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5th International Congress on Epigenetics & Chromatin, will be organized around the theme “Global leading changes to advance Diagnosis & Precision medicine Cancer,Cardio,Reproductive,Diabetes,Surgery,Neuro,Healthcare,Pathology,Radiology”
Epigenetics 2019 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Epigenetics 2019
Submit your abstract to any of the mentioned tracks.
Register now for the conference by choosing an appropriate package suitable to you.
Biochemical mechanisms of Epigenetics DNA methylation, recognition of methylated CpG, demethylation in mammals, histone modifications, non-coding RNAs, microRNAs, the effect of chromosome organization, mechanisms of polycomb proteins.
Biochemical approaches to study Epigenetics Analysis of tissue-specific DNA methylation, methods for assessing genome-wide DNA methylation, methylation of Lysine-9 of Histone H3: role in heterochromatin modulation and tumorigenesis, chromatin modifications distinguish genomic features and physical organization of the nucleus, assessing epigenetic information.
- Track 1-1Cancer informatics
- Track 1-2microRNAs
- Track 1-3Combined Epigenetic Therapies
- Track 1-4Epigenetic and Cytotoxic Therapies
- Track 1-5DNA methylation
- Track 1-6Post-translational histone modifications
- Track 1-7Non-coding RNA
Epigenetics has emerged as a critical field for studying how non-gene factors can influence the traits and functions of an organism. At the core of this new wave of research is the use of computational tools that play crucial roles not only in directing the selection of key experiments, but also in formulating new testable hypotheses through detailed analysis of complex genomic information that is not achievable using traditional approaches alone without bioinformatics methods/tools.
- Track 2-1Data sources for Epigenetic research
- Track 2-2Computational tools for Epigenetic research
- Track 2-3Cancer informatics
- Track 2-4Stem cell informatics
Neurodevelopmental disorders/diseases are a group of disorders in which the development of the central nervous system is disturbed. This can include brain dysfunction, which can manifest as neuropsychiatric problems or impaired motor function, learning, language or non-verbal communication.
This field of research provides evidence that environmentally induced epigenetic changes during embryonic development can be transmitted for multiple generations and may contribute to the etiology of brain disease heritability. In this review, we discuss some of the most updated findings on transgenerational epigenetic inheritance. We particularly discuss the upcoming findings on the epigenetic mechanisms involved in the heritability of alcohol-induced neurobehavioral disorders such as fetal alcohol spectrum disorders.
- Track 3-1Therapeutic epigenetic-driven approaches to treat psychiatric disorders
- Track 3-2Epigenetic link between psychiatric disorders and dementia
- Track 3-3Epigenetic contributions to neurogenesis induction during ageing
Combining cytogenetic & epigenetic approaches in chronic lymphocytic leukemia improves prognosis prediction for patients.
Cytogenetics is defined as the study of chromosomal structure, location and function in cells. Modern cytogenetic approaches are enable to label the chromosomal location of any gene using different colored dots, examine cells from any type of tissue (even tumor cells), identify cells that have lost or gained a specific chromosome & determine whether specific regions of chromosomes have been lost or gained without ever looking at the chromosomes under a microscope.
- Track 4-1Cancer cytogenetics
- Track 4-2Karyotyping
- Track 4-3Fluorescent in situ hybridization
- Track 4-4Cytotaxonomy
- Track 4-5Molecular cytogenetics
Epigenetic modifications of the Cancer cell genome, which does not bring a change in the nucleotide sequence, is called Cancer Epigenetics.
Cancer was the first human disease to be linked to epigenetics. DNA hypomethylation can activate oncogenes and initiate chromosome instability, whereas DNA hypermethylationinitiates silencing of tumor suppressor genes. An accumulation of epigenetic & genetic errors can transform a normal cell into an invasive or metastatic tumor cell. DNA methylation patterns may cause abnormal expression of cancer-associated genes. Global histone modification patterns are also found to correlate with cancers such as breast, prostate, and pancreatic cancer.
