﻿<?xml version="1.0" encoding="utf-8"?><rss version="2.0"><channel><title>Journal of Inequalities and Applications</title><link>http://www.hindawi.com</link><description>The latest articles from Hindawi Publishing Corporation</description><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright><item><title>Weighted Estimates of a Measure of Noncompactness for Maximal and Potential Operators</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/697407</link><description>A measure of noncompactness (essential norm) for maximal
functions and potential operators defined on homogeneous groups is estimated
in terms of weights. Similar problem for partial sums of the Fourier
series is studied. In some cases, we conclude that there is no weight pair
for which these operators acting between two weighted Lebesgue spaces
are compact.</description><Author>Muhammad Asif and Alexander Meskhi</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Strong Convergence of an Iterative Method for  Inverse Strongly Accretive Operators</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/420989</link><description>We study the strong convergence of an iterative method for inverse
strongly accretive operators in the framework of Banach spaces. Our results improve and extend
the corresponding results announced by many others.</description><Author>Yan Hao</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Exact Values of Bernstein n-Widths for Some Classes of Convolution Functions</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/451815</link><description>We consider some classes of 2&amp;#x03C0;-periodic convolution functions B&amp;#x02DC;p, and
K&amp;#x02DC;p, which include the classical Sobolev class as a special case. With the help of the spectra of nonlinear integral equations, we determine the exact values of Bernstein n-width of the classes B&amp;#x02DC;p, K&amp;#x02DC;p in the space Lp for 1&amp;#x003C;p&amp;#x003C;&amp;#x221E;.</description><Author>Feng Guo</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On Logarithmic Convexity for Power Sums 
                        and  
                        Related Results</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/389410</link><description>We give some further consideration about logarithmic
convexity for differences of power sums inequality as well as related
mean value theorems. Also we define quasiarithmetic sum and
give some related results.</description><Author>J. Pe&amp;#269;ari&amp;#263; and Atiq Ur Rehman</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Maximal Inequalities for Dependent Random Variables and Applications</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/598319</link><description>For a sequence &amp;#x007B;Xn,n&amp;#x2265;1&amp;#x007D; of dependent square integrable random variables and
a sequence &amp;#x007B;bn,n&amp;#x2265;1&amp;#x007D; of positive numbers, we establish a maximal inequality for
weighted sums of dependent random variables. Applying this inequality, we obtain the almost sure 
convergence of &amp;#x2211;i=1nXi/bi and &amp;#x2211;i=1nXi/bn.</description><Author>Soo Hak Sung</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Exact Values of Bernstein n-Widths for Some Classes of Periodic Functions with Formal Self-Adjoint Linear Differential Operators</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/894529</link><description>We consider the classes of periodic functions with formal self-adjoint linear differential operators Wp(&amp;#x02112;r), which include the classical Sobolev class as its special case. With the help of the spectral of linear differential equations, we find the exact values of Bernstein n-width of the classes Wp(&amp;#x02112;r) in the Lp for 1&amp;#x003C;p&amp;#x003C;&amp;#x221E;.</description><Author>Feng Guo</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Generating Functions for the Mean Value of  a Function on a Sphere and Its Associated Ball in Rn</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/656329</link><description>We define two functions which determine the properties and the
representation of the mean value of a function on a ball and on its
associated sphere. Using these two functions, we obtain Pizzetti&amp;#39;s formula in Rn as
well as a similar formula for the mean value of a function on the ball
associated to the sphere. We also give the expressions of the remainders in these two formulas,
using the surface integral on a sphere.</description><Author>Antonela Toma</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>A Refinement of Jensen's Inequality for a Class of Increasing and Concave Functions</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/717614</link><description>Suppose that f(x) is strictly increasing, strictly concave, and twice continuously differentiable on a nonempty interval I&amp;#x02286;&amp;#x0211D;, and f&amp;#x02032;(x) is strictly convex on I. Suppose that xk&amp;#x02208;[a,b]&amp;#x02286;I, where 0&amp;lt;a&amp;lt;b, and pk&amp;#x02265;0 for k=1,&amp;#x022EF;,n, and suppose that &amp;#x02211;k=1npk=1. Let x&amp;#x00304;=&amp;#x02211;k=1npkxk, and &amp;#x003C3;2=&amp;#x02211;k=1npk(xk&amp;#x02212;x&amp;#x00304;)2. We show &amp;#x02211;k=1npkf(xk)&amp;#x02264;f(x&amp;#x00304;&amp;#x02212;&amp;#x003B8;1&amp;#x003C3;2), &amp;#x02211;k=1npkf(xk)&amp;#x02265;f(x&amp;#x00304;&amp;#x02212;&amp;#x003B8;2&amp;#x003C3;2), for suitably chosen &amp;#x003B8;1 and &amp;#x003B8;2. These results can be viewed as a refinement of the Jensen's inequality for
