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The Researcher's Field Guide: Papers, Labs, People, and How to Get Hired

A companion to the Research Frontier Map — core papers, survey papers, and top university labs for each research direction, real career-path profiles of researchers who succeeded in each one, and a look at how frontier labs actually recruit and interview new researchers.

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FrontierAGI Team

How to Use This Guide

The Research Frontier Map mapped what SSI, Thinking Machines, Goodfire, Periodic Labs, Ricursive Intelligence, and the broad-portfolio labs are each betting on. This guide goes one level deeper for someone actually trying to get into research: for each direction, what to read first, which university labs are publishing there, and — critically — real people who built careers in that exact direction, so you can see what the path from "interested in AI" to "publishing frontier research" actually looks like, not just what it should look like in theory.

A note on scope: This guide adds a seventh direction — classic ML/RL foundations — ahead of the six from the Frontier Map, since almost every researcher profiled below started there before specializing. All researcher profiles are real, named individuals with sourced public career histories, not composites.
Direction 1 — Foundations
🧱 Classic Deep Learning, RL & Transformer Foundations
Core Papers
  • Krizhevsky, Sutskever & Hinton, "ImageNet Classification with Deep Convolutional Neural Networks" (AlexNet, 2012) — the paper that made deep learning the field's dominant paradigm.
  • Vaswani et al., "Attention Is All You Need" (2017) — introduces the Transformer architecture underlying nearly every modern LLM.
  • Christiano, Leike, Brown et al., "Deep Reinforcement Learning from Human Preferences" (2017) — the foundational RLHF paper.
  • He et al., "Deep Residual Learning for Image Recognition" (ResNet, 2015) — establishes residual connections, a building block used far beyond vision.
Survey Papers
Top University Labs
Stanford HAIMIT CSAILUC Berkeley BAIRCMU School of CSUniversity of Toronto (Hinton lineage)
Recommended Prerequisite Order
Perceptron → multilayer perceptron → RNN/LSTM → CNN (optional but useful) → Transformer/attention — the sequence most self-taught researchers and university courses follow before tackling frontier papers.
Ilya SutskeverFoundations → Everything

Born in Nizhny Novgorod, Russia; family emigrated to Israel then Toronto. Sutskever went to the University of Toronto as an undergraduate knowing little about AI — he met Geoffrey Hinton there, who gave him a research project improving the Stochastic Neighbor Embedding algorithm. He completed his bachelor's, master's, and PhD in computer science at Toronto under Hinton's supervision.

In 2012, Sutskever built AlexNet with Hinton and Alex Krizhevsky — the ImageNet-winning CNN that established deep learning as computer vision's dominant paradigm and, more broadly, the practical starting point of the modern deep-learning era. After a short postdoc with Andrew Ng at Stanford, he returned to Toronto and joined Hinton's spinoff, DNNResearch — which Google acquired four months later, hiring Sutskever as a research scientist at Google Brain. He went on to co-found OpenAI, become its Chief Scientist, and later found SSI.

The pattern: A single formative undergraduate mentorship (Hinton), one landmark paper written early in a PhD (AlexNet), and an acquisition that converted an academic research group directly into an industry lab — a career shape that recurs across several profiles below.
Direction 2 — Generalization & Continual Learning
🔄 Generalization, Continual Learning & Meta-Learning
Core Papers
Survey Papers
Top University Labs
UC Berkeley (Levine Lab — RL/meta-learning)University of Alberta (Richard Sutton — RL theory)MILA MontrealStanford AI Lab
Ilya Sutskever (continued)SSI's Generalization Thesis

As detailed in this site's full SSI investigation, Sutskever's post-OpenAI research agenda centers explicitly on generalization: he has publicly argued that current LLMs generalize "dramatically worse than people," and has proposed continual learning via an internal "value function" as the mechanism to close that gap — a direct, career-spanning line from AlexNet's supervised pattern-recognition breakthrough to a research bet that current pattern-recognition-based learning itself needs a successor.

