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Fahrenheit 666: The Archons Society
Author: Judson Wallace
Completed · 24.3K Views
Synopsis
Solomon never expected to hurt anyone. He works in a library because he loves books, and the worlds they paint for him. He is a quiet kid, used to being pushed around in school by the very people he is drawn to – books were his escape from homophobes. Living in a small town isn't easy when you're different, and it gets worse when a new gang makes its presence known. Something is off about these kids, and nobody seems to be able to stop them. Solomon finds himself their newest target. When he and his friends take refuge in the library one evening, they discover a passage to a hidden vault. A spirit appears to them and gives them a chance to fight, but incredible knowledge always comes with a price. They must each decide if they will want to stand up to their new bullies, or cower in the stacks forever. Together, they become the The Archon Society. Fahrenheit 666: The Archon Society is created by Judson Scott Wallace, an eGlobal Creative Publishing signed author.
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Daoist162403
Daoist162403
2019-06-28

Earth’s core is the very hot, very dense center of our planet. The ball-shaped core lies beneath the cool, brittle crustand the mostly-solid mantle. The core is found about 2,900 kilometers (1,802 miles) below Earth’s surface, and has a radius of about 3,485 kilometers (2,165 miles).   Planet Earth is older than the core. When Earth was formed about 4.5 billion years ago, it was a uniform ball of hot rock. Radioactive decay and leftover heat from planetary formation (the collision, accretion, and compression of space rocks) caused the ball to get even hotter. Eventually, after about 500 million years, our young planet’s temperature heated to the melting point of iron—about 1,538° Celsius (2,800° Fahrenheit). This pivotal moment in Earth’s history is called the iron catastrophe.   The iron catastrophe allowed greater, more rapid movement of Earth’s molten, rocky material. Relatively buoyantmaterial, such as silicates, water, and even air, stayed close to the planet’s exterior. These materials became the early mantle and crust. Droplets of iron, nickel, and other heavy metals gravitated to the center of Earth, becoming the early core. This important process is called planetary differentiation.   Earth’s core is the furnace of the geothermal gradient. The geothermal gradient measures the increase of heat and pressure in Earth’s interior. The geothermal gradient is about 25° Celsius per kilometer of depth (1° Fahrenheit per 70 feet). The primary contributors to heat in the core are the decay of radioactive elements, leftover heat from planetary formation, and heat released as the liquid outer core solidifies near its boundary with the inner core.    Unlike the mineral-rich crust and mantle, the core is made almost entirely of metal—specifically, iron and nickel. The shorthand used for the core’s iron-nickel alloys is simply the elements’ chemical symbols—NiFe.    Elements that dissolve in iron, called siderophiles, are also found in the core. Because these elements are found much more rarely on Earth’s crust, many siderophiles are classified as “precious metals.” Siderophile elements include gold, platinum, and cobalt.    Another key element in Earth’s core is sulfur—in fact 90% of the sulfur on Earth is found in the core. The confirmed discovery of such vast amounts of sulfur helped explain a geologic mystery: If the core was primarily NiFe, why wasn’t it heavier? Geoscientists speculated that lighter elements such as oxygen or silicon might have been present. The abundance of sulfur, another relatively light element, explained the conundrum.   Although we know that the core is the hottest part of our planet, its precisetemperatures are difficult to determine. The fluctuating temperatures in the core depend on pressure, the rotation of the Earth, and the varying composition of core elements. In general, temperatures range from about 4,400° Celsius (7,952° Fahrenheit) to about 6,000° Celsius (10,800° Fahrenheit).   The core is made of two layers: the outer core, which borders the mantle, and the inner core. The boundary separating these regions is called the Bullen discontinuity.    Outer Core   The outer core, about 2,200 kilometers (1,367 miles) thick, is mostly composed of liquid iron and nickel. The NiFe alloy of the outer core is very hot, between 4,500° and 5,500° Celsius (8,132° and 9,932° Fahrenheit).    The liquid metal of the outer core has very low viscosity, meaning it is easily deformed and malleable. It is the site of violent convection. The churning metal of the outer core creates and sustains Earth’s magnetic field.   The hottest part of the core is actually the Bullen discontinuity, where temperatures reach 6,000° Celsius (10,800° Fahrenheit)—as hot as the surface of the sun.   Inner Core   The inner core is a hot, dense ball of (mostly) iron. It has a radius of about 1,220 kilometers (758 miles). Temperature in the inner core is about 5,200° Celsius (9,392° Fahrenheit). The pressure is

