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3 months · Offline / Online

Certificate Course in Bioinformatics (CCBI) in Pune

iLearn CRI's 3-month Bioinformatics course in Pune covers biological databases, sequence alignment, NGS analysis, genomics, and proteomics — combining life sciences with computation and data analysis for biotech and pharma careers.

Duration
3 months
Mode
Offline / Online
Fees
₹40K

Why bioinformatics is the engine of modern drug discovery

Every major breakthrough in precision medicine, genomics-guided therapy, and molecular diagnostics runs on bioinformatics. The discipline sits at the intersection of biology, computer science, and statistics — translating the raw data produced by sequencing machines and mass spectrometers into biological insight that drives drug development decisions.

For graduates from biotechnology, life sciences, and related backgrounds, bioinformatics is the fastest-growing analytical career in pharma and biotech in 2026. The barrier was once that you needed a PhD to work in the field. That has changed. NGS data analysis, sequence alignment, and genomics pipeline work are now skills-based roles that trained graduates fill from day one.

In India, the expansion of domestic genomics R&D — at companies like Serum Institute, Lupin, and Cipla, and at research institutes like NCL, NCCS, and IISER Pune — has created sustained demand for trained bioinformatics professionals who can bridge biology and computation.

What you will actually do as a bioinformatics professional

The day-to-day work depends heavily on the employer, but most bioinformatics roles involve some combination of:

NGS data analysis. Processing sequencing data from Illumina or Nanopore runs — quality control, trimming, alignment to reference genomes, variant calling, and annotation. This is the highest-demand practical skill in applied bioinformatics.

Genomics and transcriptomics. Identifying variants in patient genomes, running differential expression analysis on RNA-seq data, building gene lists and pathway analyses. These analyses feed directly into drug target identification and precision medicine decisions.

Database mining and sequence analysis. Using NCBI, BLAST, UniProt, and Ensembl to answer biological questions: what does this gene do, what proteins does it interact with, what is known about this variant in the literature.

Structural work. Visualising protein structures, running homology models, and performing molecular docking for drug candidate assessment — the connection point between genomics and structure-based drug design.

What this course teaches

The 3-month curriculum takes a life-sciences graduate from biological foundations through computational proficiency to applied NGS and genomics analysis.

The first month builds biological and programming foundations — molecular biology refresher, Python and R from scratch within a bioinformatics context, Linux command-line basics, and the major bioinformatics databases.

The second month covers core computational methods — sequence alignment, BLAST, multiple sequence alignment, phylogenetics, and structural bioinformatics including protein structure prediction and molecular docking basics.

The final month shifts to applied NGS and omics — the full NGS pipeline from raw reads through variant calling and annotation, RNA-seq differential expression analysis, genomics workflows, and an introduction to proteomics data analysis.

Throughout the course you build a portfolio of analyses — completed NGS pipelines, phylogenetic trees, structural models, and expression analysis results — that demonstrate practical competency to research employers.

Who this course is right for

You will get the most out of this programme if you are:

  • A B.Sc or M.Sc graduate in biotechnology, life sciences, genetics, or microbiology who wants to add computational skills to your biology background
  • A B.Pharm graduate interested in molecular biology and computational drug discovery
  • A working researcher or lab technician who wants to move from wet-lab to computational work
  • Someone with biology knowledge who wants to build Python and R skills in a biological context rather than a generic programming course

Apply for the next batch

Bioinformatics batches begin every quarter at our Wakad campus. Batch sizes are kept small for adequate compute access and faculty attention. Reach out on WhatsApp to discuss your background and the next intake batch.

If you are weighing bioinformatics against adjacent analytical paths, the closest alternatives are:

Further reading

Online & classroom

Available online and in the classroom

The Certificate in Bioinformatics course runs as two separate batches — a live online batch and an offline classroom batch at our Wakad campus — so you can train from anywhere in India or attend in person in Pune. Both run weekday evenings and full Saturdays, and both are fully instructor-led by practicing professionals.

