We are living a data revolution in the biomedical field, and scientific research is advancing at an unprecedented speed to improve modern medicine. One of the key aspects of such medicine is the tailoring of treatments to each patient, by analising the specific changes that led to disease along with the unique characteristics with which the person was born. The use of supercomputers is essential to make sense of the vast amounts of data, and to simulate aspects of our bodies to calculate for instance which drug is more appropriate for each patient for a given disease.

This video showcases some of the research done at the Life Sciences Department of the Barcelona Supercomputing Center, contributing to a better understanding of our bodies in health and disease, and to a future where a Human Digital Twin can help to live healthier and longer.

Would you share your data for the common good? Biomechanist Jacqueline Alderson shows how sophisticated simulations based on real data can help prevent disease, illness and injury. Jacqueline Alderson is an Associate Professor of Biomechanics at the University of Western Australia and Adjunct Professor of Human Performance, Innovation and Technology at the Auckland University of Technology. She has always been curious about movement — whether it’s helping surgeons make best practice decisions or helping AFL players avoid knee injuries. She now travels the world to share her knowledge in human movement, wearable tech and artificial intelligence and its role in tracking, analysing and intervening in the human condition. This talk was given at a TEDx event using the TED conference format but independently organized by a local community.

While advancements in healthcare have come in leaps and bounds since the 20th century, there is perhaps none more exciting than what digital twin technology could offer. The healthcare industry has the potential to be revolutionized by this application of new advancements, which will ultimately lead to improved research capabilities and patient outcomes.

Defined as the virtual representation of a physical object or system across its life cycle, a digital twin is a computer program that uses real world data to create simulations that can predict the outcomes of a product or process. A concept initially utilized by NASA in the 1960s, this technology has grown exponentially in the last decade, now further expanding into the world of healthcare.

Beginning in 2014 with The Living Heart Project headed by Dassault Systémes, healthcare research with digital twins has broadened to include organs such as the brain and lungs, as well as projects for virtual parts of the body. With these models, doctors have the potential to discover undeveloped illnesses, experiment with treatments, and improve surgical outcomes. They allow clinicians to test multiple treatments across a vast range of therapies, equipment, and interventions by comparing possible outcomes without taking any risks in terms of patient safety. Ultimately, care can become more precise, targeted, and based on the most accurate data available when digital twins are utilized.

Digital Twins are virtual models of the physical world. They use the Internet of Things, artificial intelligence and complex data in models that create insights and support (real-time) decision making. It is perhaps healthcare that holds the greatest potential for Digital Twins.

I don’t know how about you… But I’m meeting cyborgs in the streets regularly. If you observe carefully you can find people with artificial legs and arms. So next time watch more carefully. Its most common seen artificial body part. On other hand there are other parts you can’t see, like artificial joints, dental implants, breast implants, pacemakers, insulin pumps and so on. We are unable to see them but they are very common. Millions people use them. Nowadays very common trend is biohacking where people implant magnets and chips to their bodies. We think our bodies are born complete but we are wrong. We can upgrade and modify them. What if we can use brain implants to be smarter, to think and focus sharper.

They say ‘I believe in nature. Nature is harmonious’. Every big fish is eating every smaller fish. Every organ is fighting constantly invading bacteria. Is that what you mean by harmony? There are planets that are exploding out there. Meteorites that hit another and blow up. What’s the purpose of that? What’s the purpose of floods? To drown people? In other words, if you start looking for purpose, you gotta look all over, take in the whole picture. So, man projects his own values into nature. — Jacque Fresco (March 13, 1916 — May 18, 2017)

When most of us use the word ‘nature‘, we really don’t know much about it in reality. — Ursa.

In a recently published white paper, imec provided an overview of the building blocks for the next generation of medical implants. Integrating the building blocks into smart chips provides a comprehensive solution that is smaller, smarter and more connected.

Facebook has been putting research into systems that will see, hear, and remember everyday activities and interactions on AR/VR devices.

The late 21st century belongs to Superhumans. Technological progress in the field of medicine through gene editing tools like CRISPR is going to revolutionize what it means to be human. The age of Superhumans is portrayed in many science fiction movies, but for the first time in our species history, radically altering our genome is going to be possible through the methods and tools of science.

The gene-editing tool CRISPR, short for clustered regularly interspaced short palindromic repeats, could help us to reprogram life. It gives scientists more power and precision than they have ever had to alter human DNA.

Genetic engineering holds great promise for the future of humanity. A growing number of scientists including David Sinclair believe that we will soon be able to engineer and change our genes in a way that will help us live longer and healthier lives.

But how much should we really tinker with our own nature? What is the moral responsibility of scientists and humans towards future generations?

With technological advances in molecular biology like CRISPR that allow for specific gene editing approaches, many scientists argue that there are strong potential benefits as well as risks to human genetic engineering.
David Sinclair is a geneticist at Harvard Medical School. He believes it’s possible to unlock the fountain of youth.

The potential uses of such gene editing techniques could range from the treatment of disease to the enhancement of beauty and intelligence.

New discoveries in gene editing technologies are popping up everywhere in the world and experts predict that we will see many more in coming years. Many scientists believe that genetic engineering is the future of our evolution. It provides us with a chance to give ourselves any traits we want, such as muscle mass or eye color. Basically, anything is possible.

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What if we are living in a simulation, and the world as we know it is not real? To tackle this mind-bending idea, acclaimed filmmaker Rodney Ascher (ROOM 237 THE NIGHTMARE) uses a noted speech from Philip K. Dick to dive down the rabbit hole of science, philosophy, and conspiracy theory. Leaving no stone unturned in exploring the unprovable, the film uses contemporary cultural touchstones like THE MATRIX, interviews with real people shrouded in digital avatars, and a wide array of voices, expert and amateur alike. If simulation theory is not science fiction but fact, and life is a video game being played by some unknowable entity, then who are we, really? A GLITCH IN THE MATRIX attempts to find out.

Now available everywhere.
Directed by Rodney Ascher.
http://aglitchinthematrixfilm.com/

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