the class of functions specified above. Or they can be viewed as a generalization of a refined arithmetic
mean-geometric mean inequality introduced by Cartwright and Field in 1978. The strength of the above result is in bringing the
variations of the xk's into consideration, through &amp;#x003C3;2.</description><Author>Ye Xia</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Br&amp;#233;zis-Wainger Inequality on Riemannian Manifolds</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/715961</link><description>The Br&amp;#233;zis-Wainger inequality on a compact Riemannian manifold without boundary
is shown. For this purpose, the Moser-Trudinger inequality and the Sobolev
embedding theorem are applied.</description><Author>Przemys&amp;#322;aw G&amp;#243;rka</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Sufficient Conditions for Univalence of an Integral Operator</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/127645</link><description>In this paper we have introduced an integral general 
                  operator. For this general operator which is a generalization of 
                  more known integral operators we have demonstrated some univalence 
                  properties.</description><Author>Georgia Irina Oros, Gheorghe Oros, and Daniel Breaz</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>The Hilbert-Type Integral Inequalities with  a Homogeneous Kernel of &amp;#x2212;&amp;#x03BB;-Degree</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/917392</link><description>By introducing an integral operator, a norm with a weight function, and two pairs of conjugate exponents, we find the conditions for the Hilbert-type integral inequalities with a homogeneous kernel of &amp;#x2212;&amp;#x03BB;-degree. We also prove that the constant factors in the inequalities are all the best possible. As the particular situations, some new inequalities with a homogeneous kernel and their other two forms are given. We extend some previous results.</description><Author>Wuyi Zhong</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Some Remarks Concerning Quasiconformal Extensions in Several Complex Variables</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/690932</link><description>Let B be the unit ball in &amp;#x2102;n with respect to the Euclidean norm. In this paper, we obtain a sufficient condition for a normalized quasiregular
mapping f&amp;#x2208;H(B) to be extended to a quasiconformal homeomorphism of &amp;#x211D;2n onto itself. In the last section we consider the asymptotical case of this result and we obtain certain applications.</description><Author>Paula Curt and Gabriela Kohr</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Recurring Mean Inequality of Random Variables</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/325845</link><description>A multidimensional recurring mean inequality is shown. Furthermore, we prove some new inequalities, which can be considered to be
the extensions of those established inequalities, including, for example, the
Polya-Szeg&amp;#246; and Kantorovich inequalities .</description><Author>Mingjin Wang</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On Multivariate Gr&amp;#252;ss Inequalities</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/249438</link><description>The main purpose of the present paper is to establish some new Gr&amp;#252;ss integral inequalities in n
independent variables. Our results in special cases yield some of the recent results on Pachpatte&amp;#x00027;s, Mitrinovi&amp;#x00107;&amp;#x00027;s, and Ostrowski's inequalities, and provide new estimates on such types of inequalities.</description><Author>Chang-Jian Zhao and Wing-Sum Cheung</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On the Univalence Criterion of a General Integral Operator</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/702715</link><description>In this paper we considered an general integral operator and  three classes of univalent functions for which the second order derivative is equal to zero. By imposing supplimentary conditions for these functions we proved some univalent conditions for the considered general operator. Also some interesting particullar results are presented.</description><Author>Daniel Breaz and H. &amp;#214;zlem G&amp;#252;ney</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On a New Weighted Hilbert Inequality</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/637397</link><description>It is shown that a weighted Hilbert inequality for double series can be established by introducing a proper weight function. Thus, a quite sharp result of the classical Hilbert inequality for double series is obtained. And a similar result for the Hilbert integral inequality is also proved. Some applications are considered.</description><Author>He Leping, Gao Xuemei, and Gao Mingzhe</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>The Radius of Starlikeness of the Certain Classes of p-Valent Functions Defined by Multiplier Transformations</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/280183</link><description>The aim of this paper is to give the radius of starlikeness of the
certain classes of p-valent functions defined by multiplier transformations.
