Matt Barrie

A method and apparatus for engaging, on behalf of a client computing device, one or more remote computing devices to perform a client directed task for a fee. The method comprising the steps of: receiving, from a client computing device, data indicative of a task to be performed; reviewing capabilities of the remote computing devices; selecting one or more suitable remote computing devices for performing at least a first subtask; negotiating, and reaching agreement, with selected remote… Show more

A method and apparatus for engaging, on behalf of a client computing device, one or more remote computing devices to perform a client directed task for a fee. The method comprising the steps of: receiving, from a client computing device, data indicative of a task to be performed; reviewing capabilities of the remote computing devices; selecting one or more suitable remote computing devices for performing at least a first subtask; negotiating, and reaching agreement, with selected remote computing devices on terms for performing the first subtask; verifying receipt of payment from a client, being associated with the client computing device; dispatching the first subtask; receiving a first result, from respective remote computing device; and providing payment to a remote provider, being associated with the remote computer device. Show less

A multicore network security system includes scheduler modules, one or more security modules and post-processing modules. Each security module may be a processing core or itself a network security system. A scheduler module routes input data to the security modules, which perform network security functions, then routes processed data to one or more post-processing modules. The post-processing modules post-process this processed data and route it back to scheduler modules. If further processing… Show more

A multicore network security system includes scheduler modules, one or more security modules and post-processing modules. Each security module may be a processing core or itself a network security system. A scheduler module routes input data to the security modules, which perform network security functions, then routes processed data to one or more post-processing modules. The post-processing modules post-process this processed data and route it back to scheduler modules. If further processing is required, the processed data is routed to the security modules; otherwise the processed data is output from the scheduler modules. Each processing core may operate independently from other processing cores, enabling parallel and simultaneous execution of network security functions. Show less

Incoming data streams are processed at relatively high speed for decoding, content inspection and classification. A multitude of processing channels process multiple data streams concurrently so as to allows networking based host systems to provide the data streams—as the packets carrying these data streams are received from the network—without requiring the data streams to be buffered. Moreover, host systems processing stored content, such as email messages and computer files, can process more… Show more

Incoming data streams are processed at relatively high speed for decoding, content inspection and classification. A multitude of processing channels process multiple data streams concurrently so as to allows networking based host systems to provide the data streams—as the packets carrying these data streams are received from the network—without requiring the data streams to be buffered. Moreover, host systems processing stored content, such as email messages and computer files, can process more than one stream at once and thereby make better utilization of the host system's CPU. Processing bottlenecks are alleviated by offloading the tasks of data extraction, inspection and classification from the host CPU. Show less

A first security processing stage performs a first multitude of tasks and a second security processing stage performs a second multitude of tasks. The first and second multitude of tasks may include common tasks. The first security processing stage is a prefilter to the second security processing stage. The input data received as a data stream is first processed by the first security processing stage, which in response, generates one or more first processed data streams. The first processed… Show more

A first security processing stage performs a first multitude of tasks and a second security processing stage performs a second multitude of tasks. The first and second multitude of tasks may include common tasks. The first security processing stage is a prefilter to the second security processing stage. The input data received as a data stream is first processed by the first security processing stage, which in response, generates one or more first processed data streams. The first processed data streams may be further processed by the second security processing stage or may bypass the second security processing stage. The first security processing stage operates at a speed greater than the speed of the second security processing stage. Show less

A programmable finite state machine (FSM) includes, in part, first and second memories, and a selection circuit coupled to each of the memories. Upon receiving a (k+m)-bit word representative of the k-bit input symbol and the m-bit current state, the first memory supplies one ore more matching transition rules stored therein. The selection circuit selects the most specific of the supplied rules. The transition rules are stored in the first memory in a ranking order of generality. The second… Show more

A programmable finite state machine (FSM) includes, in part, first and second memories, and a selection circuit coupled to each of the memories. Upon receiving a (k+m)-bit word representative of the k-bit input symbol and the m-bit current state, the first memory supplies one ore more matching transition rules stored therein. The selection circuit selects the most specific of the supplied rules. The transition rules are stored in the first memory in a ranking order of generality. The second memory receives the selected transition rule and supplies the next state of the FSM. The first memory may be a ternary content addressable memory and the second memory may be a static random access memory. The contents of both the content addressable memory and the static random memory is determined by an algorithm which minimizes the number of terms required to represent the next-state transition functions. Show less

An architecture for an integrated circuit apparatus (Figure 3, 300) and method that allows significant performance improvements for signature based network applications. In various embodiments the architecture allows high throughput classification of packets into network streams, packet reassembly of such streams, filtering and pre-processing of such streams (Figure 3, 302), pattern matching on header tad payload content of such streams, and action execution based upon rule-based policy for… Show more

An architecture for an integrated circuit apparatus (Figure 3, 300) and method that allows significant performance improvements for signature based network applications. In various embodiments the architecture allows high throughput classification of packets into network streams, packet reassembly of such streams, filtering and pre-processing of such streams (Figure 3, 302), pattern matching on header tad payload content of such streams, and action execution based upon rule-based policy for multiple network applications (Figure 3, 308), simultaneously at wire speed. The present invention is improved over the prior art designs, in performance, flexibility and pattern database size. Show less

A programmable finite state machine (FSM) includes, in part, first and second memories, and a selection circuit coupled to each of the memories. Upon receiving a (k+m)-bit word representative of the k-bit input symbol and the m-bit current state, the first memory supplies one ore more matching transition rules stored therein. The selection circuit selects the most specific of the supplied rules. The transition rules are stored in the first memory in a ranking order of generality. The second… Show more

A programmable finite state machine (FSM) includes, in part, first and second memories, and a selection circuit coupled to each of the memories. Upon receiving a (k+m)-bit word representative of the k-bit input symbol and the m-bit current state, the first memory supplies one ore more matching transition rules stored therein. The selection circuit selects the most specific of the supplied rules. The transition rules are stored in the first memory in a ranking order of generality. The second memory receives the selected transition rule and supplies the next state of the FSM. The first memory may be a ternary content addressable memory and the second memory may be a static random access memory. The contents of both the content addressable memory and the static random memory is determined by an algorithm which minimizes the number of terms required to represent the next-state transition functions. Show less