Wednesday, August 31, 2022

A Closer Look At The Sixth Seal (Revelation 6:12)


A Look at the Tri-State’s Active Fault Line

Monday, March 14, 2011
The Ramapo Fault is the longest fault in the Northeast that occasionally makes local headlines when minor tremors cause rock the Tri-State region. It begins in Pennsylvania, crosses the Delaware River and continues through Hunterdon, Somerset, Morris, Passaic and Bergen counties before crossing the Hudson River near Indian Point nuclear facility.
In the past, it has generated occasional activity that generated a 2.6 magnitude quake in New Jersey’s Peakpack/Gladstone area and 3.0 magnitude quake in Mendham.
“There is occasional seismic activity in New Jersey,” said Robinson. “There have been a few quakes locally that have been felt and done a little bit of damage over the time since colonial settlement — some chimneys knocked down in Manhattan with a quake back in the 18th century, but nothing of a significant magnitude.”
Robinson said the Ramapo has on occasion registered a measurable quake but has not caused damage: “The Ramapo fault is associated with geological activities back 200 million years ago, but it’s still a little creaky now and again,” he said.
“More recently, in the 1970s and early 1980s, earthquake risk along the Ramapo Fault received attention because of its proximity to Indian Point,” according to the New Jersey Geological Survey website.
Historically, critics of the Indian Point Nuclear facility in Westchester County, New York, did cite its proximity to the Ramapo fault line as a significant risk.
“Subsequent investigations have shown the 1884 Earthquake epicenter was actually located in Brooklyn, New York, at least 25 miles from the Ramapo Fault,” according to the New Jersey Geological Survey website.

Tuesday, August 30, 2022

A Lack Of Vigilance Before The Sixth Seal (Revelation 6:12)

           Faults Underlying Exercise Vigilant Guard

Story by: (Author NameStaff Sgt. Raymond Drumsta – 138th Public Affairs Detachment
Dated: Thu, Nov 5, 2009
This map illustrates the earthquake fault lines in Western New York. An earthquake in the region is a likely event, says University of Buffalo Professor Dr. Robert Jacobi.
TONAWANDA, NY — An earthquake in western New York, the scenario that Exercise Vigilant Guard is built around, is not that far-fetched, according to University of Buffalo geology professor Dr. Robert Jacobi.
When asked about earthquakes in the area, Jacobi pulls out a computer-generated state map, cross-hatched with diagonal lines representing geological faults.
The faults show that past earthquakes in the state were not random, and could occur again on the same fault systems, he said.
“In western New York, 6.5 magnitude earthquakes are possible,” he said.
This possibility underlies Exercise Vigilant Guard, a joint training opportunity for National Guard and emergency response organizations to build relationships with local, state, regional and federal partners against a variety of different homeland security threats including natural disasters and potential terrorist attacks.
The exercise was based on an earthquake scenario, and a rubble pile at the Spaulding Fibre site here was used to simulate a collapsed building. The scenario was chosen as a result of extensive consultations with the earthquake experts at the University of Buffalo’s Multidisciplinary Center for Earthquake Engineering Research (MCEER), said Brig. Gen. Mike Swezey, commander of 53rd Troop Command, who visited the site on Monday.
Earthquakes of up to 7 magnitude have occurred in the Northeastern part of the continent, and this scenario was calibrated on the magnitude 5.9 earthquake which occurred in Saguenay, Quebec in 1988, said Jacobi and Professor Andre Filiatrault, MCEER director.
“A 5.9 magnitude earthquake in this area is not an unrealistic scenario,” said Filiatrault.
Closer to home, a 1.9 magnitude earthquake occurred about 2.5 miles from the Spaulding Fibre site within the last decade, Jacobi said. He and other earthquake experts impaneled by the Atomic Energy Control Board of Canada in 1997 found that there’s a 40 percent chance of 6.5 magnitude earthquake occurring along the Clareden-Linden fault system, which lies about halfway between Buffalo and Rochester, Jacobi added.
Jacobi and Filiatrault said the soft soil of western New York, especially in part of downtown Buffalo, would amplify tremors, causing more damage.
“It’s like jello in a bowl,” said Jacobi.
The area’s old infrastructure is vulnerable because it was built without reinforcing steel, said Filiatrault. Damage to industrial areas could release hazardous materials, he added.
“You’ll have significant damage,” Filiatrault said.
Exercise Vigilant Guard involved an earthquake’s aftermath, including infrastructure damage, injuries, deaths, displaced citizens and hazardous material incidents. All this week, more than 1,300 National Guard troops and hundreds of local and regional emergency response professionals have been training at several sites in western New York to respond these types of incidents.
Jacobi called Exercise Vigilant Guard “important and illuminating.”
“I’m proud of the National Guard for organizing and carrying out such an excellent exercise,” he said.
Training concluded Thursday.

Monday, August 29, 2022

Indian Point’s Final Days Before the Sixth Seal (Revelation 6:12)

 

