Abstract
We compared the degree of orientation (anisotropy) of capillaries in skeletal muscles of animals with large differences in oxygen needs and/or tolerance to hypoxia (mammals of different size; reptiles; birds; mammals native to high altitude; diving mammals). In terrestrial mammals, we found a substantial increase in capillary tortuosity with fiber shortening, in muscles with large differences in capillary density (capillary counts/fiber mm in transverse sections ranging 450–4350). There was no systematic difference in muscle capillary tortuosity with body size (mouse to pony), or with adaptation to high altitude (deer mice) or to prolonged periods of anoxia (Harbor seals), when account was taken of sarcomere length. A substantial increase in capillary tortuosity was also found in contracted skeletal muscles of the alligator with remarkably low capillary density (capillary counts/fiber mm in transverse sections, 120–280). On the contrary, we found that in pigeon pectoralis, a highly aerobic muscle with large capillary density and a large number of capillary anastomoses running perpendicular to the muscle fiber axis, the decrease in capillary anisotropy with decreasing sarcomere length was smaller than in other muscles. Our results indicate that 1) sarcomere length at which samples are fixed needs to be taken into account when capillary counts in transverse sections are compared between muscles and/or after different experimental conditions, and 2) muscle capillary tortuosity is a consequence of fiber shortening, rather than an indicator of the O2 requirements of the tissue.
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References
Andersenr P. and A.J. Kroeze (1978). Capillary supply in Soleus and Gastrocnemius muscles of man. Pfluegers Arch. 375:245–249.
Appell, H-J. (1978). Capillary density and patterns in skeletal muscles. III. Changes of the capillary pattern after hypoxia. Pfluegers Arch. 377:R-53.
Appell, H-J. (1984). Variability in microvascular pattern dependent upon muscle fiber composition. Prog. appl. Microcirc. 5:15–29.
Aquin, L., and N. Banchero (1981). The cytoarchitecture and capillary supply in the skeletal muscle of growing dogs. J. Anat. 132:341–356.
Bebout, D.E. and O. Mathieu-Costello (1987). Capillary anisotropy in skeletal muscles of harbor seals. Fed. Proc. 46:352.
Gaehtgens, P. (1984). Summary of discussion. Prog. appl. Microcirc. 5:62- 63.
Gleeson, T.T., C.J.M. Nicol, and I.A. Johnston (1984). Capillarization, mitochondrial densities, oxygen diffusion distances and innervation of red and white muscle of the lizard Dipsosaurus dorsalis. Cell Tis. Res. 237:253–258.
Groom, A.C., C.G. Ellis, and R.F. Potter (1984). Microvascular architecture and red cell perfusion in skeletal muscle. Prog. appl. Microcirc. 5:64–83.
Hill, A.V. (1928). The diffusion of oxygen and lactic acid through tissues. Proc. Roy. Soc. B. 104:39–96.
Hoppeler, H. (1984). Morphometry of skeletal muscle capillaries. Prog, appl. Microcirc. 5:33–43.
Krogh, A. (1919). The number and distribution of capillaries in muscles with calculations of the oxygen pressure head necessary for supplying the tissue. J. Physiol. (London) 52:409–415.
Lewis, D.H. (1984). Summary of discussion. Prog. appl. Microcirc. 5:109- 110.
Mathieu-Costello, O. (1986). Capillary anisotropy in skeletal muscle of mice native to high altitude. Proc. Internat. Union Physiol. Siences 16:526.
Mathieu-Costello, O. (1987). Capillary tortuosity and degree of contraction or extension of skeletal muscle. Microvas. Res. 33:98–117.
Mathieu, O., L.M. Cruz-Orive, H. Hoppeler, and E.R. Weibel (1983). Estimating length density and quantifying anisotropy in skeletal muscle capillaries. J. Micr. 131:131–146.
Mathieu-Costello, O., H. Hoppeler, C.R. Taylor and E.R. Weibel (1987a). Capillary anisotropy in skeletal muscles of mammals of different size. Fed. Proc. 46:352.
Mathieu-Costello, O., R.F. Potter, C.G. Ellis and A.C. Groom (1987b). Capillary configuration and fiber shortening in muscle: correlation between corrosion casts and stereological measurements. Fed. Proc. 46:1534.
Piiper, J., and P. Scheid (1986). Cross-sectional PO2 distributions in Krogh cylinder and solid cylinder models. Resp. Physiol. 64:241–251.
Potter, R.F. and A.C. Groom (1983). Capillary diameter and geometry in cardiac and skeletal muscle studied by means of corrosion casts. Microvasc. Res. 25:68–84.
Ranvier, M. (1874). Note sur les vaisseaux sanguins et la circulation dans les muscles rouges. Arch. Physiol. Ser., 2,1:446–450.
Romanul, F.C.A. (1965). Capillary supply and metabolism of muscle fibers. Arch. Neurol. 12:497–509.
Sullivan, S.M. and R.N. Pittman (1987). Relationship between mitochondrial volume density and capillarity in hamster muscles. Amer. J. Physiol. 252:H149-H155.
Weibel, E.R. (1979). Stereological Methods, Vol. 1; Practical Methods for Biological Morphometry. London/New York/Toronto, Academic Press.
Zumstein, A., O. Mathieu, H. Howald and H. Hoppeler (1983). Morphometric Analysis of the Capillary Supply in Skeletal Muscles of Trained and Untrained Subjects - Its Limitations in Muscle Biopsies. Pfluegers Arch. 397:277–283.
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© 1988 Plenum Press, New York
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Mathieu-Costello, O. (1988). Capillary Configuration in Contracted Muscles: Comparative Aspects. In: Gonzalez, N.C., Fedde, M.R. (eds) Oxygen Transfer from Atmosphere to Tissues. Advances in Experimental Medicine and Biology, vol 227. Springer, Boston, MA. https://doi.org/10.1007/978-1-4684-5481-9_20
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DOI: https://doi.org/10.1007/978-1-4684-5481-9_20
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