Adenosine kinase is a target for the prediction and prevention of epileptogenesis in mice
J. Clin. Invest. Tianfu Li, et al. 118:571 doi:10.1172/JCI33737 [
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Figure 3Photomicrographs of ADK immunoreactivity in coronal brain sections of adult mice, processed for immunoperoxidase staining under identical conditions. (
A) Hippocampal formation of a WT brain showing a homogenous distribution of individual cells expressing ADK. (
B) CA3 region (asterisk) of WT mouse at higher magnification showing the restriction of ADK expression to individual astrocytes (arrows). (
C) Hippocampal formation of an
Adk-Tg brain showing ubiquitous overexpression of transgenic ADK coupled with a loss of punctate staining of endogenous ADK in individual cells. Note the strong ADK immunoreactivity in pyramidal cell neurons. Dashed arrow, cortex; solid arrow, thalamus. (
D) CA3 region of an
Adk-Tg mouse at higher magnification showing overexpression of ADK in CA3 neurons (asterisk). (
E) Spontaneous seizure recorded from the CA3 region of an
Adk-Tg mouse. Trace represents 30 s of recording time. (
F) Hippocampal formation of an
fb-Adk-def brain showing reduced ADK staining in hippocampus and cortex (dashed arrow) compared with thalamus (solid arrow) and striatum of the same slice and compared with both WT and
Adk-Tg hippocampus. (
G) CA3 region of an
fb-Adk-def mouse at higher magnification showing global reduction of ADK but individual remaining ADK-positive cells (arrows). Scale bars: 500 μm (
A,
C, and
F), 50 μm (
B,
D, and
G).