Epigenetic modification are as important as genetic mutations in a cell's transformation to cancer, and their manipulation holds great promise for cancer prevention, detection, and therapy.
During the cell transformation to a cancerous cell, Epigenetic modifications are also crucial like genetic mutations. Their modification brings a great promising approach for prevention, detection, and therapy of Cancer.
- Track 5-1Novel epigenetics targets in cancer
- Track 5-2Histone variants and histone modifications
- Track 5-3Cancer stem cells
- Track 5-4Epigenetic tools and technologies
- Track 5-5Epigenetic & Genetic aspects of breast cancer progression
- Track 5-6Breast cancer risk and prevention
Chromatin is subject to proofreading and repair mechanisms during replication and in response to DNA damage, ensuring the faithful inheritance of genetic and epigenetic information and maintaining genome stability.
Chromatin structure depends on several factors. The overall structure depends on the phase of the cell cycle. Human chromosomes can be divided into two type’s allosome & autosomes.
- Track 6-1Chromatin packaging
- Track 6-2Autosomal Chromosomes
- Track 6-3Sexual Chromosomes
- Track 6-4Chromosomal Segregation
- Track 6-5Centromere and Telomere
- Track 6-6Homo and Hetro Chromosome
Epigenetics is the study of heritable changes in gene expression (active versus inactive genes) i.e. an adjustment in phenotype without an adjustment in genotype. An epigenetic change is a natural & characteristic occurrence yet can likewise be affected by a few factors including age, the environment/lifestyle, and illness state. Alternately, epigenetic change can have all the more harmful impacts that can bring illnesses, disease. Major areas of Epigenetics are:
- Track 7-1Clinical epigenetics
- Track 7-2Developmental Epigenetics
- Track 7-3Nutritional Epigenetics
- Track 7-4Behavioral epigenetics
- Track 7-5Epigenetics Alteration
- Track 7-6Neuronal Epigenetics
- Track 7-7Animal Epigenetics
Epigenetic inheritance plays a vital role in many biological processes, such as gene expression in early embryo development, imprinting and the silencing of transposons. It has been established that epigenetic effects can be inherited from one generation to the next. Here, we review examples of epigenetic mechanisms governing animal phenotype and behaviour, and we discuss the importance of these findings in respect to animal studies, improve breeding, & the genetics of livestock. Through:
- Track 8-1Chromatin remodelling
- Track 8-2Epigenetics in tissue engineering
- Track 8-3Production of recombinant proteins in human cells
By the end of the last century, it was known that DNA by itself does not determine all characteristics of an organism, including humans. The environment, stress one perceives, and nutrition, to name a few, play a vital part in determining the response of an organism, as much as the DNA itself. Thus, it is known now that both nature (genetic makeup) and nurture (environmental factors) play equally important roles in the responses observed, both at the cellular and organism levels. Thus, humans are affected by both genetic and epigenetic factors.
Some environmentally induced changes in the epigenome are recorded in genomic DNA methylation patterns for up to three generations.
Certain stages in development and cell types can be thought of as particularly sensitive to epigenetic change due to the resulting severity of the outcome for the individual or the potential for affecting multiple generations.
Observations demonstrate that the environmental toxicants examined induced transgenerational ovarian adult-onset disease, and of spermatogenic cell defects and testis disease.
- Track 9-1Early life: Early embryo and germ line development can be affected by in utero exposures.
- Track 9-2Gametogenesis and pre-conception: environmental exposures to oocytes and spermatozoa that go onto produce an embryo (pre-conception exposures) are also an important consideration
- Track 9-3Somatic versus germ cell change: If an epigenetic change occurs in a somatic cell or in a germ cell that is correctly ‘reset’ during germ line development in the subsequent offspring.
