Plant Molecular Biology focuses on understanding the molecular and genetic mechanisms that regulate plant growth, development, and adaptation. This session will explore advances in plant genomics, gene expression analysis, and regulatory networks that control essential biological processes. Emphasis will be placed on transcription factors, epigenetic modifications, and signal transduction pathways that enable plants to respond to environmental stimuli such as drought, salinity, temperature stress, and pathogen attack. Cutting-edge approaches including next-generation sequencing (NGS), functional genomics, and bioinformatics tools will be discussed to illustrate how large-scale molecular data are transforming plant research.

The session will also highlight translational research and applied innovations in plant biotechnology. Topics include CRISPR/Cas-mediated genome editing, molecular breeding, and metabolic pathway engineering aimed at improving crop yield, stress tolerance, and nutritional quality. Special attention will be given to plant–microbe interactions, molecular defense mechanisms, and the integration of omics technologies for sustainable agriculture. By connecting fundamental molecular insights with practical agricultural applications, this session provides a comprehensive overview of how molecular biology is shaping the future of plant science.

Key Highlights

• Advances in plant genomics and functional gene analysis
• Applications of CRISPR/Cas genome editing in crops
• Molecular mechanisms of abiotic and biotic stress tolerance
• Role of epigenetics in plant development and adaptation
• Integration of omics technologies and systems biology
• Translational research for sustainable agriculture

Why This Session Is Important?

Plant Molecular Biology is essential for addressing critical global challenges such as food security, climate resilience, and sustainable crop production. Understanding plant systems at the molecular level enables the development of high-yield, stress-resistant, and nutritionally enhanced crops. This session brings together researchers and practitioners to translate molecular discoveries into innovative solutions that support agricultural sustainability and environmental resilience.

Plant Cell Biology and Molecular Biotechnology focuses on the structural, functional, and molecular organization of plant cells and their application in modern biotechnology. This session explores cellular architecture, organelle function, and cell cycle regulation, highlighting how intracellular processes coordinate plant growth and development. Emphasis will be placed on cell signaling pathways, cytoskeletal dynamics, and cell differentiation mechanisms that govern tissue formation and physiological responses. Advanced molecular tools such as fluorescence imaging, cellular markers, and omics-based approaches will be discussed to demonstrate how plant cell biology provides insights into complex biological systems.

The second part of the session emphasizes applied research in molecular biotechnology, showcasing innovations that translate cellular knowledge into practical solutions. Topics include genetic engineering, CRISPR/Cas genome editing, and plant tissue culture techniques for crop improvement, stress tolerance, and enhanced productivity. Discussions will also address transgenic technologies, metabolic engineering, and the integration of cell biology with molecular breeding strategies. By bridging fundamental cell biology with biotechnological applications, this session highlights how cellular-level understanding drives advances in sustainable agriculture, food security, and plant-based bioproducts.

Key Highlights

• Advances in plant cell structure and organelle function
• Insights into cell cycle regulation and differentiation
• Role of cell signaling and cytoskeletal dynamics
• Applications of CRISPR/Cas in plant biotechnology
• Innovations in plant tissue culture and regeneration
• Integration of cell biology with molecular biotechnology

Why This Session Is Important?

This session is crucial for advancing plant science from the cellular to the applied level. Understanding plant cells enables precise manipulation of traits essential for crop resilience, yield improvement, and biotechnological innovation. By combining cell biology with molecular biotechnology, this session supports the development of sustainable agricultural solutions and next-generation plant-based technologies.

Plant Genetics and Genomics focuses on understanding the inheritance, variation, and molecular basis of traits that shape plant growth, development, and adaptation. This session explores foundational principles of plant genetics, including gene inheritance, mutation, and recombination, alongside modern genomic approaches that decode complex plant genomes. Emphasis will be placed on genome sequencing, gene mapping, and functional genomics to reveal how genetic information controls phenotypic traits. Advanced methodologies such as transcriptome analysis, molecular markers, and bioinformatics tools will be discussed to demonstrate how large-scale genomic data are accelerating discoveries in both model plants and major crop species.

The session will also highlight applied and translational aspects of plant genomics in crop improvement and sustainable agriculture. Topics include quantitative trait loci (QTL) analysis, genome-wide association studies (GWAS), and the use of marker-assisted selection for developing high-yielding, stress-tolerant, and disease-resistant crops. Discussions will cover comparative genomics and evolutionary genetics to understand genetic diversity and adaptation, as well as the integration of genomic data with breeding programs. By bridging classical genetics with high-throughput genomic technologies, this session provides a comprehensive framework for translating genetic knowledge into practical agricultural and biotechnological solutions.