The results are obtained by using techniques of Robertson
(1953,1963) which was used by Bernardi (1970), Libera (1971),
Livingstone (1966), and Goel (1972).</description><Author>Mugur Acu, Ya&amp;#351;ar Polatog&amp;#771;lu, and Emel Yavuz</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On Functional Inequalities Originating  from Module Jordan Left Derivations</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/278505</link><description>We first examine the generalized Hyers-Ulam stability of functional inequality associated
with module Jordan left derivation (resp., module Jordan derivation). Secondly,
we study the functional inequality with linear Jordan left derivation (resp., linear Jordan
derivation) mapping into the Jacobson radical.</description><Author>Hark-Mahn Kim, Sheon-Young Kang, and Ick-Soon Chang</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Sufficient Conditions for Subordination of Multivalent Functions</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/374756</link><description>The authors investigate various subordination results for some subclasses of
analytic functions in the unit disc. We obtain some sufficient
conditions for multivalent close-to-starlikeness.</description><Author>&amp;#214;znur &amp;#214;zkan K&amp;#305;l&amp;#305;&amp;#231;</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>New Classes of Analytic Functions Involving Generalized Noor Integral Operator</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/390435</link><description>The present article investigates new classes of functions involving generalized Noor integral operator. Some properties of these functions are studied including characterization and distortion theorems. Moreover, we illustrate sufficient conditions for subordination and superordination for analytic functions.</description><Author>Rabha W. Ibrahim and Maslina Darus</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On a Generalized Retarded Integral Inequality with Two Variables</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/518646</link><description>This paper improves Pachpatte&amp;#39;s results on linear integral inequalities with two variables, and gives an estimation for a general form of nonlinear integral inequality with two variables. This paper does not require monotonicity of known functions. The result of this paper can be applied to discuss on boundedness and uniqueness for a integrodifferential equation.</description><Author>Wu-Sheng Wang and Cai-Xia Shen</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Sharp Integral Inequalities Involving High-Order Partial Derivatives</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/571417</link><description>The main purpose of the present paper is to establish some new
sharp integral inequalities involving higher-order partial derivatives. Our results
in special cases yield some of the recent results on Agarwal, Wirtinger,
Poincar&amp;#233;, Pachpatte, Smith, and Stredulinsky&amp;#39;s inequalities and provide some
new estimates on such types of inequalities.</description><Author>C.-J Zhao and W.-S Cheung</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Diamond-&amp;#x03B1; Jensen&amp;#39;s Inequality on Time Scales</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/576876</link><description>The theory and applications of dynamic derivatives on time scales have
recently received considerable attention. The primary purpose of this
paper is to give basic properties of diamond-&amp;#x03B1; derivatives which are a
linear combination of delta and nabla dynamic derivatives on time scales.
We prove a generalized version of Jensen&amp;#39;s inequality on time scales via
the diamond-&amp;#x03B1; integral and present some corollaries, including H&amp;#246;lder&amp;#39;s
and Minkowski&amp;#39;s diamond-&amp;#x03B1; integral inequalities.</description><Author>Moulay Rchid Sidi Ammi, Rui A. C. Ferreira, and Delfim F. M. Torres</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On the Stability of Generalized Additive Functional Inequalities in Banach Spaces</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/210626</link><description>We study the following generalized additive functional
inequality &amp;#x2016;af(x)+bf(y)+cf(z)&amp;#x02016;&amp;#x2264;&amp;#x2016;f(&amp;#x03B1;x+&amp;#x03B2;y+&amp;#x03B3;z)&amp;#x02016;, associated with linear mappings in Banach spaces. Moreover, we prove the Hyers-Ulam-Rassias stability of
the above generalized additive functional inequality, associated with linear mappings in Banach spaces.</description><Author>Jung Rye Lee, Choonkil Park, and Dong Yun Shin</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>On the Cauchy Functional Inequality in Banach Modules</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/904852</link><description>We investigate the following functional inequality: &amp;#x2016;f(x)+f(y)+f(z)&amp;#x02016;&amp;#x2264;&amp;#x2016;f(x+y+z)&amp;#x02016; in Banach modules over a C&amp;#x2217;-algebra, and prove the generalized Hyers-Ulam stability of linear mappings in Banach modules over a C&amp;#x2217;-algebra.</description><Author>Choonkil Park</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>New Retarded Integral Inequalities with Applications</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/908784</link><description>Some new nonlinear integral inequalities of Gronwall type for retarded functions are established, which extend the results Lipovan (2003) and Pachpatte (2004).
