14th International Conference on
Biotechnology

Bioenergy and Renewable Resources utilize biological materials like crops, algae, and organic waste to produce sustainable energy forms such as biofuels, biogas, and biodiesel. This approach reduces dependency on fossil fuels, lowering greenhouse gas emissions and supporting climate goals, making bioenergy a crucial part of renewable energy solutions.

• Track 2-1  Carbon Capture and Utilization in Bioenergy
• Track 2-2  Algal Biofuels and Renewable Feedstock
• Track 2-3  Biomass Conversion and Waste-to-Energy Systems
• Track 2-4  Advances in Biofuel Production Technologies
• Track 2-5  Biogas generation from agricultural residues

Green Manufacturing utilize eco-friendly, sustainable methods to produce products with minimal environmental impact. By harnessing biological processes and renewable resources, they reduce fossil fuel dependence, lower waste, and promote a circular economy. Innovations in bio-based materials, biodegradable products, and cleaner energy sources are key to advancing sustainability and reshaping industries for a greener future.

• Track 3-1  Green Chemistry in Manufacturing
• Track 3-2  Eco-Friendly Industrial Bioprocesses
• Track 3-3  Biocatalysts and Enzyme Engineering for Green Chemistry
• Track 3-4  Scaling Biomanufacturing for Industry Sustainability
• Track 3-5  Sustainable Bioplastics and Bio-Based Materials

Nanobiotechnology combines nanotechnology and biology to create advanced solutions for healthcare, agriculture, and environmental sustainability. By manipulating materials at the nanoscale, it enables innovations in drug delivery, diagnostics, tissue engineering, and biosensors. Nanobiotechnology offers enhanced precision and efficiency, paving the way for breakthroughs in medical treatments, sustainable farming, and pollution control.

• Track 4-1  Nanomaterials in Medicine
• Track 4-2  Tissue Engineering with Nanotechnology
• Track 4-3  Nano-Drug Delivery Systems
• Track 4-4  Nanobiosensors and Diagnostics
• Track 4-5  Nano-Enhanced Agriculture

Healthcare Biotechnology leverages biological processes and organisms to develop innovative medical treatments, diagnostics, and therapies. It plays a pivotal role in advancing personalized medicine, gene therapy, regenerative medicine, and vaccine development. By harnessing the power of biotechnology, healthcare solutions become more targeted, efficient, and capable of addressing complex diseases like cancer, genetic disorders, and infections.

• Track 5-1  Synthetic Biology in Healthcare
• Track 5-2  Gene Therapy Innovations
• Track 5-3  Biopharmaceutical Development
• Track 5-4  Bioinformatics in Healthcare Innovation
• Track 5-5  Vaccine Development and Innovation

Animal biotechnology uses genetic engineering, cloning, and molecular biology to enhance animal health, productivity, and reproduction. This field includes the development of genetically modified animals, advancements. Biotechnology applications in veterinary medicine to improve animal welfare and food security.

• Track 6-1  Genetic Engineering
• Track 6-2  Biotechnology in Aquaculture
• Track 6-3  Artificial Insemination
• Track 6-4  Animal Cloning
• Track 6-5  Animal Vaccination

Tissue engineering in biotechnology is an innovative field focused on creating and regenerating tissues to repair or replace damaged cells, organs, or tissues in the body. This discipline combines principles from biology, engineering, and material science to develop functional biomaterials, scaffolds, and growth factors that support tissue regeneration and healing. Biotechnology advancements have accelerated progress in tissue engineering, allowing for more effective solutions in complex medical applications such as skin grafts, cartilage repair, and organ transplantation.

