
SIGNS OF THE PREDICTED POLE SHIFT
AND EARTH CHANGES
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The First Two Signs, For The Beginning of the Changes How soon?
Referring to the reading above, are there any indications of "the first breaking up of some conditions in the south Pacific and those as apparent in the sinking or rising of that that's almost opposite same, or in the Mediterranean, and the Aetna [Etna] area? [I am assuming here that some conditions refers to some geophysical conditions.] In my book, “Coming Earth Changes” (A.R.E. Press, 1996, on pages 54-58), I proposed that the seismically active Tonga Trench was probably the area of the South Pacific that is “almost opposite” the Mediterranean or Etna area. This area is the Earth’s most active zone of mantle seismicity. Its seismicity arises from the subduction of the Pacific plate at the trench. About two-thirds of global deep quakes are located here. Also, as seen in Figure1, the Tonga Trench is located close to the point that is opposite to Mt. Etna in the Mediterranean area. We will be referencing now four abstracts from Session 62C of the December 2002 meeting of the American Geophysical Union. They are abstract numbers S62C-1204 through 1208. No. 1204 begins by relating that “on August 19, 2002, two large deep earthquakes occurred about 7 minutes apart in the central and southern region of the deep Fiji-Tongan subduction zone, respectively. The second earthquake occurred at 680 km depth, and is, with a magnitude of M 7.7, the largest deep event in the Fiji-Tonga subduction zone ever [our emphasis] recorded". Abstract No. 1207 states that the aftershock productivity of this second event was consistent with that of the M 7.6 quake of March 9, 1994. I had mentioned in my book (p. 55), citing D. Giardini and P. Lundgren (1995, GRL), that this 1994 quake suggested that a new mode of seismic deformation had become active in the northernmost termination of the Tonga-Fiji slab. It cut across the dense cluster of seismicity of the previous 30 years. One asks if the August double quake in the Fiji-Tonga realm may have triggered the seismic rumblings in the Mediterranean and rising of the submerged island mentioned in the Reuters press release below. And could these events then have been followed by the robust new eruptions of Mt. Etna that began in October 2002? My answer is that this seems not to be the case, at least according to what geoscientists seem to know about Earth dynamics. But what does seem possible, according to conventional geophysical understanding, is that both the sensitive Mediterranean (Etna) and Fiji-Tonga regions could be the first to reflect a global acceleration in the ongoing movements of Earth’s tectonic plates. Such an acceleration would be in response to the strains produced in Earth’s crust as the poles try to begin to shift. Consider, then, these two reports from the vicinity of the Tonga Trench. D. Millen and M. Hamburger (Geology, 1998, v. 26, pp. 659-662) report that the Pacific plate is being torn through the entire thickness of the ocean lithosphere at the northern end of the Tonga Trench. (See Fig. 1). Their data reveal a process that is apparent to geologists familiar with this region. C. Small and D. Abbott (Geology, 1998, v. 26, pp. 795-798) recently discovered a linear trough running east-west across the seafloor in the South Pacific. It “may mark the place where Earth’s outer shell has started to tear, opening up one of the freshest wounds on the surface of the globe” (Science News, 9/5/1998, p. 151). Flanked by steep ridges, the seabed canyon lies about 1600 km north-northeast of New Zealand. The authors have named this feature the Louisville Trough (Fig. 1). Their report is entitled "Subduction obstruction and the crack-up of the Pacific plate," and their thesis is that coupling between a large subducting seamount and the overriding Australian plate may serve as a mechanism to focus stresses and nucleate a rift in the Pacific plate as it moves beneath (subducts) the Australian plate. Are not the above two reports of the “breaking up of some conditions in the South Pacific” making “apparent” the “changes in the Earth's activity” referred to in reading 311-8? What about New Zealand? New Zealand is located astride one of the world’s major plate boundaries. Beneath the North Island the Pacific crustal plate is being subducted under the Australian plate. Southwest of the South Island, the Pacific plate (including the South Island) is overriding the Australian plate. Between these two opposing subduction systems the plate margins are in oblique collision, and the New Zealand landmass is being twisted and torn by complex horizontal faulting and vertical movements. This slow breaking up of New Zealand is taking place in an area of the South Pacific that's also almost opposite to “the Mediterranean and Etna area.” Actually, the northeast coast of the North Island is slightly closer than the Tonga trench area to the point in the south Pacific (Fig. 1) that we just said was the most probable location of the South Sea breakup mentioned in reading 311-8. Mt. Etna is located at 37.73º N, 15.00º E, and so the location in the South Pacific that is directly opposite Mt. Etna is at 37.73º S, 165.00º W, or about 1400 km (870 mi) due east of Gisbourne, on the North Island of New Zealand. |
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| Fig. 1. Region of "breaking up" in the South Pacific that is "almost opposite" the Etna area in the Mediterranean. Locations of deep earthquakes (both M 7.7) of August 19, 2002 are shown by red rings. |
| And so, what’s going on in New Zealand relative to crustal movements just now? Here are two media releases from New Zealand’s Institute of Geological and Nuclear Sciences Limited (GNS). The first deals with rapid horizontal motion of the crust in the vicinity of the northeastern corner of the North Island near Gisbourne. |
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The second GNS media release deals with vertical motions of the Taupo volcano region, also on the North Island. Taupo is a volcano that is one of the potentially super-eruptive volcanoes that we monitor weekly. (See THC Earth Change News page.) Note especially the pulsation of the Taupo volcanic area described in the media release. It seems to compare to the pulsation in the Mediterranean/Etna area that will be revealed later on. Relative motions of the plates beneath New Zealand have produced a rugged topography and active volcanoes. North Island’s Ruapehu volcano exploded spectacularly in September 1995. Ruapehu is the major ski resort of the island, attracting 10,000 skiers on some days. But the eruptions that continued into October 1995 produced mud flows, emptied a large lake, and dispersed a large volume of ash and scoria bombs downwind. As for earthquakes, a 1848 temblor was violent on both sides of the Cook strait, and resulted in fissures and fresh scarps in the Atwatere Valley. Wellington, the capital, was seriously damaged in the quake of 1855, and country to the west was generally uplifted from three to ten feet. |
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Summary for the "break-up" of conditions in the