These inequalities can be used as basic tools in the study of certain classes of functional differential
equations as well as integral equations. A existence and a uniqueness on the solution of the functional differential equation involving several retarded arguments with the initial condition are also indicated.</description><Author>Ravi P. Agarwal, Young-Ho Kim, and S. K. Sen</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Convergence of Vectorial Continued Fractions Related to the Spectral Seminorm</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/768105</link><description>We show that the spectral seminorm is useful
to study convergence or divergence of vectorial continued fractions in
Banach algebras because such convergence or divergence is related to
a spectral property.</description><Author>M. Hemdaoui and M. Amzil</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Existence of Solutions for Nonconvex and Nonsmooth Vector Optimization Problems</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/678014</link><description>We consider the weakly efficient solution for a class of nonconvex and nonsmooth vector optimization problems in Banach spaces. We show the equivalence between the nonconvex and nonsmooth vector optimization problem and the vector variational-like inequality involving set-valued mappings. We prove some existence results concerned with the weakly efficient solution for the nonconvex and nonsmooth vector optimization problems by using the equivalence and Fan-KKM theorem under some suitable conditions.</description><Author>Zhi-Bin Liu, Jong Kyu Kim, and Nan-Jing Huang</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>Inequalities for Single Crystal 
                        Ribbon Growth by Edge-Defined Film-Fed Growth  Technique</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/381604</link><description>A 
                  second-order nonlinear differential equation, of 
                  which some solutions  describe the static 
                  meniscus free surface (the static liquid bridge 
                  free surface between the shaper and the crystal 
                  surface) occurring in single crystal ribbon 
                  growth, is analyzed. The analysis is focusing on 
                  the dependence of the solutions of the equation 
                  on the pressure difference 
                  p across 
                  the free surface. Inequalities are deduced for 
                  p, which 
                  are necessary or sufficient conditions for the 
                  stable and convex free surface of a static 
                  meniscus. The obtained results are numerically 
                  illustrated in the case of a silicon single 
                  crystal ribbon growth. The advantage of these 
                  kinds of inequalities is that from them special 
                  results can be gleaned concerning the experiment 
                  planning and technology design. With this aim 
                  this study was undertaken.</description><Author>Stefan Balint and Agneta M. Balint</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item><item><title>New Means of Cauchy&amp;#39;s Type</title><link>http://www.hindawi.com/GetArticle.aspx?doi=10.1155/2008/163202</link><description>We will introduce new means of Cauchy&amp;#39;s type  Mr,ls(f,&amp;#x03BC;) defined, for example, as Mr,ls(f,&amp;#x03BC;)=((l(l&amp;#x2212;s)/r(r&amp;#x2212;s))(Mrr(f,&amp;#x03BC;)&amp;#x2212;Msr(f,&amp;#x03BC;)/Mll(f,&amp;#x03BC;)&amp;#x2212;Msl(f,&amp;#x03BC;)))1/(r&amp;#x2212;l), in the case when l&amp;#x2009;&amp;#x2260;&amp;#x2009;r&amp;#x2009;&amp;#x2260;&amp;#x2009;s, &amp;#x2009;l,r&amp;#x2009;&amp;#x2260;&amp;#x2009;0. We will show that this new Cauchy&amp;#39;s mean is
monotonic, that is, the following result. Theorem. Let t,r,u,v&amp;#x02208;&amp;#x211D;, such that t&amp;#x2264;v, r&amp;#x2264;u. Then for Mr,ls(f,&amp;#x03BC;), one has Mt,rs&amp;#x2264;Mv,us. We will also give some related comparison results.</description><Author>Matloob Anwar and J. Pe&amp;#269;ari&amp;#263;</Author><copyright>&amp;#169; 2008, Hindawi Publishing Corporation. All rights reserved.</copyright></item></channel></rss>