The BMW Assembly Line Approach
What you described: simulating 10 years of configurations in days to find optimal setup.
How It Works
- Define objective function (what does 'good' mean?)
- Create simulation environment (virtual testbed)
- Agent takes actions (model generates responses)
- Environment gives reward (score the response)
- Agent updates (learn from feedback)
- Repeat millions of times
Challenges for LARS
The Reward Problem
For BMW: Efficiency is measurable (throughput, cost, time) For LARS: What makes a 'good' response? - Accuracy? (need ground truth) - Helpfulness? (subjective) - Nexus alignment? (need to define)
Possible Solutions
- Human feedback loop (RLHF) - expensive but effective
- AI judge - use Claude to score LARS responses
- Task completion - did LARS accomplish measurable goals?
- Consistency - does LARS give stable, non-contradictory answers?
Simulation Environment for LARS
Simulator:
- Virtual Nexus environment
- Fake user queries
- Task completion scoring
- Response quality metrics
Loop:
1. Generate query
2. LARS responds
3. Score response (AI judge + rules)
4. Update weights via RL
5. Repeat
Reality Check
- RL is compute-intensive (more than supervised learning)
- Reward design is hard (garbage in, garbage out)
- But: can find solutions humans wouldn't think of
- The 72GB VRAM will help for larger RL runs