This paper introduces and examines the concept of a *-Rickart *-ring, and proves that every Rickart *-ring is also a *-Rickart *-ring. A necessary and sufficient condition for a *-Rickart *-ring to be a Rickart *-ring is also provided. The relationship between *-Rickart *-rings and *-Baer *-rings is investigated, and several properties of *-Rickart *-rings are presented. The paper demonstrates that the property of *-Rickart extends to both the center and *-corners of a *-ring, and investigates the extension of a *-Rickart *-ring to its polynomial *-ring. Additionally, *-Rickart *-rings with descending chain condition on *-biideals are studied, and all *-Rickart (*-Baer) *-rings with finitely many elements are classified.
Aburawash, U. A. Semiprime involution rings and chain conditions. General algebra, Proc. Conf., Vienna/Austria 1990, Contrib. Gen. Algebra 7 (1991), 7–11.
Aburawash, U. A. On *-minimal *-ideals and *-biideals in involution rings. Acta Math. Hungar. 129, 4 (2010), 297-302.
Aburawash, U. A., and ELgamudi, B. M. *-Armendariz property for involution rings. East-West J. Math. 21, 2 (2019), 171–181.
Aburawash, U. A., and Saad, M. On biregular, IFP and quasi-Baer *-rings. East-West J. Math. 16 (01 2014), 182–192.
Aburawash, U. A., and Saad, M. *-Baer property for rings with involution. Stud. Sci. Math. Hung. 53, 2 (2016), 243–255.
Aburawash, U. A., and Saad, M. Reversible and reflexive properties for rings with involution. Miskolc Math. Notes 20 (2019), 635–650.
Aburawash, U. A., and Sola, K. B. *-Zero divisors and *-prime ideals. East-West J. Math. 12, 1 (2010), 27–31.
Armendariz, E. P. A note on extensions of Baer and P. P.-rings. J. Aust. Math. Soc. 18 (1974), 470–473.
Beidar, K. I., and Wiegandt, R. Rings with involution and chain conditions on bi-ideals. Russian Math. Surveys 48, 5 (1993), 159–160.
Bell, H. E. Near-rings in which each element is a power of itself. Bull. Aust. Math. Soc. 2 (1970), 363–368.
Berberian, S. K. Baer *-rings, vol. 195 of Grundlehren Math. Wiss. Springer-Verlag, Berlin Heidelberg, 1972.
Berberian, S. K. Baer rings and baer *-rings, 1988. https://web.ma.utexas.edu/mp_arc/c/03/03-181.pdf.
Birkenmeier, G. F., and Park, J. K. Self-adjoint ideals in Baer *-rings. Comm. Algebra 28, 9 (2000), 4259–4268.
Birkenmeier, G. F., Park, J. K., and Rizvi, S. T. Extensions of rings and modules. New York, NY: Birkhäuser/Springer, 2013.
Domokos, M. Goldie’s theorems for involution rings. Comm. Algebra 22, 2 (1994), 371–380.
Kim, N. K., and Lee, Y. Armendariz rings and reduced rings. J. Algebra 223 (01 2000), 477–488.
Mendes, D. I. C. On *-essential ideals and biideals of rings with involution. Quaest. Math. 26, 1 (2003), 67–72.
Mlitz, R. Radicals of rings with involution. Bul. Acad. Ştiinţe Repub. Mold. Mat. 2004, 1(44) (2004), 67–75.
Ramakotaiah, D., and Rao, G. K. IFP near-rings. J. Aust. Math. Soc., Ser. A 27 (1978), 365–370.
Rowen, L. H. Ring theory. Volume I. Academic Press, Inc., Boston, MA etc., 1988.
Saad, M., and Aburawash, U. A. IFP for rings with involution. Math. Pannon. (N.S.) 29, 1 (2023), 127–137.
Thakare, N. K., and Waphare, B. N. Baer *-rings with finitely many elements. J. Combin. Math. Combin. Comput. 26 (1998), 161–164.