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Reading room

The papers we build on, and what to do with them.

A working reading list on preventive immunology and AI-guided discovery. Every entry carries its real citation, says plainly what the study found, and names one project a student can start with a laptop and public data. No wet lab required.

18

papers, each verified against PubMed

14

with a free full text you can read today

5

tracks, from prevention trials to open data

Why this page exists

Most research reading lists are written for people who already have a lab. This one is not. It is the list we wish someone had handed us: the trials that proved prevention works, the mechanisms that explain why allergic disease keeps rising, the AI methods that put structural biology within reach of a small team, and the free databases that make all of it reproducible.

Each entry ends with a project that is genuinely doable by a high-school or undergraduate student. Some are analyses. Some are careful critiques. Several are simply writing something true in plain language, which the field needs more than it admits. If you finish one and want it reviewed, send it to us.

The list is maintained, not frozen. Citations were last checked against PubMed in October 2026. If you find an error, tell us and we will correct it in public.

Track
Level
Access

18 of 18

T-01

Prevention that already works

The trials that proved allergic disease can be prevented, not only managed. Start here: these papers set the standard every new idea has to beat.

  1. R-01Randomized trialEntryFree full text

    Follow-up to Adolescence after Early Peanut Introduction for Allergy Prevention

    Du Toit G, Huffaker MF, Radulovic S, et al.

    NEJM Evidence · 2024

    What it found

    Children who ate peanut from infancy to age five were followed to age twelve. At 144 months, peanut allergy was present in 4.4 percent of the early-eating group and 15.4 percent of the avoidance group. Protection held even though many children went years without eating peanut.

    Why it matters here

    This is the clearest existing proof that a cheap, early, non-pharmaceutical intervention can produce durable immune tolerance. It is the benchmark for what we mean by long-lasting and affordable.

    Student project

    Read the trial alongside its original 2015 report and chart how the primary endpoint, the population, and the claimed effect changed across three publications. Writing that history accurately is a real contribution and needs no lab.

  2. R-02Randomized trialIntermediateAbstract free

    Early food intervention and skin emollients to prevent food allergy in young children (PreventADALL)

    Skjerven HO, Lie A, Vettukattil R, et al.

    The Lancet · 2022

    What it found

    A four-arm trial in Norway and Sweden tested introducing peanut, milk, wheat and egg from three months of age, applying skin emollients from two weeks, both, or neither. Early food introduction reduced food allergy at three years. The emollient arm did not.

    Why it matters here

    A negative result published as loudly as a positive one. It tells us that feeding the gut and greasing the skin are not interchangeable, and it is a model for the honesty we want in our own reporting.

    Student project

    Build a side-by-side table of the four major infant-feeding prevention trials covering their populations, doses, timing, and outcomes. Disagreements between trials are usually design differences, and finding them teaches you to read a methods section.

T-02

Making treatment durable

Immunotherapy and antibody trials that ask the question we care most about: how long does protection last once you stop paying for it?

  1. R-03Randomized trialIntermediateFree full text

    Omalizumab for the Treatment of Multiple Food Allergies

    Wood RA, Togias A, Sicherer SH, et al.

    The New England Journal of Medicine · 2024

    What it found

    An anti-IgE antibody given for 16 to 20 weeks let 67 percent of treated children tolerate 600 mg of peanut protein without dose-limiting symptoms, against 33 percent on placebo, with protection extending to other foods at the same time.

    Why it matters here

    It treats several allergies at once by hitting a shared mechanism rather than one food. That is exactly the leverage we look for. It is also expensive and must be re-dosed, which is exactly the problem we exist to solve.

    Student project

    Model the lifetime cost of injected anti-IgE therapy against a hypothetical one-course durable treatment, using published list prices and dosing schedules. A clear cost model is a legitimate contribution to the access argument.

  2. R-04Randomized trialEntryAbstract free

    Phase 3 Trial of Epicutaneous Immunotherapy in Toddlers with Peanut Allergy

    Greenhawt M, Sindher SB, Wang J, et al.

