Abstract: A system for using free-space optics to interconnect a plurality of computing nodes can include a plurality of node optical transceivers that are electrically coupled to at least some of the plurality of computing nodes. The system can also include a plurality of router optical transceivers that facilitate free-space optical communications with the plurality of node optical transceivers. Each node optical transceiver among the plurality of node optical transceivers can have a corresponding router optical transceiver that is optically coupled to the node optical transceiver. The system can also include a router that is coupled to the plurality of router optical transceivers. The router can be configured to route the free-space optical communications among the plurality of computing nodes.

Abstract: A system for using free-space optics to interconnect a plurality of computing nodes can include a plurality of node optical transceivers that are electrically coupled to at least some of the plurality of computing nodes. The system can also include a plurality of router optical transceivers that facilitate free-space optical communications with the plurality of node optical transceivers. Each node optical transceiver among the plurality of node optical transceivers can have a corresponding router optical transceiver that is optically coupled to the node optical transceiver. The system can also include a router that is coupled to the plurality of router optical transceivers. The router can be configured to route the free-space optical communications among the plurality of computing nodes.

Abstract: Providing predictive instruction dispatch throttling to prevent resource overflow in out-of-order processor (OOP)-based devices is disclosed. An OOP-based device includes a system resource that may be consumed or otherwise occupied by instructions, as well as an execution pipeline comprising a decode stage and a dispatch stage. The OOP further maintains a running count and a resource usage threshold. Upon receiving an instruction block, the decode stage extracts a proxy value that indicates an approximate predicted count of instructions within the instruction block that will consume a system resource. The decode stage then increments the running count by the proxy value. The dispatch stage compares the running count to the resource usage threshold before dispatching any younger instruction blocks. If the running count exceeds the resource usage threshold, the dispatch stage blocks dispatching of younger instruction blocks until the running count no longer exceeds the resource usage threshold.

Abstract: Providing predictive instruction dispatch throttling to prevent resource overflow in out-of-order processor (OOP)-based devices is disclosed. In this regard, an OOP-based device includes a system resource that may be consumed or otherwise occupied by instructions, as well as an execution pipeline comprising a decode stage and a dispatch stage. The OOP further maintains a running count and a resource usage threshold. Upon receiving an instruction block, the decode stage extracts a proxy value that indicates an approximate predicted count of instructions within the instruction block that will consume a system resource. The decode stage then increments the running count by the proxy value. The dispatch stage compares the running count to the resource usage threshold before dispatching any younger instruction blocks. If the running count exceeds the resource usage threshold, the dispatch stage blocks dispatching of younger instruction blocks until the running count no longer exceeds the resource usage threshold.