The ICTQual AB Level 6 International Diploma in Biotechnology & Biomedical Engineering equips learners with comprehensive knowledge, practical skills, and professional competencies essential for a successful career in biotechnology, biomedical engineering, and healthcare innovation. The program emphasizes both theoretical understanding and hands-on application, ensuring graduates can contribute effectively in academic, research, and industrial environments.

Year 1: Foundation in Biotechnology & Biomedical Engineering

Introduction to Biotechnology and Biomedical Engineering

• Explain key concepts, principles, and applications of biotechnology and biomedical engineering.
• Identify current trends and innovations in life sciences and medical technologies.
• Recognize the interdisciplinary nature of biotechnology and its role in healthcare solutions.

Fundamentals of Human Anatomy and Physiology

• Describe the structure and function of human body systems.
• Apply anatomical and physiological knowledge to biomedical contexts.
• Interpret physiological data relevant to medical and research settings.

Principles of Molecular Biology and Genetics

• Analyze the structure, function, and regulation of DNA, RNA, and proteins.
• Demonstrate understanding of Mendelian and molecular genetics principles.
• Apply genetic knowledge to experimental and clinical scenarios.

Biochemistry for Life Sciences

• Explain biochemical pathways and molecular interactions in cells.
• Apply biochemical principles to laboratory investigations.
• Analyze the role of enzymes, metabolites, and macromolecules in cellular processes.

Microbiology and Infection Control

• Identify microorganisms and their relevance to health and disease.
• Apply infection control and aseptic techniques in laboratory settings.
• Evaluate microbial contamination risks in biomedical environments.

Laboratory Safety and Quality Assurance

• Demonstrate knowledge of laboratory safety protocols and regulations.
• Implement quality assurance practices in experimental procedures.
• Assess potential hazards and ensure compliance with safety standards.

Principles of Pharmacology and Therapeutics

• Explain pharmacokinetics and pharmacodynamics of key drugs.
• Assess therapeutic applications in clinical and research contexts.
• Apply principles of drug action to experimental design and evaluation.

Mathematics and Statistics for Biomedical Applications

• Apply statistical methods to analyze experimental and clinical data.
• Use mathematical modeling in biomedical problem-solving.
• Interpret quantitative results to support research findings.

Computer Applications in Biotechnology

• Utilize bioinformatics tools and software for data analysis.
• Demonstrate proficiency in data management and computational applications.
• Apply computational approaches to support experimental research.

Communication Skills for Science and Healthcare Professionals

• Demonstrate effective written and oral communication in scientific contexts.
• Prepare scientific reports, presentations, and documentation.
• Engage in professional discourse with colleagues and stakeholders.

Introduction to Research and Evidence-Based Practice

• Explain research methodologies and evidence-based principles.
• Critically appraise scientific literature relevant to biotechnology.
• Apply basic research skills in experimental planning and data interpretation.

Ethics and Professional Conduct in Biomedical Sciences

• Understand ethical considerations in biomedical research and practice.
• Apply professional conduct standards in laboratory and clinical settings.
• Evaluate ethical dilemmas and propose responsible solutions.

Year 2: Intermediate Biotechnology & Biomedical Engineering Applications

Genetic Engineering and Recombinant DNA Technology

• Demonstrate techniques in DNA manipulation and cloning.
• Analyze recombinant DNA applications in medicine and industry.
• Evaluate ethical and safety implications of genetic engineering.

Cell Biology and Tissue Engineering

• Explain cellular structure, signaling, and function in tissue systems.
• Apply tissue engineering techniques for regenerative medicine research.
• Assess experimental data in cell culture and tissue regeneration studies.

Clinical Biochemistry and Diagnostic Techniques

• Perform biochemical assays and interpret clinical results.
• Evaluate diagnostic tests for disease detection and monitoring.
• Integrate biochemical knowledge into laboratory practice.

Immunology and Serology

• Describe immune system components and their functions.
• Conduct serological assays and interpret immunological data.
• Apply immunological principles in disease detection and therapy evaluation.

Instrumentation and Analytical Methods in Biotechnology

• Operate laboratory instruments accurately and safely.
• Apply analytical methods to measure biological and chemical parameters.
• Evaluate instrument data to support research and diagnostic work.

Microbial Biotechnology and Industrial Applications

• Apply microbial techniques in industrial biotechnology.
• Analyze microbial processes for bioproduction and bioremediation.
• Assess quality and efficiency in microbial-based applications.

