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The energy state of the brain during and after transient cerebral ischemia was examined in rats by in vivo measurement of  31 P-nuclear magnetic resonance (NMR) spectra using a topical magnetic resonance spectrometer. EEGs and regional CBF (rCBF) were monitored on the same ischemic models. Immediately after the induction of ischemia, the height of the ATP and phosphocreatine peaks in the spectrum began to decrease with a concurrent increase of the inorganic phosphate (P i ) peak. The calculated pH from the chemical shift of P i  decreased during ischemia. The EEG pattern became flat immediately after ischemic induction. The rCBF decreased below the sensitivity level of the measuring instrument. With 30-min ischemia, the  31 P-NMR spectrum returned to a normal pattern rapidly after recirculation. However, recovery of the EEG was delayed. The rCBF after recirculation showed postischemic hyperemia followed by hypoperfusion. In cases of 120-min ischemia, none of the spectra showed recovery. Thus, we could investigate the dynamic process of pathophysiological changes occurring in the ischemic brain in vivo.

journal of cerebral blood flow and metabolism

In vivo Studies of Energy Metabolism in Experimental Cerebral Ischemia Using Topical Magnetic Resonance. Changes in <sup>31</sup>P-Nuclear Magnetic Resonance Spectra Compared with Electroencephalograms and Regional Cerebral Blood Flow

In vivo Studies of Energy Metabolism in Experimental Cerebral Ischemia Using Topical Magnetic Resonance. Changes in 31P-Nuclear Magnetic Resonance Spectra Compared with Electroencephalograms and Regional Cerebral Blood Flow

In vivo Studies of Energy Metabolism in Experimental Cerebral Ischemia Using Topical Magnetic Resonance. Changes in ³¹P-Nuclear Magnetic Resonance Spectra Compared with Electroencephalograms and Regional Cerebral Blood Flow