Comparative Genomics
De novo Fungal Genome Assembly
Illumina pre-made libraries
The transition from fragmented draft genomes to complete, gap-free T2T chromosome assemblies represents a paradigm shift in genomics. By leveraging long-read sequencing technologies such as PacBio HiFi and Oxford Nanopore, we can now resolve repetitive regions—including centromeres and ribosomal DNA arrays—that were previously invisible. For amplicon sequencing, this provides a high-resolution scaffold to map complex microbial communities and structural variations with unprecedented accuracy.
🚀In the industrial landscape, T2T assembly is no longer a research luxury but a necessity for clinical diagnostics, agricultural breeding, and environmental monitoring. The ability to assemble genomes without gaps allows for the precise identification of structural variants related to disease resistance in crops or virulence factors in pathogens. As sequencing costs continue to plummet, the integration of T2T pipelines into routine amplicon sequencing workflows is becoming the new "Gold Standard" for industrial quality control.
Amplicon sequencing (16S/18S/ITS) is vital for understanding microbial diversity. However, standard workflows often suffer from resolution limits. By applying T2T-level assembly techniques to reference databases, BMKGene enhances the accuracy of taxonomic assignment. Our advanced bioinformatics platform, BMKCloud, utilizes over 4,260 computing cores to ensure that even the most complex metagenomic datasets are processed with high fidelity, reducing false positives in microbial identification.
💡The future of amplicon sequencing lies in the synergy between high-throughput library construction (such as our BL1000 automated line) and gap-free assembly. We anticipate that T2T-based reference mapping will replace traditional OTU/ASV clustering methods, providing a more stable and comparable dataset across global longitudinal studies.