Has the LHC detected the Higgs boson?
No, the Large Hadron Collider (LHC) has not detected the theorized Higgs boson. The LHC was shut down because of some technical difficulties, and it's finally up and running. We're still waiting for results. Fermilab was working on finding the Higgs, but lacks the power to deliver the kinds of acceleration required to set up conditions under which this predicted particle might appear. Links are provided below, and are updated fastidiously.
What are color forces in terms of quarks the fundamental particles?
The color force is another term for the strong nuclear force. (It doesn't have anything to do with actual colors.) Basically, the color force is the force binding two (or more) quarks together; it's mediated by the exchange of gauge particles called gluons. A quark will change color from, say, "red" to "green" by emitting a red-antigreen gluon, which can be absorbed by a "green" quark (which will then change to "red").
What is given off when electrons return to their ground state?
energy is given out. this is emitted in the form light ie each atom has its own characteristic emission spectra.
Can light be sucked into a black hole?
Yes, the gravitational strength of black holes is so powerful that it can "suck in" light, even though it travels at 186,000 miles per second.
Why are protons neutrons electrons called subatomic particles?
Because they are much smaller than an atom
Can you describe the benchpress movement anatomically?
The Bench Press
If the radius of a neutron is 1x10-13 cm calculate the density of a neutron in g over cm3?
According to the question, the given only information is:
Radius of a neutron is 1*10^-13 cm
And the purpose is to:
Find out the density of a neutron in grams over cm^3
(So it's only one neutron?)
THE MOTHOD
Since we know the density of a certain object can be acquired by using the formula Density=Mass / Volume, now the only uncertainty is the mass of a neutron.
There is a way to estimate the mass of a neutron through an experiment, which will be needing the followings, a mass spectrometer, an electronic gun, alpha particle, a nitrogen particle.
INSTRUCTIONS
1) Use an electronic gun to shoot out an electron, into an orbit around the mass spectrometer. Magnetic force would equal to centripetal force, and by using this formula
eVB=m*(V^2/R)
we could find out the mass of an electron.
2) Collide an alpha particle with a nitrogen particle, to produce a proton. By using the same method above, calculate the mass of the proton with a mass spectrometer.
3) Collide an alpha particle with a nitrogen particle with a regulated energy so that the alpha particle could be scattered. By using the laws "Conservation of momentum" and "Conservation of energy", we could find out the mass of the nitrogen nucleus(M).
M=7*(mass of proton + mass of neutron)
A neutrons mass could be estimated by solving the equation above.
Thus the density of a neutron is
D=(1.674927*10^-27) grams/ 1cm^3=1.674927*10^-27 g/cm^3
CUBES
If the question were "If the radius of a neutron is 1*10^-13 cm, calculate the density of neutrons in g over cm3?", the method would be totally different and difficult, as well as controversial.
1) BLOCKS
Since the particle is neutron that we are taking into account, we could assume that neutrons can be positioned side by side with no space and force amongst them. Just like constructing a building, bricks and bricks are very close together, but rather than rectangulars, more sphere shaped perhaps.
D=M/V={[1 / (2*1*10^-13)]^3*1.674927*10^-27} grams/ 1 cm^3=2.09365875*10^11
Whcih is not possible.
2) LATTICE
Maybe neutrons could be placed in a way like NaCl or other solids(if possible), with a distance between one another. This is where math comes into place. Note that there are three forms of lattace, which means three different ways of calculation and results.
Anyways, this question is still a bit odd. We might be asking the dencity of a lattice which NaCl forms, but not possibly the density of neutrons, unless under special circumstances.
What would happen if two quarks collided?
when quarks will collide it just pass each other as ray light pass other light or another question may be asked what will happen when two ill collide. its real answer is that if quark will be at rest then it will release energy equal to e=mc^2 but in motion is take physics laws under question.
I'm trying to find out more about this. I know that when antimatter comes in contact with regular matter, the particles annihilate each other; and, there must be a huge expenditure of energy. I know that one gram of antimatter dropped in a ton of water can propel a spaceship to Pluto in one week (3.7 billion miles).
According to Einstein's work, three grams (about a "penny") when converted to energy (E=Mc2 means matter is stored energy and vice versa) can bring to boil, 320 Olympic size swimming pools.
Based on my reading of physics books as a fledgling science fiction writer, I say antimatter is stored in magnetic bottles, sort of like a thermos. The magnetism would keep the particles free from contact and in an orderly spin. The bottle, I imagine, must have a perfect vacuum.