Daoist162403
Daoist162403
2019-07-13

Earth’s core is the very hot, very dense center of our planet. The ball-shaped core lies beneath the cool, brittle crustand the mostly-solid mantle. The core is found about 2,900 kilometers (1,802 miles) below Earth’s surface, and has a radius of about 3,485 kilometers (2,165 miles).   Planet Earth is older than the core. When Earth was formed about 4.5 billion years ago, it was a uniform ball of hot rock. Radioactive decay and leftover heat from planetary formation (the collision, accretion, and compression of space rocks) caused the ball to get even hotter. Eventually, after about 500 million years, our young planet’s temperature heated to the melting point of iron—about 1,538° Celsius (2,800° Fahrenheit). This pivotal moment in Earth’s history is called the iron catastrophe.   The iron catastrophe allowed greater, more rapid movement of Earth’s molten, rocky material. Relatively buoyantmaterial, such as silicates, water, and even air, stayed close to the planet’s exterior. These materials became the early mantle and crust. Droplets of iron, nickel, and other heavy metals gravitated to the center of Earth, becoming the early core. This important process is called planetary differentiation.   Earth’s core is the furnace of the geothermal gradient. The geothermal gradient measures the increase of heat and pressure in Earth’s interior. The geothermal gradient is about 25° Celsius per kilometer of depth (1° Fahrenheit per 70 feet). The primary contributors to heat in the core are the decay of radioactive elements, leftover heat from planetary formation, and heat released as the liquid outer core solidifies near its boundary with the inner core.    Unlike the mineral-rich crust and mantle, the core is made almost entirely of metal—specifically, iron and nickel. The shorthand used for the core’s iron-nickel alloys is simply the elements’ chemical symbols—NiFe.    Elements that dissolve in iron, called siderophiles, are also found in the core. Because these elements are found much more rarely on Earth’s crust, many siderophiles are classified as “precious metals.” Siderophile elements include gold, platinum, and cobalt.    Another key element in Earth’s core is sulfur—in fact 90% of the sulfur on Earth is found in the core. The confirmed discovery of such vast amounts of sulfur helped explain a geologic mystery: If the core was primarily NiFe, why wasn’t it heavier? Geoscientists speculated that lighter elements such as oxygen or silicon might have been present. The abundance of sulfur, another relatively light element, explained the conundrum.   Although we know that the core is the hottest part of our planet, its precisetemperatures are difficult to determine. The fluctuating temperatures in the core depend on pressure, the rotation of the Earth, and the varying composition of core elements. In general, temperatures range from about 4,400° Celsius (7,952° Fahrenheit) to about 6,000° Celsius (10,800° Fahrenheit).   The core is made of two layers: the outer core, which borders the mantle, and the inner core. The boundary separating these regions is called the Bullen discontinuity.    Outer Core   The outer core, about 2,200 kilometers (1,367 miles) thick, is mostly composed of liquid iron and nickel. The NiFe alloy of the outer core is very hot, between 4,500° and 5,500° Celsius (8,132° and 9,932° Fahrenheit).    The liquid metal of the outer core has very low viscosity, meaning it is easily deformed and malleable. It is the site of violent convection. The churning metal of the outer core creates and sustains Earth’s magnetic field.   The hottest part of the core is actually the Bullen discontinuity, where temperatures reach 6,000° Celsius (10,800° Fahrenheit)—as hot as the surface of the sun.   Inner Core   The inner core is a hot, dense ball of (mostly) iron. It has a radius of about 1,220 kilometers (758 miles). Temperature in the inner core is about 5,200° Celsius (9,392° Fahrenheit). The pressure is

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Is Fahrenheit 451 a novel?
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2024-10-16 01:35
Yes, Fahrenheit 451 is indeed a novel. It was written by Ray Bradbury and is considered a classic in dystopian literature.
Is Fahrenheit 51 fiction?
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2024-10-12 21:34
Yes, Fahrenheit 51 is fiction. It's a dystopian novel written by Ray Bradbury that imagines a future where books are banned and burned.
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Yes, Fahrenheit 451 is a novel. It was written by Ray Bradbury and is considered a classic in literature.
The difference between foreshadowing and foreshadowing
1 answer
2024-08-07 07:46
Foreshadowing and foreshadowing were two commonly used techniques in novels, both of which were used to leave more room for the reader's imagination and clues for the development of the plot. Their differences were mainly reflected in the following aspects: 1. Different goals. The purpose of foreshadowing was to reveal an unexpected secret or plot to surprise and shock the readers when the plot developed to a certain extent, while foreshadowing was to lead out the protagonist or the main plot to provide a background and tone for the whole story. 2. Different ways of expression. Foreshadowing usually appeared in the front or middle of the story to let the reader gradually discover the answer in the process of plot development through hints, metaphor, reversal, etc., while foreshadowing usually provided the reader with a background and tone through description or description in the front or middle of the story. 3. Different scope of effect. Foreshadowing was usually used to surprise and shock the readers at the beginning or middle of the story, while foreshadowing was usually used to provide the readers with a background and tone as well as lay the foundation for the development of the story. 4. Different timing. Foreshadowing usually appeared in the front or middle of the story, which required the reader to have a certain amount of pre-judgment and guess, while foreshadowing usually appeared in the front or middle of the story, which required the reader to have a certain understanding of the story. Foreshadowing and foreshadowing were two commonly used techniques in novels. Their purpose, way of expression, scope of effect, and timing were different, and they needed to be used flexibly according to the specific plot.
Is Fahrenheit 451 a dystopian novel?
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2024-10-10 07:21
Yes, Fahrenheit 451 is definitely a dystopian novel. It presents a disturbing future society where books are banned and censorship is rampant.
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