
Pharmaceutical Technology Course
Master the full spectrum of pharmaceutical technology, from foundational formulation science to advanced drug delivery systems and quality management. This course equips you with the technical knowledge and regulatory fluency demanded by today's pharmaceutical industry. Whether you are entering the field or advancing your career, you will gain the expertise to develop, manufacture, and validate drug products that meet global standards.
What you will learn:
This course covers all core domains of pharmaceutical technology, including physicochemical properties, biopharmaceutics, solid and liquid dosage manufacturing, sterile processing, and quality systems. You will learn to apply GMP principles, ICH guidelines, and regulatory frameworks to real formulation and manufacturing decisions. Advanced topics include nanoparticulate delivery, monoclonal antibody formulation, and biosimilar development. You will gain practical knowledge of process validation, analytical method validation, and stability testing programme design. Data integrity, computerised system validation, and regulatory submission strategies are also covered. By the end you will be ready to contribute across formulation, quality, and regulatory affairs in the industry.
How you study in a practical way Pharmaceutical Technology Course
How you practise Pharmaceutical Technology Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Pharmaceutical Technology
Foundations of Pharmaceutical Technology
Lesson 1 • History and Scope of Pharmacy
Traces pharmacy from ancient remedies to modern biopharmaceuticals, anchoring the discipline's evolution. Provides context for understanding why current standards and practices exist.
Lesson 2 • Regulatory and GMP Frameworks
Introduces Good Manufacturing Practice principles and the regulatory lifecycle from investigational status to market approval. Connects compliance requirements to daily manufacturing decisions.
Lesson 3 • Drug Classification and Nomenclature
Defines chemical, generic, and brand naming conventions alongside therapeutic and pharmacological classification systems. Enables accurate communication across formulation, regulatory, and clinical teams.
Lesson 4 • Pharmaceutical Dosage Form Overview
Surveys solid, liquid, semi-solid, and specialised dosage forms and their clinical rationale. Sets the stage for detailed formulation chapters that follow.
Lesson 5 • Pharmaceutical Calculations Essentials
Covers concentration expressions, dilution math, and dose calculations required throughout formulation and quality work. Builds numerical fluency needed in every subsequent chapter.
Chapter 2HideHide detailsSee detailsPhysicochemical Properties of Drug Substances
Physicochemical Properties of Drug Substances
Lesson 1 • Solubility and Dissolution Principles
Explains thermodynamic and kinetic factors controlling drug solubility and in-vitro dissolution. Directly informs excipient selection and formulation strategies in later chapters.
Lesson 2 • Solid-State Properties of Drugs
Examines polymorphism, crystallinity, amorphous forms, and particle size as determinants of bioavailability and processability. Links solid-state science to manufacturing outcomes.
Lesson 3 • Acid-Base Chemistry and pKa
Reviews ionisation equilibria, Henderson-Hasselbalch applications, and buffer capacity relevant to drug formulation. Prepares students to design pH-adjusted liquid and parenteral formulations.
Lesson 4 • Excipient Compatibility and Interactions
Analyses drug-excipient and excipient-excipient interactions using thermal and spectroscopic screening tools. Prevents incompatibility failures during formulation development.
Lesson 5 • Drug Stability and Degradation Pathways
Identifies hydrolysis, oxidation, photolysis, and other degradation mechanisms with kinetic modelling. Establishes the scientific basis for stability testing protocols introduced later.
Chapter 3HideHide detailsSee detailsBiopharmaceutics and Pharmacokinetics
Biopharmaceutics and Pharmacokinetics
Lesson 1 • Modified Release Pharmacokinetics
Analyses how extended, delayed, and pulsatile release profiles alter PK parameters and therapeutic outcomes. Bridges biopharmaceutic theory to controlled-release formulation design covered next.
Lesson 2 • Biopharmaceutics Classification System
Defines BCS classes based on solubility and permeability and their regulatory implications for biowaiver eligibility. Guides formulation strategy selection from the earliest development stage.
Lesson 3 • Bioavailability and Bioequivalence
Defines absolute and relative bioavailability, AUC, Cmax, and Tmax, and outlines bioequivalence study design. Prepares students to evaluate generic drug submissions and in-vitro/in-vivo correlations.
Lesson 4 • Pharmacokinetic Compartment Models
Introduces one- and two-compartment models, volume of distribution, and clearance concepts with practical calculations. Provides the quantitative framework for interpreting bioavailability data.
Lesson 5 • Drug Absorption Mechanisms
Covers passive diffusion, active transport, efflux, and first-pass metabolism as determinants of oral bioavailability. Connects membrane transport science to dosage form design choices.
Chapter 4HideHide detailsSee detailsSolid Dosage Form Technology
Solid Dosage Form Technology
Lesson 1 • Powder Characterisation and Flow
Measures bulk density, angle of repose, compressibility index, and particle morphology to predict powder processability. Directly informs granulation and blending decisions in subsequent sections.
Lesson 2 • Capsule and Pellet Technology
Addresses hard and soft gelatin capsule filling, pelletisation by extrusion-spheronisation, and multi-unit dosing advantages. Broadens solid dosage form expertise beyond conventional tablets.
Lesson 3 • Granulation Techniques
Compares wet granulation, dry granulation, and direct compression with process variables and endpoint determination. Equips students to select and optimise granulation methods for diverse APIs.
Lesson 4 • Tablet Formulation and Compression
Covers binder, disintegrant, lubricant, and filler selection alongside compression force and tooling variables. Connects formulation composition to tablet hardness, friability, and dissolution performance.
