Cramer's Rule in Hyperbolic Number Plane

Authors

  • Kangze Chen Haide College, Ocean University of China, Qingdao, China, 266100
  • Yuxin Wang College of science and technology, Jiangxi Normal University Science and Technology College, Jiujiang, China, 332020
  • Yubo Wang School of Mathematics and Statistics, Shandong Normal University, Jinan, China, 250358

DOI:

https://doi.org/10.54097/a17wfg23

Keywords:

Hyperbolic numbers, system of linear equations, partial order.

Abstract

This paper investigates the existence theorem for solutions to hyperbolic linear systems and presents the judgment conditions for the existence of such solutions. It extends the judgment conditions applicable to general linear systems, expanding the research scope from real matrices, a focus in advanced algebra, to hyperbolic matrices. The paper derives the form of solutions to hyperbolic linear systems and conducts a more comprehensive discussion, categorizing scenarios into cases of solvability, unsolvability, and uniqueness of solutions. The conclusions drawn in this study can be further applied to research on a broader range of physical problems with concrete physical backgrounds, laying a solid research foundation and injecting new momentum into the application of hyperbolic analysis in the field of algebra.

Downloads

Download data is not yet available.

References

[1] Kang Z, Zeng Y. Boundedness Theorem for Continuous Functions in the Perplex Number-plane [J]. Transactions on Computational and Applied Mathematics, 2025, 5 (1).

[2] Zeng Y, Kang Z. Existence Theorems for Linear Mappings on Hypercomplex Number Systems [J]. Academic Journal of Mathematical Sciences, 2025, 6 (1).

[3] Hu J, Yan K. The Limit and the Arithmetic Operations of Sequences in Split Complex Plane [J]. Academic Journal of Mathematical Sciences, 2024, 5 (3).

[4] Eren O, Soykan Y. On Hyperbolic Generalized Woodall Numbers [J]. Asian Journal of Advanced Research and Reports, 2024, 18 (2): 43-69.

[5] Kagy B, Sullivant S. Equidistant Circular Split Networks [J]. SIAM Journal on Applied Algebra and Geometry, 2025, 9 (1): 1-32.

[6] Ali A, Hristov M, Ilchev A, et al. Applications of N-Tupled Fixed Points in Partially Ordered Metric Spaces for Solving Systems of Nonlinear Matrix Equations [J]. Mathematics, 2025, 13 (13): 2125-2125.

[7] Ahmad S S, Bhadala N. L-structure least squares solutions of generalized reduced biquaternion matrix equations with applications [J]. Linear and Multilinear Algebra, 2025,73 (8): 1685-1713.

[8] Kyrchei I, Mosic D, Stanimirovic P. The Right–Left WG Inverse Solutions to Quaternion Matrix Equations [J]. Symmetry, 2024, 17 (1): 38-38.

[9] Shi L, Wang W Q, Xie M L, et al. Solving the Dual Generalized Commutative Quaternion Matrix Equation [J]. Symmetry, 2024, 16 (10): 1359-1359.

[10] S. ND, M. VP. Matrix Linear Bilateral Equations Over Different Domains, Methods for the Construction of Solutions, and Description of Their Structure [J]. Journal of Mathematical Sciences, 2024, 282 (5): 616-645.

[11] ElDahshan A K, AlHabshy A A, Abozeid A. New directions in motion-prediction-based systems [J]. Soft Computing, 2024, 28 (13-14): 7687-7700.

[12] Kesavan M, Pujitha D, Chintha P, et al. Assessing the construction site supervisory attributes in effectuating mathematical theories and applications to construction operations [J]. International Journal of Industrial Engineering and Operations Management, 2025, 7 (3): 205-223.

[13] Ramzan Y, Alzubadi H, Awan U A, et al. A Mathematical Lens on the Zoonotic Transmission of Lassa Virus Infections Leading to Disabilities in Severe Cases [J]. Mathematical and Computational Applications, 2024, 29 (6): 102-102.

[14] Hamam H, Ramzan Y, Niazai S, et al. Deciphering the enigma of Lassa virus transmission dynamics and strategies for effective epidemic control through awareness campaigns and rodenticides [J]. Scientific Reports, 2024, 14 (1): 18079-18079.

[15] Shajeen S A, Kenneth A D. Measuring Digital Home Numeracy Practice: A Scale Development and Validation Study [J]. Journal of Research in Childhood Education, 2023, 37 (2): 310-340.

[16] Kuruz, F., Dagdeviren, A., Matrices with hyperbolic number entries, Turk. J. Math. Comput. Sci., 14 (2) (2022), 306–313.

Downloads

Published

23-12-2025

How to Cite

Chen, K., Wang, Y., & Wang, Y. (2025). Cramer’s Rule in Hyperbolic Number Plane. Highlights in Science, Engineering and Technology, 159, 314-323. https://doi.org/10.54097/a17wfg23