International Conference on

Synthetic Biology

Paris, France   July 16-17, 2018

Call for Abstract

Plant Cell Biotechnology is widely involved with experimental analysis on plants and plant like organisms (fungi and cyanobacteria). Plant cell Biotechnology exploring each basic and applied aspects of biotechnological analysis and encompasses numerous disciplines together with plant biotechnology, agricultural biotechnology, tree-biotechnology, environmental-biotechnology, food biotechnology, marine biotechnology, molecular breeding and genetic science, molecular phytopathology, biological process and cell biology, gene-splicing and transgenic technology.

  • Track 1-1: Machine learning in molecular systems biology
  • Track 1-2: Current challenges in modeling cellular metabolism
  • Track 1-3: Plant Biotechnology, Plant Genetics and its developments
  • Track 1-4: Molecular Markers & Transgenics

Synthetic biology is that the convergence of advances in chemistry, biology, engineering, and engineering that allows us to move from research to product quicker, cheaper, and with bigger preciseness than ever before. It can often thought of as a biology-based “toolkit” that uses abstraction, standardization, and automatic construction to alter however we have a tendency to build biological systems and expand the vary of attainable product. A community of specialists across several disciplines is coming back along to form these new foundations for several industries, together with drugs, energy and also the Environment

  • Track 2-1: Transcriptomics & Interferomics
  • Track 2-2: Lipidomics & Genomics
  • Track 2-3: Protein supplements
  • Track 2-4: Proteomics & Glycomics

The Advanced techniques in Synthetic Biology Described, Including the application of microscopy and microfluidics to measure the dynamics of single cells. The characterization of a circuit requires its perturbation. Typically this has been accomplished through the addiction or removal of an inducer such as IPTG. This process is slow and inaccurate and relies on a transcriptional process. New methods are Optogenetic allow the perturbation of signaling network using lights. The advanced another method is Method of Enzymology.

  • Track 3-1: The first living Thing (Mycoplasma capricolum)
  • Track 3-2: Applications
  • Track 3-3: Methods for Synthetic Biology
  • Track 3-4: Making Green Chemicals from Agricultural Waste

Humans are modifying the genetic characteristics of plants and animals for millennia by dominant the breeding of species so as to pick surely traits or characteristics and to scale back or eliminate others. the invention of the structure of desoxyribonucleic acid in 1953, the popularity of its importance because the carrier of monogenic genetic info, followed by the event of deoxyribonucleic acid technology 20 years later, made-up the manner for powerful technologies to govern genes directly Associate  Nursing  in such how that the genotype and constitution of an organism may be altered with utmost exactness in a very single generation.

  • Track 4-1: Types of Animal Synthetic Biology
  • Track 4-2: Methods involved
  • Track 4-3: Applications
  • Track 4-4: Advancements in Synthetic Biology

Plant Synthetic biology is associate degree rising field that mixes engineering principles with plant biology toward the planning and production of recent devices. This rising field ought to play a vital role in future agriculture for ancient crop improvement, however conjointly in sanctionative novel bioproduction in plants. during this review we tend to discuss the planning cycles of artificial biology yet as key engineering principles, genetic components, and procedure tools which will be used in plant Synthetic biology. Some pioneering examples area unit offered as an illustration of however Synthetic biology is accustomed modify plants for specific functions. These embody synthetic sensors, Synthetic metabolic pathways, and Synthetic genomes. we tend to conjointly speculate concerning the long run of Synthetic biology of plants.

  • Track 5-1: Non-Transgenic Molecular Methods of Manipulation
  • Track 5-2: Agrobacterium Method
  • Track 5-3: Gene gum Method
  • Track 5-4: Applications

Molecular engineering is any suggests that of producing molecules. it's going to be accustomed produce, on a particularly tiny scale, most generally one at a time, new molecules which can’t exist in nature, or be stable on the far side a really slender vary of conditions. these days this is often AN arduous method, requiring manual manipulation of molecules mistreatment such devices as a scanning tunneling magnifier. Eventually it's expected to take advantage of life-like self-replicating 'helper molecules' that area unit themselves built. therefore the sphere is seen as a exactitude type of chemical engineering that has super molecule engineering, the creation of super molecule molecules, a method that happens naturally in organic chemistry, e.g., particle replica. However, it provides way more management than genetic modification of AN existing ordering, that should swear strictly on existing organic chemistry to precise genes as proteins, and has very little power to supply any non-proteins.

