UPDATE: New Finding Depicts Evidence how Modern Science and Ancient Text Unite


A recent news release which was published on April 29th 2016, describe a dramatic explosion occurred from a galaxy known as PKS B1424-418. Light from this blast began arriving at Earth in the year 2012. Now, an international team of astronomers, led by Matthias Kadler, professor for astrophysics at the University of Würzburg, has published their results in the scientific journal Nature Physics.

True, the acknowledgement of the 2012 event was noted and analyzed but was delivered in a mundane quiet manner due to the hysteria messages being put out about “the end of the world” and of course hollywood’s wildly over-the-top disaster movie. However, scientists I interviewed during this period were well are of Mayan prophecy and earnestly considered this coincidence.

At the same time, the high level Maya priesthood I interviewed were just as anxious to tone down the rhetoric of this set up grand pivotal point – and would speak of a more subtle movement which would involve the purging of old thoughts and habits and perhaps a time of inner reflection – I would add perhaps forced upon us as witnessed with the tough times many of us are in, and perhaps dealing unusual politics which could be an uplifting revelation realizing a broken system begging some 70 + years ago. Or it could be the nightmare many of us are fearing. Either way, change is upon us and maybe the shift comes not in the way of a decisional outcome, but how we handle, deal-with, accept or deny, empowerment or devolution.


In the summer of 2012, NASA’s Fermi satellite witnessed a dramatic brightening of galaxy PKS B1424-418, as it was producing a gamma-ray blazar. The excess luminosity of the central region is produced by matter falling toward a supermassive black hole weighing millions of times the mass of our Sun. As it approaches the black hole, some of the material becomes channeled into particle jets moving outward in opposite directions at nearly the speed of light. In blazars one of these jets happens to point almost directly toward Earth.

“Within their jets, blazars are capable of accelerating protons to relativistic energies. Interactions of these protons with light in the central regions of the blazar can create pions. When these pions decay, both gamma rays and neutrinos are produced,” explains Karl Mannheim, a coauthor of the study and astronomy professor in Würzburg, Germany.


The scientists searching for the neutrino source then turned to data from a long-term observing program named TANAMI (Tracking Active Galactic Nuclei with Austral Milliarcsecond Interferometry). Since 2007, TANAMI has routinely monitored nearly 100 active galaxies in the southern sky, including many flaring sources detected by Fermi. Three radio observations between 2011 and 2013 cover the period of the Fermi outburst. They reveal that the core of the galaxy’s jet had been brightening by about four times. No other galaxy observed by TANAMI over the life of the program has exhibited such a dramatic change.

IceCube Neutrino Observatory

A dramatic explosion occurred from a galaxy known as PKS B1424-418. Light from this blast began arriving at Earth in 2012. On Dec. 4, 2012, the IceCube Neutrino Observatory at the South Pole detected an event known as Big Bird – a neutrino gamma ray blazer with an energy exceeding 2 quadrillion electron volts (PeV). Now, an international team of astronomers, led by Matthias Kadler, professor for astrophysics at the University of Würzburg, has published their results in the scientific journal Nature Physics.



_science of cycles banner square

Mitch Battros and ‘Science of Cycles’
Research Sponsorship Fundraiser

**Be part of keeping ‘Science of Cycles’ alive and free.
**Your support is needed to keep this unique and valuable resource.

**Help sponsor us with your pledge as you see fit to the value you receive.

paypal donate_button_sm

If banner is not working Click Here




Clues to Ancient Giant Asteroid Found in Australia

Scientists have found evidence of a huge asteroid that struck the Earth early in its life with an impact larger than anything humans have experienced. Tiny glass beads called spherules, found in north-western Australia were formed from vaporized material from the asteroid impact, said Dr Andrew Glikson from The Australian National University (ANU).


“The impact would have triggered earthquakes orders of magnitude greater than terrestrial earthquakes, it would have caused huge tsunamis and would have made cliffs crumble,” said Dr Glikson, from the ANU Planetary Institute.

