Today’s Popular Posts
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Popular Posts
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Posts in this Impact Area: (DNA Decoding)
- Gene expression and regulation: It’s the location, baby.
- Fetal DNA sequencing: Reading ma and pa’s genome
- Bonobo Genome: Our ever-lovin’ kin get closer
- microDNA: A new piece of genetics puzzle
- Personal genome disease risk analysis: New study finds important limits
- Human genetics: The mysterious unequal mutation by sex
- Oh Daphnia, why so many genes?
- Hoogsteen base pairs: An alternate structure in DNA
- The shape of the genome influences genetics
- DNA redundancy: Genetic sequence copies are more prevalent and important than thought
- Histones: DNA packaging and much more
- A form of muscular dystrophy depends on ‘junk’ DNA
- Transposons and the dynamic genome
- microRNA: A cellular communicator
- Update: Research on ‘old-age genes’ challenged
- The Human Genome Project: Ten years later
- Fascinating: Many of us have genes from Neanderthals
- The growing GWAS controversy
- Genetic pause control
- A new layer of genetic information: DNA sub-code
- The pitfalls of ‘informed consent’ for DNA analysis
- Surprise verdict in U.S. gene patent case
- Fingered by hand bacteria
- Clinical genetics: Two cases
- New study: Metagenomics gets a gut feel
- Small RNA: New pathways for gene regulation?
- Follow-up: Another ‘junk DNA’ study
- More ‘junk DNA’ that actually does something
- Waking the dead
- New study and research tool: DNA mutations and molecular effects
- Common diseases: Rare gene mutations are important
- Update: Males not at the end of genetic line
- New study: Males not at the end of genetic line
- Heart disease linked to epigenetics
- In the helix grooves – how proteins find the DNA
- Biological clocks: RNA keeps time
- Corn (maize) genome sequenced
- Important bacteria protein-DNA link discovered
- DNA Barcoding and the supermarket of genetic identification
- Evolution seen through 10K vertebrate genomes
- Beyond the genome: Mapping the epigenome
- Mapping human genome variations

Mapping human genome variations
The mapping of the human genome was a monumental achievement; however, it was always intended to be just a starting point. Where has the follow-up work gone? One area is mapping of copy number variants. Normally our (non-sex) chromosomes come in twos (humans are said to be diploid), but the machinery of DNA reproduction relatively often produces a number of copies – copy number variants – that are inheritable and distinctive between individuals. Even identical twins may differ in their copy number variants. Here’s some of what ZenMaster at Cell NEWS reports on a new study: