Abstract
Immunohistochemical studies often present the problem of quantifying the immunoreactive structures in an objective and reliable way, particularly when examining samples which may present possible changes. The advent of computerized image analysis has made possible the quantitative evaluation of immunoreactive structures identified with chromogenic or immunofluorescent methods. However, there are a number of potential problems which can be encountered during image analysis quantification. Size changes due to fixation shrinkage have been observed during specimen preparation, while tissue cutting can cause compression of the sections. Non-specific tissue autofluorescence can be reduced by the use of counterstaining or filters. Also, during imaging it is important to stabilize the power supply to provide uniform illumination. Video cameras tend to be more light-sensitive at the center of the field than at the edges, resulting in uneven illumination. For analysis, the average image input can be modified by defining a specific area or deleting unwanted signal. Before the image is measured, grey levels need to be defined to discriminate the image intensity, and analysis parameters should be selected. Using quantitative immunohistochemistry, it is possible to provide an accurate assessment of nerve density or of immunostained surface area from images containing a large number of immunoreactive structures. These measurements can be made rapidly.Statistically significant differences may be demonstrated when comparing control, experimental, or pathological tissues.
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References
T. Cowen, C. Alafaci, H.A. Crockard, and Burnstock, Origin and postnatal development of nerves showing 5-hydroxytryptamine-like immunoreactivity supplying major cerebral arteries of the rat, Neurosci Lett 78:121 (1987)
J.D. Gale, J.C.J. Alberts, and T. Cowen, A quantitative study of changes in old age of 5-hydroxytryptamine-like immunoreactivity in perivascular nerves of the rabbit. J Auton Nerv Syst 28:51 (1989)
G. Terenghi, C.B. Bunker, Y-F. Liu, D.R. Springall, T. Cowen, P.M. Dowd, and J.M. Polak, Imageanalysis quantification of peptide-immunoreactive nerves in skin of patients with Raynaud’s phenomenon and systemic sclerosis, J Path 164:245 (1991)
L.F. Agnati, K. Fuxe, A.M. Janson, M. Zoli, and A. Haustrand, Quantitative analysis, computer assisted morphometry and microdensitometry applied to immunostained neurones, in: “Immunocytochemistry: modern methods and applications”,Polak JM, Van Noorden S (eds), John Wright & Sons Ltd, Bristol, pp 205 (1986)
RJ.I. Hitchcock, M.J. Pemble, A.E. Bishop, L. Spitz, and J.M. Polak, The ontogeny and distribution of neuropeptides in the human fetal and infant oesophagus, Gastroenterology 102:840 (1992)
R. Jagoe, J.H. Steel, V. Vucicevic, N. Alexander, S. Van Noorden, R. Wooton, and J.M. Polak, Observer variation in quantification of immunocytochemistry by image analysis. Histochemistry 23:541 (1991)
R.E. Coggeshall, A consideration of neural counting methods. TINS 15:9(1992)
T.J. Stephenson, Image analysis-Critical summaries. J Pathol 166:83 (1992)
T. Cowen and G. Burnstock, Image analysis of catecholamine fluorescence. Brain Res Bull 9:81(1982)
T. Cowen, C. Alafaci, H.A. Crockard, and G. Burnstock, 5HT containing nerves to cerebral arteries of the gerbil originate in the superior cervical ganglion. Brain Res 384:51 (1986)
G.D. Johnson and G.M. Araujo, A simple method of reducing the fading of immunofluorescence during microscopy, J lmm Meth 43:349 (1981)
T. Cowen, Image analysis of FITC-immunofluorescence histochemistry in perivascular substance P-positive nerves, Histochemistry 81:609 (1984)
I.S. Dela Lande and J.G. Waterson, Modification of autofluorescence in the formaldehyde-treated rabbit ear artery by Evans Blue, J Histochem Cytochem 16:281 (1968)
T. Cowen, A.J. Haven, and G. Burnstock, Pontamine Sky Blue: a counterstain for background autofluorescence in fluorescence and immunofluorescence histochemistry, Histochemistry 82:205 (1985)
J.M. Polak and S. Van Noorden (eds), “Immunocytochemistry-Modern methods and applications”, John Wright & Sons, Bristol (1986)
T. Cowen and C. Thrasivoulou, Cerebrovascular nerves in old rats show reduced accumulation of 5-hydroxytryptamine and loss of nerve fibres, Brain Res 513:237 (1990)
