Abstract: An adaptor for incorporating a function of an Open Compute Project (OCP) mezzanine card into a storage device includes a framework, a baseboard mounted to the framework and arranged to have the Open Compute Project (OCP) mezzanine card mounted thereon, an adapting part on the baseboard, the adapting part including an insertion slot for receiving a first interface of the OCP mezzanine card, and a connector on the baseboard, the connector configured to connect with the storage device, the baseboard including interconnections between the connector and the adapting part to provide for data exchange between the OCP mezzanine card and the storage device.

Abstract: Embodiments of the present disclosure relates to a method and device for balancing a supply current. In one embodiment, a current supply current for a load is detected. A first signal representing the current supply current is transmitted to a digital logic module. A second signal representing a maximum supply current and a third signal representing a minimum supply current are received from the digital logic module. A subsequent supply current for the load is determined based on the current supply current, the maximum supply current and the minimum supply current. By using the method and device according to the embodiments of the present disclosure, the supply currents of a plurality of power supply units for the load can be balanced a simple way with a low hardware cost.

Abstract: An adaptor for incorporating a function of an Open Compute Project (OCP) mezzanine card into a storage device includes a framework, a baseboard mounted to the framework and arranged to have the Open Compute Project (OCP) mezzanine card mounted thereon, an adapting part on the baseboard, the adapting part including an insertion slot for receiving a first interface of the OCP mezzanine card, and a connector on the baseboard, the connector configured to connect with the storage device, the baseboard including interconnections between the connector and the adapting part to provide for data exchange between the OCP mezzanine card and the storage device.

Abstract: Techniques involve use of an adaptor for a storage device. The adaptor includes a baseboard arranged to support an Open Compute Project (OCP) mezzanine card in the storage device; a connector coupled to the baseboard and arranged to connect with the storage device; and an adapting part coupled to the baseboard and including an insertion slot for receiving a first interface of the OCP mezzanine card.

Abstract: Embodiments of the present disclosure relates to a method and device for balancing a supply current. In one embodiment, a current supply current for a load is detected. A first signal representing the current supply current is transmitted to a digital logic module. A second signal representing a maximum supply current and a third signal representing a minimum supply current are received from the digital logic module. A subsequent supply current for the load is determined based on the current supply current, the maximum supply current and the minimum supply current. By using the method and device according to the embodiments of the present disclosure, the supply currents of a plurality of power supply units for the load can be balanced a simple way with a low hardware cost.

Abstract: Embodiments of the present disclosure relates to a method and device for balancing a supply current. In one embodiment, a current supply current for a load is detected. A first signal representing the current supply current is transmitted to a digital logic module. A second signal representing a maximum supply current and a third signal representing a minimum supply current are received from the digital logic module. A subsequent supply current for the load is determined based on the current supply current, the maximum supply current and the minimum supply current. By using the method and device according to the embodiments of the present disclosure, the supply currents of a plurality of power supply units for the load can be balanced a simple way with a low hardware cost.

Abstract: A latching assembly is configured for releasably coupling a first component to a second component. The latching assembly includes an actuator portion configured to be longitudinally-displaceable along an axis of insertion of the first component and between an engaged position and a disengaged position. One or more ejector assemblies include a first end and a second end. The one or more ejector assemblies are configured to: slidably engage the actuator portion on the first end, releasably engage a locking structure on the second end, and pivot about a rotation point positioned between the first end and the second end.

Abstract: The present disclosure discloses an adaptor for a storage device. The adaptor comprises a baseboard arranged to support an open compute program (OCP) mezzanine card in the storage device; a connector coupled to the baseboard and arranged to connect with the storage device; and an adapting part coupled to the baseboard and comprising an insertion slot for receiving a first interface of the OCP mezzanine card.

Abstract: Embodiments of the present disclosure relates to a method and device for balancing a supply current. In one embodiment, a current supply current for a load is detected. A first signal representing the current supply current is transmitted to a digital logic module. A second signal representing a maximum supply current and a third signal representing a minimum supply current are received from the digital logic module. A subsequent supply current for the load is determined based on the current supply current, the maximum supply current and the minimum supply current. By using the method and device according to the embodiments of the present disclosure, the supply currents of a plurality of power supply units for the load can be balanced a simple way with a low hardware cost.

Abstract: Embodiments of the present disclosure provide an apparatus for a hyper converged infrastructure. The apparatus comprises at least one compute node each including a first number of storage disks. The apparatus further comprises a storage node including a second number of storage disks available for the at least one compute node, the second number being greater than the first number. The embodiments of the present disclosure also provide a method of assembling the apparatus for the hyper converged architecture.

Abstract: A latching assembly is configured for releasably coupling a first component to a second component. The latching assembly includes an actuator portion configured to be longitudinally-displaceable along an axis of insertion of the first component and between an engaged position and a disengaged position. One or more ejector assemblies include a first end and a second end. The one or more ejector assemblies are configured to: slidably engage the actuator portion on the first end, releasably engage a locking structure on the second end, and pivot about a rotation point positioned between the first end and the second end.