CERN-LHC presentation
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A presentation on the Large Hadron Collider, upon my visit to CERN (European Center for Nuclear Research), Genèva in 2011
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![[object Object],A VERY SHORT EXPLANATION OF THE LHC (LARGE HADRON COLLIDER) AT CERN (Centre Européen pour la Recherche Nucleaire), GENÈVA, Switzerland This presentation was composed in order to qualify for teaching in English language at the university of Burgos ,[object Object]](https://image.slidesharecdn.com/cern-eng-110512104831-phpapp02/85/CERN-LHC-presentation-1-320.jpg)
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Grid computing allows for the sharing and aggregation of distributed computing resources like computers, networks, databases and instruments. It provides a large virtual computing system for end users and applications. Key characteristics include facilitating solutions to large, complex problems across locations and organizations through integrated and collaborative use of heterogeneous resources. Popular applications include medical research, astronomy, climate modeling and more. Examples of operational grids discussed are TeraGrid, Pauá Grid Project and academic research projects like SETI@home.
Nasa 3 ppt on physics class 8
Charles Bolden was nominated by President Obama in 2009 to be the NASA administrator, with Lori Garver as deputy administrator. NASA is a United States government agency responsible for the civilian space program and aeronautics research, formed in 1958. Key missions and programs included Explorer (1958-2011), Ranger (1960s moon images), Apollo (1969 first moon landing), Space Shuttle (1981-2011), and current investigations of Mars, Saturn, Earth, and the Sun.
Applications of paralleL processing
This document discusses various applications of parallel processing. It describes how parallel processing is used in numeric weather prediction to forecast weather by processing large amounts of observational data. It is also used in oceanography and astrophysics to study oceans and conduct particle simulations. Other applications mentioned include socioeconomic modeling, finite element analysis, artificial intelligence, seismic exploration, genetic engineering, weapon research, medical imaging, remote sensing, energy exploration, and more. The document also discusses loosely coupled and tightly coupled multiprocessors and the differences between the two approaches.
History Of The Space Program
The Cold War tensions between the US and Soviet Union led to the Space Race in the late 1950s. The Soviets launched Sputnik 1 and 2, the first artificial satellites, and sent the first human, Yuri Gagarin, into space in 1961. In response, NASA was established in 1958 and launched Explorer 1, America's first satellite. NASA's Mercury, Gemini, and Apollo programs achieved major milestones, culminating in the Apollo 11 mission that landed the first humans on the Moon in 1969. Both nations' space programs drove scientific progress and discovery.
NASA
NASA was established in 1958 in response to the Soviet launch of Sputnik. It led early spaceflight missions like Mercury, Gemini, and Apollo, which landed the first humans on the Moon in 1969. NASA developed the Space Shuttle program in the 1980s and helped build the International Space Station beginning in 1998. NASA conducts aeronautics research and collaborates with international partners on projects exploring Earth science, the solar system, and enabling commercial space activities.
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Students will spend 6 days at the U.S. Space and Rocket Center in Huntsville, Alabama participating in educational activities about space exploration. The camp will include simulated space exploration exercises, building and launching rockets, and choosing one of three tracks in space, aviation, or robotics. The curriculum is designed to balance education with fun while encouraging innovation, teamwork, and exposure to challenges faced by NASA. Upon completion, students will receive a certificate from a high-ranking NASA official.
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Exploring+CERN.compressed
1) The document discusses CERN, the particle physics laboratory located near Geneva, Switzerland. It describes some of the research being done there, including experiments using the Large Hadron Collider to better understand the universe.
2) The Large Hadron Collider fires beams of protons towards each other at close to the speed of light to simulate the high energy conditions that existed shortly after the Big Bang. Experiments detect the subatomic particles created in these collisions to learn about fundamental forces and particles.