Earth Matters: Indian Point’s Final Days – Nyack News and Views
by Barbara Puff
Indian Point has been the crown jewel of the nuclear industrialist complex and closing it is a big step to a sustainable energy future. — Susan Shapiro, environmental lawyer.
When scientists began exploring nuclear power in the 1950s, pollsters didn’t ask the public their opinion as support was almost unanimous. By the ’60s, there had been a few protests and opposition increased to 25%. So when Indian Point opened on September 16, 1962, it was greeted with enthusiasm, fanfare, and, in hindsight, naivete.
Within a few years, increased pollution, loss of wildlife, and accidents at the plant elicited concern. In response, Hudson River Sloop Clearwater and Riverkeeper were formed in 1966. After incidents at Three Mile Island in 1979 and Chernobyl in 1986, public opinion began to turn against the use of nuclear power.
In 1984, her first year as a legislator, Harriet Cornell formed the Citizens Commission to Close Indian Plant. A glance at her press releases over the years shows her convictions regarding closing the plant. In a recent speech she noted: “Were it not for the superhuman efforts of concerned individuals and dedicated scientific and environmental organizations focusing attention on the dangers posed by Indian Point, who knows what might have happened during the last 40+ years.”
Simultaneously Riverkeeper began documenting incidents, including:
1 An antiquated water-cooling system killed over a billion fish and fish larvae annually.
2 Pools holding spent nuclear fuel leaked toxic, radioactive water into the ground, soil, and Hudson River.
3 Recurring emergency shut-downs.
4 27% of the baffle bolts in Unit 2 and 31% in Unit 3, holding the reactor core together, were damaged.
5 The plant was vulnerable to terrorist attack.
6 Evacuation plans were implausible.
7 No solution for spent nuclear fuel, posing the risk of radioactive release and contamination of land.
8 The plant was near two seismic zones, suggesting an earthquake over 6.2 could devastate the area.
9 Asbestos exposure.
These and other issues led the Nuclear Regulatory Commission to rate Indian Point in 2000 as the most trouble-plagued plant in the country. Lamont-Doherty Observatory agreed, calling it the most dangerous plant in the nation.
As individuals realized the seriousness of the situation, urgency for a solution grew and Indian Point Safe Energy Coalition was formed in 2001. Comprised of public interest, health advocates, environmental and citizen groups, their goals were to educate the public, pass legislation, and form a grassroots campaign with hundreds of local, state, and federal officials.
Clearwater also began monitoring the plant around that time. Manna Jo Greene, Environmental Action Director, recalls, “We were concerned when one of the planes that struck the WTC flew over the plant, including several buildings that hold huge fuel pools, filled with spent fuel rods and radioactive waste.” Had anything happened, the nuclear power industry had provided protection for themselves while neglecting surrounding communities. Powerful lobbyists, backed by considerable financing, induced Congress to pass the Price-Anderson Act in 1957. This legislation protected nuclear power plant companies from full liability in the event of an accident, natural disaster or terrorist attack.
With such warnings, it’s hard to believe as late as 2010, The New York Times stated, “No one should be hoping for a too hasty shutdown.” Over time, the cost of litigation by New York State proved more fatal to the continuance of plant operations than protests, though they were a crucial factor and led to initial filings. Attorney General Schneiderman was very active in filing contentions, legal reasons the plant shouldn’t be relicensed, and won several important court cases on high-level radioactive storage.
In 2016, The New York State Department of Environmental Conservation denied Entergy a discharge permit for hot water into the Hudson River, part of their once-through cooling system. This permit was necessary for continued operation of the plant and a requirement for relicensing. The New York State Department of State, Bureau of Coastal Management, denied Entergy a water quality certificate the same year, which it also needed to relicense. After more than four decades of danger to the environment and residents, Governor Cuomo announced in January 2017 the plant would finally be closing. Unit 2 would cease production on April 30, 2020 and Unit 3 would end productivity on April 30, 2021.
Later that year, in March 2017, the Atomic Safety and Licensing Board allowed Entergy to renew the plant’s licenses until 2021, dismissing final points of contention between the company, New York State, and Riverkeeper. Westchester County Executive Rob Astorino attempted to sue the state and reopen the plant in April 2017 but failed.
Ellen Jaffee, NYS Assemblywoman, stated, “After 46 years of operation, I am glad to finally see the closure of Indian Point. Since joining the Assembly, I have long fought for its closure. I would not have been able to pursue these efforts if not for the environmental advocates, like the Riverkeeper, who fought long and hard beside myself to close the plant. The plant’s closure must be conducted in a safe manner, where all radioactive materials will be properly disposed of, without inflicting further harm on our environment. The closure of Indian Point shows that we can reduce our impact on the environment.”
Harriet Cornell said, “We have waited years for this to happen and frankly, it can’t happen soon enough. The facts have long shown there is no future for this dangerous plant.”
“The closure of Indian Point marks the shutdown of dirty polluting energy,” noted Susan Shapiro.
Holtec, the company chosen to oversee decommissioning of the plant, has a horrific track record. New York State Attorney General Tish James released a statement in January expressing multiple grave concerns about them. According to Riverkeeper, they have a scandalous corporate past, little experience in decommissioning, dubious skills in spent fuel management, workplace safety infractions, and health violations. Another fear is the cost will exceed a decommissioning fund set aside by Entergy, Holtec will declare bankruptcy, and the public will absorb the difference.
“Entergy made huge profits from Indian Point,” said Manna Jo Greene. “They’ve hired Holtec, a company with a poor record of decommissioning, to complete the work. Entergy plans to declare bankruptcy, thereby having taxpayers foot the bill. We are not out of danger. It is a different danger.”
Richard Webster, Legal Program Director at Riverkeeper, adds, “Decommissioning must be done promptly, safely and reliably. Selling to Holtec is the worst possible option, because it has a dubious history of bribes, lies, and risk taking, very limited experience in decommissioning, is proposing to raid the decommissioning fund for its own benefit, and is proposing leaving contaminated groundwater to run into the Hudson River.”
State Senator David Carlucci warned, “The NRC Inspector General Report shows there is much to be done by the NRC to gain the confidence of myself and the public, as the commission is charged with overseeing the decommissioning of Indian Point and ensuring the health and safety of Hudson Valley Communities. We demand answers from NRC Chairman Kristine Svinicki. The Chairman needs to come to the Hudson Valley immediately and outline the steps being taken to address our safety and explain how the commission will properly inspect and guard the pipeline near Indian Point moving forward.”
One of the gravest dangers in decommissioning is the storage of spent fuel rods. A fuel rod is a long, zirconium tube containing pellets of uranium, a fissionable material which provides fuel for nuclear reactors. Fuel rods are assembled into bundles called fuel assemblies, which are loaded individually into a reactor core. Fuel rods last about six years. When they’re spent and removed they are placed in wet storage, or pools of water, which is circulated to reduce temperature and provide shielding from radiation. They remain in these pools for 10 years, as they are too hot to be placed in dry storage, or canisters. Even in dry storage, though, they remain extremely radioactive, with high levels of plutonium, which is toxic, and continue to generate heat for decades and remain radioactive for 10,000 years.
“Elected officials and government groups became involved once they understood the fatal environmental dangers nuclear energy creates for millenium,” said Susan Shapiro. “It is the only energy that produces waste so dangerous that governments must own and dispose of it.”
Robert Kennedy, Jr., of Waterkeeper, explained “If those spent fuel rods caught on fire, if the water dropped, the zirconium coatings of the spent fuel rods would combust. You would release 37 times the amount of radiation that was released at Chernobyl. Around Chernobyl there are 100 miles that are permanently uninhabitable. I would include the workplaces, homes of 20 million Americans, including the Financial District. There’s no evacuation plan. And it’s sitting on two of the biggest earthquake faults in the northeast.”
On April 24, 2020, Beyond Indian Point Campaign was launched to advocate for a safe transition during decommissioning. Sponsored by AGREE, Frack Action, Riverkeeper, NIRS and Food and Water Watch, they’re demanding Cuomo hire another company, opposing a license transfer before the State Public Service Commission and NRC and pushing state legislation to establish a board to supervise the decommissioning fund. When decommissioning is finished Beyond Indian Point hopes to further assist the community in the transition to renewable energy. These include wind, solar, geothermal, biomass and hydrothermal power. Sign an online petition on their website to support their work, future generations and earth at BeyondIndianPoint.com, Facebook, or Twitter.
“Bravo to everyone involved in making this historic day come to pass,” said Susan Shapiro.
Raised in the Midwest, Barbara Puff is a writer who lives in Nyack, NY.

