Health News – Nurses Share Heartbreaking Stories of What Happens To Babies Who Survive Abortions

A Giant Neuron Has Been Found Wrapped Around the Entire Circumference of the Brain
This could be where consciousness forms. BEC CREW 28 FEB 2017
For the first time, scientists have detected a giant neuron wrapped around the entire circumference of a mouse’s brain, and it’s so densely connected across both hemispheres, it could finally explain the origins of consciousness.
Using a new imaging technique, the team detected the giant neuron emanating from one of the best-connected regions in the brain, and say it could be coordinating signals from different areas to create conscious thought.
This recently discovered neuron is one of three that have been detected for the first time in a mammal’s brain, and the new imaging technique could help us figure out if similar structures have gone undetected in our own brains for centuries.
At a recent meeting of the Brain Research through Advancing Innovative Neurotechnologies initiative in Maryland, a team from the Allen Institute for Brain Science described how all three neurons stretch across both hemispheres of the brain, but the largest one wraps around the organ’s circumference like a “crown of thorns”.
You can see them highlighted in the image at the top of the page.
Lead researcher Christof Koch told Sara Reardon at Nature that they’ve never seen neurons extend so far across both regions of the brain before.
Oddly enough, all three giant neurons happen to emanate from a part of the brain that’s shown intriguing connections to human consciousness in the past – the claustrum, a thin sheet of grey matter that could be the most connected structure in the entire brain, based on volume.

USGS Finally Admits That Fracking Causes Earthquakes
Posted by Aaron Kesel | Mar 2, 2017
It has taken years to finally admit it, but the U.S. Geological Survey has just confirmed that three million Americans are at risk from human-induced earthquakes caused by wastewater disposal, a process in fracking, in 2017.
The study was focused on the U.S. Central East, primarily on Oklahoma and Kansas, who don’t normally get large earthquakes. Due to wastewater disposal however, their risk is now equal to that of California.
“Between 1980 and 2000, Oklahoma averaged about two earthquakes greater than or equal to magnitude 2.7 per year. However, this number jumped to about 2,500 in 2014, 4,000 in 2015 and 2,500 in 2016. The decline in 2016 may be due in part to injection restrictions implemented by the state officials. Of the earthquakes last year, 21 were greater than magnitude 4.0 and three were greater than magnitude 5.0,” the USGS said.
The report concluded that wastewater disposal from fracking is triggering larger quakes, and the drop of larger quakes is due to restrictions on fracking.
“Wastewater injection may have decreased in 2016 as a result of new regulations for its disposal, or slowed due to lower oil prices and less overall production,” the USGS said.
During the fracking process, wastewater is disposed of by injecting it deep into underground wells at high pressure. That water fills up dormant faults, causing tectonic plates to slip which enables the quakes, according to the USGS.

New USGS Maps Identify Potential Ground-Shaking Hazards in 2017
The central U.S. faces continued hazards from human-induced earthquakes
Release Date: March 1, 2017
New USGS maps identify potential ground-shaking hazards in 2017 from both human-induced and natural earthquakes in the central and eastern U.S.
Damage to buildings in Cushing, Oklahoma from the magnitude 5.0 earthquake on November 6, 2016. Unreinforced brick and stone masonry buildings and facades are vulnerable to strong shaking. Photograph credit: Dolan Paris, USGS
New USGS maps identify potential ground-shaking hazards in 2017 from both human-induced and natural earthquakes in the central and eastern U.S., known as the CEUS. This is the second consecutive  year both types of hazards are forecasted, as previous USGS maps only identified hazards from natural earthquakes. This research was published today in Seismological Research Letters.
Approximately 3.5 million people live and work in areas of the CEUS with significant potential for damaging shaking from induced seismicity in 2017. The majority of this population is in Oklahoma and southern Kansas.
Research also shows that an additional half million people in the CEUS face a significant chance of damage from natural earthquakes in 2017, which brings the total number of people at high risk from both natural and human-induced earthquakes to about 4 million.
“The good news is that the overall seismic hazard for this year is lower than in the 2016 forecast, but despite this decrease, there is still a significant likelihood for damaging ground shaking in the CEUS in the year ahead,” said Mark Petersen, chief of the USGS National Seismic Hazard Mapping Project.
The 2017 forecast decreased compared to last year because fewer felt earthquakes occurred in 2016 than in 2015. This may be due to a decrease in wastewater injection resulting from regulatory actions and/or from a decrease in oil and gas production due to lower prices.

Nurses Share Heartbreaking Stories of What Happens To Babies Who Survive Abortions
Often when a baby is born alive during an abortion procedure, the child is kept in the abortion clinic until he or she dies. In rare cases, the abortionist himself takes action to kill the baby. But sometimes the baby is transferred to a hospital, where he can be given medical care.
Unfortunately, it is the policy of many hospitals simply to allow these babies to die.
Nurse Kathleen Malloy, from Jacksonville, Florida, witnessed the death of one baby who was born after a saline abortion and transferred to her hospital. Melanie Green of Last Days Ministries quoted Malloy in her pamphlet “Children: Things We Throw Away?” Malloy tells her story:
I worked the 11 p.m. to 7 a.m. shift, and when we weren’t busy, I’d go out to help with the newborns. One night I saw a bassinet outside the nursery. There was a baby in this bassinet – a crying, perfectly formed baby – but there was a difference in this child. She had been scalded. She was the child of a saline abortion.
This little girl looked as if she had been put in a pot of boiling water. No doctor, no nurse, no parent, to comfort this hurt, burned child. She was left alone to die in pain. They wouldn’t let her in the nursery – they didn’t even bother to cover her.
I was ashamed of my profession that night! It’s hard to believe this can happen in our modern hospitals, but it does. It happens all the time. I thought a hospital was a place to heal the sick – not a place to kill.
I asked a nurse at another hospital what they do with their babies that are aborted by saline. Unlike my hospital, where the baby was left alone struggling for breath, their hospital puts the infant in a bucket and puts the lid on. Suffocation! Death by suffocation!
A saline abortion is performed by injecting the caustic saline solution into the amniotic fluid that surrounds an unborn baby in the second trimester. The baby breathes in the fluid, which burns her lungs and scorches her skin, causing her to die within several hours.
The mother then goes through labor to give birth to the dead baby.