3) One goal is to find the Higgs boson particle, which could help explain how other particles acquire mass. Researchers also hope to gain insights into dark matter, black holes, and theories of everything. The scale of the
a Doorway to a NEW WORLD
The Large Hadron Collider (LHC) experiment beginning this week aims to recreate conditions similar to those shortly after the Big Bang by colliding protons together at close to light speed. The LHC is a massive underground facility built between France and Switzerland at a cost of $8 billion. While it seeks to discover more about the origins and early development of the universe, some speculate it could open a doorway to new dimensions or worlds through the powerful magnetic fields created. Previous large collider experiments, like the canceled Superconducting Super Collider in Texas, fueled similar speculation about accessing parallel worlds through collisions at near light speed. This week's LHC experiments may reveal more about the origins of the universe or have even more unexpected
Large hadron collider
The Large Hadron Collider (LHC) is the world's largest and highest-energy particle collider located at CERN near Geneva. Protons are accelerated and collided at energies of 7 TeV in the 27 km circular tunnel. Four detectors - ATLAS, CMS, ALICE, and LHCb - study the particles produced in the collisions to address fundamental questions in physics such as the discovery of the Higgs boson and exploration of dark matter and extra dimensions. The LHC began operations in 2008 but was halted that year due to an incident. It resumed collisions in 2009 and made its first major discovery of the Higgs boson in 2012.
Bottling The Big Bang - CERN & LHC
The Large Hadron Collider (LHC) at CERN will collide protons and lead ions at very high energies to recreate conditions shortly after the Big Bang. It consists of a 27km ringed accelerator and four large detectors that will observe collision outcomes. The LHC is an enormously complex engineering project involving accelerating particles to near light speed using superconducting magnets and detecting collision results using specialized detector technologies to help explain fundamental questions in physics.
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This document discusses the history and properties of carbon materials like fullerenes and graphene. It begins by discussing how fullerenes were discovered in meteorites and interstellar dust clouds. It then explains some of the unique electrical and mechanical properties of graphene that make it promising for applications like spin computers and transistors operating at very high frequencies. The document promotes public engagement with chemistry through initiatives like International Year of Chemistry and augmented reality applications.
Large Hadron Collider
The Large Hadron Collider (LHC) is the world's largest and most powerful particle collider located near Geneva, Switzerland. Built by CERN in collaboration with over 10,000 scientists from around the world, the LHC has a circumference of 27 km and accelerates protons to energies of 13 TeV before colliding them. Some of the LHC's major discoveries include the discovery of the Higgs boson in 2013 and observations of tetraquarks and quark-gluon plasma, while hoped-for discoveries like supersymmetric particles have not yet been found. The LHC continues to analyze vast amounts of data to probe unexplained phenomena and search for physics beyond the Standard Model.
Large Hadron Collider
I prepared this presentation for my course on 'Presentation Skill'. It is just an Introduction about the LHC & Higgs Boson.
Eps edison volta
Big Questions, Small Particles and the Optimism of Curiosity discusses CERN's mission to push forward the frontiers of knowledge about the Big Bang and early universe by studying small particles using large particle accelerators. It summarizes CERN's goals of understanding fundamental physics, developing new technologies, and training scientists. The document outlines recent discoveries made with the Large Hadron Collider, including the 2012 discovery of the Higgs boson particle, and discusses many open questions that remain. It emphasizes that fundamental discoveries often raise more questions and that our understanding of nature is still evolving.
El Premio Nóbel de Física 2020
El Británico Roger Penrose por sus desarrollos teóricos sobre agujeros negros. La Estadounidense Andrea Ghez y el Alemán Reinhald Genzel por el hallazgo de un objeto súper masivo y compacto en el centro de nuestra galaxia.
Por:
Herman J. Mosquera Cuesta
Ingeniero Mecánico UdeA.
PhD en Astrofísica.
Tres investigadores han sido galardonados con el premio Nobel de Física de este año por sus descubrimientos sobre estos fenómenos supermasivos. Roger Penrose por demostrar su existencia según la teoría de la relatividad general y Reinhard Genzel y Andrea Ghez por demostrar que los agujeros negros son capaces de interferir en las órbitas de estrellas cercanas.
Los astrónomos Roger Penrose, Reinhard Genzel y Andrea Ghez se han hecho con el premio Nobel de Física de 2020. El primero de los científicos ha obtenido la mitad del galardón por la demostración fáctica de la existencia de los agujeros negros, siguiendo los preceptos de la teoría de la relatividad de Einstein. Los otros dos investigadores han sido distinguidos por el descubrimiento de un objeto supermasivo en el centro de la Vía Láctea, a unos 26.000 años luz de nuestro planeta.
Reinhard Genzel y Andrea Ghez descubrieron un agujero negro en el centro de la Vía Láctea comprobando la velocidad de las órbitas de sus estrellas circundantes.
“Los descubrimientos de los galardonados de este año han abierto nuevos caminos en el estudio de objetos compactos y supermasivos. Pero estos objetos exóticos todavía plantean muchas preguntas que piden respuestas y plantean nuevos retos de investigación en el futuro, no solo sobre la estructura interna de estos objetos masivos, sino también sobre cómo usar la teoría de la relatividad general en condiciones extremas”, ha declarado David Haviland, presidente del Comité Nobel de Física.
Cern
Ed Friedman traveled to CERN in Geneva, Switzerland on June 8, 2012. While there, he took a tour of CERN headquarters and control rooms, and visited the Compact Muon Solenoid experiment. The CMS experiment uses a particle detector to investigate physics including the search for the Higgs boson and dark matter. Friedman's special access included a lecture on the status of the Higgs boson discovery.
CERN
The Large Hadron Collider (LHC) is a 27-kilometer ring tunnel located between France and Switzerland that accelerates and collides beams of protons and heavy ions at nearly the speed of light to study particle physics. Some key facts about the LHC include that its tunnel was excavated to within 1 centimeter at its two ends, its superconducting magnets operate at temperatures colder than deep space, and it can achieve temperatures over 100,000 times hotter than the center of the Sun during heavy ion collisions. The data recorded from experiments at the LHC each year would fill over 50,000 hard disks with 1 terabyte of storage each.
#40_Bondar-Dolgov
The document discusses efforts to detect dark matter particles. It summarizes that dark matter is thought to make up most of the mass of the universe but its exact nature is unknown. Researchers are designing detectors using different physical principles to try and detect the elusive dark matter particles. The Laboratory of Cosmology and Elementary Particle Physics was established in 2011 to develop methods for detecting dark matter particles. They have designed prototypes of a dark matter detector that uses liquefied argon as it may be sensitive to hypothesized dark matter particles 2-10 times the mass of protons. Larger detectors will need to be placed deep underground to shield them from background radiation.
CERN, Particle Physics and the Large Hadron Collider
The document discusses particle physics research done at CERN using the Large Hadron Collider (LHC). It describes the LHC as the most powerful particle accelerator ever built, with a 27km long tunnel housing four detectors. The LHC collides protons together at high energies to study their constituent particles like quarks and search for new particles like the Higgs boson. It also allows researchers to recreate conditions shortly after the Big Bang and potentially observe mini black holes or extra dimensions at very small scales. The future includes planning for an even larger successor to the LHC to continue advancing understanding of fundamental physics.
Large hadron collider
The Large Hadron Collider (LHC) is the world's largest and most powerful particle collider located in a tunnel under the France-Switzerland border. Built by CERN between 1998 and 2008, the LHC was designed to collide beams of protons or heavy ions at very high energies to study the smallest known particles and discover new ones. Its primary goals are to test theories like supersymmetry and the existence of the Higgs boson, which was discovered in 2012. The LHC contains several large detectors that analyze collision data to advance understanding of fundamental physics.
