Abstract: An automated tote routing systems that includes a conveyer belt, an array of sensors underneath the conveyer belt, and an identifier reader disposed with respect to the conveyer belt is discussed. The conveyer belt can be configured to receive a tote filled with physical objects. The array of sensors can detect a first set of attributes associated with the physical objects within the tote. The identifier reader can read and decode an identifier from a machine-readable element disposed on the tote. The array of sensors and identifier reader can transmit the first set of attributes and the identifier to a computing system. Based on the set of information associated with the physical objects and the set of attributes associated with the physical objects, a routing module executed by the computing system can automatically trigger the conveyer belt to route the tote to a selected distribution end of the conveyor belt.

Abstract: Provided is a system and method for a multi-tenant datacenter with layer 2 cloud interconnection. More specifically the multi-tenant datacenter includes a plurality of client systems in a first datacenter each client system having a set of physical infrastructure resources. A first cloud computing environment is also in the first datacenter, and coupled to the client systems by OSI Layer 2. The first cloud computing environment thereby virtually extending the physical infrastructure resources of each client system. An associated method of providing a multi-tenant datacenter with layer 2 cloud interconnection is also provided.

Abstract: Provided is a system and method for a multi-tenant datacenter with layer 2 cloud interconnection. More specifically the multi-tenant datacenter includes a plurality of client systems in a first datacenter each client system having a set of physical infrastructure resources. A first cloud computing environment is also in the first datacenter, and coupled to the client systems by OSI Layer 2. The first cloud computing environment thereby virtually extending the physical infrastructure resources of each client system. An associated method of providing a multi-tenant datacenter with layer 2 cloud interconnection is also provided.

Abstract: Provided is a system and method for a multi-tenant datacenter with layer 2 cloud interconnection. More specifically the multi-tenant datacenter includes a plurality of physical client systems in a first datacenter each physical client system having a set of physical infrastructure resources. A first cloud computing environment is also in the first datacenter, and coupled to the physical client systems by OSI Layer 2. The first cloud computing environment thereby virtually extending the physical infrastructure resources of each physical client system. An associated method of providing a multi-tenant datacenter with layer 2 cloud interconnection is also provided.

Abstract: Provided is a system and method for a multi-tenant datacenter with layer 2 cloud interconnection. More specifically the multi-tenant datacenter includes a plurality of physical client systems in a first datacenter each physical client system having a set of physical infrastructure resources. A first cloud computing environment is also in the first datacenter, and coupled to the physical client systems by OSI Layer 2. The first cloud computing environment thereby virtually extending the physical infrastructure resources of each physical client system. An associated method of providing a multi-tenant datacenter with layer 2 cloud interconnection is also provided.

Abstract: Provided is a system and method for a multi-tenant datacenter with layer 2 cloud interconnection. More specifically the multi-tenant datacenter includes a plurality of physical client systems in a first datacenter each physical client system having a set of physical infrastructure resources. A first cloud computing environment is also in the first datacenter, and coupled to the physical client systems by OSI Layer 2. The first cloud computing environment thereby virtually extending the physical infrastructure resources of each physical client system. An associated method of providing a multi-tenant datacenter with layer 2 cloud interconnection is also provided.

Abstract: Provided is a system and method for a multi-tenant datacenter with layer 2 cloud interconnection. More specifically the multi-tenant datacenter includes a plurality of physical client systems in a first datacenter each physical client system having a set of physical infrastructure resources. A first cloud computing environment is also in the first datacenter, and coupled to the physical client systems by OSI Layer 2. The first cloud computing environment thereby virtually extending the physical infrastructure resources of each physical client system. An associated method of providing a multi-tenant datacenter with layer 2 cloud interconnection is also provided.

Abstract: Apparatus and methods are provided for securing a door against unauthorized entry.

Abstract: Embodiments of the present invention provide a method, system and computer program product for automated LAMP stack data migration. In an embodiment of the invention, a method for automated LAMP stack data migration can be provided. The method can include retrieving a profile for a LAMP stack executing in a source operating platform, selecting a LAMP stack for deployment onto a target operating platform and deploying the selected LAMP stack onto the target operating platform. The method further can include translating the retrieved profile for compatibility with the selected LAMP stack, directing a reboot of the target operating platform, and applying the translated profile to the target operating platform.

Abstract: Provided is a system and method for a multi-tenant datacenter with layer 2 cloud interconnection. More specifically the multi-tenant datacenter includes a plurality of physical client systems in a first datacenter each physical client system having a set of physical infrastructure resources. A first cloud computing environment is also in the first datacenter, and coupled to the physical client systems by OSI Layer 2. The first cloud computing environment thereby virtually extending the physical infrastructure resources of each physical client system. An associated method of providing a multi-tenant datacenter with layer 2 cloud interconnection is also provided.

