Main Article Content

Authors

Poornima Pandey

Dr. Ajay Singh

Abstract

The study seeks to understand the effect on geometric and topological qualities of certain curves and metal constructions on the manifold properties by investigating their effects. The research attempts to understand the effects of these components on curvature, connectivity, and general manifold behaviour by studying geodesics and closed curves inside diverse metal shapes. The work establishes important connections between curves' intrinsic qualities and metals' structural attributes by means of sophisticated mathematical methods and computer simulations. The results show that specific metal structure configurations may change the topology and curvature of the manifolds they are embedded in, which could have implications for engineering and materials research. The results shed light on the ways in which concrete objects can affect theoretically abstract geometrical spaces, adding to our knowledge of manifold theory as a whole. This discovery has far-reaching consequences; it lays the groundwork for the development of new materials with optimised geometric characteristics and paves the way for fresh uses of manifold theory in engineering. To develop and optimise structural designs, it is crucial to integrate mathematical theory with material science, as this multidisciplinary approach highlights.

Downloads

Download data is not yet available.

Article Details

Section

Articles

References

  1. Abraham, R., Marsden, J. E., & Ratiu, T. (2008). Manifolds, Tensor Analysis, and Applications. Springer-Verlag.
  2. Chaubey, S. K., & Ojha, R. H. (2011). On a semi-symmetric non-metric connection. Filomat, 25(4), 19-27.
  3. Bagewadi, C. S., Prakasha, D. G., & Venkatesha. (2008). Conformally and quasi-conformally conservative curvature tensor on a trans-Sasakian manifold with respect to semisymmetric metric connection. Differential Geometry - Dynamic Systems, 10, 263-274.
  4. Ghosh, A., & Sharma, R. (2009). On contact strongly pseudo-convex integrable GR-manifolds. Journal of Geometry, 66, 116-122.
  5. Koufogiorgos, T., & Sharma, R. (2001). Conformally flat contact metric manifolds. Journal of Geometry, 70, 66-76.
  6. Duggal, K. L. (2000). Space-time manifold and contact structures. International Journal of Mathematics and Mathematical Sciences, 13(3), 345-553.
  7. Falcitelli, M., Ianus, S., & Pastore, A. M. (2004). Riemannian Submersions and Related Topics. World Scientific.
  8. Adati, T., & Matsumoto, K. (2007). On conformally recurrent and conformally symmetric P-Sasakian manifolds. TRU Mathematics, 13, 25-32.
  9. Chen, B. Y. (2000). Slant immersions. Bulletin of the Australian Mathematical Society, 41(1), 135-147.
  10. Golab, S. (2005). On semi-symmetric and quarter-symmetric linear connections. Tensor, 29, 249-254.
  11. Fetcu, D. (2008). Biharmonic Legendre curves in Sasakian space forms. Journal of the Korean Mathematical Society, 45, 393-404.
  12. Bagewadi, C. S., & Venkatesha. (2006). Foliated vector field in a 3-dimensional trans-Sasakian manifold. Differential Geometry-Dynamical Systems, 8, 23-28.
  13. Fischer, A. E. (2002). Riemannian maps between Riemannian manifolds. Contemporary Mathematics, 132, 331-366.
  14. Hodge, W. V. D. (2018). A special type of Kahler manifolds. Proceedings of the London Mathematical Society, 1, 104-119.
  15. Inoguchi, J. (2004). Submanifolds with harmonic mean curvature in contact 3-manifolds. Colloquium Mathematicum, 100, 163-179.