Live online batch

Fully instructor-led live sessions with independent remote hands-on access to the same platforms (Argus, Medidata Rave, eCTD tools) and the same placement support — so you build a real portfolio from home. Designed for students across India and working professionals who can't relocate to Pune.

Classroom batch (Pune)

In-person at our Wakad campus in the Hinjewadi-Wakad corridor, with hands-on lab access and face-to-face faculty time — ideal for Pune-based students who want maximum platform practice.

Not sure which batch suits you? Talk to admissions about the current schedule, or see all online clinical research courses.

Curriculum

What you’ll learn, module by module.

  1. 01 Fundamentals of Biology
    • Cell biology: cell structure, organelles, and function
    • Molecular biology: DNA, RNA, protein synthesis
    • Genetics: Mendelian inheritance, mutations, and gene expression
    • Central dogma and its implications for bioinformatics
    • Introduction to omics: genomics, transcriptomics, proteomics
  2. 02 Bioinformatics Databases & Tools
    • NCBI: GenBank, PubMed, RefSeq, and database navigation
    • BLAST: sequence similarity searching and result interpretation
    • UniProt, PDB, and protein structure databases
    • Ensembl and genome browser tools
    • Biological ontologies: Gene Ontology (GO) and KEGG pathways
  3. 03 Programming & Statistical Analysis
    • Python for bioinformatics: Biopython library and data manipulation
    • R for bioinformatics: Bioconductor packages and statistical analysis
    • Command-line Linux basics for bioinformatics pipelines
    • Statistical concepts: distributions, hypothesis testing, multiple testing correction
    • Data visualisation: heatmaps, volcano plots, principal component analysis (PCA)
  4. 04 Advanced & Specialized Modules
    • Introduction to machine learning concepts in bioinformatics
    • Network biology and pathway enrichment analysis
    • Comparative genomics and genome evolution
    • Drug target identification using bioinformatics approaches
    • Integrative multi-omics analysis overview
  5. 05 Structural Bioinformatics
    • Protein 3D structure: primary, secondary, tertiary, quaternary levels
    • Structure visualisation tools: PyMOL and UCSF Chimera
    • Homology modelling and structure prediction (AlphaFold)
    • Molecular docking basics for drug discovery
    • Structure-based drug design principles
  6. 06 Sequence Alignment
    • Pairwise alignment: global (Needleman-Wunsch) and local (Smith-Waterman)
    • BLAST algorithms: blastn, blastp, tblastx applications
    • Multiple Sequence Alignment (MSA): ClustalW, MUSCLE, MAFFT
    • Scoring matrices: PAM and BLOSUM
    • Alignment interpretation and biological significance
  7. 07 Phylogenetics
    • Evolutionary distance and nucleotide substitution models
    • Tree-building methods: Neighbour-Joining, maximum parsimony, maximum likelihood, Bayesian
    • Bootstrap analysis and tree confidence
    • Tools: MEGA, IQ-TREE, PhyML
    • Applications: molecular evolution, outbreak tracing, gene family analysis
  8. 08 Next-Generation Sequencing (NGS)
    • NGS platforms: Illumina, PacBio, Oxford Nanopore
    • NGS library preparation and sequencing chemistry
    • Quality control: FastQC and Trimmomatic
    • Read alignment: BWA, STAR, HISAT2
    • Variant calling and annotation: GATK, ANNOVAR
    • RNA-seq: differential expression analysis with DESeq2 and edgeR
  9. 09 Genomics
    • Genome assembly: de novo and reference-guided approaches
    • Genome annotation: gene prediction and functional annotation
    • Comparative genomics and synteny analysis
    • Epigenomics: ChIP-seq and ATAC-seq overview
    • Genome-wide association studies (GWAS) principles
  10. 10 Proteomics
    • Mass spectrometry principles for proteomics
    • Protein identification and quantification workflows
    • Label-free and label-based quantitative proteomics
    • Post-translational modifications (PTMs) analysis
    • Proteomics data analysis tools: MaxQuant and Perseus
    • Integration of proteomics with genomics for systems biology
Career outcomes

Roles graduates step into.

