Bioinformatics

Bioinformatics

A 6-month, fully online postgraduate program that fuses core bioinformatics with hands-on applied AI — built and taught by scientists who have analyzed real genomic datasets, run real pipelines, and published real research.

6 Months100% OnlineLive CohortsCareer Support Included20+ Curriculum Modules

This program page reflects our latest curriculum draft. Fees, faculty, and career-support details shown below are the ones on file in our admissions system — figures like guarantees or hiring-partner counts mentioned in course descriptions are illustrative and being finalized. Contact admissions for current details.

4 Months
Duration
₹48,000
EMI available over 8 months
Biotechnology, Life Sciences, or Computer Science graduates
Eligibility
Not available
Scholarship

Why Bioinformatics, Why Now?

Genomic data is doubling every few months, and labs are drowning in sequences they can't interpret fast enough. The scientists who can pair biology with AI-driven analysis are the ones landing translational research and biotech roles.

Employers are increasingly screening for pipeline-literate scientists, AI-augmented variant analysis skills, cross-functional wet-to-dry-lab translators, and people who ship reproducible code — not just scripts.

  • 3.2B+ base pairs per genome — data only AI-assisted pipelines can process at scale
  • 45% faster variant analysis reported by teams using ML-assisted pipelines
  • 60% of biotech job postings now list computational skills as required
  • 2.5x more interview callbacks for candidates with a shipped pipeline project

The Gap Is Real

Across core bioinformatics roles, AI-assisted workflows are changing how the work actually gets done:

  • Genomics Researcher — from spending days manually inspecting alignment files and guessing at variant significance, to running automated QC pipelines that surface ML-flagged variants of interest instantly.
  • Lab Data Analyst — from building one-off scripts with no reproducibility between projects, to deploying versioned, containerized pipelines any teammate can rerun on new data.
  • Computational Biologist — from relying on static reference databases and manual literature search, to using AI-assisted annotation and predictive structural modeling to move from data to hypothesis in hours.
  • Clinical Genomics Specialist — from cross-referencing variant databases by hand against patient phenotypes, to using ML-ranked variant-phenotype matching to prioritize cases needing clinical review.
  • Proteomics Scientist — from waiting weeks for external labs to resolve protein structures, to predicting and visualizing candidate structures in-house within hours using deep-learning models.

Why Medivex AI?

  • Domain + AI, Together — every module (genomics, proteomics, structural biology) is taught with AI embedded from day one, so you learn to apply machine learning to real biological questions, not bolt it on afterward.
  • Taught by Practitioners — instruction comes from computational biologists who have built pipelines used in real research labs and biotech companies.
  • Hands-On, No Theory Theatrics — you align sequences, build pipelines, train models, and analyze real -omics datasets, delivering outputs that look like real lab work.
  • Real Datasets, Real Problems — you work with real, messy genomic and clinical datasets modeled on academic and biotech research, not tidy textbook FASTA files.
  • Reproducibility Built In — every capstone requires a containerized, version-controlled pipeline, so you graduate already working the way modern research labs expect.
  • Cohort-Based Accountability — weekly live sessions and peer pipeline reviews keep you shipping on schedule instead of stalling out on a self-paced course.

Traditional vs. Medivex AI

  • AI & Domain — Traditional: taught as separate electives. Medivex AI: embedded in every module.
  • Faculty — Traditional: primarily academic. Medivex AI: practitioners who've shipped it.
  • Assessment — Traditional: essays & written exams. Medivex AI: shipped pipelines & live capstones.
  • Format — Traditional: fixed campus schedule. Medivex AI: 100% online, fits your job.
  • Cohort Size — Traditional: 200+ students, one-size-fits-all. Medivex AI: small live cohorts with direct faculty access (~1:12).
  • Tooling — Traditional: legacy academic software. Medivex AI: production tools — GATK, Nextflow, AlphaFold, AWS.

Choosing Your Specialisation Track

Most learners don't lock in a track on day one — they spend week one sampling all three, then choose based on the roles they're actually targeting.

How We Pick Our People

  • Shortlist Call — a quick conversation to understand your goals and alignment with the program.
  • Aptitude Test — a brief assessment of your domain thinking and analytical sharpness.
  • Interview — a deeper evaluation of your ambition, intent, and readiness to grow.
  • Offer Rollout — if the fit is clear, an invitation to join the cohort.

