Showing posts with label Atlantis. Show all posts
Showing posts with label Atlantis. Show all posts

Sunday, June 23, 2024

Atlantic

Alaska
Atlantis
Atlántico
Colonel (Sanders)
Coronel
Alba Longa 
Alabastro 
Colombia

Psalms 55:22
“Cast thy burden upon the LORD, and he shall sustain thee: he shall never suffer the righteous to be moved.”

 
 




 
 
 

 
 
 Colonel Sanders 





Lucy SANDÍ
 
 
 
 
 

 

 

"kings break faith upon commodity"~~~Shakespeare

 

 

 

Alba Longa (Kimberly Chaves)

 

 

 











 
Chess: "Alaska" "Atlantis" "Atlántico" "Coronel" "Colonel Sanders" "Alba Longa" "Alabastro" "Colombia"

Saturday, November 4, 2023

Atlantis

Atlantis
Humus
Hummus
Atlantic
Marathon Man
Hummingbird
 
 Psalm25:9
"The meek will he guide in judgment: and the meek will he teach his way."
"Направляет Он кротких к правде и учит их пути Своему."
 
 
 

 
 
  

 
May be an image of 1 person May be an image of 1 person
 
 
 May be an image of text that says 'Horizons 0" Organic: 2" Surface: A 10" Subsoil: B 30" Substratum: c 48" Bedrock: R' 
Humus
 
 
 
 
No photo description available.
 Hummus
 
 
Chess: "Atlantis" "Atlantic" "Humus" "Hummus" "Marathon Man" "Hummingbird"

Friday, December 5, 2014

Atlantic

Atlas: Sosthenes
Golden
El Dorado
Atlantic
Atlantis
Nugget
Hold
Sieve
James Bond
Hook

1 Cor.1:1
"Paul, called to be an apostle of Jesus Christ through the will of God, and Sosthenes our brother,"


James Bond in 'Goldfinger' (1964).





  

Statua romana di Atlante (sec II d.C.). Già nella Collezione Farnese, oggi al Museo Archeologico Nazionale di Napoli.


Art Deco Heaven In the foreground is the 1936 statue of Atlas by Lee Lawrie and Rene Chambellan. The Art Deco statue greets visitors to 630 Rockefeller Center (the International Building) as well as passers-by. Through the spherical astrolabe on Atlas' shoulders, you can see 30 Rockefeller Center. "30 Rock", since 1988, is called the GE Building.  



Rockefeller Center, New York ~ Art Deco Heaven is the 1936 statue of Atlas by Lee Lawrie and Rene Chambellan. 





Eldorado



Eldorado



Eldorado



Chambre funéraire - deuxième sarcophage en bois doré orné de représentations d'isis et de Nephtys . La feuille d'or qui recouvre le sarcophage est richement ornée d'un motif avec des pierres semi-précieuses.






Tutankhamun and his sarcophagus covers



Colin O'Donoghue aka Captain Hook/Killian Jones Once Upon A Time 




 

  On Her Majesty's Secret
Servic




Chess:"Atlas: Sosthenes" "Golden" "Atlantic" "Atlantis" "El Dorado" "Nugget" "Hold" "Sieve" "James Bond" "Hook"

Wednesday, June 26, 2013

Georgia

Georgia
Granada
Atlantis
Vladimir
Punto "G"
Wild Wild West
Psalm 66:7
"He ruleth by his power for ever; his eyes behold the nations: let not the rebellious exalt themselves. Selah."

Cassius Clay

Granada

 
Granada



Alhambra, Granada, Spain

Chess: "Georgia" "Granada" "Atlantis" "Vladimir"  "Punto 'G'" "Wild Wild West"

Wednesday, May 27, 2009

Fitness Center

"Atlantic City"
"Atlantis"

"Charles Atlas"

Prov. 26:26

"Whose hatred is covered by deceit, his wickedness shall be shewed before the whole congregation."

Chess: "Atlantic City" "Atlantis" "Charles Atlas" "Fitness Center" "Probability" Atlas Shrugged

AtlasShrugged.jpg



Probability

Probability is a way of expressing knowledge or belief that an event will occur or has occurred. In mathematics the concept has been given an exact meaning in probability theory, that is used extensively in such areas of study as mathematics, statistics, finance, gambling, science, and philosophy to draw conclusions about the likelihood of potential events and the underlying mechanics of complex systems.