• Track 7-1  Applications of Tissue Engineering in Medicine
• Track 7-2  Tissue development
• Track 7-3  Stem Cells in Tissue Repair
• Track 7-4  Biomaterials for Tissue Engineering
• Track 7-5  3D Bioprinting for Tissue Structures

Food technology is revolutionizing the way we produce, process, and enhance food products, paving the way for healthier, safer, and more sustainable food solutions. This field uses advanced biotechnological tools to improve food quality, shelf life, and nutritional value, while reducing waste and environmental impact. Through innovations such as fermentation, enzyme technology, and genetic modification, food biotechnology is expanding the potential of food production to meet global demands. This technology also opens new doors for developing plant-based proteins, fortified foods, and functional ingredients, transforming food technology for a future where biotechnology plays a central role in our food systems.

• Track 8-1  Enzyme Technology
• Track 8-2  Food flavours
• Track 8-3  Food Product
• Track 8-4  Nutritional Enhancement
• Track 8-5  Food Quality

Pharmaceutical biotechnology is an emerging field that applies biotechnological principles to create innovative medicines and enhance existing treatments. This discipline integrates cutting-edge techniques such as recombinant DNA technology, genomics, microbiology, and proteomics to develop therapies like nucleic acid-based drugs, vaccines, and monoclonal antibodies. By focusing on bioformulation, it drives the development of precise, targeted treatments, advancing the future of personalized healthcare.

• Track 9-1  Protein Engineering
• Track 9-2  Therapeutic Proteins
• Track 9-3  Immune-Based Treatments
• Track 9-4  Bacterial enzymes
• Track 9-5  Nucleic Acid-Based Therapies

Biomedical engineering combines healthcare and technology to create innovative medical devices, systems, and solutions. By integrating engineering with biological sciences, it advances diagnostics, treatment, and rehabilitation, driving progress in prosthetics, imaging, and regenerative therapies. Through on-going research, it continues to shape the future of medicine and improve patient care.

• Track 10-1  Neural Engineering
• Track 10-2  Microbial Biochemistry
• Track 10-3  Biomedical Imaging and Diagnostics
• Track 10-4  Biomedical
• Track 10-5  Biochemical Toxicology

Algal biotechnology harnesses the potential of algae for a wide range of sustainable applications. By exploring algal biomass, biofuels, and bioactive compounds, this field contributes to renewable energy, environmental sustainability, and pharmaceutical advancements. Algae-based systems offer innovative solutions in carbon sequestration, water purification, and nutrition, making algal biotechnology an exciting frontier for eco-friendly innovations.

• Track 11-1  Algal Products
• Track 11-2  Algal Biomass
• Track 11-3  Algal Biofuels
• Track 11-4  Bioactive Compounds from Algal
• Track 11-5  Algal-Based Polymers for Biodegradable Plastics

AI and Big Data are reshaping biotechnology by accelerating innovation in research and development. AI uncovers patterns in complex data, advancing drug discovery and precision medicine. Big Data processes vast biological datasets, providing deeper insights into genetics and disease. Together, they enhance personalized healthcare and improve agriculture. These technologies are paving the way for smarter, data-driven decisions in biotechnology.

• Track 12-1  AI-Driven Drug Discovery
• Track 12-2   AI in Biotechnology Research
• Track 12-3   AI in Precision Medicine
• Track 12-4  AI in Genetic Engineering
• Track 12-5  AI and Big Data in Agricultural Biotechnology

Digital Biotechnology merges computational tech with biology, using AI, big data, and machine learning to enhance genetic engineering, drug development, and diagnostics. It accelerates research and automation, driving efficiency in bioinformatics and synthetic biology, paving the way for sustainable, innovative biotech solutions.

• Track 13-1  Digital Tools in Genetic Engineering
• Track 13-2  Digital Health
• Track 13-3  Data-Driven Drug Discovery
• Track 13-4  Synthetic Biology
• Track 13-5  Digital Circuitry

Biofabrication is revolutionizing biotechnology by combining engineering and biology to create tissue-like structures through 3D bio printing, cell-laden hydrogels, and scaffold-free techniques. With transformative applications in regenerative medicine and personalized healthcare, this technology advances tissue engineering and aims to reduce organ transplant demand while promoting faster healing.

