Plant Genotype Modification TRIZ Cases

Cytoplasmic male sterility and restorer genes control corn pollination to produce uniform hybrid seeds with stable yield and disease resistance.

Electromagnetic fields replace toxic spindle poisons to double plant chromosomes while improving haploid cell survival and fertility.

Cytoplasmic male sterility streamlines hybrid corn breeding, reducing pollination complexity while preserving uniformity, yield, and disease resistance.

Homozygous inbred development and tissue culture help CV989981 deliver uniform corn hybrids with stable yield, resistance, and agronomic traits.

Controlled inbred-line crossing and male sterility help hybrid corn maintain stable traits, genetic purity, yield, and stress resistance.

Cytoplasmic male sterility enables controlled cross-pollination in hybrid corn, improving uniformity, genetic stability, yield, and disease resistance.

Male-sterile and maintainer corn lines balance genetic uniformity with hybrid seed production while supporting yield and disease resistance.

Stabilized CV993411 inbred breeding improves hybrid uniformity while preserving yield, stress resistance, and predictable trait expression.

An elite alfalfa variety reduces breeding uncertainty by combining stable yield, persistence, and resistance to diseases and pests.

Controlled tassel removal and stabilized inbred crossing help hybrid corn CH010522 deliver uniform seeds, genetic stability, and trait consistency.

Stabilized inbred lines and controlled crossing help hybrid corn maintain uniform germination, genetic purity, yield, and resistance traits.

Segmented breeding with homozygous corn variety CV629408 improves hybrid seed uniformity, yield stability, and stress tolerance.

Combining cytoplasmic male sterility with parthenocarpic fruit set enables seedless eggplants without manual emasculation or hormone treatment.

Short dummy RNA blocks scaffold RNA and siRNA-AGO4 binding to suppress plant target DNA methylation without recombinant technology.

Selective breeding combines ToBRFV and multi-disease resistance with uniform, stable tomato yield for commercial cultivation.

Selective breeding combines broad disease resistance, uniform fruiting, and stable yield in hybrid tomatoes suited to fresh, processing, and mechanical harvest.

Targeted breeding and genome editing help hybrid sweet corn combine yield, disease resistance, and stable traits without long breeding cycles.

Interspecific breeding and backcrossing cut squash seed cavity volume to 15% or less, increasing edible yield and reducing waste.

Controlled breeding of a seedless watermelon line improves hybrid uniformity, fruit quality, Fusarium resistance, and climate adaptability.

Ethanol and acetic acid seed treatment boosts drought and heat tolerance through inheritable epigenetic changes while reducing treatment complexity.

A maize inbred line combines backcrossing and transformation to stabilize disease, insect, and drought traits while supporting higher yield.

Preselected breeding traits in soybean 5PHQB05 combine disease resistance and drought-heat tolerance to support stable yields with less breeding time.

Stabilized parental lines and targeted trait breeding help this hybrid tomato improve yield, fruit quality, and disease resistance.

Structured inbred-line crossing enables the CURIOSO hybrid tomato to deliver stable yield, consistent fruit quality, and stronger agronomic traits.

Marker-assisted breeding in soybean 5PSVP34 combines disease resistance and drought and heat tolerance to improve yield stability.

Controlled breeding, backcrossing, and transformation combine disease resistance and yield traits while preserving uniform maize hybrid stability.

Molecular marker-assisted breeding in canola line 4PRSD48R speeds low erucic acid, low glucosinolate, and male sterility trait introgression.

Molecular marker selection helps this canola inbred balance low erucic acid and glucosinolate content while enabling stable male sterility.

Marker-assisted breeding creates spotted diploid, tetraploid, and triploid watermelons with firm flesh, uniformity, and flexible spotting ratios.

Marker-assisted selection stacks purple-head and orange genes across selfed generations to breed stable Chinese cabbage rich in carotenoids and anthocyanins.

Combining resistance to multiple tomato diseases and viruses in one hybrid helps maintain yield and fruit quality across growing conditions.

A stabilized inbred corn line supports hybrid seed breeding that balances yield with pest, disease, and stress resistance.

Uniform inbred parent lines and marker-guided selection help combine resistance traits in tomato hybrid DRTH1025 without unstable populations.

Controlled crossing of homozygous tomato lines creates uniform hybrids with stable herbicide tolerance, insect resistance, and predictable performance.

Combining disease resistance, stress tolerance, and yield traits, X13V114 uses staged breeding to preserve uniform, stable maize performance.

Marker-assisted backcross breeding combines glyphosate, glufosinate, and dicamba tolerance with yield and disease resistance in soybean 01094826.

Novel markers uncouple BRIX and necrosis loci in tomato, enabling marker-assisted breeding for sweeter fruit without leaf damage.

Marker-guided backcrossing helps hybrid maize combine disease resistance, yield, and stable plant uniformity across generations.

Marker-guided QTL breeding combines stable chickpea traits to raise protein content and lower fat for plant-based food ingredients.

Genetic markers track rare N3 clubroot resistance loci in Brassica, enabling durable breeding against evolving pathogen races.

