On Hausdorff-Young inequalities in generalized Lebesgue spaces

On Hausdorff-Young inequalities in generalized Lebesgue spaces

Lebesgue spaces with the variable rate of summability are considered in this work. Generalizations of Riesz and Paley theorems are proved in these spaces. The obtained results are applied, in particular, to a classical exponential system.

___

  • [1] Adams DR. Morrey Spaces. Cham, Switzerland: Springer, 2016.
  • [2] Bandaliev RA. On an inequality in Lebesgue space with mixed norm and with variable summability exponent. Mathematical Notes 2008; 84: 303-313.
  • [3] Bari NK. Biorthogonal systems and bases in Hilbert space. Uchenye Zapiski Moskovskogo Gosudarstvennogo Universitet 1951; 148 (4): 69-107.
  • [4] Bilalov BT. Bases and tensor product. Transactions of National Academy of Sciences of Azerbaijan. Series of PhysicalTechnical and Mathematical Sciences, Issue Mathematics 2005; 25: 15-20.
  • [5] Bilalov BT, Gasymov TB, Guliyeva AA. On the solvability of the Riemann boundary value problem in Morrey-Hardy classes. Turkish Journal of Mathematics 2016; 40 (50): 1085-1101.
  • [6] Bilalov BT, Guseynov ZG. Basicity of a system of exponents with a piece-wise linear phase in variable spaces. Mediterranean Journal of Mathematics 2012; 9 (3): 487-498.
  • [7] Bilalov BT, Guseynov ZG. Basicity criterion of perturbed system of exponents in Lebesgue spaces with variable summability index. Dokladi Akademii Nauk 2011; 436 (5): 586-589.
  • [8] Bilalov BT, Guseynov ZG. K-Bessel and K-Hilbert systems. K-bases. Dokladi RAN 2009; 429 (3): 1-3.
  • [9] Blasco O, Pelczynski A. Theorem of Hardy and Paley for vector-valued analytic functions and related classes of Banach spaces. Transaction of the American Mathematical Society 1991; 323: 335-369.
  • [10] Canturija ZA. On some properties of biorthogonal systems in Banach space and their applications in spectral theory. Soobshch Akademii Nauk Gruzii SSR 1964; 2: 271-276.
  • [11] Capone C, Fiorenza A. On small Lebesgue spaces. Journal of Function Spaces and Applications 2005; 3 (1): 73-89.
  • [12] Castilo RE, Rafeiro H. An Introductory Course in Lebesgue Spaces. Cham, Switzerland: Springer International Publication, 2016.
  • [13] Cruz-Uribe DV, Fiorenza A. Variable Lebesgue spaces: Foundations and harmonic analysis. Berlin, Germany: Springer-Verlag, 2013.
  • [14] Cruz-Uribe D, Fiorenza A, Neugebauer CJ. The maximal operator on variable L p(·) spaces. Annals of the Academy of Sciences of Mathematics 2003; 28: 223-238.
  • [15] Diening LPH, Hästö P, Ruzicka M. Lebesgue and Sobolev Spaces with Variable Exponents. Lecture Notes in Mathematics. Berlin, Germany: Springer, 2011.
  • [16] Diening L. Riesz potential and Sobolev embeddings on generalized Lebesgue and Sobolev spaces L p(x) and Wk,p(x) . Mathematische Nachrichten 2004; 268: 31-43.
  • [17] Edmunds DE, Meskhi A. Potential-type operators in L p(x) spaces. Zeitschrift für Analysis und ihre Anwendungen 2002; 21 (3): 681-690.
  • [18] Edmunds DE, Rakosnk J. Density of smooth functions in Wk,p(x) (Ω). Proceedings of the Royal Society of London 1992; 437: 229-236.
  • [19] Fan XL, Zhao D. On the spaces L p(x) and W m,p(x) (Ω). The Journal of Mathematical Analysis and Applications 2001; 263: 424-446.
  • [20] Fiorenza A, Karadzhov GE. Grand and small Lebesgue spaces and their analogs. Zeitschrift für Analysis und ihre Anwendungen 2004; 23 (4): 657-681.
  • [21] Fiorenza A, Krbec M. On the domain and range of the maximal operator. Nagoya Mathematical Journal 2000; 158: 43-61.
  • [22] Harjulehto P, Hästö P. Lebesgue points in variable exponent spaces. Annales Academiæ Scientiarum Fennicæ. Mathematica 2004; 29: 295-306.
  • [23] Harjulehto P, Hästö P, Koskenoja M, Varonen S. The Dirichlet energy integral and variable exponent Sobolev spaces with zero boundary values. Potential Analysis 2006; 25: 205-222.
  • [24] Ho KP. Strong maximal operator on mixed-norm spaces. Annali dell’Universit’a di Ferrara. Sezione VII. Scienze Matematiche 2016; 62: 275-291.
  • [25] Ho KP. Mixed norm Lebesgue spaces with variable exponents and applications. Rivista di Matematica della Università di Parma 2018; 9: 21-44.
  • [26] Ismailov MI, Garayev TZ. Some generalizations of Riesz Fisher theorem. International Journal of Mathematical Analysis 2011; 5:1803-1812.
  • [27] Israfilov DM, Tozman NP. Approximation by polynomials in Morrey–Smirnov classes. East Journal of Approximation 2008; 14 (3): 255-269.
  • [28] Israfilov DM, Tozman NP. Approximation in Morrey–Smirnov classes. Azerbaijan Journal of Mathematics 2011; 1 (1): 99-113.
  • [29] Kachmazh S, Steinhous G. Theory of Orthogonal Series. Moscow, USSR: GIFML, 1958.
  • [30] Kokilashvili VM, Meskhi A, Rafeiro H, Samko S. Integral operators in non-standard function spaces. Basel, Switzerland: Birkhauser, 2016.
  • [31] Morrey CB. On the solutions of quasi-linear elliptic partial differential equations. Transaction of the American Mathematical Society 1938; 43 (4): 207-226.
  • [32] Orlicz W. Über konjugierte exponentenfolgen. Studia Mathematica 1931; 3: 200-211.
  • [33] Samko N. Weight Hardy and singular operators in Morrey spaces. Journal of the Mathematical Analysis and Applications 2009; 35 (1): 183-188.
  • [34] Samko SG, Umarkhadzhiev SM. On Iwaniec-Sbordone spaces on sets which may have infinite measure. Azerbaijan Journal of Mathematics 2011; 1 (1): 67-84.
  • [35] Sharapudinov II. On direct and inverse theorems of approximation theory in variable Lebesgue and Sobolev spaces. Azerbaijan Journal of Mathematics 2014; 4 (1): 55-72.
  • [36] Weits BE. Bessel and Hilbert systems in Banach spaces and stability problems. Izvestiya Mathematics 1965; 2: 7-23.
  • [37] Xianling F, Dun Z. On the spaces L p(x) (Ω) and W m,p(x) (Ω). Journal of Mathematical Analysis and Applications 2001; 263: 424-446.
  • [38] Zigmund A. Trigonometric Series. Moscow, USSR: Mir, 1965.
  • [39] Zorko CT. Morrey spaces. Proceeding of the American Mathematical Society 1986; 98 (4): 586-592.