PHYSICS IN OFFICES

Physics in Offices

Physics in Offices

Introduction

Understanding the dark matter of the universe, which has stayed the mystery for rather some time, is based mainly on theories of physics. We have yet to see the very dark aperture, but physics has clarified what one is, and why we will not see it. Otherwise we would have not ever renowned that it is an exceedingly small district of space-time with the gravitational area so intense that not anything can escape, not even light. Physics assist to understand the dark issue of the universe, because it applies theories to what the dark issue is. We are also adept to gaze at distant spots in the universe with new telescopes because of the principles of magnification and amplification of light.(Roegen, 2005)

Discussion

The area of non-accelerator physics uses routinely happening particles and phenomena to discover element and astro element physics. Cosmic rays in the earth's atmosphere and neutrinos from the sun, galactic supernovae and terrestrial atomic reactors serve as some of the non-accelerator-based element sources used in this locality of research.

In the past ten years, experiments like these have disclosed the universe far stranger than scientists ever imagined. Ordinary matter—everything that makes up the things we are, see and touch—forms only the small part of the universe. Instead 96 per hundred of the universe consists of mysterious substances called dark power and dark matter. Physicists accept as factual that dark power results in the accelerated expansion of the universe. While dark issue holds the galaxies simultaneously, but it is the pattern of issue that does not emit lightweight and thus tough to notice with commonplace observation methods.(Elliott, 2007)

Non-accelerator-based programs are playing an increasingly significant function in this locality of high power physics. Research from such projects as Sudbury Neutrino Observatory (SNO) in Canada, the Pierre Auger Observatory in Argentina, and the Super-K observatory in Japan have supplied untested facts and numbers, new ideas and techniques complementary to those supplied by accelerator-based research on the power frontier.

We utilize the variety of instruments flown on board the FAAM BAe146 research aircraft. These encompass probes adept to enumerate and size cloud droplets, raindrops, ice crystals and snowflakes.(Gyftopoulos, 2005) We also use instrumentation to measure bulk fluid and ice water contents, to sample the physical and chemical characteristics of atmospheric aerosol particles and to measure the dynamical and thermodynamically characteristics of the air.

An significant interest is stratocumulus cloud inside the atmospheric boundary layer. (Elliott, 2007)This is sustained by the near-balance of physical processes encompassing emission, turbulent transport of heat and moisture and microphysics. The correct representation of interactions between these various processes is very significant in forecasting the formation, variability and break-up of stratocumulus. We are actually using area observations to contrast with forecasts of the cloud made with the Met Office Unified Model.(Gyftopoulos, 2005)

We also study the formation and evolution of ice inside clouds. This can have the significant influence on the evolution of precipitation from cloud systems round the UK. Below 0C, ice can augment more rapidly than ...