quality by design (qbd) in product life cycle management (plcm)
TRANSCRIPT
QbD in PLCM
Presented By: Mr. Girish Sonar,Group Leader – R&D (Formulation),Ipca Laboratories Ltd.,Plot No. Plot 48, Kandivali (West), Mumbai, India.
Date : 13.11.2014
Disclaimer
Any views or opinions expressed herein are solely those
of the author and do not necessarily represent those of
any company. This presentation is solely for
educational purposes and provides only general
expectations of regulatory agencies. For a complete
requirements detail, please consult the relevant
regulatory agency.
Content
1. Introduction to QbD
2. Misconception about QbD
3. Product Life Cycle – Flow diagram
4. Product Development Strategy
5. Initial batches
6. QbD Strategy I, II and III
7. Conclusion
Introduction to QbD
Ref: ICH Q8
Systematic and proactive approach to pharmaceutical
development.
Begins with predefined objectives
Emphasizes product and process understanding and
process control
Based on sound science and quality risk management
Ensure higher level of assurance of product quality for
patient
Improved product and process design & understanding
Monitoring, tracking, trending of product & process.
More efficient regulatory oversight
Rapid introduction of state-of-the art science and
technology
Encouraged continuous manufacturing process
improvements
Benefits of QbD (1)
Real-time quality control and reduced end-product release
testing
Fewer lost batches
Fewer manufacturing deviations, saving costly investigative
hours
Reduced out-of-specification results, reducing rework
Reduce post approval changes/Variations
Benefits of QbD (2)
1. Introduction to QbD
2. Misconception about QbD
3. Product Life Cycle – Flow diagram
4. Product Development Strategy
5. Initial batches
6. QbD Strategy I, II and III
7. Conclusion
Misconception about QbD (1)
QbDSystemic development
with predetermine objective for quality product
QbD contains DoE No software used to establish QbD
DoE Statistical technique used in interpreting sets of experiments aimed at making sound decisions DoE may be part of QbD DoE is implemented using statistical software program
Conclusion : QbD and DoE are two different terminologies
Misconception about QbD (2)QTPP Desired target for
developmental work Components of QTPP may or
may not be in specificationNot in spec – Dosage form, strengthIn spec – Assay, impurities Does not include acceptance
criteria
Specifications Includes all of the CQAs Specification is a list of - tests, - references to analytical
procedures - acceptance criteria Establishes the set of criteria to
which DP should conform to be considered acceptable for its intended use
Conclusion : Defining a QTPP does not mean setting all acceptance criteria or the product specifications before development work begins
Misconception about QbD (3)
QbD based PDR is document mandatory for
regulatory submission and to make it for the sake to
fulfill the submission criteria
QbD is the USFDA requirement only
DoE is mandatory for QbD as mentioned in published
IR/MR product example
1. Introduction to QbD
2. Misconception about QbD
3. Product Life Cycle – Flow diagram
4. Product Development Strategy
5. Initial batches
6. QbD Strategy I, II and III
7. Conclusion
QTPP CQA Initial Risk Assessment
Drug Substance
Formulation Variables
Updated Risk
Assessment
Risk Mitigation
Process
Packing Design Space
Quality Risk Management
Control Strategy
PLCM – Flow Diagram
QbD Scheme
1. Introduction to QbD
2. Misconception about QbD
3. Product Life Cycle – Flow diagram
4. Product Development Strategy
5. Initial batches
6. QbD Strategy I, II and III
7. Conclusion
Product Development Strategy
1. Introduction to QbD
2. Misconception about QbD
3. Product Life Cycle – Flow diagram
4. Product Development Strategy
5. Initial batches
6. QbD Strategy I, II and III
7. Conclusion
Initial Development Batches
1. Introduction to QbD
2. Misconception about QbD
3. Product Life Cycle – Flow diagram
4. Product Development Strategy
5. Initial batches
6. QbD Strategy I, II and III
7. Conclusion
QbD Stage I Strategy
Case Study
Development Batches
Formula Optimization
Process Optimization
Process Optimization
Process Optimization
Process optimization planned based on knowledge of –
1.Scale dependent equipment/Process parameter2.Scale independent equipment/Process parameter
If R&D scale and commercial scale equipments have same mechanism, same geometry and scalable based on scientific basis, then process optimization batches can be perform in R&D scale equipment. If not, then process optimization batches will be performed in commercial scale equipment.
Process Optimization – Wurster
Scale independent
Process Optimization - Wurster
Steps Formulation Variables Process VariablesPELLETS AND MUPSDrug Loading/ Barrier Coating/ Functional Coating/ Over Coating
NPS – Composition, Size, Shape, Density and PorosityPolymer qtyPlasticizer qtyAntitacking anent/wetting agent Qty
Pellets CoatingAir flow rateSpray rateAtomization air pressureProduct temperatureDew pointCuring temperature and timeMUPS CompressionPre-compression forceMain compression forceFeeder speedTurret speedFeed frame designTooling design