Key Highlights

• Advances in plant genome sequencing and annotation
• Insights into trait inheritance and genetic diversity
• Applications of GWAS and QTL mapping
• Role of functional genomics in gene discovery
• Use of molecular markers in crop breeding
• Integration of genomics and bioinformatics

Why This Session Is Important?

Plant Genetics and Genomics is essential for meeting global challenges related to food security, climate adaptation, and sustainable crop production. Understanding genetic variation at the genome level enables precise crop improvement strategies and informed breeding decisions. This session empowers researchers and practitioners to harness genetic and genomic knowledge for developing resilient, high-performing plant varieties that support future agricultural sustainability.

CRISPR-Cas9 and Genome Editing in Plants highlights revolutionary tools that enable precise, efficient, and targeted modification of plant genomes. This session will explore the mechanism of CRISPR-Cas systems, focusing on Cas9-mediated DNA cleavage, guide RNA design, and factors influencing editing efficiency and specificity. Emphasis will be placed on emerging technologies such as base editing, prime editing, and multiplex genome editing, which allow refined genetic alterations without introducing foreign DNA. Participants will gain insights into genome editing strategies for functional gene analysis, trait validation, and pathway engineering using modern molecular approaches.

The second part of the session will focus on applied and translational aspects of plant genome editing. Topics include delivery methods such as Agrobacterium-mediated transformation, particle bombardment, and ribonucleoprotein (RNP) systems, along with strategies to minimize off-target effects. Discussions will also address regulatory frameworks, biosafety considerations, and ethical perspectives surrounding genome-edited crops. Case studies on crop improvement, including enhanced stress tolerance, disease resistance, yield optimization, and nutritional enhancement, will demonstrate how CRISPR-based technologies are reshaping sustainable agriculture and modern plant breeding.

Key Highlights

• Fundamentals of CRISPR-Cas9 and related systems
• Advances in base and prime editing technologies
• Precision genome modification for trait improvement
• Strategies to enhance editing efficiency and specificity
• Regulatory and biosafety considerations in plant editing
• Real-world applications in crop biotechnology

Why This Session Is Important?

CRISPR-based genome editing represents a transformative approach in plant science, enabling rapid and precise crop improvement. This session is crucial for advancing food security, climate-resilient agriculture, and sustainable crop development. By bridging fundamental mechanisms with practical applications, the session equips researchers, breeders, and biotechnologists with the knowledge needed to responsibly deploy genome editing technologies for future agricultural innovation.

Plant Synthetic Biology is an emerging interdisciplinary field that combines plant molecular biology, genetic engineering, and engineering design principles to construct and redesign biological systems for predictable functions. This session focuses on the design and implementation of synthetic genetic circuits, modular DNA components, and programmable regulatory elements that enable precise control of gene expression in plants. Advances in modular cloning, standardized biological parts, and computational modeling will be discussed, highlighting how synthetic approaches allow rational design of complex plant traits. The session will also explore the integration of genome editing technologies with synthetic biology frameworks to accelerate functional validation and trait optimization.

The second part of the session emphasizes real-world applications of plant synthetic biology in agriculture and industry. Topics include metabolic engineering for the production of high-value compounds, pharmaceuticals, and bio-based materials, as well as the development of plants with enhanced stress tolerance, yield, and resource-use efficiency. Discussions will address biosafety, risk assessment, and regulatory landscapes associated with synthetic plant systems. By bridging biological discovery with engineering-driven innovation, this session demonstrates how plant synthetic biology can contribute to sustainable agriculture, green biotechnology, and future bioeconomy solutions.

Key Highlights

• Design of synthetic genetic circuits in plants
• Advances in metabolic pathway engineering
• Integration of synthetic biology and genome editing
• Use of computational tools for system design
• Applications in biomanufacturing and agriculture
• Biosafety and regulatory perspectives

Why This Session Is Important?

Plant Synthetic Biology offers transformative solutions for addressing global challenges such as food security, climate change, and sustainable production systems. By enabling programmable and predictable plant traits, this session supports the development of innovative crops and plant-based bioproducts. It brings together researchers and industry experts to translate synthetic designs into scalable, responsible, and impactful plant biotechnology applications.

Systems Biology and Bioinformatics in Plant Science focuses on understanding plants as integrated biological systems rather than isolated components. This session explores how systems biology approaches combine genomics, transcriptomics, proteomics, and metabolomics data to reveal complex gene regulatory networks and molecular pathways underlying plant growth, development, and environmental responses. Emphasis will be placed on data integration strategies, network modeling, and pathway analysis that enable holistic interpretation of large-scale biological datasets. Advanced bioinformatics tools, computational pipelines, and statistical frameworks will be discussed to demonstrate how high-throughput technologies are reshaping modern plant research.