South Pacific If the motions of Earth’s tectonic plates are beginning to respond to an approaching pole shift, we should definitely be able to see the consequences of such activity now. The consequences should be “apparent,” to use the word as found in 311-8, first in seismically and tectonically sensitive places like New Zealand and the Tonga trench regions near the point almost opposite Mt. Etna. On the opposite side of the planet, in the Mediterranean and the Etna areas, we should expect to see evidence of horizontal plate acceleration, or vertical-crustal-motion effects in the pulsation of the sea-floor off Sicily or in the rising or sinking of lands in and surrounding Sicily. There would be nothing quite so convincing of the predictive strength of reading 311-8 as observing an island rising out of the Mediterranean Sea in the Etna area, while at the same time perceiving the break-up of geological conditions in the South Pacific. Read the next section and see if you don’t agree that "the changes in the Earth's activity" have “begun to be apparent.” And realize, too, that when reading 311-8 was given nobody had the foggiest idea about such concepts as plate tectonics, mantle seismicity, or the host of other tools that geoscientists so routinely use today. That’s why it has taken so long for us to be able to appreciate the “apparent” nature of reading 311-8 just today. This seems to be a bit like the Bible Code. The messages have always been there, encoded in the text, but it has taken until now, with the development of computerized search procedures, for those messages to become apparent to mankind. Sinking or rising in the Mediterranean and the Etna area. On pages 50-54 of Coming Earth Changes, attention is given to recent sinking and rising of the crust in the Etna area, as reported by scientists up to 1996. This includes evidence that "both the volcano and northeastern Sicily have been uplifted 1.5 mm/year during Holocene times [the last 10,000 years], although more recent rates of uplift may have been greater." (Firth, C., and Others, 1996, Geol. Soc. Spec. Pub, No. 110). Some commentators on the readings confuse Etna's recent spectacular eruptive activity of the past few years with "sinking or rising" in the Etna area. But while the recent magma pumping does cause the volcano to inflate (swell slightly) and to deflate temporarily, and while lava flows add somewhat to the elevation of Etna's slopes, these changes do not relate to the broader "Etna area" mentioned in the reading. Also, the wording of reading 311-8 seems to require that vertical crustal movements in the vicinity of Etna must become more obvious before we can truly say that significant Earth changes are imminent. Such obvious accelerated sinking or rising of the crust in the immediate Etna area has indeed begun. The Campi Flegri caldera, in southern Italy, also called the Phlegraean Fields, is one of the major calderas in the world undergoing unrest. (See Fig. 2). Several hundred thousands of people live within its borders. This makes for a high volcanic risk from even a minor eruption. The caldera was formed as a consequence of a huge eruption around 40,000 B.P. Over the last ten thousand years, volcanic activity has been characterized by the occurrence of explosive eruptions thousands of years apart. The last one occurred in 1538. The base of the caldera had been sinking at an average speed of 1 cm per year, from 1538 until 1970. Two resurgence episodes occurred in 1970-1972 and 1982-1984, producing uplift with a maximum of about 3.8 m at the town of Pozzuoli. Then, the ground began to sink again, and is sinking now. This volcanic area is close to Mt. Vesuvius and Naples (Napoli.). See Figure 2. |
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| Fig. 2. Location of the restless caldera volcano, Campi Flegri, at Pozzuoli just west of Naples (Napoli). The impacts of the 79 A.D. eruption of Mt. Vesuvius are shown, as modified from Fig. 4-3 of J. Boer and D. Saunders, 2002, Volcanoes in Human History. |
Figure 3 below shows graphics and pictures that tell more about the location and nature of Ferdinandea, the island that is reported to be rising: |
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| Map generated with Jules Map server featuring GMT and Face of the Earth | |
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Historical painting of Ferdinandea island. |
| Drawing from L'Espresso n° 18, maggio 2000 | |
| Fig. 3. Map showing the location of the submerged isle of Ferdinandea, an artist’s conception of it, and an historical painting of the island in 1831. | |
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Note that in my analysis of 311-8, in “The Sources and Veracity of Edgar Cayce’s Readings, Part 2,” I concluded that, “The Earth-changes information in the reading fragment cited is probably for the most part truthful, and it has predictive capability that may be trusted.” But consider once again this part of reading 311-8:
When I wrote Coming Earth Changes (in 1996) I assumed that the date of ’36 (1936) was correct, and tried to explain the apparent absence “of greater changes apparent” in the following way (p. 50):
Thus, we have a predicament. The changes may have been too subtle for us to detect, they may have been hidden from view because they were upheavals in the interior of the Earth, or the date of 1936 may reflect “wavered” information as received by Cayce’s conscious mind. Then again, Cayce’s source for that date (the spirit entity Demitrius?) may have simply been wrong.
Volcanoes With Indicator
Functions Two specific volcanoes are mentioned in the Cayce readings as having what can be called "indicator" functions. Such functions are for warning people of upcoming, historically unprecedented Earth changes. Mt. Vesuvius, in Italy, and Mt. Pelée, on the Caribbean island of Martinique (or, alternatively, Kilauea on Hawaii), are to be watched for "greater activities." When such activities occur at one or the other of these volcanoes, they will indicate that the southern coast of California -- and areas between Salt Lake and the southern portions of Nevada -- will experience, within three months, "an inundation by the earthquakes." (270-35, 1/21/36) In addition to the above two volcanoes, a reading obtained from archangel Halaliel mentions that volcanoes situated in Earth's torrid areas will erupt just prior to a "shifting of the poles." Thus, when more than the expected numbers of torrid-area volcanoes begin to erupt, their collective activity will indicate that a pole shift - predicted in Cayce reading 3976-15 -- is to occur soon thereafter. A review of the current eruptive status of these indicator volcanoes seems appropriate at this time. Reading 1602-3 said that, beginning in 1998, the Earth "may find a great deal of the activities as have been wrought by the gradual changes that are coming about." Thus, we need to propose criteria for distinguishing between the normal activities of these volcanoes and the sort of behavior that indicates unambiguously that their indicator functions are being fulfilled. |
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Eruptions of Vesuvius and Pelée (or Kilauea), And "Inundations" By Earthquakes The purpose of one or the other(s) of these indicator volcanoes is to provide a warning of impending earthquakes and "inundations" in parts of California, Utah, and Nevada, and in the southern hemisphere.
