In this latest University of Sydney'Open for Discussion' episode our host Dr Chris Neff speaks with Dr Michael Harre, lecturer in Complex Systems in the Faculty of Engineering and Information Technologies and artificial intelligence aficionado about where AI really is and how it is affecting our lives. Michael Harre will be appearing at Raise the Bar, Tuesday 18th October. Chris Neff: Welcome to Open for Discussion. Joining me today is Dr Michael Harre from the University's Faculty of Engineering and Information Technologies. Michael is an artificial intelligence aficionado, try saying that 3 times fast, and lecturer in complex systems. Chris Neff: Can I ask first, what is artificial intelligence and secondly, what got you into artificial intelligence? What was your background, how did you come to this? Ahh.. There's no straight forward answer in the sort of...general definition but usually it's something that runs on a computer that;s trying to do something kinda human like but perhaps not being very..very good at it. Because my understanding is mostly a star trek, star wars aahhhh... Will Smith movies and other kind of.. Dr Michael Harre: Ah yeah there's some great movies out there and the movies out there umm..they portray a combination of robot and ah..robots with some form of human like intelligence but umm..what you see in the robots is a bit more like um..what we think of as human behaviour and sort of expressing our human mind ah..but that's not what we are able to do at all with artificial intelligence yet.

Marvin Minsky, one of the pioneers of artificial intelligence and a renowned mathematicial and computer scientist, died on Sunday, 24 January 2016 of a cerebral hemmorhage. In this article, AI scientists Kenneth D. Forbus (Northwestern University), Benjamin Kuipers (University of Michigan), and Henry Lieberman (Massachusetts Institute of Technology) recall their interactions with Minksy and briefly recount the impact he had on their lives and their research. A remembrance of Marvin Minsky was held at the AAAI Spring Symposium at Stanford University on March 22. Video remembrances of Minsky by Danny Bobrow, Benjamin Kuipers, Ray Kurzweil, Richard Waldinger, and others can be on the sentient webpage1 or on youtube.com.

The conference The goal of the AAAI-17 Student evening poster programs, and location is a great starting Abstract and Poster program is to provide will have a short paper included in the point to explore the City's tremendous a forum in which students can proceedings. Submissions from everyone, ethnic and cultural diversity and its present and discuss their work during including authors of paper submissions wide variety of offerings. San Francisco its early stages, meet some of their to AAAI, IAAI, and AAAI-17 is also perfectly positioned to explore peers who have related interests, and workshops, are encouraged. Work submitted the entire Bay Area, whether for recreation introduce themselves to more senior to other tracks (such as the or business.

Marvin Minsky, one of the pioneers of artificial intelligence and a renowned mathematicial and computer scientist, died on Sunday, 24 January 2016 of a cerebral hemmorhage. He was 88. In this article, AI scientists Kenneth D. Forbus (Northwestern University), Benjamin Kuipers (University of Michigan), and Henry Lieberman (Massachusetts Institute of Technology) recall their interactions with Minksy and briefly recount the impact he had on their lives and their research. A remembrance of Marvin Minsky was held at the AAAI Spring Symposium at Stanford University on March 22. Video remembrances of Minsky by Danny Bobrow, Benjamin Kuipers, Ray Kurzweil, Richard Waldinger, and others can be on the sentient webpage1 or on youtube.com.

In addition, we illustrate the potential of ASP including molecular biology (Gebser et computational hardness of our application problem al. 2010a, 2010b), decision support system for space by explaining its connection to the NPcomplete shuttle controllers (Balduccini, Gelfond, and decision problem Exact-3-SAT.

PARIS – Molecular machines, which earned their inventors the Nobel Prize in chemistry on Wednesday, are a fraction of the width of a human hair but strong enough to move things 10,000 times their size. The devices have yet to find practical use in nanoscale engineering, but scientists look forward to the day when microscopic motors or delivery vehicles will be omnipresent, whether in the human body or a microchip. Inspired by natural proteins, which act as biological "machines" within cells, synthetic nanobots can be prodded by light or changes in temperature to produce mechanical motion. Their use in localized drug delivery is "probably the most short-term achievable" application, according to Nicholas White of the Australian National University's Research School of Chemistry. The tiny machines, constructed from groups of molecules, may be used to protect the human body from exposure to the toxic effects of certain medicines, such as those used in chemotherapy.

Miniature robots that doctors could guide through a patient's body to kill cancer cells are closer to reality thanks to winners of this year's Nobel Prize for Chemistry. Three winners share the 727,000 prize for developing nanoscale machines--1000th the width of a human hair--that pave the way for applications in medicine, computing and engineering. The winners were Jean-Pierre Sauvage of the University of Strasbourg in France, Fraser Stoddart of Northwestern University in Illinois, USA, and Bernard Feringa of the University of Groningen in the Netherlands. Each devised different groups of molecules with moving parts that they could control remotely, despite their tiny size. "It's early days, but once you can control movement, you have many possibilities," said Feringa, interviewed after receiving notification of the prize.

The 2016 Nobel Prize in chemistry has been awarded for the design and synthesis of the world's smallest machines. The work has overtones of science fiction, but holds huge promise in fields as diverse as medicine, materials and energy. This is especially true of efforts to develop nano-scale machines (1,000 times smaller than the width of a human hair), which are always destined to remain tiny however big our ambitions for them grow. It's difficult to trace the development of molecular machines to one person or scientific step. But a 1959 lecture by the celebrated physicist Richard Feynman is as good a point as any.

Alfred Nobel wanted the prizes that bear his name to recognize achievements that offered the "greatest benefit to mankind." The world's tiniest machines -- celebrated in this year's chemistry prize -- may revolutionize daily life. The Royal Swedish Academy of Sciences on Wednesday awarded the final Nobel prize in sciences for 2016. The 8 million kronor ( 930,000) chemistry prize went to Jean-Pierre Sauvage of France, Sir Fraser Stoddart of Britain, and Bernard "Ben" Feringa of the Netherlands. The scientists were recognized for their breakthroughs on molecular machines, which began with Dr. Sauvage linking two ring-shaped molecules in 1983.

Three scientists won the Nobel Prize in chemistry on Wednesday for developing the world's smallest machines, work that could revolutionize computer technology and lead to a new type of battery. Frenchman Jean-Pierre Sauvage, British-born Fraser Stoddart and Dutch scientist Bernard "Ben" Feringa share the 8 million kronor ( 930,000) prize for the "design and synthesis of molecular machines," the Royal Swedish Academy of Sciences said. Machines at the molecular level are 1,000th the width of a human hair and have taken chemistry to a new dimension, the academy said. Molecular machines "will most likely be used in the development of things such as new materials, sensors and energy storage systems." Stoddart has already developed a molecule-based computer chip with 20 kB memory.