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Diabetes 51:819-824, 2002
© 2002 by the American Diabetes Association, Inc.

Morphometry of Dorsal Root Ganglion in Chronic Experimental Diabetic Neuropathy

Motoko Kishi, James Tanabe, James D. Schmelzer, and Phillip A. Low

From the Department of Neurology, Mayo Clinic, Rochester, Minnesota

Chronic hyperglycemia results in a predominantly sensory neuropathy. Recent studies suggest that dorsal root ganglion (DRG) neurons comprise a specific target and may be responsible for the important complication of diabetic sensory neuropathy, since hyperglycemia for longer than 6 months results in a vacuolar ganglionopathy with associated radiculopathy and distal sensory neuropathy. We undertook morphometric analysis of L5 DRG neurons in seven diabetic rats and six age- and sex-matched littermates. Nerve conduction studies were also performed, and neuropathy was confirmed. Diabetes was induced with streptozotocin; duration of diabetes was 12 months. The DRG count for control rats was 15,304 ± 991 neurons. Two of seven diabetic DRG counts were reduced, but the group mean count at 14,847 ± 1,524 was not significantly reduced. The number of small neurons (type B) considerably exceeded that of large neurons (type A), at a ratio of 71:29. The percentage of large cells was significantly reduced in diabetic compared with control rats (P = 0.01). The large-diameter population can be subdivided into two groups; with this subdivision, the number of neurons <50 µm was not reduced in samples from diabetic rats, but the neurons of largest size (>=50 µm) were significantly reduced (by 41%).



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