Abstract: A Positioning and Posturing Article (PPA) is provided and includes a PPA structure, wherein the PPA structure includes, a PPA front, a PPA rear, a plurality of PPA sides, a PPA top, and a PPA bottom, wherein, the PPA further includes a PPA width W, a PPA length L and a PPA thickness T, and wherein at least of the PPA top and PPA bottom are configured to have a coefficient of friction within a range of approximately 0.25 and 2, ±10%.

Abstract: A blade flexure assembly that includes first and second mounting structures. Two or more flexure blades are connected to and extend between the first and second mounting structures. Clamping blocks clamp the flexure blades to the mounting structures. The modular design of the assembly provides for replacing one or more of the flexure blades to adjust one or more functional aspects of the assembly.

Abstract: A blade flexure assembly that includes first and second mounting structures. Two or more flexure blades are connected to and extend between the first and second mounting structures. Clamping blocks clamp the flexure blades to the mounting structures. The modular design of the assembly provides for replacing one or more of the flexure blades to adjust one or more functional aspects of the assembly.

Abstract: A system is provided that includes a gimbal yoke, a gimbal swing arm, an elevation tilt platform, and a sensor. The gimbal yoke is configured to rotate about an azimuth rotation axis. The gimbal swing arm is rotationally coupled to the gimbal yoke, and is configured to rotate about an elevation rotation axis. The elevation rotation axis is oriented perpendicular to the azimuth rotation axis. The elevation tilt platform is rotationally coupled to the gimbal swing arm, and is configured to rotate about a tilt rotation axis. The tilt rotation axis is oriented parallel to the elevation rotation axis. The sensor is disposed on the elevation tilt platform. The sensor defines a line of sight.

Abstract: An example apparatus includes a cable track that includes a first side and a second side that is opposite the first side. The apparatus further includes two or more spacers. The two or more spacers include respective first ends that are attached to the first side of the cable track and respective second ends that are opposite the respective first ends. The two or more spacers further include respective first surfaces between the respective first ends and the respective second ends and respective second surfaces that are opposite the respective first surfaces. The apparatus further includes two or more pins attached proximately to the respective second ends of the two or more spacers. The two or more pins protrude from the respective first surfaces of the two or more spacers and/or protrude from the respective second surfaces of the two or more spacers.

Abstract: Cross beam flexure pivot assembly includes a first housing member having a first arcuate member a second housing member having a second arcuate member wherein the first arcuate member extends into the second housing member and the second arcuate member extends into the first housing member. First, second and, third beams extend in first direction and fourth and fifth beams extend in a second direction all secured to first and second arcuate members. A first axis, second axis and radial axis of the first and second housing members form a common point of intersection. Total of cross section areas of beams extending in first direction and of beams extending in second direction are equal providing equal linear stiffness in both directions. Total moment stiffness about first axis equals total moment stiffness about the second axis.

Abstract: Cross beam flexure pivot assembly includes a first housing member having a first arcuate member a second housing member having a second arcuate member wherein the first arcuate member extends into the second housing member and the second arcuate member extends into the first housing member. First, second and, third beams extend in first direction and fourth and fifth beams extend in a second direction all secured to first and second arcuate members. A first axis, second axis and radial axis of the first and second housing members form a common point of intersection. Total of cross section areas of beams extending in first direction and of beams extending in second direction are equal providing equal linear stiffness in both directions. Total moment stiffness about first axis equals total moment stiffness about the second axis.

Abstract: A system is provided that includes a gimbal yoke, a gimbal swing arm, an elevation tilt platform, and a sensor. The gimbal yoke is configured to rotate about an azimuth rotation axis. The gimbal swing arm is rotationally coupled to the gimbal yoke, and is configured to rotate about an elevation rotation axis. The elevation rotation axis is oriented perpendicular to the azimuth rotation axis. The elevation tilt platform is rotationally coupled to the gimbal swing arm, and is configured to rotate about a tilt rotation axis. The tilt rotation axis is oriented parallel to the elevation rotation axis. The sensor is disposed on the elevation tilt platform. The sensor defines a line of sight.

Abstract: An example apparatus includes a cable track that includes a first side and a second side that is opposite the first side. The apparatus further includes two or more spacers. The two or more spacers include respective first ends that are attached to the first side of the cable track and respective second ends that are opposite the respective first ends. The two or more spacers further include respective first surfaces between the respective first ends and the respective second ends and respective second surfaces that are opposite the respective first surfaces. The apparatus further includes two or more pins attached proximately to the respective second ends of the two or more spacers. The two or more pins protrude from the respective first surfaces of the two or more spacers and/or protrude from the respective second surfaces of the two or more spacers.

Abstract: An example apparatus includes a cable track that includes a first side and a second side that is opposite the first side. The apparatus further includes two or more spacers. The two or more spacers include respective first ends that are attached to the first side of the cable track and respective second ends that are opposite the respective first ends. The two or more spacers further include respective first surfaces between the respective first ends and the respective second ends and respective second surfaces that are opposite the respective first surfaces. The apparatus further includes two or more pins attached proximately to the respective second ends of the two or more spacers. The two or more pins protrude from the respective first surfaces of the two or more spacers and/or protrude from the respective second surfaces of the two or more spacers.