The asteroid is the second oldest known to have hit the Earth and one of the largest.

glass rock austraila

Dr Glikson said the asteroid would have been 20 to 30 kilometers across and would have created a crater hundreds of kilometers wide.

About 3.8 to 3.9 billion years ago the moon was struck by numerous asteroids, which formed the craters, called mare, that are still visible from Earth

“Exactly where this asteroid struck the earth remains a mystery,” Dr Glikson said.

“Any craters from this time on Earth’s surface have been obliterated by volcanic activity and tectonic movements.”

Dr Glikson and Dr Arthur Hickman from Geological Survey of Western Australia found the glass beads in a drill core from Marble Bar, in north-western Australia, in some of the oldest known sediments on Earth.

The sediment layer, which was originally on the ocean floor, was preserved between two volcanic layers, which enabled very precise dating of its origin.

Dr Glikson has been searching for evidence of ancient impacts for more than 20 years and immediately suspected the glass beads originated from an asteroid strike.

Subsequent testing found the levels of elements such as platinum, nickel and chromium matched those in asteroids. There may have been many more similar impacts, for which the evidence has not been found, said Dr Glikson.

“This is just the tip of the iceberg. We’ve only found evidence for 17 impacts older than 2.5 billion years, but there could have been hundreds”

“Asteroid strikes this big result in major tectonic shifts and extensive magma flows. They could have significantly affected the way the Earth evolved.”

Interplay of Magnetic Fields and Gravitation in Star Development

Space bears witness to a constant stream of star births. Whole star clusters are often formed at the same time – and within a comparatively short period. Amelia Stutz and Andrew Gould from the Max Planck Institute for Astronomy in Heidelberg have proposed a new mechanism to explain this quick formation.

cycle of the universe7

Star formation is basically a simple process: You take a very cold cloud consisting of hydrogen gas and a sprinkling of dust and leave the system to get on with it. Then, within the space of a few million years, the sufficiently cold regions will collapse under their own gravity and form new stars.

Reality is a bit more complicated. A particular feature is that there seem to be two types of star formation. In conventional, smaller molecular clouds, only one or a few stars form – until the gas has dispersed over a period of three million years or so. Larger clouds survive around ten times longer. Whole star clusters are born simultaneously in these clouds and very massive Suns are formed.

cycle of the universe6

Why is it that so many stars are created during these approximately 30 million years? In astronomical terms, this period is quite short. Most attempts at an explanation are based on a kind of chain reaction in which the formation of the first stars in the cloud triggers the formation of further stars. Supernova explosions of the most massive (and therefore shortest-lived) stars which have just formed could be one explanation, as their shock waves compress the cloud material and thus create the seeds for new stars.

cycle of the universe8

Amelia Stutz and Andrew Gould from the Max Planck Institute for Astronomy in Heidelberg are pursuing a different approach and bringing gravity and magnetic fields into play. To test their idea, they undertook a detailed investigation of the Orion nebula, 1300 light years away. The bright red gas cloud with the complex pattern is one of the best-known celestial objects.

The starting point for Stutz and Gould’s considerations are maps of the mass distribution in a structure known as an “integral-shaped filament” because of its form – it resembles that of a curved integral sign – and which includes the Orion nebula in the central section of the filament.

cycle of the universe5

The Heidelberg-based researchers also drew on studies of the magnetic fields in and around this object.

The data show that magnetic fields and gravitation have approximately the same effect on the filament. Taking this as their basis, the two astronomers developed a scenario in which the filament is a flexible structure undulating to and fro. The usual models of star formation, on the other hand, are based on gas clouds which collapse under their own gravitation.

Important proof for the new idea is the distribution of protostars and infant Suns in and around the filament. Protostars are the precursors of Suns: they contract even further until their nuclei have reached densities and temperatures which are high enough for nuclear fusion reactions to start in a big way. This is the point at which a star is born.

Protostars are light enough to be dragged along when the filament undulates backwards and forwards. Infant stars, in contrast, are much more compact and are simply left behind by the filament or launched into the surrounding space as if fired from a slingshot. The model can thus explain what the observation data actually show: protostars are to be found only along the dense spine of the filament; infant stars, on the other hand, are found mainly outside the filament.

