Intel Corporation

Tahoe Research, Ltd.

Ren Wang

Tsung-Yuan Charles Tai

Christian Maciocco

Jr-Shian Tsai

Sameh Gobriel

Yipeng Wang

Mesut A Ergin

Andrew J Herdrich

Alexander W Min

Namakkal N Venkatesan

Christopher B Wilkerson

Zeshan A Chishti

Prakash N Iyer

Anil Vasudevan

Sanjay Bakshi

Edwin Verplanke

Bruce L Fleming

Aamer Jaleel

Shrikant M Shah

Bruce Richardson

Sanjay Rungta

Robert G Blankenship

Raanan Sade

Arvind A Kumar

Kristoffer Fleming

Sanjeev Jain

Niall D McDonnell

Rath Vannithamby

Rajesh M Sankaran

John Charles Weast

Srikathyayani Srikanteswara

Debra Bernstein

Yen-Cheng Liu

Vallabhajosyula S Somayazulu

David Sonnier

Stephen R Van Doren

Eve M Schooler

Vedaraman Geetha

William G Burroughs

Hugh Wilkinson

Eric R Delano

Adrian C Moga

Andrew Cunningham

Kshitij Arun Doshi

Christopher J Hughes

Kapil Sood

Paul S Diefenbaugh

Ohad Falik

Hassnaa Moustafa

John Joseph Browne

Manuel Nedbal

Ben-Zion Friedman

Hang T Nguyen

Herbert H Hum

Jong Soo Park

Rajeev D Muralidhar

Jeffrey Sedayao

Bradley A Burres

Brian J Skerry

Harinarayanan Seshadri

Scott D Hahn

Thomas M Slaight

Nrupal R Jani

Michael Mesnier

Sung Ho Lee

Cunming Liang

David Ott

Francesc Guim Bernat

Ravi L Sahita

Bret L Toll

David J Harriman

Jason W Brandt

Nageen Himayat

Patrick L Connor

Ravishankar Iyer

Prashant R Chandra

Nadav Shulman

Lakshman Krishnamurthy

Joseph Nuzman

Sebastian Schoenberg

Alexander Bachmutsky

Raghu R Kondapalli

Maruti Gupta Hyde

James W Alexander

Ashish V Choubal

Mona Vij

Narayan Ranganathan

Rahul R Shah

Iosif Gasparakis

Andrew D Henroid

Michael J Espig

Arun Raghunath

Nilesh K Jain

Brinda Ganesh

Samantika S Sury

Raj S Yavatkar

Rajendra S Yavatkar

Somnath Paul

John R Fastabend

Eric K Mann

Technologies for dynamically managing a batch size of packets include a network device. The network device is to receive, into a queue, packets from a remote node to be processed by the network device, determine a throughput provided by the network device while the packets are processed, determine whether the determined throughput satisfies a predefined condition, and adjust a batch size of packets in response to a determination that the determined throughput satisfies a predefined condition. The batch size is indicative of a threshold number of queued packets required to be present in the queue before the queued packets in the queue can be processed by the network device.

Technologies for dynamic batch size management

Examples include a computing system having a direct memory access (DMA) engine pipeline, a plurality of processing cores, each processing core including a core pipeline, and a memory coupled to the DMA engine pipeline and the plurality of processing cores. The computing system includes a pipeline selector coupled to the plurality of processing cores and the DMA engine pipeline, the pipeline selector to, during initialization, determine at least one threshold for pipeline selection for the computing system, and during runtime, select one of the core pipelines or the DMA engine pipeline to execute a memory copy operation in the memory based at least in part on the at least one threshold.

Adaptive pipeline selection for accelerating memory copy operations

Examples described herein include a device interface; a first set of one or more processing units; and a second set of one or more processing units. In some examples, the first set of one or more processing units are to perform heavy flow detection for packets of a flow and the second set of one or more processing units are to perform processing of packets of a heavy flow. In some examples, the first set of one or more processing units and second set of one or more processing units are different. In some examples, the first set of one or more processing units is to allocate pointers to packets associated with the heavy flow to a first set of one or more queues of a load balancer and the load balancer is to allocate the packets associated with the heavy flow to one or more processing units of the second set of one or more processing units based, at least in part on a packet receive rate of the packets associated with the heavy flow.

Packet processing load balancer

An apparatus and method for closed loop dynamic resource allocation. For example, one embodiment of a method comprises: collecting data related to usage of a plurality of resources by a plurality of workloads over one or more time periods, the workloads including priority workloads associated with one or more guaranteed performance levels and best effort workloads not associated with guaranteed performance levels; analyzing the data to identify resource reallocations from one or more of the priority workloads to one or more of the best effort workloads in one or more subsequent time periods while still maintaining the guaranteed performance levels; reallocating the resources from the priority workloads to the best effort workloads for the subsequent time periods; monitoring execution of the priority workloads with respect to the guaranteed performance level during the subsequent time periods; and preemptively reallocating resources from the best effort workloads to the priority workloads during the subsequent time periods to ensure compliance with the guaranteed performance level and responsive to detecting that the guaranteed performance level is in danger of being breached.

Apparatus and method for a closed-loop dynamic resource allocation control framework

Examples described herein relate to offload circuitry comprising one or more compute engines that are configurable to perform a workload offloaded from a process executed by a processor based on a descriptor particular to the workload. In some examples, the offload circuitry is configurable to perform the workload, among multiple different workloads. In some examples, the multiple different workloads include one or more of: data transformation (DT) for data format conversion, Locality Sensitive Hashing (LSH) for neural network (NN), similarity search, sparse general matrix-matrix multiplication (SpGEMM) acceleration of hash based sparse matrix multiplication, data encode, data decode, or embedding lookup.

