• Nem Talált Eredményt

H¨ ormander-Mihlin-multiplierek

6. fejezet Jel¨ ol´ esek

An a 2−n hossz´us´ag´u diadikus intervallumok ´altal gener´alt σ-algebra BMO[0,1) a diadikus BMO t´er

BMO[0,1) a BMO t´er a [0, 1) intervallumon BMOR a BMO t´er a val´os sz´amok halmaz´an

BMO[0,) a Telyakovski˘ı-f´ele BMO t´er a nemnegat´ıv val´os sz´amok halmaz´an C a komplex sz´amok halmaza

DΦn aΦ ortonorm´alt rendszer n-edik Dirichlet-f´ele magf¨uggv´enye DΦn aΦ ortonorm´alt rendszer els˝o n elem´enek az ¨osszege

DeTn az n-edik konjug´alt trigonometrikus Dirichlet-magf¨uggv´eny

∆a az a sorozat differencia sorozata

ek az ek(t) =eikt (k∈Z, t∈R) komplex trigonometrikus f¨uggv´eny EΦn a Φ rendszer szerinti legjobb k¨ozel´ıt´es oper´atora

En a felt´eteles v´arhat´o ´ert´ek oper´ator

f˜ az f f¨uggv´eny trigonometrikus konjug´alt f¨ugg´enye fcΦ aΦ ortonorm´alt rendszer szerinti Fourier-transzform´alt Hp[0,1) a diadikus Hardy-terek a [0, 1)intervallumon

Hp[0,1)2 a k´etdimenzi´os diadikus Hardy-terek a [0, 1)2 egys´egn´egyzeten H][0,1)2 a k´etdimenzi´os hibrid diadikus Hardy-t´er a [0, 1)2 egys´egn´egyzeten Hp,r[0,1)2 a diadikus Hardy-Lorentz-terek az egys´egn´egyzeten

Hp[0,∞) a diadikus Hardy-terek a nemnegat´ıv val´os sz´amok halmaz´an

Hs[0,) a meg´all´ıtott diadikus Hardy-t´er a nemnegat´ıv val´os sz´amok halmaz´an H a val´os, 2π szerint periodikus Hardy-t´er

H[0,1) a val´os nemperiodikus Hardy-t´er a [0, 1) intervallumon H?[0,1) az ´atrendez´esre invari´ans Hardy-t´er

HR a klasszikus val´os Hardy-t´er a val´os sz´amok halmaz´an

H[0,) a Telyakovski˘ı-f´ele Hardy-t´er a nemnegat´ıv val´os sz´amok halmaz´an

148 Jel¨ol´esek

Hf az f f¨uggv´eny Hilbert-transzform´altja χA az A halmaz karakterisztikus f¨uggv´enye L(An) az An-m´erhet˝o f¨uggv´enyek halmaza

LpA az A⊂R halmazon ´ertelmezett Lebesgue-t´er Lp,r[0,1)2 a Lebesgue-Lorentz-terek az egys´egn´egyzeten

Lp,loc[0,) azon f¨uggv´enyek halmaza, amelyek minden v´eges m´ert´ek˝uA⊂[0,∞) eset´enLpA-ban vannak

LM az M Young-f¨uggv´eny ´altal gener´alt Orlicz-t´er N a term´eszetes sz´amok halmaza

P a pozit´ıv term´eszetes sz´amok halmaza PnΦ a legfeljebb n-edfok´u Φ-polinomok halmaza Qf az f marting´al, f¨uggv´eny kvadratikus vari´aci´oja R a val´os sz´amok halmaza

SΦn a Φ ortonorm´alt rendszer szerinti n-edik Fourier-r´eszlet¨osszeg

σΦnf az ff¨uggv´eny Φ-rendszer szerinti Fourier-sor´anak az n-edik Fej´er-k¨ozepe Tϕ a ϕ ´altal gener´alt multiplier oper´ator

TN a Telyakovski˘ı-transzform´aci´o sorozatokon TR a Telyakovski˘ı-transzform´aci´o a sz´amegyenesen V(n) az n bin´aris jegyeinek a vari´aci´oja

Vr,nΦ f az f f¨uggv´eny Φ rendszer szerinti ´altal´anos´ıtott de la Vall´ee Poussin-k¨ozepe [x] az x val´os sz´am eg´esz r´esze

Z az eg´esz sz´amok halmaza

u diadikus ¨osszead´as a [0, 1) intervallumon

Irodalomjegyz´ ek

[AbuTor08] Abu-Shammala, W.; Torchinsky, A.From dyadicΛα toΛα, Illinois J. Math. 52 (2008), 681–689.

