PATTAYA 4th International Conference on Biosciences, Health Technology & Sustainable Engineering: BHTSE-27

Call for Papers:BHTSE-27

Full Articles/ Reviews/ Shorts Papers/ Abstracts are welcomed in the following research fields:

1. Biosciences and Molecular Life Sciences

Biosciences include molecular biology, cell biology, genetics, genomics, proteomics, transcriptomics, metabolomics, epigenetics, microbiology, biochemistry, biotechnology, bioinformatics, systems biology, synthetic biology, developmental biology, evolutionary biology, structural biology, molecular diagnostics, gene expression, DNA sequencing, gene editing, CRISPR technologies, recombinant DNA technology, stem-cell biology, tissue engineering, regenerative medicine, biomaterials, biosensors, molecular imaging, cellular signalling, protein engineering, enzyme technology, microbial biotechnology, industrial biotechnology, agricultural biotechnology, environmental biotechnology, pharmaceutical biotechnology, computational biology, biological data analysis, and applications of artificial intelligence in life-science research.

2. Biomedical Sciences, Disease Mechanisms and Diagnostics

Biomedical research covers human physiology, pathology, immunology, infectious diseases, cancer biology, cardiovascular diseases, neurological disorders, metabolic diseases, diabetes, respiratory diseases, autoimmune diseases, genetic disorders, rare diseases, ageing, inflammation, microbiome research, host–pathogen interactions, biomarkers, disease progression, precision diagnostics, molecular diagnostics, clinical laboratory technologies, point-of-care testing, medical imaging, digital pathology, liquid biopsy, biosensors, wearable diagnostics, diagnostic nanotechnology, early disease detection, personalized medicine, predictive medicine, genomic medicine, companion diagnostics, artificial intelligence for disease detection, and integration of biological and clinical data for healthcare decision-making.

3. Health Technology and Digital Healthcare

Health technology includes digital health, telemedicine, telehealth, mobile health, electronic health records, health information systems, hospital information systems, clinical decision-support systems, medical software, wearable health devices, remote patient monitoring, smart medical devices, connected healthcare, Internet of Medical Things, medical robotics, rehabilitation technologies, assistive technologies, virtual reality in healthcare, augmented reality in medicine, digital therapeutics, patient-monitoring systems, intelligent diagnostic platforms, artificial intelligence in healthcare, machine learning for clinical prediction, medical data analytics, health informatics, cloud-based healthcare systems, healthcare cybersecurity, blockchain in healthcare, interoperability, digital twins in medicine, automated healthcare systems, and ethical, privacy and regulatory issues related to digital medical technologies.

4. Medical Devices, Biomedical Engineering and Healthcare Innovation

Biomedical engineering connects engineering with medicine through medical instrumentation, biomedical sensors, implantable devices, prosthetics, orthotics, artificial organs, cardiovascular devices, respiratory devices, diagnostic equipment, therapeutic equipment, medical imaging systems, ultrasound technology, biomedical signal processing, physiological monitoring, rehabilitation engineering, neural engineering, brain–computer interfaces, biomechanical systems, biocompatible materials, smart biomaterials, nanomedicine, drug-delivery devices, microfluidics, lab-on-a-chip technologies, organ-on-a-chip systems, 3D bioprinting, medical robotics, surgical technologies, healthcare automation, device miniaturization, energy-efficient medical devices, device reliability, medical-device testing, regulatory compliance, clinical validation, and sustainable design of healthcare technologies.

5. Biotechnology, Bioprocessing and Bio-Based Manufacturing

Biotechnology and bioprocess engineering include fermentation, microbial production systems, bioreactors, enzyme production, protein production, pharmaceutical bioprocessing, vaccine manufacturing, monoclonal antibodies, cell-culture technology, downstream processing, purification systems, biosynthesis, metabolic engineering, synthetic biology, bio-based chemicals, biofuels, bioplastics, industrial enzymes, biomass conversion, waste-to-value technologies, agricultural biotechnology, food biotechnology, marine biotechnology, algal biotechnology, microbial biotechnology, sustainable biomanufacturing, process optimization, process intensification, life-cycle assessment of biotechnology processes, circular bioeconomy, industrial symbiosis, resource recovery, and integration of artificial intelligence and process analytics in biomanufacturing.

