35 Session 26: Split Track — VC & Secondaries / McKean-Vlasov MFG Proofs
| Unit | 5 — Split Track |
| Track 1 source | Class 27 (Multi-Asset, adapted for VC) + new |
| Track 2 source | Classes 8 (McKean-Vlasov) + 15 (MFG Fixed Point) |
35.1 Track 1: VC + Secondaries Valuation Lab
35.1.1 Track 1 Learning Objectives
By the end of this session, Track 1 students will be able to:
- Apply GE-LAV to a venture capital fund position (different cash flow profile from buyout).
- Adjust the calibration for asset classes with thinner secondary market data.
- Value a specific VC secondary opportunity using GE-LAV.
- Distinguish LP-led from GP-led secondary structures and apply GE-LAV to each.
- Communicate findings to a hypothetical VC GP and IC.
35.1.2 Track 1 Pre-Class Assignment
- Read: VC secondary case (distributed); skim recent Lazard or Evercore VC secondary report
- Try: Platform exercise on a sample VC position
35.1.3 Track 1 In-Class Outline (75 minutes)
| Time | Segment | Format |
|---|---|---|
| 0:00–0:10 | VC vs. buyout: cash flow profile differences | Lecture |
| 0:10–0:25 | Calibrating GE-LAV for VC (parameter adjustments) | Lecture + worked example |
| 0:25–0:50 | Lab: value a real VC secondary opportunity | Group work |
| 0:50–1:05 | LP-led vs. GP-led secondaries | Lecture + discussion |
| 1:05–1:15 | Group recommendations + synthesis | Presentations |
35.2 Track 2: McKean-Vlasov Mean-Field Game Proofs
35.2.1 Track 2 Learning Objectives
By the end of this session, Track 2 students will be able to:
- State and prove the propagation of chaos for the GE-LAV mean-field system (Theorem 13.4).
- Derive the Schauder fixed-point existence argument for MFG equilibrium (Theorem 13.2).
- State and verify the stability condition \(\kappa > \gamma\) for uniqueness (Theorem 13.3).
- Implement an MFG fixed-point iteration numerically.
- Discuss the limits of the framework: when stability fails, what happens.
35.2.2 Track 2 Pre-Class Assignment
- Read: Book Chapter 13 in full, including all proofs
- Pre-read: Carmona & Delarue, Probabilistic Theory of Mean-Field Games, Chapter 1 — at least sections 1.1–1.3
35.2.3 Track 2 In-Class Outline (75 minutes)
| Time | Segment | Format |
|---|---|---|
| 0:00–0:10 | Setup: the GE-LAV McKean-Vlasov SDE | Lecture |
| 0:10–0:30 | Propagation of chaos: statement + proof sketch | Lecture |
| 0:30–0:50 | Schauder fixed-point: existence of MFG equilibrium | Lecture |
| 0:50–1:05 | Stability condition and uniqueness | Lecture |
| 1:05–1:15 | Numerical MFG iteration | Code walkthrough |
35.2.4 Track 2 Discussion Questions
- The propagation of chaos rate is \(1/\sqrt{N}\). At \(N = 10,000\), error is ~1%. But private markets have concentration (a few mega-LPs hold most of the AUM). Does that violate the i.i.d. assumption? How would you account for concentration?
- The stability condition \(\kappa > \gamma\) is satisfied empirically. But in a hypothetical “panic” scenario, could the system enter an unstable regime? What would the off-equilibrium dynamics look like?
- The MFG framework assumes Markov dynamics. Real markets have memory (regret, anchoring). How would non-Markov extensions change the proofs?
35.3 Both Tracks: Cross-Audit
Students in either track may audit the other track’s session via recording. Track 1 students benefit from hearing the MFG existence proof (it explains why GE-LAV works); Track 2 students benefit from the applied VC case (it grounds the math).