Skip to content

The Circuit

From foundations to contribution.

The Circuit is the fellowship's 12-month educational and professional sequence. It connects forms of knowledge that are too often separated: foundational inquiry and applied work, mathematical structure and software, individual study and professional collaboration.

01

The movement

Understand → Formalize → Build → Test → Reflect → Contribute

The central movement is iterative. A returning line connects Contribution to Foundations, expressing that practice generates new questions and further study.

The Circuit, as a loopFour phases arranged as a closed loop: Foundations, Models and Code, Applied Practice and Contribution. A returning line runs from Contribution back to Foundations. The calendar table below states the same sequence in full.01 FOUNDATIONS02 MODELS AND CODE03 APPLIED PRACTICE04 CONTRIBUTION

The diagram states the four phases and the return. The calendar below states the same sequence with its durations and purposes.

Recommended calendar
StageDurationPurpose
Orientation and individual map2 weeksEstablish goals, funding plan, baseline and mentor relationship
I. Foundations10 weeksDevelop common mathematical, logical and intellectual foundations
II. Models and Code12 weeksExpress structures through computation and modeling
III. Applied Practice16 weeksWork on real problems under practical constraints
IV. Contribution8 weeksComplete, defend and publish or present substantial work
Breaks and transitions4 weeksAccommodate academic calendars and recovery
02

Orientation and individual map

Each fellow begins with a map of their own year.

  • An intellectual and technical baseline
  • Educational and professional goals
  • An individual use-of-funds plan
  • A named primary mentor
  • A reading and skills plan
  • A definition of likely capstone territory
  • Agreement on milestones and communication
03

I. Foundations

10 weeks. Common mathematical, logical and intellectual foundations.

Possible areas

  • Logic and proof
  • Linear algebra
  • Probability and uncertainty
  • Discrete mathematics and algorithms
  • Functions, change and modeling
  • Systems thinking
  • The intellectual history of formalization and computation
  • Analytical writing and argument

Outcomea foundation map and a short piece of rigorous explanatory work.

04

II. Models and Code

12 weeks. Expressing structures through computation and modeling.

Possible areas

  • Python and/or JavaScript
  • Data structures and algorithms
  • Data modeling and visualization
  • Optimization
  • Probability and statistical modeling
  • Machine-learning foundations
  • Software architecture
  • Version control, testing and reproducible work
  • Model limitations, interpretation and governance

Outcomea working model, application or technical study with documentation.

05

III. Applied Practice

16 weeks. Real problems under practical constraints.

Possible areas

  • Product and problem definition
  • Translating organizational needs into technical systems
  • Business models and unit economics
  • Operations and process modeling
  • Data and decision infrastructure
  • Research under constraints
  • Communication with nontechnical stakeholders
  • Ethics, accountability and institutional consequences

Outcomementored project work on a real or realistically constrained problem.

The fellow's education remains primary. Project work must not become inexpensive labor for Ramsey Theory Group or a partner.

06

IV. Contribution

8 weeks. Substantial final work, completed and defended.

Final work may be

  • A research paper
  • A mathematical or computational model
  • A software application
  • A technical system or prototype
  • An interdisciplinary essay with a formal or technical component
  • A business or institutional model supported by data and code
  • A teaching module or public explanation of difficult material

Required elements

  • A written account of the problem and method
  • A demonstrable artifact or argument
  • A public or committee presentation
  • Questions and defense
  • Reflection on limits and next steps
  • An academic or professional transition plan
07

Teaching format

The circuit is taught through a mixture of forms rather than a single mode of instruction.

  • Small seminars
  • Individual tutorials
  • Technical workshops
  • Guided reading
  • Project studios
  • Practitioner conversations
  • Peer critique
  • Mentor reviews
  • Independent work
08

Program principles

  1. Foundations before fashionable tools.
  2. Theory and application continuously inform one another.
  3. Writing is part of technical competence.
  4. Fellows build, but also explain and defend.
  5. Practical work should preserve intellectual depth.
  6. Difficulty is met with support, not lowered standards.
  7. Every fellow leaves with work that can be examined.
Circuit delivery. Required weekly commitment; whether the year is in person, hybrid or remote; which components are New York-based; required technical prerequisites; confirmed instructors and mentors; which modules are required versus individualized; who approves capstones; whether capstone work is public by default or only with consent; and what completion recognition is awarded.