Intel Corporation

Advanced Micro Devices Corporation

Tony Hurson

Ben-Zion Friedman

Simoni Ben-Michael

Arvind Srinivasan

Lokpraveen B Mosur

Adrian R Pearson

Patrick Fleming

Brian S Hausauer

Adam Conyers

Hemanth Krishnan

Tsung-Yuan Charles Tai

Ren Wang

Sujoy Sen

Yadong Li

Bradley A Burres

Yipeng Wang

Salim Ahmed Shah

Jose Niell

Thomas W Lynch

Scott David Peterson

Yifan Yuan

Stephen D McIntyre

Ken Tseng

Salma Mirza Johnson

Examples described herein relate to a network interface device that includes circuitry to perform operations, offloaded from a host, to identify at least one locator of at least one target storage associated with a storage access command based on operations selected from among multiple available operations, wherein the available operations comprise two or more: entry lookup by the network interface device, hash-based calculation on the network interface device, or control plane processing on the network interface device.

Initiator-side offload for scale-out storage

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

Various embodiments are generally directed to an apparatus, method and other techniques to determine a secure memory region for a transaction, the secure memory region associated with a security association context to perform one or more of an encryption/decryption operation and an authentication operation for the transaction, perform one or more of the encryption/decryption operation and the authentication operation for the transaction based on the security association context, and cause communication of the transaction.

Techniques to provide client-side security for storage of data in a network environment

A transmitter can manage when a transmit queue is permitted to transmit and an amount of data permitted to be transmitted. After a transmit queue is permitted to transmit, the transmit queue can be placed in a sleep state if the transmit queue has exceeded its permitted data transmission quota. The wake time of the transmit queue can be scheduled based on a token accumulation rate for the transmit queue. The token accumulation rate can be increased if the transmit queue has other data to transmit after the data transmission. The token accumulation rate can be decreased if the transmit does not have other data to transmit.

Techniques to manage data transmissions

At a network-connected device, congestion at an egress queue can be detected. A potential source of congestion can be identified based on characteristics of a packet that caused the egress queue to become congested. The source of congestion can be a congestion group of transmitters. A group congestion message can be sent to the group of transmitters. The message can identify the packet that caused the egress queue to become congested. Transmitters can respond to the message by reducing their peak transmission rate.

Techniques to reduce network congestion

Various embodiments are generally directed to an apparatus, method and other techniques to de determine a secure memory region for a transaction, the secure memory region associated with a security association context to perform one or more of an encryption/decryption operation and an authentication operation for the transaction, perform one or more of the encryption/decryption operation and the authentication operation for the transaction based on the security association context, and cause communication of the transaction.

Examples described herein include configuration of a transmitting network device to identify a source queue-pair identifier in at least some of the packets that are transmitted to an endpoint destination. A network device that receives packets and experiences congestion can determine if a congestion causing packet includes a source queue-pair identifier. If the congestion causing packet includes a source queue-pair identifier, the network device can form and transmit a congestion notification message with a copy of the source queue-pair identifier to the transmitting network device. The transmitting network device can access a context for the congestion causing packet using the source queue-pair identifier without having to perform a lookup to identify the context.

Managing congestion in a network

An apparatus for performing the division of a first operand by a second operand by iteratively producing a series of partial remainders and predicted quotient bits utilizing the generation of multiples of the second operand and the selection of one of the generated multiples. The second operand is first selected as a first partial remainder. A first quotient bit is predicted from the first and second operands and a next quotient bit is predicted from the partial remainder and the second operand. One of the generated multiples is selected for producing a next partial remainder based upon the next quotient prediction. A next partial remainder is then produced from the produced partial remainder and the selected multiple of the second operand.

High speed divider with square root capability

Growing community of inventors

Austin, TX, United States of America

Tony Hurson