Project report on LHC " Large Hadron Collider " Machine
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The Anti Matter
This is a presentation for a research project Regarding the LHC experiment prepared and presented by me during the first semester at Edexcel-HND.
Ion trap quantum computation
Ion traps offer a possible solution to the challenge of building a quantum computer by isolating ions as physical qubits. Ion traps use oscillating electric fields to confine ions in a line, isolating them from the environment while still allowing for manipulation and interaction through laser beams and the Coulomb force. The linear Paul trap in particular was inspired by Wolfgang Paul observing eggs on a tray and forms the basis for trapped ion quantum computation.
Faster-than-light Spaceships
In 1994, Miguel Alcubierre proposed a method for changing the geometry of space by creating a wave that would cause the fabric of space ahead of a spacecraft to contract and the space behind it to expand. The ship would then ride this wave inside a region of flat space, known as a warp bubble, and would not move within this bubble but instead be carried along as the region itself moves due to the actions of the drive.
In a recent study, physicist Dr Erik Lentz outlined a way that a rocket could theoretically travel faster than light – or over 186,000 miles per second. At that speed, astronauts could reach other star systems in just a few years, allowing humanity to colonise faraway planets. Current rocket technology would take roughly 6,300 years to reach Proxima Centauri, the closest star to our Sun. So-called “warp drives” have been proposed before, but often rely on theoretical systems that break the laws of physics. That’s because according to Einstein’s general theory of relativity, it’s physically impossible for anything to travel faster than the speed of light.
Dr Lentz, a scientist at Göttingen University in Germany, says his imaginary warp drive would operate within the boundaries of physics. While other theories rely on “exotic” concepts, such as negative energy, his gets around this problem using a new theoretical particle. These hyper-fast “solitons” can travel at any speed while obeying the laws of physics, according to a Göttingen University press release. A soliton – also referred to as a “warp bubble” – is a compact wave that acts like a particle while maintaining its shape and moving at constant velocity.
Dr Lentz said he cooked up his theory after analysing existing research and discovered gaps in previous warp drive studies. He believes that solitons could travel faster than light and “create a conducting plasma and classical electromagnetic fields”. Both of these concepts are understood under conventional physics and obey Einstein’s theory of relativity. While his warp drive provides the tantalising possibility of faster-than-light travel, it’s still very much in the idea phase for now.
The contraption would require an enormous amount of energy that isn’t possible using modern technology. “The energy savings would need to be drastic, of approximately 30 orders of magnitude to be in range of modern nuclear fission reactors,” Dr Lentz said. The research was published in the journal Classical and Quantum Gravity.
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The document discusses chemistry in the interstellar medium (ISM). It notes that chemistry in the ISM occurs under very different physical conditions than on Earth, including low pressure, extreme temperatures, and high-energy radiation. Quantum tunneling allows chemical reactions to occur even in these hostile environments by allowing particles to tunnel through energy barriers. The document provides examples of organic molecules and cosmic dust found in the ISM through astrochemical analysis.
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The 2022 Nobel Prize in Physics was awarded to Alain Aspect, John Clauser, and Anton Zeilinger for their groundbreaking experimental work on quantum entanglement and violations of Bell's inequalities. John Clauser performed the first conclusive experiment in 1972 showing violations of Bell's inequalities. Alain Aspect then designed experiments in the 1980s enforcing stricter locality conditions. Anton Zeilinger demonstrated quantum teleportation in 1997 and performed another key Bell violation experiment in 1998. Together, their work confirmed the predictions of quantum mechanics and ruled out local hidden variable theories, resolving a decades-long debate between Einstein and Bohr. This established the foundations for the rapidly growing field of quantum information science.
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CERN-LHC presentation
- 2. What is the LHC?
- 8. CERN employs 1/3 students
- 11. Black Hole danger? No way!
- 18. - Higgs' spotting rumoured as of april 2011
- 19. Thank you!