[Ale63] Alexits, Gy. Sur les bornes de la th´eorie de’lapproximation des fonctions continues par polynomes,Magyar Tud. Akad.

Mat. Kutat´o Int. K¨ozl. 8 (1963), 329–340.

[AleKra63] Alexits, G. and Kr´alik, D. Uber den Ann¨¨ aherungsgrad der Approximation im starken Sinne von stetigen Funktionen, Magyar Tud. Akad. Mat. Kut. Int. K¨ozl. 8(1963), 317–327.

[AndMuc82] Andersen, K.F.; Muckenhoupt, B. Weighted weak type Hardy inequalities with applications to Hilbert transforms and maximal functions, Studia Math. 72 (1982), 9–26.

[AubFou93] Aubertin, B.; Fournier, J. Integrability theorems for trigo-nometric series, Studia Math. 107 (1993), 33–59.

[AubFou94] Aubertin, B.; Fournier, J. An integrability theorem for Walsh series, Boll. Un. Mat. Ital. VII. Ser. 8 (1994), 775–

789.

[Bal71] Balaˇsov, L.A. Series with respect to the Walsh system with monotone coefficients, Sibirsk. Mat. Z.,12(1971), 25–39 (in Russian).

[BenSha88] Bennett, C.; Sharpley, R.”Interpolation of operators”,Pure and Applied Mathematics (129), Academic Press, New York, 1988.

[BetDziTor09] Betancor, J.J.; Dziub´anski, J.; Torrea, J.L. On Hardy spaces associated with Bessel operators, Journal d’Analyse Math´ematique107 (2009), 195–219.

[Boa56] Boas, R.P. Absolute convergence and integrability of trigo-nometric series,J. Rat. Mech. and Anal.5(1956), 621–632.

150 IRODALOMJEGYZ´EK

[BojSta82] Bojanic, R.; Stanojevi´c, ˇC. A class of L1-convergence, Trans. Amer. Math. Soc. 269 (1982), 677–683.

[BraSta84] Bray, W.O.; Stanojevi´c, ˇC.Tauberian L1-convergence clas-ses of Fourier series II, Math. Ann. 269 (1984), 469–486.

[BunTan90] Buntinas, M.; Tanovi´c-Miller, N. New integrability and L1 -convergence classes for even trigonometric series, Radovi Mat. 6 (1990), 149–170.

[BunTan91] Buntinas, M.; Tanovi´c-Miller, N. New integrability and L1 convergence classes for even trigonometric series II, in ”Approximation Theory ” Coll. Math. Soc. J. Bolyai, North-Holland (eds. J. Szabados, K. Tandori) 68 (1991), 103–125.

[ButNes71] P.L. Butzer and R. Nessel, ”Fourier Analysis and Approxi-mation”, Birkhauser, Basel-Stuttgart, 1971.

[Cha86] Chang-Pao ChenL1-convergence of Fourier series,J. Aust-ral. Math. Soc. (Ser. A) 41 (1986), 376–390.

[Coi74] R.R. Coifman, A real variable characterization of Hp, Stu-dia Math. 51 (1974), 269–274

[CoiWei77] Coifman, R.R.; Weiss, G. Extensions of Hardy spaces and their use in analysis, Bull. Amer. Math. Soc. 83 (1977), 569–645.

[Dav80] Davis, B.J.Hardy spaces and rearrangements,Trans. Amer.

Math. Soc. 261 (1980), 211–233.

[DalFri03] Daly, J.; Fridli, S. Walsh multipliers for dyadic Hardy spa-ces, Appl. Anal. 82 (2003), 689–700.

[DalFri04a] Daly, J.; Fridli, S.Translation invariant operators on Hardy spaces over Vilenkin groups, Acta Math. Acad. Paedagog.

Nyhzi. (N.S.) 20 (2004), 131–140.

[DalFri04b] Daly, J.; Fridli, S. Hp multipliers on the dyadic field, Ann. Univ. Sci. Budap. Rolando E¨otv¨os, Sect. Comput.24 (2004), 275–284.

[DalFri05] Daly, J.; Fridli, S. Trigonometric multipliers on H, Can.

Math. Bull. 48 (2005), 370–381.

