Quite a simple theory of expansion to become known as division as the Earths Sun magnetic retraction at a constant to galaxy flux it bonds of energy that square to bonds of its reaction maybe included into robust new transportation or new modular dissipation. To experience correlated fluctuations from collisions with the particle one has to use experiments this is a simple experiment in a bath, as shown. These correlations have been measured for two optically trapped colloidal particles the fluctuation-“dissipation theorem” can be used to obtain the power a spectrum of fluctuations in the closed system at an equilibrium to a design. Heat generated a flux some of these designs are in wise laboratory using a Bresser Microscope imaging system.
Prof Kielpinski said: ‘By using the ultra hi-res microscope we were able to concentrate the image down to a smaller area. This has been achieved before, creating a darker image which is easier to see. Wise wanted to investigate how few atoms are required to cast a shadow and we proved it takes just one research is limited' But say researchers at Griffin University Australia. A new ultra-high-resolution microscope has photographed the shadow of a single atom for the first time this is an achievement which took five years. The key to the breakthrough at Griffith University in Australia is a super high-resolution microscope, which makes the shadow dark enough to see. No other facility in the world has the capability for such extreme optical imaging. Early attempts to calculate the strength of the electromagnetic interactions that hold electrons in orbits around the nucleus of atoms required the term 1/137. It was a dimensionless constant called ALPHA. The problem was 1/137 was in an infinite series of growing exponentially,( 1/137)^2 + ( 1/137)^3 + (1/137)^4 + ………. to infinity. ( 1/137) became known as the Fine Structure Constant, called FSC or ALPHA. It is a constant in nature equal to 0.0072973531.… which is approximately 1/137. FSC is calculated from 4 basic physical constants:
This is the next step required in the discovery of the Strong Nuclear Force which was 100 times stronger than the Electromagnetic Force. Theories developed for force carriers for the Strong Nuclear Force called “ Gluons”. The force carriers for the Electromagnetic Force which were the photons. An infinite sum can be a series that has a finite answer: 1 + ½ + ¼ + 1/8 + …… = 2 The Weak Nuclear Force changes one form of matter into another form of matter through beta radioactivity. When radioactivity occurs a neutron converts into a proton and releases an electron and an anti-neutrino. This Strong Nuclear Force can squeeze 4 protons into a tight clump but it is the Weak Nuclear Force the converts them into a nuclei of helium. A new method of calculating in the 1990’s was called “unitary” in which the math required the square roots of probabilities of all the possible outcomes in an interaction sum towards 100%. If the Large Hadron Collider at CERN discovers the Higgs Particle it will be evidenced in the collision producing a single electron, a pair of jets, and a neutrino. The neutrino being detected as a particular energy gone missing. The math is still the method of defining the particles behavior and discovering new particles. The struggle to get rid of infinities as brought us a long way but many discoveries remain to be found. An announcement will be made by wise labs shortly, so stay tuned.
Prof Kielpinski said: ‘By using the ultra hi-res microscope we were able to concentrate the image down to a smaller area. This has been achieved before, creating a darker image which is easier to see. Wise wanted to investigate how few atoms are required to cast a shadow and we proved it takes just one research is limited' But say researchers at Griffin University Australia. A new ultra-high-resolution microscope has photographed the shadow of a single atom for the first time this is an achievement which took five years. The key to the breakthrough at Griffith University in Australia is a super high-resolution microscope, which makes the shadow dark enough to see. No other facility in the world has the capability for such extreme optical imaging. Early attempts to calculate the strength of the electromagnetic interactions that hold electrons in orbits around the nucleus of atoms required the term 1/137. It was a dimensionless constant called ALPHA. The problem was 1/137 was in an infinite series of growing exponentially,( 1/137)^2 + ( 1/137)^3 + (1/137)^4 + ………. to infinity. ( 1/137) became known as the Fine Structure Constant, called FSC or ALPHA. It is a constant in nature equal to 0.0072973531.… which is approximately 1/137. FSC is calculated from 4 basic physical constants: 
This is the next step required in the discovery of the Strong Nuclear Force which was 100 times stronger than the Electromagnetic Force. Theories developed for force carriers for the Strong Nuclear Force called “ Gluons”. The force carriers for the Electromagnetic Force which were the photons. An infinite sum can be a series that has a finite answer: 1 + ½ + ¼ + 1/8 + …… = 2 The Weak Nuclear Force changes one form of matter into another form of matter through beta radioactivity. When radioactivity occurs a neutron converts into a proton and releases an electron and an anti-neutrino. This Strong Nuclear Force can squeeze 4 protons into a tight clump but it is the Weak Nuclear Force the converts them into a nuclei of helium. A new method of calculating in the 1990’s was called “unitary” in which the math required the square roots of probabilities of all the possible outcomes in an interaction sum towards 100%. If the Large Hadron Collider at CERN discovers the Higgs Particle it will be evidenced in the collision producing a single electron, a pair of jets, and a neutrino. The neutrino being detected as a particular energy gone missing. The math is still the method of defining the particles behavior and discovering new particles. The struggle to get rid of infinities as brought us a long way but many discoveries remain to be found. An announcement will be made by wise labs shortly, so stay tuned.
No comments:
Post a Comment