L. Vacca-Galloway, Differential immunostaining for substance P in Huntington’s disease and normal spinal cord: significance of serial (optimal, supraoptimal and end-point) dilutions of primary antiserum in comparing biological specimens, Histochemistry 83:561 (1985)
J.T. McBride, D.R. Springall, R.I.D. Winter, and J.M. Polak, Quantitative immunocytochemistry shows calcitonin gene-related peptide-like immunoreactivity in lung endocrine cells is increased by chronic hypoxia in the rat, Am J Resp Cell Mol Biol 3:587 (1990)
D.R. Springall, G. Collina, G. Barer, A.J. Suggett, D. Bee, and J.M. Polak, Increased intracellular levels of calcitonin gene-related peptide-like immunoreactivity in pulmonary endocrine cells of hypoxic rats, J Pathol 155:259 (1988)
R.H. Benno, L.W. Tucker, T.H. Joh and D.J. Reis, Quantitative immunocytochemistry of tyrosinehydroxylase in rat brain. I. Development of a computer assisted method using the peroxidase antiperoxidase technique, Brain Res 246:225 (1982)
R.R. Mize, R.N. Holdefer, and L.B. Nabors, Quantitative immunocytochemistry using an image analyzer. I. Hardware evaluation, image processing, and data analysis, J Neurosci Method 26:1(1988)
A.P. Davenport, S.J. Augood, D.E. Lawson and P.C. Emson, The use of quantitative immunocytochemistry (QICC) to measure calbindin D28K-like immunoreactivity in the ratbrain, Cell Mol Biol 36:1 (1990)
C.B. Bunker, J.C. Foreman, D. O’Shaughnessy, C. Reavly, and P.M. Dowd, Calcitonin gene-related peptide in the treatment of severe Raynaud’s phenomenon, Br J Dermatol 121:43 (1989)
C.B. Bunker, G. Terenghi, D.R. Springall, J.M. Polak, and P.M. Dowd, Deficiency of calcitoningene-related peptide in Raynaud’s phenomenon, The Lancet 336:1530 (1990)
D.M. Levy, S.S. Karanth, D.R. Springall, and J.M. Polak, Depletion of cutaneous nerves and neuropeptides in diabetes mellitus: an immunocytochemical study, Diabetologia 32:427 (1989)
D.M. Levy, G. Terenghi, X-H. Gu, R.R. Abraham, D.R. Springall, and J.M. Polak, Quantitative immunohistochemistry of nerves and neuropeptides in diabetic skin: relationship to tests of neurological function, Diabetologia 35:889 (1992)
G. Properzi, S. Francavilla, G. Poccia, P. Aloisio, X-H. Gu, G. Terenghi, and J.M. Polak, Early increase precedes a depletion of VIP and PGP 9.5 in the skin of insulin dependent diabetics, J Pathol in press
G. Terenghi, H.A. Bull, C.B. Bunker, D.R. Springall, Y. Zhao, J. Wharton, P.M. Dowd and J.M. Polak, Endothelin-1 in human skin: immunohistochemical, receptor binding and functional studies, J Card Pharmacol 17 (Suppl 7):S467 (1991)
G. Properzi, G. Terenghi, X-H. Gu, G. Poccia, R. Pasqua, S. Francavilla and J.M. Polak, Anincrease of endothelin-1 immunoreactivity in cutaneous microvessels of early diabetic patients is associated with developing microangiopathy, Lab Invest (in press)
R. Katzman, Alzheimer’s disease, N Eng J Med 314:964 (1986)
G. Blessed, B.E. Tomlinson, and M. Roth, The association between quantitative measures of dementia and of senile changes in the cerebral grey matter of elderly subjects, Br J Psychiatry 114:797 (1968)
G.K. Wilcock and M.M. Esiri, Plaques, tangles and dementia-a quantitative study, J Neurol Sci 56:343 (1981)
S.M. Gentleman, C. Bruton, D. Alisop, S.J. Lewis, J.M. Polak, and G.W. Roberts, A demonstration of the advantages of immunostaining in the quantification of amyloid plaque deposits, Histochem 92:355 (1989)
S.M. Gentleman, D. Alisop, C.J. Bruton, R. Jagoe, J.M. Polak, and G.W. Roberts, Quantitative differences in the deposition of ßA4 protein in the sulci and gyri of frontal and temporalisocortex in Alzheimer’s disease, Neurosci Lett 136:27 (1992)
S.M. Gentleman, R.M. Perry and G.W. Roberts, Correlation between ß-amyloid protein (ßAP) load and mental test scores in Alzheimer’s disease, Neuropath Appl Neurobiol 17:531 (1991)
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Terenghi, G., Polak, J.M. (1994). Quantitative Immunohistochemistry for the Investigation of Regulatory Peptides in Health and Disease. In: Gu, J., Hacker, G.W. (eds) Modern Methods in Analytical Morphology. Springer, Boston, MA. https://doi.org/10.1007/978-1-4615-2532-5_2
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DOI: https://doi.org/10.1007/978-1-4615-2532-5_2
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