[DalFri08] Daly, J.; Fridli, S. H¨ormander multipliers on two-dimensional dyadic Hardy spaces,J. Math. Anal. Appl.348 (2008), 977–989.

IRODALOMJEGYZ´EK 151

[DalFri10] Daly, J.; Fridli, S. The dual spaces of certain Hardy spaces, Ann. Univ. Sci. Budap. Rolando E¨otv¨os, Sect. Comput.33 (2010), 123–136.

[DalPhi98] Daly, J.; Phillips, K.Walsh multipliers and square functions for the Hardy space H1, Acta Math. Hungar. 79 (1998), 311–327.

[DalPhi98b] Daly, J.; Phillips, K. A note on H1 multipliers for locally compact Vilenkin groups, Canad. Math. Bull. 41 (1998), 392–397.

[Dav80] Davis, B.J.Hardy spaces and rearrangements,Trans. Amer.

Math. Soc. 261 (1980), 211–233.

[EdwGau77] Edwards, R.E.; Gaudry, G.I.”Littlewood–Paley and multip-lier theory”, Ergebnisse der Mathematik und ihrer Grenz-gebiete, Band 90. Springer-Verlag, Berlin-New York, 1977.

[Fef71] Fefferman, C. Characterizations of bounded mean oscilla-tion, Bull. Amer. Math. Soc. 77 (1971), 587–588.

[Fom78] Fomin, G.A. A class of trigonometric series,Mat. Zametki 23 (1978), 213–222. (oroszul)

[FouSel87] Fournier, J., Self, W.Some sufficient conditions for uniform convergence of Fourier series, J. Math. Anal. Appl. 126 (1987), 355–374.

[Fri93] Fridli, S. An inverse Sidon type inequality, Studia Math.

105 (1993), 283–308.

[Fri95a] Fridli, S. An inverse Sidon type inequaliy for the Walsh system, J. Math. Anal. Appl. 193 (1995), 715–736.

[Fri95b] Fridli, S.Mean convergence of Walsh–Fourier series,Indian J. Math. 37 (1995), 95–101.

[Fri96] Fridli, S. Integrability and L1-convergence of trigonometric and Walsh series,Ann. Univ. Sci. Budapest. Sect. Comput.

16 (1996), 149–172.

[Fri97a] Fridli, S.Coefficient condition forL1-convergence of Walsh–

Fourier series, J. Math. Anal. Appl.210 (1997), 731–741.

[Fri97b] Fridli, S. On the L1-convergence of Fourier series, Studia Math. 125 (1997), 161–174.

152 IRODALOMJEGYZ´EK

[Fri99] Fridli, S. On he integrability of Walsh–Fourier transform, Math. Pannon. 10 (1999), no. 1, 93–102.

[Fri00] Fridli, S. Transition from the dyadic to the real nonperiodic Hardy space,Acta Math. Acad. Paedagog. Nyhzi. (N.S.)16 (2000), 1–8. (electronic)

[Fri01] Fridli, S. Hardy spaces generated by an integrability condi-tion, J. Approx. Theory113 (2001), no. 1, 91–109.

[Fri08] Fridli, S. Applications of Sidon type inequalities, Chapter 8, in Walsh and Dyadic Analysis, Proceedings of the Work-shop, October 18-19, 2007, Niˇs, Serbia, ISBN 978-86-85195-47-1, Publisher Elektronski fakultet, Niˇs, 2007, 95–107.

[Fri13a] Fridli, S. On integrability and strong summability of Walsh–Kaczmarz series, Analysis Mathematica, (k¨ozl´esre beny´ujtva)

[Fri13b] Fridli, S. Trigonometric H¨ormander–Mihlin multipliers in Hardy spaces, J. Appr. Th., (k¨ozl´esre beny´ujtva)

[FriManSid08] Fridli, S.; Manchanda, P.; Siddiqi, A. H. Approximation by Walsh–N¨orlund means,Acta Sci. Math. (Szeged)74(2008), 593–608.

[FriSch95] Fridli, S.; Schipp, F. Strong summability and Sidon type inequalities, Acta Sci. Math. (Szeged) 60 (1995), 277–289.

[FriSch97] Fridli, S.; Schipp, F. Strong summability, approximation and L1-convergence, Fourier analysis, approximation the-ory and applications (Aligarh, 1993), New Age, New Delhi (1997), 77–90.

[FriSch98] Fridli, S.; Schipp, F. Strong approximation via Sidon type inequalities, J. Approx. Theory94 (1998), 263–284.

