Samsung Electronics Co., Ltd.

Matthew Shaun Bryson

Sompong Paul Olarig

Vishwanath Maram

Stephen Garry Fischer

Gayathiri Venkataraman

Ramdas P Kachare

Veronica Lagrange Moutinho Dos Reis

Oscar Prem Pinto

Son Truong Pham

Sungwook Ryu

Xuebin Yao

Gayathri Venkataraman

Mohammadreza Soltaniyeh

A method may include coupling a device to a host through a connector, receiving, by a host controller, a request for boost power from the device, determining, by the host controller, an amount of surplus power available from one or more power sources arranged to provide power to the device through the connector, and allocating at least a portion of the surplus power to the device as boost power. The method may further include negotiating an amount of the boost power based on the amount of surplus power available from the one or more power sources. The method may further include monitoring a power consumption of the device, and reducing a total power allocation to the device based on the power consumption of the device.

Systems, methods, and devices for providing power to devices through connectors

A system and method for power distribution are disclosed. A processor detects a storage device having a scalable interface, where the scalable interface is for transferring data between a host device and the storage device. The processor determines power requirement of the storage device based on a signal from the scalable interface. At least one power supply unit coupled to the processor provides power to the storage device based on the determined power requirement.

System method for power distribution to storage devices

A system is described. The system may include a processor. Software may run on the processor to build a batch request, which may include at least a first request and a second request. The system may also include a storage device and a computational storage unit associated with the storage device, which may be configured to execute the batch request.

Systems and method for batching requests in computational devices

A method may include receiving, at a storage device, an input and/or output (I/O) request comprising a device indication performing a determination, at the storage device, that the device indication indicates the storage device, and servicing, by the storage device, the I/O request based on the determination. The device indication may include an address for the I/O request. The method may include installing a second storage device in the storage system. The second storage device may be installed seamlessly. The first and second storage devices may be peer devices. The method may further including receiving, at the first storage device, a second I/O request including a second device indication, performing a second determination, by the first storage device, that the second device indication indicates the second storage device, and forwarding, by the first storage device, the second I/O request to the second storage device based on the second determination.

Systems, methods, and devices for near storage elasticity

Provided are systems, methods, and apparatuses for computational offload to storage systems. The method can include a first processing element issuing a first request to the storage device; a storage device, responsive to the first request, obtaining first data on the storage device and providing the first data to the first memory for storage; the second processing element reading the first data from the first memory and performing at least one of an operation or a computation on the first data to generate second data; and the second processing element providing the second data to the first processing element.

Systems and methods for near-storage processing in solid state drives

A method includes receiving, at a controller of a storage device, a command reserving a program slot of a processing device of the storage device to an application. The method further includes storing, by the controller of the storage device, an association between the program slot and the application. The method further includes receiving, at the controller of the storage device, a request to load the application into the execution slot. The method further includes loading, by the controller of the storage device, the application into the program slot based on the association and the request. The method further includes executing, at the processing device of the storage device, the application in the program slot.

Secure applications in computational storage devices

A system includes a virtual computational storage emulation module configured to provide a virtual computational storage device. The system further includes a storage element, where the virtual computational storage emulation module is configured to store data associated with the virtual computational storage device at the storage element. The system further includes a compute element. The virtual computational storage emulation module is configured to send a compute request associated with the virtual computational storage device to the compute element.

Virtual computational storage devices

A method may include transferring data between a host and a first storage device through a first storage interface, transferring data between the host and a second storage device through a second storage interface, and transferring data between the first storage device and the second storage device through a peer-to-peer channel. A storage system may include a host interface, a first storage device having a first storage interface coupled to the host interface, a second storage device having a second storage interface coupled to the host interface, and a peer-to-peer bus coupled between the first and second storage devices. A storage device may include a storage medium, a storage device controller coupled to the storage medium, a storage interface coupled to the storage device controller, and a peer-to-peer interface coupled to the storage device controller.

Methods and apparatus for peer-to-peer data channels for storage devices

A device capable of self-detecting and self-allocating additional power and associated method are disclosed. The device includes a first module to route current from first power pins to a voltage rail having the first voltage level. The device includes a second module coupled to second power pins associated with a second voltage level. The second module routes current from the second power pins to the voltage rail having the first voltage level via a connecting voltage rail. The method includes determining, by the device, whether or not a presence of unused power pins is detected. Based on the detection, the method includes calculating a total amount of available additional power, repurposing the unused power pins as actively used power pins, and updating a power budget value based on the total amount of available additional power. The device may dynamically allocate power to accelerators based on a power allocation table and the power budget value.

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Los Gatos, CA, United States of America

Matthew Shaun Bryson