Tell me, would you say you cant have communication without intelligence... then
how about the genome and the communication of DNA from one generation to the next, this is more complicated than any computer created by man.
Not exact matches
[1:20]
How the kindness of a stranger changed Tony's life [3:35] Peter Diamandis talks
about the origins of X Prize [6:30] Technology helping the agricultural industry [7:00] Sequencing
genomes [8:55] Life - work integration [11:15] Finding your highest calling in life [12:00] Reframing what is «impossible» [14:00] Strategy vs. psychology [15:00] Changing your state [16:00] The science of achievement, the art of fulfillment [19:00] Living in a beautiful state [24:00] Thinking 10x bigger [28:00] Surrounding yourself with a «nothing is impossible» community [29:00] The news pollutes your mind [31:00] Tony's natural gifts and core beliefs [33:30] Overcoming failure and criticism [37:45] Defining your environment [40:00] Life happens for you, not to you [42:00] Rituals and practices to up your game [46:30] Tony's priming process
In a research paper published in April last year, Chinese scientists described
how they were able to manipulate the
genomes of human embryos for the first time, which raised ethical concerns
about the new frontier in science.
Well, a review article in the current issue of The New England Journal of Medicine talks
about how knowledge of a patient's
genome is allowing doctors to pick the best drug for that patient, along with dosage and duration of treatment.
To find out more
about how they manage to survive, Brandon Briggs at Miami University in Oxford, Ohio, and Frederick Colwell at Oregon State University in Corvallis have sequenced and compared
genomes belonging to one particular class of deep life — Firmicutes bacteria — sampled 21, 40 and 554 metres below the floor of the Andaman Sea, west of Thailand.
The work, funded by the US National Human
Genome Research Institute, aims to create human cell lines with subtly different
genomes in order to test ideas
about which mutations cause disease and
how.
«You can conceive of this meeting as some people gathering around a beer or a whiteboard and saying, «Let's lay out some experiments to test some ideas
about how genomes are put together and why they are organized the way they are.»»
Fussenegger thinks that
genome editing will be the favoured approach for therapies, but that writing
genomes from scratch will appeal to scientists interested in fundamental questions
about how genomes evolve, for instance.
The survey, which drew most participants through Nature's print edition and web site and was intended as a rough measure of opinion, also revealed
how researchers are confronting the increasing availability of information
about their own
genomes.
Today's report includes the first recommendations ever given to labs and doctors
about how to handle unexpected findings when the
genome or its protein - coding «exome» is sequenced.
Many of the variants in his
genome are
about how the brain processes dopamine.
«It took full
genome sequences and a lot of good sense
about how to cull the data, and I think that their conclusions are really robust.»
By comparing our genetic make - up to the
genomes of mice, chimps and a menagerie of other species (rats, chickens, dogs, pufferfish, the microscopic worm Caenorhabditis elegans, the fruit fly Drosophila melanogaster and many bacteria), scientists have learned a great deal
about how genes evolve over time, and gained insights into human diseases.
«The DNA sequence itself tells us very little
about how cells actual decodes the DNA, and to understand this we need to map out which cell components are present in different parts of the
genome at a specific time.
Speakers include Penn State's Peter Hudson, who talks
about disease transmission; Oxford's Oliver Pybus, on
how genome analysis exonerated health care workers accused of infecting children with HIV; and N.Y.U.'s Martin Blaser on our disappearing stomach flora.
It's important to understand
how networks function because, as Watts puts it, «that has relevance to just
about every question we're interested in, whether we're talking
about the spread of epidemics, or changes in social norms, or fashions, or the expression of the
genome.»
Herron and his colleagues scanned the
genomes of
about 45 species of green algae to see
how the position of certain genes might have shifted as the organisms grew more complex.
Xin Liu, Project Manager from BGI, said «This study not only generates valuable genomic resource including additional wild reference
genome,
genome - wide variations for further studies and breeding applications on cucumber, but also gave us a better picture
about how the cucumber
genome evolved during domestication.
This work and studies of flowering plants, which are also quite diverse, is forcing a rethink
about just
how genome duplications influence evolution.
But in September last year the team announced it had applied to conduct
genome editing on these embryos — five months after researchers in China had reported experiments applying CRISPR — Cas9
genome editing to non-viable human embryos, which sparked a debate
about how or whether to draw the line on gene - editing in human embryos.
«Though the degree to which human embryonic stem cells possess this feature is not entirely clear, by understanding
how another complex organism's
genome works we ultimately learn more
about how our own
genome works,» said Zhou.
But Jochen Rink and his group are especially excited
about using the
genome assembly for understanding
how planarians manage to regenerate from an arbitrary tissue piece.
Agata Smogorzewska, head of the Laboratory of
Genome Maintenance, wants to understand
how cells repair interstrand cross-links, a particular type of DNA damage in which the two strands of the double helix that normally twine
about each other become physically linked.
Everything we have laboriously discovered hitherto
about how our bodies work will be dwarfed by the knowledge tumbling from the
genome.
William «Ned» Friedman, an evolutionary biologist at the University of Colorado, Boulder, is excited
about the potential of the moss
genome to reveal clues
about how plants accomplished the transition to land.
«This is important fundamental basic science
about how the
genome is protected in rapidly proliferating cells in the brain,» adds Huda Zoghbi, a neuroscientist at Baylor College of Medicine in Houston, Texas.