This scenario has the potential for a new mechanism which could explain the formation of whole star clusters on (in astronomical terms) short timescales. The observed positions of the star clusters suggest that the integral-shaped filament originally extended much further towards the north than it does today. Over millions of years, one star cluster after another seems to have formed, starting from the north. And each finished star cluster has scattered the gas-dust mixture surrounding it as time has passed.

This is why we now see three star clusters in and around the filament: the oldest cluster is furthest away from the northern tip of the filament; the second one is closer and is still surrounded by filament remnants; the third one, in the center of the integral-shaped filament, is just in the process of growing.

The interaction of magnetic fields and gravity allows certain types of instabilities, some of which are familiar from plasma physics, and which could lead to the formation of one star cluster after another. This hypothesis is based on observational data for the integral-shaped filament. It is not a mature model for a new mode of star formation, however. Theoreticians have first to carry out appropriate simulations and astronomers have to make further observations.

Only when this preparatory work is complete will it be clear whether the molecular cloud in Orion represents a special case. Or whether the birth of star clusters in a medley of magnetically trapped filaments is the usual route to forming whole clusters of new stars in space within a short period.

First Ever Direct Analysis of Magnetic Loop Reconnect

In a paper published on May 12th 2016 in the scientific journal Science, a research team that includes a West Virginia University physicist helped shed light on the process of magnetic reconnection — which occurs when magnetic fields, such as those around the planet, break and reconnect. The paper details discoveries from NASA’s unprecedented Magnetospheric Multiscale, or MMS, mission that launched four identical spacecraft into Earth’s magnetic shield to measure reconnection.

Magnetospheric Multiscale spacecraft2

On Oct. 16, 2015, MMS flew through the heart of a reconnection region, and scientists were able to perform the first-ever physics experiment in that environment. It is the first time that researchers have detected the exact point of reconnection.

Scientists are making new discoveries about a process that causes some of the most explosive events in the universe. At the same time, they are answering questions about Earth’s magnetosphere — the protective bubble around Earth that shields the planet from the Sun’s constant barrage of superheated, electrically charged particles.

electrically charged particles

The satellites directly measured the energy being converted during reconnection; it produced heat at a rate comparable to 10 million 200-watt solar panels. They also directly measured the mixing of charged particles from outside and inside the magnetic bubble, confirming that reconnection had occurred.

“Magnetic reconnection leads to events like solar flares and auroral displays so it is easy to see its aftereffects, but scientists have never been able to directly observe the point where it occurs until now,” says Paul Cassak, associate professor of physics in the Eberly College of Arts and Sciences and co-author of the paper. “The tiny sizes involved and the extreme speed of the reconnection process make it difficult to study.”

Magnetospheric Multiscale spacecraft

Up until MMS, scientists were unable to measure the smallest scales of reconnection because it was impossible to process data fast enough to determine what was occurring. With this mission, instruments were able to record data 100 times faster than ever before, fast enough to see where magnetic fields break.

Magnetospheric Multiscale spacecraft2

“The amount of data collected and the speed at which it was collected is remarkable,” says Cassak, whose role on the project was developing numerical simulations to help scientists understand what happens in the region where reconnection occurs. “Nobody thought the mission would be this successful this soon.”

As part of the MMS Theory and Modeling team, Cassak used MMS observations and sophisticated computer simulations to analyze how magnetic fields reconnect around Earth.

Along with the research team, Cassak determined the properties in the reconnection region. He ran a simulation using a supercomputer operated by the Department of Energy that put the observed results in a two-dimensional context, as opposed to the one-dimensional data that comes from the satellites.

The simulations produced a large amount of data — almost a third of a terabyte — and would have taken almost a year and a half to do on a single computer.

The simulation ultimately illustrates how magnetic reconnection happens. One goal of this type of research is to help space weather scientists predict how the magnetosphere will behave so that appropriate preparations can be made.