- Track 9-4Transgenerational Ovarian Disease
- Track 9-5Transgenerational Granulosa Cell Transcriptome
- Track 9-6Transgenerational Granulosa Cell Epigenome
- Track 9-7Transgenerational Spermatogenic Cell Abnormality
- Track 9-8Sertoli Cell Transgenerational Transcriptome
- Track 9-9Sertoli Cell Transgenerational Epigenome
Instruments & products used in epigenetics are:
- Track 10-1Mass Spectrometers
- Track 10-2Next-generation Sequencers
- Track 10-3qPCRs
- Track 10-4Sonicators
- Track 10-5Enzymes (DNA Polymerases , DNA Ligases, Other DNA-modifying Enzymes)
- Track 10-6Kits & Assays (Bisulfite Conversion Kits, Immunoprecipitation Kits , Chip-Seq Kits, Deep Sequencing Kits, Methyltransferase Assays, Histone Assays)
- Track 10-7Reagents (Buffers, Histones, Antibodies, Magnetic Beads, Primers, and Other Epigenetics Reagents)
This field is concerned with the pharmacology of epigenetics to treat disorders of the epigenome whether induced developmentally or manifested/acquired later in life. In this particular conference, we will focus on brain disorders and their treatment by drugs that modify the epigenome.
- Track 11-1Complexity of the epigenome
- Track 11-2HDAC inhibitors
- Track 11-3Anthracyclines
A range of epigenetic idea affect our genetic programme. The inter-generational transmission of epigenetic marks is supossed to operate via four principal means that dramatically differ in their information content: DNA methylation, histone modifications, microRNAs and nucleosome positioning.
- Track 12-1Role in gametogenesis
- Track 12-2Role in embryogenesis
- Track 12-3Role in infertility
- Track 12-4Role in assisted reproductive technology
- Track 12-5Transgenerational epigenetic inheritance
It is the study of the interaction between epigenetic process, which regulates gene expression without changing the deoxyribonucleic acid sequence, and the development, physiology and functions of the nervous system.
- Track 13-1Histone Modifications in the Nervous System
- Track 13-2Neurological disorders
- Track 13-3Mania (Bipolar disorder)
- Track 13-4Brain Disorders
Epigenetics has been initially studied in patients with CVD for its prominent role in inflammation and vascular involvement Furthermore, epigenetic studies in cardiovascular medicine revealed a significant number of modifications affecting the development and progression of CVD. Epigenomics are involved in cardiovascular risk factors such as smoking, diabetes, hypertension and age.
- Track 14-1Cardiac hypertrophy
- Track 14-2Heart failure
- Track 14-3Arrhythmias
Clinical epigenetics is the application of molecular biology techniques detecting alterations in DNA methylation or histone modification to diagnose or study disorders characterized by heritable defects in the expression of a gene or genome.
- Track 15-1Biologic predictors of response to epigenetic therapy
Genetics generally considered a field of biology deals with the study of genes, genetic variation & heredity in living organisms.
Epigenetic inheritance is an unconventional finding. It means that a parent experiences, in the form of epigenetic tags, can be passed down to future generations. It goes against the idea that inheritance happens only through the DNA code that passes from parent to offspring.
A genetic disorder is a genetic problem caused by one or more abnormalities in the genome, especially a condition that is present from birth.
Genetic alteration of the epigenome therefore contributes to cancer just as epigenetic process can cause point mutations and disable DNA repair functions. This crosstalk between the genome and the epigenome offers new possibilities for therapy.
- Track 16-1Genetic disorder
- Track 16-2Gene Mutations
- Track 16-3Epigenetic mark
The study of epigenomics involves genome-wide mapping of DNA methylation, histone modifications, nucleosome positioning and three-dimensional architecture and the integration of this information with RNA expression to understand the complexity of cell biology and development. Visualisation of these complex data sets is key for interpretation and deciphering the underlying biology associated with genetic and epigenetic variation.
The Genomics and Epigenetics Division incorporates 4 core strengths to address Genome Biology and Disease:
- Track 17-1High Throughput Sequencing Technology
- Track 17-2Genomic and Epigenetic Technology Development
- Track 17-3Bioinformatics Tools for Integrative Analysis
- Track 17-4Visualisation of Genome and Epigenome data sets
There are several evidence showing that loss of epigenetic control over complex immune processes contributes to autoimmune disease. Abnormal DNA methylation has been observed in patients with lupus whose T cells exhibit decreased DNA methyltransferase activity & hypomethylated DNA. Disregulation of this pathway apparently leads to overexpression of methylation-sensitive genes such as the leukocyte function-associated factor (LFA1), which causes lupus-like autoimmunity.
