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BioVenic offers tailored, end-to-end multi-omics analytical services for diverse aquatic species to support high-precision basic biological research and aquaculture translational studies. Systematic molecular profiling underpins modern aquatic biology and aquaculture research, uncovering intricate biological mechanisms of aquatic organisms. Covering genomics, transcriptomics, proteomics and other omics disciplines, our cutting-edge technologies connect molecular alterations with phenotypic traits, facilitating in-depth exploration of aquatic growth regulation, disease mechanisms, environmental adaptability and genetic variation.
Fig 1. General schema showing the relationships of the genome, transcriptome, proteome, and metabolome. (BioVenic Original)
Applicable Scenarios: Suitable for aquatic species genetic background analysis, germplasm resource identification, disease-related gene variation screening, and whole-genome trait localization. It is the core technical support for aquatic genetic breeding, species classification and germplasm protection research.
Technical Capabilities: We deploy high-precision whole-genome sequencing and resequencing technologies adapted to aquatic species characteristics. We conduct systematic identification of SNP, InDel and structural variation, and complete genome functional annotation and genetic evolutionary analysis, effectively solving the problem of high heterozygosity in aquatic genomes.
Deliverables: High-quality genome sequencing raw data, accurate genetic variation annotation results, genome functional classification reports, genetic evolutionary analysis charts, and candidate functional gene screening lists.
Applicable Scenarios: Applied to explore aquatic gene expression regulation rules, screen differentially expressed genes under disease infection and environmental stress, and analyze molecular response mechanisms of growth, development and stress resistance traits.
Technical Capabilities: Relying on high-throughput RNA sequencing technology, we achieve full transcript coverage of aquatic tissues and cells. We complete differential gene screening, functional enrichment analysis and gene expression pattern clustering, and accurately capture dynamic transcriptome changes under different experimental conditions.
Deliverables: Standardized transcriptome sequencing data, differential gene expression profiling results, GO and KEGG functional enrichment analysis reports, gene clustering heatmaps, and key regulatory gene verification datasets.
Applicable Scenarios: Focused on post-transcriptional regulatory mechanism research of aquatic biological traits, used to analyze protein expression differences, protein modification changes and protein interaction networks during disease occurrence and environmental adaptation.
Technical Capabilities: We adopt high-sensitivity mass spectrometry detection technology to identify and quantify proteins in aquatic samples efficiently. We systematically analyze protein post-translational modification and protein-protein interaction relationships, realizing accurate interpretation of phenotypic regulation mechanisms at the protein level.
Deliverables: Mass spectrometry original detection data, protein expression quantitative results, differential protein functional analysis reports, protein interaction network maps, and key target protein screening results.
Applicable Scenarios: Ideal for exploring aquatic animal physiological metabolic characteristics, evaluating metabolic pathway changes under nutritional regulation, environmental stress and disease infection, and screening metabolic biomarkers for physiological and pathological state evaluation.
Technical Capabilities: Combining targeted and untargeted metabolomics detection platforms, we achieve high-coverage identification of small molecule metabolites in aquatic tissues and body fluids. We conduct differential metabolite screening and metabolic pathway enrichment analysis to reveal core metabolic regulatory mechanisms.
Deliverables: Metabolite detection raw data, differential metabolite annotation results, metabolic pathway enrichment analysis reports, metabolic biomarker screening lists, and physiological state correlation analysis conclusions.
Applicable Scenarios: Mainly used for aquatic intestinal and environmental microbial community composition analysis, exploring the interaction mechanism between microorganisms and host growth, immunity and disease occurrence, and supporting aquatic health breeding and disease prevention research.
Technical Capabilities: Based on 16S rRNA sequencing and metagenomic sequencing technologies, we analyze microbial community diversity, species composition and functional characteristics. We clarify the correlation between microbial flora variation and host health status and environmental changes.
Deliverables: Microbial sequencing data, community diversity analysis results, species composition distribution maps, microbial functional annotation reports, and host-microbe correlation analysis results.
Applicable Scenarios: Applied to high-resolution research of aquatic tissue cell heterogeneity, embryonic development cell differentiation trajectory analysis, and immune cell subgroup variation research during disease infection, making up for the homogenization defect of traditional bulk sequencing.
Technical Capabilities: We complete high-throughput single-cell transcriptome sequencing of aquatic tissue samples, realize accurate cell subtype classification and marker gene screening, and track cell dynamic differentiation and expression regulation rules at the single-cell level.
Deliverables: Single-cell sequencing standard data, cell subtype clustering results, cell marker gene lists, cell differentiation trajectory analysis charts, and single-cell level differential expression analysis reports.
Applicable Scenarios: Used to explore the regulatory mechanism of epigenetic modifications such as DNA methylation and histone modification on aquatic gene expression, and reveal how environmental and genetic factors jointly regulate aquatic growth traits and disease susceptibility.
Technical Capabilities: We adopt mature epigenetic sequencing technologies to detect genome-wide epigenetic modification sites, analyze the correlation between modification changes and gene expression, and clarify the epigenetic regulatory network of aquatic environmental adaptation and disease response.
Deliverables: Epigenetic modification site detection data, differential modification region annotation results, epigenetic-gene expression correlation analysis reports, and key epigenetic regulatory locus screening results.
BioVenic adopts a standardized full-process omics research workflow tailored for aquatic species, covering scheme design, sample detection, bioinformatics analysis, multi-data integration and result verification, ensuring high efficiency and high accuracy of project implementation.
Fig 2. Workflow of aquatic animal omics service. (BioVenic Original)
Reveal the molecular regulation mechanisms of aquatic animal growth, development, reproduction and environmental adaptation, and enrich the basic theoretical system of aquatic biology.
Screen key pathogenic antigens and immune regulatory molecules, provide target resources for aquatic vaccine design and efficacy verification, and promote the development of aquatic biological products.
Mine specific molecular markers for aquatic disease diagnosis and physiological state evaluation, realizing early warning and accurate identification of aquatic diseases.
Clarify the molecular pathological mechanism of aquatic infectious and non-infectious diseases, providing molecular basis for precise disease prevention and control.
Analyze the metabolic response and gene expression changes of aquatic animals under different nutritional conditions, optimize aquatic feed formula and nutritional breeding strategies.
Explore the molecular response mechanism of aquatic organisms to environmental pollutants and stress factors, providing molecular indicators for aquatic ecological environment evaluation.
Realize accurate species classification and genetic germplasm resource evaluation of aquatic organisms, supporting germplasm protection and resource utilization.
Screen excellent trait-related functional genes and molecular markers, accelerate the breeding of high-growth, disease-resistant and stress-resistant new aquatic varieties.
BioVenic specializes in delivering comprehensive Aquatic Animal Omics Services to empower cutting-edge aquatic biological and biomedical research. We know that multi-omics profiling serves as a core tool for uncovering molecular mechanisms, exploring genetic regulation, and deciphering physiological and pathological changes in aquatic models. Our seasoned research team integrates advanced sequencing and bioinformatics analysis to deliver tailored, high-accuracy omics solutions. To discuss your specific project requirements, explore our technical capabilities, or receive a detailed quote for your study, please contact us. Our professional team will help you unlock the full value of your aquatic omics data and fuel your research innovation.
Our products and services are for research use only and cannot be used for any clinical purposes.