There is a long history of theoretical work
about how genomes might change in small populations.
But rather than simply debunking a myth
about the heirloom's diversity, Tanksley's deconstruction of the tomato
genome, along with work by others, is showing
how an unassuming berry from the Andes became one of the world's top crops.
ENCODE provided us with information
about where along the full
genome DNA is read and
how it is modified with biochemical tags,» says Brad Gulko, a Ph.D. student in Computer Science at Cornell University and lead author on the new paper.
Analyzing the
genomes of more enslaved Africans «and [finding] out where they came from... can tell us more
about these people's identities and
how they transformed over the centuries that followed,» he says.
Upset
about how the rivalry might detract from the scientific achievement, Patrinos invited Francis Collins, director of the U.S. National Human
Genome Research Institute, and J. Craig Venter, president of Celera Genomics of Rockville, Maryland, to a «secret meeting» at his house near Washington, D.C. «I've known both of these guys for a long time — as scientists and as friends,» Patrinos says.
Privacy concerns have been raised
about publicly accessible
genome data before, and managers of a popular repository were aware of the risks posed, but few people had guessed
how easy deanonymizing the data was.
We provide initial insights into two critical issues: what clinical value can be extracted from different commercial and academic cancer genomic platforms, and
how to think
about scaling access to that value,» noted the study's Principal Investigator, Robert Darnell, MD, PhD, Robert and Harriet Heilbrunn Professor and Senior Attending Physician at The Rockefeller University and Founding Director of the New York
Genome Center.
Dr Alonso, a Wellcome Trust Investigator and Reader in Developmental Genetics in the School of Life Sciences, explains: «We know very little
about how simple movements are encoded in the
genome.
Years later, we still have many open questions
about how the
genome actually works.
Studying such species could provide clues
about how human language evolved, and
how language abilities are encoded in the human
genome.
The more we understand
about how natural variation in the vertebrate
genome shapes the development and function of the brain, the better insight we can have into
how behavioral patterns evolve, and
how disruption to neurogenetic pathways can lead to brain and behavioral dysfunction.
I was working in a community of people who were all thinking
about looking at genetic variations, of
how you might look at them and
how you might understand them, and so reading lots of papers from other folks who were doing great work in that area I just looked at ways that you could basically go across the human
genome and look at every variation, everything that's variable between human populations.
The
genome is expected to answer questions
about how the organism causes disease, which is not exactly clear to the scientists, and to point the way to a human vaccine.
Berkeley Lab scientists have learned new details
about how an important tumor - suppressing protein, called p53, binds to the human
genome.
«The human
genome sequence provided a blueprint of all the protein - coding genes in the human
genome for the first time,» reveals Jan Ellenberg, Head of the Cell Biology and Biophysics Unit at EMBL Heidelberg, «this changed
how we go
about studying protein function.»
he continues to pose questions and do experiments that affect our ability to understand the human
genome... and he continues to change the way we think about the genome, how to navigate it, and what those changes mean in transcriptional regulation,» said Elaine A. Ostrander, NIH Distinguished Investigator and Chief of the Cancer Genetics & Comparative Genomics Branch at the National Human Genome Research Institute and one of those nominating Kruglyak for this
genome... and he continues to change the way we think
about the
genome, how to navigate it, and what those changes mean in transcriptional regulation,» said Elaine A. Ostrander, NIH Distinguished Investigator and Chief of the Cancer Genetics & Comparative Genomics Branch at the National Human Genome Research Institute and one of those nominating Kruglyak for this
genome,
how to navigate it, and what those changes mean in transcriptional regulation,» said Elaine A. Ostrander, NIH Distinguished Investigator and Chief of the Cancer Genetics & Comparative Genomics Branch at the National Human
Genome Research Institute and one of those nominating Kruglyak for this
Genome Research Institute and one of those nominating Kruglyak for this honor.
0:51 Skip to 0 minutes and 51 secondsIn this course, we will be learning
about the bacteria which cause diseases, what the
genomes look like, and
how they evolve to become pathogens.
Bacterial
genomes contain information
about how they cause disease and
how they resist antibiotics.
A new development in CRISPR technology ignites ethics debates
about how much control we should have over our own
genome.
«We don't understand enough yet
about the human
genome, and
how genes interact, and which genes give rise to certain traits to edit for human enhancement today,» she said.
After the last coffee break Emmanuelle Charpentier (Umeå University, Sweden) entered the scene and shared her knowledge
about how to use phages (viruses that target bacteria) for
genome engineering via CRISPRs.
Along with changing
how we think
about genes, the Human
Genome Project spawned lots of other projects.
In this article, we'll learn
about the progress and goals of human -
genome research,
how we're already weeding out genetic diseases and
about the future of «selecting» human offspring.
We are proud that our project is already providing the first answers to the burning question
about how genome 3D organisation shapes genome regulation,» agree the four group leaders participating in the 4D Genome project: Thomas Graf, Marc A. Martí - Renom, Guillaume Filion, and Miguel
genome 3D organisation shapes
genome regulation,» agree the four group leaders participating in the 4D Genome project: Thomas Graf, Marc A. Martí - Renom, Guillaume Filion, and Miguel
genome regulation,» agree the four group leaders participating in the 4D
Genome project: Thomas Graf, Marc A. Martí - Renom, Guillaume Filion, and Miguel
Genome project: Thomas Graf, Marc A. Martí - Renom, Guillaume Filion, and Miguel Beato.