Sunday, August 28, 2022

A Closer Look At The Sixth Seal (Revelation 6:12)

     


A Look at the Tri-State’s Active Fault Line

Monday, March 14, 2011
The Ramapo Fault is the longest fault in the Northeast that occasionally makes local headlines when minor tremors cause rock the Tri-State region. It begins in Pennsylvania, crosses the Delaware River and continues through Hunterdon, Somerset, Morris, Passaic and Bergen counties before crossing the Hudson River near Indian Point nuclear facility.
In the past, it has generated occasional activity that generated a 2.6 magnitude quake in New Jersey’s Peakpack/Gladstone area and 3.0 magnitude quake in Mendham.
“There is occasional seismic activity in New Jersey,” said Robinson. “There have been a few quakes locally that have been felt and done a little bit of damage over the time since colonial settlement — some chimneys knocked down in Manhattan with a quake back in the 18th century, but nothing of a significant magnitude.”
Robinson said the Ramapo has on occasion registered a measurable quake but has not caused damage: “The Ramapo fault is associated with geological activities back 200 million years ago, but it’s still a little creaky now and again,” he said.
“More recently, in the 1970s and early 1980s, earthquake risk along the Ramapo Fault received attention because of its proximity to Indian Point,” according to the New Jersey Geological Survey website.
Historically, critics of the Indian Point Nuclear facility in Westchester County, New York, did cite its proximity to the Ramapo fault line as a significant risk.
“Subsequent investigations have shown the 1884 Earthquake epicenter was actually located in Brooklyn, New York, at least 25 miles from the Ramapo Fault,” according to the New Jersey Geological Survey website.

Saturday, August 27, 2022

Evidence Shows Power of the Sixth Seal (Revelation 6:12)

 


New Evidence Shows Power of East Coast Earthquakes
Virginia Earthquake Triggered Landslides at Great Distances
Released: 11/6/2012 8:30:00 AM USGS.gov
Earthquake shaking in the eastern United States can travel much farther and cause damage over larger areas than previously thought.
“We used landslides as an example and direct physical evidence to see how far-reaching shaking from east coast earthquakes could be,” said Randall Jibson, USGS scientist and lead author of this study. “Not every earthquake will trigger landslides, but we can use landslide distributions to estimate characteristics of earthquake energy and how far regional ground shaking could occur.”
“Scientists are confirming with empirical data what more than 50 million people in the eastern U.S. experienced firsthand: this was one powerful earthquake,” said USGS Director Marcia McNutt. “Calibrating the distance over which landslides occur may also help us reach back into the geologic record to look for evidence of past history of major earthquakes from the Virginia seismic zone.”
This study will help inform earthquake hazard and risk assessments as well as emergency preparedness, whether for landslides or other earthquake effects.
The research is being presented today at the Geological Society of America conference, and will be published in the December 2012 issue of the Bulletin of the Seismological Society of America.
The USGS found that the farthest landslide from the 2011 Virginia earthquake was 245 km (150 miles) from the epicenter. This is by far the greatest landslide distance recorded from any other earthquake of similar magnitude. Previous studies of worldwide earthquakes indicated that landslides occurred no farther than 60 km (36 miles) from the epicenter of a magnitude 5.8 earthquake.
“What makes this new study so unique is that it provides direct observational evidence from the largest earthquake to occur in more than 100 years in the eastern U.S,” said Jibson. “Now that we know more about the power of East Coast earthquakes, equations that predict ground shaking might need to be revised.”
It is estimated that approximately one-third of the U.S. population could have felt last year’s earthquake in Virginia, more than any earthquake in U.S. history. About 148,000 people reported their ground-shaking experiences caused by the earthquake on the USGS “Did You Feel It?” website. Shaking reports came from southeastern Canada to Florida and as far west as Texas.
In addition to the great landslide distances recorded, the landslides from the 2011 Virginia earthquake occurred in an area 20 times larger than expected from studies of worldwide earthquakes. Scientists plotted the landslide locations that were farthest out and then calculated the area enclosed by those landslides. The observed landslides from last year’s Virginia earthquake enclose an area of about 33,400 km2, while previous studies indicated an expected area of about 1,500 km2from an earthquake of similar magnitude.
“The landslide distances from last year’s Virginia earthquake are remarkable compared to historical landslides across the world and represent the largest distance limit ever recorded,” said Edwin Harp, USGS scientist and co-author of this study. “There are limitations to our research, but the bottom line is that we now have a better understanding of the power of East Coast earthquakes and potential damage scenarios.”
Learn more about the 2011 central Virginia earthquake.

Friday, August 26, 2022

More Shaking Before the Sixth Seal: Revelation 6

 

For the 21st time this week, earthquakes hit the Columbia by I area

By Noah FeitUpdated July 03, 2022 12:16 PM

Two more earthquakes were confirmed in the Columbia area early Sunday morning as seismic activity continued following a recent series of relatively powerful earthquakes.

Sunday’s 1.9 and 1.6 magnitude earthquakeswere the 20th and 21st to hit the Midlands in the past week, according to the South Carolina Department of Natural Resources Geological Survey.

The first earthquake, recorded at a depth of 2.1 kilometers, or about 1.3 miles, was reported within 3 miles of Elgin at 12:16 a.m., the South Carolina Emergency Management Division said. The second hit about 2 miles beneath the surface in the area closer to Lugoff at 6:29 a.m., according to the U.S. Geological Survey.