There are two possible ways of interpreting the "inundations-by-the-earthquakes" language of this reading. Conventional interpretation of the phrase has been that it is a figure of speech for "an overwhelming number of earthquakes." But a credible case can be made also for earthquake-induced flooding of the areas referenced in the reading. For example, a recent analysis (Chang, W. and R. Smith, 1996, AGU Fall Meet. Proc., Abstr. No. S31C-6). of the earthquake hazard in the Salt Lake City area, by two seismologists at the University of Utah, suggests a different interpretation. These researchers modeled land- deformation effects of a hypothetical, magnitude 7.2 quake that could be expected to occur on the south Weber segment of the north Salt Lake City segment of the Wasatch Fault. The seismologists put into their model a "scenario quake" consisting of the same ground-surface deformations that were observed in the M 7.5, 1959 Hebgen Lake, Montana, quake that occurred 270 miles north of Salt Lake City. They concluded:
The changes implied by reading 270-35 above would involve far more than the isolated-earthquake, land-deformation, and flooding scenario modeled by the Utah scientists. Our new interpretation of reading 270-35 is that catastrophic earthquakes and flooding may occur in the land areas around Great Salt Lake and Utah Lake in Utah, around and below Lake Mead in far southern Nevada, and along those land areas fronting the Pacific Ocean in southern California. Such aqueous inundations could directly or indirectly affect population centers like Bringham City, Salt Lake City, Murray, Orem, and Provo in Utah, Las Vegas in Nevada, and the cities of coastal California from Santa Barbara south to San Diego. Thus, we now have two ways of interpreting the "inundation-by-the-earthquakes" language of reading 270-35. And the ambiguity of the phraseology used seems to have allowed science to catch up to the reading, here just after the end of the 40-year period (1958 to 1998) said to be prelude to catastrophic Earth changes between 1998 and 2998. As if to bolster our interpretation at this critical time, there is new global-scale seismic-tomography evidence for deep mantle circulation of unprecedented proportion. There's no question that the language of the readings can be quite challenging at times, as outlined in the examples above. But in continually trying to understand, we may in fact get understanding, often in unexpected ways. Here, recent scientific findings are accommodated by seemingly obscure phrases in the readings, many years after Cayce gave them. Were certain of the readings intentionally constructed this way? If so, we may have insight here from the promise that, "In 1998 we may find a great deal of the activities as have been wrought by the gradual changes that are coming about....[and] ....as has been indicated, we will begin to understand fully in '98". (1602-3) What are the chances of "an [aqueous] inundation of the southern coast of California" due to earthquakes, as just discussed? Have there been any earthquakes and associated tsunamis (seismic sea waves) there before? Yes, indeed. But first, just what are tsunamis? (The word is Japanese for tsu harbor + nami wave, and in strict Japanese the word is both singular and plural. But we see the word so often in English as tsunamis, for more than one tsunami, that I will yield and follow this corruption, along with others). A tsunami (pronounced tsoo-nah-mee) is a series of waves, generated in a body of water by an impulsive disturbance that vertically displaces ocean water. Sea-floor movements accompanying earthquakes are the most common cause of tsunamis. But landslides into the sea, submarine landslides, explosive submarine volcanic eruptions, and even meteorite impacts can generate tsunamis. Locally-generated tsunamis are the greatest threat to U.S. coastlines, but tsunamis originating at a distance are also a constant threat. The U.S. has suffered damage from tsunamis originating in Chile, Japan, Russia, and Alaska. Eventually, tsunamis will strike all U.S. Pacific Ocean coastlines. Because reading 270-35 above seems to refer to tsunamis generated by local earthquakes, we will cite details for several here to give the reader an idea of historical numbers and effects. As covered in Tsunamis Affecting The West Coast of the United States: 1806-1992,1 the Santa Barbara tsunami of December 21, 1812, was most probably caused by a submarine landslide in the Santa Barbara basin. This landslide was believed due to an earthquake estimated at M7.7, and originating on the San Andreas Fault. The maximum wave height was about 15 feet or so, and is said to have reached half a mile inland. Submarine landslide tsunamis in California typically have waves with a maximum amplitude of 10 feet and affect a very restricted area. The tsunami of November 4, 1927, was such a one, and affected about 35 miles of shoreline. It was recorded as a six-foot wave at Surf, just north of Pt. Arguello near Santa Barbara, and as a five-foot surge at Port San Luis. Near Los Angeles, on July 10, 1855, four earthquakes generated a "probable submarine landslide and local tsunami." On May 27, 1862, an M5.9 earthquake at San Diego caused the only local tsunami observed there. On August 30, 1930, a M5.2 earthquake caused a 20-foot wave at Santa Monica, Venice, and Redondo Beach: "Probably a submarine landslide source given the low magnitude of the earthquake and localized effect. Sixteen people were rescued from the surf. One drowned at Redondo Beach." These few representative records show that local tsunami inundations "by [the] earthquakes" are quite possible for the southern coast of California. In all, some 21 locally generated tsunamis of various destructive power have been documented for the southern California coast between 1806 and 1992. Although this coast seems safe from locally generated tsunamis relative to the coasts of, say, Japan or Alaska, the dangers from large tsunamis cannot be ignored. D. S. McCullough, in a U.S. Geological Survey report on tsunamis along the Pacific coast, says that "a preliminary appraisal of the potential for locally generated tsunamis suggests that wave run-up heights as great as four to six meters," or 13 to 20 feet, could be caused by seabed movements due to earthquakes. Such waves are not in the same league with the giant tsunamis that hit Hawaii in 1946 and 1975, but even a five- or six-foot tsunami can cause widespread damage in a harbor or along a heavily settled stretch of coastline. One tsunami-prone area in southern California is located off Santa Barbara where the offshore area has created an odd set of conditions with the potential for making large seismic sea waves. Quoting a report on southern California's tsunami potential, D. Ritchie says in his book Superquake! (Crown, NY, 1988), "Surface fault rupture accompanied by sea-floor displacement is a distinct possibility beneath the Santa Barbara Channel. To put it another way, a big quake on land could set off another quake under the sea and thus send tsunamis rolling toward the California shore." Support for this view is found in J. Deng and L. Sykes's recent study of the 200-year evolution of the crustal stress field in southern California (Jour. Geophysical Research, v. 102, B5, May 10, 1997). The authors write: "Future great earthquakes along the San Andreas Fault, especially if the San Bernardino and Coachella Valley segments rupture together, can trigger moderate to large earthquakes in the Transverse Ranges, as appears to have happened in the Santa Barbara earthquake that occurred 13 days after the great San Andreas shock of 1812." We note in passing that another kind of inundation that could occur