About Albert Einstein and his Wish

About Albert Einstein and his Wish

Einstein was a great scientist, He gave famous theory of relativity and the equation E= mc2 (square of C)

and got Nobel Prize desired to burn his body when he died.

Albert Einstein Who gave concept of Time Travel  and now many scientists (Michio Kaku, Ronal Mellat, LHC Project ) are following his principles

In his last days - Einstein refused surgery, saying: "I want to go when I want. It is tasteless to prolong life artificially. I have done my share, it is time to go. I will do it elegantly." He died in Princeton Hospital early the next morning at the age of 76, having continued to work until near the end.

During the autopsy, the pathologist of Princeton Hospital, Thomas Stoltz Harvey, removed Einstein's brain for preservation without the permission of his family, in the hope that the neuroscience of the future would be able to discover what made Einstein so intelligent. Einstein's remains were cremated and his ashes were scattered at an undisclosed location (As per his wish) .

Did Einstein write a last will?

Yes! It was signed by him on March 18, 1950. His secretary Helen Dukas and Dr. Otto Nathan were inserted as administrators of his will. The heirs were among others his step daughter Margot and his two sons Hans Albert and Eduard. His whole written property was given to the Hebrew University in Jerusalem, where it is still to be seen today, in the Albert Einstein Archives.

Where was Albert Einstein buried?
There is no grave. According to Einstein’s wish his body was burned on the same day and the ashes were scattered after a simple ceremony at an unknown place.

"Another Earth" Movie - Concept Based on Parallel Universe & Time Travel

"Another Earth" 2011 Movie - Concept Based on Parallel Universe & Time Travel

Another Earth is a 2011 American fantasy/science fiction drama film directed by Mike Cahill ,

The film stars William Mapother and Brit Marling. It premiered at the 27th Sundance Film Festival in January 2011 and will be distributed by Fox Searchlight Pictures.

About Movie -

Rhoda Williams (Marling), a physics student at MIT, is driving when she sees a planet and leans out for a better look. She hits a minivan and kills a family. She is imprisoned for four years, and upon release seeks out the widower of the family, composer John Burroughs (Mapother). The planet she saw is a mirror planet of Earth, seemingly to the extent that it even has the same people on it, and an essay contest is held where the winner can ride a space shuttle to visit it. Williams considers the possibility of visiting it to find out what kind of life her mirror self would have led.

Cast - William Mapother as John Burroughs
Brit Marling as Rhoda Williams
Jordan Baker as Kim Williams
Robin Lord Taylor as Jeff Williams
Flint Beverage
Kumar Pallana as Purdeep

Sci-Fi Movie Based on Alternative Universe

The movie competently balances between quantum physics and personal lives of the main characters, gently introducing complicated themes like the possibility of everyone’s duplicate is living on another earth. The suspense provided by the movie is based on life-altering presumptions that our alternative ego exists somewhere in time and space, possibly a better one.

First Higgs search results from LHC and Tevatron

First Higgs search results from LHC and Tevatron

Experiments at Fermi National Accelerator Laboratory and the European particle physics center, CERN, are zooming in on the final remaining mass region where the Higgs particle might be lurking. Over the next seven days, Fermilab’s CDF and DZero collaborations and CERN’s ATLAS and CMS collaborations will announce their latest Higgs search results at the High-Energy Physics conference of the European Physical Society.

Scientists at Fermilab and CERN employ very similar methods to create the Higgs: accelerate particles to high energy using the world’s most powerful accelerators, the Tevatron (1 TeV beam energy) and the Large Hadron Collider (3.5 TeV), smash the particles together, and sift through the large number of new particles emerging from these collisions. But to find a Higgs particle among the many particles created, the teams of scientists are focusing on different signals (see below).

If the Higgs particle exists and has the properties predicted by the simplest Higgs model, named after Scottish physicist Peter Higgs, then the colliders at Fermilab and CERN already must have produced Higgs particles. But finding the tell-tale sign of a Higgs boson among all other particle signatures is like searching for a drop of ink in an ocean. Only if the accelerators produce more and more collisions do scientists stand a chance of finding enough evidence for the Higgs particle.

explains why some fundamental particles have mass and others don’t

Higgs search at the Tevatron

At Fermilab’s Tevatron, scientists attempt to produce Higgs particles by smashing together protons and antiprotons, composite particles that comprise elementary building blocks. When a proton and antiproton hit each other at high energy, scientists observe the collisions and interactions of these components, such as quarks, antiquarks and gluons. Those subatomic collisions transform energy into new particles that can be heavier than the protons themselves, as predicted by Einstein’s famous equation E=mc².

Tevatron scientists have carried out detailed simulations of such collisions and found that the best chance for producing, say, a 120-GeV Higgs boson at the Tevatron are quark-antiquark collisions that create a high-energy W boson (see graphic). This W boson has a chance to spend its extra energy to generate a short-lived Higgs boson. The W boson and the Higgs boson would then decay into lighter particles that can be caught and identified by the CDF and DZero particle detectors, which surround the two proton-antiproton collision points of the Tevatron.
According to the Standard Model, such a 120-GeV Higgs boson will decay 68 percent of the time into a bottom quark and anti-bottom quark. But other collision processes and particle decays also produce bottom and anti-bottom quarks. Identifying an excess of these particles due to the decay of the Higgs boson is the best chance for Tevatron scientists to discover or rule out a Standard Model Higgs.

For details visit : http://www.symmetrymagazine.org/breaking/2011/07/22/how-to-find-the-higgs-particle/