IMAGE: The internet of things (IoT) is allowing scientists to optimize laboratory operations and combine instruments to measure and respond to complex experimental conditions. As a result, IoT is enabling more… view more
Credit: SLAS Technology
IMAGE: The internet of things (IoT) is allowing scientists to optimize laboratory operations and combine instruments to measure and respond to complex experimental conditions. As a result, IoT is enabling more… view more
Credit: SLAS Technology
The building blocks of matter in our universe were formed in the first 10 microseconds of its existence, according to the currently accepted scientific picture. After the Big Bang about 13.7 billion years ago, matter consisted mainly of quarks and gluons, two types of elementary particles whose interactions are governed by quantum chromodynamics (QCD), the theory of strong interaction. In the early universe, these particles moved nearly freely in a quark-gluon plasma. Then, in a phase transition, they combined and formed hadrons, among them the building blocks of atomic nuclei, protons and neutrons.
In the current issue of Nature, an international team of scientists has presented an analysis of a series of experiments at major particle accelerators that sheds light on the nature of this transition. The scientists determined with precision the transition temperature and obtained new insights into the mechanism of cooling and freeze-out of the quark-gluon plasma into the current constituents of matter such as protons, neutrons and atomic nuclei. The team of researchers consists of scientists from the GSI Helmholtzzentrum für Schwerionenforschung in Darmstadt, and from the universities of Heidelberg and Münster (Germany), and Wroclaw (Poland).
A central result: The record-breaking high-energy experiments with the ALICE detector at the Large Hadron Collider (LHC) at the research center CERN produced matter in which particles and antiparticles coexisted in equal amounts, similar to the conditions in the early universe. The team has confirmed via analysis of the experimental data theoretical predictions that the phase transition between quark-gluon plasma and hadronic matter takes place at the temperature of 156 MeV, 120,000 times higher than that in the interior of the sun.
Announcing Two Ini Postdoctoral Fellowships
Ini Fellowship in Neuroscience Research
The Iowa Neuroscience Institute ( INI ), part of the Carver College of Medicine at the University of Iowa, seeks talented postdoctoral scientists to engage in cutting-edge neuroscience research. The INI was established in January 2017, supported by a transformational $45 million grant to the University of Iowa from The Roy J. Carver Charitable Trust. Led by Director Ted Abel, Ph.D., the INI is a comprehensive and cross-disciplinary neuroscience center spanning 5 colleges and 26 departments, dedicated to finding the causes of — and preventions, treatments, and cures for — the many diseases that affect the brain and nervous system. Successful candidates will join a strong cohort of postdoctoral fellows working in the field of neuroscience, such as those participating in the NIH –funded INSPIRE program. The University of Iowa Postdoctoral Association provides a variety of social and professional development opportunities on campus.
Vector today launched a new programme to raise awareness of the need to keep trees well clear from power lines, by planting thousands more of them to launch the initiative.
The Vector Urban Forest initiative means the power company will replace every tree it must cut down for network management or safety purposes, with two new natives, planted in areas that help with local ecological restoration schemes.
“The Vector Urban Forest is a promise from Vector to plant two native seedlings where they are needed most, and far away from Auckland’s powerlines which will mean Aucklanders’ power supply is better protected”, said Andre Botha, Vector’s Chief Networks Officer.
Why aging isn’t a way out if you’re tired of living…
Suppose that, at a point, you get completely, irreparably tired of life and want to die. In these circumstances, how willing would you be to bear with around twenty more years of the same life that you can’t stand any more, particularly in a state of declining health? It would seem more reasonable that if you are tired of life right now and you are absolutely certain that you will not change your mind, you would rather end your life at once than wait for two more, increasingly miserable, decades. Yet, there is a certain narrative suggesting that the decay of old age, which inevitably leads to death, is an acceptable option for people who are sure that they are through with life.
Warning: spoilers
In a moment, I will be revealing the ending of a recent podcast titled “The 200-year-old”—an interesting and, all-in-all, rejuvenation-friendly series. It is only four episodes long, and if you haven’t listened to it yet, I would say that it is worth your time. If you wish to do so, stop reading right now to avoid spoilers. (Do come back to finish the article once you’re done with the podcast, though.)
As of June, a total of 31 states and the District of Columbia allow for the use of medical marijuana. Pain is the most common reason people say they need this cannabis and the vast majority of users say that it helps. However, despite the claims of the many individuals who believe that cannabinoids — the chemicals in marijuana — can ease pain, it’s been difficult for scientists to explain why. Researchers published in JAMA Psychiatry now claim to clarify the discrepancy.
In a systematic review and meta-analysis released Wednesday, scientists from Syracuse University explain that while studies can’t currently prove that cannabinoid drugs reduce pain, research does demonstrate that they can help with the experience of feeling pain. An evaluation of 18 studies that included 442 adults revealed that the use of cannabinoid drugs modestly increased people’s threshold for pain and reduced pain’s overall sensation of unpleasantness. This suggests to the researchers that cannabis’ analgesic properties, or ability to relieve pain, affect the mind rather than the body.
“This [result] is especially salient because managing chronic pain is not solely about minimizing pain,” Kevin Boehnke, Ph.D., who was not involved in the study, tells Inverse. Boehnke is currently a part of a University of Michigan study also analyzing the effect of cannabis on chronic pain. “Sleep problems, fatigue, anxiety, depression, and other factors tie into the experience of chronic pain.”
Since cognitive computing can process massive amounts of data that no human could ever digest and imitate the human brain like no computer system ever has, the technology has amazing potential to amplify our abilities — not replace us — and help us make better, data-driven decisions.
As marketers, we always want to get better. Refining our process and strategy to solve our customers’ problems is our mission. But to understand which tactics actually work and which ones don’t, we usually need to analyze huge sets of complex data.
Data analysis can seem like a tall task, especially if you’re more of a creative marketer. But today, cognitive computing can crunch the numbers for you, helping you make better decisions faster, and hone important aspects of your brand, like brand voice, reporting, and customer support.
Today, we would like to share a talk given by Stephen Hilbert, President of Oisin Biotechnologies, in which he discusses treating aging and cancer by removing harmful senescent cells.
On July 12th, we hosted our first conference, Ending Age-Related Diseases: Investment Prospects & Advances in Research, at the Frederick P. Rose Auditorium, which is part of the Cooper Union campus in New York City. The packed event saw a range of people from research, investment, and the wider community coming together for a day of science and biotech business presentations and panels.
One of the companies at the event was Oisin Biotechnologies, a company working on therapies that remove harmful senescent cells, which accumulate as we age and drive aging processes through the senescence-associated secretory phenotype (SASP), which leads to chronic inflammation.