BEYZA BAYRAM

Sustainable Composites to Reduce Plastic and Carbon Footprint: Recycled Polymer–Natural Fiber Approach for Electric Vehicle Interiors

• Sustainable composite design for automotive interiors
• Polymer–natural fiber processing and characterization
• Life Cycle Assessment (LCA), carbon and plastic footprint analysis
• Experimental design, data collection, and optimization
• Scientific reporting and documentation
• Interdisciplinary teamwork and project coordination

Real-Time Monitoring and Assessment of Carbon Footprint with C-Calculator: A Sustainability-Oriented Approach in Bioprocess Systems

• Environmental Policies and Regulations
• Carbon Footprint Analysis
• Carbon Emissions Verification and Reporting
• Carbon Disclosure Project (CDP) Reporting
• Environmental Sustainability
• European Green Deal Policies
• ISO 14064 Greenhouse Gas Emissions Measurement and Verification
• ISO 14067 Carbon Footprint of Products
• ISO 14001 Environmental Management Systems
• Greenhouse Gas Protocol (GHG Protocol)
• Carbon Emission Management
• Sustainability Standards and Compliance
• Life Cycle Assessment (LCA)
• Carbon Border Adjustment Mechanism (CBAM)
• Emission Trading Systems (ETS)
• Carbon Neutrality Strategies

Smart Cryo-Gel Biomaterial Enriched with Hypoxia-Induced Exosomes for Chronic Wound Healing

• Design and development of smart cryo-gel biomaterials
• Isolation and characterization of hypoxia-induced exosomes
• Application of biomaterials for chronic wound healing
• Cell culture techniques and tissue engineering methods
• Experimental design, data collection, and optimization
• Scientific reporting and documentation
• Teamwork and interdisciplinary collaboration

Cultivation of Hypericum perforatum (St. John’s Wort) – Bioengineering Laboratory Course

• Laboratory cultivation of medicinal plants (St. John’s Wort)
• Plant growth monitoring and maintenance
• Sterile technique and aseptic handling
• Experimental design and optimization
• Data collection, analysis, and interpretation
• Scientific reporting and documentation
• Teamwork in laboratory projects

Streptomycin Production – Bioengineering Design Course

• Researched streptomycin production process, national and global production rates, and applications.
• Determined suitable geographical location and selected the factory site.
• Calculated required equipment, culture, and energy balances for production.
• Performed reactor selection and related calculations.
• Determined appropriate pump efficiencies and piping between equipment.

Fucoxanthin Production – Bioengineering Laboratory Course

• Laboratory-scale production and analysis of fucoxanthin
• Microbiological and biochemical techniques
• Experimental design and optimization
• Data collection, analysis, and interpretation
• Scientific reporting and documentation
• Teamwork in laboratory projects

• Micropropagation
• Explant sterilization
• Acclimatization
• Media preparation
• Culturing techniques
• Callus formation and shoot multiplication