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Novogene Europe
  • Novogene Europe
  • Genomics
    • Human Whole Genome Sequencing
    • Whole Exome Sequencing
    • Plant and Animal Whole Genome Sequencing
    • Plant and Animal De novo Sequencing
    • Microbial Whole Genome Sequencing
    • Microbial De novo Sequencing
    • Whole Plasmid SequencingOrder Online!
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    • Chromatin Immunoprecipitation Sequencing (ChIP-seq)
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    • mRNA Sequencing
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    • Circular RNA Sequencing (circRNA-seq)
    • Total RNA Sequencing
    • Whole Transcriptome Sequencing
    • Full-Length Transcriptome Sequencing
    • Prokaryotic RNA Sequencing
    • Metatranscriptome Sequencing
    Metagenomics
    • Amplicon SequencingOrder Online!
    • Shotgun Metagenomics Sequencing
    Single Cell & Spatial Omics
    • 10X Single Cell Gene Expression
    • 10X Single Cell Immune Profiling
    • 10X Visium HD Spatial Gene Expression
    Premade Library
    • Sequencing Only on Illumina® Sequencer
    • Sequencing Only on Element SequencerNew!
    • Sequencing Only on PacBio Sequencer
    Translational Research
    • Accredited & Validated Clinical Research Sequencing
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Human Whole Genome SequencingWhole Exome SequencingPlant and Animal Whole Genome SequencingPlant and Animal De novo SequencingDNA Methylation SequencingmRNA SequencingFull-Length Transcriptome SequencingWhole Transcriptome SequencingMetatranscriptome SequencingShotgun Metagenomics SequencingAmplicon SequencingWhole Plasmid Sequencing10X Single Cell Gene Expression10X Single Cell Immune Profiling10X Visium HD Spatial Gene ExpressionOlink ProteomicsUntargeted MetabolomicsAccredited & Validated Clinical Research Sequencing
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Copyright © 2026 Novogene Inc. All rights reserved.For Research Use Only. Not for Clinical Diagnostic Use.
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Rare and Complex Disease Research

Sequencing and multi-omics approaches for investigating genetic variation, molecular mechanisms and disease heterogeneity.

Overview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

Overview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

How Omics Supports Rare and Complex Disease Research

Common Research Approaches

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

How Omics Supports Rare and Complex Disease Research

Common Research Approaches

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Supporting Rare and Complex Disease Research with Novogene Europe

Novogene Europe provides access to sequencing, transcriptomics, epigenomics, single-cell, proteomics, metabolomics and bioinformatics workflows to support rare and complex disease research across genetic, regulatory and molecular levels.


Depending on your study design, our team can help you consider suitable approaches for family-based studies, cohort research, disease model profiling, regulatory analysis, molecular mechanism studies or integrated multi-omics projects.

Discuss Your Rare & Complex Disease Project

Share your samples and research goals, and our team can help identify suitable sequencing or multi-omics options.
Contact Us
(Discuss Your Rare & Complex Disease Project)
Contact Us
(Discuss Your Rare & Complex Disease Project)
Privacy PolicyCookie PolicyTerms
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Rare and Complex Disease Research

Sequencing and multi-omics approaches for investigating genetic variation, molecular mechanisms and disease heterogeneity.

Overview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

Overview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

Rare and complex disease research often requires the investigation of diverse molecular factors, including inherited variants, de novo changes, regulatory mechanisms, gene expression patterns and environmental or biological modifiers.


Sequencing and multi-omics technologies can help researchers explore disease-associated variation across the genome, transcriptome and epigenome, while also supporting studies of molecular pathways, disease subtypes and phenotype-linked biological mechanisms.


For rare diseases, genomic approaches can support research into candidate variants, inheritance patterns and molecular features that may contribute to disease biology. For complex diseases, multi-omics approaches can help investigate polygenic influences, regulatory changes and pathway-level differences across cohorts, families or model systems.

Preview

How Omics Supports Rare and Complex Disease Research

Common Research Approaches

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

How Omics Supports Rare and Complex Disease Research

Common Research Approaches

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Genomic Variant Discovery

Investigate inherited, de novo, rare or complex genomic variants across individuals, families, cohorts and disease research model systems.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Transcriptome & Pathway Analysis

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Epigenetic & Regulatory Profiling

Explore DNA methylation, chromatin-related regulation and non-coding genomic regions that may contribute to disease biology and molecular heterogeneity.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Cohort & Multi-omics Integration

Study gene expression changes, transcript-level variation and pathway activity associated with disease mechanisms, phenotypes or biological response patterns.

Supporting Rare and Complex Disease Research with Novogene Europe

Novogene Europe provides access to sequencing, transcriptomics, epigenomics, single-cell, proteomics, metabolomics and bioinformatics workflows to support rare and complex disease research across genetic, regulatory and molecular levels.


Depending on your study design, our team can help you consider suitable approaches for family-based studies, cohort research, disease model profiling, regulatory analysis, molecular mechanism studies or integrated multi-omics projects.

Discuss Your Rare & Complex Disease Project

Share your samples and research goals, and our team can help identify suitable sequencing or multi-omics options.
Contact Us
(Discuss Your Rare & Complex Disease Project)
Contact Us
(Discuss Your Rare & Complex Disease Project)
Privacy PolicyCookie PolicyTerms