would be due to flooding by reservoir waters released when earthquakes cause dams to fail. Several stream-dammed reservoirs are located in the coastal zone of southern California. If the ultimate cause of the tsunamis mentioned in our speculation on the meaning of 270-35 above is an acceleration of lithospheric plate movements incident to pole shift, there is one last, far-out possibility to consider. And it ties into the last sentence of the reading, which indicates that the effects of the inundations by the earthquakes will be felt more in the southern hemisphere. This understanding of the phrase "inundations by the earthquakes" would relate to tsunamis generated from distant sources. If a huge piece of the Kilauea volcano, on the island of Hawaii, suddenly slides into the Pacific, highly energetic tsunamis would be generated that would strongly impact the southern California shoreline and those of Central and South America. Indeed, the coast of southern California has experienced no less than 44 tsunamis generated by earthquakes or submarine landslides beyond the U.S. Pacific coast (excluding Alaska) between 1806 and 1992. These waves have traveled from Japan, coastal Alaska, Chile, the Kuril Islands, the Java Sea, El Salvador, and other places. Many of the 44 tsunamis of distant origin that hit the coast of southern California were recorded only as minor excursions on tide-gage records. But consider what could happen as accelerating mantle motions cause earthquakes and landslides at currently erupting Kilaeua. (The seismic hazard for the southern portion of Hawaii rivals that of the area around the San Andreas Fault in California, according to F. Klein, seismologist with the U. S. Geological Survey. And geophysicists in early 1997 were measuring progressive seaward displacements of the land portion of Kilauea's southeastern flank). First, note that the tsunami of December 21, 1812, mentioned above traveled all the way from Santa Barbara, California, to Hookena, Kona, Hawaii, where the wave run-up height was estimated at between six and 14 feet. Now let's reverse the California-to-Hawaii tsunami travel direction. Suppose that a giant submarine landslide occurs on the southeastern flank of Kilauea and generates a large tsunami. The coastlines of Peru and Chile would receive the brunt of such a tsunami, but the coast of southern California would also be affected. Recall the words of reading 270-35, "But these [inundations by the earthquakes] are to be more in the southern than in the northern hemisphere." How close is southeastern Kilauea to shedding enough material to produce a tsunami-generating submarine landslide? A. Hooper, and Others (2002 “Reconciling seismic and geodetic models of the 1989 Kilauea south flank earthquake,” Geophys. Res. Letters, v. 29, no. 22, pp. 19-1 to 19-4) examined seismic and geodetic models for the M 6.1 earthquake that struck Kilauea’s south flank on June 26, 1989. Figure 4 shows a map view of the location of Kilauea’s East Rift Zone, and Fig. 5 shows an elevation view of transect A-A' shown in Fig. 4. |
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| Fig. 4. After Figures 1 and 2 of A. Hooper, and Others’ paper. The map of southeastern Kilauea shows the rift zone, the earthquake’s epicenter, and the transect along which the cross-section (Fig. 5) was constructed. The green arrows represent the rate of displacement of the southeastern Kilauea coastal area seaward of the east rift zone as measured by GPS stations. |
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| Fig. 5. Showing the earthquake of June 26, 1989, as being projected onto cross-section A-A' of Fig. 4. Also shown are the foci of the many foreshocks and aftershocks of the M 6.1 quake. The large brown arrow provides a sense of the movement of the volcanic rock above the decollement (see text). |
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The rift zone in Figs. 4 and 5 marks a system of fractures in the volcanic material of the southeastern slope of Kilauea. It has developed as a result of an incipient sliding motion of the volcanic materials on the ocean side of the rift zone. The decollement of Fig. 5 marks a structure of strata that results in independent styles of deformation in the rocks above and below. “It coincides with the interface between the volcanic pile and the pre-volcanic seafloor” (Hooper and Others, 2002). This southeastern flank of Kilauea “is moving south-southeast relative to the Pacific tectonic plate by about 8 cm/yr.” Many authors believe that sliding along the basal decollement just described accommodates this movement. At least one researcher, however, demonstrated that some slip occurs at a shallower depth. The message to take away from the above information is that there is a strong likelihood that the southeastern flank of Kilauea will someday slide into the sea, producing an energetic tsunami that will be directed to the coast of southern California and to the relevant coastlines of the southern hemisphere. The crustal disturbances “by the earthquakes” mentioned in reading 270-35, could be assumed to be the trigger for the landslide, and the inundations from it would include the” inundation” to the southern coast of California. |
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| Fig. 6. Adapted from Fig. 2-2 of Volcanoes in Human History, showing the extent of submarine landslides resulting from gravitational collapse of large segments of volcanoes. |
| In their study, "Giant Hawaiian Landslides" (Annual Reviews of Earth and Planetary Science, 1994), J. Moore, and Others, document dozens of major landslides that have recently been discovered on the flanks of the Hawaiian Ridge. "They are among the largest on Earth, attaining lengths greater than 200 km and volumes of several thousand cubic kilometers." The authors write that rapid movement of some of the submarine debris avalanches "is indicated by the fact that some have moved uphill for tens of kilometers, and are believed to have produced major tsunamis." |
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Just What Is Meant By "Greater Activities" Of Indicator Volcanoes?
Just what "greater activities" means involves a somewhat subjective judgment. Greater than what other activities? Vesuvius. When reading 270-35 was given in 1936, Vesuvius had been erupting intermittently for 23 years (since 1913). It continued to do so until 1944. Apparently, eruptions between 1936 and 1944 were not sufficient to qualify as "greater activities," because the "inundation by the earthquakes" did not occur. Volcanic activity during the 1936-1944 period was generally confined to the summit and upper slopes of Vesuvius. Thus, "greater activities" at Mt. Vesuvius will be interpreted here to mean the occurrence of more vigorous and widespread eruptions than those that occurred between 1913 and 1944. Such stronger eruptions will presumably reflect the beginning of worldwide movements in Earth’s lithospheric plates, associated with the beginning of a shift in the poles predicted for 2000 - 2001. Note that we have posted an article, Possible Pole-Shift Precursor Found!, that supports the notion that there is evidence that this pole shift may indeed have begun in 2000 to 2001. Mt. Vesuvius (Fig. 2), located on the outskirts of Naples, Italy, last erupted in 1944. Nothing special is going on at this indicator volcano, or in its immediate area, at the present time. Mt. Vesuvius is a cone-shaped edifice built within a very old caldera2, Mt. Somma. The 18,000-year-old Mt. Somma caldera lies just east of another ancient caldera, Campi Flegrei. Thus, "the Vesuvius [realm or area?]" of the above reading comprises a highly volcanic portion of the Earth's crust.
