Abstract: Aspects of the disclosed technology provide a method comprising executing different first and second instructions a first and second number of times, respectively, in repeated alternations. The method further comprises measuring spectra of signals emanating as a result of the processor executing the first and second instructions. The method also includes analyzing data indicative of the spectra of the signals to determine side-channel candidate side-band pairs that each have a lower and upper sideband at first and second frequencies, respectively, that are separated by approximately twice the respective alternation frequency. Finally, the method includes identifying a side-channel carrier frequency at a frequency approximately at a midpoint between a side-channel candidate side-band pair's first and second frequency.

Abstract: Systems and methods are provided for investigating a downhole formation using a nuclear magnetic resonance (NMR) tool. While the tool is moving through the borehole, the formation is magnetized and resulting signals are obtained. In accordance with the present approach, the acquired signals can be resolved azimuthally and/or laterally and can be reconstructed to obtain an indication of a parameter of the formation at multiple locations along the length of the borehole.

Abstract: Aspects of the disclosed technology provide a method comprising executing different first and second instructions a first and second number of times, respectively, in repeated alternations. The method further comprises measuring spectra of signals emanating as a result of the processor executing the first and second instructions. The method also includes analyzing data indicative of the spectra of the signals to determine side-channel candidate side-band pairs that each have a lower and upper sideband at first and second frequencies, respectively, that are separated by approximately twice the respective alternation frequency. Finally, the method includes identifying a side-channel carrier frequency at a frequency approximately at a midpoint between a side-channel candidate side-band pair's first and second frequency.

Abstract: Systems and methods are provided for investigating a downhole formation using a nuclear magnetic resonance (NMR) tool having two or more radio frequency receiving coils. While the tool is moving through the borehole, the formation is magnetized and resulting signals are obtained. In accordance with the present approach, the acquired signals can be resolved azimuthally and can be reconstructed to obtain an indication of a parameter of the formation at multiple locations along the length of the borehole.

Abstract: Aspects of the disclosed technology provide a method comprising executing, at a first processor and over a predetermined time period, first and second instructions in repeated alternations, wherein each alternation comprises executing the first instruction a predetermined number of times followed by executing the second instruction the predetermined number of times. Further, the method comprises measuring, via a measuring apparatus, a side-channel signal that results from the first processor executing the first and second instructions in repeated alternations. Additionally, the method comprises filtering, by a second processor, a spectral component of the measured side-channel signal, and analyzing, by the second processor, the filtered spectral component of the measured side-channel signal to determine power spectral density within a frequency range of the filtered spectral component.

Abstract: A medical imaging decision support system is provided that can conduct, and help medical professionals conduct multi-factor brain analysis. Data for disparate processing modes (for example, EEG, MRI, etc.) can be input to the system, processed in parallel in a cloud environment, and the results can be rendered in a thin client (for example, browser) for a user's rapid multi-modal evaluation of a brain.

Abstract: Systems and methods are provided for investigating a downhole formation using a nuclear magnetic resonance (NMR) tool. While the tool is moving through the borehole, the formation is magnetized and resulting signals are obtained. In accordance with the present approach, the acquired signals can be resolved azimuthally and/or laterally and can be reconstructed to obtain an indication of a parameter of the formation at multiple locations along the length of the borehole.

Abstract: Systems and methods are provided for investigating a downhole formation using a nuclear magnetic resonance (NMR) tool having two or more radio frequency receiving coils. While the tool is moving through the borehole, the formation is magnetized and resulting signals are obtained. In accordance with the present approach, the acquired signals can be resolved azimuthally and can be reconstructed to obtain an indication of a parameter of the formation at multiple locations along the length of the borehole.

Abstract: Aspects of the disclosed technology provide a method comprising executing, at a first processor and over a predetermined time period, first and second instructions in repeated alternations, wherein each alternation comprises executing the first instruction a predetermined number of times followed by executing the second instruction the predetermined number of times. Further, the method comprises measuring, via a measuring apparatus, a side-channel signal that results from the first processor executing the first and second instructions in repeated alternations. Additionally, the method comprises filtering, by a second processor, a spectral component of the measured side-channel signal, and analyzing, by the second processor, the filtered spectral component of the measured side-channel signal to determine power spectral density within a frequency range of the filtered spectral component.

Abstract: A medical imaging decision support system is provided that can conduct, and help medical professionals conduct multi-factor brain analysis. Data for disparate processing modes (for example, EEG, MRI, etc.) can be input to the system, processed in parallel in a cloud environment, and the results can be rendered in a thin client (for example, browser) for a user's rapid multi-modal evaluation of a brain.