Saccharum officinarum L. (Sugarcane) Transformation

Because cultivated sugarcane is highly polyploid, most genes exist as multiple homologous or homeologous copies scattered across 100+ chromosomes. If only one or two copies are disrupted, the remaining copies usually continue to produce functional protein, and the plant shows little or no loss-of-function phenotype. A functionally meaningful knockout therefore typically requires editing several copies simultaneously and then verifying, at the molecular level, which copies carry which mutations. This is why our knockout service is built around multi-allelic guide design and allele-resolved genotyping rather than a simple "mutation detected: yes/no" readout.

We work with S. officinarum accessions, established commercial hybrids, and—with a feasibility assessment—elite breeding lines. Responsiveness varies substantially among genotypes, so we recommend an initial pilot phase using your material to evaluate callus induction, selection response, and regeneration before committing to full-scale transformation. This approach protects your budget and gives both sides a realistic schedule grounded in your cultivar's actual behavior.

We amplify the target region and apply deep amplicon sequencing to resolve the mutation status of individual copies and alleles, reporting mutation types, frequencies, and allele combinations per plant. Where needed, this is complemented by copy-number analysis and expression-level measurement. This gives you an honest picture of whether you have a complete knockout, a partial edit, or a mosaic plant—rather than an over-optimistic PCR-positive call.

Yes. Because sugarcane cannot be advanced through seed, cassette removal by segregation is not practical; we therefore favor DNA-free routes such as Cas9 RNP delivery, or rigorous molecular screening to identify rare clones in which the editing cassette is absent or excised. Every claimed transgene-free line is verified by sensitive detection methods before delivery.

Sugarcane regenerates through somatic embryogenesis from callus, and each step—callus induction, selection, embryo maturation, germination, rooting, and hardening—proceeds on the plant's own slow timeline. Depending on genotype and editing mode, a realistic end-to-end schedule is roughly 6–10 months to characterized T0 clones, plus propagation time if you need trial-ready material. Feasibility assessments let us quote a genotype-specific schedule rather than an optimistic generic one.

Healthy stem cuttings (setts) with viable buds from mature, disease-free stalks are ideal; established in vitro plantlets are also accepted. Material should be free of systemic infection and shipped to preserve bud viability. Please include full cultivar identity, species background, ploidy information if known, and any available genomic resources—these directly inform target design and protocol selection.

Yes. We offer clonal multiplication of verified events through in vitro propagation and glasshouse increase, delivering uniform, documented clones ready for your evaluation pipeline. Because each clone's vegetative history is tracked, the material you receive is fully traceable back to the characterized T0 event.