Abstract: Provided is a method of packet processing, the method including receiving an input/output (IO) request from a host, selecting a drive corresponding to the IO request using a hashing algorithm or a round-robin technique, and establishing a connection between the host and the drive.

Abstract: Provided is a method of packet processing, the method including receiving an input/output (IO) request from a host, selecting a drive corresponding to the IO request using a hashing algorithm or a round-robin technique, and establishing a connection between the host and the drive.

Abstract: A method may include receiving, at a target, from a server, a command, information to identify data, and access information to perform a data transfer using a memory access protocol, and performing, based on the command, based on the access information, the data transfer between the target and a client using the memory access protocol. The information to identify the data may include an object key, and the object key and the access information may be encoded, at least partially, in an encoded object key. The method may further include sending, based on the data transfer, from the target to the server, a completion. The method may further include sending, based on the completion, from the server to the client, an indication of success. The method may further include reconstructing the data based on the parity data.

Abstract: Provided is a method of coordinating lock requests in a network key-value (NKV) store including one or more NKV clients and one or more NKV targets, the method including receiving, by a first NKV client, a lock request from a client device over a communication interface to lock an object key stored in one or more of the NKV targets, determining, by the first NKV client, one of the NKV targets corresponding to the lock request, transmitting, by the first NKV client, the lock request to the one of the NKV targets over a storage interface, determining, by the one of the NKV targets, a priority of the lock request, and locking, by the one of the NKV targets, the lock request based on the priority.

Abstract: Provided is a method of completing object IOs, the method including receiving a first set of object IOs for a target storage device, dispatching the first set of object IOs to a first buffer of a first zone, the first buffer being configured to function as a first log buffer, concatenating the first set of object IOs to form a first object group in the first buffer, logging the first object group to a log device, modifying a function of the first buffer from the first log buffer to a first flush buffer, and transferring the first object group to the target storage device.

Abstract: Provided is a method of coordinating lock requests in a network key-value (NKV) store including one or more NKV clients and one or more NKV targets, the method including receiving, by a first NKV client, a lock request from a client device over a communication interface to lock an object key stored in one or more of the NKV targets, determining, by the first NKV client, one of the NKV targets corresponding to the lock request, transmitting, by the first NKV client, the lock request to the one of the NKV targets over a storage interface, determining, by the one of the NKV targets, a priority of the lock request, and locking, by the one of the NKV targets, the lock request based on the priority.

Abstract: Provided is a method of packet processing, the method including receiving an input/output (IO) request from a host, selecting a drive corresponding to the IO request using a hashing algorithm or a round-robin technique, and establishing a connection between the host and the drive.

Abstract: Provided is a method of completing object IOs, the method including receiving a first set of object IOs for a target storage device, dispatching the first set of object IOs to a first buffer of a first zone, the first buffer being configured to function as a first log buffer, concatenating the first set of object IOs to form a first object group in the first buffer, logging the first object group to a log device, modifying a function of the first buffer from the first log buffer to a first flush buffer, and transferring the first object group to the target storage device.

Abstract: A Data Storage Device (DSD) includes a Non-Volatile Memory (NVM) for storing data and a first processor configured to execute a firmware for retrieving data from the NVM and storing data in the NVM. A second processor of the DSD executes an application Operating System (OS) to interface with the first processor. The second processor sends a command to the first processor using the application OS to retrieve data from the NVM or store data in the NVM.

Abstract: A substrate processing system includes an upper electrode and a lower electrode arranged in a processing chamber. A gas delivery system is configured to selectively deliver at least one of a precursor gas, one or more deposition carrier gases, and a post deposition purge gas. An RF generating system is configured to deposit film on a substrate by generating RF plasma in the processing chamber between the upper electrode and the lower electrode while the precursor gas and the one or more deposition carrier gases are delivered by the gas delivery system. A bias generating circuit is configured to selectively supply a DC bias voltage to one of the upper electrode and the lower electrode while the post deposition purge gas is delivered by the gas delivery system. The post deposition purge gas that is delivered by the gas delivery system includes a reactant gas.

Abstract: A method for processing a substrate in a substrate processing system includes selectively delivering at least one of a precursor, a deposition carrier gas, and a post deposition purge gas to a processing chamber. The method includes depositing film on the substrate by generating radio frequency (RF) plasma in the processing chamber between an upper electrode and a lower electrode while supplying an RF voltage to one of the upper electrode and the lower electrode and while the precursor and the deposition carrier gas is delivered. The method includes selectively supplying a direct current (DC) bias voltage to the upper electrode or the lower electrode; moving the substrate relative to a pedestal supporting the substrate while generating the DC bias voltage; and delivering the post deposition purge gas while supplying at least a portion of the DC bias voltage to the upper electrode or the lower electrode.

