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Researcher pipetting reagent into a multi-well plate during a laboratory experiment
AI Industry Solutions

AI for pharma — built around how your scientists and clinical teams actually work.

Custom software platforms for pharma and biotech — research workflows, clinical operations tooling, and AI-assisted analytics — engineered to sit alongside the systems your scientists, clinical operations, and diagnostic teams already run.

Three pillars
Discovery, clinical ops, and diagnostic software
Faster R&D loop
Search, analytics, and tooling in one place
Built to coexist
With the research and clinical systems you run
Faster time-to-decision in R&D
Literature, experiments, and analytics in one place
Workflows that compress the read–write–decide loop for scientists, with data lineage preserved underneath.
Clearer signals for clinical operations
Enrollment, monitoring, and data quality dashboards
Dashboards that surface enrollment, monitoring, and data quality signals as they happen — supporting your trial team’s decisions, not replacing them.
Transparent diagnostic AI
Explainability, confidence, clinician-in-the-loop
Imaging and decision-support software built with explainability hooks, confidence reporting, and clinician-in-the-loop patterns from day one.
Built to coexist
APIs the systems you already run can consume
Designed to coexist with the research and clinical systems you already run, using documented APIs and standard data formats.

Drug Discovery & R&D Software

Custom software for research workflows — data lakes, knowledge graphs, ML-assisted analytics, and laboratory data management. We engineer the platform; your scientists direct the science and decide how the outputs are used.

Clinical Operations Software

Software supporting clinical research operations — cohort discovery on de-identified data, monitoring dashboards, workflow automation, and document tooling. Designed to coexist with your existing clinical systems via documented APIs your IT team controls.

Healthcare AI Software

Custom AI and ML software for healthcare and life-sciences applications — imaging pipelines, decision-support interfaces, and analytics. We build the platform with explainability, confidence reporting, and clinician-in-the-loop patterns. Clinical use, regulatory pathway, and device classification are decided by your team.

Document & Knowledge Tooling

NLP and retrieval-augmented software over your documents — protocols, internal SOPs, scientific literature, correspondence. Returns answers grounded in your sources with citations, supporting your team’s review work without replacing it.

Research Data Foundation

A data fabric across your research and operational sources — schema-level lineage, role-scoped access, and controlled-vocabulary support, so AI and analytics workloads run on data with documented provenance.

MLOps & Model Governance

Model cards, evaluation harnesses, drift detection, retraining gates, and change-control logs — engineering artifacts your QA, IT, and regulatory teams can review as part of your own validation work.

Clearer Signals for Clinical Operations

Software that sits alongside your clinical operations stack, surfacing enrollment, monitoring, and data quality signals as they happen — supporting your trial team’s decisions, not replacing them.

Clinical research coordinator measuring a participant's blood pressure during a study visit

Diagnostic Software Built Transparently

Pathology, imaging, and decision-support software shipped with explainability hooks, confidence reporting, and clinician-in-the-loop workflows — engineered transparently so your clinical and regulatory teams can review the model behind the screen.

Scientist wearing protective eyewear focused on diagnostic work in a research lab
Engineering posture

Engineered with audit, validation, and security awareness for regulated pharma work

Engineering posture aligned with the practices common in 21 CFR Part 11, GxP, HIPAA, GDPR, FDA SaMD, and GMLP environments

Audit-Trail-Aware Engineering

We design platforms so that logging, lineage, and approval gates are first-class engineering features. Your QA team executes the validation; the platform supplies the engineering evidence.

Data Discipline That Supports Your Audit Work

Schema-level lineage, immutable audit records, controlled-vocabulary support, and database-level constraints make research and operational data traceable for your QA reviewers.

ML Lifecycle Artifacts Your QA Can Review

Model cards, training data fingerprints, evaluation harnesses, drift monitoring, and change-control logs — every model arrives with a documented lifecycle your reviewers can read.

21 CFR Part 11GxPHIPAAGDPRFDA GMLPSaMDHL7 FHIRCDISC
The research engine

Three pillars of pharma software on one engineering foundation.

Discovery, clinical operations, and healthcare AI software — each purpose-built — sharing the same engineering core, so your scientists, trial teams, and clinical reviewers all work from the same foundation.

