Asia Mathematika
HomeArchivesVolume 10, Issue 2Research article
Research articleOpen access

On Zariski pseudo-primary radical of elements of lattice modules

Pradip Girase1iD and Narayan Phadatare2iD

  1. 1 Department of Mathematics, K. K. M. College, Manwath, Dist. Parbhani (M.S.) – 431505, India.
  2. 2 Department of Mathematics, SKES's Govindram Seksaria Science College (Autonomous), Belagavi, Karnataka, India.
Published 31 Aug 2026Asia Mathematika, volume 10, issue 2, pages 72–82 (2026)doi:10.5281/zenodo.23122374

Abstract

Let L be a C-lattice and M be a lattice module over L. For an element N ∈ M, the meet of all pseudo-primary elements P of M satisfying √(N : 1M) ≤ √(P : 1M) is called the Zariski pseudo-primary radical of N, denoted by zps√N. This paper introduces the notion of the Zariski pseudo-primary radical of elements in lattice modules and presents a systematic study of its algebraic properties. Several characterizations and basic results are established, highlighting its connections with pseudo-primary elements, pseudo-primary radicals and the pseudo-primary spectrum of lattice modules. Also, we study lattice modules whose pseudo-primary spectrums endowed with the Zariski-like topology are Noetherian spaces.

Lattice modulesPseudo-primary elementsPseudo-primary spectrumZariski pseudo-primary radical

1. Introduction

The notion of primary-like submodules was introduced and studied by H. F. Moghimi and F. Rashedi in [17]. Subsequently, in [19], the authors developed the Zariski topology on the primary-like spectrum of a module and investigated several of its topological properties. Later, they introduced in [18] the concept of the Z-radical of submodules and studied the primary-like spectrum from the viewpoint of Noetherian spaces. Motivated by these developments, the concept of pseudo-primary elements was introduced for lattice modules by A. V. Bingi et al. in [6], extending the theory of primary-like submodules to the framework of lattice modules. Furthermore, P. B. Girase et al. studied the Zariski prime radical elements of lattice modules in [12], while V. Borkar et al. investigated the Zariski second radical elements and associated properties in [7].

This page shows an excerpt of the introduction. The full text, including the theorems, proofs and examples, is available in the PDF.

References

  1. F. Alarcon, D. D. Anderson and C. Jayaram. Some results on abstract commutative ideal theory. Period Math Hung 1995; 30(1): 1-26.Google Scholar
  2. E. A. AL-Khouja. Maximal elements and prime elements in lattice modules. Damascus Univ Basic Sci 2003; 19: 9-20.Google Scholar
  3. D. D. Anderson, C. Jayaram. Regular lattices. Studia Scientiarum Mathematicarum Hungarica 1995; 30: 379-388.Google Scholar
  4. M. Atiyah and I. MacDonald. Introduction to commutative algebra. Reading: Addison-Wesley. 1969.Google Scholar
  5. S. Ballal and V. Kharat. Zariski topology on lattice modules. Asian Eur J Math 2015; 8 (1550066): 10 pages. doi:1142/S1793557115500667.Google Scholar
  6. A. V. Bingi and C. S. Manjarekar. Pseudo-primary, classical prime and pseudo-classical primary elements in lattice modules. arXiv:2006.01663v1 [math.RA] 2020.Google Scholar
  7. V. Borkar, P. Girase and N. Phadatare. Zariski second radical elements of lattice modules. Asian Eur J Math 2021; 14(4): 2150055.Google Scholar
  8. N. Bourbaki. Commutative algebra. Hermann, Paris, 1972.Google Scholar
  9. F. Callialp and U. Tekir. Multiplication lattice modules. Iran J Sci Technol 2011; A4: 309-313.Google Scholar
  10. F. Callialp, G. Ulucak and U. Tekir. On the Zariski topology over an L-Module $M$. Turk J Math 2017; 41(2): 326-336.Google Scholar
  11. R. P. Dilworth. Abstract commutative ideal theory. Pacific J Math 1962; 12: 481-498.Google Scholar
  12. P. B. Girase, V. C. Borkar and N. M. Phadatare. Zariski prime radical elements of lattice modules. Southeast Asian Bull Math 2020; 43(3): 335-344.Google Scholar
  13. J. A. Johnson. a-adic completions of Noetherian lattice modules. Fund Math 1970; 66(3): 341-371.Google Scholar
  14. E. W. Johnson. A-transforms of noether lattices. Ph.D. Dissertation. Univ. of California. Riverside. (1966).Google Scholar
  15. C. P. Lu. The Zariski topology on the prime spectrum of a module. Houston J Math 1999; 25: 417-425.Google Scholar
  16. C. S. Manjarekar and A. V. Bingi. Absorbing elements in lattice modules. Int Electron J Algebra 2016; 19: 58-76.Google Scholar
  17. H. F. Moghimi and F. Rashedi. Primary-like submodules and a scheme over the primary-like spectrum of modules. Miskolc Math Notes 2017; 18(2): 961-974.Google Scholar
  18. H. F. Moghimi and F. Rashedi. Modules whose primary-like spectra with the Zariski-like topology are Noetherian spaces. Italian J of pure and applied Math 2017; 37: 273-288.Google Scholar
  19. H. F. Moghimi and F. Rashedi. On the Zariski topology over the primary-like spectrum. Novi Sad J Math 2022; 52(1): 79-93.Google Scholar
  20. J. R. Munkres. Topology, a first course. Prentice-Hall. Inc. Englewood Cliffs. New Jersey. 1975.Google Scholar
  21. H. M. Nakkar, I. A. Al-Khouja. Nakayama's lemma and the principal elements in lattice modules over multiplicative lattices. Research Journal of Aleppo University 1985; 7: 1-16.Google Scholar
  22. N. K. Thakare, C. S. Manjarekar and S. Maeda. Abstract spectral theory II:minimal characters and minimal spectrums of multiplicative lattices. Acta Sci Math 1988; 52: 53-67.Google Scholar
  23. N. K. Thakare and C. S. Manjarekar. Abstract spectral theory: Multiplicative lattices in which every character is contained in a unique maximal character. Algebra and Its applications. Marcel Dekker, New York. 1984; 265-276.Google Scholar
  24. M. Ward and R. P. Dilworth. Residuated lattices. Trans Amer Math Soc 1939; 45: 335-354.Google Scholar

About this article

Cite this article

Girase, P. & Phadatare, N. (2026). On Zariski pseudo-primary radical of elements of lattice modules. Asia Mathematika, 10(2), 72–82. https://doi.org/10.5281/zenodo.23122374

Publication history

Received21 Jul 2026
Accepted02 Aug 2026
Published31 Aug 2026