Live Online - Starts May 25, 2026

Prompt Engineering Masterclass for Physicians

Clinical Practice + Research/Academic Medicine + Healthcare Leadership | 16 Hours
Master AI Prompting Systems That Are Ethical, Evidence-Based, and Patient-Safe

16 Hours Live
Blended Virtual + Self-Paced
16 AMA PRA Category 1 Credits
HIPAA Compliant
$450 $997 Early Bird - Ends April 30
Enroll Now - Save $547
00Days
00Hours
00Min
00Sec
DOD SEC US Navy CISA Northrop Grumman MedStar Citi ISACA DISA PBGC Aflac CareFirst Verizon Washington Suburban

Built by Experts for Physicians

In an era where AI is transforming clinical decision support, medical research, documentation, and health system operations, physicians must evolve from AI observers to AI-literate clinical leaders. This 16-hour intensive masterclass equips Medical Doctors (MDs/DOs) with advanced prompt engineering frameworks and AI governance competencies needed to harness Large Language Models (LLMs) responsibly, efficiently, and defensibly across all domains of medical practice.

Every session combines universal prompt engineering principles with three parallel practice tracks:

Clinical Practice / Patient Care Research / Academic Medicine Healthcare Leadership / Admin
HIPAA AMA Ethics ACGME GRADE CME Credit

Before vs. After

Clinical Decision-Making

Uncertain when to use AI for clinical decisions; concerned about liability and ethics
Confidently architect medical prompts that produce evidence-based, patient-safe, defensible outputs

AI Output Quality

Prompting by trial-and-error; AI outputs require heavy editing, cannot be trusted for patient care
Validate AI outputs using clinical skepticism and evidence triangulation, reducing diagnostic error

AI Tool Evaluation

No clear frameworks for evaluating AI tools for clinical decision support or research
Evaluate AI systems for reliability, bias, explainability, and integration safety

Documentation & Compliance

No systematic way to validate, document, or defend AI-assisted work under scrutiny
Auto-redact PHI, generate disclosures, maintain defensible documentation trails

Workflow Efficiency

Feeling reactive as AI transforms medicine faster than medical education evolves
Build reusable prompt libraries that scale across patients, projects, and teams

Professional Leadership

Struggling to lead AI adoption discussions with colleagues, patients, or administrators
Lead AI adoption with authority: articulate strategies to colleagues, patients, and regulators

Course Objectives

Architect Medical Prompts

Use the MED-RTF+ Framework to generate evidence-based, patient-safe outputs

Validate AI-Assisted Work

Chain-of-Verification and Evidence Triangulation to mitigate error and bias

Orchestrate Workflows

Chain prompts for clinical reasoning, literature synthesis, and quality improvement

Embed Ethical Guardrails

Comply with HIPAA, AMA ethics, IRB requirements, and institutional AI policies

Evaluate AI Tools

Assess model reliability, bias, explainability, and integration safety

Build Prompt Libraries

Meta-prompting and version control strategies to scale AI adoption

Document Defensibly

Disclosure templates, prompt logs, and clinical documentation protocols

Lead AI Adoption

Articulate AI strategies to colleagues, patients, administrators with authority

Course Outline

4 hours per week. Click each week to expand and see the detailed hourly breakdown with clinical, research, and leadership tracks.

Week 1

Foundations & Architecture

AI Fundamentals, Prompt Architecture, Literature Synthesis, Validation

4 Hours
1
AI Fundamentals for Physicians + Task-Medicine Fit Assessment

Diagnose which medical tasks are suitable for AI augmentation. Understand LLM capabilities and limitations in clinical, research, and leadership contexts.

Clinical Research Leadership
Map AI use cases to patient care: differential diagnosis, patient education, care transitionsMap AI use cases to scholarly workflow: literature synthesis, grant aims, manuscriptsMap AI use cases to system workflow: quality metrics, policy drafting, operational bottlenecks
2
Universal Prompt Architecture for Medical Tasks

Structure any medical request using the MED-RTF+ Framework (Medical Role, Task, Format + Constraints, Citations, Tone, Patient-Safety Guardrails).

Clinical Research Leadership
Draft a differential diagnosis prompt for chest pain with ACC/AHA citations and patient-friendly explanationDraft a PICO-formatted research question with systematic review methodology and IRB complianceDraft a quality improvement proposal with CMS metrics, stakeholder analysis, and timeline
3
Medical Literature Synthesis with Evidence Anchoring

Retrieve and synthesize authoritative medical evidence using RAG patterns while preventing citation hallucination.