The pattern: The researcher who helped build the paradigm is now the one publicly arguing for its limits — a reminder that expertise in a paradigm's foundations is often what makes someone credible when arguing the paradigm has run its course.
Direction 3 — Mechanistic Interpretability
🔬 Mechanistic Interpretability
Core Papers
  • Olah et al., "Zoom In: An Introduction to Circuits" (2020) — foundational framing for mechanistic interpretability as a discipline.
  • Gao, Dupré la Tour et al., "Scaling and Evaluating Sparse Autoencoders" (OpenAI) — key scaling paper for SAE-based interpretability.
  • Rajamanoharan, Nanda et al., "Improving Sparse Decomposition of Language Model Activations with Gated Sparse Autoencoders" (NeurIPS 2024)
  • Lieberum, Nanda et al., "Gemma Scope: Open Sparse Autoencoders Everywhere All at Once on Gemma 2" (2024) — a widely used open interpretability resource.
Survey Papers
Top University Labs / Institutions
Anthropic Transformer Circuits teamGoogle DeepMind interpretability teamMIT CSAIL (interpretability named a 2026 Breakthrough Technology)Goodfire (industry lab, ex-DeepMind interp. team)
Neel NandaInterpretability

Pure maths undergrad at Cambridge (graduated 2020), with quant-finance internships at Jane Street and Jump Trading along the way. After graduating, he weighed quant finance against grad school — but having spent years reading about AI catastrophic-risk arguments, he wanted to work on reducing them directly. He took an offer to work on mechanistic interpretability with Chris Olah at Anthropic, worked there as a language-model interpretability researcher, then did a period of independent interpretability research before joining Google DeepMind's mechanistic interpretability team in 2022.

He joined DeepMind expecting to be an individual contributor — when the team lead stepped down, he stepped up with no prior management experience and ended up running the team at 26. A specific, concrete practice he credits for his early impact: he committed to writing one blog post per day for a month specifically to break through perfectionist paralysis — those posts helped seed the field of mechanistic interpretability as it exists today.

The pattern: No PhD, no formal ML credential — a pure-maths background plus self-directed public writing (not formal publication) built the reputation that got him hired directly into one of the field's most senior interpretability roles. This is a genuinely different path than the PhD-gated route most frontier labs otherwise require.
Direction 4 — World Models
🌐 World Models & Self-Supervised Representation Learning
Core Papers
Survey Papers
Top University Labs / Institutions
NYU Courant Institute (LeCun's academic home)Google DeepMind (Genie team)AMI Labs (LeCun's new venture, Paris)UC Berkeley BAIR (robotics/world models)
Yann LeCunWorld Models

EE diploma from ESIEE Paris (1983), PhD in computer science from Sorbonne Université (1987), followed by a postdoc at the University of Toronto — putting him, like Sutskever, through the Toronto deep-learning lineage early in his career. He joined AT&T Bell Labs in 1988, becoming head of its Image Processing Research Department by 1996, where his work on convolutional networks became foundational to modern computer vision.

He joined NYU in 2003, founding its Center for Data Science (2011-2014), then became founding director of Facebook AI Research in 2013 and Meta's Chief AI Scientist from 2018. Over that period he became an increasingly vocal advocate for self-supervised learning, world models, and energy-based frameworks as an alternative to purely generative, language-model-centric AI. He left Meta in 2025 to found AMI Labs (Advanced Machine Intelligence) in Paris, built explicitly around his world-models research agenda — AI that understands the physical world, not just text.

The pattern: Decades of sustained architectural conviction (convolutional networks, then self-supervised world models) eventually became the founding thesis of an independent lab — a slower-burn, more academically-rooted career arc than Nanda's rapid rise, built on one consistent scientific position held and refined over 30+ years.
Direction 5 — Alignment & Safety
🛡️ Alignment, RLHF & Scalable Oversight
Core Papers
Survey Papers
Top University Labs / Institutions
Anthropic Alignment Science teamUC Berkeley CHAI (Center for Human-Compatible AI)Oxford (Future of Humanity Institute lineage)Australian National University (RL theory)
Jan LeikeAlignment

Undergraduate degree from the University of Freiburg, Germany; PhD in reinforcement learning theory from the Australian National University. He worked as an alignment researcher at DeepMind, where he helped prototype RLHF, before joining OpenAI in 2021 — where he rose to co-lead the Superalignment team, a group explicitly tasked with solving superintelligence alignment within four years, and contributed to InstructGPT, ChatGPT, and GPT-4's alignment work.

