
Key Focus:
MICROBIOLOGY +
SYNTHETIC BIOLOGY
Decoding and Designing the Microbial World
Microbiology and synthetic biology are redefining how we study, engineer, and harness living systems. From characterizing microbial communities in extreme environments to building synthetic constructs that drive sustainable innovation, genomics lies at the heart of discovery and design.
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At AUGenomics, we empower researchers to explore microbial complexity, validate engineered constructs, and accelerate data-driven breakthroughs — with sequencing solutions designed for precision, flexibility, and scalability.
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Characterize microbial diversity and community structure through metagenomics
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Identify metabolic, resistance, and biosynthetic genes
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Engineer microorganisms for biomanufacturing, bioremediation, or therapeutics
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Validate synthetic plasmids and gene circuits for sequence accuracy and copy number
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Track strain evolution, mutation, and genetic stability across production cycles
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Integrate genomic, transcriptomic, and functional data for multi-omic insights
The Role of Genomics in Microbiology & Synthetic Biology
Modern microbiology and synthetic biology rely on next-generation sequencing (NGS) to reveal the invisible layers of life. Genomics makes it possible to:
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Uncover microbial diversity across ecosystems using metagenomics and amplicon sequencing.
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Map functional pathways that drive metabolism, adaptation, or resistance.
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Verify engineered constructs in synthetic biology, ensuring plasmid integrity and sequence accuracy.
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Track evolution and stability in microbial strains across design–build–test–learn cycles.
By integrating genomics into your research, you can move beyond culture-dependent methods and gain complete, data-rich insights into microbial function, gene expression, and community dynamics.
AUGenomics supports researchers working across environmental microbiology, industrial bioproduction, phage research, and synthetic construct development, ensuring your sequencing data is as robust as your science.
Common
Sample Types
We support a wide range of biological materials to meet the needs of microbial and synthetic biology research:
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Bacterial and archaeal isolates — for whole-genome sequencing and comparative genomics.
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Environmental samples (soil, water, air, wastewater, or bioreactor effluents) — for metagenomic and microbiome profiling.
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Plasmids and synthetic constructs — for plasmid sequencing, insert validation, and integrity checks.
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Yeast and fungal cultures — for metabolic engineering and strain optimization.
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Host-associated samples (gut, skin, root, oral, or marine microbiomes) — for host–microbe interaction studies.
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Phage and viral libraries — for virome sequencing and phage therapy research.
Tailored Services
Our team collaborates with scientists, biotech startups, and research institutions to deliver data-driven sequencing solutions that fit every stage of discovery and design.
We specialize in:
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Metagenomics & Microbiome Sequencing: high-resolution profiling of microbial communities across environments.
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Whole Genome Sequencing (WGS): for microbial isolates, plasmids, or engineered strains.
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RNA-seq & Metatranscriptomics: for exploring active gene expression and pathway regulation.
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Amplicon Sequencing (16S/18S/ITS): for cost-effective taxonomic and diversity analyses.
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Plasmid Validation Sequencing: for confirming vector structure, insert orientation, and mutation-free cloning.
Explore our tailored solutions:
Whole Genome Sequencing (WGS) · Metagenomic Sequencing · RNA-seq · Amplicon Sequencing · Plasmid Validation Sequencing
Why Us?
At AUGenomics, we combine technical precision with personal partnership — helping every client turn raw data into meaningful biological insight.
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Proven success with low-input and high-complexity microbial samples
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Optimized workflows for high-throughput plasmid and metagenomic sequencing
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Rapid turnaround with customizable bioinformatic analysis
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Expert support from scientists who understand microbial systems and synthetic design workflows
From characterizing novel microbiomes to validating engineered constructs, we help you generate sequencing data you can trust — every run, every time.