Regulatory-aware design
21 CFR Part 11ICH GCPGxPHIPAAGDPRFDA GMLPSaMDEU AI Act (high-risk health)
Pillar 01

Drug Discovery & R&D Software

Custom platforms for research workflows your scientists direct

  • Search across literature and internal experiments
  • ML-assisted analytics for property and assay data
  • Knowledge graphs over your research sources
  • Research data lake with documented lineage
Pillar 02

Clinical Operations Software

Tooling that sits alongside your clinical stack

  • Cohort discovery on de-identified data
  • Monitoring dashboards and operational alerts
  • Workflow automation for repetitive review work
  • APIs and standard formats for system integration
Pillar 03

Healthcare AI Software

Decision-support interfaces, engineered transparently

  • Imaging pipelines and analytics
  • Decision-support interfaces with confidence reporting
  • Explainability hooks and clinician-in-the-loop patterns
  • Model lifecycle artifacts your reviewers can read
The foundation

One engineering foundation, three software pillars

  • Shared data layer with lineage and controlled vocabularies
  • Common MLOps practice: model cards, evaluation, drift monitoring
  • Patient and subject data segmented and role-scoped at the application layer
  • One engineering foundation across discovery, clinical, and diagnostic software
Discovery → IND → Trials → Submission → Post-market
Faster read–write–decide for scientists
Search across literature, internal experiments, and analytics in one place — with the underlying data lineage preserved.
Clearer signals for clinical operations
Dashboards that surface enrollment, monitoring, and data quality signals as they happen — supporting your trial team’s decisions, not replacing them.
No black boxes near patients
Decision-support and diagnostic software ships with explainability hooks, confidence reporting, and clinician-in-the-loop patterns.
Built to coexist with your stack
Designed to coexist with your existing research and clinical systems via documented APIs and standard data formats — your IT team owns the actual connectors.

Compliance by design

21 CFR Part 11GxP (GLP / GCP / GMP)HIPAA + HITECHGDPRFDA Good Machine Learning Practice (GMLP)FDA SaMD framework (IMDRF)EU AI Act (high-risk health AI provisions)CDISC standards (SDTM, ADaM, ODM)

Engineering artifacts for your validation work

We structure the build so your QA team has the documentation, traceability, and test evidence they need to execute their validation work. We do not perform validation on your behalf.

Data discipline as an engineering default

Schema-level lineage, immutable audit logs, controlled-vocabulary support, and database-level constraints — applied so research and operational data stays attributable and contemporaneous as your QA team reviews it.

PHI / PII segmentation

Patient and subject data is tokenized at the application gateway, scoped by role, and de-identified or synthesized for training wherever the work allows. PHI is kept out of the model layer by default.

Model lifecycle engineering

Model cards, training data fingerprints, evaluation harnesses, drift monitoring, and retraining gates — engineering practices informed by published guidance on responsible machine-learning lifecycles, including FDA GMLP principles.

Identity & access control

Standards-based identity with enforced MFA, role-scoped access for the user populations the platform serves, and least-privilege defaults across modules and APIs.

Cloud infrastructure for regulated environments

Hosted on cloud regions and configurations commonly used for sensitive data work, with private endpoints, infrastructure defined and reviewed via Terraform, and environment promotion gates your team can sign.

Audit-ready on day one

Every component is engineered with audit-trail logging, role-scoped access, lineage tracking, and lifecycle artifacts your QA, IT, and regulatory teams can use as inputs into their own validation work. Final regulatory submission, validation execution, and any clearance pathway (e.g., SaMD classification, 510(k), De Novo, PMA) remain solely the customer’s responsibility, executed by the customer’s regulatory function. Sorento Software does not represent, attest, or warrant compliance with any regulatory framework on behalf of any customer.

Partner agreements in place

BAADPASLA

Faster Time-to-Decision in R&D

Workflows that compress the read-write-decide loop for your scientists — search across literature, internal experiments, and analytics in one place, with the underlying data lineage preserved.

Clearer Signals for Your Trial Team

Dashboards, alerts, and analytics that surface enrollment, monitoring, and data quality signals as they happen — supporting your trial team’s decisions instead of replacing them.

Transparent Diagnostic and Decision-Support AI

Imaging and decision-support software built with explainability hooks, confidence reporting, and clinician-in-the-loop patterns — so your clinical teams understand what the model is suggesting and why.

PHI / PII Handled as a First-Class Engineering Concern

Patient and subject data is segmented, tokenized, and access-scoped at the application layer by default. Training pipelines use de-identified or synthetic datasets wherever the work allows.

No Rip-and-Replace of Your Core Systems

We sit alongside your existing research and clinical systems via documented APIs and standard data exchange formats — adding software capability without forcing you to displace the systems your teams already rely on.