Program Details

  • Format: 6 months, 100% online, live cohorts, sessions recorded for later.
  • Cohort size: small live cohorts, roughly a 1:12 faculty-to-learner ratio.
  • Eligibility: bachelor's degree in any related discipline; open to graduates and professionals in life sciences, biotechnology, or a related quantitative field.
  • Admissions: Shortlist call → Aptitude test → Interview → Offer rollout.
  • Career support: AI-powered mock interviews, resume & profile workshops, 1:1 career strategy calls, curated peer community, job-search accountability pods.
  • Certification: verifiable digital certificate and shareable credential for LinkedIn and resume upon completion.

Curriculum Outline

Phase 1

Bioinformatics Foundations

6 Months

Molecular biology fundamentals, Python & R for life sciences, sequence alignment, and public databases (NCBI, Ensembl) — the core toolkit every computational biologist needs. (The week-by-week breakdown below spans the first 12 weeks of Phase 1.)

Phase 2

Mini Capstone — Cross-Pipeline Integration

1 Month

Process a raw sequencing dataset, run QC, align reads, call variants, and present findings the way a real wet-lab-to-dry-lab handoff works.

Phase 3

AI Foundations for Genomics

Identify high-impact ML opportunities, design predictive models, and interpret results responsibly.

Phase 4

Specialisation Track (choose one)

Genomics & Variant Analysis / Structural Bioinformatics / Clinical & Translational.

Phase 5

Final Capstone

5 Weeks

Design and build an AI-powered bioinformatics pipeline end-to-end, presented to an industry panel.

Week-by-Week Breakdown

W1Orientation & Molecular Biology Refresher

Core genetics and gene-expression concepts, framed for computational analysis.

W2Python & Biopython Foundations

Reproducible scientific computing for sequence and genomic data.

W3Sequence Alignment I

BLAST fundamentals and pairwise alignment algorithms.

W4Sequence Alignment II

Multiple sequence alignment and phylogenetics basics.

W5Genomic Databases

Navigating NCBI, Ensembl, UCSC, and public sequencing repositories.

W6Statistics for -Omics Data

Hypothesis testing and experimental design for high-dimensional biological data.

W7Sequencing Data Formats

FASTQ, BAM, VCF — reading and manipulating raw sequencing output.

W8Quality Control Pipelines

Automated QC for whole-genome and whole-exome sequencing data.

W9R & Bioconductor Basics

Statistical genomics workflows using the Bioconductor ecosystem.

W10Applied Lab: Alignment Pipeline I

Build a first-pass sequence alignment pipeline end-to-end.

W11Applied Lab: Alignment Pipeline II

Iterate, validate, and document your pipeline for review.

W12Phase Review & Q&A

Consolidate learning and prep for the Mini Capstone.

Specialisation Tracks

Genomics & Variant Analysis

Master end-to-end variant discovery, from raw reads to clinically actionable calls. Skills covered: variant calling, annotation, cohort analysis, ML scoring.

Structural Bioinformatics

Predict and analyze protein structure and function using AI-driven modeling tools. Skills covered: structure prediction, docking, visualization, drug-target analysis.

Clinical & Translational

Bridge bench research and the clinic by connecting genomic findings to patient outcomes. Skills covered: phenotype matching, reporting, regulatory basics, cohort studies.

Tools You'll Use

PythonR / BioconductorBLASTBiopythonGATKNextflowSnakemakeGalaxyJupyterAlphaFoldPyMOLIGVUCSC BrowserEnsemblsamtoolsSTAR AlignerDockerAWSCytoscapeSQL

Capstone Projects

Mini Capstone — Cross-Pipeline Integration (Phase 2)

1 Month. Apply everything end-to-end: process a raw sequencing dataset, run QC, align reads, call variants, and present findings. Components: guided real-world pipelines (whole-exome variant-calling, RNA-seq differential expression, or protein structure prediction); reproducible workflow design using containerized, version-controlled pipelines (Nextflow or Snakemake); and research-ready reporting with clear methodology, QC metrics, and visualizations. Project options include building a variant-calling pipeline for a whole-exome dataset, running a differential gene expression analysis on RNA-seq data, predicting and visualizing a protein structure from sequence, or presenting a research-ready report to a mock journal review panel.

Final Capstone (Phase 5)

5 Weeks. Design and build an AI-powered bioinformatics pipeline end-to-end, solving a live research-style problem with measurable, reproducible impact, presented to an industry panel. Components: end-to-end pipeline design from raw data to interpretable results; AI-assisted discovery applying predictive models to surface novel findings; validation & QC establishing rigorous standards; and research communication presenting findings and methodology to a panel. Timeline: Weeks 1-2 scope & data prep, Week 3 pipeline build, Week 4 validation, Week 5 panel presentation.