- Track 18-1Systemic lupus erythematosus
- Track 18-2Rheumatoid arthritis
- Track 18-3Systemic sclerosis
- Track 18-4Sjogren’s syndrome
- Track 18-5Autoimmune thyroid diseases (AITD)
Studies highlight that bacteria can affect the chromatin structure and transcriptional program of host cells by influencing diverse epigenetic factors. Bacterial & Viral infections are involved in the development of human cancers, such as liver, cervical, head and neck, nasopharyngeal and gastric cancers.
DNA methylation affects many biological processes in microbes and may play a role in pathogenicity and virulence. Characterizing methyltransferase & DNA methylation specificities is now possible during long-read sequencing.
- Track 19-1Bacteriophage Infection
- Track 19-2Bacterial Virulence
This field provides a comprehensive analysis of the importance of epigenetics to health management.
In several diseases, including all cancers, the epigenetic control of the genome is heavily distorted. Measuring these alterations provides a detailed picture of the disease-specific changes, which is often informative for distinguishing disease subtypes or identifying suitable treatments. Therefore, epigenetics has much to offer for improving disease treatment choice & diagnosis.
Coverage of emerging topics including:
- Track 20-1Epigenetics of gastrointestinal disease
- Track 20-2Muscle disorders
- Track 20-3Endocrine disorders
- Track 20-4Ocular medicine
- Track 20-5Pediatric diseases
- Track 20-6Sports medicine
- Track 20-7Noncoding RNA therapeutics
- Track 20-8Pain management
- Track 20-9Regenerative medicine
The epigenome describes to the complete description of all potentially heritable modifications of the genome without any changes in primary DNA sequences. Epigenetic biomarkers can be widely defined as measurable modifications of the genome with preserved DNA sequence.
Epigenetic manupulation and regulators represent potential molecular elements which control relevant physiological and pathological features, thereby contributing to the natural history of human disease. These epigenetic modulators can be used as disease biomarkers, since they show several advantages and provide information about gene function, thus explaining differences among patient endophenotypes.
Noninvasive Epigenetic Markers can be used as biomarkers for the molecular diagnosis of following cancer:
- Track 21-1Prostate Cancer
- Track 21-2Bladder Cancer
- Track 21-3Colorectal Cancer
- Track 21-4Lung Cancer
- Track 21-5Breast Cancer
- Track 21-6Ovarian Cancer
Plants are masters of epigenetic regulation. All of the major epigenetic mechanisms known to occur in eukaryotes are used by plants, with the responsible pathways elaborated to a degree that is unsurpassed in other taxa. The study of epigenetics in plants has a long and rich history, from initial descriptions of non-Mendelian gene behaviors to seminal discoveries of chromatin-modifying proteins and RNAs that mediate gene silencing in most eukaryotes, including humans.
Unlike animals, plants stably inherit their DNA methylomes from one generation to the next. The resulting gene silencing likely hides an abundance of phenotypic variation.
- Track 22-1Methylation inheritance
- Track 22-2Reprogramming exceptions
- Track 22-3Improving agriculture
The epigenome is responsive to a wide range of environmental factors, including toxicant exposure, diet, stress, and socioeconomic circumstances. Traditional toxicological paradigms have relied on factors such as age, genetic polymorphisms, and disease status to identify variability in responsiveness to environmental toxicant exposure; however, these factors are neither sufficient to faithfully identify differentially responsive individuals, nor are they modifiable factors that can be leveraged to mitigate adverse health effects of toxicant exposures. An individual's epigenome, on the other hand, can be shaped by interactions with chemical and nonchemical aspects of the environment, giving it potential as a tool for the promotion of public health. The field of toxicoepigenetics is fastly evolving to provide novel insights into the mechanisms underlying exposure‐related susceptibility and disease.