Master of Pharmacy Program

The Master of Science in Pharmaceutics (Pharmaceutics MSc) is a research-based program with a minimum duration of two years. It requires the completion of 36 credit hours, including the preparation of a research thesis. The program aims to build upon the knowledge acquired during the undergraduate phase and to strengthen students’ skills in critical thinking and scientific research. It also serves as a preparatory pathway for students intending to pursue doctoral studies in pharmaceutics.

The program covers a broad range of subjects, including drug delivery systems, biopharmaceutics, pharmacokinetics, pharmaceutical biotechnology, physical pharmacy, advanced pharmaceutical analysis, pharmaceutical chemistry, and advanced topics in biochemistry. It further introduces emerging fields in pharmaceutics that provide innovative solutions to enhance community health and well-being.
The curriculum consists of 21 credit hours of compulsory courses, 9 credit hours of electives, and 6 credit hours dedicated to the research thesis.
The Master’s Program in Pharmaceutics, originally part of the Pharmaceutical Sciences Department, was launched in 2014. In 2021, it became an independent program to further strengthen and expand scientific research in the field. Since its establishment, the Pharmaceutics Program has graduated eight researchers.
The Master’s Program in Pharmaceutics at the University of Science and Technology provides students with advanced knowledge, as well as high-level research and leadership skills in the field of pharmacy. The program is designed to meet the needs of the community and the labor market through a highly qualified academic staff, an exceptional learning environment, modern curricula, and well-equipped laboratories. It operates in accordance with the standards of the Academic Accreditation Council, the Medical Council, and comprehensive quality standards.

The Master’s Program in Pharmaceutics aims to:

  1. Provide students with the opportunity to deepen their knowledge and understanding of the principles of formulating, designing, and developing safe, effective, and stable pharmaceutical products.
  2. Offer practical and research-based training in drug formulation, drug delivery, and other related fields.
  3. Encourage students to acquire scientific research skills in planning, implementation, evaluation, report writing, and presenting findings.
  4. Strengthen students’ abilities in critical thinking, analysis, practical application, and scientific communication.

The Intended Learning Outcomes (ILOs) of the Master’s Program in Pharmaceutics are classified as follows:

A. Knowledge and Understanding

A.1 Explain recent developments in pharmaceutics and innovative approaches in drug delivery systems and pharmaceutical analytical techniques.
A.2 Identify the physical and chemical properties of materials and explore the discovery and design of various pharmaceutical dosage forms.
A.3 Recognize the ethics of scientific research in pharmaceutics and biotechnology.
A.4 Describe the principles of pharmacokinetic analysis using compartmental models and physiologically based models grounded in scientific evidence.

B. Intellectual Skills

B.1 Analyze and evaluate information related to drug development, drug delivery systems, biotechnology, and biostatistics.
B.2 Integrate multidisciplinary professional knowledge to solve problems related to pharmaceutical formulation.
B.3 Develop an individual research project and interpret data generated from pharmaceutics research.

C. Professional and Practical Skills

C.1 Formulate and evaluate different pharmaceutical dosage forms.
C.2 Use advanced technological research tools and techniques safely and effectively in pharmaceutical processes.
C.3 Develop diverse research methodologies and acquire advanced experimental, analytical, and report‑writing skills in pharmaceutical formulations and pharmaceutical analysis.
C.4 Practice professional evaluation of published scientific research.

D. General Skills

D.1 Work effectively both independently and within a team while promoting the concept of lifelong learning.
D.2 Present and defend a research project within the required timeframe, based on accurate scientific analysis of pharmaceutical data.
  1. Successful completion of all courses specified in the study plan.
  2. Successful defense of the master’s thesis.
  3. Submission of the required bound copies of the research thesis.
  4. Passing the English proficiency examination.
  5. Completion of all degree‑granting procedures through the Graduate Studies Committee, the Graduate Studies Council, and the University Council.

1. Pharmaceutical Formulation Design

  • Principles of dosage‑form design: including solid dosage forms (tablets, capsules), semi‑solid forms (creams, ointments), liquid forms (solutions, suspensions), inhalation products, and injectables.
  • Manufacturing techniques: such as granulation, compression, coating, and sterilization.
  • Compatibility and challenges: studying interactions between active pharmaceutical ingredients and excipients.