    The New England Journal of Medicine · 2023

    What it found

    A wearable peanut patch worn daily for twelve months raised the reaction threshold in 67 percent of one-to-three-year-olds against 33.5 percent on placebo. Adverse events occurred in essentially every child in both groups, most of them local skin reactions.

    Why it matters here

    Delivery route is a design choice with enormous consequences for cost, cold chain, and whether a family in a rural clinic can use the thing at all. A patch is a template for access-first design.

    Student project

    Compare the three delivery routes now in trials, oral, epicutaneous, and injected, on efficacy, adverse events, and burden on the family. Present it as a decision table a parent could actually read.

  3. R-05Randomized trialIntermediateFree full text

    Efficacy and safety of oral immunotherapy in children aged 1–3 years with peanut allergy (IMPACT)

    Jones SM, Kim EH, Nadeau KC, et al.

    The Lancet · 2022

    What it found

    Peanut oral immunotherapy in toddlers was tested for desensitization at 134 weeks and, critically, for remission after a further 26 weeks off treatment. Separating those two endpoints is the point of the trial.

    Why it matters here

    IMPACT is where the field learned to distinguish protection while on a drug from tolerance that survives stopping it. Program P-02 is built on that distinction.

    Student project

    Write a plain-language explainer, under 800 words, on the difference between desensitization and remission, using this trial's own numbers. Families routinely get this wrong, and clear writing is a public-health intervention.

T-03

Barriers, microbes, and memory

Why allergic disease is rising. Skin and gut barriers, the microbiome of the first thousand days, and the discovery that innate immunity remembers.

  1. What it found

    An argument that detergents, surfactants, microplastics, pollutants and processed food damage the skin, gut and airway linings, and that this damage drives the global rise in allergic and autoimmune disease.

    Why it matters here

    If barrier damage is upstream of the disease, prevention means fixing the barrier rather than suppressing the immune response downstream. This single idea shapes our whole target-selection logic.

    Student project

    Pick one proposed barrier-damaging exposure and trace the evidence behind it to its primary sources. Many claims rest on a handful of in-vitro studies, and documenting which is which is genuinely useful.

  2. R-07ReviewEntryFree full text

    Gut microbiome in the first 1000 days and risk for childhood food allergy

    Davis EC, Monaco CL, Insel R, et al.

    Annals of Allergy, Asthma & Immunology · 2024

    What it found

    Children who went on to develop food allergy had fewer Bifidobacterium and Clostridia species and a less mature infant microbiome. The protective effect appears to run through anti-inflammatory metabolites and regulatory T cells.

    Why it matters here

    It names a window, roughly conception to age two, in which prevention is plausible and cheap. A foundation with no bench can still do serious work on when to intervene.

    Student project

    Reproduce a published infant-microbiome comparison using a public dataset. The sequencing data is already free, and redoing someone's analysis is the fastest way to learn computational biology.

  3. R-08Cohort or mechanismAdvancedFree full text

    Therapeutic responses to Roseomonas mucosa in atopic dermatitis may involve lipid-mediated TNF-related epithelial repair

    Myles IA, Castillo CR, Barbian KD, et al.

    Science Translational Medicine · 2020

    What it found

    Topically applying a harmless skin bacterium to fifteen children with eczema was associated with reduced severity, better barrier function, less Staphylococcus aureus, and lower steroid use. Improvement persisted up to eight months after treatment stopped.

    Why it matters here

    A living organism, grown cheaply, with an effect that outlasts dosing. That is close to the shape of the intervention we are trying to find, and the authors are careful to call it a signal, not proof.

    Student project

    Write a critical appraisal of why an uncontrolled trial in fifteen children cannot establish efficacy, and specify the trial design that would. Learning to say what a study does not show is the most valuable skill in this field.

  4. R-09ReviewAdvancedAbstract free

    Trained immunity: General and emerging concepts

    Vuscan P, Kischkel B, Joosten LAB, et al.

    Immunological Reviews · 2024

    What it found

    Innate immune cells, long assumed to have no memory, can be durably reprogrammed through metabolic and epigenetic changes so they respond more strongly to later challenges.

