Abstract: The present invention relates to the technical field of sporting goods and particularly relates to a magnetic positioning stand for a golf bag. It is mainly composed of a chassis, support rods, a head frame, support legs, support steel wires, and a bag body; the chassis and the head frame constitute a cylinder structure with an open upper end and a closed lower end via the support rods; one end of the support steel wire is hinged at the end of a large chassis, and the other end is connected to the middle section of the support leg; the top of the support leg is hinged at the outside of the head frame in the same direction as the support steel wire is hinged at the end of the large chassis; the bag body surrounds the periphery between the chassis and the head frame.

Abstract: A method to deploy a plurality of event-driven application components of an event-driven application in a distributed computing environment is described. The method includes automatically analyzing application source code of the event-driven application, using one or more processors, to identify relationships between the plurality of event-driven application components. Thereafter, a set of rules are applied to, based on the automatic analysis, generate assignment data recording assignments of event-driven application components to a plurality of computational nodes in the distributed computing environment. The set of rules is also applied to determine component requirements for each of the plurality of event-driven application components required to support execution at an assigned computational node in the distributed computing environment.

Abstract: The present invention relates to the technical field of sporting goods and particularly relates to a magnetic positioning stand for a golf bag. It is mainly composed of a chassis, support rods, a head frame, support legs, support steel wires, and a bag body; the chassis and the head frame constitute a cylinder structure with an open upper end and a closed lower end via the support rods; one end of the support steel wire is hinged at the end of a large chassis, and the other end is connected to the middle section of the support leg; the top of the support leg is hinged at the outside of the head frame in the same direction as the support steel wire is hinged at the end of the large chassis; the bag body surrounds the periphery between the chassis and the head frame.

Abstract: A method to deploy a plurality of event-driven application components of an event-driven application in a distributed computing environment is described. The method includes automatically analyzing application source code of the event-driven application, using one or more processors, to identify relationships between the plurality of event-driven application components. Thereafter, a set of rules are applied to, based on the automatic analysis, generate assignment data recording assignments of event-driven application components to a plurality of computational nodes in the distributed computing environment. The set of rules is also applied to determine component requirements for each of the plurality of event-driven application components required to support execution at an assigned computational node in the distributed computing environment.

Abstract: A method to deploy a plurality of event-driven application components of an event-driven application in a distributed computing environment is described. The method includes automatically analyzing application source code of the event-driven application, using one or more processors, to identify relationships between the plurality of event-driven application components. Thereafter, a set of rules are applied to, based on the automatic analysis, generate assignment data recording assignments of event-driven application components to a plurality of computational nodes in the distributed computing environment. The set of rules is also applied to determine component requirements for each of the plurality of event-driven application components required to support execution at an assigned computational node in the distributed computing environment.

Abstract: A method to deploy a plurality of event-driven application components of an event-driven application in a distributed computing environment is described. The method includes automatically analyzing application source code of the event-driven application, using one or more processors, to identify relationships between the plurality of event-driven application components. Thereafter, a set of rules are applied to, based on the automatic analysis, generate assignment data recording assignments of event-driven application components to a plurality of computational nodes in the distributed computing environment. The set of rules is also applied to determine component requirements for each of the plurality of event-driven application components required to support execution at an assigned computational node in the distributed computing environment.

Abstract: An illumination device comprises a bulb connector, a body structure and an insulating layer between the bulb connector and a first end portion of the body structure. The illumination device further comprises a first plurality of light emitting diodes arranged towards the first end portion of the body structure and a second light source comprising at least one light emitting diode arranged towards the second end portion of the body structure. A heat sink extends from the body structure and a controller within the body structure receives power through the bulb connector and supplies power to each of the light emitting diodes. As such, the illumination device can directly replace an incandescent bulb. Thus for example, the illumination device can replace an incandescent bulb of a traffic light without requiring changes to the compartment, fixture, reflector, or window/lens.

Abstract: An illumination device comprises a bulb connector, a body structure and an insulating layer between the bulb connector and a first end portion of the body structure. The illumination device further comprises a first plurality of light emitting diodes arranged towards the first end portion of the body structure and a second light source comprising at least one light emitting diode arranged towards the second end portion of the body structure. A heat sink extends from the body structure and a controller within the body structure receives power through the bulb connector and supplies power to each of the light emitting diodes. As such, the illumination device can directly replace an incandescent bulb. Thus for example, the illumination device can replace an incandescent bulb of a traffic light without requiring changes to the compartment, fixture, reflector, or window/lens.

Abstract: Systems and methods (i.e. the “utility”) presented herein generally provide for data recovery and use of backup data for various applications. More specifically, the utility provides a means for testing data recovery and other database applications on actual data without interfering with general database functionality. For example, the utility may overcome problems associated with “refreshing” by providing a “snapshot” of the ERP systems being monitored by a disaster recovery system. In this regard, the utility may configure software pointers to point to blocks of the ERP data being monitored as opposed to physically copying every block of ERP data. That is, the software pointers generally provide a “view” into the actual data (i.e., the disaster recovery duplicate of the data) and require little storage (e.g., a few megabytes or less). Thus, actual data of the ERP system may be tested via the pointers without interruption to the failover site databases.