2. Biopharmaceutics and Drug Delivery

  • Principles of pharmacokinetics (PK): absorption, distribution, metabolism, and excretion (ADME).
  • Controlled drug‑release systems: including modified‑release, extended‑release, and stimuli‑responsive delivery systems.

3. Pharmaceutical Analysis and Quality Control

  • Pharmaceutical analytical techniques: chromatographic (HPLC, GC), spectroscopic (UV/Vis, fluorescence), and other separation techniques.
  • Quality specifications: in accordance with international standards (USP, EP, GMP).
  • Stability studies: evaluating the effects of temperature, humidity, and light on drug shelf life.

4. Pharmaceutical Manufacturing and GMP

  • Principles of Good Manufacturing Practice (GMP).
  • Advanced manufacturing technologies: including continuous manufacturing and miniaturization.
  • Validation and qualification: of equipment and processes.

5. Bioavailability and Bioequivalence

  • Methods for assessing bioavailability.
  • Bioequivalence studies: their design, analysis, and interpretation for regulatory approval of generic medicines.

6. Pharmaceutical Materials Science

  • Properties of solid materials: crystal forms, crystallization, and amorphous states.
  • Powder technology: including flow properties and particle‑size distribution.
  • Pharmaceutical polymers: and their applications in drug‑delivery systems.

Career opportunities for graduates of the Master’s Program in Pharmaceutics include:

1. Pharmaceutical Industry (the broadest employment sector)

This is the primary career destination, offering multiple professional pathways:

A. Research and Development (R&D) – the core of the specialization

Position: Formulation Scientist / Developer
Responsibilities: Designing, developing, and formulating pharmaceutical products in R&D laboratories; optimizing formulations; conducting preliminary stability studies; working on novel drug‑delivery systems such as nanotechnology‑based platforms.
Workplace: Development laboratories in local or international pharmaceutical companies.

B. Quality Assurance and Quality Control (QA & QC)

Positions: QA Specialist / Supervisor, QC Analyst
Responsibilities: Performing quality tests on raw materials and finished products; reviewing documentation; ensuring compliance with GMP standards; investigating deviations and quality issues.
Workplace: QA/QC departments in pharmaceutical manufacturing plants.

C. Manufacturing and Operations

Positions: Production Supervisor, Process Specialist, Validation Specialist
Responsibilities: Supervising production lines; optimizing manufacturing processes; conducting process and equipment validation.
Workplace: Manufacturing/production floor.

D. Regulatory Affairs

Position: Regulatory Affairs Associate / Specialist
Responsibilities: Preparing and compiling technical dossiers (e.g., CTD files) for drug registration with health authorities (such as SFDA, FDA, EMA); monitoring regulatory requirements; responding to authority inquiries.
Distinct Skillset: A combination of strong scientific knowledge, quality understanding, and regulatory awareness.

E. Laboratory‑Based Quality Control

Position: Analytical Chemist / Scientist
Responsibilities: Developing and validating analytical methods using advanced instruments (HPLC, GC, dissolution apparatus); analyzing product samples; preparing protocols and analytical reports.

2. Governmental Regulatory Bodies

Entity: Higher Authority for Drugs
Position: Technical Reviewer / Pharmaceutical Assessment Specialist
Responsibilities: Reviewing and evaluating registration dossiers for local and imported pharmaceuticals; inspecting manufacturing sites to ensure GMP compliance; establishing technical standards and regulatory guidelines.

3. Research Centers and Academia

Positions: Research Scientist, Research Assistant, or Teaching Assistant/Lecturer (pathway toward PhD and professorship)
Workplace: National research centers, universities, specialized research institutes
Responsibilities: Conducting basic or applied research in advanced pharmaceutics; publishing scientific papers; teaching undergraduate students; securing research grants.

4. Consulting and the Indirect Private Sector

Position: Consultant in Pharmaceutics, Quality, or Regulatory Affairs
Responsibilities: Providing consulting services to pharmaceutical start‑ups in product development; assisting companies in GMP inspection readiness and validation activities; preparing regulatory documentation.
Work modes: Independent consulting or working through specialized consulting firms.

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