
SeqMatic provides next-generation sequencing (NGS) for non-model organisms, including de novo genome assembly for species without an existing reference genome. Our team has sequenced organisms ranging from soybeans, cotton, and wheat to non-human primates (NHP), salmon, cattle, and banana slugs for academic, agricultural, and biopharma researchers.
Non-model organism sequencing enables researchers to characterize genomes, study genetic diversity and evolution, and investigate species that lack established genomic resources. Unlike well-studied model organisms such as mice and zebrafish, many non-model species have limited reference genomes, annotation resources, and established research tools. SeqMatic combines NGS, de novo genome assembly, and bioinformatics to help researchers generate genomic resources from species where sequencing and analysis may need to start from scratch.
When no reference genome exists, SeqMatic builds one from scratch through de novo assembly: sequencing reads are generated and computationally assembled into contigs without aligning to a prior reference. This differs from resequencing (aligning reads to an existing reference) in both approach and timeline. De novo projects require more extensive bioinformatics work to assemble and annotate a new genome. SeqMatic’s bioinformatics team supports this end-to-end, from assembly through annotation.

| Application | What It Enables |
| Population genetics research | Understanding genetic variation within and between populations |
| Reference genome generation (De Novo) | Building a first-ever genomic reference for a species |
| Agricultural breeding programs | Trait selection and genetic improvement in crops and livestock |
| Genome-wide association studies (GWAS) | Linking genetic variants to traits or disease |
| Comparative genomic studies | Cross-species evolutionary and functional comparisons |
| Conservation & wildlife genomics | Genetic diversity assessment and endangered species management |
| Category | Examples of Non-Model Organisms |
| NHP | Monkey, apes |
| Crops & plants | Soybeans, cotton, wheat, grape, tomato, potato |
| Marine life | Salmon, catfish |
| Livestock | Cattle, pig, horse, chicken |
| Wildlife | Dog, rat, squirrel, banana slugs |
| Sample Category | Examples |
| Whole specimen / tissue biopsy | Animal, plant, insect, and marine tissue |
| Non-invasive wildlife sampling | Hair, feathers, fecal, shed skin, museum and voucher specimens |
| Environmental samples | Soil, water, and other environmental material for biodiversity and eDNA studies |
For exact input amounts and purity thresholds by platform refer to existing Sample Input Recommendations
Sequencing a species with no existing reference genome takes different expertise than routine human or mouse sequencing, where reference, established QC benchmarks, and off-the-shelf pipelines already exist. SeqMatic brings the scientific expertise, flexible workflows, and rigorous quality practices needed to address these more complex sequencing projects.
Libraries are sequenced across SeqMatic’s full platform lineup, matched to each project’s read length and depth requirements: Illumina or Ultima Genomics for short read sequencing, and PacBio or Oxford Nanopore for long read sequencing.
SeqMatic’s team helps determine the right platform for each project during consultation, based on the read length, depth, and accuracy the research question requires.
| Application | Library Type | Recommended Depth |
| Genome survey (size, heterozygosity, repeat estimation) | WGS (survey/low-pass) | ≥50x |
| De novo assembly (short read) | De Novo WGS (short-read) | 100x or more |
| De novo assembly (long-read / hybrid) | De Novo WGS (long-read/hybrid) | [confirm] |
| Population genetics / GWAS resequencing | WGS | [confirm] |
Step 1. Project consultation and planning. Your science shouldn’t have to fit our workflow. The SeqMatic workflow should fit your scientific question. SeqMatic’s scientific team reviews study objectives, sample types, and target sequencing depth before work begins, with assurance of confidential sample submission and handling throughout.
Project Planning & Consultation page →
Step 2. Sample submission and extraction. SeqMatic accepts a wide range of sample types and performs nucleic acid extraction in house, with viability and quality checkpoints before any library preparation begins.
Extraction Services page →
Step 3. Library preparation. Libraries are constructed directly from genomic DNA through fragmentation and adapter ligation, validated through quality control at multiple points before committing to a full sequencing run.
Step 4. Sequencing. Libraries are sequenced on the platform best matched to the project’s read length and depth requirements.
Multiomics Technology Sequencing Platforms →
Step 5. Data analysis and delivery. Custom bioinformatics turns raw sequencing data into an interpretable result set.
Bioinformatics services →

Yes. Generating a first-ever reference genome is a core part of this service, not a special request. Project scope and timeline are typically confirmed during initial consultation once the target species and available sample material are known.
That’s fine. SeqMatic’s Extraction Services handle nucleic acid extraction from the sample itself, so raw tissue or whole specimens can be submitted directly rather than requiring pre-extracted material.
Yes, through Project Planning & Consultation, where sequencing strategy includes platform choice, coverage depth, short-read vs. long-read vs. hybrid is designed around your specific species and research goals before the project starts.
Sample-specific handling and shipping guidance is covered in SeqMatic’s Sample Submission Instructions. Check there before shipping field-collected or wildlife material.
QC reports are reviewed with you to decide which samples qualify for library preparation as submitted, and which need alternative library prep or resubmission. Nothing proceeds to sequencing without that review.
De novo sequencing has no reference to align against, so it requires deeper coverage, often a combination of short-read and long-read data, and substantially more bioinformatics work to assemble and annotate a genome from scratch. Resequencing skips the assembly step and compares reads directly to an existing reference.
Short-read sequencing is cost-effective and highly accurate per base but produces more fragmented assemblies, especially in repeat-rich genomes. Long-read platforms (PacBio REVIO, Oxford Nanopore) produce longer, more contiguous assemblies and are generally preferred for de novo work, often combined with short reads in a hybrid approach for the most complete result.
Yes. SeqMatic provides custom bioinformatics at three tiers: Primary (alignment and quantification), Secondary (QC, normalization, and differential expression), and Tertiary (pathway, gene ontology, and functional interpretation) and can go deeper per customer request.
See Sample and Data Storage and Data Transfer Options for storage duration and secure delivery options.






Solutions are custom-made according to research needs