“In case you were wondering if it was fireworks or earthquakes earlier this morning …” SCEMD said on Facebook.

While it would normally be no competition between the amount of vibrations caused by fireworks on a Fourth of July holiday weekend in South Carolina and the shaking felt from an earthquake’s tremors, the question is legitimate this year because of all the recent seismic activity.

Last Sunday, an earthquake was recorded in Elgin, according to the USGS. That led a series of earthquakes, or aftershocks, including a pair of 3.5 magnitude and 3.6 magnitude quakes on Wednesday afternoon and early evening.

Those were the two largest quakes to hit South Carolina in nearly a decade. A 4.1-magnitude quake struck McCormick County in 2014. 

Another earthquake in Georgia on June 18 reached a 3.9 magnitude and could be felt in much of South Carolina.

The recent earthquakes mean at least 50 have been detected in the Palmetto State since the start of 2022, according to South Carolina DNR. All but five of the quakes have been in the Midlands.

In all, 52 earthquakes have hit the Columbia area since a 3.3 magnitude quake was recorded on Dec. 27, 2021, according to the South Carolina Department of Natural Resources.

No major damage or injuries have been reported from any of the recent quakes.

Earthquakes that register 2.5 magnitude or less often go unnoticed and are usually only recorded by a seismograph, according to Michigan Technological University. Any quake less than 5.5 magnitude is not likely to cause significant damage, the school said.

It is typical for South Carolina to have between six and 10 earthquakes a year, the S.C. Geological Survey previously reported. There have been 77 earthquakes in South Carolina since Jan. 18, 2021, according to the S.C. Department of Natural Resources.

An explanation for the recent outburst has eluded scientists

Digging and blasting at mines, water seeping through the ground from lakes, or other changes in weight or pressure underground could all contribute to seismic activity, The State previously reported, but no one has settled on the single cause for the Midlands’ shaking. The state Department of Health and Environmental Control said last week that mining activity is not likely to be the cause of recent earthquakes, as mines in the Elgin area are shallow.

Elgin, located about 20 miles northeast of Columbia and situated on a fault line, has been experiencing an unusual earthquake “swarm” for the past several months, leaving some residents feeling uneasy. The series of quakes might be the longest period of earthquake activity in the state’s history, officials said last week. But officials have said they don’t believe the spate of minor earthquakes is an indicator that a bigger quake could be on the way.

The strongest earthquake ever recorded in South Carolina — and on the East Coast of the U.S. — was a devastating 7.3 in Charleston in 1886.

That quake killed 60 people and was felt over 2.5 million square miles, from Cuba to New York, and Bermuda to the Mississippi River, according to the Emergency Management Division.

Reported earthquakes in SC in 2021-22

Date/Location

Magnitude

Depth (km)

Jan. 18/Dalzell

2.1

6.9

Feb. 13/Summerville

2.1

5.1

May 12/Heath Springs

1.8

9.99

May 31/Summit

2.6

1.7

May 31/Summit

2.05.1

July 16/Ladson2.04.0

July 22/Ladson1.3

3.5

July 22/Ladson

1.95

3.97

Aug. 21/Centerville

1.75

1.97

Aug. 21/Centerville

1.71

3.37

Sept. 27/Summerville2.86.0

Sept. 27/Summerville

2.0

5.8

Sept. 27/Centerville

3.36.8Oct. 25/Jenkinsville2.23.8Oct. 26/Jenkinsville1.80.0Oct. 28/Jenkinsville1.81.8Oct. 28/Jenkinsville1.70.0Oct. 28/Jenkinsville2.14.2Oct. 31/Jenkinsville2.30.1Nov. 1/Jenkinsville2.05.1Nov. 9/Centerville1.53.8Nov. 16/Arial2.25.4Dec. 20/Ladson1.12.8Dec. 27/Lugoff3.33.2Dec. 27/Lugoff2.52.4Dec. 27/Elgin2.10.7Dec. 27/Lugoff1.74.9Dec. 29/Elgin2.31.6Dec. 30/Elgin2.52.5Dec. 30/Elgin2.43.8Jan. 3/Lugoff2.52.7Jan. 5/Lugoff2.60.5Jan. 5/Lugoff1.57.0Jan. 9/Ladson1.42.9Jan. 11/Elgin1.75.4Jan. 11/Lugoff2.03.2Jan. 11/Elgin1.35.0Jan. 15/Elgin1.83.5Jan. 19/Elgin1.95.0Jan. 21/Elgin1.94.8

Jan. 27/Lugoff2.11.0Feb. 2/Elgin1.53.9March 4/Elgin1.82.8March 9/Elgin2.23.6March 11/Camden2.11.2March 27/Lugoff2.11.9March 28/Centerville0.92.9April 7/Elgin2.02.9April 8/Centerville1.63.6April 22/Ladson1.13.5April 22/Taylors2.22.3May 9/Elgin3.33.1May 9/Elgin1.62.9May 9/Elgin1.784.1May 9/Elgin2.13.7May 9/Elgin2.95.6May 10/Elgin2.33.9May 10/Elgin2.86.2May 19/Elgin1.82.5May 21/Elgin1.95.6June 26/Elgin1.884.09June 29/Elgin3.52.64June 29/Elgin1.882.92June 29/Elgin3.62.95June 29/Elgin1.792.07June 29/Elgin1.513.72June 29/Elgin1.461.93June 29/Elgin2.062.22June 30/Elgin2.323.09June 30/Elgin1.442.8June 30/Elgin2.033.11June 30/Elgin2.152.56June 30/Elgin2.061.92June 30/Elgin1.492.46July 1/Elgin1.553.37July 1/Elgin2.113.83July 1/Elgin1.263.3July 1/Elgin1.684.02July 2/Elgin2.091.65July 3/Elgin1.92.1July 3/Lugoff1.63.2

Thursday, August 25, 2022

THE SIXTH SEAL: NEW YORK CITY (REVELATION 6:12)

