Abstract: The disclosed computer-implemented method may include (1) receiving a set of control performance values and a set of modified performance values, (2) determining a set of comparative performance values based on the set of control performance values and the set of modified performance values, (3) generating a call graph based on the set of comparative performance values, the call graph including a set of nodes, each node corresponding to a function, the function corresponding to a particular comparative performance value included in the set of comparative performance values, and (b) a set of edges connecting the nodes based on relationships between the nodes, (4) weighting each node in accordance with the comparative performance value corresponding to the node, and (5) displaying the call graph via a user interface in accordance with the weighting of each node. Various other methods, systems, and computer-readable media are also disclosed.

Abstract: A method and system are provided for creating and simultaneously displaying medical scan images, from each of first (780) and second (530) medical scan datasets, obtained by scanning a 3-dimensional (3-D) object with different scanning modalities. A first image (410) is derived from the first (780) dataset, the first image (410) lying in a first plane corresponding to an acquisition plane of the first (780) dataset. A second image (420) is obtained from the second dataset (530), the second image also lying in the first plane. The second image may be obtained by re-slicing the second data set. One or both medical scan datasets may be multivolume datasets. The invention may improve viewing resolution and/or speed, when viewing a multi-series MRI scan together with a CT and/or a PET scan.

Abstract: A method, medical imaging workstation (1000) and hybrid medical imaging scanner (1100) are provided for defining a region of interest (RoI) for display on at least two medical scan images. When displaying a first medical scan image (740), input data defining a RoI on the image is captured, and stored as at least a first region representation (760). The RoI is displayed on a second medical scan image (750), based on the first region representation (760). Changes to the RoI on the second medical scan image (750) are used to update the first region representation (760). There may be separate region representations (760, 770) associated with each of several medical scan images. The invention may improve the definition of a region of interest, by allowing editing on each of multiple image displays (820, 830, 880) to feed through to all medical scan images.

Abstract: A method, medical imaging workstation (1000) and hybrid medical imaging scanner (1100) are provided for defining a region of interest (RoI) for display on at least two medical scan images. When displaying a first medical scan image (740), input data defining a RoI on the image is captured, and stored as at least a first region representation (760). The RoI is displayed on a second medical scan image (750), based on the first region representation (760). Changes to the RoI on the second medical scan image (750) are used to update the first region representation (760). There may be separate region representations (760, 770) associated with each of several medical scan images. The invention may improve the definition of a region of interest, by allowing editing on each of multiple image displays (820, 830, 880) to feed through to all medical scan images.

Abstract: A method and system are provided for creating and simultaneously displaying medical scan images, from each of first (780) and second (530) medical scan datasets, obtained by scanning a 3-dimensional (3-D) object with different scanning modalities. A first image (410) is derived from the first (780) dataset, the first image (410) lying in a first plane corresponding to an acquisition plane of the first (780) dataset. A second image (420) is obtained from the second dataset (530), the second image also lying in the first plane. The second image may be obtained by re-slicing the second data set. One or both medical scan datasets may be multivolume datasets. The invention may improve viewing resolution and/or speed, when viewing a multi-series MRI scan together with a CT and/or a PET scan.

Abstract: The present invention is a high-protein foodstuff that comprises at least two layers wherein at least one of the layers comprises at least 25% of protein and wherein the high-protein foodstuff may further comprise of a high protein coating or low protein coating. The present invention is also directed to methods for making the high protein foodstuff, optionally with a high protein coating or low protein coating.

Abstract: The present invention is a high-protein foodstuff that comprises at least two layers wherein at least one of the layers comprises at least 25% of protein and wherein the high-protein foodstuff may further comprise of a high protein coating. The present invention is also directed to methods for making the high protein foodstuff, optionally with a high protein coating.

Abstract: The present invention is a high-protein foodstuff that comprises at least two layers wherein at least one of the layers comprises at least 25% of protein and wherein the high-protein foodstuff may further comprise of a high protein coating or low protein coating. The present invention is also directed to methods for making the high protein foodstuff, optionally with a high protein coating or low protein coating.

Abstract: The present invention is a high-protein foodstuff that comprises at least two layers wherein at least one of the layers comprises at least 25% of protein and wherein the high-protein foodstuff may further comprise of a high protein coating. The present invention is also directed to methods for making the high protein foodstuff, optionally with a high protein coating.