On September 29, 1538, an eruption began in Campi Flegrei that in one week built a cone-shaped volcano, Mt. Nuovo. The eruption was preceded by a period of uplift in the area that ended a 1,400-year period of sinking. Emergence of new land from places formerly occupied by the sea was first noted in 1502 by residents of Pozzuoli, a coastal town some 15 miles from Vesuvius. By the early 1530s, this uplift was accompanied by unusual seismicity. In September 1538, earthquakes increased dramatically and a remarkable rising of the seafloor displaced the coastline by several hundred feet in the area just west of Pozzuoli. Some sources mention an uplift amounting to about 23 feet. On September 29, a crack opened in the area of maximum uplift. This newly opened vent began to emit vast amounts of pumice, fire, and black and white smoke. Ash from the initial activity fell over a wide area. The bulk of the new cone was built during the first 24 hours and, when first climbed on October 2, a "boiling" lava lake was observed within the crater. These observations provide a splendid historical record of "greater activities" in a volcanic area only 16 miles from Mt. Vesuvius; that is, in "the Vesuvius [area]" of reading 270-35. And they also provide an example of "sinking or rising....in the Mediterranean area." Again, Mt. Nuovo is only 220 miles from Mt. Etna. Thus, vertical crustal movements at Campi Flegrei today could perhaps qualify as occurring "in the Mediterranean and Etna area." Well then, note the following. Two important episodes of ground-surface uplift occurred in the Pozzuoli area in 1970-1972 (+5.6 ft) and in 1982-1984 (+6.0 ft). Sinking of the land surface has occurred since the end of 1984. I speculate that something like the intensity of volcanic activity exemplified at Campi Flegrei in the 1530s will have to be repeated in the Vesuvius area today before we can assume that earthquakes and inundations will strike portions of Utah, Nevada, and coastal southern California within three-months' time. Recently, seismicity at Vesuvius during 1995 and 1996 was the strongest in the last 50 years. This indicates movement of subsurface magma. And at Campi Flegrei, increased temperatures have been noticed at vapor-emitting vents. We continue to watch and wait for increased activities at Mt. Vesuvius proper, or in the Vesuvius area, if that's the way that "the Vesuvius" is to be interpreted. Then again, perhaps it is Mt. Pelée, rather than Mt. Vesuvius that is destined to be the indicator volcano that will trigger the three-month's warning for people living in the areas mentioned in reading 270-35 above. |
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Pelée or Pele? For the last 70 years Mt. Pelée has rested dormant on Martinique, an island in the Lesser Antilles of the Caribbean Sea. Pelée shows no signs of life today. Its reputation as a violent, killer volcano must have been quite familiar to Cayce when he gave reading 270-35 in 1936. The May 8, 1902 eruption of Mt. Pelée killed around 28,000 people when a catastrophic nuée ardente, or glowing avalanche of hot gasses and particles, overwhelmed St. Pierre. So hot was this cloud that it melted the master cathedral bell and set fire to ships in the harbor. In August of the same year, Pelée also destroyed the town of Morne Rouge, killing close to 1,500 people. Closer monitoring of the volcano’s activities helped prevent further deaths during the most recent eruptions of 1929 to 1932. Treated on pages 267-268 of “Coming Earth Changes” is the possibility that Gladys Davis, Edgar Cayce's stenographer for reading 270-35, might not have known that Cayce's source could have meant "Pele," instead of Pelée. Pele could be interpreted to stand for the domain of the Polynesian fire goddess Pele, who mythically speaking is believed to inhabit the crater of Kilauea volcano on the island of Hawaii. Inspection of the original copy of reading 270-35 indicates that Mr. Cayce’s source did not spell out either Pelée or Pele when giving his reading. Thus, perhaps the source did not mean Mt. Pelée, on the island of Martinique. There is only a small difference in pronunciation, and just one letter “e” between the two names. Also, there is the unusual placement of the article “the” in, "If there are the greater activities in the Vesuvius, or Pelée." It seems as though a noun such as "areas" or "realms" has been omitted after the word Pelée. Thus, something like "....greater activities in the Vesuvius or Pele realms or areas....." might have been intended by the source of Cayce's reading. I only recently learned that I was not the only one to have thought about the above possibility. It seems that Pluma Beck, a long time A.R.E. member and current resident of Hawaii, was so concerned about the Pelée/Pele matter that, sometime in the mid-1980s, she asked Gladys Davis about her recollection of the reading. Here is Ms. Beck’s story.
Now, colleague Jonathan Eagle who grew up in Hawaii, Ms. Beck who lives there now, and I, had a number of discussions about the pronunciation of Pele, as it would have been rendered by native Hawaiians in the 1930s; that is, as to whether or not the natives said 'peh-leh,' as mentioned above. This discussion led me to obtain the opinion of Ms. Laiana Wong of the University of Hawaii’s Department of Hawaiian and Indo-Pacific Languages, Linguistics, and Literature. She wrote that:
Ms. Wong’s analysis is interesting, although it may not relate as much to the true pronunciation of Pele by native Hawaiians of the 1930s. I decided that the next thing to do was to simply contrast the pronunciation of Pele with that of Pelée. According to my Webster’s Geographical Dictionary (published in 1949), Pelée is pronounced Pe where the e is as in “maker” and lee, which has the long “a” sound, as in “ale;” that is, Peh láy, with the accent on the second syllable. It suddenly became relatively obvious that the pronunciation of Pele, for the volcanic realm on Hawaii, was not at all like that indicated by the Geographical Dictionary, for the volcano on Martinique. Rather, it was much more like Ms. Beck’s grandson said it was pronounced, or Peh-leh. Thus, Cayce’s source could well have meant Pele’s realm, not the volcano on Martinique. We now wondered whether Pele’s realm, as implied by Cayce’s reading, was confined to Kilauea alone, or whether it was applicable more broadly. Pluma came up with the answer, in the form of a book on the Hawaiian myth of Pele. It is entitled, PELE -- The Fire Goddess, (Varez, D., and Pua Kanaka'ole Kanahele, 1991, Bishop Museum Press, Honolulu, Hawai'i 96817). The story ends as follows. "Pele still lives on Hawai'i, where she rules as the goddess of volcanoes. The sulphur in the air reminds the people that she is there, alive in her home, Halema'uma'u [a crater of Kilauea]. Her fiery lava is still pushing eastward toward the rising sun. And year after year, people sing songs and tell stories about Pele of Kilauea." We bring this up only because if, for example, Mauna Loa – also in Pele’s realm on the Big Island -- suddenly were to begin to display “the greater activities,” we would not hesitate to give a warning of inundations by the earthquakes for “the southern coast of California -- and the areas between Salt Lake and the southern portions of Nevada.” Mauna Loa is currently swelling slightly, the beginning of a possible eruption in the months or years ahead. Nevertheless, Kilauea, Pele’s home, seems currently the lead candidate as far as acting as one of the warning volcanoes. Erupting continuously for more than 20 years permits volcanologists to refer to it as one of the world’s most active volcanoes. Its potential ability to generate an underwater landslide and associated tsunami is especially telling for the southern coast of California and coasts of the southern hemisphere vulnerable to Hawaii-generated tsunamis. The relevant reading extract from 270-35 ends, “But these [“an inundation”s by the (action of the) earthquakes] as we find, are to be more in the southern than in the northern hemisphere.” (1/21/1936). Just how could a southern hemisphere inundation occur, should the southeast corner of Kilauea (Fig. 4) be struck by earthquakes sufficient to cause it to slide into the ocean? This can be envisioned by reference to Figure 7, a travel-time chart from NOAA’s Publication 41-2, “United States Tsunamis,” by J. Lander and P. Lockbridge (1989). The figure shows wave-crest travel times for tsunamis generated in the Hawaiian Islands. Faintly dashed lines perpendicular to the solid wave-front lines are called wave “rays.” The primary wave ray for a tsunami generated by a Kilauea landslide directed to the southeast would be a ray directed from the Big Island of Hawaii toward Santiago in central Chile. |
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| Figure 7. Travel time chart for Pacific tsunamis. (Reproduced from Fig. 2 of Lander and Lockbridge,1989). |
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Note that the most energetic waves,
from a hypothetical tsunami generated just off Kilauea, will travel through
the southeastern quadrant of the diagram. Such tsunamis will strike all of the southern hemisphere coasts of Ecuador,
Peru, and Chile. Notice also that the wave rays
arrive more perpendicularly to these coastlines than
do the rays arriving at the coastlines of Central America. In a similar way, the
coast of southern California would experience a relatively smaller
inundation by any tsunami from Kilauea, traveling
as it would with greatest energy along a
southeasterly directed path toward Chile.