“Learning what causes magnetic fields to break has significant, fundamental implications for scientists because it is very difficult to resolve these types of scales, even in the lab,” says Cassak. “If scientists are able to use MMS to understand what is happening at small scales in the magnetosphere, they can apply this knowledge to other settings where reconnection is important, from space weather to fusion applications in the laboratory.”

Cassak says that the mission is still very young and there is much more to observe. MMS’s orbit will continue to focus on the day-side of Earth for another six months. Then, the orbit will be changed and it will focus on the night-side with the hopes that the spacecraft will encounter another reconnection region. Scientists expect the reconnection process to look different on the night-side, and hope to understand what drives events that cause auroral displays.

Cassak’s work is the latest groundbreaking research to come from WVU’s physics and astronomy department. Among other discoveries, WVU researchers were part of teams that recently detected gravitational waves for the first time and discovered that fast radio bursts are found to repeat.



JUST IN: New Finding Depicts Evidence how Modern Science and Ancient Text Unite

Physicists and astronomers from the University of Texas at Arlington have used advanced astronomical software to accurately date  and translate ancient Greek poet Sappho’s, “Midnight Poem” which describes the night sky over Greece more than 2,500 years ago.


Scientists are now coming out supporting their interest and research into ancient text as it relates to recent discoveries (new findings over last 5 years). Believe me, this is a new revelation. Of the multitude of scientists I have interviewed over the last 25 years, their ambition of ancient text was only whispered to me “off air.”

Sappho's -Midnight Poem- Describes Star Cluster

The scientific teams research was published yesterday in the Journal of Astronomical History and Heritage. Martin George, former president of the International Planetarium Society, now at the National Astronomical Research Institute of Thailand, also participated in the work.

science and ancient text unite

Mitch Battros and ‘Science of Cycles’
Research Sponsorship Fundraiser
**Be part of keeping ‘Science of Cycles’ alive and free.
**Your support is needed to keep this unique and valuable resource.

**Help sponsor us with your pledge as you see fit to the value you receive.

“This is an example of where the scientific community can make a contribution to knowledge described in important ancient texts, “ said Manfred Cuntz, physics professor and lead author of the study. ” Estimations had been made for the timing of this poem in the past, but we were able to scientifically confirm the season that corresponds to her specific descriptions of the night sky in the year 570 B.C.”


Sappho’s “Midnight Poem” describes a star cluster known as the Pleiades having set at around midnight, when supposedly observed by her from the Greek island of Lesbos.

starry night pro plus1

Cuntz and co-author and astronomer Levent Gurdemir, director of the Planetarium at UTA, used advanced software called Starry Night version 7.3, to identify the earliest date that the Pleiades would have set at midnight or earlier in local time in 570 B.C. The Planetarium system Digistar 5 also allows creating the night sky of ancient Greece for Sappho’s place and time.

“Use of Planetarium software permits us to simulate the night sky more accurately on any date, past or future, at any location,” said Levent Gurdemir.”This is an example of how we are opening up the Planetarium to research into disciplines beyond astronomy, including geosciences, biology, chemistry, art, literature, architecture, history and even medicine.”

pleiades chart

The Starry Night software demonstrated that in 570 B.C., the Pleiades set at midnight on Jan. 25, which would be the earliest date the poem could be related. As the year progressed, the Pleiades set progressively earlier.

“The timing question is complex as at that time they did not have accurate mechanical clocks as we do, only perhaps water clocks” said Cuntz. “For that reason, we also identified the latest date on which the Pleiades would have been visible to Sappho from that location on different dates some time during the evening.”

The researchers also determined that the last date that the Pleiades would have been seen at the end of astronomical twilight – the moment when the Sun’s altitude is -18 degrees and the sky is regarded as perfectly dark – was March 31.

“From there, we were able to accurately seasonally date this poem to mid-winter and early spring, scientifically confirming earlier estimations by other scholars,” Cuntz said.

Sappho was the leading female poet of her time and closely rivaled Homer. Her interest in astronomy was not restricted to the “Midnight Poem.” Other examples of her work make references to the Sun, the Moon, and planet Venus.