He left OpenAI and joined Anthropic in May 2024, the same month, to lead its Alignment Science team. He's best known as a co-author of the 2017 "Deep Reinforcement Learning from Human Preferences" paper — the foundational work behind RLHF, meaning he helped invent the technique he then spent years applying and refining at two different frontier labs.

The pattern: A theoretical RL PhD, not an applied ML one, underpins a career built on inventing then repeatedly deploying one specific alignment technique across multiple organizations — and a direct lab-to-lab transition (OpenAI to Anthropic in the same month) shows how fluidly senior alignment researchers move between the field's top safety-focused teams.
Direction 6 — Domain Science (Materials, Biology, Chip Design)
🧪 AI Applied to Physical & Life Sciences
Core Papers
  • Jumper et al., "Highly Accurate Protein Structure Prediction with AlphaFold" (Nature, 2021) — the AlphaFold2 paper, awarded the 2024 Nobel Prize in Chemistry.
  • Abramson et al., "Accurate Structure Prediction of Biomolecular Interactions with AlphaFold3" (Nature, 2024)
Survey Papers
Top University Labs / Institutions
University of Chicago (protein-folding ML lineage)Google DeepMind science teamIsomorphic LabsPeriodic Labs (industry)Ricursive Intelligence (industry, chip design)
John JumperDomain Science

BS in Physics and Mathematics from Vanderbilt University, an MPhil in theoretical condensed matter physics from Cambridge, then a PhD in Chemistry from the University of Chicago — applying machine-learning techniques specifically to protein dynamics. In between, he spent three years at D.E. Shaw Research building molecular-dynamics simulations, before returning to Chicago in 2011 to apply ML directly to the physics of protein folding, completing his PhD there in 2017.

He joined Google DeepMind in 2017 as a research scientist and led development of AlphaFold2 and AlphaFold3, building new ML architectures specifically to let AI systems learn from biological and chemical data at a level of accuracy that transformed structural biology. He shared the 2024 Nobel Prize in Chemistry for this work, and — notably, as of 2026 — has since joined Anthropic after his time at DeepMind.

The pattern: A physics-and-chemistry-first education, not a pure computer-science one, proved to be the exact right background for domain-science AI — Jumper's edge came from deep physical-science domain knowledge combined with applied ML, not from ML depth alone. His post-Nobel move to Anthropic also shows domain-science talent isn't locked to one lab even after a landmark, career-defining result.
Direction 7 — Human-AI Interaction
🗣️ Human-AI Interaction & Interactivity
Core Reading
Top University Labs / Institutions
Stanford HAI (human-centered AI focus)MIT Media LabThinking Machines Lab (industry)
This is the thinnest-covered direction in this guide. Human-AI interaction research is comparatively new as a distinct frontier-lab priority (largely emerging with Thinking Machines' 2026 work) and doesn't yet have a settled canon of foundational papers, a dedicated survey literature, or a widely recognized individual researcher career-path narrative the way the other six directions do. Treat this section as an emerging area to watch, not an established one to master via a reading list yet.

How Frontier Labs Actually Recruit

Two consistent patterns emerge across the labs studied in the Frontier Map and SSI investigation. First, research-track roles are gated by publication record — Google DeepMind's research scientist track explicitly requires a publication history before applying, and Anthropic's own careers messaging makes clear that warm introductions and visible public contributions (exactly the kind of public writing Neel Nanda used) carry far more weight than cold applications. Second, headcount discipline is deliberate: because these organizations run with minimal middle management (documented in this series' "Inside an AGI Startup Team" articles), a single weak research hire is costly in a way it wouldn't be at a company with more absorbing management layers — raising the effective bar for every hire.