The session will also highlight applied computational approaches that translate multi-omics data into practical insights for agriculture and biotechnology. Topics include machine learning and artificial intelligence for trait prediction, stress response modeling, and phenotype–genotype associations. Discussions will cover the use of public plant databases, visualization platforms, and reproducible bioinformatics workflows to support collaborative research. By integrating computational analysis with experimental biology, this session provides a powerful framework for accelerating crop improvement, enhancing stress tolerance, and supporting sustainable plant production systems.

Key Highlights

• Integration of multi-omics datasets in plant research
• Modeling of gene regulatory and metabolic networks
• Use of bioinformatics pipelines for high-throughput data
• Applications of AI and machine learning in plant science
• Visualization and interpretation of complex biological data
• Translational insights for crop improvement

Why This Session Is Important?

As plant science enters the era of big data, systems biology and bioinformatics are essential for converting complex datasets into biological understanding. This session equips researchers with integrative and computational perspectives needed to address challenges in food security, climate resilience, and sustainable agriculture, enabling data-driven innovation in plant science.

Omics Technologies in Plant Biotechnology focuses on comprehensive, high-throughput approaches that enable global analysis of plant biological systems at multiple molecular levels. This session will explore advances in genomics, transcriptomics, proteomics, metabolomics, and epigenomics that collectively provide deep insights into gene function, regulation, and metabolic pathways. Emphasis will be placed on how next-generation sequencing, mass spectrometry, and high-throughput phenotyping technologies generate large-scale datasets to elucidate complex traits related to growth, development, and environmental adaptation. The session will also address bioinformatics tools and data integration strategies essential for interpreting multi-dimensional omics data.

The second part of the session highlights translational applications of omics technologies in modern plant biotechnology. Topics include multi-omics integration for trait discovery, stress tolerance analysis, and crop improvement strategies. Discussions will cover how omics-driven insights support molecular breeding, genome editing, and metabolic engineering for enhanced yield, quality, and resilience. By linking molecular-level data with phenotypic outcomes, this session demonstrates the critical role of omics technologies in advancing sustainable agriculture, plant-based bioproduct development, and future-ready biotechnological solutions.

Key Highlights

• Advances in genomics and transcriptome analysis
• Proteomic and metabolomic profiling of plant systems
• Role of epigenomics in gene regulation
• Integration of multi-omics datasets
• Bioinformatics-driven trait discovery
• Applications in crop biotechnology

Why This Session Is Important?

Omics technologies are transforming plant biotechnology by enabling holistic and data-driven understanding of plant systems. This session is crucial for accelerating crop improvement, enhancing stress resilience, and supporting sustainable agricultural innovation. By integrating multiple omics layers, researchers can translate complex molecular information into actionable strategies for global food and environmental security.

Plant Proteomics, Metabolomics, and Phenomics focuses on understanding plant function beyond the genome by analyzing proteins, metabolites, and observable traits that directly shape plant performance. This session will explore advances in plant proteomics, including protein expression profiling, protein–protein interactions, and post-translational modifications that regulate cellular processes. In parallel, plant metabolomics will be highlighted as a powerful approach to study metabolic pathways, secondary metabolites, and biochemical responses associated with growth, development, and environmental stress. Cutting-edge technologies such as mass spectrometry, chromatography-based platforms, and high-throughput analytical tools will be discussed to illustrate how functional molecular data are generated and interpreted.

The second part of the session emphasizes plant phenomics, which connects molecular changes to whole-plant traits through high-throughput phenotyping and advanced imaging technologies. Topics include genotype–phenotype associations, metabolic signatures of stress tolerance, and phenomic approaches for yield and quality assessment. Discussions will focus on integrating proteomics, metabolomics, and phenomics datasets to achieve a systems-level understanding of plant biology. By linking molecular functions with physiological and agronomic traits, this session demonstrates how functional omics drive innovation in crop improvement, precision breeding, and sustainable agriculture.

Key Highlights

• Advances in protein profiling and functional proteomics
• Comprehensive metabolite analysis and pathway mapping
• High-throughput plant phenotyping technologies
• Integration of functional omics with phenotypic data
• Insights into stress adaptation and plant physiology
• Applications in precision agriculture and crop breeding

Why This Session Is Important?

This session is critical for translating molecular data into real-world agricultural outcomes. Proteomics, metabolomics, and phenomics provide direct links between gene function, metabolism, and plant performance. By integrating these approaches, researchers can better understand complex traits, accelerate crop improvement, and develop resilient, high-performing plant varieties essential for food security, climate adaptation, and sustainable agricultural systems.