... of random variables, called circular complex randomvariables Circularity is a type of symmetry in the distributions of the real and imaginary parts of complex randomvariablesand stochastic processes, ... the randomvariables themselves are complex: the χ , F , and β distributions all describe real randomvariables functionally dependent on complex Gaussians Let z and q be independent scalar random ... call the “real parts” and the other N numbers we call the “imaginary parts” Likewise, a collection of N complex randomvariables is really just a collection of 2N real randomvariables with some...
... Chapter RandomVariables 1 7 8 38 2.1 Introduction 2.2 RandomVariables 2.3 Distribution Functions 2.4 Discrete RandomVariablesand Probability Mass Functions 2.5 Continuous RandomVariablesand ... Numbers and the Central Limit Theorem Solved Problems Chapter RandomProcesses 5.1 Introduction 5.2 RandomProcesses 5.3 Characterization of RandomProcesses 5.4 Classification of RandomProcesses ... Functions of Random Variables, Expectation, Limit Theorems 4.1 Introduction 4.2 Functions of One Random Variable 4.3 Functions of Two RandomVariables 4.4 Functions of n RandomVariables 4.5...
... Chapter RandomVariables 1 7 8 38 2.1 Introduction 2.2 RandomVariables 2.3 Distribution Functions 2.4 Discrete RandomVariablesand Probability Mass Functions 2.5 Continuous RandomVariablesand ... Numbers and the Central Limit Theorem Solved Problems Chapter RandomProcesses 5.1 Introduction 5.2 RandomProcesses 5.3 Characterization of RandomProcesses 5.4 Classification of RandomProcesses ... Functions of Random Variables, Expectation, Limit Theorems 4.1 Introduction 4.2 Functions of One Random Variable 4.3 Functions of Two RandomVariables 4.4 Functions of n RandomVariables 4.5...
... Chapter RandomVariables 1 7 8 38 2.1 Introduction 2.2 RandomVariables 2.3 Distribution Functions 2.4 Discrete RandomVariablesand Probability Mass Functions 2.5 Continuous RandomVariablesand ... Numbers and the Central Limit Theorem Solved Problems Chapter RandomProcesses 5.1 Introduction 5.2 RandomProcesses 5.3 Characterization of RandomProcesses 5.4 Classification of RandomProcesses ... Functions of Random Variables, Expectation, Limit Theorems 4.1 Introduction 4.2 Functions of One Random Variable 4.3 Functions of Two RandomVariables 4.4 Functions of n RandomVariables 4.5...
... Chapter RandomVariables 1 7 8 38 2.1 Introduction 2.2 RandomVariables 2.3 Distribution Functions 2.4 Discrete RandomVariablesand Probability Mass Functions 2.5 Continuous RandomVariablesand ... Numbers and the Central Limit Theorem Solved Problems Chapter RandomProcesses 5.1 Introduction 5.2 RandomProcesses 5.3 Characterization of RandomProcesses 5.4 Classification of RandomProcesses ... Functions of Random Variables, Expectation, Limit Theorems 4.1 Introduction 4.2 Functions of One Random Variable 4.3 Functions of Two RandomVariables 4.4 Functions of n RandomVariables 4.5...
... vector stable random measures, Acta Math Vietnam 21 (1996) 171–181 12 D H Thang, Vector random stable measures andrandom integrals, Acta Math Vietnam 26 (2001) 205–218 13 D H Thang, Random mapping ... spaces Vector Symmetric GaussianRandom Measure In this section we recall the notion and some properties of vector symmetric Gaussianrandom measures, which will be used later and can be found in ... the X-valued symmetric Gaussianrandom measure Z Sec contains the definition and some properties of X-valued symmetric Gaussianrandom measures which will be used later and can be found in [12]...
... (Electronic) RandomVectorsand Independence In this chapter, we review central concepts of probability theory,statistics, andrandomprocesses The emphasis is on multivariate statistics andrandomvectors ... 3)T and covariance matrix m Cx = 2 2.15 Assume that randomvariables x and y are linear combinations of two uncorrelated gaussianrandomvariables u and v , defined by x y =3 =2 + u u v v 54 RANDOM ... randomvectors y and z, and (2.57) still holds A similar argument applies to the randomvectors y and z Example 2.6 First consider the randomvariables x and y discussed in Examples 2.2 and 2.3 The...
... of X, and is denoted by the symbol E(X) I f X is a random vector with values in R" and distribution F, and is a Borel measurable function from R" to R, then (X) is a random variable, and E O ... distribution of the variables X1 , X2 , , X,, More generally, if T is any set of real numbers, a family of randomvariables X (t), t e T, defined on (Q, R, P) is called a random process Conditions ... (X E A) is called the distribution of X Several randomvariables X1 , X2 , , X„ may be combined in a random vector X = (X1 , X2 , , XJ, and the measure F (A) = P (X E A) defined on the Borel...
... presented by Yang for NA randomvariablesand Wang et al for NOD randomvariables Using the exponential inequalities, we further study the complete convergence for acceptable randomvariables MSC(2000): ... acceptable randomvariables For example, Xing et al [6] consider a strictly stationary NA sequence of randomvariables According to the sentence above, a sequence of strictly stationary and NA randomvariables ... acceptable randomvariablesand denote Sn = n Xi for each n ≥ i=1 Remark 1.1 If {Xn , n ≥ 1} is a sequence of acceptable random variables, then {−Xn , n ≥ 1} is still a sequence of acceptable random variables...