• Track 14-1  Regenerative Medicine
• Track 14-2  Regulatory Challenges in Biofabrication
• Track 14-3  3D Bioprinting for Tissue Engineering
• Track 14-4  Biomaterials for Biofabrication
• Track 14-5  Cell-Laden Hydrogels in Biofabrication

Cancer biology in biotechnology focuses on understanding the molecular mechanisms driving cancer progression, from genetic mutations to tumor microenvironment dynamics. This field leverages cutting-edge technologies like gene editing, personalized medicine, and targeted therapies to develop innovative treatments. Advances in cancer immunotherapy, biomarkers, and cancer stem cell research are reshaping therapeutic strategies.

• Track 15-1  Tumor Immunology
• Track 15-2  Cancer Metabolism
• Track 15-3  Cancer Drug Resistance
• Track 15-4  Cancer Genomics
• Track 15-5  Cancer Stem Cells

Bioprocessing technology leverages living organisms or their parts to create valuable products, including pharmaceuticals, biofuels, and food. By integrating biology, chemistry, and engineering, it enhances processes like fermentation and cell culture. Aimed at increasing efficiency, sustainability, and scalability, it plays a crucial role in industries such as agriculture, and environmental management.

• Track 16-1  Fermentation Processes
• Track 16-2  Scaling Bioprocesses
• Track 16-3  Green Bioprocessing
• Track 16-4  Biofuel Production
• Track 16-5  Cell Culture Optimization

Microbial Biotechnology harnesses the power of microorganisms to drive innovative solutions in diverse fields, from environmental sustainability to medicine. By manipulating microbes at the genetic level, this discipline advances bio-remediation, microbial fuel cells, and the production of bio-based products. With its potential for addressing global challenges, Microbial Biotechnology plays a key role in enhancing agricultural productivity, combating diseases, and developing sustainable energy sources.

• Track 17-1  Microbial Fuel Cells
• Track 17-2  Microbial Biodiversity
• Track 17-3  Microbial Engineering
• Track 17-4  Microbial Pathogenesis
• Track 17-5  Microbial Bioremediation

Industrial Biotechnology also emphasizes the optimization of bioprocesses to enhance yield and reduce costs. Advances in synthetic biology enable the creation and assembly of novel biological components, devices, and systems, broadening the range of possible applications. This technology plays a crucial role in promoting sustainable manufacturing practices and contributes to waste management by transforming waste materials into valuable resources.

• Track 18-1  Bio-based Lubricants and Surfactants
• Track 18-2  Food and Beverage Industry
• Track 18-3  Biocatalysis and Enzyme Technology
• Track 18-4  Industrial Biotechnology Applications
• Track 18-5  Industrial Biotechnology Regulations and Ethics

Agricultural biotechnology focuses on using advanced genetic engineering, molecular biology, and biotechnology tools to improve crop yields, resistance to pests, and tolerance to environmental stresses. It enhances food security and sustainability by developing genetically modified plants that can thrive in diverse conditions. This field also aids in the development of biofertilizers and biopesticides, promoting environmentally friendly agricultural practices.

• Track 19-1  Precision Agriculture
• Track 19-2  Biopesticides and Biofertilizers
• Track 19-3  Sustainable Agriculture
• Track 19-4  Crop Improvement
• Track 19-5  Gene Editing in Agriculture

Genetic Engineering involves altering an organism's DNA to introduce new traits or enhance existing ones. Using tools like CRISPR, it enables precise gene editing for advancements in medicine, agriculture, and biotechnology. This technology creates genetically modified organisms (GMOs) with traits like disease resistance and higher yield. It holds great potential in addressing global challenges in health, food security, and sustainability.

• Track 20-1  CRISPR Technology
• Track 20-2  CRISPR Technology
• Track 20-3  Genomic Medicine
• Track 20-4  DNA Sequencing
• Track 20-5  Genetic Diagnosis
• Track 20-6  Sustainability in Genetic Engineering