Thus, an Hawaiian-born tsunami inundation (of coastal zones) would be more “in the southern than in the northern hemisphere.” But suppose we are wrong about Kilauea, and that Cayce’s source really did mean Pelée in the Caribbean? It is true that the occurrence of local earthquakes and submarine landslides would be greater along the coasts of South America than those of southern California. There would be relatively more tsunamis and inundations along such coasts, in agreement with the past history of numerous locally-generated tsunamis along the shores of Ecuador, Peru, and Chile. In view of the
information we have marshaled above, it seems clear that in transcribing
Cayce’s reading Miss Davis might well have written Pelée, where Pele was
actually intended. Thus, we will consider "greater [volcanic] activities"
at both Mt. Pelée on Martinique, and at Kilauea, in Pele's realm on the
Big Island of Hawaii. Both will be considered as potential indicators of
forthcoming "inundations by the earthquakes" in Utah, Nevada, coastal
southern California, and (largely) the southern hemisphere. Mt. Pelée, and Kilauea of Pele's Realm What do we know about the history and current eruptive status of the volcanoes Pelée and Kilauea? The last eruptive phase of Mt. Pelée began in 1929, and ended in 1932. The reading that refers to "greater activities" was given in 1936. During the 1929-1932 period, Pelée exhibited explosive activity, produced pyroclastic and mud flows, and developed a dome and spine. No lives were lost. This level of activity contrasts markedly with the previous activity of 1902-1905. That eruptive phase began in May 1902, when Pelée suddenly erupted, spewing out masses of lava, pumice, and hot ash from the south side of its 4,600 ft. edifice. In one day, 30,000 people died. The volcano has been dormant since 1932.
Several people have asked whether the Soufriere Hills volcano on the island of Montserrat could be a surrogate for Mt. Pelée. It lies only 150 miles from Mt. Pelée and, after a long period of dormancy, erupted suddenly on July 18, 1995. The answer seems to be "no." Greater activities at Soufriere Hills reached a climax in June 1997, but there were no "inundations by the earthquakes" in the following three months in Utah, Nevada, or California. As for Kilauea, we would have to look back 74 years to the powerful Halemaumau eruptions of 1924 to find a baseline level of volcanic activity that would have to be exceeded for Kilauea to display "greater activities" today. May of 1924 saw one of Kilauea's most alarming displays of volcanic power when Halema`uma`u, the crater nestled in Kilauea's summit caldera, experienced a 10-day-long period of violent explosions.
Whether or not reading 270-35 was referring to "greater activities" in the realm of Pele, there is a consistent logic for Vesuvius, Pelée, or Pele's Kilauea being indicator volcanoes for the beginning of significant Earth changes. This is so because each of the three volcanoes can be expected to be sensitive to movements of magma that will occur in conjunction with accelerated movements of Earth's lithospheric plates, upheavals in the Arctic and Antarctic, and eruptions of torrid-area volcanoes. These events are predicted to take place just prior to a shifting of the poles, as related in 3976-15. |
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Upheavals In The Polar Zones And
Note that both Pelée and Kilauea are torrid-area volcanoes, located as they are in Earth's Torrid Zone between the Tropics of Capricorn and Cancer. "Upheavals in the Arctic and Antarctic" may turn out to be mostly volcanic in nature, and not due to simple upthrusting of crustal blocks. Periods of flood-basalt volcanism can develop impressive lava plateaus. One such lava upheaval, in Siberia 250 million years ago, has recently been determined3 to have risen from a depth of 1,800 miles. This lava originated in the super-hot zone near the Earth's core-mantle boundary. Reading 5748-6 said that "upheavals in the interior of the Earth" would begin in 1936. If these upheavals were also superheated plumes of buoyant plastic rock in the upper mantle, they could easily have taken 64 years until now (2000) to push overlying mantle rock to just below Earth's surface in the Arctic and Antarctic areas. The kinds of upheavals that reading 3976-15 predicted would occur in the polar zones seem well represented by the great (M8.2) Balleny Sea earthquake/upheaval of March 1998 in the Antarctica area, and in 1999 by the more than 200 earthquakes and inferred volcanic activity in the high Arctic in 1998-1999. C. Müller and W. Jokat (EOS, June 13, 2000, p. 265) state that "The detection of this earthquake swarm and the evidence for its volcanic origin is the first direct evidence of recent volcanic activity in the high Arctic;" that is, of upheavals in a portion of the Arctic close to the North pole. See our recent treatment of this subject in our article, “Tales From The December 2002 Meeting Of The American Geophysical Union.” In two articles appearing in the June 26,
2003, edition of the journal Nature, scientists supported by the
National Science Foundation (NSF) and the Deutsche
Forschungsgemeinschaft (DFG) present striking new results obtained
during a nine-week research cruise that lasted from August to October of
2001. The Gakkel extends 1770 kilometers (1100 miles) from north of Greenland to Siberia. It is the deepest and most remote portion of the global mid-ocean ridge system. Because the spreading rate decreases progressively towards Siberia, "we expected that the amount of melting and magma production would decrease as we worked our way from Greenland towards the east," said Peter Michael, the AMORE chief scientist from the University of Tulsa. Instead, the very first sampling station brought up fresh volcanic rock, and the new map published in Nature shows large, young volcanoes dominating the part of the ridge nearest Greenland.
