3, and Htn1 genes provides broad-spectrum protection against Exserohilum turcicum races.

Modified ARF8A transcription factor promotes parthenocarpic development while maintaining placental growth and temperature stress tolerance.

A LexA-DREB fusion protein activates transcription via a dedicated promoter system in plant cells.

Stable exogenous DGCR14 gene integration resolves the contradiction between improved drought and salt tolerance and sustained plant growth under stress.

Overexpressing the OsAO gene reduces viral RNA accumulation in rice, addressing limited control strategies for stripe and black-streaked dwarf viruses.

Overexpressing HCP6 in transgenic plants provides durable resistance against rapidly evolving soybean rust pathogens.

Isolating a single dominant resistance gene eliminates linkage drag and yield penalties associated with complex quantitative traits.

Shifting CO2 fixation to nocturnal hours via gene overexpression reduces daytime stomatal opening, lowering water loss while maintaining biomass production.

Introducing exogenous Fhb1 nucleic acids expresses antifungal proteins that reduce Fusarium head blight severity and toxin production in wheat crops.

Targeting the WPBF gene simplifies mutation identification within complex genomes to produce reduced gluten grains.

Constitutive MybTF expression reduces infected leaf area by 72.3% and eliminates reliance on fungicides for soybean rust control.

COI1 mediates targeted protein degradation using small membrane-permeable ligands, resolving the trade-off between inducible control and large tag sizes.

Arabidopsis thaliana Ubiquitin C9 promoter and 3' UTR drive constitutive transgene expression in plants.

Tandem SCBV enhancer arrays overcome low basal promoter activity to deliver robust transgene expression in plants.

Distinct Setaria italica promoters with low sequence identity prevent homology-based silencing and plasmid instability during multi-gene stacking.

Introducing the recombinant ADR-1 gene into soybeans provides durable protection against evolving soybean rust races without relying on fungicides.

Introducing a chimeric DNA construct encoding dsRNA silences eIF(iso)4E-2 or eIF4G, overcoming limited viral resistance efficacy across multiple virus families.

Lowering GmLMM1 levels boosts PTI immunity to counter rapid pathogen evolution and broad-spectrum diseases like Phytophthora.

Intron-mediated enhancement elements functionally linked to promoters increase RNA accumulation up to fifty-fold while maintaining strict seed-specificity.

Transgenic plants express transcription factors regulating carbon-nitrogen balance to maintain yield under low nitrogen, cold, and water deficit conditions.

Merging mutated ig and CENH3 genes resolves low paternal induction rates, boosting efficiency for maize and rapeseed breeding.

Tissue-specific promoters exclude insecticidal proteins from maize pollen and tassel, preventing reproductive harm while maintaining pest control efficacy.

Pretreated Cannabis explants overcome regeneration recalcitrance to improve transformation efficiency.

A heterologous nucleic acid construct utilizes embryo-specific promoters to drive transcription factor expression in plant cells.

Molecular marker analysis accelerates soybean variety 01051076 development by predicting genetic outcomes before phenotypic expression.

The alpha-CMV allele encodes a CC-NBS-LRR protein that provides complete resistance to Cucumber Mosaic Virus in spinach plants.

Overexpressing TaWox5 nucleic acid constructs in wheat plants to enhance callus formation and redifferentiation rates during genetic transformation.

Overexpressing the K-domain accelerates flowering and reduces plant size, increasing yield without lengthy traditional breeding.