
Use design of experiments to identify input factors, controllable variables, and responses in pharmaceutical development. Optimize the formulation by exploring two-level designs to reduce variability and improve quality.
Explore a practical example of a two-factor design with plus/minus one coding to analyze main effects and interactions in pharmaceutical development.
Explore hypothesis testing in DoE, focusing on false positives and negatives, the 0.05 significance level, and study power to distinguish signal from noise, using a pregnancy test analogy.
Explore how the effect of one factor changes with another, such as temperature and sugar, revealing two-factor and higher-order interactions and second-order effects in experimental design.
Explore graphical representations in design of experiments, distinguishing main effects from interactions and noting when three-factor interactions appear. Assess signal-to-noise and apply recommended data transformations, then interpret results in DOE.
Explore confounding and aliasing in screening and functional designs, understand how interactions create aliasing, and learn about resolution, design structure, and interpreting effects in pharmaceutical design experiments.
Explore factorial design concepts and the design of experiments, including fractional factorial designs to study multiple factors efficiently, interpreting main effects and interactions through different resolutions and design choices.
Explore Plackett–Burman and Taguchi screening designs to efficiently identify large factors in pharmaceutical development, detect main effects and interactions, and compare design choices with central points and fractional factorial approaches.
Explore factorial design with center points to evaluate three factors and their interactions, reveal significance through center points data, and discuss design efficiency, p-values, and response analysis.
Explore the central composite design, its star and center points, and how it identifies sweet spots in pharmaceutical development using design expert software.
Use box-cox plots and 3d plot analysis to compare linear and higher-order designs, evaluating adjusted r-squared and signal-to-noise for model fit. Interpret concentration effects and center-point results to gauge response.
Set parameter ranges and desirability goals to locate sweet spots for concentration and response within design of experiments. Rely on model-derived equations to target values and maximize outcomes.
Explains the Box-Behnken design for three-factor experiments within practical ranges, compares central composite and screening designs, and discusses optimization and decision-tree guidance for pharmaceutical development.
Celebrate completing the course on design of experiments in pharmaceutical development and thank participants. Stay updated with regular Udemy course updates and leave a valuable review to motivate us.
If you are looking for DoE for Pharmaceutical Development course so this is for you.
This comprehensive online course is designed to help you master DoE concepts and apply them confidently in real pharmaceutical product development scenarios.
Whether you are involved in formulation development, analytical method development, process optimization, scale-up, or regulatory submissions, this course will give you the practical skills and confidence needed to design efficient experiments, reduce development time, and improve product quality.
You will learn DoE from fundamentals to advanced concepts, explained in a simple, visual, and industry-oriented manner, without unnecessary mathematical complexity.
Content of course
Introduction to Experimental Design
What is DoE
Definitions
Sequential Experimentation
When to use DoE
Common Pitfalls in DoE
A Guide to Experimentation
Planning an Experiment
Implementing an Experiment
Analyzing an Experiment
Case Studies
Two Level Factorial Designs
Design Matrix and Calculation Matrix
Calculation of Main & Interaction Effects
Interpreting Effects
Using Center Points
Identifying Significant Effects
Variable & Attribute Responses
Describing Insignificant Location Effects
Determining which effects are statistically significant
Analyzing Replicated and Non-replicated Designs
Developing Mathematical Models
Developing First Order Models
Residuals or Model Validation
Optimizing Responses
Fractional Factorial Designs (Screening)
Structure of the Designs
Identifying an Optimal Fraction
Confounding or Aliasing
Resolution
Analysis of Fractional Factorials
Other Designs
Proportion & Variance Responses
Sample Sizes for Proportion Response
Identifying Significant Proportion Effects
Handling Variance Responses
Intro to Response Surface Designs
Central Composite Designs
Box Behnken Designs
Optimizing several characteristics simultaneously
DOE Projects (Project Teams)
Planning the DoE (s)
Conducting
Analysis
Next Steps
What You Will Learn
Fundamentals of Design of Experiments explained in simple language
Why One-Factor-At-a-Time (OFAT) fails in pharmaceutical development
Screening designs to identify critical material and process variables
Full factorial and fractional factorial designs with pharma examples
Response Surface Methodology (RSM) for optimization
DoE application in formulation development and process development
Understanding interactions and design space (ICH Q8 concept)
How DoE supports Quality by Design (QbD) and regulatory compliance
Practical interpretation of DoE results for decision-making
How to justify DoE studies during audits and regulatory reviews
Who This Course Is For
This course is ideal for:
Pharmacy students & M.Pharm or PhD scholars
Formulation development scientists
Analytical R&D professionals
Process development & scale-up engineers
QA, QC, and validation professionals
Regulatory affairs professionals
Anyone working in pharmaceutical product development
Note: No prior knowledge of statistics or DoE software is require
By the End of This Course
You will be able to:
Design scientifically sound experiments
Identify critical formulation and process parameters
Optimize pharmaceutical products efficiently
Reduce development time and experimental cost
Confidently apply DoE in real pharmaceutical projects
Recently, DoE has been used in the rational development and optimization of analytical methods. Culture media composition, mobile phase composition, flow rate, time of incubation are examples of input factors (independent variables) that may the screened and optimized using DoE.
Look for course description. look for see you in the class.