"By contrast, the central portions of the ridge showed virtually no volcanism and large faults, as pieces of the Earth's mantle were emplaced directly on the sea floor," noted Henry Dick, who specializes in mantle materials. Even larger volcanic edifices appeared farther to the east. (This section on the AMORE is from a June 26, 2003, press release by NSF). Because previous studies of the Gakkel Ridge volcanism showed that the 1999 series of earthquakes was related to volcanism there, and because fresh lava has been recovered from the area as described above, it is clear that these upheavals in the Arctic were right on schedule, as predicterd in reading 3976-15. And note too that the Nature article cited above mentions that slabs of mantle are found in the Mid-Atlantic Ridge valley, indicating that this area of the Gakkel Ridge is a sensitive one indeed. Earth’s crust is very thin there, allowing pieces of upper mantle to be extruded, or “upheaved,” as implied in 3976-15. A striking example of an arctic upheaval causing the eruption of torrid-area volcanoes. Without addressing the nature of arctic “upheavals” at this time, it seems important to bring to readers’ attention the fact that certain torrid-area volcanoes seem recently to be showing increased activity. This activity may represent precursors to the imminent commencement of pole shift.
Reventador is a frequently erupting volcano. It sits almost exactly on the equator, and should therefore be a most sensitive indicator of the beginning of pole shift, as Earth’s mantle and crust starts to move ever so slightly over the equatorial bulge. Since the beginning of the 1958-1998 period, during which time reading 3976-15 also said that the Earth changes would begin to be apparent, Reventador has erupted five times (1958,1960,1972, 1973, and 1976). It began erupting strongly again on November 3, 2002. Guagua Pichincha, after having been quiescent for 100 years, erupted weakly in 1981, 1985, 1990, and 1993. Magmatic eruptions occurred again in October 1999. Intermittent eruptions of varying scale since then have blanketed Quito and surrounding towns with ash. Explosions occurred at Guagua Pichincha on November 3. Ash plumes could not be distinguished from those of Reventador, which was also erupting that week. Tungurahua began erupting in October of 1999. It had last erupted in 1944. How Can Polar Upheavals Cause Torrid-Area Volcanic Eruptions? Earth's torrid areas lie roughly between the Tropics of Cancer and Capricorn, or approximately latitudes 23.5°N and 23.5°S of the equator, respectively. Once again, Halaliel's message, as channeled through Cayce in reading 3976-15 says:
Stated clearly here is the proposition that eruptions of volcanoes in the torrid areas can be induced by crustal upheavals in the arctic and antarctic. This seems to imply that upheavals in the polar regions must be of sufficient magnitude to reflect deeper unbalancing of the rotating Earth. Sufficient unbalancing will cause the poles to begin to try to shift. Such activity will cause volcanoes located upon, or to either side of, the equatorial bulge in the torrid areas to erupt in response to the incipient pole shift. The closer an equatorial volcano is to the shift meridian (longitudes along which the poles will appear to move) the greater its eruptive response will be. (One can read about the shift meridian in “ A Small Pole Shift Can Produce Most, If Not All, Of The Earth Changes Predicted In Cayce's Readings”).Any attempt of the overlying mantle and crust to move over or away from the equatorial bulge will cause sufficient disturbance to cause magma to rise into many of the torrid-area volcanoes. Volcanoes closest to the eventual shift meridian could be expected to be the most eruptive. We believe that the shift meridian will be close to the 60º W longitude; see our article entitled Calibrating The Hutton Commentaries' Model For a 1° Pole Shift to 89.0°N. This is important because Ecuador’s volcanoes are within 18º of the 60º W longitude. The idea here is that, as a region of the crust and mantle straddling the incipient shift meridian tries to move toward the equator, it must cover a somewhat larger area (or, in three-dimensions, fill a greater volume). But there is insufficient material available to do so. On the other hand, any torrid-area mass trying to move away from the equator is subjected to contraction, as there is an excess of material available. In regions of existing torrid-area volcanism, such disturbances of the crust and mantle related to pole shift would be sufficient to facilitate magma flows. Such magma flows would very often lead to eruptions through paths of least resistance in the crust. These would be paths through incipient fractures and existing volcanoes. Old fractures could also be reactivated, allowing magma to move through them. J. Campbell did some provocative work on shift of the mantle and crust over the equatorial bulge for C. Hapgood's book entitled, “The Path of the Pole” (1970, Chilton Book Co., New York). For example, consider Figure 8 below, adapted from Fig. 34 in Hapgood's book. The figure shows diagrammatically the pattern of faulting and folding during displacement of the crust and mantle. Only one meridional fault (the shift meridian) is shown, which is moving toward the equator in the northern hemisphere. The dotted lines indicate other faults opening from the bottom of the crust as the arc of the surface diminishes. Across the equator, where the crust is moving toward the pole, and compression is resulting, the continuation of the major expansion fault is shown as a pressure ridge. Dashed and solid vertical lines designate other crustal fractures that may be expected to parallel the major meridional fracture. |
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| Figure 8. Fractures resulting from movement of the mantle and crust over the equatorial bulge. |
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Now we have just been talking about the incipient motion of the mantle and crust over the equatorial bulge. Magma can follow paths through fractures under stress; fractures that are trying to begin to open fully from the bottom of the lithosphere in the quadrant moving toward the equator, and through fractures trying to open fully through the top of the lithosphere. Pre-existing volcanoes that are already magma conduits will tend to erupt first. For our hypothesized global shift meridian of 60.0°W and 120°E, the most eruptive volcanoes will be those in a broad torrid-area region from Indonesia and the Andaman Islands, eastward to the Philippines, New Guinea, New Britain, and the Bismark Archipelago. Note that the 120°E shift meridian is within only 15° of the super-eruptive volcano of Krakatau and within only 2° of Tambora. In the Western Hemisphere, the most sensitive and eruptive volcanoes will be those extending from southern Mexico, central America, and the Caribbean Leeward Islands, to the Galapagos Islands, Columbia, Ecuador, Peru, Bolivia, and northernmost Chile and Argentina in South America. The subset of volcanoes that will erupt most vigorously will tend to be those closest to the equator in the torrid areas, as well as those nearest to the shift meridian. Thus, the volcanoes of Indonesia and Ecuador (includes the Galapagos Islands) are the centers of the most dangerous volcano regions in their respective hemispheres. Remember here that there are two volcanoes capable of super-eruptions that are now in early eruptive phases on the opposite side of the Earth. They are Pago (5.6°S, 150.5°E) and Rabaul (4.3°S and 152.2°E). Both are on the island of New