How many electron shells does gold atom have?
This is a chemical element. You can find the how many electron in a single atom by using a periodic table.
Bank 1 is the bank of cylinders containing cylinder 1, which varies from engine to engine among the many V6, V8, & Boxer engines. Sensor 1 is always the "upstream" or Pre catalyst sensor. On most four cylinder or other inline engine configurations, there is only one bank. Sensor 2 would be downstream or after the catalytic converter. Diagnostic Trouble Code (DTC) p0133 refers to Bank1, Sensor1 being slow to respond. This may point to a failing sensor, or simply an intake or exhaust leak. Any gas leak can lead to unmeterd Oxygen in the system. This code may also be caused by fault wiring or connection on the sensor circuit.
What is the valence electron hybridzation of SF6?
Since the central sulfur has six atoms bound to it, it is sp3d2
What evidence is there that electrons move around in different path ways around the nucleus?
None, because they don't "move around in different path ways". They exist as a probability density function. It's a mistake to try to apply everyday experience to electrons, because quantum is weird.
For example: it's common in basic chemistry textbooks to show the p orbitals as kind of dumbbell-shaped objects, which makes many students think the electrons are travelling in a sort of figure-8 loop. This is not at all the case. There is a probability of the electron being on one side of the nucleus. There is an equal probability of it being on the other side. The probability of it being on the "nodal plane" between the two is preciselyzero. It doesn't "move through" the plane, it's just on one side part of the time and the other part of the time.
Who built the Large Hadron Collider?
It was built with funds from, and is administered by, CERN, which is a French acronym for Couseil Europeen pour la Reserche Nucleaire. The English translation is "European Council for Nuclear Research."
The organization is now called the European Organization for Nuclear Research, but the original acronym has stuck.
What is a concentration of hydrogen protons in a solution?
In neutral water 10-7 mol/l or 10-7 mol/dm3 if you prefer those units of measure.
the solution may not be neutral (i.e be acidic or basic) in which case the concentration woul be higher or lower.
Where do CERN get their money from?
The respective countries, which are involved in studies at CERN.
Such are:
A tachyon (from the Greek word for "speed") is a hypothetical sub-atomic particle which always travels faster than light. Even it if actually exists, our current physics theories tell us that we will NEVER be able to detect it.
How many electrons do hydrogen gains or lost?
Hydrogen shares its electrons to complete the octate so it gains 1 electrons. it can also its electrons.
How many protons do lutetium have?
An element's atomic number gives its number of protons. Lutetium's atomic number is 71. Thus, it has 71 protons.
Why do the electrons that orbit the nucleus of an atom never lose momentum?
electrons that orbit the nucleus of an atom never lose momentum because of the CENTREPETAL FORCE afford by the moving electron.
In our Universe, when you get to things the size of an atom, the rules for how things operate changes from what we are used to. For starters, you can no longer say that an electron acutually HAS a momentum or even a position. Instead, you can only state (1) the probability that an electron has a specific momentum or position and (2) the AVERAGE momentum or position of an electron. And it is NOT the case that we lack the ability to measure these things, or that the electron "knows" these things but we don't -- the momentum and position of electrons are inherently UN-KNOWABLE, even to the electron itself!
Thus, we can not say an electron "loses" its momentum over time, because we can't even say what its momentum IS. And we can't do so because the ELECTRON ITSELF doesn't "know" its own momentum!
Confusing? Don't like this? Sorry -- that's how our Universe operates.
A baryon number is a quantum number related to the difference between the numbers of quarks and antiquarks in a system of subatomic particles.
No not if you mean gain to become a 5- anion. Possibly if you mean share 5 to become a covalent molecule.
This is really a discussion about boron. There are a number of choices for boron, lose 3 to become B3+ , gain 5 to become B5-, share electrons to achieve the octet.
B3+ and covalency look the best options. B3+ does not exist-- reasons the sum of the first 3 ionization potentials for B is high 6900kJ/mol (compared to Al with about 5000 kj/mol), B3+ if formed it would be really small and polarising- and an ionic bond would be impossible. Covalency is a good option, B will form 3 covalent bonds say with a chlorine or hydrogen and then needs an extra 2 say from a ligand with a lone pair such as Cl-, or H- to form tetrahedral anions
Astronomers are interested in solar neutrinos because neutrinos carry with them information about?
The nuclear reactions going on in the heart of the Sun.