Molecular Diagnostics and Laboratory Techniques

• Perform molecular diagnostic tests using PCR, ELISA, and sequencing.
• Analyze genetic and molecular data for clinical and research purposes.
• Evaluate laboratory protocols for accuracy and reliability.

Bioprocess Engineering and Biomanufacturing

• Understand principles of bioprocessing and large-scale production.
• Design experiments for biomanufacturing optimization.
• Analyze process efficiency and quality control metrics.

Data Analysis and Biomedical Informatics

• Apply bioinformatics and statistical tools to biomedical datasets.
• Interpret complex data for clinical and research decision-making.
• Integrate computational analysis into laboratory workflows.

Health and Safety in Biomedical Laboratories

• Implement safety protocols for high-risk laboratory environments.
• Assess risks associated with chemical, biological, and mechanical hazards.
• Monitor compliance with health and safety regulations.

Leadership and Teamwork in Scientific Practice

• Demonstrate collaborative problem-solving and project management skills.
• Lead small teams in laboratory and research projects.
• Apply leadership principles to ensure effective scientific practice.

Applied Research Methods and Experimental Design

• Design experiments based on scientific hypotheses.
• Apply quantitative and qualitative research methods in biomedical contexts.
• Critically evaluate experimental results and propose improvements.

Year 3: Advanced Specialisation and Professional Application

Advanced Molecular Biology and Genomics

• Conduct advanced genomic analysis using modern techniques.
• Interpret genomic data for research and clinical applications.
• Evaluate innovations in molecular biology for biotechnology advancement.

Advanced Immunology and Clinical Applications

• Analyze complex immune responses and disease mechanisms.
• Apply immunological principles to therapeutic and diagnostic strategies.
• Design experiments targeting immune modulation and therapy development.

Biomedical Device Engineering and Design

• Design and prototype biomedical devices for clinical applications.
• Assess device performance and regulatory compliance standards.
• Integrate engineering principles into healthcare solutions.

Advanced Bioprocessing and Biopharmaceutical Production

• Optimize bioprocessing techniques for large-scale production.
• Evaluate biopharmaceutical manufacturing efficiency and quality.
• Apply regulatory guidelines in biopharmaceutical production workflows.

Stem Cell Technology and Regenerative Medicine

• Demonstrate knowledge of stem cell biology and therapeutic applications.
• Apply stem cell techniques in regenerative medicine research.
• Assess clinical potential and ethical considerations in stem cell use.

Bioinformatics and Computational Biology

• Apply computational methods to analyze biological data.
• Utilize bioinformatics tools for genomics, proteomics, and systems biology.
• Integrate computational findings into experimental and clinical decision-making.

Clinical Trial Design and Regulatory Compliance

• Design and manage clinical trials following regulatory standards.
• Evaluate trial data for safety, efficacy, and ethical compliance.
• Apply clinical research guidelines to ensure quality and reliability.

Advanced Laboratory Techniques and Automation

• Implement high-throughput and automated laboratory techniques.
• Analyze complex experimental results with precision.
• Maintain accuracy, reproducibility, and compliance in advanced labs.

Quality Management and Risk Assessment in Biomedicine

• Apply quality management systems in laboratory and clinical settings.
• Conduct risk assessments to mitigate operational and research hazards.
• Evaluate processes to ensure regulatory and safety compliance.

Emerging Technologies in Biotechnology and Healthcare

• Analyze cutting-edge technologies such as CRISPR, AI in healthcare, and nanobiotechnology.
• Assess the practical applications of emerging innovations.
• Propose solutions integrating new technologies in biomedical research.

Research Project / Dissertation

• Conduct independent research addressing relevant scientific questions.
• Apply experimental, analytical, and computational skills in project execution.
• Present findings in a professional dissertation format with critical analysis.

Professional Practice and Practical Competency Assessment

• Demonstrate competence in laboratory, research, and clinical settings.
• Apply professional standards and ethical conduct in practical scenarios.
• Evaluate performance through structured assessment and reflective practice.

Upon completion of this program, learners will possess advanced theoretical knowledge, practical laboratory skills, and professional competencies to excel in biotechnology, biomedical engineering, and healthcare industries worldwide. Graduates will be prepared for careers in research, clinical diagnostics, biomanufacturing, and emerging biotech innovations, making them highly competitive in the global scientific community.