     Earthquake activity in the New York City area


Wikipedia
Although the eastern United States is not as seismically active as regions near plate boundaries, large and damaging earthquakes do occur there. Furthermore, when these rare eastern U.S. earthquakes occur, the areas affected by them are much larger than for western U.S. earthquakes of the same magnitude. Thus, earthquakes represent at least a moderate hazard to East Coast cities, including New York City and adjacent areas of very high population density.
Seismicity in the vicinity of New York City. Data are from the U.S. Geological Survey (Top, USGS) and the National Earthquake Information Center (Bottom, NEIC). In the top figure, closed red circles indicate 1924-2006 epicenters and open black circles indicate locations of the larger earthquakes that occurred in 1737, 1783 and 1884. Green lines indicate the trace of the Ramapo fault.
As can be seen in the maps of earthquake activity in this region(shown in the figure), seismicity is scattered throughout most of the New York City area, with some hint of a concentration of earthquakes in the area surrounding Manhattan Island. The largest known earthquake in this region occurred in 1884 and had a magnitude of approximately 5.For this earthquake, observations of fallen bricks and cracked plaster were reported from eastern Pennsylvania to central Connecticut, and the maximum intensity reported was at two sites in western Long Island (Jamaica, New York and Amityville, New York). Two other earthquakes of approximately magnitude 5 occurred in this region in 1737 and 1783. The figure on the right shows maps of the distribution of earthquakes of magnitude 3 and greater that occurred in this region from 1924 to 2010, along with locations of the larger earthquakes that occurred in 1737, 1783 and 1884.

Background

The NYC area is part of the geologically complex structure of the Northern Appalachian Mountains. This complex structure was formed during the past half billion years when the Earth’s crust underlying the Northern Appalachians was the site of two major geological episodes, each of which has left its imprint on the NYC area bedrock. Between about 450 million years ago and about 250 million years ago, the Northern Appalachian region was affected by a continental collision, in which the ancient African continent collided with the ancient North American continent to form the supercontinent Pangaea. Beginning about 200 million years ago, the present-day Atlantic ocean began to form as plate tectonic forces began to rift apart the continent of Pangaea. The last major episode of geological activity to affect the bedrock in the New York area occurred about 100 million years ago, during the Mesozoic era, when continental rifting that led to the opening of the present-day Atlantic ocean formed the Hartford and Newark Mesozoic rift basins.
Earthquake rates in the northeastern United States are about 50 to 200 times lower than in California, but the earthquakes that do occur in the northeastern U.S. are typically felt over a much broader region than earthquakes of the same magnitude in the western U.S.This means the area of damage from an earthquake in the northeastern U.S. could be larger than the area of damage caused by an earthquake of the same magnitude in the western U.S. The cooler rocks in the northeastern U.S. contribute to the seismic energy propagating as much as ten times further than in the warmer rocks of California. A magnitude 4.0 eastern U.S. earthquake typically can be felt as far as 100 km (60 mi) from its epicenter, but it infrequently causes damage near its source. A magnitude 5.5 eastern U.S. earthquake, although uncommon, can be felt as far as 500 km (300 mi) from its epicenter, and can cause damage as far away as 40 km (25 mi) from its epicenter. Earthquakes stronger than about magnitude 5.0 generate ground motions that are strong enough to be damaging in the epicentral area.
At well-studied plate boundaries like the San Andreas fault system in California, scientists can often make observations that allow them to identify the specific fault on which an earthquake took place. In contrast, east of the Rocky Mountains this is rarely the case.  The NYC area is far from the boundaries of the North American plate, which are in the center of the Atlantic Ocean, in the Caribbean Sea, and along the west coast of North America. The seismicity of the northeastern U.S. is generally considered to be due to ancient zones of weakness that are being reactivated in the present-day stress field. In this model, pre-existing faults that were formed during ancient geological episodes persist in the intraplate crust, and the earthquakes occur when the present-day stress is released along these zones of weakness. The stress that causes the earthquakes is generally considered to be derived from present-day rifting at the Mid-Atlantic ridge.

Earthquakes and geologically mapped faults in the Northeastern U.S.

The northeastern U.S. has many known faults, but virtually all of the known faults have not been active for perhaps 90 million years or more. Also, the locations of the known faults are not well determined at earthquake depths. Accordingly, few (if any) earthquakes in the region can be unambiguously linked to known faults. Given the current geological and seismological data, it is difficult to determine if a known fault in this region is still active today and could produce a modern earthquake. As in most other areas east of the Rocky Mountains, the best guide to earthquake hazard in the northeastern U.S. is probably the locations of the past earthquakes themselves.

The Ramapo fault and other New York City area faults

The Ramapo Fault, which marks the western boundary of the Newark rift basin, has been argued to be a major seismically active feature of this region,but it is difficult to discern the extent to which the Ramapo fault (or any other specific mapped fault in the area) might be any more of a source of future earthquakes than any other parts of the region. The Ramapo Fault zone spans more than 185 miles (300 kilometers) in New York, New Jersey, and Pennsylvania. It is a system of faults between the northern Appalachian Mountains and Piedmont areas to the east. This fault is perhaps the best known fault zone in the Mid-Atlantic region, and some small earthquakes have been known to occur in its vicinity. Recently, public knowledge about the fault has increased – especially after the 1970s, when the fault’s proximity to the Indian Point nuclear plant in New York was noticed.
There is insufficient evidence to unequivocally demonstrate any strong correlation of earthquakes in the New York City area with specific faults or other geologic structures in this region. The damaging earthquake affecting New York City in 1884 was probably not associated with the Ramapo fault because the strongest shaking from that earthquake occurred on Long Island (quite far from the trace of the Ramapo fault). The relationship between faults and earthquakes in the New York City area is currently understood to be more complex than any simple association of a specific earthquake with a specific mapped fault.
A 2008 study argued that a magnitude 6 or 7 earthquake might originate from the Ramapo fault zone, which would almost definitely spawn hundreds or even thousands of fatalities and billions of dollars in damage. Studying around 400 earthquakes over the past 300 years, the study also argued that there was an additional fault zone extending from the Ramapo Fault zone into southwestern Connecticut. As can be seen in the above figure of seismicity, earthquakes are scattered throughout this region, with no particular concentration of activity along the Ramapo fault, or along the hypothesized fault zone extending into southwestern Connecticut.
Just off the northern terminus of the Ramapo fault is the Indian Point Nuclear Power Plant, built between 1956 and 1960 by Consolidated Edison Company. The plant began operating in 1963, and it has been the subject of a controversy over concerns that an earthquake from the Ramapo fault will affect the power plant. Whether or not the Ramapo fault actually does pose a threat to this nuclear power plant remains an open question.

