UMass Chan Medical School Bioinformatics Core

Fall 2026 · UMass Chan Medical School

Learn the methods well enough to judge what AI tells you.

Theory and hands-on training in the omics methods, from bulk RNA-Seq through single-cell to spatial, paired with the responsible use of AI in research. Every technique is worked on a real study from Manuel Garber's lab, run end to end on Foundry Connect.

Question one
Understand the theory well enough to judge AI's output.
Question two
Use AI to go faster without going wrong.
Register Six Fridays, Sep 18 to Oct 23 · 1:00 to 4:00 pm · No prior Linux, coding, or ML experience assumed · Open to all UMass Chan researchers

Joining remotely? Join the Zoom meeting · Meeting ID 917 2809 5714 · The passcode is in your registration email.

The resolution ladder

Three assays, three answers to the same tissue. Each rung buys you resolution and charges you something for it. Knowing which rung answers your question is most of the skill, and it is the spine this course is built on.

RUNG 1 Bulk RNA-Seq one average One number per gene No cells resolved at all + WHICH CELLS RUNG 2 Single-cell RNA-Seq Every cell typed and counted Location destroyed by dissociation + WHERE THEY SIT RUNG 3 Spatial Same cells, still in place Targeted gene panel, not the whole transcriptome
The same tissue, measured three ways. Rungs 2 and 3 contain the identical 35 cells and the identical four cell types: the only difference is that spatial keeps each cell where it was. That is what makes the surface layer and the lower-right immune cluster visible, and it is why a neighborhood question cannot be answered from dissociated data no matter how deeply you sequence it.
AssayWhat it measuresBest forBlind to
Bulk RNA-Seq Average expression over a whole tissue Clean genotype or treatment contrasts, whole transcriptome, most sensitive, cheapest Which cells, and where
Single-cell RNA-Seq Expression per individual dissociated cell Cell types, composition shifts, cell-state heterogeneity Location. Plus dissociation artifacts and sparsity
Spatial (Xenium, seqFISH) Expression per cell in its tissue location Neighborhoods and cell-to-cell circuits in situ Genes outside the targeted panel

Who this is for

Working scientists across domains, not only genomics. Grad students, postdocs, bench researchers, and core-facility users, with mixed to low coding background. If you have never opened a terminal, the first 45 minutes of Session 1 were written for you.

Prerequisites

None

No prior Linux, programming, or machine learning is assumed. Everything runs in a browser.

Bring

A laptop

Mac, Windows, Linux, or a Chromebook. All are fine. Tell us on the form if you do not have one and we will find you a machine.

Accounts

Three, all required

A Foundry Connect account, a Foundry membership, and a UMass Chan HPC cluster account, all in place before the first session. Request an HPC account, and we will help you with the rest.

Commitment

Six Friday afternoons

Sep 18 through Oct 23, 1:00 to 4:00 pm. Hands-on throughout, with light homework. The closing capstone is optional.

Responsible AI is not a lecture at the end. It is its own session and a checkpoint inside every other one, because some people in this room work with patient data, and everyone has something they should not paste into a public tool.

You will never be asked to put real data into an AI tool during this course, and Session 1 covers exactly why.

What you will be able to do

  1. Explain, at an intuition level, how modern AI and LLMs work and where they fail.
  2. Use AI assistants responsibly to speed up literature review, coding, analysis, and writing.
  3. Read and reason about the core statistics and visualizations behind genomics results.
  4. Explain what bulk, single-cell, and spatial each measure, and when to use which.
  5. Run each assay's analysis on Foundry Connect and interpret the output critically.
  6. Apply the discipline: verify, cite, protect data, log for reproducibility.

The sessions

Six Fridays, September 18 through October 23, every session 1:00 to 4:00 pm. Sessions 4 through 6 climb the ladder one rung at a time, and each opens by contrasting itself with the rung below.

After each session, the feedback link on that row takes two minutes and records your attendance.

All sessions are in Amphitheater II (S4-102), except October 16, which moves to Amphitheater I (S2-102).

  1. Session 1
    AI Foundations and Responsible AI

    How language models work and why they are confidently wrong (Eric Ma), how a working bioinformatician flies an AI coding agent (Tommy Tang), then the rules for our data and what an agent looks like on real infrastructure. Setup is pre-work.

    1.0 Before you arrive1.1 Welcome1.2 How AI works1.3 Pilot or passenger1.4 Flight rulesFeedback

    Fri Sep 18 Amphitheater II
    S4-102
  2. Session 2
    Statistics and Visualization You Can Trust

    Tommy Tang on the statistics behind a gene list (p-values, multiple comparisons, FDR, q-values) and the six plot types behind most figures in genomics. The toolkit that lets you catch a wrong answer, from AI or anyone.

    2.0 Get set up2.1 Basic statistics2.2 Six plots2.3 Building with AI2.4 Hands-onFeedback

    Fri Sep 25 Amphitheater II
    S4-102
  3. Session 3
    AI as a Research Co-pilot

    Eric Ma on AI as a research copilot, worked through one enzyme where mutational scan data, structure, prediction, and the literature answer one question together. John Damask on AI coding agents: build your own AI-maintained knowledge base of the literature on your own computer, search papers, and send agents off to research in parallel. Claude Code or Codex CLI in the terminal; installs are pre-work.