BPEarthWatch WARNING On 27.12.2016 a wave of energy from a magnetar will hit the Earth. Expect big earthquakes or tsunamis

On 27 December 2004, a burst of gamma rays from SGR 1806-20 passed through the Solar System (artist’s conception shown). The burst was so powerful that it had effects on Earth’s atmosphere, at a range of about 50,000 light years.

It seems that on 27.12.2016 a more powerful wave of energy will hit the Earth so make the most to prepare.

What is a Magnetar?

Description

Like other neutron stars, magnetars are around 20 kilometres (12 mi) in diameter and have a mass 2–3 times that of the Sun. The density of the interior of a magnetar is such that a thimble full of its substance would have a mass of over 100 million tons.^[1] Magnetars are differentiated from other neutron stars by having even stronger magnetic fields, and rotating comparatively slowly, with most magnetars completing a rotation once every one to ten seconds,^[3] compared to less than one second for a typical neutron star. This magnetic field gives rise to very strong and characteristic bursts of X-rays and gamma rays. The active life of a magnetar is short. Their strong magnetic fields decay after about 10,000 years, after which activity and strong X-ray emission cease. Given the number of magnetars observable today, one estimate puts the number of inactive magnetars in the Milky Way at 30 million or more.^[3]

Starquakes triggered on the surface of the magnetar disturb the magnetic field which encompasses it, often leading to extremely powerful gamma ray flare emissions which have been recorded on Earth in 1979, 1998, and 2004.^[4]

Inuit Elders Issue Official Warning To NASA ‘The Earth Has Shifted’
Indigenous people beg NASA to Warn The World
The Inuit elders, otherwise known as the indigenous people of the arctic regions of Canada, have issued NASA, and the world, a warning that the earth has ’tilted’ or ‘wobbled’. The indigenous people are now maintaining that the sun no longer rises were it used to and that the days warm up quicker.
Indianlife.org reports: The earth has shifted, tilted or as they put it, “wobbled” to the north and they all agree “Their sky has changed!”
The elders maintain the Sun doesn’t rise where it used to, they have longer daylight to hunt and the Sun is higher than it used to be and warms up quicker than before. The elders who were interviewed across the north all said the same thing, their sky has changed.

Mineral transformation may trigger deep earthquakes

Mineral transformation may trigger deep earthquakes

It allows sudden transition where the crust is too fluid to fracture.

  by         Simon Redfern         Sept 24 2013, 4:00pm +0300

A little more than 90 years ago, British geologist Herbert Hall Turner noticed some data that suggested something unexpected. The only way to make sense of the data was if an earthquake occurred hundreds of kilometers beneath the Earth’s surface.

Since Turner’s observations, deep earthquakes have fascinated seismologists. It is still unclear why they happen, but two studies recently published in Science use different approaches yet reach the same conclusion. These quakes are probably a result of rapid changes in minerals that propagate at up to 14,000 km/hour (nearly 8700 mph).

Such deep earthquakes do not have immediate consequences for humans. But they hold clues about destructive quakes in the Earth’s shallower crust, making it important to understand them.

Not just superficial

Most earthquakes occur in the stiff, brittle outer shell that includes the Earth’s crust. This “seismogenic zone” causes the most devastating and dangerous earthquakes, but it only goes down to about 15km (roughly nine miles) beneath the surface.

As you go deeper, pressure and temperature both increase rapidly, so the nature of earthquakes changes. Rocks move slowly on geological time scales, pushed or pulled by different forces acting on them. At depth, they appear to flow like soft toffee rather than break like peanut brittle.

This is why Turner’s observations of earthquakes more than 600km (372.8 miles) below the surface were puzzling. If the rocks flow slowly, then there shouldn’t really be any sudden shocks that cause an earthquake. Rather, there should be gentle, continuous readjustments to stress.

Suggestions have been floated in the past about what triggers such earthquakes. But Thorne Lay of the University of California at Santa Cruz managed to analyze a deep earthquake that occurred this year on May 24 in the Pacific Ocean beneath the Okhotsk plate. At a magnitude of 8.3, it was four times greater than the 1906 San Francisco earthquake. Indeed, it was the biggest ever recorded at a depth of more than 600km. A near-surface earthquake of the same magnitude could’ve been very destructive, but this was barely noticeable, at least at the surface above.

Recent analysis of an earthquake at Bhuj, India, in 2001 suggests it shared similarities to the Okhotsk event, although it was just 16km deep. At that depth, it caused terrible devastation, including an estimated 20,000 deaths. “There may be things we don’t understand about more shallow earthquakes that we can learn from studying these deep earthquakes,” said Bob Myhill of the University of Bayreuth.

During the Okhotsk event, the Pacific plate was drawn down into the hot mantle that makes up much of the planet’s interior. Lay found that the seismic energy released in the event was so large that it caused fractures as great as 180km (111.8 miles) long near the depth of the earthquake. The rock ruptured at close to the speed of sound, which would be as much as 14,000 km/h under those conditions.