Clinical Research Leadership
Synthesize current hypertension guidelines for elderly patients with comorbiditiesSynthesize meta-analyses on immunotherapy outcomes; flag methodological limitationsSynthesize QI literature on reducing hospital readmissions; map to operational levers
4
Output Validation & Clinical Skepticism Protocols

4-step validation workflow: Self-Consistency → Evidence Cross-Check → Expert Corroboration → Documentation for Defensibility.

Clinical Research Leadership
Validate AI-generated differential against guidelines and patient factors; document reasoningValidate manuscript methods against CONSORT/STROBE guidelines; flag areas needing workValidate quality metric dashboard against CMS specs and organizational priorities
Week 2

Documentation & Intelligence

Prompt Chaining, Pattern Recognition, Communication, Compliance

4 Hours
5
Modular Medical Documentation with Prompt Chaining

Assemble complex medical documents by chaining modular prompts with version control and review trails.

Clinical Research Leadership
Chain: Assessment → Differential → Plan → Patient Instructions → Follow-upChain: Research Question → Methods → Results → Discussion → LimitationsChain: Problem Statement → Analysis → Intervention → Implementation → Evaluation
6
Clinical Pattern Recognition & Anomaly Detection

Auto-flag unusual clinical patterns, safety concerns, or quality gaps using constraint-based prompting.

Clinical Research Leadership
Analyze diabetes data; flag unusual lab trends, medication adherence; output risk recommendationsAnalyze trial enrollment; flag recruitment bottlenecks, demographic imbalancesAnalyze hospital quality metrics; flag units with outlier infection rates or readmissions
7
Patient & Stakeholder Communication Drafting

Translate complex medical information into compelling, audience-appropriate communications.

Clinical Research Leadership
Translate cardiac diagnosis into patient-friendly explanation with shared decision-making promptsTranslate research findings into lay summary for grant public impact sectionTranslate QI data into physician leadership briefing with change management strategy
8
Regulatory & Guideline Compliance Checking

Validate decisions against multi-framework requirements using constraint-based prompting.

Clinical Research Leadership
Validate heart failure treatment against ACC/AHA + CMS + formulary constraintsValidate trial protocol against FDA + ICH-GCP + IRB requirementsValidate telehealth policy against state licensure + CMS + HIPAA security
Week 3

Workflows & Evaluation

Narrative Design, Automation, Ethics, AI Tool Evaluation

4 Hours
9
Medical Narrative Design & Executive Reporting

Synthesize complex evidence into compelling, risk-focused narratives for diverse audiences.

Clinical Research Leadership
Synthesize complex case into handoff communication: problems + active issues + contingency plansSynthesize research status into grant progress report with preliminary data and challengesSynthesize performance data into board briefing with quality metrics and resource requests
10
Workflow Automation & Medical Process Orchestration

Automate multi-phase medical workflows with state management, quality gates, and review protocols.

Clinical Research Leadership
Automate chronic disease workflow: intake → plan → education → follow-up with safety checksAutomate manuscript workflow: outline → methods → results with peer review triggersAutomate QI workflow: metrics → root cause → intervention with stakeholder checkpoints
11
Ethics, Privacy & Professionalism in AI-Assisted Medicine

Embed ethical guardrails, privacy protections, and professional standards into AI workflows.

Clinical Research Leadership
Auto-redact PHI + generate patient-friendly AI disclosure + document clinical reasoning defensiblyEnforce IRB compliance + generate research integrity docs + maintain version-controlled trailsAuto-detect sensitive data + enforce AI governance + generate leadership communication templates
12
Evaluating AI Tools for Clinical or Research Adoption

Apply specialized frameworks to evaluate reliability, bias, explainability, and integration safety.

Clinical Research Leadership
Evaluate AI sepsis detection tool: sensitivity/specificity evidence, bias across populationsEvaluate AI literature screening: accuracy vs. human reviewers, reproducibility, time savingsEvaluate AI risk stratification: predictive validity, equity considerations, resource implications
Week 4

Systems & Capstone

Prompt Libraries, Quality Assurance, Capstone I & II

4 Hours
13
Medical Prompt Library Curation & Knowledge Management

Build a self-improving, reusable medical prompt library with version control and performance tracking.

Clinical Research Leadership
Build prompt library for common clinical scenarios with guideline alignment tags and version historyBuild prompt library for scholarly tasks with journal guideline tags and collaboration protocolsBuild prompt library for system initiatives with regulatory alignment tags and templates
14
Quality Assurance & Peer Review of AI-Assisted Work

Implement structured evaluation protocols to continuously improve AI-assisted medical procedures.

Clinical Research Leadership
A/B test prompt versions for clinical notes; measure completeness, guideline alignment, time savingsA/B test AI-assisted vs. traditional literature review; measure comprehensiveness and efficiencyA/B test prompt versions for quality metric analysis; measure actionable insights and clarity
15
Capstone I - Integrated AI-Augmented Medical Workflow

Apply all frameworks to design an end-to-end AI-augmented workflow for a complex medical scenario.