LabTypical RequirementPrimary Sourcing Channel
Google DeepMindPhD normally required for Research Scientist track; publication record expected before applyingAcademic pipeline, published research visibility
AnthropicStrong technical background; safety/alignment research fit assessed explicitlyWarm introductions, visible public research contributions, Anthropic Fellows Program
SSIResearch-level mathematical maturity assumed; "novel algorithmic approaches" focus for Tel Aviv hiresDirect founder-network recruiting, Unit 8200/elite academic talent
GoodfireInterpretability research background (ex-DeepMind, ex-Anthropic, ex-OpenAI common)Direct recruiting from other labs' interpretability teams

The Interview & Selection Process

Based on public reporting, the process at OpenAI and Anthropic — the two labs with the most documented research-scientist hiring pipelines — runs roughly as follows:

1
Recruiter screen (~30 min) — background and fit conversation, common across both labs.
2
Technical screen(s) — one or two rounds testing core technical depth relevant to the specific research area.
3
Take-home component (Anthropic, commonly) — a problem set or small dataset with a roughly 48-hour window, designed to test rigorous thinking under genuine ambiguity rather than a clean, well-specified problem.
4
Research presentation / deep-dive — at Anthropic specifically, a research presentation focused on AI safety, followed by a technical deep-dive on Constitutional AI and alignment methodology for relevant roles.
5
Onsite mixing coding, research design, and behavioral rounds — at OpenAI, this includes rounds specifically probing how a candidate reasons under ambiguity, not just whether they reach a correct answer.
6
Final round with research leadership — the last gate at Anthropic, where research direction fit is assessed at a senior level.

The clearest documented difference between the two labs: Anthropic runs a dedicated safety/values-focused round (research methodology and ethics discussion) that OpenAI does not have as a formally separate stage — at OpenAI, values considerations reportedly surface within the hiring-manager round rather than as their own gate.

What's Missing From This Guide

1
SSI's and Goodfire's actual interview processes are not publicly documented in the same detail as OpenAI's/Anthropic's — the general hiring-pattern signals covered above (Tel Aviv Unit 8200 recruiting, ex-DeepMind interpretability hiring) are the best available public evidence, not confirmed step-by-step processes.
2
Periodic Labs and Ricursive Intelligence have essentially no public researcher career-path narratives or interview details at the level of detail available for the other five directions — both are young enough, and secretive enough about specific hires, that this guide could not surface a named, sourced researcher profile for either.
3
Human-AI interaction research lacks an established academic canon — as flagged in that section, this is the one direction where a fresh researcher genuinely cannot yet follow a reading-list-driven path the way they can for the other six.
4
Compensation-at-offer specifics tied to the actual interview stages (what a specific take-home performance level translates to in an offer) are not publicly disclosed by any lab covered here — this guide's earlier companion article on team compensation gives role-level bands, but not stage-by-stage negotiation dynamics.

A Suggested Starter Reading Path

1
Weeks 1-3: Foundations — work through the perceptron → RNN/LSTM → Transformer sequence, reading AlexNet and "Attention Is All You Need" directly rather than only secondary explanations.
2
Weeks 4-6: Pick ONE of the five specialized directions (Generalization, Interpretability, World Models, Alignment, Domain Science) based on the positioning-quadrant exercise in the Research Frontier Map, and read that direction's core papers plus its most recent survey.
3
Weeks 7-8: Read the real researcher profile for your chosen direction closely — not for inspiration alone, but to identify the specific concrete practice that built their reputation (Nanda's daily public writing; Jumper's cross-disciplinary physics-plus-ML background) and consider whether an equivalent practice is available to you.
4
Ongoing: Build a visible public research trail (blog posts, open-source contributions, small novel experiments) rather than waiting for a formal credential — this is the single most consistent success factor across the real profiles in this guide, from Nanda's blogging to Jumper's applied cross-domain PhD work.
Every real profile in this guide has one thing in common that no reading list alone provides: each person made their expertise visible — through a landmark paper, daily public writing, or a Nobel-level applied result — before a frontier lab hired them for it, not after.

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🧭 Closing — The Reading List Is the Easy Part

🎯 The Bottom Line
Papers, surveys, and lab names are the same for every reader of this guide — what actually separates the researchers profiled here from everyone else who read the same foundational work is that each one made a specific, visible bet: Sutskever's AlexNet paper, Nanda's month of daily public writing, LeCun's three-decade architectural conviction, Leike's repeated deployment of one alignment technique across labs, Jumper's cross-disciplinary physics-to-ML pivot. None of these paths were available as a checklist in advance — they were each a specific person's judgment call about where to spend years of effort, made with less certainty than this guide's tidy hindsight narrative suggests. Use the papers and labs above to get literate fast; use the profiles to notice that the actual differentiator was never the reading list itself.