Abstract: In some examples, a computing apparatus may determine information corresponding to a data structure and indicating delays associated with an atrium lead, a left ventricle (LV) lead, and a right ventricle (RV) lead based on one or more input variables. The computing apparatus may determine a plurality of individualized characteristics based on the information corresponding to the data structure. The computing apparatus may receive, from the plurality of measurement electrodes, a plurality of second sets of electrical measurements indicating second electrical signals applied to the patient's heart based on the plurality of individualized characteristics. The computing apparatus may determine cardiac resynchronization index (CRI) values using a first set of electrical measurements (e.g., native measurements) and the plurality of second sets of electrical measurements.

Abstract: In some examples, a computing apparatus may determine information corresponding to a data structure and indicating delays associated with an atrium lead, a left ventricle (LV) lead, and a right ventricle (RV) lead based on one or more input variables. The computing apparatus may determine a plurality of individualized characteristics based on the information corresponding to the data structure. The computing apparatus may receive, from the plurality of measurement electrodes, a plurality of second sets of electrical measurements indicating second electrical signals applied to the patient's heart based on the plurality of individualized characteristics. The computing apparatus may determine cardiac resynchronization index (CRI) values using a first set of electrical measurements (e.g., native measurements) and the plurality of second sets of electrical measurements.

Abstract: The exemplary systems, methods, and interfaces may obtain and analyze electrode signals from a plurality of external electrodes. The electrode signals may include at least an anterior set of electrode signals and a posterior set of electrode signals. The anterior and posterior sets of electrode signals may be used to generate, or provide, various metrics of cardiac electrical heterogeneity and various graphical depictions that may be useful in assessing a patient's cardiac functionality.

Abstract: In some examples, a computing apparatus may determine information corresponding to a data structure and indicating delays associated with an atrium lead, a left ventricle (LV) lead, and a right ventricle (RV) lead based on one or more input variables. The computing apparatus may determine a plurality of individualized characteristics based on the information corresponding to the data structure. The computing apparatus may receive, from the plurality of measurement electrodes, a plurality of second sets of electrical measurements indicating second electrical signals applied to the patient's heart based on the plurality of individualized characteristics. The computing apparatus may determine cardiac resynchronization index (CRI) values using a first set of electrical measurements (e.g., native measurements) and the plurality of second sets of electrical measurements.

Abstract: A client computer batch message transaction group is defined that corresponds to a set of client computers. A set of separate messages is received from at least some of the client computers in the client computer batch message transaction group. For each given separate message of the set of separate messages, a write is performed to a single message reception queue, and a determination is made regarding whether the given separate message was successfully written to the single message reception queue. Responsive to a determination that all messages of the set of separate messages were successfully written to the single message reception queue, all of the messages of the set of separate messages are written to disk as a single disk write.

Abstract: The exemplary systems, methods, and interfaces may obtain and analyze electrode signals from a plurality of external electrodes. The electrode signals may include at least an anterior set of electrode signals and a posterior set of electrode signals. The anterior and posterior sets of electrode signals may be used to generate, or provide, various metrics of cardiac electrical heterogeneity and various graphical depictions that may be useful in assessing a patient's cardiac functionality.

Abstract: Embodiments of the present invention provide a method, system and computer program product for configurable pacing in messaging systems. In an embodiment of the invention, a configurable message pacing method has been provided. The method includes receiving a message directed for placement in a repository of an intermediate messaging system into which messages are placed by message producing applications and from which messages are retrieved by message consuming applications. Thereafter, it can be determined if the placement of the received message into the repository will result in a breach of an associated threshold value for the repository. Consequently, a message pacing action can be triggered responsive to the determination that the placement of the received message into the repository will result in a breach of the associated threshold value for the repository.

Abstract: The exemplary systems, methods, and interfaces may obtain and analyze electrode signals from a plurality of external electrodes. The electrode signals may include at least an anterior set of electrode signals and a posterior set of electrode signals. The anterior and posterior sets of electrode signals may be used to generate, or provide, various metrics of cardiac electrical heterogeneity and various graphical depictions that may be useful in assessing a patient's cardiac functionality.

Abstract: The exemplary systems, methods, and interfaces may obtain and analyze electrode signals from a plurality of external electrodes. The electrode signals may include at least an anterior set of electrode signals and a posterior set of electrode signals. The anterior and posterior sets of electrode signals may be used to generate, or provide, various metrics of cardiac electrical heterogeneity and various graphical depictions that may be useful in assessing a patient's cardiac functionality.

Abstract: The exemplary systems, methods, and interfaces may obtain and analyze electrode signals from a plurality of external electrodes. The electrode signals may include at least an anterior set of electrode signals and a posterior set of electrode signals. The anterior and posterior sets of electrode signals may be used to generate, or provide, various metrics of cardiac electrical heterogeneity and various graphical depictions that may be useful in assessing a patient's cardiac functionality.

