Taken with the orbiting Chandra Observatory, it shows the hottest, most violent objects in the galaxy: black holes gobbling down matter, gas heated to millions of degrees by dense, whirling neutron stars, and the high -
energy radiation from stars that have exploded, sending out vast amounts of material that slam into surrounding gas, creating shock waves that heat the gas tremendously, generating X-rays.
Not exact matches
These include the products of radioactive decay, cosmic rays (the highest -
energy form of electromagnetic
radiation known to man), and the stellar wind, a stream of particles that fly out
from any
star as it continuously burns.
4s) then photons erupted
from this
energy cloud (detectable today as the microwave background
radiation) 5s) photons and other particles form the bodies of the early universe (atoms, molecules,
stars, planets, galaxies) 6s) it rained on the early earth until it was cool enough for oceans to form 7s) the first life form was blue green bacteria.
Secondly, that this light and stable «cream» of any given
star, having escaped beyond the reach of the tempest of
energy blazing at the heart of the parent - body, may yet remain sufficiently close to it to derive a moderate benefit
from its
radiations: for the large molecules need
energy for their synthesis.
4) then photons erupted
from this
energy 4) let there be LIGHT (1 - 4 all the first day) cloud (detectable today as the microwave background
radiation) 5) photons and other particles form the 5) God next creates the heavens (what we call the sky) above bodies of the early universe (atoms, (2nd day) molecules,
stars, planets, galaxies) 6) it rained on the early earth until it was 6) dry land appears as the oceans form (3rd day) cool enough for oceans to form 7) the first life form was blue green bacteria.
The country's newest space lab, Tiangong - 2, for example, hosts a number of scientific payloads, including an advanced atomic clock and a $ 3.4 - million detector called POLAR for the study of γ - ray bursts — blasts of high -
energy radiation from collapsing
stars and other sources.
But it has been unclear whether that dust is heated by the
energy created as matter gets sucked into the black hole, or by
radiation from newly born
stars.
But the high -
energy radiation from the source has shown no sign of dying down, which suggests that astronomers may have caught a
star in the process of being ripped to shreds by a black hole.
The formation of a stratosphere layer in a planet's atmosphere is attributed to «sunscreen» - like molecules, which absorb UV and visible
radiation coming
from the
star and then release that
energy as heat.
In follow - up observations
from Kitt Peak National Observatory and the Lick Observatory, his team found 20 galaxies that had gas that was ionized by
radiation from a quasar, rather than
from the
energy of
star formation.
Star, any massive self - luminous celestial body of gas that shines by
radiation derived
from its internal
energy sources.
In this artist's rendering, jets of high -
energy radiation shoot out
from a Gamma - ray burst, signaling the death of a massive
star.
So while it's true that organisms living deep in the Earth are not exposed to the high -
energy radiation found when you travel between planets or more hypothetically between
stars, the systems that cells have evolved to repair damage done by reactive oxygen species will be useful whether they arise
from rocks or
from cosmic rays.
The formation of a stratosphere layer in a planet's atmosphere is attributed to «sunscreen» - like molecules, which absorb ultraviolet (UV) and visible
radiation coming
from the
star and then release that
energy as heat.
For about two weeks the
star could be seen in daylight, but at the end of November it began to fade and change color,
from bright white over yellow and orange to faint reddish light, finally fading away
from visibility in March, 1574, having been visible to the naked eye for almost 16 months (more about Brahe's «acid tongue and silver nose,» the cultural shock of the «new
star,» and how supernovae create high -
energy radiation from Wallace H. Tucker).
Like the main nebula M42, this is an emission nebula, shining by the light emitted
from its atoms, after being excited by the high -
energy radiation of massive, very hot young
stars within it.
We hqppen to have such a
star that delivers EM
energy to the bottom of the transparent atmosphere, and that
energy warms the bottom of the atmosphere by all the well known thermal processes, until the
energy loss rate, eventually limited by
radiation, matches the supply rate
from the
star.
Before the light (
radiation)
from star A has time to propagate to
star B (and vice versa), isn't it reasonable to say that
star A is radiating a quantifiable amount of
energy per unit time in the direction of
star B, and vice versa?