Abstract:
Managing multiple cartridges that are electrically coupled together includes obtaining general purpose command instructions from a chassis with a cartridge where the cartridge has a unique application and is connected to the chassis and further operating the unique application based on the general purpose command instructions.
Abstract:
A network switch for implementing a Software Defined Network can include one or more memory resources storing a flow table and including a buffer. The network switch can receive and analyze data packets to generate a lookup key for each respective data packet. Using the lookup key, the network switch can perform a lookup in the flow table to determine a rule number for the respective data packet. Based on the rule number, the network switch can generate an event record for the respective data packet, and store the event record in a block of the buffer. When the block is full, the network switch can stream a set of event records from the buffer to a processing resource to enable the processing resource to update counter tables, external to the network switch, to implement the Software Defined Network.
Abstract:
In an example implementation according to aspects of the present disclosure, a computing system includes a memory resource having a plurality of memory resource regions and a plurality of computing resources. The plurality of computing resources are communicatively coupleable to the memory resource. Each computing node may include a native memory management unit to manage a native memory on the computing resource and a memory resource memory management unit to manage the memory resource region of the memory resource associated with the computing resource.
Abstract:
In an example implementation according to aspects of the present disclosure, a memory controller is disclosed. The memory controller is communicatively coupleable to a memory resource having a plurality of memory resource regions, which may be associated with a plurality of computing resources. The memory controller may include a memory resource interface to communicatively couple the memory controller to the memory resource and a computing resource interface to communicatively couple the memory controller to the plurality of computing resources. The memory controller may further include a memory resource memory management unit to manage the memory resource.
Abstract:
Managing multiple cartridges that are electrically coupled together includes obtaining general purpose command instructions from a chassis with a cartridge where the cartridge has a unique application and is connected to the chassis and further operating the unique application based on the general purpose command instructions.
Abstract:
Managing multiple cartridges that are electrically coupled together includes obtaining general purpose command instructions from a chassis with a cartridge where the cartridge has a unique application and is connected to the chassis and further operating the unique application based on the general purpose command instructions.
Abstract:
Managing multiple cartridges that are electrically coupled together includes obtaining general purpose command instructions from a chassis with a cartridge where the cartridge has a unique application and is connected to the chassis and further operating the unique application based on the general purpose command instructions.
Abstract:
In an example implementation according to aspects of the present disclosure, a memory controller is disclosed. The memory controller is communicatively coupleable to a memory resource having a plurality of memory resource regions, which may be associated with a plurality of computing resources. The memory controller may include a memory resource interface to communicatively couple the memory controller to the memory resource and a computing resource interface to communicatively couple the memory controller to the plurality of computing resources. The memory controller may further include a memory resource memory management unit to manage the memory resource.
Abstract:
A network switch for implementing a Software Defined Network can include one or more memory resources storing a flow table and including a buffer. The network switch can receive and analyze data packets to generate a lookup key for each respective data packet. Using the lookup key, the network switch can perform a lookup in the flow table to determine a rule number for the respective data packet. Based on the rule number, the network switch can generate an event record for the respective data packet, and store the event record in a block of the buffer. When the block is full, the network switch can stream a set of event records from the buffer to a processing resource to enable the processing resource to update counter tables, external to the network switch, to implement the Software Defined Network.