Process Optimization - Granulation
Steps Formulation Variables Process VariablesWET GRANULATION
Granulation
1. Binder Qty2. Water/Solvent Qty3. Diluent/Superdisintegrant/ Polymer/ Wetting agent Qty …..
RMG Granulation1.Impeller speed2.Chopper speed3.Binder addition time4.Granulation time5.Wet millingFluid Bed Granulation1.Spray rate 2.atomization air pressure3.Air flow4.Product temperature5.Granulation time
Drying1. Product temperature2. Air flow3. LOD
Process Optimization - Granulation
Steps Formulation Variables Process VariablesWET GRANULATIONSizing and Milling
1. Type of mill (Multimill/Co-mill)2. Type of screens (Plain/Grater)3. Screen size4. Mill speed
Blending and Lubrication
1. Superdisintegrant/Polymer Qty2. Glidant/Antiadhering
agent/Lubricant qty
1. Blending time2. Lubrication time3. Blender type
Process Optimization - Granulation
Steps Formulation Variables Process VariablesROLLER COMPACTION
Granulation1. Dry Binder Qty2. Diluent/Superdisintegrant/
Polymer/ Wetting agent Qty
1. Type of roller2. Compaction force3. Roller gap4. Roller speed5. Feed speed
Sizing and Milling
1. Type of mill (Multimill/Co-mill)2. Type of screens (Plain/Grater)3. Screen size4. Mill speed
Process Optimization – Study Plan (1)
Equipment Scalable process parameters
Recommended Remark
Wurster (Bottom spray)
Spray rate, atomization air pressure, air flow volume, dew point
ADP area is considered to calculate the scale up factor and apply to all critical process parameter except dew point and product temp
Scale independent
RMG Impeller speed , Chopper speed, Granulation time
Tip velocity : Low speed = 3.0-3.5m/Sec, High Speed = 6.0-7.0m/Sec at the R&D scale and commercial scale
Scale independent
FBP (Top Spray granulation)
Spray rate, atomization air pressure, air flow volume, dew point
Calculate the scale up factor based on vendor’s recommendation and apply for critical process parameters
Scale independent
Multimill Milling
screen opening, mill speed and direction
Screen size/impeller direction/ mill speed should be same
Scale independent
Co- mill screen opening, mill speed and direction
Screen size/impeller direction/ mill speed should be same. Apply scale factor as per vendor’s recommendation
Scale independent
Equipment Scalable process parameters
Recommended Remark
Blender No of revolutions, Blender geometry
Blending : 300 ± 10 revolutions,Lubrication: 50 ± 5 revolutions.Calculate the blender rpm and time based on Froude no calculation.
Scale independent
Roller Compaction
Roller speed, roller gap, compaction force, milling parameters
Scaling up factor varies from mechanism of roller compaction and follow vendor’s guideline for scale-up
Scale independent most of the time
Compression machine
Turret speed, feeder speed, pre-compression force, main compression force, dwell time
Optimize the process parameters wrt compression machine at manufacturing site
Scale dependent
Coating Spray rate, atomization air pressure, product temp, gun to bed distance, pan rpm
Optimize the process parameters wrt coating machine at manufacturing site
Scale dependent
Process Optimization – Study Plan (2)
QbD Stage II Strategy
QbD Stage II Strategy
QbD II strategy = Updated risk assessment with justification based on development batches results
Quality Risk Management
Quality Risk Management
Risk Review
Ris
k C
omm
unic
atio
n
Risk Assessment
Risk Evaluationunacceptable
Risk Control
Risk Analysis
Risk Reduction
Risk Identification
Review Events
Risk Acceptance
InitiateQuality Risk Management Process
Output / Result of theQuality Risk Management Process
Risk M
anagement tools
Ref: ICH Q9
Risk Management Tools
1. Basic risk management facilitation methods (flowcharts, check sheets etc.)
2. Failure Mode Effects Analysis (FMEA)3. Failure Mode, Effects and Criticality Analysis (FMECA)4. Fault Tree Analysis (FTA)5. Hazard Analysis and Critical Control Points (HACCP)6. Hazard Operability Analysis (HAZOP)7. Preliminary Hazard Analysis (PHA)8. Risk ranking and filtering9. Supporting statistical tools
Ref: ICH Q9
Basic Risk Management Facilitation Method
1. Flowcharts;2. Check Sheets;3. Process Mapping; Cause and Effect Diagrams (also called an Ishikawa diagram or fish bone diagram)
FMEA – Case Study (1)
RPN : Risk Priority Number
FMEA – Case Study (2)
QbD Stage III Strategy
QbD Stage III Strategy
QbD III Strategy = Control Strategy
Control strategy should be discussed with manufacturing
person before finalize for the best results
All critical attributes control should be mentioned clearly
in control strategy and mentioned the name of reporting
documents
Post submission Phase
Easy to perform
based on QbD
based Dossier contains
evaluated critical attributes
1. Introduction to QbD
2. Misconception about QbD
3. Product Life Cycle – Flow diagram
4. Product Development Strategy
5. Initial batches
6. QbD Strategy I, II and III
7. Conclusion
Conclusion
QbD is the effective tool, should be implement from the initial stage of the product development independent of target market Discuss QbD scheme with other groups and stake holder to achieve aim of QbD and keep future projection to avoid regulatory queries and post approval changes/Variation DoE is not mandatory for QbD based submission Try to cover maximum range of formulation and process variables during optimization study to make fastest and cost effective post approval changes/Variation
Girish SonarGroup Leader – R&D (Formulation)Ipca Laboratories Ltd.Plot No. Plot 48, Kandivali Industrial Estate,Kandivali (West), Mumbai 400 067, India.www.ipca.com