We introduce a fuzzy anti-β-norm and generalized cubic mapping and then investigate the Hyers-Ulam-Rassias stability in quasi β-Banach space and the fuzzy stability by using a fixed point in fuzzy anti-β Banach space for the generalized cubic function.
AbbasbandyS. and AllahviranlooT., The adomian decompo-sition method applied to the fuzzy system of the second kind, Int J Uncer Fuzzy Know Based Syst14(1) (2006), 101–110.
2.
AbbasbandyS., AllahviranlooT. and EzzatyR., A metod forsolving general fuzzy linear systems, J Fuzzy Math15(4) (2007), Los Angeles.
3.
AokiT., On the stability of the linear transformation in Banach spaces, J Math Soc Japan2 (1950), 64–66.
4.
BagT. and SamantaS.K., Finite dimensional fuzzy normed linear spaces, J Fuzzy Math11(3) (2003), 687–705.
5.
BagT. and SamantaS.K., A comparative study of fuzzy norms on a linear space, Fuzzy Sets and Sys159 (2008), 670–684.
6.
BenyaminiY. and LindenstraussJ., Geometric nonlinear functional analysis, vol. 1, Colloq Publ, vol. 48, Amer Math Soc, Providence, (2000).
7.
CădariuL. and RaduV., On the stability of the Cauchy functional equation: A fixed point approach and theory Iteration (ECIT ’02), Grazer Math Ber, 346, Karl-Franzens-Univ Graz, Graz, 2004, pp. 43–52.
8.
CădariuL. and RaduV., Fixed point methods for the generalized stability of functional equations in a single variable, Fixed Point Theory and Appl2008 (2008), Art. ID 749392.
9.
ChengS.C. and MordesonJ.N., Fuzzy linear operator and fuzzy normed linear spaces, Bull Calcutta Math Soc86 (1994), 429–436.
10.
CzerwikS., The stability of the quadratic functional equation, in Stability of Mappings of Hyers-Ulam Type, RassiasTh.M. and TaborJ., Eds., Hadronic Press Collect. Orig. Artic., Hadronic Press, Palm Harbor, Fla, USA, 1994, pp. 81–91.
11.
DasP.C., P-absolutely summable type fuzzy sequence spaces by fuzzy metric, Boletim da Sociedade Paranaense de Matematica32(2) (2014), 35–43.
DeschrijverG. and KerreE.E., On the relationship between some extensions of fuzzy set theory, Fuzzy Sets and Sys133(2) (2003), 227–235.
14.
DuboisD. and PradeH.M., Fundamentals of fuzzy sets, Kluwer, New York, USA, 2000.
15.
FelbinC., Finite dimensional fuzzy normed linear spaces, Fuzzy Sets and Sys48(2) (1992), 239–248.
16.
HyersD.H., On the stability of the linear equation, Proc Nat Acad Sci USA27 (1941), 222–224.
17.
IsacG. and RassiasTh.M., Stability of π-additive mappings: Applications to nonlinear analysis, Internat J Math Math Sci19(2) (1996), 219–228.
18.
JebrilI.H. and SamantaT.K., Fuzzy anti-normed linear space, J Math Tech (2010), 66–77.
19.
JunK.-W. and KimH.-M., On the stability of Euler-Lagrange type cubic functional equations in quasi-Banach spaces, J Math Anal Appl332 (2007), 1335–1350.
20.
JunK.-W. and KimH.-M., The generalized Hyer-Ulam-Rassias stability of a cubic functional equation, J Math Anal Appl274 (2002), 867–878.
KrishnaS.V. and SarmaK.K.M., Separation of fuzzy normed linear spaces, Fuzzy Sets and Sys63(2) (1994), 207–217.
23.
LeeS.-H., KohH. and KuS.-H., Investigation of the stability via shadowing property, Journal of Inequalities and Applications2009 (2009), 12. Article ID 156167.
24.
MargolisB. and DiazJ.B., A fixed point theorem of the alternative for contractions on a generalized complete metric space, Bull Amer Math Soc126(74) (1968), 305–309.
25.
MihetţD. and RaduV., On the stability of the additive Cauchy functional equation in random normed spaces, J Math Anal Appl343(1) (2008), 567–572.
26.
MirmostafaeeA.K., MirzavaziriM. and MoslehianM.S., Fuzzy stability of the Jensen functional equation, Fuzzy Sets and Sys159 (2008), 730–738.
27.
MirmostafaeeA.K. and MoslehianM.S., Fuzzy versions of Hyers-Ulam-Rassias theorem, Fuzzy Sets and Sys159 (2008), 720–729.
28.
NajatiA., The generalized hyers-ulam-rassias stability of a cubic functional equation, Turk J Math31 (2007), 395–408.
29.
ParkC., Fixed points and Hyers-Ulam-Rassias stability of Cauchy-Jensen functional equations in Banach algebras, Fixed Point Theory Appl2007 (2007), Art. ID 50175.
30.
PeevaK. and KyosevY., Fuzzy Relational Calculus-Theory, Applications and Software. World Scientific, New Jersey, 2004.
31.
RaduV., The fixed point alternative and the stability of functional equations, Fixed Point Theory4(1) (2003), 91–96.
32.
RassiasJ.M. and KimH.-M., Generalized, Hyers, Ulam stability for general additive functional equations in quasi-β-normed spaces, J Math Anal Appl356 (2009), 302–309.
33.
RassiasTh.M., On the stability of the linear mapping in Banach spaces, Proc Amer Math Soc72 (1978), 297–300.
34.
RolewiczS., Metric Linear Spaces, Reidel/PWN-Polish Sci. Publ, Dordrecht, 1984.
35.
RusI.A., Principles and Applications of Fixed Point Theory, Ed. Dacia, Cluj-Napoca, 1979, (in Romanian).
36.
TaborJ. and TaborJ., General stability of functional equations of linear type, J Math Anal Appl328(1) (2007), 192–200.
37.
TripathyB.C., PaulS. and DasN.R., Banach’s, Kannan’s fixed point results in fuzzy 2-metric spaces, Proyecciones J Math32(4) (2013), 359–375.
38.
TripathyB.C., PaulS. and DasN.R., A fixed point theorem in a generalized fuzzy metric space, Boletim da Sociedade Paranaense de Matematica32(2) (2014), 221–227.
39.
TripathyB.C., PaulS. and DasN.R., Fixed point and periodic point theorems in fuzzy metric space, Songklanakarin Journal of Science and Technology37(1) (2015), 89–92.
40.
SahooP.K., A generalized cubic functional equation, Acta Math Sinica21(5) (2005), 1159–1166.
41.
UlamS.M., Problems in Morden Mathematics, Wiley, New York, USA, 1960.
42.
XuT.Z., RassiasJ.M. and XuW.X., A generalized mixed quadratic-quartic functional equation, Bull, Malaysian Math Scien Soc35(3) (2012), 633–649.
43.
WuC. and FangJ., Fuzzy generalization of Klomogoroffs theorem, J Harbin Inst Technol1 (1984), 1–7.
44.
XiaoJ.Z. and ZhuX.H., Fuzzy normed spaces of operators and its completeness, Fuzzy Sets and Sys133(3) (2003), 389–399.