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TANDEN
Academy • Platform-in-Development
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Medical Data • Deep Learning • Quantum Computing • Physics-Based Optimization

The applied learning system behind a platform in the making.

TANDEN Academy trains the people who will build, use, and extend AKSHAR INNOVATION's upcoming technology stack. Built for pharma R&D, CRO trial operations, and hospital imaging teams working in clinical-grade environments where reproducibility, validation discipline, and documentation matter.

Platform in Development
Active build phase

TANDEN’s platform is under active development. Academy participants learn using the evolving pipelines, research frameworks, and build standards that will become production systems—helping shape what ships.

Designed for regulated, multi-stakeholder environments
Pharma R&D
CRO Imaging
Hospitals
Core Labs
Research Sites
Innovation Units

What TANDEN Academy Is

TANDEN Academy is the education and workforce layer that prepares teams to build at the intersection of medical AI, quantum methods, and physics-driven optimization. It’s designed to produce practical capability—through structured tracks, repeatable lab workflows, and project-based execution aligned to real clinical and trial constraints.

For Pharma
  • Imaging endpoint and biomarker workflow development
  • Trial stratification and response signal exploration
  • Reproducible documentation and governance discipline
For CROs
  • Standardized imaging QC + endpoint pipelines
  • Reduced cycle time from scan → metric → report
  • Audit-friendly reporting and traceable workflows
For Hospitals
  • Workflow-ready imaging AI pilots and evaluation mindset
  • Cross-functional upskilling (clinical + data + ops)
  • Safety-first validation and monitoring practices

Clinical & Trial Use Cases

These are the types of workflows teams learn to design, validate, and document—so outputs are legible to clinical, trial, and operational stakeholders.

Imaging endpoints

Volumetrics, measurement pipelines, and endpoint-ready reporting.

Multi-site harmonization

Scanner variability, protocol drift, and cross-site robustness practices.

Imaging QC workflows

Quality control patterns that reduce downstream rework and ambiguity.

Segmentation + measurement

Practical pipelines with evaluation discipline and failure-mode thinking.

Real-world evidence readiness

Monitoring mindset, drift awareness, and documentation-first reporting.

Privacy-respecting collaboration

De-identification patterns, access control thinking, and safe sharing norms.

Physics-informed modeling

Constrained modeling approaches for scientific and clinical systems.

Optimization playbooks

Objective design, constraints, and robust evaluation of optimization outcomes.

Audit-friendly reporting

Traceability, reproducibility, and clear “how we got here” documentation.

Governance-First by Design

Regulated environments require more than prototypes. Academy workflows emphasize reproducibility, validation discipline, and documentation—so results are interpretable and defensible across stakeholders.

Reproducibility

Versioning discipline, repeatable experiments, and clear assumptions.

Validation mindset

Robust evaluation, failure modes, and what “good” looks like in context.

Traceable reporting

Audit-friendly narratives: dataset → method → result → limitations.

Note: This describes our operating principles and training practices. Formal compliance claims should only be made if audited/certified accordingly.

Academy Tracks

Tracks are structured around practical workflows and outputs that map naturally to clinical and trial environments.

Medical Imaging & Clinical AI

Build and evaluate imaging models with validation discipline, stakeholder clarity, and real-world constraints.

  • Data pipelines and training workflows
  • Evaluation, robustness, and uncertainty
  • Clinical translation and responsible AI practices

Quantum & Quantum-Inspired Methods

Learn foundations and feasibility thinking—how to map complex problems to methods with defensible tradeoffs.

  • Quantum fundamentals and algorithm concepts
  • Hybrid workflows and near-term approaches
  • Benchmarking, feasibility, and decision frameworks

Physics-Driven ML & Optimization

Objective design, constraints, and robust optimization evaluation for scientific and operational systems.

  • Physics-informed learning approaches
  • Constraint handling and diagnostics
  • Optimization strategy and evaluation discipline

Research Translation & Scientific Writing

Make technical work legible to regulated stakeholders through reproducibility and high-clarity documentation.

  • Problem framing and narrative clarity
  • Reproducibility and reporting standards
  • Proposals, methods docs, and technical storytelling

Programs

A ladder designed for product education while the platform is being built—moving from onboarding to deep project immersion.

Core Onboarding

4 weeks • Cohort-based • Lab-driven

Foundation

Learn the workflows and standards behind clinical-grade work—through labs, reviews, and structured deliverables.

  • Guided modules + hands-on labs
  • Documentation-first deliverables
  • Mentor reviews and milestone feedback

Platform Studio

3–6 months • Project immersion

Advanced

Teams build modules, workflows, and prototype pipelines aligned to clinical and trial realities—helping shape what ships.

  • Long-form, real-world projects
  • Engineering standards + documentation
  • Research-grade rigor, production mindset

Workforce Pathway

For pharma/CRO/hospital teams • Upskilling + alignment

Workforce

A structured pathway for internal teams: role-based learning plans, shared standards, and prototype execution.

  • Role-based learning plans
  • Team execution playbooks
  • Capability evaluation checkpoints

Future Builders

High school track • Inspiration + hands-on

Pipeline

Masterclasses and mentorship for ambitious students exploring AI, physics, and future technologies.

  • Concept-first learning with clarity
  • Project-based mentorship
  • Guidance toward future pathways

A Low-Risk Path to Real Capability

Designed to fit enterprise reality: start small, define success clearly, and build durable team capability alongside outputs.

1) Discovery & Feasibility

2–3 weeks

  • Use-case selection + constraints
  • Data reality check
  • Success metrics + governance plan
2) Cohort Pilot

6–10 weeks

  • Small cross-functional cohort
  • Prototype workflow + documentation
  • Review checkpoints and iteration
3) Scale Readiness

8–16 weeks

  • Multi-site robustness thinking
  • Monitoring + lifecycle planning
  • Capability transfer to internal teams

Clinical & Trial Partner Program

Designed for organizations seeking low-risk pilots, governance-first validation discipline, and workforce readiness ahead of deployment. Partners contribute use-cases and constraints; Academy cohorts build around them with clear deliverables.

Ideal contacts: clinical innovation leaders, imaging core labs, trial operations, translational science, data science leads, and evidence/medical affairs teams.

Partner Inputs
  • Use-cases, constraints, success criteria
  • Data access or simulated environments
  • Domain feedback and review checkpoints
Academy Execution
  • Cohorts trained on partner-aligned workflows
  • Mentor-led milestones
  • Documentation and reporting standards
Partner Outcomes
  • Early access to vetted talent
  • Reusable assets and learnings
  • Clear path from pilot → readiness
Explore partnership
Share your organization type, use case, and timeline—TANDEN will recommend a best-fit pathway.
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Request Access

Tell us whether you’re applying as an individual, an organization, or a clinical/trial partner. We’ll respond with the best-fit pathway and next steps.

Helpful details to include
  • Organization type (pharma / CRO / hospital) and your role
  • Use case and clinical/trial context
  • Data environment (de-identified, multi-site, constraints)
  • Timeline and what success looks like

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