Report positive fraction, MFI, state response and robustness
Promoter & enhancer design loop
How mu and jacky turn promoter and enhancer evidence into combinations, predictions, wet-lab results and a better model
Specificity first · Strength alone is not success
A candidate advances only when the underlying ON and OFF measurements remain visible
Normal and malignant B/plasma states are separate hard gates
The model must say when an experiment is needed to learn—not pretend certainty
Evidence → combination → prediction → experiment → learning
1Evidence Papers, patents and scientific judgment
2Enhancers Sequence, provenance, rights and intended cell state
3Combine Enhancer × fixed core promoter with explicit controls
4Predict Activity, leakage and calibrated uncertainty
5Select Balance best predictions, information gain, diversity and controls
6Test Run the matched assay without dropping failures
7Compare Compare predictions with values, ranks and failure modes
8Learn Calibrate the model and choose the next informative batch
mu leads science and wet lab, jacky leads data, AI and platform
mu
- Nominate promoter and enhancer candidates with biological rationale
- Provide papers, patents, exact sequences and source provenance
- Explain which motifs, cell states and mechanisms may drive specificity
- Define target T-cell ON states and normal or malignant OFF states
- Choose biological controls, assay conditions and pass thresholds
- Review synthesis, vector and wet-lab feasibility before batch lock
- Run matched experiments across replicates, donors and time points
- Return raw measurements, QC, failures and biological interpretation
jacky
- Archive and structure papers, patents, sequences and usage rights
- Create a versioned promoter and enhancer parts library
- Generate combinations with explicit baselines and motif controls
- Run model features and predict ON activity, OFF leakage and specificity
- Report uncertainty and flag candidates that require experiments
- Select a batch balancing top scores, information gain and diversity
- Issue the construct and assay handoff with complete provenance
- Compare predictions with raw results, update the model and choose the next batch
Earn the right to generate de novo
Use supervised ranking, pairwise learning-to-rank, Bayesian optimization, active learning and uncertainty calibration · Reinforcement learning is not required at small batch sizes
Output: increasingly useful rankings in a controlled enhancer × promoter space