“Sappho should be considered an informal contributor to early Greek astronomy as well as to Greek society at large,” Cuntz added. “Not many ancient poets comment on astronomical observations as clearly as she does.”

Morteza Khaledi, dean of UTA’s College of Science, congratulated the researchers on their work, which forms part of UTA’s strategic focus on data-driven discovery within the Strategic Plan 2020: Bold Solutions | Global Impact.

“This research helps to break down the traditional silos between science and the liberal arts, by using high-precision technology to accurate date ancient poetry,” Khaledi said. “It also demonstrates that the Planetarium’s reach can go way beyond astronomy into multiple fields of research.”

Dr. Manfred Cuntz is a professor of physics at UTA and active researcher in solar and stellar astrophysics, as well as astrobiology. In recent years he has focused on extra-solar planets, including stellar habitable zones and orbital stability analyses. He received his Ph.D. from the University of Heidelberg, Germany, in 1988.

Levent Gurdemir received his master’s of science degree in physics from UTA and is the current director of the university’s Planetarium. UTA uses the facility for research, teaching and community outreach, serving large numbers of K-12 students and the public at this local facility.



Mitch Battros and Science of Cycles Research Sponsorship Fundraiser

paypal donate_button_sm

If banner is not working Click Here

BREAKING NEWS: Earth’s Magnetic Field Continues Decline in Strength and Increase Rate of Movement

Presented at this week’s Living Planet Symposium, new results from the constellation of Swarm satellites show where our protective field is weakening and strengthening, and importantly how fast these changes are taking place.

magnetic field weakening

The Earth’s magnetic north pole is drifting from northern Canada towards Siberia with a presently accelerating rate of 10 kilometers (6.2 mi) per year at the beginning of the 20th century, up to 40 kilometers (25 mi) per year in 2003 – and since then has only accelerated. “At this rate it will exit North America and reach Siberia in a few decades, says scientist Larry Newitt of the Geological Survey of Canada.

magnetic field reversal

In addition, the magnetic north pole is wandering east, towards Asia. The current rate of change (since 1840) is about 0.07 degrees per year. But between 1225 and about 1550 AD, rates averaged closer to 0.12 degrees per year – significantly faster than expected.

VIDEO: Changes in Strength
of Earth’s Magnetic Field

magnetic field weakening3

Based on results from ESA’s Swarm mission, the animation shows how the strength of Earth’s magnetic field has changed between 1999 and mid-2016. Blue depicts where the field is weak and red shows regions where the field is strong. The field has weakened by about 3.5% at high latitudes over North America, while it has grown about 2% stronger over Asia. The region where the field is at its weakest field – the South Atlantic Anomaly – has moved steadily westward and further weakened by about 2%. In addition, the magnetic north pole is wandering east.


With more than two years of measurements by ESA’s Swarm satellite trio, changes in the strength of Earth’s magnetic field are being mapped in detail. It is clear that ESA’s innovative Swarm mission is providing new insights into our changing magnetic field. Further results are expected to lead to new information on many natural processes, from those occurring deep inside the planet to weather in space caused by solar activity.


Launched at the end of 2013, Swarm is measuring and untangling the different magnetic signals from Earth’s core, mantle, crust, oceans, ionosphere and magnetosphere – an undertaking that will take several years to complete.

Although invisible, the magnetic field and electric currents in and around Earth generate complex forces that have immeasurable effects on our everyday lives.

The field can be thought of as a huge bubble, protecting us from cosmic radiation and electrically charged atomic particles that bombard Earth in solar winds. However, it is in a permanent state of flux.

The magnetic field is thought to be produced largely by an ocean of molten, swirling liquid iron that makes up our planet’s outer core, 3000 km under our feet. Acting like the spinning conductor in a bicycle dynamo, it generates electrical currents and thus the continuously changing electromagnetic field.

It is thought that accelerations in field strength are related to changes in how this liquid iron flows and oscillates in the outer core.