Wednesday, August 24, 2022

Quakeland: On the Road to America’s Next Devastating Earthquake: Revelation 6

   

Quakeland: On the Road to America’s Next Devastating Earthquake
Roger BilhamQuakeland: New York and the Sixth Seal (Revelation 6:12)
Given recent seismic activity — political as well as geological — it’s perhaps unsurprising that two books on earthquakes have arrived this season. One is as elegant as the score of a Beethoven symphony; the other resembles a diary of conversations overheard during a rock concert. Both are interesting, and both relate recent history to a shaky future.
Journalist Kathryn Miles’s Quakeland is a litany of bad things that happen when you provoke Earth to release its invisible but ubiquitous store of seismic-strain energy, either by removing fluids (oil, water, gas) or by adding them in copious quantities (when extracting shale gas in hydraulic fracturing, also known as fracking, or when injecting contaminated water or building reservoirs). To complete the picture, she describes at length the bad things that happen during unprovoked natural earthquakes. As its subtitle hints, the book takes the form of a road trip to visit seismic disasters both past and potential, and seismologists and earthquake engineers who have first-hand knowledge of them. Their colourful personalities, opinions and prejudices tell a story of scientific discovery and engineering remedy.
Miles poses some important societal questions. Aside from human intervention potentially triggering a really damaging earthquake, what is it actually like to live in neighbourhoods jolted daily by magnitude 1–3 earthquakes, or the occasional magnitude 5? Are these bumps in the night acceptable? And how can industries that perturb the highly stressed rocks beneath our feet deny obvious cause and effect? In 2015, the Oklahoma Geological Survey conceded that a quadrupling of the rate of magnitude-3 or more earthquakes in recent years, coinciding with a rise in fracking, was unlikely to represent a natural process. Miles does not take sides, but it’s difficult for the reader not to.
She visits New York City, marvelling at subway tunnels and unreinforced masonry almost certainly scheduled for destruction by the next moderate earthquake in the vicinity. She considers the perils of nuclear-waste storage in Nevada and Texas, and ponders the risks to Idaho miners of rock bursts — spontaneous fracture of the working face when the restraints of many million years of confinement are mined away. She contemplates the ups and downs of the Yellowstone Caldera — North America’s very own mid-continent supervolcano — and its magnificently uncertain future. Miles also touches on geothermal power plants in southern California’s Salton Sea and elsewhere; the vast US network of crumbling bridges, dams and oil-storage farms; and the magnitude 7–9 earthquakes that could hit California and the Cascadia coastline of Oregon and Washington state this century. Amid all this doom, a new elementary school on the coast near Westport, Washington, vulnerable to inbound tsunamis, is offered as a note of optimism. With foresight and much persuasion from its head teacher, it was engineered to become an elevated safe haven.
Miles briefly discusses earthquake prediction and the perils of getting it wrong (embarrassment in New Madrid, Missouri, where a quake was predicted but never materialized; prison in L’Aquila, Italy, where scientists failed to foresee a devastating seismic event) and the successes of early-warning systems, with which electronic alerts can be issued ahead of damaging seismic waves. Yes, it’s a lot to digest, but most of the book obeys the laws of physics, and it is a engaging read. One just can’t help wishing that Miles’s road trips had taken her somewhere that wasn’t a disaster waiting to happen.
Catastrophic damage in Anchorage, Alaska, in 1964, caused by the second-largest earthquake in the global instrumental record.
In The Great Quake, journalist Henry Fountain provides us with a forthright and timely reminder of the startling historical consequences of North America’s largest known earthquake, which more than half a century ago devastated southern Alaska. With its epicentre in Prince William Sound, the 1964 quake reached magnitude 9.2, the second largest in the global instrumental record. It released more energy than either the 2004 Sumatra–Andaman earthquake or the 2011 Tohoku earthquake off Japan; and it generated almost as many pages of scientific commentary and description as aftershocks. Yet it has been forgotten by many.
The quake was scientifically important because it occurred at a time when plate tectonics was in transition from hypothesis to theory. Fountain expertly traces the theory’s historical development, and how the Alaska earthquake was pivotal in nailing down one of the most important predictions. The earthquake caused a fjordland region larger than England to subside, and a similarly huge region of islands offshore to rise by many metres; but its scientific implications were not obvious at the time. Eminent seismologists thought that a vertical fault had slipped, drowning forests and coastlines to its north and raising beaches and islands to its south. But this kind of fault should have reached the surface, and extended deep into Earth’s mantle. There was no geological evidence of a monster surface fault separating these two regions, nor any evidence for excessively deep aftershocks. The landslides and liquefied soils that collapsed houses, and the tsunami that severely damaged ports and infrastructure, offered no clues to the cause.
“Previous earthquakes provide clear guidance about present-day vulnerability.” The hero of The Great Quake is the geologist George Plafker, who painstakingly mapped the height reached by barnacles lifted out of the intertidal zone along shorelines raised by the earthquake, and documented the depths of drowned forests. He deduced that the region of subsidence was the surface manifestation of previously compressed rocks springing apart, driving parts of Alaska up and southwards over the Pacific Plate. His finding confirmed a prediction of plate tectonics, that the leading edge of the Pacific Plate plunged beneath the southern edge of Alaska along a gently dipping thrust fault. That observation, once fully appreciated, was applauded by the geophysics community.
Fountain tells this story through the testimony of survivors, engineers and scientists, interweaving it with the fascinating history of Alaska, from early discovery by Europeans to purchase from Russia by the United States in 1867, and its recent development. Were the quake to occur now, it is not difficult to envisage that with increased infrastructure and larger populations, the death toll and price tag would be two orders of magnitude larger than the 139 fatalities and US$300-million economic cost recorded in 1964.
What is clear from these two books is that seismicity on the North American continent is guaranteed to deliver surprises, along with unprecedented economic and human losses. Previous earthquakes provide clear guidance about the present-day vulnerability of US infrastructure and populations. Engineers and seismologists know how to mitigate the effects of future earthquakes (and, in mid-continent, would advise against the reckless injection of waste fluids known to trigger earthquakes). It is merely a matter of persuading city planners and politicians that if they are tempted to ignore the certainty of the continent’s seismic past, they should err on the side of caution when considering its seismic future.

