
Chapter 1
... 5.1.1.3. denominator – for , the integer in the bottom: b b a 5.1.1.4. proper fraction – a fraction , where 0 | a | | b | b a 5.1.1.5. improper fraction – in general a fraction , where | a | | b | > 0 b 5.1.1.6. equivalent fractions – when one fraction is a multiple of another fraction 5.1.1.7 ...
... 5.1.1.3. denominator – for , the integer in the bottom: b b a 5.1.1.4. proper fraction – a fraction , where 0 | a | | b | b a 5.1.1.5. improper fraction – in general a fraction , where | a | | b | > 0 b 5.1.1.6. equivalent fractions – when one fraction is a multiple of another fraction 5.1.1.7 ...
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... and closed under modus ponens and necessitation rules. Also, the modal operator diamond is defined as A := ¬¬A. Let Λ be any normal modal logic. We write ` A to mean Λ ` A, or wff A ∈ Λ, or A is a theorem of Λ. In addition, for any set ∆, ∆ ` A means there is a finite sequence of wff’s such that ...
... and closed under modus ponens and necessitation rules. Also, the modal operator diamond is defined as A := ¬¬A. Let Λ be any normal modal logic. We write ` A to mean Λ ` A, or wff A ∈ Λ, or A is a theorem of Λ. In addition, for any set ∆, ∆ ` A means there is a finite sequence of wff’s such that ...
[Part 2]
... 1. H. W. Gould, "Equal Products of Generalized Binomial Coefficients," Fibonacci Quarterly, Vol. 9, No. 4 (1971), pp. 337-346. 2. H. W. Gould, D. C. Rine, and W. L. Scharff, "Algorithm and Computer P r o g r a m for the Determination of Equal Products of Generalized Binomial Coefficients, Tf to be p ...
... 1. H. W. Gould, "Equal Products of Generalized Binomial Coefficients," Fibonacci Quarterly, Vol. 9, No. 4 (1971), pp. 337-346. 2. H. W. Gould, D. C. Rine, and W. L. Scharff, "Algorithm and Computer P r o g r a m for the Determination of Equal Products of Generalized Binomial Coefficients, Tf to be p ...
Rules for Multiplication
... The equations 4 ∙ 0 = 0 and 0 ∙ 4 = 0 illustrate the multiplicative property of zero: When one (or at least one) of the factors of a product is zero, the product itself is zero. ...
... The equations 4 ∙ 0 = 0 and 0 ∙ 4 = 0 illustrate the multiplicative property of zero: When one (or at least one) of the factors of a product is zero, the product itself is zero. ...
DVM 1173 Pretest Review - Austin Community College
... 41. If a recipe for sugar cookies requires 24 cups of flour to make 36 cookies, how much flour would be needed to make 60 of the cookies? 42. At a particular college the ratio of men to women is 35 to 45. If there are 9135 women at the college, how many men are there at the college? ...
... 41. If a recipe for sugar cookies requires 24 cups of flour to make 36 cookies, how much flour would be needed to make 60 of the cookies? 42. At a particular college the ratio of men to women is 35 to 45. If there are 9135 women at the college, how many men are there at the college? ...
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... This shows that the roots of (1) are three distinct real numbers. O. L. Hölder has proved in the end of the 19th century that in this case one can not with algebraic means eliminate the imaginarity from the Cardano’s formulae (2), but “the real roots must be calculated via the non-real numbers”. Th ...
... This shows that the roots of (1) are three distinct real numbers. O. L. Hölder has proved in the end of the 19th century that in this case one can not with algebraic means eliminate the imaginarity from the Cardano’s formulae (2), but “the real roots must be calculated via the non-real numbers”. Th ...
Some remarks on iterated maps of natural numbers,
... to 1 (mod 4) as a sum of two positive squares, we must have a0 = 1 and a1 = 0 (since a1 = b is ruled out because the digits are less than b) and this corresponds to n = 1 as being the only fixed point. In particular, for b = 10, 1 is the only fixed point since 101 = 1 + 102 is a prime. This pretty res ...
... to 1 (mod 4) as a sum of two positive squares, we must have a0 = 1 and a1 = 0 (since a1 = b is ruled out because the digits are less than b) and this corresponds to n = 1 as being the only fixed point. In particular, for b = 10, 1 is the only fixed point since 101 = 1 + 102 is a prime. This pretty res ...
The Pigeonhole Principle
... Example: 8, 11, 9, 1, 4, 6, 12, 10, 5, 7 a2 = 11 , (2,4) a4 = 1 , (4,1) Proof by contradiction: Now suppose that there are no increasing or decreasing subsequences of length n+1 or greater. Then ik and dk are both positive integers n, for k=1 to n2+1. ...
... Example: 8, 11, 9, 1, 4, 6, 12, 10, 5, 7 a2 = 11 , (2,4) a4 = 1 , (4,1) Proof by contradiction: Now suppose that there are no increasing or decreasing subsequences of length n+1 or greater. Then ik and dk are both positive integers n, for k=1 to n2+1. ...
Real numbers
... Algebraic Expressions and the Basic Rules of Algebra The terms of an algebraic expression are those parts that are separated by addition. For example, x2 – 5x + 8 = x2 +(–5x) + 8 has three terms: x2 and –5x are the variable terms and 8 is the constant term. The numerical factor of a term is called ...
... Algebraic Expressions and the Basic Rules of Algebra The terms of an algebraic expression are those parts that are separated by addition. For example, x2 – 5x + 8 = x2 +(–5x) + 8 has three terms: x2 and –5x are the variable terms and 8 is the constant term. The numerical factor of a term is called ...