[FriSim85] Fridli, S.; Simon, P. On the Dirichlet kernels and a Hardy space with respect to the Vilenkin system,Acta Math. Hung.

45(1-2) (1985), 223–234.

[Gat02] G´at, Gy. On the Sunouchi operator with respect to the two-dimensional Walsh–Paley system,in ”Functions, series, operators” Alexits memorial conference, Leindler, L. (ed.) et al., J´anos Bolyai Mathematical Society (2002), 247–260.

[Gat97] G´at, Gy. On the lower bound of Sunouchi’s operator with respect to Vilenkin systems, Anal. Math. 23 (1997), 259–

272.

IRODALOMJEGYZ´EK 153

[Gat93] G´at, Gy. Investigations of certain operators with respect to the Vilenkin system,Acta Math. Hung.61(1993), 131–149.

[Gat09] G´at, GY.; Goginava, U. A weak type inequality for the ma-ximal operator of (C,α)-means of Fourier series with respect to the Walsh–Kaczmarz system, Acta Math. Hungar. 125 (2009), no. 1-2, 65–83.

[GatGogNag09] G´at, Gy.; Goginava, U.; Nagy, K. On the Marcinkiewicz–

Fej´er means of double Fourier series with respect to the Walsh-Kaczmarz system, Studia Sci. Math. Hungar. 46 (2009), no. 3, 399–421.

[GatNag09] G´at, GY.; Nagy, K.On the (C,α)-means of quadratic partial sums of double Walsh–Kaczmarz–Fourier series, Georgian Math. J. 16 (2009), no. 3, 489–506.

[GiaMor95] Giang, Dang Vu; M´oricz, F. On the L1 theory of Fourier transforms and multipliers, Acta Sci. Math. (Szeged) 61 (1995), 293–304.

[Gog09] Gogoladze, L. On the exponential uniform strong summa-bility of multiple trigonometric Fourier series, Georgian Math. J. 16 (2009), 517–532.

[GogGog12] Goginava, U.; Gogoladze, L. Strong approximation of two-dimensional Walsh Fourier series, Studia Sci. Math. Hun-gar. 49 (2012), 170–188.

[Gra08] Grafakos, L.”Classical Fourier Analysis”,2nd ed. Springer, New York, 2008.

[GroSta95] Grow, D.E.; Stanojevi´c, ˇC.V.Convergence and the Fourier character of trigonometric transforms with slowly varying convergence moduli, Math. Ann. 302 (1995), 433–472.

[HarLit13] Hardy, G.H.; Littlewood, J. E.Sur la s´erie de Fourier d’une fonction ´a carr´e sommable, Comptes Rendus (Paris) 156 (1913), 1307–1309.

[Har87] Harris, D.Almost everywhere divergence of multiple Walsh–

Fourier series, Proc. Amer. Math. Soc. 101 (1987), 637–

643.

[Hor60] H¨ormander, L. Estimates for translation invariant opera-tors in Lp spaces, Acta Math. 104 (1960), 93–139.

154 IRODALOMJEGYZ´EK

[Kac29] Kaczmarz, S. ” ¨Uber ein Orthogonal System”,Comp. Rend.

Congres. Math. (Warsaw 1929).

[KacSte35] Kaczmarz, S.; Steinhaus, G.”Theorie der Orthogonalen Re-ihen”, Monogr. Mat. Vol. 6 (Warsaw 1935).

[Kan68] Kano, T. Coefficients of some trigonometric series, J. Fac.

Sci. Shinshu Univ. 3 (1968), 153–162.

[KasSaa84] Kaˇsin, B.S.; Saakjan A. A. ”Orthogonal series”, Nauka, Moscow, 1984. (oroszul)

[Kis91] Kislyakov, S.V.Classical themes of Fourier analylsis, Com-mutative harmonic analysis I, Encyclopaedia Math. Sci., 15, Springer, Berlin, 1991, 113–165.

[Kit87] Kitada, K. Hp multiplier theorems on certain totally dis-connected groups, Sci. Rep. Hirosaki Univ. 34 (1987), 1–7.

[Kol23] Kolmogorov, S.A. Sur l’ordre de grandeur des coefficients de l´a s´erie de Fourier–Lebesgue,Bull. Acad. Polon. Sci (A), Sci. Math. (1923), 83–86.