Britain. The Alaskan earthquake’s connection to Ecuador’s volcanic eruptions We have always used the 63°N latitude as the southern boundary of the “arctic” region for the purpose of checking for “upheavals in the arctic and antarctic” (reading 3976-15). Note that the epicenter of the Alaskan earthquake of November 3, 2002 was slightly north of this latitude, at 63.47°N. At M 7.9, this huge quake - with its accompanying robust aftershock series and 65-mile-long rupture zone - certainly qualifies as an upheaval in the arctic. Is it just a coincidence that Reventador erupted three or four times on November 3 and 4? Do we not have here the near-perfect sequence of an upheaval in the arctic coinciding with the eruption of a torrid area volcano? And along with the eruption of Guagua Pichincha on November 3 we seem to have a perfect match. That is, an upheaval in the arctic and the eruption of torrid area volcanoes (plural). The match is not completely perfect, however, if one looks at the timing of the Alaskan quake relative to the eruption of Reventador. The huge Alaskan quake occurred at 22:12:41 UTC (Universal Time, Coordinated: 22 hr, 12 min., 41 sec), on November 3, 2002. Within 20 minutes, the quake’s seismic waves reached the most distant points on the planet from the focus of the quake beneath Earth’s surface. The initial large eruption at Reventador - the first in 26 years - occurred close to 14 hrs UTC. This was about 8 hours before the big quake occurred in Alaska. Note, however, that a strong M 6.7 foreshock of the M 7.9 quake occurred 11 days earlier, on October 23. This was followed by a number of additional foreshocks (in the M 3.0-3.9 and 4.0-4.6-ranges) that occurred up until the mainshock of November 3. Guagua Pichincha’s eruption occurred close to 01:45:00 UTC, on November 4, about three and one half hours after the massive Alaskan earthquake. This is more in keeping with an impulse-response type of model that derives from a straightforward reading of 3976-15; that is, a model in which an upheaval in the arctic or antarctic will cause an almost immediate eruption of one or more volcanoes in the torrid areas. But consider just below the operation of a less tightly time-constrained impulse-response model for the general eruptions of Ecuador’s torrid-area volcanoes, due to crustal or volcanic upheavals in the arctic and antarctic. Tungurahua exhibited various eruptive activities during the October 30 - November 5, 2002 reporting period. This volcano, however, had begun its eruptive activity in October 1999 (its first since 1925). Guagua Pichincha also began its present eruptive cycle in October of 1999. These volcanoes’ eruptions may have been initiated by the more than 200 light-to-moderate earthquakes that were measured between January and August of 1999, along the submerged Gakkel Ridge in the high arctic (centered roughly at 85.7ºN, 81.4ºE). (The submarine volcanism [another kind of “upheavals”] that accompanied these quakes has now been well documented). Then again, perhaps it was the great (M 8.2) Balleny Sea earthquake off Antarctica that caused Guagua Pichincha and Tungurahua to begin to erupt in concert. This quake took place in March 1998, and was the largest ever detected within an oceanic crustal plate. Its location and great strength were completely unexpected by the world’s seismologists. |
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Article Summary The message of the Alaskan quake and Ecuador’s newly erupting volcanoes seems clear. Three of Ecuador’s volcanoes are erupting simultaneously. Two of these began erupting about the same time as the Alaskan quake. To those of us who follow the Cayce readings these events have to be taken as a sign that the poles may be about to shift. Earth changes accompanying the pole shift will be catastrophic. The initial days of the pole shift seem described in parts of 3976-15.
These historically unprecedented Earth changes might occur over several hundreds of years. This is so because geological evidence of tectonic, volcanologic, and seismic activity during the period from about 19,000 to 8,000 years ago shows that such pronounced Earth-change activity occurred many times, in several-hundred-year-long stretches. And that past activity was a follow on, presumably, to the pole shift that began [if the Cayce readings are correct and if I have reasoned correctly from them] around 19,400 years ago. We thus could expect the same sort of duration of continuing planetary effects to coincide with, and follow, the predicted pole shift. |
AFTERWORD
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A Possibly Genuine Message From Archangel Halaliel On
Is it possible for one to obtain an update of Cayce reading 3976-15, in which Cayce channeled archangel Halaliel? (That 1934 reading is the considered to be the best of all of the Cayce readings on pole shift and Earth changes. See “ The Sources And Veracity Of Edgar Cayce’s Readings - Part 2”). - “Impossible,” you say. “Blasphemous!” says another. “Why not try,” says a third.Well, we did try, on February 12, 2003. “We,” in this case, consists of a Hutton Commentaries subscriber living in Virginia Beach, Virginia, and Jon Fox, a rather well known psychic living in Nevada City, California. Jon Fox channels an Ascended Master called Hilarion. One can read about Hilarion and Jon Fox on Fox’s web site at http://www.hilarion.com. In the reading that follows, the requestor called Fox on the telephone. Mr. Fox then responded to questions while using a head set. This was a pre-arranged call. Mr. Fox had no idea as to what the questions were going to be. The reading itself was taped by the requestor in Virginia and simultaneously in Fox’s office in California. Two days later, I received a duplicate tape of the portion pertaining to Fox’s channeling of Halaliel. Mr. Fox speaks quite rapidly when channeling. This fact, together with the knowledge that the requestor’s questions were unknown to Fox before connecting with him by phone, assures me that no advance preparation of “an Halaliel message” could have been done by Fox. To obtain a useful answer, it is extremely important to frame one’s question properly. In the present case, the question was, One of Edgar Cayce's sources was a being identifying himself as archangel Halaliel, spelled H-A-L-A-L-I-E-L. Could you possibly tell me a little bit more about this being, Halaliel, and, if possible, allow him to speak through Jon on the present outlook for Earth changes, particularly on a pole shift, with emphasis on possible dates for same? Here, after a brief pause, is the answer from Hilarion, and then, slightly later, Halaliel speaks:
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Lander, J. F., and Others,
1993, National Geophysical Data Center, Boulder, CO 80303, 242 pp.
<back>
Calderas are caused by
eruptions that are among the largest of volcanic explosions, ejecting tens to
hundreds of cubic kilometers of magma. After such large volumes are ejected
from volcanoes, the ground collapses into empty spaces to form huge
depressions, or "calderas." <back>
Science Daily Magazine, 07/25/98, on the Web. <back>
| Picture Credits: | The painting of Vesuvius is from a private collection. It was published in: van Rose, S., and I. Mercer, 1991, Volcanoes, ISBN 0-674-94307-4. |
| The photo of Mt. Pelee is also from van Rose and Mercer. | |
| The 1984 photo of Kilauea in eruption is from Tilling, R.I., and Others, 1993, Eruptions of Hawaiian Volcanoes, US GPO 358-906. | |
| The 1985 photo of Kilauea is adapted from USGS Hawaiian Volcano Observatory website |
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