  • Track 6-1: Genetic Engineering techniques
  • Track 6-2: Molecular Genetics and Microbiology
  • Track 6-3: Genetic and molecular basis of crop improvement
  • Track 6-4: Plant and Human Genetics

As we grow older our body parts fail to function in a normal way. Our current medical technology helps in regenerating the damaged body parts. Many species can regenerate by themselves. For example a Salomon can regrow its limbs, tails etc. whereas in human it is possible only for the liver to regenerate. Thus regenerative medicine promises the restoration of body parts with their own living tissues by inculcating scaffolds. Tissue engineering is a fast growing area of research that aims to create tissue equivalents of blood vessels, heart muscle, nerves, cartilage, bone, and other organs for replacement of tissue either damaged through disease or trauma. As an interdisciplinary field, principles from biological, chemical, electrical, materials science, and mechanical engineering are employed in research and development.

Tissue engineering is an interdisciplinary course dealing with the building up of new organs. It reveals us the truth that nature can be imitated by the evaluation of tissue engineering. It substitutes the biological functions by replacing the replaced or damaged tissues by the combination of cells, organic materials, and biochemical factors. It involves implantation, restoration, and regeneration of tissues.

  • Track 7-1: Recapitulating tissue and organ structure
  • Track 7-2: Animal models of tissue regeneration
  • Track 7-3: Molecular fundamentals of regeneration
  • Track 7-4: Human tissue regeneration: Challenges in in-vivo and in-vitro regeneration
  • Track 7-5: In silico Tissue engineering & Treatment models
  • Track 7-6: Intrinsic & Guided Tissue regeneration

Synthetic Biology has pioneered transformative approaches that are poignant however scientists tackle key queries in class cell biology. artificial biology techniques have wide-ranging pertinence and usually build use of genetic devices, or collections of genetic parts coding explicit functions, for searching key cellular mechanisms. Early success centered on designed transcription-based restrictive systems primarily in microorganism. a lot of recently, new endeavors have shifted to class cistron restrictive processes to permit versatile, precise, and comprehensive management over organic phenomenon and cellular development. Novel and a lot of complicated genetic devices are accustomed probe cellular mechanisms, together with various conjunction, RNAi, and epigenetics.

  • Track 8-1: Alternative Splicing
  • Track 8-2: Epigenetic regulation
  • Track 8-3: Signaling Pathways
  • Track 8-4: Applications for Mammalian Synthetic Biology

Synthetic Biotechnology involves the manipulation of biological compounds like integration of artificial amino acids into proteins, desoxyribonucleic acid synthesis and manipulation victimization artificial sequences, oligonucleotide synthesis, super molecule modification victimization artificial compounds etc. the compounds made synthetically integrated into cells that are chosen to produce appropriate experimental strategy.

Synthetic biology represents a convergence of advances in chemistry, biology, applied science, and engineering. systematic strategies for increasing the speed, scale, and preciseness with that we have a tendency to  engineer biological systems. In a sense, artificial biology may be thought of because the development of a biology-based “toolkit” that permits improved product across several industries, as well as medication, energy and therefore the surroundings. The manipulations within the wild kind system by the built systems are studied variable their potency

  • Track 9-1: Biotechnology and Biomaterials
  • Track 9-2: Bioprocessing and Biotechniques
  • Track 9-3: Chemical Engineering and Chemical Sciences
  • Track 9-4: Nanomedicine, Artificial Cells and Biochemical Engineering
  • Track 9-5: Biochemistry and Synthetic Biotechnology

Synthetic engineering is that the manipulation of the biological compounds variable their physical and chemical forms exploitation. engineering principles and techniques. Engineering is completed at cellular and subcellular level i.e. molecular level. engineering is that the “biological or medical application of engineering principles or engineering instrumentation. Recently, the follow of bio-engineering has Expanded large-scale efforts like prosthetic and hospital instrumentation to incorporate engineering at the molecular and cellular level with applications in energy and also the surroundings further as health care

  • Track 10-1: Bio processing Engineering
  • Track 10-2: Molecular, Cellular and Tissue Engineering
  • Track 10-3: Single cell Imaging
  • Track 10-4: Biomedical Engineering
  • Track 10-5: Stem Cell Engineering