... acceptable randomvariables For example, Xing et al [6] consider a strictly stationary NA sequence of randomvariables According to the sentence above, a sequence of strictly stationary and NA randomvariables ... acceptable randomvariables n and denote Sn = i=1 Xi for each n ≥ Remark 1.1 If {Xn, n ≥ 1} is a sequence of acceptable random variables, then {-Xn, n ≥ 1} is still a sequence of acceptable randomvariables ... results of Yang [9] for NA randomvariablesand Wang et al [10] for NOD randomvariables In Section 3, we will study the complete convergence for acceptable randomvariables using the exponential...
... all n ≥ 1, i ≥ 1, and supn ∞1 ρn 2i < ∞ for some q ≥ 2, EXni i ≤ p ≤ Let the randomvariables in each row be stochastically dominated by a random variable X, such that E|X|p < ∞, and let {ani ; ... > and αp ≥ 3.2 holds Theorem 3.3 Let {Xni , n ≥ 1, i ≥ 1} be an array of rowwise ρ-mixing randomvariables satisfying 2/q supn ∞1 ρn 2i < ∞ for some q ≥ and EXni for all n ≥ 1, i ≥ Let the random ... Lemma 1.5 Sung 19 Let {Xn ; n ≥ 1} be a sequence of randomvariables which is stochastically dominated by a random variable X For any α > and b > 0, the following statement holds: E|Xn |α I |Xn...
... 2005 S.-C Yang and M Chen, “Exponential inequalities for associated randomvariablesand strong laws of large numbers,” Science in China A, vol 50, no 5, pp 705–714, 2006 I Dewan and B L S Prakasa ... and cn Xq,i,n − EXq,i,n max 1≤j≤n provided t i 2α and cn C 2Mω exp −α log n , 2αnε2 q 2, 3, 4.7 log n, and j P ≤ > nε ≤ C 2Mω exp − 2αnε2 δ log n , q δ /α log n, where α and δ are as in 3.8 and ... into some theorems and gives some applications Some lemmas and notations Firstly, we quote two lemmas as follows Lemma 2.1 see Let {Xi , ≤ i ≤ n} be positively associated randomvariables bounded...
... of X, and is denoted by the symbol E(X) I f X is a random vector with values in R" and distribution F, and is a Borel measurable function from R" to R, then (X) is a random variable, and E O ... R, and let X be a random variable with E I X I < oo The conditional expectation of X relative to a1 is the random variable, denoted by E (X I 1), which is measurable with respect to tall and ... { [a, b) } = F (b) - F (a), and X (w) = w 21 CONVERGENCE OF DISTRIBUTIONS Let X and Y be independent randomvariables with respective distribution functions F1 and F2 The distribution function...
... of X, and is denoted by the symbol E(X) I f X is a random vector with values in R" and distribution F, and is a Borel measurable function from R" to R, then (X) is a random variable, and E O ... R, and let X be a random variable with E I X I < oo The conditional expectation of X relative to a1 is the random variable, denoted by E (X I 1), which is measurable with respect to tall and ... { [a, b) } = F (b) - F (a), and X (w) = w 21 CONVERGENCE OF DISTRIBUTIONS Let X and Y be independent randomvariables with respective distribution functions F1 and F2 The distribution function...
... 1-n -1 n- a , ,c ), and use Theorem 5.1 § Domains of attraction Let X1 , X2 , be a sequence of independent random variables, with the same distribution function F (x), and set Zn= Xl+X2+ ... with a and /3 = ± are all unimodal In fact, we have proved more (and will need the stronger result later) : (1) if a < the function pX (x ; a, 1) is zero in (- oo, 0] and has just one zero, and ... non-increasing, and so therefore is the function defined on the positive rationals Consequently, has right and left limits (s - 0) and (s + 0) at all s > From (2.2 10) these are equal, and A (s)...
... (4.4.5) m Proof Let ~ , b2, be independent and identically distributed randomvariables taking only the values and 1, with respective probabilities b and a Bernstein's inequality (cf § 7.5) shows ... assume that the common distribution of the randomvariables X; has zero mean and finite variance o We write (x) = (2.n) _ -, e _ + x for the density of the standard normal law The theorems of this ... necessary and sufficient that the interval h be maximal and that x dF(x) = O(z - b) ~xI~z Theorem If the independent variables Xj have the same lattice distribution with step h, and have E(Xj) = and...
... ), write i = 27r/h and define S (x) and d,,(t) as in § 3.3 Theorem 5.3 If X1 , X2 , are independent randomvariables with the same distribution F belonging to L h and having finite third ... finite third moment, and write E(XX)=0, E(Xj2)=62, E(X,3)=a3, EIX;I3=J33 As before, the distribution function and characteristic function of X;, and the distribution function and characteristic ... in Lp, and the remaining sections deal with the case of normal convergence § Domains of attraction of stable laws in the L metric P Let X1 , X2 , be a sequence of independent random variables...