[KraRut61] Krasnosel’ski˘ı, M.A.; Ruticki˘ı, M. ”Convex functions and Orlicz spaces”, Noordhoff, Groningen, 1961.

[Kuz98] Kuznetsova, O.I.Strong summability of multiple Fourier se-ries and Sidon-type inequalities, Ukrainian Mathematical Journal 50 (1998), 1860–1866.

[Kuz00] Kuznetsova, O. I. On the integrability of a class of N-dimensional trigonometric series, Ukrainian Math. J. 52 (2000), 960–963.

[Kuz12] Kuznetsova, O. I. Strong summability and convergence of multiple trigonometric series over polyhedrons, J. Cont.

Math. Anal. 47 (2012), 240–250.

[Lei65] Leindler, L.Uber die Approximation im starken Sinne,¨ Acta Math. Acad. Hungar. 16 (1965), 255–262.

[Lei76] Leindler, L.On the strong approximation of Fourier series, Acta Sci. Math. (Szeged) 38 (1976), 317–324.

[Lei78] Leindler, L. Strong approximation and classes of functions, Mitteilungen Math. Seminar Giessen 132 (1978), 29–38.

[Lei85] Leindler, L. ”Strong Approximation by Fourier Series”, Akad´emiai Kiad´o, Budapest, 1985.

IRODALOMJEGYZ´EK 155

[Lif93] Liflyand, E. On asymptotics of Fourier transform for func-tions of certain classes, Anal. Math. 19 (1993), 151–168.

[Lif98] Liflyand, E. A Fourier transform approach to the integra-bility of trigonometric series, ”Theory of Approximation of Functions”, Trudi IPMM NAN Ukraine, vol. 3, 1998, 134–

145.

[Lif99] Liflyand, E. A family of function spaces and multipliers, Israel Math. Conf. Proc. 13 (1999), 141–149.

[LitPal31] Littlewood, L.; Paley, R. Theorems on Fourier series and power series I., J. London Math. Soc. 6(1931), 230–233.

[LitPal36] Littlewood, L.; Paley, R. Theorems on Fourier series and power series II.,Proc. London Math. Soc.42(1936), 52–89.

[Mar39] Marcinkiewicz, J. Sur les multiplicateurs des series de Fo-urier, Studia Math.8 (1939), 78–91.

[Mih56] Mihlin, S.G. On the multipliers of Fourier integrals, Dokl.

Akad. Nauk SSSR 109 (1956), 701–703. (oroszul)

[Mih65] Mihlin, S.G. ”Multidimensional singular integrals and integral equations”, International Series of Monogra-phs in Pure and Applied Mathematics, Oxford-London-Edinburgh-New York-Paris-Frankfurt, Pergamon Press83, 1965.

[Mor89] M´oricz, F. On the integrability and L1-convergence of sine series, Studia Math.92 (1989), 187–200.

[Mor90] M´oricz, F. Sidon type inequalities, Publ. de L’Inst. Math.

48 (1990), 101–109.

[Mor91a] M´oricz, F. Lebesgue integrability and L1-convergence of tri-gonometric series with special coefficients, ”Approximation Theory ” Coll. Math. Soc. J anos Bolyai, North-Holland (eds. J. Szabados, K. Tandori) 68 (1991), 513–536.

[Mor91b] M´oricz, F. On L1-convergence of Walsh–Fourier series II, Acta Math. Hung. 58 (1991), 203–210.

[MorSch90] M´oricz, F.; Schipp, F. On the integrability and L1 -convergence of Walsh series with coefficients of bounded va-riation, J. Math. Anal. Appl. 146 (1990), 99–109.

156 IRODALOMJEGYZ´EK

[MorSch91] M´oricz, F.; Schipp, F. On the integrability and L1 -convergence of double Walsh series, Acta Math Hung. 57 (1991), 371–380.

[MoBaDoKu11] Motornij, V.P.; Babenko, V.F.; Dovgosej, A.A.;

Kuznetsova, O.I. Az approxim´aci´o ´es a har-monikus anal´ızis elm´elete, monogr´afia, ”Felada-tok ´es m´odszerek: matematika, fizika, kiberne-tika”, Naukova Dumka, Kijev, 2011. (oroszul), http://www.iamm.ac.donetsk.ua/upload/iblock/00a/

monogr 07-12-11.pdf

[Nag11] Nagy, K. Approximation by N¨orlund means of Walsh–

Kaczmarz–Fourier series, Georgian Math. J. 18 (2011), 147–162.

