The Study Of Nonlinear Electron-Acoustic ( EA ) Wave Propagation?

Today I am here to inform you about the High Frequency Active Auroral Research Program (HAARP) and its intentions.

According to a news release from NASA, coronal mass ejections caused by geomagnetic storms have been enhanced in strength; as from G1 to G5, they were rated G3 in 2012. The earth planet is surrounded and by bubbles of magnetic fields while rapid changes in the earth magnetosphere were witnessed due to activities that happened on sun that caused a geomagnetic storm. With earth’s magnetic fields, coronal mass ejections were mingled; as a result, the wind became mild in intensity reported in the month of March in the corresponding year (Philips, 2009).

Transverse and Longitudinal waves are different due to the fact that Longitudinal waves are waves that vibrate in a parallel direction in a back and forth motion compared to that of the motion. However, transverse waves are when the waves moves at a perpendicular direction of the motion. They are similar because they both make waves when their is motion or energy involved in their movement.

This source will be used to introduce one of the current theories attempting to explain how the EmDrive produces thrust. The article also addresses the lack of scientific explanation which will help to prove my own credibility in the report as I address a multitude of theories. Because the article was published recently I will likely introduce this source last.

3. Solar Flares: these are ejections of large volumes of gas. They can sometimes head our way causing radio interference and auroras.

Sound is usually something that people usually take as something simple. However, sound can be a very complicated topic. Sound is a wave of vibration (called a longitudinal wave) caused by a release of energy.

MAGIC telescopes observed BL Lacertae in 3 consecutive nights for duration of 1 hour per night, under excellent weather conditions. The MAGIC observations were triggered by the high activity measured at optical and gamma-ray energies. The source is active in the high energy gamma-ray band as seen by Fermi-LAT. Roughly 40 BL Lac objects are known. Perhaps the most obvious property of BL Lac objects is that they look like stars. Unlike most stars, BL Lac objects are very strong sources of radio and infrared emission. This emission, which is called synchrotron emission, arises from electrons traveling near the speed of light in spiral paths in strong magnetic fields. Synchrotron emission generally is polarized, so BL Lac objects have polarized emission. When light or other electromagnetic radiation is polarized, the directions of the oscillations are the same. The amount of polarization and the brightness of BL Lac objects is highly variable. This variability is very rapid and erratic. They can change very significantly in times as short as 24 hours or less. The rapid variability tells us that the energy source is very small. Nothing can travel faster than the speed of light, including whatever signal or mechanism causes the BL Lac object to change its

According to Gill (2012,p. 11) the equation for Acoustic impedance is Z=ρc, where (Z=Acoustic impedance, ρ =density of medium and c =velocity of beam). From this equation is understood that acoustic

2009 Mami Zoe Taylor and her brother Zack Taylor are in Miami and they are just having lunch. Zoe is a nice and kind girl. She has brown curly hair sometime in braids and she is 16. Zack is one of the nicest brother, I met. He loves to play video games a lot , he is only 11. When they finished lunch, they heard a noise like someone was banging on a wall or something like that. Store when they got up and payed the bill and went to the boom store. The boom store is a smooth jazz place with a rock and roll section, it has many musical instruments that Zoe and Zack like. Zoe loves to play the violin so she tries the violin and she likes it. So they went back home and ask her mom and dad if she and get the violin and they said “yes you can Zoe.” Her mom said and when she Said yes they heard that rumbling noise again. But it was the food in the oven.

2nd P: To understand the effects of solar plasma on Earth’s magnetosphere, one must look at the creation of plasma in the early days of the sun. The sun’s creation is similar to the process in the explosion of a hydrogen bomb, only with the energy created equaling the force of 10 billion hydrogen bombs per second. When the sun was originally forming, hydrogen gas in the middle was crushed from weight above. Eventually, the pressures and temperatures reached such an intense point to where the hydrogen atoms broke apart into electrons and photons, thus, creating plasma. Photons from the explosion of electrons and protons are made so fast and so many at a time that it creates the observed power of the sun. This reaches us as sunlight. Even though the process of the energy created is relatively quick, the process in which the photons travel to Earth happens over a long time within the Sun’s layers. The energy of sunlight that shines down on us today is over 100,000 years 1

The Sun is a hot ball of gas made of hydrogen. Most of its gas is in the fourth state of matter known as plasma, where the gas heats up to the point where atoms break up into plasma. The Sun’s plasma is so hot that it escapes the Sun’s gravitational field. This escape of plasma from the Sun is also known as Coronal Mass Ejection or CME. The escaped plasma forms the solar wind which blows out of the Sun and travels across the solar system with a speed of 500 Km/s, interacting with the planets’ magnetic field and atmosphere. These interactions result in the change of the planets, or in our case, the Earth’s magnetic field from the dipole magnetic field to a plasma-swept magnetosphere. The interactions also produce current to flow through the Earth’s upper atmosphere and the magnetosphere causing neon-light like effect resulting in the formation of aurora.[5]The Sun’s atmosphere also results in other effects such as prominences and solar flare. The solar flares eject high energy particles and gases which are about 13 million oC. These solar flares also cause strong space weather changes by producing a stream of highly energetic particles which impacts Earths magnetosphere.[6] Thus, these solar winds and solar flares are an

Saturn’s Aurora Borealis was exactly the same as Earth’s. The Aurora on Saturn is generated from charged particles released by the sun interacting with Saturn's atmosphere, causing them to glow. The Aurora appears at the poles because the ringed planet's magnetic field forces them pole-ward, exactly like on Earth. Jupiter is just the same. The Aurora Borealis appears at both poles for the exact same reason as Earth and Saturn. But different than Earth, Jupiter’s Aurora had multiple bright streaks and dots instead of the common “curtain” shape. After much research, scientists discovered that some of Jupiter’s largest moon’s magnetic fields were to

Hydrogen and oxygen are the two elements that make up water – with the same observed ratio of two to one. Therefore, it has been concluded that water is taken off a planet’s atmosphere when solar winds approach it. Planets such as Venus and Mars are swept dry (hence their lack of water in their atmospheres) by the solar winds, due to the planets’ absence of magnetic shields powerful enough to “protect” them. The Aurora Borealis is a byproduct of Earth’s defense mechanism against the solar winds – the reason why Earth is not as dehydrated as its sister planets. This research paper will concentrate on the explanation as to why Aurora Borealis is formed.

Since the electrons are stripped from the atoms in a plasma, all that remains is the positively charged nucleus, which can be acted on by magnetic fields. In magnetic confinement reactors, so-called magnetic bottles are created with magnetic fields that confine the plasma. In experiments, however, plasmas can only be contained for a few seconds before their oscilations cause them to come into contact with the walls of the reactor. The biggest problem in controlling plasmas with magnetic confinement is their chaotic behaivior. With continuing research, longer containment times are being recorded.

The solar wind containing these hot gases races toward the edges of the solar system, and smash in to the magnetosphere. The magnetosphere protects the earth by deflecting most of the solar wind around the planet. Trillions of these charged particles mange to get through and project from the North and South poles. Energy released in this fashion excites atoms of nitrogen and oxygen, which in turn emit pulses of colored light. These formations are called an aurora. The aurora borealis, which are visible in Alaska, are a result of this sort of space storm.