Wil Bishop
Wil Bishop

I build applied
ML Systems that ship.

Specializing in model deployment, data pipelines, and backend systems that scale for production environments.

Python
TypeScript
Go
Rust
C++
Java
Swift
Kotlin
Ruby
PHP
Bash
React
Vue
Angular
Svelte
Astro
Next.js
Tailwind
Bootstrap
HTML5
CSS3
Node.js
FastAPI
Django
Flask
Spring
Postgres
MySQL
MongoDB
Redis
Elastic
Docker
K8s
Terraform
Ansible
Jenkins
GitLab
AWS
GCP
Azure
Nginx
Linux
Git
Python
TypeScript
Go
Rust
C++
Java
Swift
Kotlin
Ruby
PHP
Bash
React
Vue
Angular
Svelte
Astro
Next.js
Tailwind
Bootstrap
HTML5
CSS3
Node.js
FastAPI
Django
Flask
Spring
Postgres
MySQL
MongoDB
Redis
Elastic
Docker
K8s
Terraform
Ansible
Jenkins
GitLab
AWS
GCP
Azure
Nginx
Linux
Git

Delivered for by building that . Built with .

0 → 1 Ownership

Case Study: Failure-Aware ML System

How I built a cost-sensitive classification pipeline that reduced manual review by 68% while maintaining >96% recall on high-risk outcomes.

Phase 1: Problem Framing & Data

Framed the problem as asymmetric loss optimization, not accuracy. Loaded 1.3M Lending Club records with stratified train/val/test splits.

pandas scikit-learn

Phase 2: Cascade Architecture

Built two-stage inference: Logistic Regression gatekeeper for fast "easy" decisions, XGBoost specialist for uncertain cases.

XGBoost Threshold Tuning

Phase 3: Three-Way Triage

Implemented Pass/Defer/Reject decision policy. Optimized thresholds for expected business loss, not accuracy.

Cost Matrix Calibration

Phase 4: Validation & Impact

Validated on held-out test set. System achieves 98.7% recall while automating 67% of decisions—68% reduction in manual review.

Outcome: 32% reduction in high-cost false negatives with bounded precision trade-offs.

Key Tradeoffs

  • vs Threshold Policy over Model Complexity: Decision policy dominates representation under asymmetric loss. Tuning thresholds beat adding model layers.
  • vs Cascade over Single Model: Two-stage inference lets fast gatekeeper handle easy cases, reserving expensive specialist for uncertain inputs.
  • vs Defer over Force Decision: Three-way triage (Pass/Defer/Reject) acknowledges uncertainty rather than forcing bad predictions.

What I Cut (Scope Discipline)

"Optimize for decision quality, not model sophistication."

  • No deep learning (XGBoost sufficient for tabular)
  • No real-time inference (batch decisions OK for credit)
  • No automated retraining (concept drift v2 roadmap)

Stack for this role:

Selected Projects

Focused on bridging the gap between innovative research and production-grade software performance.

Archives on GitHub

Systemic Lifecycle

How I think about building end-to-end ML products.

1

Ingestion & Data Flow

Automated pipelines that ingest terabytes of raw data, ensuring high fidelity and low-latency storage.

Spark, Kafka, Snowflake
2

Training & Optimization

Scalable training loops with distributed GPU support and integrated hyperparameter tuning.

PyTorch, CUDA, Horovod
3

Evaluation & Validation

Rigorous testing frameworks that detect drift, bias, and edge-case failures before deployment.

MLflow, Weights & Biases
4

Deployment & Inference

Optimized model serving using TensorRT and Triton for sub-millisecond response times.

K8s, Triton, FastAPI
5

Monitoring & Observability

Full-stack monitoring of model performance and hardware health in live production environments.

Prometheus, Grafana

Publications & Research

Subtrajectory Clustering with ML on QC

SSTDM25 - Short Paper (Camera Ready)

Key Contributions

  • Integrated Quantum Machine Learning kernels into traditional clustering workflows.
  • Developed a novel distance metric for high-dimensional subtrajectory similarity.
  • Optimized tensor network contractions, achieving 40% speedup in simulation.

My Role

  • Lead developer for the open-source implementation in Python & Qiskit.
  • Designed and executed large-scale benchmaring across 4 synthetic datasets.
  • Authored the methodologies and results sections for the final manuscript.

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