Our Implementation Process

1
Scoped during discovery

Discovery, Use-Case Triage & Engineering Framing

We map your research, clinical, or diagnostic workflows; rank candidate software use cases by feasibility and data readiness; and frame the engineering and integration shape before scoping the build. Regulatory pathway decisions stay with your team.

Use-case scorecard, data readiness audit, engineering and integration outline, prioritized roadmap
2
Phased per engagement

Architecture & Engineering Plan

Design the system architecture, data fabric, model lifecycle, and engineering plan — including audit-trail design, role-scoped access, MLOps practices, and security posture — alongside your IT, security, and QA stakeholders.

Architecture document, data model, MLOps plan, security architecture, integration outline
3
Phased per engagement

Build & Iterate

Iterative full-stack development of the platform — data pipelines, model services, UI, and governance tooling — with engineering artifacts (test coverage, evaluation results, change logs) captured as part of the build.

Working platform, engineering artifact set, model cards, audit-trail dashboards, integration hooks
4
Phased per engagement

Integration & Handoff to Your QA / Regulatory Function

Connect to your existing source systems via documented APIs and standard data formats, run end-to-end UAT with your R&D and clinical operations stakeholders, and assemble the engineering documentation set your QA and regulatory teams need as inputs into their own validation work.

Integration runbooks, UAT sign-off, security test report, engineering documentation set
5
Defined per engagement

Deployment, Hypercare & Lifecycle Operations

Phased rollout to scientists, clinical operations, or diagnostic users. An initial hypercare period covers monitoring, model drift response, retraining considerations, and change-control reviews so the platform stays in a known state as the science evolves.

Production deployment, monitoring dashboards, drift / retraining playbooks, hypercare support

Frequently Asked Questions

Are the AI outputs you deliver ready for our regulatory submissions?

We are a software engineering partner. Validation execution, submission readiness, and regulatory acceptance are owned by your QA and regulatory functions — we do not perform validation or make submissions on your behalf. What we deliver is the platform plus engineering artifacts your team uses as inputs into their own work: audit-trail logs, data lineage, model cards, evaluation reports, and change-control history. Your QA and regulatory teams decide how those artifacts are used.

How do you handle PHI and subject data in clinical AI workflows?

Subject and patient data is tokenized at the application gateway, segmented by sensitivity, and access-scoped by role. Training pipelines use de-identified or synthetic datasets wherever the underlying work allows; PHI is kept out of the model layer by default. Every action is logged with actor, timestamp, resource, and outcome so your reviewers can trace activity through the platform. The engineering practices we apply are aligned with what customers in regulated environments typically expect, but we make no compliance certifications on your behalf.

How does this fit alongside our existing research and clinical systems?

We build platforms designed to coexist with the research, clinical, laboratory, and data systems you already run — using documented APIs and standard data exchange formats (for example, HL7 FHIR R4, DICOM, and CDISC ODM where applicable). Your IT and integration teams own the actual connections into your validated systems. We do not claim partnerships, certifications, or pre-built integrations with any third-party vendor.

Can you build diagnostic software? What about FDA SaMD considerations?

We do not classify, submit, or seek clearance for medical devices on behalf of customers. What we build is custom AI and ML software for healthcare and life-sciences workflows — decision-support interfaces, imaging pipelines, analytics — engineered transparently with explainability hooks, confidence reporting, and clinician-in-the-loop patterns. Final device classification, regulatory pathway, and any FDA interaction are owned and executed by your regulatory function. Our engineering practice is informed by published guidance on responsible machine-learning lifecycles; the regulatory determinations are yours.

What does a typical engagement look like, and how do you scope it?

Engagement scope, timeline, and investment vary by program and are defined during discovery — we do not quote fixed durations or fixed regulatory outcomes on a public page. Discovery is where we map your workflows, audit data readiness, and frame the engineering and integration shape before any production-bound code is written. After discovery, the build is typically phased so the highest-priority capability goes live first and your team can review the platform before later phases land.

How do you address hallucination and black-box risk for clinical and regulatory work?

Our generative and ML pipelines are grounded in retrieval over your verified internal sources (protocols, SOPs, scientific literature, your own documents), return citations alongside answers, and ship with evaluation harnesses that track factuality and drift over time. Diagnostic and decision-support models ship with explainability hooks, confidence reporting, and clinician-in-the-loop patterns. Every model has a documented lifecycle — model card, training data lineage, evaluation results, change history — that your reviewers can read.

Bringing AI into a regulated pharma workflow?

Book a free 30-minute discovery call. We will review your software needs across discovery, clinical operations, or diagnostic tooling, talk through the engineering and integration shape, and outline a realistic scope. Regulatory pathway decisions remain with your team.