6. Sustainable Engineering and Green Technologies

Sustainable engineering includes sustainable design, eco-design, green engineering, cleaner production, energy efficiency, resource efficiency, material efficiency, low-carbon engineering, renewable-energy systems, solar energy, wind energy, hydropower, geothermal energy, hydrogen technologies, fuel cells, energy storage, battery technologies, smart grids, sustainable buildings, green construction, sustainable infrastructure, environmentally friendly materials, green manufacturing, circular economy, industrial ecology, waste minimization, recycling technologies, life-cycle assessment, carbon-footprint reduction, decarbonization, net-zero engineering, climate-resilient infrastructure, environmental impact assessment, sustainable transportation, electric mobility, smart cities, digitalization for sustainability, and artificial intelligence for energy and resource optimization.

7. Environmental Biotechnology, Pollution Control and Resource Recovery

Environmental biotechnology covers wastewater treatment, drinking-water treatment, biological wastewater treatment, membrane technologies, bioremediation, phytoremediation, microbial remediation, heavy-metal removal, organic pollutant degradation, emerging contaminants, pharmaceutical contaminants, microplastics, biosorption, biochar, activated carbon, biological filtration, anaerobic digestion, constructed wetlands, microbial fuel cells, waste stabilization, sludge management, sewage-sludge valorization, nutrient recovery, phosphorus recovery, nitrogen recovery, water reuse, industrial wastewater treatment, desalination, resource recovery from waste streams, circular water systems, waste-to-energy technologies, environmental biosensors, pollution monitoring, environmental microbiology, green remediation, and sustainable treatment technologies.

8. Waste Management, Circular Economy and Sustainable Materials

Waste and materials research includes municipal solid waste, industrial waste, agricultural waste, biomedical waste, electronic waste, plastic waste, hazardous waste, food waste, sewage sludge, waste segregation, recycling, reuse, recovery, composting, anaerobic digestion, waste-to-energy, pyrolysis, gasification, hydrothermal carbonization, biochar production, material recovery, resource efficiency, circular production systems, circular supply chains, industrial symbiosis, sustainable packaging, biodegradable materials, bioplastics, recycled composites, green composites, sustainable polymers, nanomaterials, construction-waste recycling, life-cycle assessment, material-flow analysis, zero-waste strategies, and environmental and economic assessment of circular-economy technologies.

9. Water, Sanitation and Sustainable Environmental Systems

Water and sanitation research includes water-resource management, water-quality assessment, drinking-water treatment, wastewater treatment, water reuse, desalination, rainwater harvesting, groundwater management, surface-water protection, membrane filtration, adsorption, coagulation, advanced oxidation processes, biological treatment, electrochemical treatment, constructed wetlands, decentralized wastewater treatment, smart water networks, water-energy nexus, water-food-energy nexus, sanitation technologies, sludge treatment, pathogen removal, nutrient removal, pharmaceutical and antibiotic removal, heavy-metal removal, emerging contaminants, microbial contamination, water monitoring, biosensors for water quality, sustainable urban drainage, flood management, drought resilience, and climate-resilient water infrastructure.

10. Renewable Energy, Bioenergy and Energy Sustainability

Energy sustainability includes renewable-energy technologies, bioenergy, biomass conversion, biogas, bioethanol, biodiesel, biohydrogen, algal biofuels, waste-derived fuels, anaerobic digestion, microbial fuel cells, solar energy, photovoltaic systems, wind energy, geothermal systems, hydropower, hydrogen production, green hydrogen, fuel cells, battery storage, thermal-energy storage, energy-management systems, smart grids, energy harvesting, waste heat recovery, energy efficiency in industry, building energy efficiency, sustainable transport energy, electric vehicles, carbon capture and utilization, low-carbon fuels, energy life-cycle assessment, techno-economic assessment, energy policy, decentralized energy systems, and integration of renewable technologies with sustainable industrial processes.

11. Public Health, Environmental Health and Healthcare Sustainability

Public and environmental health research includes epidemiology, population health, occupational health, environmental exposure, air pollution, water pollution, food safety, climate change and health, infectious-disease surveillance, antimicrobial resistance, environmental toxicology, health-risk assessment, disease prevention, community health, urban health, workplace safety, healthcare access, health inequalities, health policy, healthcare management, hospital sustainability, green hospitals, energy use in healthcare, medical-waste management, sustainable procurement, low-carbon healthcare, sustainable medical devices, environmental impacts of pharmaceuticals, healthcare supply chains, digital health for public-health monitoring, and integration of environmental sustainability into healthcare systems.