Hardware offload circuitry

Method and system for performing data movement operations is described herein. One embodiment of a method includes: storing data for a first memory address in a cache line of a memory of a first processing unit, the cache line associated with a coherency state indicating that the memory has sole ownership of the cache line; decoding an instruction for execution by a second processing unit, the instruction comprising a source data operand specifying the first memory address and a destination operand specifying a memory location in the second processing unit; and responsive to executing the decoded instruction, copying data from the cache line of the memory of the first processing unit as identified by the first memory address, to the memory location of the second processing unit, wherein responsive to the copy, the cache line is to remain in the memory and the coherency state is to remain unchanged.

Method and system for performing data movement operations with read snapshot and in place write update

Apparatus, methods, and systems for tuple space search-based flow classification using cuckoo hash tables and unmasked packet headers are described herein. A device can communicate with one or more hardware switches. The device can include memory to store hash table entries of a hash table. The device can include processing circuitry to perform a hash lookup in the hash table. The lookup can be based on an unmasked key include in a packet header corresponding to a received data packet. The processing circuitry can retrieve an index pointing to a sub-table, the sub-table including a set of rules for handling the data packet. Other embodiments are also described.

Flow classification apparatus, methods, and systems

The present invention relates to platform power management.

Platform and processor power management

Examples described herein relates to a network interface apparatus that includes packet processing circuitry and a bus interface. In some examples, the packet processing circuitry to: process a received packet that includes data, a request to perform a write operation to write the data to a cache, and an indicator that the data is to be durable and based at least on the received packet including the request and the indicator, cause the data to be written to the cache and non-volatile memory. In some examples, the packet processing circuitry is to issue a command to an input output (IO) controller to cause the IO controller to write the data to the cache and the non-volatile memory. In some examples, the cache comprises one or more of: a level-0 (L0), level-1 (L1), level-2 (L2), or last level cache (LLC) and the non-volatile memory comprises one or more of: volatile memory that is part of an Asynchronous DRAM Refresh (ADR) domain, persistent memory, battery-backed memory, or memory device whose state is determinate even if power is interrupted to the memory device. In some examples, based on receipt of a second received packet that includes a request to persist data, the packet processing circuitry is to request that data stored in a memory buffer be copied to the non-volatile memory.

Data consistency and durability over distributed persistent memory systems

A central processing unit can offload table lookup or tree traversal to an offload engine. The offload engine can provide hardware accelerated operations such as instruction queueing, bit masking, hashing functions, data comparisons, a results queue, and a progress tracking. The offload engine can be associated with a last level cache. In the case of a hash table lookup, the offload engine can apply a hashing function to a key to generate a signature, apply a comparator to compare signatures against the generated signature, retrieve a key associated with the signature, and apply the comparator to compare the key against the retrieved key. Accordingly, a data pointer associated with the key can be provided in the result queue. Acceleration of operations in tree traversal and tuple search can also occur.

Offload of data lookup operations

One embodiment provides a network system. The network system includes an application layer to execute one or more networking applications to generate or receive data packets having flow identification (ID) information; and a packet processing layer having profiling circuitry to generate a sketch table indicative of packet flow count data; the sketch table having a plurality of buckets, each bucket includes a first section including a plurality of data fields, each data field of the first section to store flow ID and packet count data, each bucket also having a second section having a plurality of data fields, each data field of the second section to store packet count data.

Sketch table for traffic profiling and measurement

In an embodiment, an apparatus is provided that may include circuitry to generate, at least in part, and/or receive, at least in part, at least one request that at least one network node generate, at least in part, information. The information may be to permit selection, at least in part, of (1) at least one power consumption state of the at least one network node, and (2) at least one time period. The at least one time period may be to elapse, after receipt by at least one other network node of at least one packet, prior to requesting at least one change in the at least one power consumption state. The at least one packet may be to be transmitted to the at least one network node. Of course, many alternatives, modifications, and variations are possible without departing from this embodiment.

Generating, at least in part, and/or receiving, at least in part, at least one request

Methods and apparatus implementing Hardware/Software co-optimization to improve performance and energy for inter-VM communication for NFVs and other producer-consumer workloads. The apparatus include multi-core processors with multi-level cache hierarchies including and L1 and L2 cache for each core and a shared last-level cache (LLC). One or more machine-level instructions are provided for proactively demoting cachelines from lower cache levels to higher cache levels, including demoting cachelines from L1/L2 caches to an LLC. Techniques are also provided for implementing hardware/software co-optimization in multi-socket NUMA architecture system, wherein cachelines may be selectively demoted and pushed to an LLC in a remote socket. In addition, techniques are disclosure for implementing early snooping in multi-socket systems to reduce latency when accessing cachelines on remote sockets.

Processor and method implementing a cacheline demote machine instruction

Techniques and apparatus for dynamic data access mode processes are described. In one embodiment, for example, an apparatus may a processor, at least one memory coupled to the processor, the at least one memory comprising an indication of a database and instructions, the instructions, when executed by the processor, to cause the processor to determine a database utilization value for a database, perform a comparison of the database utilization value to at least one utilization threshold, and set an active data access mode to one of a low-utilization data access mode or a high-utilization data access mode based on the comparison. Other embodiments are described.

Techniques for dynamic database access modes

Growing community of inventors

Portland, OR, United States of America

Ren Wang