Suggest you look on a search engine for
The Wilkinson Microwave Anisotropy Probe (WMAP) provided detailed measurements of the cosmic microwave background radiation, offering crucial evidence for the Big Bang theory. It mapped temperature fluctuations across the sky, revealing the density variations in the early universe that would later give rise to galaxies and large-scale structures. WMAP's findings helped refine estimates of key cosmological parameters, including the age, composition, and expansion rate of the universe. Its data significantly advanced our understanding of cosmic evolution and the overall structure of the universe.
The cosmic microwave background radiation, observed by satellites like the Planck and WMAP, provides strong evidence for the Big Bang theory. This radiation is a remnant from the early universe and supports the idea of an expanding universe from a hot, dense state. Additionally, the observation of redshift in galaxies, studied using telescopes like Hubble, confirms the universe's expansion and supports the Big Bang model.
It was used for the seats
what was used for lighting in the 1600's
The Data from VLBI can be used for various vital data such as spreedsheets, information that can be used for today.
There are many discoveries in physics that can be used as examples. The best would be the WMAP mission which discovered that the cosmic microwave background radiation fit the theoretical model almost perfectly.
The Wilkinson Microwave Anisotropy Probe (WMAP) provided detailed measurements of the cosmic microwave background radiation, offering crucial evidence for the Big Bang theory. It mapped temperature fluctuations across the sky, revealing the density variations in the early universe that would later give rise to galaxies and large-scale structures. WMAP's findings helped refine estimates of key cosmological parameters, including the age, composition, and expansion rate of the universe. Its data significantly advanced our understanding of cosmic evolution and the overall structure of the universe.
The work provided even more additional evidence to support the Big Bang theory of the universe.It was also regarded as the starting point for cosmologyas a precision science.
The discovery and mapping of the Cosmic Microwave Background Radiation (CMBR) via WMAP mission has been interpreted as being left over from the Big Bang. It provides support for the hypothesis of a hot dense state at the beginning and also provided measurements to explain that galactic clusters are still moving away from each other at an ever increasing acceleration. WMAP's measurements played the key role in establishing the current Standard Model of Cosmology: the Lambda-CDM model. In the Lambda-CDM model of the observable universe, the age of the observable universe is 13.772 ± 0.059 billion years.
If the inflation hypothesis is correct, then there are constraints on the size of aninsotropiesin the CMBR. Specifically, no "hot" or "cold" spot can be greater than one degree in size. Five years of data from WMAP have shown clear agreement between the predictions of inflation theory and the actual anisotropies.
We do not know the exact age of the universe, only its age to within some margin of error. As more and better data becomes available, the size of that error range will decrease. According to the most accurate data available today (January 2009), the age of the universe is 13.73 ± 0.12 billion years old. This means that we can state with a great level of confidence that the universe is somewhere between 13.61 and 13.85 billion years old. (That's "billion" with a b, not "million." There are a thousand millions in a billion, so as big a number as a million is, it's only one-thousandth of a billion. There are slightly more than 6 billion people on the Earth.) The most reliable data comes from WMAP (Wilkinson Microwave Anisotropy Probe), which is an earth-orbiting satellite that studies the cosmic microwave background radiation, a relic of the Big Bang, although this is supplemented by other data from observations of supernova explosions and of the recession speeds of distant galaxies. We may be able to narrow the range down even more as additional data is collected from WMAP, or once newer, more sensitive, instruments are launched. There are other experiments and other experiments which, while they do not yield values as precise as this, give us values which are consistent, and thus reinforce the WMAP data as being correct.
The cosmic microwave background radiation, observed by satellites like the Planck and WMAP, provides strong evidence for the Big Bang theory. This radiation is a remnant from the early universe and supports the idea of an expanding universe from a hot, dense state. Additionally, the observation of redshift in galaxies, studied using telescopes like Hubble, confirms the universe's expansion and supports the Big Bang model.
In the worldview of Universal Vortical Singularity, the entire observable universe is a spheroidal vortex, and this is empirically observed as the COBE temperature map of the CMBR dipole by the WMAP satellite. Evidently, vortex phenomena in the universe are ubiquitous from the microcosms to the microcosms. See a web site at www.uvs-model.com for the entire illustration for vortices of the universe.
Best pictorial representation of the Big Bang Theory is the extension of the Wilkinson Microwave Anisotropy Probe (WMAP) mapping of the Cosmic Microwave Background Radiation (CMBR) barrier, known online as the Graphical Timeline of the Big Bang.
While playing Shop Empire 2 you may notice that there is sometimes a customer will pop up wearing a red headband. These people are villians and like to litter. To rid your mall of them, simply have security guards hired during the day; they will take care of the these nasty villians! See below... https://webmail.eq.edu.au/iwc/svc/wmap/attach/Hints.png?token=fwFDKMgyrz&mbox=INBOX&uid=183&number=4&type=image&subtype=x-png&process=html%2Cjs%2Clink%2Ctarget%2Cbinhex&filename=Hints.png
Both the Red and Blue shifts are qualities of the doppler effect. Expansion of the universe is demonstrated via the redshift of galactic clusters (outside of the local galactic cluster which hosts the Milky Way galaxy). Contraction (or attraction) of interlocal galactic clusters is demonstrated via the blue shift. Edwin Hubble, using the Hubble telescope, is credited with the discovery that the distances to far away galaxies were generally proportional to their redshifts (as in the doppler effect); an idea which was originally predicted by Lemaître in 1927. Hubble's observation was taken to indicate that all very distant galaxies and clusters have an apparent velocity directly away from our vantage point: the farther away, the higher the apparent velocity. The discovery and mapping of the Cosmic Microwave Background Radiation (CMBR) via WMAP mission has been interpreted as being left over from the Big Bang. It provides support for the hypothesis of a hot dense state at the beginning and also provided measurements to explain that galactic clusters are still moving away from each other at an ever increasing acceleration. WMAP's measurements played the key role in establishing the current Standard Model of Cosmology: the Lambda-CDM model. In the Lambda-CDM model of the observable universe, the age of the observable universe is 13.772 ± 0.059 billion years.
Edwin Hubble, using the Hubble telescope, is credited with the discovery that the distances to far away galaxies were generally proportional to their redshifts (as in the doppler effect); an idea which was originally predicted by Lemaître in 1927. Hubble's observation was taken to indicate that all very distant galaxies and clusters have an apparent velocity directly away from our vantage point: the farther away, the higher the apparent velocity. Other supportive evidence for the big bang Theory - Cosmic Microwave Background Radiation has been discovered via WMAP mission and it is suggested that this has been left over from the Big Bang and galactic clusters are still moving away from each other at an ever increasing acceleration. WMAP's measurements played the key role in establishing the current Standard Model of Cosmology: the Lambda-CDM model. In the Lambda-CDM model of the observable universe, the age of the observable universe is 13.772 ± 0.059 billion years.