
Machine learning development services for healthcare across prediction, forecasting, and operational analytics. Build, deploy, and monitor ML with Logiciel.
We combine data engineering, model development, software integration, and MLOps for healthcare prediction, capacity planning, clinical-adjacent decision support, and administrative workflows.
defining the prediction target, intended action, measurable outcome, and acceptable error trade-offs before training
building validated datasets and feature pipelines from approved EHR extracts, scheduling events, claims, operational records, and de-identified datasets where appropriate, with lineage, permissions, and leakage checks
comparing transparent baselines, classical machine learning, deep learning, and other methods against quality, explainability, latency, and operating cost
assessing sensitivity, specificity, calibration, subgroup performance, false-alert burden, and time-based validation using clinically appropriate review criteria; comparing baselines and representative time-aware scenarios to reveal failure patterns before release
connecting predictions to clinical or administrative applications, APIs, batch pipelines, and human review steps without giving the model unapproved decision authority
versioning datasets, features, code, experiments, artifacts, deployments, monitoring, rollback, and retraining decisions through MLOps practices
monitoring input drift, missing records, model performance, subgroup variation, false-alert rates, and data-access or integration failures and adjusting the system based on observed outcomes
Data, ML, software, cloud, and QA engineers work across data readiness, experimentation, model development, deployment, monitoring, and integration into your existing systems.
Specialists strengthen your team across feature engineering, modeling, evaluation, application integration, MLOps, and production troubleshooting.
A focused engagement builds or improves one predictive model or ML-backed workflow against agreed data, quality, deployment, and operational criteria.
We define the clinical or operational decision, data availability, label quality, access constraints, reviewer responsibilities, and the cost of prediction errors.
We build permission-aware, validated datasets from approved sources, with time-based feature definitions, lineage, missingness checks, and leakage prevention.
We establish interpretable baselines, compare suitable algorithms, and track experiments against workflow-specific outcomes rather than headline accuracy alone.
We assess sensitivity, specificity, calibration, subgroup variation, false-alert burden, robustness, and clinically relevant failure patterns.
We connect predictions to authorized applications and professional review steps, with clear thresholds, traceability, and escalation paths.
We implement versioned datasets, model registries, CI/CD, batch or online inference, monitoring, rollback, and controlled model updates.
We monitor drift, input quality, performance, subgroup variation, service reliability, and defined criteria for review or retraining.
A framework for mapping intended use, prediction error, professional oversight, protected data, and escalation needs before deployment.
A checklist for encounter timing, labels, coding changes, train-test splits, missingness, and representative validation cohorts.
A method for distinguishing patient-population shifts, workflow changes, data pipeline incidents, and justified model updates.
We identify the healthcare workflow, intended prediction, reviewer, operational or clinical impact, data boundaries, and measurable success criteria.
We assess approved health and operational data, align event timing, validate labels, prevent leakage, and establish realistic baseline models.
We train suitable approaches, compare baseline performance, analyze errors and uncertainty, and select the model that meets the workflow's actual requirements.
We build serving or batch pipelines, connect authorized application workflows, establish release checks, and validate performance, monitoring, and rollback.
We track data quality, drift, predictions, real-world outcomes, latency, and operational cost while reviewing whether model updates are justified.



Teams that needed to ship fast, and did. Here's what partnering with Logiciel felt like from the inside.
They cover defining a predictive task, preparing data, developing and evaluating models, integrating predictions into software, deploying the system, and monitoring performance in production.
Machine learning often focuses on prediction, classification, ranking, forecasting, or anomaly detection. Generative AI focuses on creating content or responses. Some applications combine both, but their evaluation and operating requirements differ.
It depends on the task, signal quality, label availability, model complexity, and acceptable error. We assess feasibility and establish baselines before promising a specific performance level.
We choose metrics that reflect the task and error costs, such as precision, recall, calibration, ranking quality, forecast error, or decision impact, and validate them using appropriate data splits.
Yes. Models can be served through APIs, batch jobs, event pipelines, or other application patterns with access controls, validation, monitoring, and rollback.
We monitor data quality, feature availability, prediction distributions, outcome performance, service health, and drift, then use defined criteria to investigate or retrain.
Machine learning can support clinical workflows with validated signals, but it should not be assumed to replace professional judgment. We design the intended use, review steps, escalation, and appropriate safeguards around the actual healthcare application.
Bring us the prediction or decision you want to improve across appointment demand, workflow risk signals, revenue-cycle operations, or staff planning. We will assess the data, model approach, integration, and delivery path.