Case Study
GO Enrichment Analysis

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GO Enrichment Analysis

GO Enrichment Analysis

CD ComputaBio provides cutting-edge software-based virtual services to empower researchers, but we do not offer free software packages.

Gene Ontology (GO) is an international standard classification system for gene function. GO enrichment analysis is to classify the differential genes according to GO, and perform the significance analysis based on the discrete distribution of the classification results, the error rate analysis, and the enrichment analysis to obtain the gene function classification that is significantly related to the experimental purpose. This classification is the most important functional difference that leads to differences in sample traits. In the data analysis of the chip, the researcher can find out which changed genes belong to a common GO functional branch, and use statistical methods to check whether the results are statistically significant, so as to obtain which biological functions the changed genes are mainly involved in.

Overall solutions

🧬 RNA-seq Functional Interpretation

Translate differential gene expression into biological meaning

✔ Identify key biological processes
✔ Understand disease mechanisms
✔ Support publication-ready insights

🧪 Biomarker Discovery & Target Prioritization

Use enrichment results to identify high-value targets

✔ Highlight disease-relevant pathways
✔ Prioritize candidate genes
✔ Reduce experimental search space

🧫 Single-Cell Cluster Annotation

Interpret gene signatures across cell populations

✔ Assign biological identity to clusters
✔ Reveal functional differences
✔ Support scRNA-seq analysis

💊 Drug Mechanism of Action Analysis

Understand how compounds affect biological systems

✔ Identify impacted pathways
✔ Reveal off-target effects
✔ Support drug repositioning

🧬 Multi-Omics Data Integration

Combine transcriptomics, proteomics, and epigenomics

✔ Cross-validate biological signals
✔ Increase confidence in findings
✔ Generate system-level insights

🧠 Hypothesis Generation for Experimental Design

Turn data into testable biological hypotheses

✔ Identify key regulatory processes
✔ Suggest follow-up experiments
✔ Accelerate discovery cycle

Applications

  • One of the main applications of the GO is to perform enrichment analysis on gene or protein sets. For instance, given a set of proteins that are up-regulated under certain conditions, an enrichment analysis will find which GO terms are over-represented (or under-represented) via annotations for that protein set.
  • The GO enrichment analysis have proven to be remarkably useful for the exploring of functional and biological significance from very large datasets, such as Mass Spectral data and microarray results.
  • The GO enrichment analysis also facilitates the organization of data from novel, (or fully annotated) genomes and the comparison of biological functions between clade members and across clades.

Our services

Project name GO enrichment service
Our service process
  • Determine the annotated GO terms and all splits.
  • Count the number of appearances of each GO term for the proteins in the tested set as well as in the reference set.
  • Calculate a p-value representing the probability that the enriched numbers of counts could have resulted from randomly distributing this GO term between the tested set and the reference set.
Screening cycle Decide according to your needs.
Deliverables We provide you with raw data and analysis service.
Price Inquiry

Why work with us instead of free quantum chemistry tools?

Feature Our Service Standard Online Tools
Data preprocessing & QC Limited
Customized background selection Default only
Advanced statistical analysis Basic
Expert biological interpretation
Multi-omics integration
Functional clustering & redundancy reduction Limited
Visualization quality Publication-ready Basic plots
Hypothesis generation support
Project-specific analysis strategy Fixed
Clear technical reporting Minimal

Collaboration process

We follow a structured, transparent, and highly collaborative workflow to ensure your research objectives are fully understood and translated into meaningful biological insights.

1

Project Consultation & Objective Alignment

We start by understanding your research goals, dataset type, and specific biological questions.

✔ Define analysis scope (RNA-seq, proteomics, single-cell, etc.)

✔ Clarify expected outcomes and key hypotheses

✔ Recommend optimal analysis strategy

2

Data Review & Preprocessing

Our team performs thorough data quality assessment and preparation.

✔ Data format check and normalization

✔ Filtering low-quality or low-expression genes

✔ Background gene set definition

3

GO Enrichment Analysis Execution

We apply optimized statistical methods tailored to your dataset.

✔ Accurate enrichment analysis

✔ Multiple testing correction

✔ Custom parameter optimization

4

Functional Interpretation & Insight Extraction

We translate enrichment results into clear biological meaning.

✔ Identify key biological processes and pathways

✔ Highlight critical genes and regulatory mechanisms

✔ Connect findings to your research context

5

Visualization & Reporting

We deliver clear, publication-ready outputs.

✔ Dot plots, bar charts, enrichment maps

✔ Functional clustering visualization

✔ Structured and easy-to-understand report

✔ Answer your scientific questions

What you'll receive

Deliverable Description
Enriched GO Terms Table Statistically significant GO categories
Functional Classification Biological process / molecular function breakdown
Visualization Figures Dot plots, bar charts, enrichment maps
Pathway & Functional Insights Interpretation of biological meaning
Candidate Gene List Key genes driving enrichment
Custom Analysis Report Actionable conclusions & recommendations
Publication-Ready Outputs Figures & formatted tables

Published data

Case 1: NeVOmics: Network-based Visualization for Omics

The NeVOmics framework addresses the "long-list challenge" in omics research, where scientists often struggle to interpret thousands of genes or proteins. To streamline functional analysis, the authors developed NeVOmics, which utilizes hypergeometric distribution tests to calculate statistical significance while integrating with Gene Ontology (GO) and KEGG databases. This integration allows for the construction of sophisticated functional networks that go beyond simple lists.

Fig 1. Schematic representation of the steps carried out by NeVOmicsFig 1. Schematic overview of the steps performed by NeVOmics.1

Frequently Asked Questions

CD ComputaBio' GO enrichment analysis can significantly reduce the cost and labor of the subsequent experiments. GO enrichment analysis is a personalized and customized innovative scientific research service. Each project needs to be evaluated before the corresponding analysis plan and price can be determined. If you want to know more about service prices or technical details, please feel free to contact us.

Reference:

  1. Zúñiga-León E, Carrasco-Navarro U, Fierro F. NeVOmics: an enrichment tool for gene ontology and functional network analysis and visualization of data from OMICs technologies[J]. Genes, 2018, 9(12): 569.
* For Research Use Only.
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