Monday, August 22, 2022

Two Centuries Before The Sixth Seal (Revelation 6:12)

          

The worst earthquake in Massachusetts history 260 years ago
It happened before, and it could happen again.
By Hilary Sargent @lilsarg
Boston.com Staff | 11.19.15 | 5:53 AM
On November 18, 1755, Massachusetts experienced its largest recorded earthquake.
The earthquake occurred in the waters off Cape Ann, and was felt within seconds in Boston, and as far away as Nova Scotia, the Chesapeake Bay, and upstate New York, according to the U.S. Geological Survey.
Seismologists have since estimated the quake to have been between 6.0 and 6.3 on the Richter scale, according to the Massachusetts Historical Society.
While there were no fatalities, the damage was extensive.
According to the USGS, approximately 100 chimneys and roofs collapsed, and over a thousand were damaged.
The worst damage occurred north of Boston, but the city was not unscathed.
A 1755 report in The Philadelphia Gazette described the quake’s impact on Boston:
“There was at first a rumbling noise like low thunder, which was immediately followed with such a violent shaking of the earth and buildings, as threw every into the greatest amazement, expecting every moment to be buried in the ruins of their houses. In a word, the instances of damage done to our houses and chimnies are so many, that it would be endless to recount them.”
The quake sent the grasshopper weathervane atop Faneuil Hall tumbling to the ground, according to the Massachusetts Historical Society.
An account of the earthquake, published in The Pennsylvania Gazette on December 4, 1755.
The earthquake struck at 4:30 in the morning, and the shaking lasted “near four minutes,” according to an entry John Adams, then 20, wrote in his diary that day.
The brief diary entry described the damage he witnessed.
“I was then at my Fathers in Braintree, and awoke out of my sleep in the midst of it,” he wrote. “The house seemed to rock and reel and crack as if it would fall in ruins about us. 7 Chimnies were shatter’d by it within one mile of my Fathers house.”
The shaking was so intense that the crew of one ship off the Boston coast became convinced the vessel had run aground, and did not learn about the earthquake until they reached land, according to the Massachusetts Historical Society.
In 1832, a writer for the Hampshire (Northampton) Gazette wrote about one woman’s memories from the quake upon her death.
“It was between 4 and 5 in the morning, and the moon shone brightly. She and the rest of the family were suddenly awaked from sleep by a noise like that of the trampling of many horses; the house trembled and the pewter rattled on the shelves. They all sprang out of bed, and the affrightted children clung to their parents. “I cannot help you dear children,” said the good mother, “we must look to God for help.”
The Cape Ann earthquake came just 17 days after an earthquake estimated to have been 8.5-9.0 on the Richter scale struck in Lisbon, Portugal, killing at least 60,000 and causing untold damage.
There was no shortage of people sure they knew the impretus for the Cape Ann earthquake.
According to many ministers in and around Boston, “God’s wrath had brought this earthquake upon Boston,” according to the Massachusetts Historical Society.
In “Verses Occasioned by the Earthquakes in the Month of November, 1755,” Jeremiah Newland, a Taunton resident who was active in religious activities in the Colony, wrote that the earthquake was a reminder of the importance of obedience to God.
“It is becaufe we broke thy Laws,
that thou didst shake the Earth.

O what a Day the Scriptures say,
the EARTHQUAKE doth foretell;
O turn to God; lest by his Rod,
he cast thee down to Hell.”
Boston Pastor Jonathan Mayhew warned in a sermon that the 1755 earthquakes in Massachusetts and Portugal were “judgments of heaven, at least as intimations of God’s righteous displeasure, and warnings from him.”
There were some, though, who attempted to put forth a scientific explanation for the earthquake.
Well, sort of.
In a lecture delivered just a week after the earthquake, Harvard mathematics professor John Winthrop said the quake was the result of a reaction between “vapors” and “the heat within the bowels of the earth.” But even Winthrop made sure to state that his scientific theory “does not in the least detract from the majesty … of God.”
It has been 260 years since the Cape Ann earthquake. Some experts, including Boston College seismologist John Ebel, think New England could be due for another significant quake.
In a recent Boston Globe report, Ebel said the New England region “can expect a 4 to 5 magnitude quake every decade, a 5 to 6 every century, and a magnitude 6 or above every thousand years.”
If the Cape Ann earthquake occurred today, “the City of Boston could sustain billions of dollars of earthquake damage, with many thousands injured or killed,” according to a 1997 study by the US Army Corps of Engineers.

New York Subways at the Sixth Seal (Revelation 6)

             How vulnerable are NYC’s underwater subway tunnels to flooding?