    3.0 Get set up3.1 Why a knowledge base3.2 Your own knowledge base3.3 Research copilotFeedback

    Fri Oct 2 Amphitheater II
    S4-102
  4. Session 4
    Bulk RNA-Seq

    Manuel Garber on why differential expression uses models, in four marimo notebooks. Then an AI agent in VS Code sets up an RNA-seq run on Foundry, and you check it and launch it.

    4.0 Get set up4.1 Why DE uses models4.2 Foundry with an agent4.3 HomeworkFeedback

    Fri Oct 9 Amphitheater II
    S4-102
  5. Session 5
    Single-cell RNA-Seq

    Cell types and composition, through the Gellatly vitiligo study and the question of why Tregs fail.

    Fri Oct 16 Amphitheater I
    S2-102
    Room change
  6. Session 6
    Spatial: Xenium and seqFISH

    Tissue circuits in situ, through the Wang photosensitive-skin study and its keratinocyte to fibroblast to myeloid circuit.

    Fri Oct 23 Amphitheater II
    S4-102
  7. Capstone
    Your own research problem Optional

    Apply the whole workflow to something you are actually stuck on.

    To be scheduled

Session 1 recordings

The afternoon of September 18, in the order it was taught. Each video also sits on its own session page.

Session 2 recordings

The afternoon of September 25, in the order it was taught. Each video also sits on its own session page.

#PartWhoLengthFile
1WelcomeAlper Kucukural3 minDownload
2Basic statistics for biologistsTommy Tang36 minDownload
3Master six plotsTommy Tang30 minDownload
4Why stats and plots matterAlper Kucukural1 minDownload
5AI-assisted development of web apps for scienceEric Kercher1 h 11 minDownload
6Hands-on introduction and closingAlper Kucukural6 minDownload

Materials

Each session's plan, slides, and links are published as the course runs. A new session is added every week.

Taught on real studies

No toy datasets. Each domain session teaches its method on a published study from Manuel Garber's lab, with the real data, on the real pipelines. The study supplies the problem; the session is about the technique that answers it.

AssayStudyThe biological question
Single-cell Gellatly et al. 2021
Science Translational Medicine
Which immune subsets expand in vitiligo skin, and why do regulatory T cells fail to control them?
Spatial Wang et al. 2026
Nature Immunology
Where do MMP9-positive myeloid cells sit, and how does a keratinocyte to fibroblast to myeloid circuit drive photosensitivity?

Who teaches it

Instructors

Manuel Garber
Manuel Garber, PhD Professor · Garber Lab, UMass Chan Medical School

Computational biologist studying how the genome controls gene expression, from non-coding RNAs to the immune response. PhD in Mathematics from Brandeis University, then the Broad Institute, where his methods helped discover lincRNAs. Came to UMass Chan in 2012 to start his lab and direct the Bioinformatics Core.

Ozkan Aydemir
Ozkan Aydemir, PhD Co-Director, Bioinformatics Core · Assistant Professor

Co-directs the UMass Chan Bioinformatics Core and oversees its operations. Brings extensive experience in high-throughput sequencing data analysis. Faculty in the Program in Molecular Medicine.

Alper Kucukural
Alper Kucukural, PhD Co-Director, Bioinformatics Core · Associate Professor

Co-directs the Bioinformatics Core. Designs and builds reusable, production-grade bioinformatics pipelines and pipeline generation tools for next-generation sequencing data, supporting researchers across UMass Chan Medical School. Faculty in Genomics and Computational Biology and the Program in Molecular Medicine.

Guest speakers

Eric Ma
Eric Ma Senior Principal Data Scientist, Moderna

Leads the Data Science and AI Research team at Moderna, working on Bayesian methods for drug discovery. PhD from MIT Biological Engineering, previously at Novartis Institutes for Biomedical Research. A core developer on NetworkX and PyMC, and the author of the open-source packages pyjanitor and nxviz.

Ming "Tommy" Tang
Ming “Tommy” Tang Director of Bioinformatics, AstraZeneca

Fourteen years in computational biology across single-cell genomics, epigenomics, and spatial transcriptomics, previously Director of Computational Biology at Immunitas Therapeutics. Teaches bioinformatics to a following of more than 100,000 through the Chatomics newsletter, blog, and YouTube channel, alongside his widely used RNA-seq, ChIP-seq, and scRNA-seq analysis notes.

Eric Kercher
Eric Kercher Scientist, Alys Pharmaceuticals

Scientist working where biomedical imaging meets cancer research, with industry experience at Alys Pharmaceuticals and Nira Biosciences. Previously a postdoctoral researcher at UMass Chan Medical School. PhD in Physics from Northeastern University, focused on photomedicine, nanomedicine, and optical imaging of the tumor microenvironment.

John Damask
John Damask Owner, Amroja LLC

Learner and builder, using AI to shrink the time it takes to bring new ideas into the world. Builds open source and commercial software, and helps life sciences and finance organizations accelerate their AI adoption programs. Previously VP of Digital Science at Flagship Pioneering and Global Head of Cloud at Novartis.

Registration open

Bring a question from your own work.

Six Friday afternoons, September 18 through October 23, 1:00 to 4:00 pm at UMass Chan. Registration takes about three minutes: we ask what you work on and what you already use, so the sessions are pitched at the people actually in the room.

Register for Fall 2026

AI use disclosure

Tools: OpenAI Codex; Anthropic Claude (Claude Code).

What for: Drafting and editing page text, summarizing the guest speakers' materials, and writing the code for this website.

How it was checked: The instructors reviewed and edited everything, checked facts, names, and links against the original sources, and tested the pages in a browser. The instructors are responsible for all content.