article New gene sequencing technology is being used to unravel where our human ancestors came to be, using techniques that allow scientists to sequence the DNA of living animals and plants.

The technology is the latest development in the field of genetic sequencing and it has the potential to help scientists better understand how genes work and how genes influence behaviour.

The company, called BioGenomics, uses a technique called polymerase chain reaction (PCR) to break down the DNA in a lab.

This technique has the ability to reveal the location of the DNA, which can help with gene-sequencing studies, such as where genes are expressed and which genes are under the control of cells.

Genetic sequencing has been used for more than a century to map the genomes of species like elephants, primates and humans.

Researchers at Harvard Medical School (HMS) and other medical centres are currently using it to identify specific genes, which may then be used to develop drugs.

This latest study uses a gene that codes for a protein called GAP-5, which is found in the saliva of some people.

The scientists sequenced the DNA from the saliva sample, which was then subjected to a process known as reverse transcription.

This allows them to extract a single strand of DNA from a protein and assemble it into a sequence of DNA molecules.

This is the first time scientists have sequenced a human saliva sample in this way, said Professor Jonathan Matson, from HMS, in a press release.

Professor Matson said that this could have implications for the use of genome sequencing technology for genetic research.

“We can potentially look at the genomes that are under our control and figure out where they come from,” he said.

“It’s a very exciting time.”

Genetic sequence technology has been useful in previous research, but is currently limited in how it can be used.

The latest breakthroughs in the technique are the result of a collaboration between the university, the University of Cambridge, and the University College London.

The study, published in the journal Nature Communications, is based on a team of researchers at the University’s Department of Molecular Genetics and Biotechnology.

Professor Jonathan Mathy, from Harvard Medical Schools (Hms), said: “We have been using a method called reverse transcription for over a decade and it was originally used to find the genes of cancer cells, but it’s now a powerful way to find genes in the environment that can be targeted for disease.”

Using reverse transcription in this type of research could lead to a whole new set of drugs and vaccines that we’re already exploring.

“The scientists were able to find a single gene called GAD-1, which has a gene on its surface that codes to an enzyme that breaks down a protein known as polyclonal growth factor (PGF).”

Our work has shown that this gene is a key player in a wide range of processes and has also been implicated in the development of many disease states including cancer,” said Dr Stephen Jardine, from the University and Harvard Medical Center, in the release.

Dr Jardini said the findings may lead to novel therapies for the diseases of cancer and other diseases.”

Dr Jelline added that the study provides the first direct evidence that the enzyme that makes up GAP is involved in the expression of cancer.””

This is a really exciting new step forward in our understanding of how these proteins work.”

Dr Jelline added that the study provides the first direct evidence that the enzyme that makes up GAP is involved in the expression of cancer.

“These findings are exciting because we know that PGF, a protein that we know is important in cancer, is also a protein involved in a range, of other things that we see in cancer cells,” said Jellini.

“This may be a major new avenue for new drugs that target the activity of GAP in cancer.”