Abstract: A Data Storage Device (DSD) includes a Non-Volatile Memory (NVM) for storing data and a first processor configured to execute a firmware for retrieving data from the NVM and storing data in the NVM. A second processor of the DSD executes an application Operating System (OS) to interface with the first processor. The second processor sends a command to the first processor using the application OS to retrieve data from the NVM or store data in the NVM.

Abstract: A Data Storage Device (DSD) includes a Non-Volatile Memory (NVM) for storing data and a first processor configured to execute a firmware for retrieving data from the NVM and storing data in the NVM. A second processor of the DSD executes an application Operating System (OS) to interface with the first processor. The second processor sends a command to the first processor using the application OS to retrieve data from the NVM or store data in the NVM.

Abstract: A method for processing a substrate in a substrate processing system includes selectively delivering at least one of a precursor, a deposition carrier gas, and a post deposition purge gas to a processing chamber. The method includes depositing film on the substrate by generating radio frequency (RF) plasma in the processing chamber between an upper electrode and a lower electrode while supplying an RF voltage to one of the upper electrode and the lower electrode and while the precursor and the deposition carrier gas is delivered. The method includes selectively supplying a direct current (DC) bias voltage to the upper electrode or the lower electrode; moving the substrate relative to a pedestal supporting the substrate while generating the DC bias voltage; and delivering the post deposition purge gas while supplying at least a portion of the DC bias voltage to the upper electrode or the lower electrode.

Abstract: An object based storage cluster includes at least one Data Storage Device (DSD) with a plurality of media portions for storing data. Media mapping information is received from the at least one DSD with the media mapping information indicating addresses assigned to each media portion of the plurality of media portions. Each media portion of the plurality of media portions is identified as a separate Object Storage Device (OSD) in the object based storage cluster using the media mapping information.

Abstract: A substrate processing system comprises an upper electrode and a lower electrode arranged in a processing chamber. A gas delivery system selectively delivers at least one of precursor, one or more deposition carrier gases and a post deposition purge gas. An RF generating system deposits film on the substrate by generating RF plasma in the processing chamber between the upper electrode and the lower electrode by supplying an RF voltage to one of the upper electrode and the lower electrode while the precursor and the one or more deposition carrier gases are delivered by the gas delivery system. A bias generating circuit selectively supplies a DC bias voltage to one of the upper electrode and the lower electrode while the post deposition purge gas is delivered by the gas delivery system. The post deposition purge gas that is delivered by the gas delivery system includes a molecular reactant gas.

Abstract: Systems and methods for delivering liquid precursor in a substrate processing system include supplying liquid precursor using a first valve in fluid communication with a liquid precursor source; supplying purge gas using a second valve in fluid communication with a purge gas source; arranging a third valve having a first input port in fluid communication with an output port of the first valve and a second input port in fluid communication with an output port of the second valve; arranging an input port of a first divert injector valve in fluid communication with an output port of the third valve; and operating the first valve, the second valve, the third valve and the first divert injector valve in first, second, third and fourth modes.

Abstract: A Data Storage Device (DSD) includes a Non-Volatile Memory (NVM) for storing data, a network interface for communicating on a network, and a processor. According to one aspect, a command is received via the network interface for storing data in the NVM or retrieving data from the NVM. Based on a transport attribute of the command, it is determined whether to execute a file interface for accessing files stored in the NVM or an object interface for accessing data objects stored in the NVM. According to another aspect, computer-executable instructions are received from a device via the network interface and the computer-executable instructions are executed using an off-load interface. The computer-executable instructions cause the processor to transform data stored in the NVM or data received from the network and send the transformed data to another device on the network or store the transformed data in the NVM.

Abstract: An object based storage cluster includes at least one Data Storage Device (DSD) with a plurality of media portions for storing data. Media mapping information is received from the at least one DSD with the media mapping information indicating addresses assigned to each media portion of the plurality of media portions. Each media portion of the plurality of media portions is identified as a separate Object Storage Device (OSD) in the object based storage cluster using the media mapping information.

Abstract: Systems and methods for delivering liquid precursor in a substrate processing system include supplying liquid precursor using a first valve in fluid communication with a liquid precursor source; supplying purge gas using a second valve in fluid communication with a purge gas source; arranging a third valve having a first input port in fluid communication with an output port of the first valve and a second input port in fluid communication with an output port of the second valve; arranging an input port of a first divert injector valve in fluid communication with an output port of the third valve; and operating the first valve, the second valve, the third valve and the first divert injector valve in first, second, third and fourth modes.