Program Faculty

Arjun Rao

Arjun Rao

Faculty, Bioinformatics

Arjun Rao brings 8+ years of industry and teaching experience in Genomics & NGS Analysis.

Career Opportunities

Bioinformatics AnalystGenomics Data ScientistResearch Associate

What You'll Get

  • AI-powered mock interviews
  • Resume & profile workshops
  • Executive presence sessions
  • Mentorship from experienced researchers
  • Curated peer community
  • Industry mixers & lab connects
  • 1:1 career strategy calls
  • Job-search accountability pods
  • Build reproducible genomic pipelines
  • Apply ML to variant & expression data
  • Communicate findings with clarity
  • Navigate research data ethics
  • Bridge wet-lab and computational teams
  • Present research-grade reports
  • Predict and validate protein structures
  • Career pathways: Computational Biologist, Bioinformatics Scientist, Genomics Data Analyst, Research Pipeline Engineer, Clinical Genomics Specialist, Biotech Founder / R&D Lead

Who This Is For

  • Life Science Graduates & Researchers — biology, biotech, or life-sciences graduates and early-career researchers wanting computational fluency.
  • Working Bioinformaticians & Lab Scientists — professionals in genomics, pharma, or diagnostics labs looking to add AI/ML to their pipeline toolkit.
  • Eligibility: open to graduates and professionals with a background in life sciences, biotechnology, or a related quantitative field. A bachelor's degree in any related discipline is required.
  • What we look for beyond the resume: ambition, ownership mindset, curiosity about AI, consistency under pressure, and coachability.

Frequently Asked Questions

Success Stories

Hear from our alumni who have successfully transitioned into rewarding Medivex AI careers.

Ananya Sharma

Ananya Sharma

Clinical Research Associate

The Clinical Research program gave me the exact hands-on skills the industry demanded. Placed as CRA within a month of graduating.

Placed at
IQVIA
Package
₹ 5.8 LPA
Rahul Verma

Rahul Verma

Clinical SAS Programmer

Hands-on SAS programming training with real clinical trial datasets made all the difference in clearing my corporate interviews.

Placed at
Parexel
Package
₹ 6.2 LPA
Amit Patel

Amit Patel

Healthcare AI Analyst

The AI in Healthcare curriculum helped me transition from life sciences to advanced healthcare data analytics smoothly.

Placed at
Fortrea
Package
₹ 7.0 LPA
Meera Joshi

Meera Joshi

Clinical Research Associate

The Clinical Research program gave me the exact skills the industry demanded. Placed within a month of graduating.

Placed at
IQVIA
Package
₹ 6.9 LPA
Vikram Singh

Vikram Singh

Clinical SAS Programmer

Hands-on clinical data management and GCP compliance modules prepared me for top CRA interviews.

Placed at
Parexel
Package
₹ 4.5 LPA
Ananya Das

Ananya Das

Medical Coder

Faculty support and placement guidance were outstanding throughout the program.

Placed at
Optum
Package
₹ 5.3 LPA
Priya Nair

Priya Nair

Medical Coder Specialist

Faculty support and 1-on-1 mock interview guidance were outstanding throughout the course and placement phase.

Placed at
ICON plc
Package
₹ 4.8 LPA
Neha Reddy

Neha Reddy

Bioinformatics Analyst

Guaranteed internship provided real-world lab exposure that boosted my confidence and landed me a full-time position.

Placed at
Medpace
Package
₹ 5.5 LPA
Aarav Mehta

Aarav Mehta

Clinical Research Intern

The Clinical Research program provided structured modules, hands-on dataset practice, and excellent career guidance.

Placed at
Demo Health
Package
₹ 5.0 LPA
Ananya Rao

Ananya Rao

Junior Medical Coder

The Medical Coding curriculum covered ICD-10-CM and CPT guidelines with real claim scenarios.

Placed at
Demo Care
Package
₹ 4.5 LPA
Rohan Kapoor

Rohan Kapoor

SAS Trainee

Clinical SAS programming labs and CDISC SDTM/ADaM mapping sessions prepared me thoroughly.

Placed at
Demo Analytics
Package
₹ 5.5 LPA
Sneha Kapoor

Sneha Kapoor

Healthcare AI Engineer

The AI in Healthcare course combined machine learning theory with applied DICOM imaging pipelines.

Placed at
Demo MedTech
Package
₹ 6.0 LPA

Ready to start Bioinformatics?

Talk to admissions or download the full brochure to see the complete curriculum.