[Nev71] Neveu, J. ”Discrete parameter martingales”, North Hol-land, Amsterdam, 1971

[OnnQue89] Onneweer, C.W.; Quek, T.S.Hpmultiplier results on locally compact Vilenkin groups, Quart. J. Math Oxford II. Ser.40 (1989), 313–323.

[Pal32] Paley, R.E.A.C. A remarkable sytem of orthogonal func-tions, Proc. London Math. Soc. 34 (1932), 241–279.

[RaoRen91] Rao, M.M.; Ren, Z.D.”Theory of Orlicz spaces”, In Mono-graphs and Textbooks in Pure and Applied Mathematics, Marcel Dekker, New York, Basel, Hong Kong, 1991.

[Sch75] Schipp Certain rearrangements of series in the Walsh se-ries, Mat. Zametki 18 (1975), 193–201.

[Sch82] Schipp, F.The dual space of martingale VMO spaces, Proc.

3rd Pannonian Symp. Math. Stat. (Visegr´ad) (1982), 305–

311.

[Sch90] Schipp, F. On Sidon type inequalities, Colloq. Math. Soc.

J´anos Bolyai North-Holland (J. Szabados and K. Tandori ed.), Amsterdam-Oxford-New York 58 (1990), 603–614.

[Sch92] Schipp, F. Sidon-type inequalities, Lecture Notes in Pure and Appl. Math. Approx. Theory, Marcel Dekker, New York-Basel-Hong Kong 138 (1992), 421–436.

[SchSzi95] Schipp, F.; Szili, L. Sidon-type inequalities for Legendre polynomials, Acta Math. Acad. Hungar. 68 (1995), 253–

267.

IRODALOMJEGYZ´EK 157

[SchWad92] Schipp, F.; Wade, W.R.Norm convergence and summability of Fourier series with respect to certain product systems, Approx. theory, Lecture Notes in Pure and Appl. Math. , Marcel Dekker, New York-Basel-Hong Kong, 138 (1992), 437–452.

[SchWadSim90] Schipp, F.; Wade, W.R.; Simon, P. (with assistance from J. P´al) ”Walsh series”, Adam Hilger, Bristol, New York, 1990.

[Sid39] Sidon, S. Hinreichende Bedingungen f¨ur den Fourier-Charakter einer trigonometrischen Reihe, J. London Math.

Soc. 14 (1939), 158–160.

[Sim02] Simon, P. On a generalization of the Sunouchi operator, Acta Math. Hungar.94 (2002), 31–43.

[Sim01] Simon, P. A note on the Sunouchi operator with respect to the Walsh–Kaczmarz system, Appl. Anal. 77 (2001), 383–

395.

[Sim85] Simon, P. (L1, H)-type estimations for some operators with respect to the Walsh–Paley system, Acta Math. Hungar.46 (1985), 307–310.

[Sim87] Simon, P.Strong convergence of certain means with respect to the Walsh–Fourier series, Acta Math. Hungar. 49 (1987), 425–431.

[Sim98a] Simon, P. Hardy spaces and multipliers, Acta Sci. Math.

(Szeged) 64 (1998), 183–200.

[Sim98b] Simon, P.Two-parameter multipliers on Hardy spaces,Coll.

Math. 77 (1998), 9–31.

[Sim01] Simon, P. A note on the Sunouchi operator with respect to the Walsh–Kaczmarz system, Appl. Anal. 77 (2001), no.

3-4, 383–395.

[Smi83] Smith, B. A strong convergence theorem for H1(T), Lec-ture Notes in Math., Springer, Berlin-New York995(1983), 169–173.

[Snei48] Sneider, A.A.˘ On series with respect to theWalsh functions with monotone coefficients, Izv. Akad. Nauk SSSR, Ser.

Mat., 12 (1948),179–192.

158 IRODALOMJEGYZ´EK

[Skv81] Skvorcov, A.A.On Fourier series with respect to the Walsh–

Kaczmarz system, Analysis Mathematica 7 (1981), 141–

150.

[Sta82] Stanojevi´c, C.V.ˇ Tauberian conditions for the L1 -convergence of Fourier series,Trans. Amer. Math. Soc.271 (1982), 234–244.

[Sta88] Stanojevi´c, ˇC.V. Structure of Fourier and Fourier-Stieltjes coefficients of series with slowly varying convergence mo-duli, Bull. Amer. Math. Soc. (N.S.) 19 (1988), 283–286.