Ashley Fetters
New York City is full of peculiar phenomena—rickety fire escapes; 100-year-old subway tunnelsair conditioners propped perilously into window frames—that can strike fear into the heart of even the toughest city denizen. But should they? Every month, writer Ashley Fetters will be exploring—and debunking—these New York-specific fears, letting you know what you should actually worry about, and what anxieties you can simply let slip away.
The 25-minute subway commute from Crown Heights to the Financial District on the 2/3 line is, in my experience, a surprisingly peaceful start to the workday—save for one 3,100-foot stretch between the Clark Street and Wall Street stations, where for three minutes I sit wondering what the probability is that I will soon die a torturous, claustrophobic drowning death right here in this subway car.
The Clark Street Tunnel, opened in 1916, is one of approximately a dozen tunnels that escort MTA passengers from one borough to the next underwater—and just about all of them, with the exception of the 1989 addition of the 63rd Street F train tunnel, were constructed between 1900 and 1936.
Each day, thousands of New Yorkers venture across the East River and back again through these tubes buried deep in the riverbed, some of which are nearing or even past their 100th birthdays. Are they wrong to ponder their own mortality while picturing one of these watery catacombs suddenly springing a leak?
Mostly yes, they are, says Michael Horodniceanu, the former president of MTA Capital Construction and current principal of Urban Advisory Group. First, it’s important to remember that the subway tunnel is built under the riverbed, not just in the river—so what immediately surrounds the tunnel isn’t water but some 25 feet of soil. “There’s a lot of dirt on top of it,” Horodniceanu says. “It’s well into the bed of the bottom of the channel.”
And second, as Angus Kress Gillespie, author of Crossing Under the Hudson: The Story of the Holland and Lincoln Tunnels, points out, New York’s underwater subway tunnels are designed to withstand some leaking. And withstand it they do: Pumps placed below the floor of the tunnel, he says, are always running, always diverting water seepage into the sewers. (Horodniceanu says the amount of water these pumps divert into the sewer system each day numbers in the thousands of gallons.)
Additionally, MTA crews routinely repair the grouting and caulking, and often inject a substance into the walls that creates a waterproof membrane outside the tunnel—which keeps water out of the tunnel and relieves any water pressure acting on its walls. New tunnels, Horodniceanu points out, are even built with an outside waterproofing membrane that works like an umbrella: Water goes around it, it falls to the sides, and then it gets channeled into a pumping station and pumped out.
Of course, the classic New York nightmare scenario isn’t just a cute little trickle finding its way in. The anxiety daydream usually involves something sinister, or seismic. The good news, however, is that while an earthquake or explosion would indeed be bad for many reasons, it likely wouldn’t result in the frantic flooding horror scene that plays out in some commuters’ imaginations.
The Montague Tube, which sustained severe damage during Hurricane Sandy.
MTA New York City Transit / Marc A. Hermann
Horodniceanu assures me that tunnels built more recently are “built to withstand a seismic event.” The older tunnels, however—like, um, the Clark Street Tunnel—“were not seismically retrofitted, let me put it that way,” Horodniceanu says. “But the way they were built is in such a way that I do not believe an earthquake would affect them.” They aren’t deep enough in the ground, anyway, he says, to be too intensely affected by a seismic event. (The MTA did not respond to a request for comment.)
One of the only real threats to tunnel infrastructure, Horodniceanu adds, is extreme weather. Hurricane Sandy, for example, caused flooding in the tunnels, which “created problems with the infrastructure.” He continues, “The tunnels have to be rebuilt as a result of saltwater corroding the infrastructure.”
Still, he points out, hurricanes don’t exactly happen with no warning. So while Hurricane Sandy did cause major trauma to the tunnels, train traffic could be stopped with ample time to keep passengers out of harm’s way. In 2012, Governor Andrew Cuomo directed all the MTA’s mass transit services to shut down at 7 p.m. the night before Hurricane Sandy was expected to hit New York City.
And Gillespie, for his part, doubts even an explosion would result in sudden, dangerous flooding. A subway tunnel is not a closed system, he points out; it’s like a pipe that’s open at both ends. “The force of a blast would go forwards and backwards out the exit,” he says.
So the subway-train version of that terrifying Holland Tunnel flood scene in Sylvester Stallone’s Daylight is … unrealistic, right?
“Yeah,” Gillespie laughs. “Yeah. It is.”
Got a weird New York anxiety that you want explored? E-mail tips@curbed.com, and we may include it in a future column.

Saturday, August 20, 2022

The Quakes Preceding the Sixth Seal: Revelation 6:12

       

East Coast Quakes: What to Know About the Tremors Below

By Meteorologist Dominic Ramunni Nationwide PUBLISHED 7:13 PM ET Aug. 11, 2020 PUBLISHED 7:13 PM EDT Aug. 11, 2020

People across the Carolinas and Mid-Atlantic were shaken, literally, on a Sunday morning as a magnitude 5.1 earthquake struck in North Carolina on August 9, 2020.

Centered in Sparta, NC, the tremor knocked groceries off shelves and left many wondering just when the next big one could strike.

Items lie on the floor of a grocery store after an earthquake on Sunday, August 9, 2020 in North Carolina.

Fault Lines

Compared to the West Coast, there are far fewer fault lines in the East. This is why earthquakes in the East are relatively uncommon and weaker in magnitude.

That said, earthquakes still occur in the East.

According to Spectrum News Meteorologist Matthew East, “Earthquakes have occurred in every eastern U.S. state, and a majority of states have recorded damaging earthquakes. However, they are pretty rare. For instance, the Sparta earthquake Sunday was the strongest in North Carolina in over 100 years.”

While nowhere near to the extent of the West Coast, damaging earthquakes can and do affect much of the eastern half of the country.

For example, across the Tennesse River Valley lies the New Madrid Fault Line. While much smaller in size than those found farther west, the fault has managed to produce several earthquakes over magnitude 7.0 in the last couple hundred years.

In 1886, an estimated magnitude 7.0 struck Charleston, South Carolina along a previously unknown seismic zone. Nearly the entire town had to be rebuilt.

Vulnerabilities

The eastern half of the U.S. has its own set of vulnerabilities from earthquakes.

Seismic waves actually travel farther in the East as opposed to the West Coast. This is because the rocks that make up the East are tens, if not hundreds, of millions of years older than in the West.

These older rocks have had much more time to bond together with other rocks under the tremendous pressure of Earth’s crust. This allows seismic energy to transfer between rocks more efficiently during an earthquake, causing the shaking to be felt much further.

This is why, during the latest quake in North Carolina, impacts were felt not just across the state, but reports of shaking came as far as Atlanta, Georgia, nearly 300 miles away.

Reports of shaking from different earthquakes of similar magnitude.

Quakes in the East can also be more damaging to infrastructure than in the West. This is generally due to the older buildings found east. Architects in the early-to-mid 1900s simply were not accounting for earthquakes in their designs for cities along the East Coast.

When a magnitude 5.8 earthquake struck Virginia in 2011, not only were numerous historical monuments in Washington, D.C. damaged, shaking was reported up and down the East Coast with tremors even reported in Canada.

Unpredictable

There is no way to accurately predict when or where an earthquake may strike.

Some quakes will have a smaller earthquake precede the primary one. This is called a foreshock.

The problem is though, it’s difficult to say whether the foreshock is in fact a foreshock and not the primary earthquake. Only time will tell the difference.

The United State Geological Survey (USGS) is experimenting with early warning detection systems in the West Coast.

While this system cannot predict earthquakes before they occur, they can provide warning up to tens of seconds in advance that shaking is imminent. This could provide just enough time to find a secure location before the tremors begin.

Much like hurricanes, tornadoes, or snowstorms, earthquakes are a natural occuring phenomenon that we can prepare for.

The USGS provides an abundance of resources on how to best stay safe when the earth starts to quake.