Synthetic genetics is associate early field of built science that uses elements of hereditary alteration on previous life frames with the setup of delivering therefore item or wished conduct with relation to the physical object so created. Synthetic genetics joins ways for the faux consolidation of deoxyribonucleic acid with process ways to set up it. These ways allow researchers and specialists to make hereditary material that might be unthinkable or illogical to deliver utilizing additional routine biotechnological approaches. as an example, utilizing factory-made genetics it's conceivable to stipulate and amass chromosomes, qualities and quality pathways, and even entire genomes

  • Track 11-1: Cheminformatics and Immunomics
  • Track 11-2: Functional genomics
  • Track 11-3: BioBrick
  • Track 11-4: Synthetic Gene Pathways
  • Track 11-5: Computational Genomics

There square measure an outsized variety of reports on cistron medical aid in tissue engineering, and these cowl an enormous vary of various designed tissues, completely different vectors, scaffolds and methodology. The review considers singly in-vitro and in-vivo cistron transfer strategies. The in-vivo cistron transfer methodology is delineate initial, mistreatment either microorganism or non-viral vectors to repair varied tissues with and while not the employment of scaffolds. the employment of a scaffold will overcome a number of  the challenges related to delivery by direct injection. The ex-vivo methodology is delineated within the last half of the review. Makes an attempt are created to use this medical aid for bone, cartilage, wound, urothelial, nervous tissue regeneration and for treating polygenic disorder mistreatment microorganism or non-viral vectors. once more porous polymers is used as scaffolds for cell transplantation. There square measure thus far few comparisons between these many alternative variables to indicate that is that the best for any explicit application. With few exceptions, all of the results were positive in showing some organic phenomenon and a few resulting impacts on tissue growth and transforming

  • Track 12-1: Machine learning in molecular systems biology
  • Track 12-2: Current challenges in modeling cellular metabolism
  • Track 12-3: Plant Biotechnology, Plant Genetics and its developments
  • Track 12-4: Molecular Genetics and Microbiology
  • Track 12-5: Plant and Human Genetics
  • Track 12-6: Genetic and molecular basis of crop improvement

As name "Integrative Biology" reflects conviction that the investigation of biological systems is best drawn nearer by fusing varied points of read. we have tendency to unite different qualities of controls that supplement one another to disentangle the complexness of biology. the concept incorporates anatomy, physiology, cell and vegetative cell biology, biology, organic process biology, organic chemistry and physics. we have tendency to work with animals, plants and microorganisms and our exploration traverses the degree of the organic chain of command from molecules to ecosystems. Our expansive scope of mastery incorporates: geneticists, paleontologists, physiologists, behaviorists, systematists, morphologists, microbiologists, bioinformatician, organic process biologists, ecologists, biophysicists and biotechnologists.

  • Track 13-1: Computational Bio modeling & Genomics
  • Track 13-2: Computational Neuroscience & Pharmacology
  • Track 13-3: Computational Evolutionary biology
  • Track 13-4: Cancer Computational Biology

Molecular Biology covers a large scope of issues associated with molecular and germ biology as well as structural genomics, transcriptomics, proteomics, Phenomics, Lipidomics, Bioinformatics, biomedicine, molecular biochemistry, molecular medicine and molecular medicine, theoretical bases of biotechnology, physics and chemical science of proteins and nucleic acids. in contrast to the bulk of journals handling these subjects, biology exercises a multidisciplinary approach and presents the entire pattern of relevant basic analysis largely in jap Europe. biology publishes general interest reviews, mini-reviews, experimental and theoretical works and procedure analyses in molecular and cell biology.

  • Track 14-1: DNA replication, repair and recombination
  • Track 14-2: Transcription and Gene Expression
  • Track 14-3: Transcription and Gene Expression
  • Track 14-4: Post-translational modification, proteomics
  • Track 14-5: Mutation, Site-directed mutagenesis
  • Track 14-6: Epigenetics, chromatin structure and function
  • Track 14-7: Molecular mechanisms of diseases

A novel sequence-delivery system that shuttles a gene into a cell, however just for a brief keep, has been developed by researchers, providing a possible new gene-therapy strategy for treating unwellness. The approach offers distinct blessings over different varieties of sequence therapies presently underneath investigation, same the lead author of a study describing the new technique.

  • Track 15-1: Process & Various types of gene therapy
  • Track 15-2: Different vectors for gene therapy
  • Track 15-3: Gene therapy for Diabetes
  • Track 15-4: Gene therapy for Sickle- Cell Disease
  • Track 15-5: Gene therapy for age related molecular degeneration