Risk-Based Containment Strategy: HPAPI Facility Case Study

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Redesign and beautify a professional PowerPoint presentation titled "Risk-Based Containment Strategy – A Case Study for Synthetic Molecule API Facility (ISPE, Nov-Dec 2025)". Goals: - Modern, clean, high-end pharma/engineering style - Consistent color palette (deep blue, white, subtle teal accents) - Strong visual hierarchy, minimal text per slide - Use icons, diagrams, and data visualization where possible Slides structure: 1. Title Slide – bold, minimal, with subtitle 2. Why Containment Systems Matter – 4 pillars with icons (Work Safety, Product Quality, Regulatory Compliance, Cross-Contamination) 3. Regulatory Landscape – clean infographic style 4. Design & Verification Process – step-by-step diagram 5. Risk Assessment Framework (3 slides) – visual flow 6. Exposure Evaluation – factors + categories 7. Hierarchy of Controls – pyramid diagram 8. Risk Review & Verification Testing 9. FJ2 Facility Case Study – overview 10. FJ2 Case Study – processes + achievements (highlight award) 11. Risk Management Approach – early assessment + engineering controls 12. Implementation Results (2 slides) – charts/visual metrics 13. Performance Achievement – big numbers (<0.05 μg/m³, 100% compliance) 14. Continuous Improvement – before/after data visualization 15. Key Takeaways – clean summary with icons Enhancements: - Replace dense text with bullets (max 5 per slide) - Add consistent icons and section dividers - Emphasize key metrics visually - Improve grammar/wording where needed - Use whitespace and alignment for readability Output as a polished, client-ready presentation.

This presentation details a risk-based containment strategy for high-potency synthetic molecule API facilities, including regulatory compliance, risk assessment frameworks, exposure controls, hierarchy of controls, verification testing, and the FJ2施設

March 20, 202615 slides
Slide 1 of 15

Slide 1 - Risk-Based Containment Strategy

Risk-Based Containment Strategy

Case Study for Synthetic Molecule API Facility | ISPE, Nov-Dec 2025

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Photo by Nastuh Abootalebi on Unsplash

Slide 1 - Risk-Based Containment Strategy
Slide 2 of 15

Slide 2 - Why Containment Systems Matter

🛡️ Work Safety Ensuring robust protection for all personnel in high-potency environments.

Product Quality Maintaining product integrity and prevent degradation.

📜 Regulatory Compliance Meeting stringent global regulatory requirements and standards.

🚫 Cross-Contamination Eliminating risks of potent molecule cross-contamination.

Slide 2 - Why Containment Systems Matter
Slide 3 of 15

Slide 3 - Regulatory Landscape

  • Focus on cGMP (Current Good Manufacturing Practice) alignment.
  • Adherence to ISO 14644 (Cleanroom Standards).
  • Safety standards for High-Potency Active Pharmaceutical Ingredients (HPAPI).
  • Regular audits and validation protocols by international health authorities.
Slide 3 - Regulatory Landscape
Slide 4 of 15

Slide 4 - Design & Verification Process

1. Assessment2. Strategy3. Validation4. Optimization
Identify hazardous substances and potential exposure points.Apply risk-based containment design engineering.Perform verification testing and safety assessments.Continuous monitoring and improvement cycles.
Slide 4 - Design & Verification Process
Slide 5 of 15

Slide 5 - Risk Assessment Framework Part 1

1

Risk Assessment Framework

Comprehensive evaluation of facility containment needs.

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Photo by Tom Parkes on Unsplash

Slide 5 - Risk Assessment Framework Part 1
Slide 6 of 15

Slide 6 - Risk Assessment Framework Part 2

  • Define scope and boundaries of the containment system.
  • Identify critical potential release sources.
  • Establish probability and severity matrices.
  • Apply quantitative risk analysis techniques.
Slide 6 - Risk Assessment Framework Part 2
Slide 7 of 15

Slide 7 - Exposure Evaluation & Controls

  • Exposure Factors: Frequency, duration, and quantity of handling.
  • Categorization: Classifying molecules by potency (e.g., OEL 1-5).
  • Containment Strategy: Matching technology to OEL levels.
  • Verification: Ongoing monitoring of air quality metrics.
Slide 7 - Exposure Evaluation & Controls
Slide 8 of 15

Slide 8 - Hierarchy of Controls

  • Elimination/Substitution: Removing the hazard at source.
  • Engineering Controls: Isolators, split butterfly valves, HVAC.
  • Administrative Controls: SOPs, training, access restrictions.
  • Personal Protective Equipment (PPE): Last line of defense.
Slide 8 - Hierarchy of Controls
Slide 9 of 15

Slide 9 - Risk Review & Verification Testing

  • Routine periodic validation of seals and pressures.
  • Particle count and air change efficacy testing.
  • Safety interlock testing for isolator chambers.
  • Corrective action plans for threshold exceedances.
Slide 9 - Risk Review & Verification Testing
Slide 10 of 15

Slide 10 - Case Study Overview

2

FJ2 Facility Case Study

High-performance synthetic molecule API facility.

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Photo by Tom Parkes on Unsplash

Slide 10 - Case Study Overview
Slide 11 of 15

Slide 11 - FJ2 Facility Achievements

  • Integrated automated workflow for synthesis and filtration.
  • Multi-stage RABS (Restricted Access Barrier Systems).
  • Achieved industry-leading safety standards.
  • Recognized with 2025 Pharma Facility Innovation Award.
Slide 11 - FJ2 Facility Achievements
Slide 12 of 15

Slide 12 - Risk Management Approach

  • Early engagement with engineering/toxicology teams.
  • Integration of containment equipment at design phase.
  • Modular design for scalability and maintenance.
  • Proactive identification of containment failures.
Slide 12 - Risk Management Approach
Slide 13 of 15

Slide 13 - Performance Achievement Metrics

  • 50ng/m³: <0.05 μg/m³
  • 100%: Compliance Rate
  • 95%: Incident Reduction
Slide 13 - Performance Achievement Metrics
Slide 14 of 15

Slide 14 - Continuous Improvement Comparison

Before Strategy Implementation

  • Reliance on PPE only.
  • High manual intervention.
  • Frequent air threshold concerns.
  • Limited real-time monitoring.

Post Strategy Implementation

  • Advanced closed-loop isolation.
  • Fully automated handling.
  • <0.05 μg/m³ air quality.
  • Real-time safety validation.
Slide 14 - Continuous Improvement Comparison
Slide 15 of 15

Slide 15 - Key Takeaways

Risk-based design ensures safety, efficiency, and compliance.

Summary for ISPE November 2025 presentation.

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Photo by Nastuh Abootalebi on Unsplash

Slide 15 - Key Takeaways

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