Clinical Research Leadership
Complex patient case with multiple comorbidities: assessment → differential → plan → follow-upResearch project from concept to dissemination: protocol → analysis → manuscript → strategySystem QI initiative: problem → analysis → intervention → plan → evaluation
16
Capstone II - Quality Review, Optimization & Scale Planning

Mock peer review of AI-augmented work, identify improvements, and document optimization decisions.

Clinical Research Leadership
Mock peer chart review of AI-augmented clinical documentation; output improvement planMock journal peer review of AI-assisted manuscript; output revision planMock executive committee review of AI-augmented QI initiative; output adoption roadmap

What You Take Home

Triple-Track Workbook

Practice-specific exercises, reflection prompts, framework cheat sheets, and medical standards cross-references

Medical Prompt Library Starter Pack

80+ vetted templates tagged by specialty, task, evidence level, and patient population

Validation Toolkit

Clinical skepticism checklist, evidence triangulation protocol, peer review rubric, A/B testing framework

Healthcare AI Governance Starter Pack

AI usage policy draft, prompt logging template, PHI safeguarding checklist, disclosure examples

Medical AI Evaluation Framework

Protocols for assessing clinical validity, bias, explainability, and integration safety

Certificate of Completion

Eligible for 16 hours AMA PRA Category 1 Credit (ACGME-compliant documentation provided)

Frequently Asked Questions

Who is this course designed for?

This masterclass is designed for Medical Doctors (MDs/DOs) across all specialties and career stages who want to integrate AI into their clinical practice, research, or healthcare leadership. No coding or technical background is required.

When does the course start and what is the schedule?

The course starts May 25, 2026 and runs for 4 weeks. Each week includes 4 hours of live virtual instruction (typically one 4-hour session per weekend), plus self-paced practice labs and asynchronous peer review activities.

What is the format of delivery?

Blended delivery: live virtual workshops (via Zoom) + self-paced practice labs + asynchronous peer review sessions. Each 4-hour block includes 80 minutes of core concepts, 120 minutes of track-specific practice, and 40 minutes of synthesis.

Is CME credit available?

Yes. This course is eligible for 16 hours of AMA PRA Category 1 Credit. ACGME-compliant documentation is provided upon completion. Specialty-specific CME forms are available upon request.

What are the three practice tracks?

Each session offers three parallel practice tracks: (A) Clinical Practice/Patient Care for direct patient encounters and documentation; (B) Research/Academic Medicine for grants, manuscripts, and systematic reviews; and (C) Healthcare Leadership/Administration for quality improvement, policy, and operational optimization. You can choose one track per session or mix across sessions.

Is this course HIPAA compliant?

Yes. All course materials, platforms, and exercises are designed with HIPAA compliance in mind. We use PHI-safe prompting techniques, secure platforms, and provide governance frameworks that align with institutional AI policies.

What is the early bird pricing?

Early bird pricing is $450 (regular price $997) when you enroll before April 30, 2026. This saves you $547. The course starts May 25, 2026. Enroll early to secure your spot at the discounted rate.

What do I receive upon completion?

You will receive: a Certificate of Completion (CME-eligible), a Triple-Track Workbook, a Medical Prompt Library Starter Pack (80+ templates), a Validation Toolkit, a Healthcare AI Governance Starter Pack, and a Medical AI Evaluation Framework. All materials are yours to keep and use in your practice.

About Dr. Beza

Dr. Beza B. Lefebo

Dr. Beza B. Lefebo

Doctor of Engineering, Machine Learning/AI (GWU)

Dr. Beza holds a Doctor of Engineering in Cybersecurity Analytics and Machine Learning/AI from The George Washington University. He developed novel machine learning algorithms to detect DDoS attacks on the U.S. smart grid and has built enterprise-grade analytics solutions for leading organizations. With deep expertise in AI systems, cybersecurity, and data analytics, Dr. Beza brings a unique technical perspective to the intersection of artificial intelligence and healthcare.

His work spans from securing critical infrastructure to designing AI governance frameworks that ensure ethical, evidence-based, and defensible use of emerging technologies in regulated industries. This course distills years of hands-on experience into practical, physician-ready frameworks.

20+ Years in Tech, CISSP, CISM, CDPSE, MEng Cybersecurity (GWU). Worked across multiple continents, consulted Big Tech and Federal Government.

Secure Your Spot

Join physicians who are leading the AI transformation in medicine. Early bird pricing ends April 30.

$450 $997

Early Bird - Ends April 30, 2026 | Course Starts May 25, 2026

Enroll Now - Save $547
Enroll Now