Chris Finlay, senior scientist at DTU Space in Denmark, said, “Unexpectedly, we are finding rapid localized field changes that seem to be a result of accelerations of liquid metal flowing within the core.”

Rune Floberghagen, ESA’s Swarm mission manager, added, “Two and a half years after the mission was launched it is great to see that Swarm is mapping the magnetic field and its variations with phenomenal precision.

“The quality of the data is truly excellent, and this paves the way for a profusion of scientific applications as the data continue to be exploited.”

In turn, this information will certainly yield a better understanding of why the magnetic field is weakening in some places, and globally.

BREAKING NEWS: New Study Shows Mantle Plume Movement Occurs More Rapidly Affecting Oceans and Climate

Still more confirmation of Battros 2012 equation identifying mantle plumes role in Earth’s core convection process. This new study also confirms mantle’s effect on ocean warming and specifically “ice caps.” This throws a hefty monkey-wrench into advocates of the 1988 made-up name global warming. I will attach my previous articles highlighting the connection to cyclical events occurring in our backyard “Milky Way” and our neighboring galaxies.

equation-mantle plumes

New Equation:
Increase Charged Particles → Decreased Magnetic Field → Increase Outer Core Convection → Increase of Mantle Plumes → Increase in Earthquake and Volcanoes → Cools Mantle and Outer Core → Return of Outer Core Convection (Mitch Battros – July 2012)

Mitch Battros and “Science of Cycles” Research Sponsorship Fundraiser
– Be part of keeping ‘Science of Cycles’ alive and free. – Your support is needed to keep this unique and valuable resource.
– Help sponsor us with your pledge as you see fit to the value you receive.     

Researchers have compiled the first global set of observations of the movement of the Earth’s mantle, the 3000-kilometer thick layer of hot silicate rocks between the crust and the core, and have found that it looks very different to predictions made by geologists over the past 30  a years.


The team, from the University of Cambridge, used more than 2000 measurements taken from the world’s oceans in order to peer beneath the Earth’s crust and observe the chaotic nature of mantle flow. These movements have a huge influence on the way Earth looks today related to mountain formation, volcanic activity and earthquakes.

inside earth1

The result of this new research is now published in the journal Nature Geoscience. Significant ramifications across many disciplines including the study of oceanic circulation and past climate change are now made manifest creating a bit of a shake-up in the global warming world.

The inventory of more than 2000 spot observations was determined by analyzing seismic surveys of the world’s oceans. By examining variations in the depth of the ocean floor, the researchers were able to construct a global database of the mantle’s movements.


“These results will have wider reaching implications,” said Hoggard. “Considering the surface is moving much faster than we had previously thought, it could also affect things like the stability of ice caps and help us to understand past climate change.”


Below are Recent Articles Reflecting
Battros Hypothesis Turned Theory

JUST IN: New High-Energy Sources of Gamma and Cosmic Rays Discovered

JUST IN: New Maps Chart Mantle Plumes Melting Greenland Glaciers

JUST IN: Scientists Beginning to Identify Signs That  Galactic Cycles are Analogous with Sun-Earth’s Circumvolution

BREAKING NEWS: Powerful Acquiescence of Battros ‘Equation’ in New Discovery – Charged Particle Acceleration

UPDATE: New Sources of Charged Particles Discovered

BREAKING NEWS: A Dramatic Galactic Explosion Arrived at Earth in 2012



Mitch Battros and Science of Cycles Research Sponsorship Fundraiser – Be part of keeping ‘Science of Cycles’ alive and free. – Your support is needed to keep this unique and valuable resource. Help sponsor us with your pledge as you see fit to the value you receive.

paypal donate_button_sm

If banner is not working Click Here

Unable to display Facebook posts.
Show error

Error: (#10) To use 'Page Public Content Access', your use of this endpoint must be reviewed and approved by Facebook. To submit this 'Page Public Content Access' feature for review please read our documentation on reviewable features: https://developers.facebook.com/docs/apps/review.
Type: OAuthException
Code: 10
Please refer to our Error Message Reference.