Abstract: A data processing system allows processes to be checkpointed and restarted. The system saves the old process and thread identifications in a process table. When an application makes a system call passing the old process and/or thread identifications as parameters, the system performs a mapping algorithm to supply the system call with the new process and/or thread identifications. When a system call returns a new identification, the system performs a remapping algorithm to return the old identifications to the calling application program. When a group of process is restarted for which the process group leader was not checkpointed, the system creates a ghost process group leader.

Abstract: A computer implemented method, apparatus, and computer usable program code for processing breakpoints. A breakpoint is detected during execution of a process. A thread that is currently executing is identified as an identified thread. A determination is made as to whether the breakpoint is applicable to the identified thread. In response to the determination that the breakpoint is applicable to the identified thread, the execution of the process is halted. Execution of the process continues without halting execution of the process if the breakpoint is inapplicable to the identified thread.

Abstract: A method, apparatus, and computer instructions for executing a handler in a multi-threaded process handling a number of threads in a manner that avoids deadlocks. A value equal to the number of threads executing in the data processing system is set. The value is decremented each time a lock count for a thread within the number of threads is zero. A thread within the number of threads is suspended if the thread requests a lock and has a lock count of zero. A procedure, such as a handler, is executed in response to all of the threads within the number of threads having no locks.

Abstract: Embodiments of the present invention provide a method, system and computer program product for automated LAMP stack data migration. In an embodiment of the invention, a method for automated LAMP stack data migration can be provided. The method can include retrieving a profile for a LAMP stack executing in a source operating platform, selecting a LAMP stack for deployment onto a target operating platform and deploying the selected LAMP stack onto the target operating platform. The method further can include translating the retrieved profile for compatibility with the selected LAMP stack, directing a reboot of the target operating platform, and applying the translated profile to the target operating platform.

Abstract: A method, apparatus, and computer instructions for executing a handler in a multi-threaded process handling a number of threads in a manner that avoids deadlocks. A value equal to the number of threads executing in the data processing system is set. The value is decremented each time a lock count for a thread within the number of threads is zero. A thread within the number of threads is suspended if the thread requests a lock and has a lock count of zero. A procedure, such as a handler, is executed in response to all of the threads within the number of threads having no locks.

Abstract: A data processing system allows processes to be checkpointed and restarted. The system saves the old process and thread identifications in a process table. When an application makes a system cell passing the old process and/or thread identifications as parameters, the system performs a mapping algorithm to supply the system call with the new process and/or thread identifications. When a system call returns a new identification, the system performs a remapping algorithm to return the old identifications to the calling application program. When a group of process is restarted for which the process group leader was not checkpointed, the system creates a ghost process group leader.

Abstract: A computer implemented method, apparatus, and computer usable program code for processing breakpoints. A breakpoint is detected during execution of a process. A thread that is currently executing is identified as an identified thread. A determination is made as to whether the breakpoint is applicable to the identified thread. In response to the determination that the breakpoint is applicable to the identified thread, the execution of the process is halted. Execution of the process continues without halting execution of the process if the breakpoint is inapplicable to the identified thread.

Abstract: A method, apparatus, and computer instructions for executing a handler in a multi-threaded process handling a number of threads in a manner that avoids deadlocks. A value equal to the number of threads executing in the data processing system is set. The value is decremented each time a lock count for a thread within the number of threads is zero. A thread within the number of threads is suspended if the thread requests a lock and has a lock count of zero. A procedure, such as a handler, is executed in response to all of the threads within the number of threads having no locks.

Abstract: A data processing system allows processes to be checkpointed and restarted. The system saves the old process and thread identifications in a process table. When an application makes a system cell passing the old process and/or thread identifications as parameters, the system performs a mapping algorithm to supply the system call with the new process and/or thread identifications. When a system call returns a new identification, the system performs a remapping algorithm to return the old identifications to the calling application program. When a group of process is restarted for which the process group leader was not checkpointed, the system creates a ghost process group leader.

Abstract: A data processing system allows processes to be checkpointed and restarted. The system saves the old process and thread identifications in a process table. When an application makes a system call passing the old process and/or thread identifications as parameters, the system performs a mapping algorithm to supply the system call with the new process and/or thread identifications. When a system call returns a new identification, the system performs a remapping algorithm to return the old identifications to the calling application program. When a group of process is restarted for which the process group leader was not checkpointed, the system creates a ghost process group leader.