    Why it matters here

    Long-lasting immune change without a long-lasting drug. If a single exposure can rewire innate cells for months, durability becomes a biological property rather than a formulation problem.

    Student project

    Diagram the epigenetic mechanism from this review accurately enough that a classmate with one year of biology can follow it. Teaching a mechanism is the test of whether you understand it.

T-04

AI that predicts and designs

The models that changed what a small team can attempt. Structure prediction, protein design, repurposing, and generative chemistry.

  1. R-10MethodIntermediateFree full text

    Accurate structure prediction of biomolecular interactions with AlphaFold 3

    Abramson J, Adler J, Dunger J, et al.

    Nature · 2024

    What it found

    A single diffusion-based model predicts the joint structure of proteins together with nucleic acids, small molecules and ions, beating specialized docking tools at protein-ligand prediction and earlier methods at antibody-antigen prediction.

    Why it matters here

    Structural biology used to be the expensive gate between an idea and a testable hypothesis. It is now largely a compute problem, which is why a foundation this small can run a discovery program at all.

    Student project

    Predict the structure of a known allergen bound to an antibody, then compare it against the experimental structure in the Protein Data Bank and measure the error yourself. The server is free for non-commercial use.

  2. R-11MethodAdvancedFree full text

    Boltz-1: Democratizing Biomolecular Interaction Modeling

    Wohlwend J, Corso G, Passaro S, et al.

    bioRxiv preprint · 2024

    What it found

    An open-source model reaching AlphaFold 3-level accuracy on biomolecular complexes, released with training code, inference code, weights and benchmarks under the MIT license.

    Why it matters here

    Open weights are the difference between reading about a method and running it. Everything we build has to be reproducible by a lab that cannot sign a commercial license.

    Student project

    Install it and reproduce one benchmark result from the paper on a free cloud GPU. Documenting exactly where the setup instructions break is a contribution the maintainers will accept as a pull request.

  3. R-12MethodAdvancedFree full text

    De novo design of protein structure and function with RFdiffusion

    Watson JL, Juergens D, Bennett NR, et al.

    Nature · 2023

    What it found

    A diffusion model generates new protein backbones to order, including binders designed against a chosen target. Hundreds of designs were made and experimentally characterized, and a cryo-EM structure of one binder matched its design model almost exactly.

    Why it matters here

    Designing a protein that blocks a specific allergic pathway is no longer science fiction. The expensive part is now synthesis and testing, which is precisely where a partner lab earns its place.

    Student project

    Work through the public tutorial notebooks and design a binder against a target of your choosing. You will not be able to test it, and understanding why that gap matters is half the lesson.

  4. R-13MethodIntermediateFree full text

    A foundation model for clinician-centered drug repurposing

    Huang K, Chandak P, Wang Q, et al.

    Nature Medicine · 2024

    What it found

    A graph neural network trained on a medical knowledge graph ranks existing drugs as candidate treatments for 17,080 diseases, including diseases with no approved therapy, and explains each prediction as a path through the graph.

    Why it matters here

    Repurposing an approved drug skips most of the $2.6 billion and most of the decade. For a foundation chasing affordability, it is the single highest-leverage computational method in this list.

    Student project

    Run the released model on an allergic or atopic condition and check its top predictions against trials registered on ClinicalTrials.gov. Agreement is encouraging; disagreement is more interesting.

  5. R-14MethodAdvancedFree full text

    A generative deep learning approach to de novo antibiotic design

    Krishnan A, Anahtar MN, Valeri JA, et al.

    Cell · 2025

    What it found

    Generative models screened over ten million chemical fragments in silico and proposed new antibacterial compounds. Of 24 compounds synthesized, seven were selectively antibacterial and two cleared multidrug-resistant infections in mice.

    Why it matters here

    A full loop from generated molecule to animal efficacy, reported with its real hit rate. Seven out of twenty-four is the honest number that tells you what AI-first discovery actually costs.

    Student project

    Trace the funnel from fragments screened to compounds that worked in animals, and calculate the attrition at every stage. That single number is the most useful thing a newcomer can learn about drug discovery.

