Abstract: In one embodiment, a patient's brain is evaluated after onset of a stroke by capturing computed tomography angiography (CTA) images of the brain, analyzing the CTA images with a CTA image analysis program to evaluate the patient's brain, and generating results based upon the analysis that provide an assessment of the brain. In some cases, the CTA image analysis program comprises a machine-learning algorithm that has been trained on the results of perfusion imaging analysis.

Abstract: In one embodiment, a patient's brain is evaluated after onset of a stroke by capturing computed tomography angiography (CTA) images of the brain, analyzing the CTA images with a CTA image analysis program to evaluate the patient's brain, and generating results based upon the analysis that provide an assessment of the brain. In some cases, the CTA image analysis program comprises a machine-learning algorithm that has been trained on the results of perfusion imaging analysis.

Abstract: In one embodiment, a patient's brain is evaluated after onset of a stroke by capturing computed tomography angiography (CTA) images of the brain, analyzing the CTA images with a CTA image analysis program to evaluate the patient's brain, and generating results based upon the analysis that provide an assessment of the brain. In some cases, the CTA image analysis program comprises a machine-learning algorithm that has been trained on the results of perfusion imaging analysis.

Abstract: In one embodiment, a patient's brain is evaluated after onset of a stroke by capturing computed tomography angiography (CTA) images of the brain, analyzing the CTA images with a CTA image analysis program to evaluate the patient's brain, and generating results based upon the analysis that provide an assessment of the brain. In some cases, the CTA image analysis program comprises a machine-learning algorithm that has been trained on the results of perfusion imaging analysis.

Abstract: Model systems have shown that shifting a cell's reliance from oxidative phosphorylation (OXPHOS) to glycolysis can protect against cell death. Exploiting the therapeutic potential of this strategy, however, has been limited by the lack of clinically safe agents that remodel energy metabolism. The present invention identifies non-toxic small molecules (e.g., drug-like compounds) that are capable of modulating oxidative metabolism. One identified compound comprises meclizine. As described herein, meclizine, and its enantiomer S-meclizine, redirects OXPHOS to glycolysis. Such compounds could be protective or therapeutic in degenerative disorders such as diabetes, Huntington's, Parkinson's, and Alzheimer's disease and/or ischemic disorders including, but not limited to, stroke, heart attack, or reperfusion injuries.

Abstract: Model systems have shown that shifting a cell's reliance from oxidative phosphorylation (OXPHOS) to glycolysis can protect against cell death. Exploiting the therapeutic potential of this strategy, however, has been limited by the lack of clinically safe agents that remodel energy metabolism. The present invention identifies non-toxic small molecules (e.g., drug-like compounds) that are capable of modulating oxidative metabolism. One identified compound comprises meclizine. As described herein, meclizine, and its enantiomer S-meclizine, redirects OXPHOS to glycolysis. Such compounds could be protective or therapeutic in degenerative disorders such as diabetes, Huntington's, Parkinson's, and Alzheimer's disease and/or ischemic disorders including, but not limited to, stroke, heart attack, or reperfusion injuries.

Abstract: Model systems have shown that shifting a cell's reliance from oxidative phosphorylation (OXPHOS) to glycolysis can protect against cell death. Exploiting the therapeutic potential of this strategy, however, has been limited by the lack of clinically safe agents that remodel energy metabolism. The present invention identifies non-toxic small molecules (e.g., drug-like compounds) that are capable of modulating oxidative metabolism. One identified compound comprises meclizine. As described herein, meclizine, and its enantiomer S-meclizine, redirects OXPHOS to glycolysis. Such compounds could be protective or therapeutic in degenerative disorders such as diabetes, Huntington's, Parkinson's, and Alzheimer's disease and/or ischemic disorders including, but not limited to, stroke, heart attack, or reperfusion injuries.

Abstract: Model systems have shown that shifting a cell's reliance from oxidative phosphorylation (OXPHOS) to glycolysis can protect against cell death. Exploiting the therapeutic potential of this strategy, however, has been limited by the lack of clinically safe agents that remodel energy metabolism. The present invention identifies non-toxic small molecules (e.g., drug-like compounds) that are capable of modulating oxidative metabolism. One identified compound comprises meclizine. As described herein, meclizine, and its enantiomer S-meclizine, redirects OXPHOS to glycolysis. Such compounds could be protective or therapeutic in degenerative disorders such as diabetes, Huntington's, Parkinson's, and Alzheimer's disease and/or ischemic disorders including, but not limited to, stroke, heart attack, or reperfusion injuries.

Abstract: Model systems have shown that shifting a cell's reliance from oxidative phosphorylation (OXPHOS) to glycolysis can protect against cell death. Exploiting the therapeutic potential of this strategy, however, has been limited by the lack of clinically safe agents that remodel energy metabolism. The present invention identifies non-toxic small molecules (e.g., drug-like compounds) that are capable of modulating oxidative metabolism. One identified compound comprises meclizine. As described herein, meclizine, and its enantiomer S-meclizine, redirects OXPHOS to glycolysis. Such compounds could be protective or therapeutic in degenerative disorders such as diabetes, Huntington's, Parkinson's, and Alzheimer's disease and/or ischemic disorders including, but not limited to, stroke, heart attack, or reperfusion injuries.