[StaSta87] Stanojevi´c, ˇC.V.; Stanojevi´c, V.B. Generalizations of the Sidon–Telyakovskii theorem, Proc. Amer. Math. Soc. 101 (1987), 679–684.

[Sun64] Sunouchi, G. Strong summability of Walsh Fourier se-ries,Tohoku Math. J., II. Ser. 16 (1964), 228–237.

[Sun51] Sunouchi, G. On the Walsh–Kaczmarz series, Proc. Amer.

Math. Soc. 2 (1951), 5–11.

[Tai75] M. Taibleson, M. ”Fourier analysis on local fields”, Mathe-matical Notes 15, Princeton University Press, 1975.

[Tan90] Tanovi´c-Miller, N. On integrability and L1-convergence of cosine series, Boll. Un. Mat. It. (7) 4 (1990), 499–516.

[Tan02] Tanovi´c-Miller, N. On Fomin and Fomin-type integrability and L1-convergence classes, Acta Sci. Math. (Szeged) 68 (2002), 751–775.

[TaoWri01] Tao, T; Wright, J. Endpoint multiplier theorems of Marcin-kiewicz type, Rev. Mat. Iberoam. 17 (2001), 521–558.

[Tel64] Telyakovski˘ı, S.A. Integrability conditions of trigonometric series and their applications to the study of linear methods of summing Fourier series, Izv. Akad. Nauk. SSSR, Ser.

Mat. 28 (1964), 1209–1236. (oroszul)

[Tel73] Telyakovski˘ı, S.A. On a sufficient condition of Sidon for the integrability of trigonometric series, Mat. Zametki 14 (1973), 317–328. (oroszul)

[Tel85a] Telyakovski˘ı, S.A. On the integrability of sine series, Proc.

Steklov Inst. Mat. 4 (1985), 269–273.

IRODALOMJEGYZ´EK 159

[Tel85b] Telyakovski˘ı, S.A. On conditions for integrability of mul-tiple trigonometric series,Proc. Steklov Inst. Mat.2(1985), 205–215.

[Tik08] Tikhonov, S.On L1-convergence of Fourier series,J. Math.

Anal Appl. 347 (2008), 416–427.

[Tot80] Totik, V. On the strong approximation of Fourier series, Acta Sci. Math. (Szeged) 35 (1980), 151–172.

[Tot85] Totik, V. Notes on Fourier series: Strong approximation, J. Appr. Theory 43 (1985), 105–111.

[Wad83] Wade, W. Lr inequalities for Walsh series,0 < r < 1, Acta Sci. Math. 46 (1983), 233–241.

[Wal23] Walsh, J.L. A closed set of nomral orthogonal functions, Amer. J. Math. 45 (1923), 5–24.

[Wei94] Weisz, F.”Martingale Hardy Spaces and their Applications in Fourier Analysis”, Springer, Berlin, Heidelberg, New York, 1994.

[Wei05] Weisz, F. Marcinkiewicz multiplier theorem and the Sunou-chi operator for Ciesielski–Fourier series, J. Appr. Theory 133 (2005), 195–220.

[Wei96] Weisz, F. The boundedness of the two-parameter Sunouchi operators on Hardy spaces, Acta Math. Hungar.72 (1996), 121–152.

[Wei02] Weisz, F. ”Summability of multi-dimensional Fourier and Hardy spaces”, Kluwer, Boston, Dordrecht, New York, 2002.

[Wei12] Weisz, F. ”Summability of Multi-Dimensional Trigo-nometric Fourier Series”, Surveys in Approximation Theory, A free electronic collection of surveys, 2012, http://www.math.technion.ac.il/sat

[WoS76] Wo-Sang Young A note on Walsh–Fourier series, Proc.

Amer. Math. Soc. 59 (1976), 305–310.

[WoS94] Wo-Sang Young Littlewood-Paley and multiplier theorems for Vilenkin-Fourier series, Can. J. Math. 46 (1994), 662–

672.

[You13] Young, W.H. On the Fourier series of bounded functions, Proc. London Math. Soc. 12 (1913), 41–70.

160 IRODALOMJEGYZ´EK

[Zho10] Zhou, S.P. What condition can correctly generalizes mono-tonicity in L1-convergence of sine series?, Science China Chinise Ed. 40 (2010), 801–812.

[Zyg59] Zygmund, A. ”Trigonometric series”, University Press, Cambridge, 1959.