Abstract: A pattern of configuration settings to be implemented for a service model corresponding to a system of IT resources is received from a UI. Commands are issued to the IT resources that correspond to configuration items included in the selected pattern to modify configuration settings. When a configuration change resulting from the commands is identified, a current configuration of the service model is compared to a previous configuration to identify modified configuration settings. In response to determining, based on a system performance indicator, improved system performance, the identified modified configuration settings are stored as a candidate pattern in a pattern database. A performance violation is identified for the system and the pattern database is queried to retrieve the candidate pattern including the group of configuration settings.

Abstract: An example apparatus includes a cable track that includes a first side and a second side that is opposite the first side. The apparatus further includes two or more spacers. The two or more spacers include respective first ends that are attached to the first side of the cable track and respective second ends that are opposite the respective first ends. The two or more spacers further include respective first surfaces between the respective first ends and the respective second ends and respective second surfaces that are opposite the respective first surfaces. The apparatus further includes two or more pins attached proximately to the respective second ends of the two or more spacers. The two or more pins protrude from the respective first surfaces of the two or more spacers and/or protrude from the respective second surfaces of the two or more spacers.

Abstract: Performance of a computer system is measured based, at least in part, on a performance metric. In response to determining that the computer system is experiencing a performance issue based on measuring the performance, the performance metric is matched with an anti-pattern to identify a performance issue, wherein the anti-pattern defines an incorrect solution to a defined problem occurring in the computer system. Also, a pattern repository is queried to identify a pattern that defines a correct solution to the defined problem based, at least in part, on the match between the performance metric and the anti-pattern. In response to identifying the pattern, implementing the pattern in the computer system to improve the performance.

Abstract: Performance of a computer system is measured based, at least in part, on a performance metric. In response to determining that the computer system is experiencing a performance issue based on measuring the performance, the performance metric is matched with an anti-pattern to identify a performance issue, wherein the anti-pattern defines an incorrect solution to a defined problem occurring in the computer system. Also, a pattern repository is queried to identify a pattern that defines a correct solution to the defined problem based, at least in part, on the match between the performance metric and the anti-pattern. In response to identifying the pattern, implementing the pattern in the computer system to improve the performance.

Abstract: Various embodiments described and illustrated herein include at least one of systems, methods, and software to identify, use, or share patterns and anti-patterns. Embodiments that include pattern and anti-pattern identification operate to identify candidate patterns and anti-patterns within a deployed system and to confirm or receive confirmation that the identified candidates are indeed patterns or anti-patterns. Embodiments that use patterns and anti-patterns operate to consume the identified patterns and anti-patterns to improve system performance. The embodiments that share patterns and anti-patterns include mechanisms whereby patterns and anti-patterns can be sent to and received from other systems.

Abstract: Various embodiments described and illustrated herein include at least one of systems, methods, and software to identify and resolve violations of system and process performance measuring metrics. Following identification of such a violation, some embodiments may identify and cause a solution to be implemented. Following implementation of a solution, the violated metrics are again applied and the results evaluated to verify resolution of the metric violation. Some embodiments may repeat this process until the metric violation or violations are resolved.

Abstract: Various embodiments described and illustrated herein include at least one of systems, methods, and software to identify and resolve violations of system and process performance measuring metrics. Following identification of such a violation, some embodiments may identify and cause a solution to be implemented. Following implementation of a solution, the violated metrics are again applied and the results evaluated to verify resolution of the metric violation. Some embodiments may repeat this process until the metric violation or violations are resolved.

Abstract: A computer system includes a plurality of computer processor dependent nodes and a plurality of computer processor antecedent nodes. Each node includes a severity value relating to an operational state of the node. A dependent node and an antecedent node pair include a significance value relating to a criticality that the antecedent node has to its paired dependent node. The antecedent node comprises a relevance value, wherein the relevance value is a function of the severity value of the antecedent node and the significance value for the antecedent node and the dependent node. The relevance value is used to determine an impact that the antecedent node has on the paired dependent node.

Abstract: A computer system includes a plurality of computer processor dependent nodes and a plurality of computer processor antecedent nodes. Each node includes a severity value relating to an operational state of the node. A dependent node and an antecedent node pair include a significance value relating to a criticality that the antecedent node has to its paired dependent node. The antecedent node comprises a relevance value, wherein the relevance value is a function of the severity value of the antecedent node and the significance value for the antecedent node and the dependent node. The relevance value is used to determine an impact that the antecedent node has on the paired dependent node.

Abstract: Various embodiments described and illustrated herein include at least one of systems, methods, and software to identify and resolve violations of system and process performance measuring metrics. Following identification of such a violation, some embodiments may identify and cause a solution to be implemented. Following implementation of a solution, the violated metrics are again applied and the results evaluated to verify resolution of the metric violation. Some embodiments may repeat this process until the metric violation or violations are resolved.