The word probability does not have a consistent direct definition. In fact, there are sixteen broad categories of probability interpretations, whose adherents possess different (and sometimes conflicting) views about the fundamental nature of probability:

  1. Frequentists talk about probabilities only when dealing with experiments that are random and well-defined. The probability of a random event denotes the relative frequency of occurrence of an experiment's outcome, when repeating the experiment. Frequentists consider probability to be the relative frequency "in the long run" of outcomes.[1]
  2. Bayesians, however, assign probabilities to any statement whatsoever, even when no random process is involved. Probability, for a Bayesian, is a way to represent an individual's degree of belief in a statement, or an objective degree of rational belief, given the evidence.
The word Probability derives from probity, a measure of the authority of a witness in a legal case in Europe, and often correlated with the witness's nobility. In a sense, this differs much from the modern meaning of probability, which, in contrast, is used as a measure of the weight of empirical evidence, and is arrived at from inductive reasoning and statistical inference.[

The scientific study of probability is a modern development. Gambling shows that there has been an interest in quantifying the ideas of probability for millennia, but exact mathematical descriptions of use in those problems only arose much later.

According to Richard Jeffrey, "Before the middle of the seventeenth century, the term 'probable' (Latin probabilis) meant approvable, and was applied in that sense, univocally, to opinion and to action. A probable action or opinion was one such as sensible people would undertake or hold, in the circumstances."[4] However, in legal contexts especially, 'probable' could also apply to propositions for which there was good evidence.[5]

Aside from some elementary considerations made by Girolamo Cardano in the 16th century, the doctrine of probabilities dates to the correspondence of Pierre de Fermat and Blaise Pascal (1654). Christiaan Huygens (1657) gave the earliest known scientific treatment of the subject. Jakob Bernoulli's Ars Conjectandi (posthumous, 1713) and Abraham de Moivre's Doctrine of Chances (1718) treated the subject as a branch of mathematics. See Ian Hacking's The Emergence of Probability and James Franklin's The Science of Conjecture for histories of the early development of the very concept of mathematical probability.

The theory of errors may be traced back to Roger Cotes's Opera Miscellanea (posthumous, 1722), but a memoir prepared by Thomas Simpson in 1755 (printed 1756) first applied the theory to the discussion of errors of observation. The reprint (1757) of this memoir lays down the axioms that positive and negative errors are equally probable, and that there are certain assignable limits within which all errors may be supposed to fall; continuous errors are discussed and a probability curve is given.

Pierre-Simon Laplace (1774) made the first attempt to deduce a rule for the combination of observations from the principles of the theory of probabilities. He represented the law of probability of errors by a curve y = φ(x), x being any error and y its probability, and laid down three properties of this curve:

  1. it is symmetric as to the y-axis;
  2. the x-axis is an asymptote, the probability of the error \infty being 0;
  3. the area enclosed is 1, it being certain that an error exists.

He also gave (1781) a formula for the law of facility of error (a term due to Lagrange, 1774), but one which led to unmanageable equations. Daniel Bernoulli (1778) introduced the principle of the maximum product of the probabilities of a system of concurrent errors.

The method of least squares is due to Adrien-Marie Legendre (1805), who introduced it in his Nouvelles méthodes pour la détermination des orbites des comètes (New Methods for Determining the Orbits of Comets). In ignorance of Legendre's contribution, an Irish-American writer, Robert Adrain, editor of "The Analyst" (1808), first deduced the law of facility of error,

\phi(x) = ce^{-h^2 x^2},

h being a constant depending on precision of observation, and c a scale factor ensuring that the area under the curve equals 1. He gave two proofs, the second being essentially the same as John Herschel's (1850). Gauss gave the first proof which seems to have been known in Europe (the third after Adrain's) in 1809. Further proofs were given by Laplace (1810, 1812), Gauss (1823), James Ivory (1825, 1826), Hagen (1837), Friedrich Bessel (1838), W. F. Donkin (1844, 1856), and Morgan Crofton (1870). Other contributors were Ellis (1844), De Morgan (1864), Glaisher (1872), and Giovanni Schiaparelli (1875). Peters's (1856) formula for r, the probable error of a single observation, is well known.

In the nineteenth century authors on the general theory included Laplace, Sylvestre Lacroix (1816), Littrow (1833), Adolphe Quetelet (1853), Richard Dedekind (1860), Helmert (1872), Hermann Laurent (1873), Liagre, Didion, and Karl Pearson. Augustus De Morgan and George Boole improved the exposition of the theory.

Andrey Markov introduced the notion of Markov chains (1906) playing an important role in theory of stochastic processes and its applications.

The modern theory of probability based on the meausure theory was developed by Andrey Kolmogorov (1931).