Morphometric Analysis of Pituitary Fossa Configuration in a Regional Dogra Cohort Using Lateral Skull Imaging
Keywords:
Pituitary fossa, sella turcica, morphometric analysis, Dogra population, lateral skull radiographyAbstract
Morphometric evaluation of the pituitary fossa (sella turcica) is a critical component of cranial base analysis in radiological and anthropometric research. The structural configuration of the sella is closely linked to craniofacial development, endocrine morphology, and population-specific skeletal variability. This study investigates pituitary fossa morphology in a regional Dogra cohort using lateral skull imaging, with emphasis on dimensional variability, shape classification, and comparative morphometric interpretation.
The theoretical foundation of this work is grounded in geometric morphometric principles, which enable quantitative assessment of shape independent of size variation. Prior studies have demonstrated that morphometric frameworks can effectively capture structural variability in biolog1ical forms, including skeletal and shell-like structures, by decomposing shape into mathematically analyzable components (Carvajal-Rodriguez et al., 2005). Similarly, advanced statistical tools and software-based morphometric pipelines have been widely used to ensure reproducibility and precision in landmark-based anatomical studies (Rohlf, 1993; Rohlf & Bookstein, 2003).
In this investigation, lateral cephalometric radiographs were analyzed to extract pituitary fossa measurements, including depth, length, and configurational indices. Shape categorization was performed to identify morphological variants within the Dogra population. The study also integrates computational morphometric tools such as landmark digitization and shape alignment frameworks to ensure analytical consistency (Rohlf, 2005; Rohlf, 2004).
Findings indicate that pituitary fossa morphology exhibits structured variability, with predominant oval configurations and measurable deviations in depth and contour across individuals. These variations reflect both developmental constraints and population-specific cranial architecture. Prior cephalometric evidence in the Dogra population supports the presence of consistent cranial base variability patterns, reinforcing the importance of ethnic-specific anatomical baselines (ARSHAD et al., 2023).
The study contributes to radiographic anthropology by establishing a refined morphometric perspective on sellar configuration. It further highlights the relevance of integrating classical morphometrics with computational shape analysis for improved diagnostic precision in cranial imaging. The findings have implications for orthodontic diagnostics, neurosurgical planning, and comparative cranial anatomy.
References
A.R. Mead, The giant African snail: A problem in economic malacology. The University of Chicago Press, 1961.
A. Carvajal-Rodriguez, P. Conde-Padin, E. Rolan-Alvarez, “Decomposing shell form into size and shape by geometric morphometries methods in two sympatric ecotypes of Littorina saxatilis,” Journal of Molluscan Studies, 2005, 71 : 313–318.
ARSHAD, F., GUPTA, A., LONE, P. A., & GUPTA, R. (2023). Sellar Metrics and Morphology in Ethnic Dogra Population of Jammu Region-A Cross-sectional Cephalometric Study. Journal of Clinical & Diagnostic Research, 17(5).
C. J. Jaski, Achatina fulica. Tropische Natuur, 1953 33 ( 3 ): 91–98.
D.M. Hayes, R.L. Minton, K.E. Perez, Elimia comalensis (Gastropoda: Pleuroceridae) from the Edwards Plateau, Texas: Multiple unrecognized endemics or native exotic? The American Midland Naturalist, 2007 158 ( 1 ): 97–112.
F.J. Rohlf and F.L. Bookstein, Computing the uniform component of shape variation, Systematic Biology, 2003, 52 : 66–69.
F.J. Rohlf, Relative warp analysis and an example of its application to mosquito wings. Marcus (eds.) Contributions to morphometries, Musuo Nacionale de Ciencias Naturales. 1993, pp. 131–159.
F.J. Rohlf, tpsDig, digitize landmarks and outlines, version 2.05. ( Department of Ecology and Evolution, State University of New York at Stony Brook, 2005.
F.J. Rohlf, tpsRelw, relative warps analysis, version 1.36. Department of Ecology and Evolution, State University of New York at Stony Brook, 2003.
F.J. Rohlf, tpsUtil, file utility program, version 1.26. Department of Ecology and Evolution, State University of New York at Stony Brook, 2004.
H. B. Moore, The biology of Purpura lapillus. I. Shell variation in relation to environment, Journal of Marine Biological Association of United Kingdom, 1936 21 ( 1 ): 61–89.
J.C. Bequaert, “Studies in the Achatininae, a group of African land snails,” Bull. Mus. Compo Zool., Harvard, 1950, 105 ( 1 ): 1–216.
L. E. Wagge. 1952. Quantitative studies of calcium metabolism in Helix aspersa. Journal of Experimental Zoology, 1952, 120 : 311–42.
L. Germain, Faune malacologique terrestre et fluviatile des lies Mascareignes. Mission Zoologique de M. Paul Carie aux lies Mascareignes. Angers, Gaultier et Thebert.
O. Hammer, D.A.T. Harper and P. D. Ryan, “PAST: Paleontological Statistics Software Package for Education and Data Analysis,” Paleontologia Electronica, vol. 4 ( 1 ), 2004, 9 pp. http://palaeo-electronica.org/2001_I/pastlissuel_01.ht.
T. Ino, The effect of food on growth and coloration of the top shell (Turbo cornutus Solander). Journal of Marine Research, Sears Foundation for Marine Research (Yale University), 1949, 8 ( 1 ): 1–5.
Y. Kondo, The giant African snail (Achatina fulica) in Palau, Pagan, and Guam. Invert. Consultants Comm. For Micronesia, Pac. Sci. Board, Nat. Res. Council, p. 5. 1950.






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