  • Bioinformatics Analyst
    Avg. CTC ₹ 3.5–5.0 LPA
  • Genomics Data Analyst
    Avg. CTC ₹ 4.0–6.0 LPA
  • Research Associate (Bioinformatics)
    Avg. CTC ₹ 3.5–4.5 LPA
  • NGS Data Analyst
    Avg. CTC ₹ 4.5–7.0 LPA
  • Senior Bioinformatics Scientist (3-5 yrs)
    Avg. CTC ₹ 8.0–15.0 LPA
Placements

Where clinical research careers start in Pune.

Our placement record reflects what most clinical research institutes in Pune don’t measure: not just where you start, but how fast you grow inside pharma and CROs.

Alumni Working Across Pharma
50+

Alumni Working Across Pharma & CRO Industry

Average Industry Starting CTC
₹4.2L

Average Industry Starting CTC

Placement Assistance Support
100%

Placement Assistance Support

Pharma & CRO Hiring
50+

Pharma & CRO Hiring Partners

FAQ

Questions about the Certificate in Bioinformatics

Can’t find your answer? Reach out on WhatsApp—we usually reply within an hour during business days.

Ask on WhatsApp →
Is this a bioinformatics certification course? What certificate do I get?

Yes — you receive the iLearn CRI Certificate of Completion in Bioinformatics, identical for online and classroom batches, backed by hands-on Linux, Python/R, and NGS-pipeline exercises. Bioinformatics hiring is strongly portfolio-driven — the pipeline work products behind the certificate are what you walk interviewers through.

What is the fee for the Bioinformatics course in Pune?

The 3-month Bioinformatics course at iLearn CRI in Pune is ₹40,000 + 18% GST. The fee covers all course materials, Linux command-line and Python/R bioinformatics lab access, NGS pipeline exercises, and structured placement preparation. EMI options are available — most students opt for a 2-installment plan spread across the programme.

Do I need programming experience to join this course?

No prior programming experience is required. The course starts Python and R from scratch within a bioinformatics context — you learn to code by analysing biological data, not through abstract exercises. Basic biology at the B.Sc level is needed to understand the data you are working with. Students from biotechnology, life sciences, and pharmacy backgrounds adapt quickly.

What is the difference between bioinformatics and genomics?

Bioinformatics is the broader discipline — the computational and statistical methods used to analyse biological data of all types: sequences, structures, expression profiles, and proteomes. Genomics is a sub-field focused specifically on whole-genome data: assembly, annotation, variant calling, and GWAS. NGS data analysis (processing next-generation sequencing data) sits at the intersection of both and is the most directly employable bioinformatics skill in 2026.

Who hires bioinformatics professionals in Pune?

Bioinformatics hiring in Pune is primarily at biotech and pharma R&D teams (Serum Institute, Lupin, Cipla), genomics companies and diagnostic labs, academic research institutes (IISER Pune, NCL, NCCS), and CROs with genomics capabilities. The NGS data analysis skill set is particularly valued — global companies increasingly hire remote bioinformatics analysts from India, making this a remote-friendly career from an early stage.

Is bioinformatics a good career in India in 2026?

Yes. Genomics-based drug discovery, precision medicine, and molecular diagnostics are growing rapidly. The NGS data analysis market in India is expanding, driven by declining sequencing costs and growing domestic biotech R&D investment. Bioinformatics professionals with NGS, Python, and R skills are hired at entry salaries of ₹3.5–5 LPA, with strong growth as genomics becomes more central to drug development and clinical diagnostics.

What tools and software will I learn in this course?

The course covers NCBI/BLAST, Ensembl, and UniProt for database work; Python (Biopython) and R (Bioconductor) for programming; FastQC, BWA, STAR, GATK, and ANNOVAR for NGS pipelines; MEGA and IQ-TREE for phylogenetics; PyMOL and Chimera for structural work; and DESeq2/edgeR for RNA-seq analysis. All tools are open-source and industry-standard.