NEW: Boundary of Heliosphere Mapped for First Time

For the first time, the boundary of the heliosphere has been mapped, giving scientists a better understanding of how solar and interstellar winds interact.

Dan Reisenfeld, a scientist at Los Alamos National Laboratory and lead author on the paper, said; “Physics models have theorized this boundary for years, but this is the first time we’ve actually been able to measure it and make a three-dimensional map of it.” Reisenfeld’s paper was published in the Astrophysical Journal today.

The heliosphere is the vast, bubble-like region of space created by the influence of our Sun and extends into interstellar space. The two major components to determining its edge are the heliospheric magnetic field and the solar wind from the Sun.

Three major sections from the beginning of the heliosphere to its edge are the termination shock, the heliosheath, and the heliopause. A type of particle called an energetic neutral atom (ENA) has also been observed to have been produced from its edges.

They did this by using IBEX satellite’s measurement of energetic neutral atoms (ENAs) that result from collisions between solar wind particles and those from the interstellar wind. The intensity of that signal depends on the intensity of the solar wind that strikes the heliosheath. When a wave hits the sheath, the ENA count goes up and IBEX can detect it.

Stay Tuned For More Latest Research and Development

BREAKING NEWS: New Study Suggests Electric Discharge Between Earth’s Core and Magnetic Field

This news release highlights the observation of charged particles in the form of what is sometimes described as “sprites”, which is an electrical discharge which surges from “below” to “above”. It is similar to the mechanics of a local lightening/thunderstorm we witness here on Earth. To the typical observer, it appears that lightening comes down from the heavens and strikes the Earth; however, it is the intense impulse of charge which comes from the ground which produces high voltage.

The existence of these upper atmosphere sprites has been reported by pilots for years sparking a healthy debate as to their cause and how they exist. ESA astronaut Andreas Mogensen during his mission on the International Space Station in 2015 was asked to take pictures over thunderstorms with the most sensitive camera on the orbiting outpost to look for these brief features.

Denmark’s National Space Institute has now published the results of photos taken by ESA astronaut Andreas Mogensen, of upper atmosphere discharges, sometimes referred to as blue lightening or ‘sprites’. The video taken by Mogensen were from the (ISS) International Space Station. (shown below)

The cause or effects of these charged particle events are not well understood. Researched data does suggest a connection between Earth’s magnetic field and Earth’s core. With this hypothesis as a foundation, my personal research suggest a continued conjunction goes beyond our Heliosphere and into our galaxy Milky Way.

The blue discharges and jets are examples of a little-understood part of our atmosphere called the heliosphere. The Heliosphere is the outer atmosphere of the Sun and marks the edge of the Sun’s magnetic influence in space. The solar wind that streams out in all directions from the rotating Sun is a magnetic plasma, and it fills the vast space between the planets in our solar system.

The magnetic plasma from the Sun does not conjoin with the magnetic plasma between the stars in our galaxy, allowing the solar wind carves out a bubble-like atmosphere that shields our solar system from the majority of galactic cosmic rays.

Andreas concludes, “It is not every day that you get to capture a new weather phenomenon on film, so I am very pleased with the result – but even more so that researchers will be able to investigate these intriguing thunderstorms in more detail soon.”

BREAKING NEWS: New Findings Illustrate Secondary Extended Solar Cycles Far Greater Danger than Previously Known

Based on a new study, space scientists at the University of Reading are predicting we are witness to the beginning of a longer-term solar cycle, which will exceed the better-known 11 year and 22 year cycles. Each cycle consist of a ‘solar minimum’ and ‘solar maximum’ measured by the number of sunspots during these periods – and the waxing and waning of charged particles produced by solar flares, coronal mass ejections, coronal holes, and charged filaments.

This research is produced by Dr Mathew Owens, from the University of Reading’s Meteorology department, and Co-author Professor Mike Lockwood FRS, University of Reading. Their paper was published in the journal ‘Scientific Reports’. “The magnetic activity of the Sun ebbs and flows in predictable cycles, but there is also evidence that it is due to plummet, possibly by the largest amount for 300 years”; said Owens.

As the Sun becomes less active, sunspots and coronal ejections will become less frequent. As this trend continues over time, the escalating reduction in solar wind has a direct causal effect on the layers of the Sun’s atmosphere. The most significant effect will be on the ‘heliosphere’ – which like Earth’s magnetic field, shields the Earth dangerous charged particles and radiation.

**I am working on the completion of this study – hope to have it published tomorrow. STAY TUNED…..

Russian Scientists Use Cosmic Rays to Forecast Hurricanes

Scientists from the National Research Nuclear University MEPhI (Russia) appear to have found a way to better predict hurricanes by measuring changes in the atmosphere which precede giant atmospheric vortexes with air pressure subsiding to the center with very high speed of the airflow.

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This can now be done with the use of a ‘muon hodoscope’. Muons are a byproduct of cosmic rays particles. A hodoscope is a type of detector commonly used in particle physics that make use of an array of detectors to determine the trajectory of an energetic particle – in this case cosmic rays.

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Lead researcher Professor Igor Yashin of Moscow Engineering Physics Institute states: “The hurricane muon hodoscope is able to observe and analyze – on a real-time basis, modulations of the flow of secondary cosmic rays on the Earth’s surface provoked by processes in the heliosphere, magnetosphere and atmosphere of Earth. The uniqueness of our hodoscope is that in the real-time mode, it allows reconstruction of each muon’s track and obtaining muonographs.

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It is hard to overstate the necessity of precise hurricane forecasting. Before artificial satellites, the only way to track hurricanes was via airplanes flying above the cyclones. But even today, satellites can’t provide comprehensive information. For example, they can’t detect the inner barometric pressure of the hurricane or the exact wind speed. Moreover, thick clouds obscure nascent cyclones from satellites. Despite the availability of satellite systems, sensors, and radars, aviation still plays an important role in forecasting.

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According to scientists, the new hodoscope provides precise forecasts. To watch the atmosphere over Russia, which spans 10,625,447,387 miles (17.1 million km), the need for four hodoscopes are required. Considering that hurricanes are a fraction of that size, and the majority of tropical cyclones are formed between 10 and 30 degrees of latitude of both hemispheres, the number of hodoscope necessary to monitor this territory is low.

“Muon diagnostics developed at MEPhI offers the possibility to model the flow of cosmic rays in the atmosphere and magnetosphere. But to study such processes, it is necessary to create a network of similar, adjustable muon hodoscopes. Such hodoscopes were developed at MEPhI,” Yashin says.

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