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Editorial
| The first 10% of the full text of this article appears below. |
| EPIGENETICS AND EPIGENOMES |
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Human Molecular Genetics is normally filled mostly with articles that relate changes in DNA sequence with disease pathologies. However, there has always been an appreciation in the journal that the regulation of gene expression and changes in chromatin structure also underpin normal human development and that perturbations of these can lead to disease.
The heritable changes in chromatin structure and gene expression that can be passed from one cell to its daughter cells fall under the umbrella term of epigenetics. Because DNA sequence alone does not describe our genetic information, a natural extension of the complete sequencing of the human genome is to ask whether we can also describe the epigenome, or more correctly the epigenomes, that even within one individual will vary between one somatic cell type and another and between normal and
| EPIGENETIC REGULATION OF GENE EXPRESSION IN NEURONS |
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| EPIGENETIC RE-PROGRAMMING AND DEVELOPMENT |
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| EPIGENETICS AND CANCER |
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| EPIGENETIC MECHANISMS |
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| EPIGENETICS AND THE ENVIRONMENT |
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| ACKNOWLEDGEMENTS |
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