T-05

Open data and tools you can use today

Resource papers. Each one describes a free database or benchmark you can open in a browser this afternoon and query from Python tonight.

  1. R-15ResourceEntryFree full text

    Open Targets Platform: facilitating therapeutic hypotheses building in drug discovery

    Buniello A, Suveges D, Cruz-Castillo C, et al.

    Nucleic Acids Research · 2025

    What it found

    A free, open-source knowledge base linking genes to diseases, with a target prioritization view scoring clinical precedence, tractability, doability and safety, and an assessment of whether a variant's effect raises or lowers risk.

    Why it matters here

    This is the backbone of Program P-01. Target ranking used to require a pharmaceutical company's data licenses. It now requires a browser.

    Student project

    Pull the top-ranked targets for atopic dermatitis and food allergy, then annotate each with whether a drug already exists against it. That ranked, annotated list is a genuine first deliverable.

  2. R-16ResourceEntryFree full text

    NCBI GEO: archive for gene expression and epigenomics data sets, 23-year update

    Clough E, Barrett T, Wilhite SE, et al.

    Nucleic Acids Research · 2024

    What it found

    A public archive holding over 200,000 studies and 6.5 million samples, now with consistently computed gene expression count matrices for thousands of RNA-seq studies and browser-based differential expression tools.

    Why it matters here

    Decades of immunology experiments, already paid for, already public, mostly unreanalyzed. Our entire first program rests on the premise that this data has more in it than has been taken out.

    Student project

    Find every public eczema skin-biopsy dataset, compare the genes each study reported as changed, and identify the ones that replicate across studies. Replication across independent cohorts is where real targets come from.

  3. R-17ResourceIntermediateFree full text

    Artificial intelligence foundation for therapeutic science (Therapeutics Data Commons)

    Huang K, Fu T, Gao W, et al.

    Nature Chemical Biology · 2022

    What it found

    A collection of curated datasets, standardized tasks and leaderboards spanning the stages of drug discovery, built so that competing machine-learning methods can be compared on identical footing.

    Why it matters here

    It answers the question that stops most newcomers: which method should I use. Shared benchmarks are how a field stops arguing and starts improving.

    Student project

    Pick one benchmark task, run the simplest possible baseline, and see how far below the leaderboard you land. Knowing the gap between a naive model and the state of the art calibrates everything you do afterward.

  4. R-18ReviewEntryFree full text

    Artificial intelligence in pediatric allergy research

    Lisik D, Basna R, Dinh T, et al.

    European Journal of Pediatrics · 2024

    What it found

    A practical guide to running machine-learning studies in pediatric allergy, covering core concepts, how to structure an analysis pipeline from variable selection to interpretation, and the common pitfalls. It notes that most work so far has used simple single-source data and reported its methods poorly.

    Why it matters here

    The best entry point in this list. It is the paper we would hand a new volunteer on their first day, and its critique of weak methodology is the standard we hold ourselves to.

    Student project

    Read it first. Then audit three of the studies it cites against its own pitfalls checklist and write up what you find.

How to read one

Five habits that make a paper give up its secrets.

Nobody reads a research paper front to back on the first pass. These are the moves that turn an intimidating PDF into something you can argue with.

Abstract, then figures, then methods

Read the abstract for the claim and the figures for the evidence. Only then read the methods, which is where the claim either holds up or quietly falls apart.

Find the number that matters

Almost every paper rests on one comparison. Locate it, write it down in your own words, and check that the abstract describes it fairly.

Ask what would have falsified it

If no result could have contradicted the authors' conclusion, you are reading an argument, not an experiment. Both are useful, but they are not the same.

Chase one citation backward

Pick the claim the paper treats as settled and read the source it cites for it. This is where most surprises live.

Write 200 words before you move on

What it found, what it did not show, and what you would do next. If you cannot write it, you have not finished reading it.

Finished one of these projects?

Send it to us. Work that holds up gets published in our journal with your name on it, and the strongest contributors are invited onto the 2026 program.

Send us your work