CRISPR/Cas-based trait introduction addresses slow, imprecise pepper breeding while supporting stable hybrids with improved fruit quality and disease resistance.

A defined CrS resistance locus helps breed low-erucic Brassica plants that withstand multiple clubroot pathotypes and reduce yield loss.

Repeated selfing and controlled crossing combine disease resistance, heat and drought tolerance, and higher yield while preserving plant uniformity.

Multiple-generation self-pollination and selection create homogeneous CV945851 inbred seeds for predictable hybrid traits and consistent field performance.

Multiple-generation selfing and selection create uniform tomato parents, helping CHI-HE19-3020 hybrids express resistance and yield traits consistently.

Incorporating the sh2-i allele improves sweet corn germination and seedling vigor while retaining sweetness, with starch conversion as the trade-off.

Pre-selected inbred lines combine disease resistance, heat and drought tolerance, and uniform maturity for efficient mechanical harvesting.

Chromosome 4-linked markers help select spotted allele dosage while breeding firm-flesh diploid, tetraploid, and triploid watermelons.

A donor-recipient cross and selection process uses TPR allele variation to raise grain yield while preserving rice quality.

Male sterility and stabilized inbred lines help CV947606 produce uniform corn hybrids with consistent traits and predictable performance.

This case combines disease resistance, drought tolerance, and yield traits in 5PHLT90 to support stable soybean production across environments.

Segmented breeding of hybrid corn CH144219 resolves genetic unpredictability by combining preliminary inbreeding with specific trait loci.

Cytoplasmic male sterility in hybrid maize variety X05R367 resolves the contradiction between multi-trait diversity and uniform plant composition.

Segmenting breeding phases and extracting male sterility resolves yield complexity while ensuring regional adaptability.

Soybean variety 5PGDV09 applies preliminary action and segmentation to reduce six-to-twelve year development timelines while maintaining agronomic traits.

Genetic transformation of soybean variety 01058469 resolves breeding unpredictability by ensuring precise trait replication and reduced development time.

Maize inbred 1PTHU81 enables hybrid seed production through backcross conversion and transformation processes.

Soybean variety 01063900 integrates transgenes for herbicide resistance, bypassing time-consuming conventional breeding to ensure genetic stability.

Agrobacterium-mediated transformation replaces mechanical breeding to combine traits in cultivar 65090203, reducing development time.

Segmenting breeding phases and applying preliminary action ensures genetic stability while introgressing multiple agronomic traits into the hybrid.

Soybean variety XR37AE15X applies marker-assisted selection to reduce breeding time while maintaining genetic diversity and yield.

X13H967 maize hybrid combines inbred lines to deliver enhanced disease resistance and yield.

Segmenting breeding into inbred line development and controlled crossing resolves the contradiction between genetic uniformity and diversity.

PH1K8A inbred line reduces breeding time by enabling efficient backcross conversion of specific agronomic traits.

XB35AL14R2 soybean uses molecular markers to replace phenotypic selection, resolving the contradiction between breeding speed and trait predictability.

Maize inbred PH2RRS applies male sterility systems to reduce breeding development time while maintaining variety stability.

Preliminary action and segmentation reduce breeding time while combining stability with agronomic versatility.

Soybean variety 01064868 integrates multiple agronomic traits using segmentation and preliminary action to reduce breeding complexity.

Pepper hybrid DR0713PB resolves genetic non-uniformity by segmenting breeding into homozygous inbred lines, ensuring predictable performance across generations.

Backcross conversion creates sorghum inbred PH2735MW to combine multiple traits while maintaining genetic stability for commercial cultivation.

Soybean cultivar 13110466 uses transgenic technology to introduce desirable agronomic traits into plant germplasm.

Locus conversion introduces disease resistance into wheat variety 6PUMH97B without disrupting the uniformity and stability across generations.

Segmenting inbred development from crossing stabilizes genetic uniformity while maintaining disease resistance traits.

Segmented breeding maintains uniformity while introducing disease resistance and yield traits.

Hybrid corn variety CH010997 uses cytoplasmic male sterility and genetic transformation to produce stable seeds with enhanced yield.

Tissue culture and somatic cell fusion accelerate breeding cycles by enabling direct manipulation of plant cells for stable trait combinations.

Molecular markers replace phenotypic screening to reduce breeding time and costs for the SPRITZER lettuce cultivar.

XB35W13 soybean variety applies molecular markers and genetic transformation to overcome unpredictable conventional breeding timelines.

Segmenting breeding phases manages complexity while maintaining genetic diversity for stable high-yielding cotton varieties.

CH756875 hybrid corn resolves uniformity contradictions by segmenting breeding phases and applying homogeneity to parental lines.

Cultivar 43341876 reduces development time by applying Agrobacterium-mediated transformation and preliminary parent selection.

XB006F15R soybean variety uses molecular markers to select disease resistance and yield traits, reducing development time from six to twelve years.

PHVPM maize inbred achieves higher yield and stress tolerance while maintaining plant uniformity via controlled backcross conversion.

Soybean variety 01050761 applies genetic transformation and backcrossing to resolve breeding unpredictability, delivering stable disease resistance and yield.