Lesson 5 • Tablet Coating Technologies
Explains film coating, enteric coating, and sugar coating processes with polymer selection and pan parameters. Enables students to design coatings for taste masking, moisture protection, and modified release.
Chapter 5HideHide detailsSee detailsLiquid and Semi-Solid Dosage Forms
Liquid and Semi-Solid Dosage Forms
Lesson 1 • Semi-Solid Formulations
Covers ointment bases, cream formulation, gel polymers, and rheological characterisation for topical and transdermal products. Links semi-solid structure to drug release and skin penetration.
Lesson 2 • Suspension Formulation and Stability
Explains wetting, flocculation, sedimentation, and rheology control using suspending agents and zeta potential. Prepares students to formulate physically stable oral and topical suspensions.
Lesson 3 • Emulsion Science and Technology
Addresses emulsification theory, HLB system, emulsifying agents, and stability evaluation by creaming and coalescence. Connects colloidal science to practical cream and lotion manufacturing.
Lesson 4 • Solutions and Syrups
Covers co-solvent systems, sweetening agents, preservatives, and clarity testing for oral and topical solutions. Establishes liquid formulation fundamentals before tackling dispersed systems.
Lesson 5 • Preservative Efficacy and Packaging
Evaluates antimicrobial effectiveness testing, preservative challenge protocols, and container-closure compatibility for liquid products. Ensures microbiological safety and product integrity throughout shelf life.
Chapter 6HideHide detailsSee detailsSterile Product Manufacturing
Sterile Product Manufacturing
Lesson 1 • Sterilisation Methods and Validation
Compares moist heat, dry heat, filtration, radiation, and gas sterilisation with validation cycle development. Enables selection of the appropriate method based on product and container attributes.
Lesson 2 • Parenteral Formulation Requirements
Addresses tonicity adjustment, pH control, pyrogen testing, and particulate matter limits for injectable products. Ensures formulation compliance with compendial and regulatory sterile product standards.
Lesson 3 • Sterility Assurance Fundamentals
Defines sterility assurance level, bioburden, and D-value concepts underpinning all sterilisation validation. Establishes the risk-based mindset required for sterile manufacturing decisions.
Lesson 4 • Cleanroom Design and Classification
Covers ISO cleanroom grades, HVAC design, air change rates, and environmental monitoring programmes. Connects facility design to contamination risk reduction in aseptic processing areas.
Lesson 5 • Aseptic Processing Techniques
Details laminar airflow workstations, isolator technology, aseptic filling lines, and media fill validation. Prepares students to execute and evaluate aseptic manufacturing operations.
Chapter 7HideHide detailsSee detailsPharmaceutical Quality Systems
Pharmaceutical Quality Systems
Lesson 1 • Quality Management System Principles
Defines quality policy, quality manual structure, CAPA systems, and change control within a pharmaceutical QMS. Provides the organisational framework for all quality activities in subsequent sections.
Lesson 2 • Process Validation and Qualification
Covers design qualification, installation qualification, operational qualification, and performance qualification with statistical acceptance criteria. Demonstrates that manufacturing processes consistently produce product meeting specifications.
Lesson 3 • Stability Testing Programmes
Designs ICH Q1-compliant stability protocols including accelerated, intermediate, and long-term conditions with statistical shelf-life estimation. Connects stability data to label claims and storage condition specifications.
Lesson 4 • ICH Quality Guidelines Overview
Summarises ICH Q8 pharmaceutical development, Q9 risk management, Q10 pharmaceutical quality system, and Q11 development of drug substances. Aligns formulation and manufacturing decisions with harmonised global standards.
Lesson 5 • Analytical Method Validation
Applies ICH Q2 parameters—specificity, linearity, accuracy, precision, and robustness—to validate compendial and in-house methods. Ensures analytical data reliability for release and stability testing.
Chapter 8HideHide detailsSee detailsAdvanced Drug Delivery Systems
Advanced Drug Delivery Systems
Lesson 1 • Nanoparticulate Drug Delivery
Covers polymeric nanoparticles, nanosuspensions, and solid lipid nanoparticles with preparation, characterisation, and stability considerations. Addresses how nanoscale engineering improves solubility and cellular uptake.
Lesson 2 • Pulmonary and Nasal Drug Delivery
Covers aerosol physics, metered-dose inhalers, dry powder inhalers, and nasal spray formulation with deposition modelling. Prepares students to formulate and characterise inhalation products for local and systemic action.
Lesson 3 • Transdermal Drug Delivery Systems
Analyzes passive permeation, chemical enhancers, microneedle arrays, and iontophoresis for transdermal product design. Evaluates skin barrier science and in-vitro permeation testing methods.
Lesson 4 • Liposomal and Lipid-Based Systems
Explains liposome composition, preparation methods, PEGylation, and lipid nanoparticle platforms for small molecules and nucleic acids. Connects lipid carrier design to improved circulation time and targeted delivery.
Lesson 5 • Targeted and Stimuli-Responsive Delivery
Introduces active targeting ligands, passive EPR effect, and pH-, thermo-, and redox-responsive release mechanisms. Bridges advanced delivery concepts to emerging oncology and gene therapy applications.
Your valid completion certificate
This course is for you:
Pharmacy graduates: seeking structured industry-ready technical knowledge beyond university coursework.
Pharmaceutical technicians: wanting to deepen scientific understanding behind their daily manufacturing tasks.
Biology or chemistry graduates: looking to pivot into drug development or formulation science roles.
Quality assurance professionals: aiming to strengthen regulatory and validation competencies across departments.
Biomedical scientists: exploring career transitions into pharmaceutical research or product development.
Healthcare practitioners: building foundational pharmaceutical manufacturing knowledge to support clinical decisions.
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