Abstract: The exemplary systems, methods, and interfaces may obtain and analyze electrode signals from a plurality of external electrodes. The electrode signals may include at least an anterior set of electrode signals and a posterior set of electrode signals. The anterior and posterior sets of electrode signals may be used to generate, or provide, various metrics of cardiac electrical heterogeneity and various graphical depictions that may be useful in assessing a patient's cardiac functionality.

Abstract: A client computer batch message transaction group is defined that corresponds to a set of client computers. A set of separate messages is received from at least some of the client computers in the client computer batch message transaction group. For each given separate message of the set of separate messages, a write is performed to a single message reception queue, and a determination is made regarding whether the given separate message was successfully written to the single message reception queue. Responsive to a determination that all messages of the set of separate messages were successfully written to the single message reception queue, all of the messages of the set of separate messages are written to disk as a single disk write.

Abstract: A client computer batch message transaction group is created that includes a set of client computers from which messages are committed as a batch messaging transaction to a single message reception queue. In response to receiving separate messages from at least two of the set of client computers within the client computer batch message transaction group, the separate messages are grouped under the batch messaging transaction as a single unit of work to commit to the single message reception queue. A single batch transaction commit decision is computed based upon whether a write of each of the separate messages grouped within the single unit of work to the single message reception queue is successful.

Abstract: A small engine transport device for moving small engines comprises a plurality of adjustable arms sized and configured for receiving a vehicle engine and legs configured to counter-balance the adjustable arms when the adjustable arms are bearing the weight of a vehicle engine. Each adjustable arm may have a hand to bear against a vehicle engine. A hydraulic jack could be used to adjust the vertical position of the adjustable arms when bearing the weight of a vehicle engine. The adjustable arms and/or the legs could be foldable to lower the profile of the small engine transport device for storage.

Abstract: A client computer batch message transaction group is created that includes a set of client computers from which messages are committed as a batch messaging transaction to a single message reception queue. In response to receiving separate messages from at least two of the set of client computers within the client computer batch message transaction group, the separate messages are grouped under the batch messaging transaction as a single unit of work to commit to the single message reception queue. A single batch transaction commit decision is computed based upon whether a write of each of the separate messages grouped within the single unit of work to the single message reception queue is successful.

Abstract: A client computer batch message transaction group is created that includes a set of client computers from which messages are committed as a batch messaging transaction to a single message reception queue. In response to receiving separate messages from at least two of the set of client computers within the client computer batch message transaction group, the separate messages are grouped under the batch messaging transaction as a single unit of work to commit to the single message reception queue. A single batch transaction commit decision is computed based upon whether a write of each of the separate messages grouped within the single unit of work to the single message reception queue is successful.

Abstract: A client computer batch message transaction group is created that includes a set of client computers from which messages are committed as a batch messaging transaction to a single message reception queue. In response to receiving separate messages from at least two of the set of client computers within the client computer batch message transaction group, the separate messages are grouped under the batch messaging transaction as a single unit of work to commit to the single message reception queue. A single batch transaction commit decision is computed based upon whether a write of each of the separate messages grouped within the single unit of work to the single message reception queue is successful.

Abstract: A client computer group is created at a server computer by selecting a subset of a group of client computers, where each of the group of client computers has a separate communication channel with the server computer. A message from at least one of the subset of the group of client computers is received at the server computer. In response to receiving messages from at least two of the subset of the group of client computers within the client computer group, the messages are grouped under a single unit of work. A single decision associated with the single unit of work for the client computer group is computed. Each of the at least two of the subset of the group of client computers is operable to accept the single decision.

Abstract: A client computer group is created at a server computer by selecting a subset of a group of client computers, where each of the group of client computers has a separate communication channel with the server computer. A message from at least one of the subset of the group of client computers is received at the server computer. In response to receiving messages from at least two of the subset of the group of client computers within the client computer group, the messages are grouped under a single unit of work. A single decision associated with the single unit of work for the client computer group is computed. Each of the at least two of the subset of the group of client computers is operable to accept the single decision.

Abstract: Embodiments of the present invention provide a method, system and computer program product for configurable pacing in messaging systems. In an embodiment of the invention, a configurable message pacing method has been provided. The method includes receiving a message directed for placement in a repository of an intermediate messaging system into which messages are placed by message producing applications and from which messages are retrieved by message consuming applications. Thereafter, it can be determined if the placement of the received message into the repository will result in a breach of an associated threshold value for the repository. Consequently, a message pacing action can be triggered responsive to the determination that the placement of the received message into the repository will result in a breach of the associated threshold value for the repository.