12. Food Biosciences, Nutrition and Sustainable Food Systems

Food and nutrition research includes food microbiology, food chemistry, food biotechnology, functional foods, nutraceuticals, probiotics, prebiotics, food safety, food-borne pathogens, food quality, food preservation, smart packaging, biodegradable packaging, food processing, fermentation, alternative proteins, plant-based foods, cultured meat, precision fermentation, nutritional biochemistry, clinical nutrition, personalized nutrition, food authentication, food contaminants, biosensors for food safety, agricultural biotechnology, crop improvement, sustainable agriculture, precision agriculture, soil health, water efficiency, food-waste reduction, food-waste valorization, circular food systems, sustainable supply chains, and assessment of environmental impacts across food-production systems.

13. Pharmaceutical Sciences, Drug Delivery and Sustainable Pharmaceuticals

Pharmaceutical research includes drug discovery, medicinal chemistry, pharmacology, toxicology, pharmacokinetics, pharmacodynamics, pharmaceutical biotechnology, biologic medicines, vaccines, gene therapies, personalized medicine, nanomedicine, targeted drug delivery, controlled-release systems, nanoparticles, liposomes, hydrogels, transdermal systems, implantable drug-delivery devices, pharmaceutical manufacturing, process analytical technologies, quality control, pharmaceutical waste, green chemistry, sustainable pharmaceutical production, solvent reduction, energy-efficient manufacturing, pharmaceutical contaminants in water, antibiotic residues, antimicrobial resistance, drug recycling, environmental risk assessment of medicines, digital pharmaceutical manufacturing, artificial intelligence in drug discovery, and computational modelling of drug development.

14. Smart Technologies, Artificial Intelligence and Data-Driven Biosystems

Data-driven bioscience and engineering cover artificial intelligence, machine learning, deep learning, bioinformatics, computational biology, medical image analysis, predictive diagnostics, clinical prediction, genomics analytics, protein-structure prediction, drug discovery, digital pathology, personalized healthcare, sensor-data analytics, environmental monitoring, pollution prediction, process optimization, predictive maintenance, smart manufacturing, autonomous laboratories, laboratory automation, robotics in bioscience, digital twins, Internet of Things, Internet of Medical Things, smart biosensors, smart environmental sensors, edge computing, cloud computing, big-data analytics, explainable AI, healthcare data governance, cybersecurity, sustainable computing, and responsible application of intelligent systems in healthcare and environmental engineering.

15. Climate Change, Sustainability and Human Health

Climate-health research connects climate science, engineering and medicine through climate-change impacts on human health, heat stress, air-quality deterioration, vector-borne diseases, water-borne diseases, food security, malnutrition, climate-related migration, disaster health, extreme weather, occupational exposure, urban heat islands, climate-resilient healthcare infrastructure, low-carbon healthcare systems, renewable energy for hospitals, sustainable cooling systems, resilient water and sanitation, disaster-response technologies, environmental epidemiology, climate-risk assessment, adaptation strategies, mitigation technologies, carbon reduction, sustainable cities, nature-based solutions, ecosystem health, planetary health, and integrated approaches linking environmental sustainability with public health.

16. Interdisciplinary Biosciences, Health Technology and Sustainable Engineering

Interdisciplinary research can combine biosensors with environmental monitoring, artificial intelligence with medical diagnostics, biotechnology with wastewater treatment, biochar with heavy-metal removal, nanotechnology with drug delivery, renewable energy with healthcare infrastructure, biomedical engineering with sustainable materials, microbial technologies with resource recovery, biotechnology with circular economy, genomics with personalized medicine, wearable devices with remote healthcare, digital twins with medical-device development, smart sensors with water-quality monitoring, bioprocessing with waste valorization, healthcare sustainability with life-cycle assessment, pharmaceutical production with green chemistry, medical waste with circular-economy strategies, climate change with public health, energy-efficient technologies with hospital sustainability, and data-driven engineering with sustainable biological and healthcare systems.