Abstract: Embodiments of this application disclose a noise cancellation apparatus and method. The noise cancellation apparatus includes a main control unit and a noise cancellation processing circuit. The main control unit determines a noise cancellation parameter based on a noise cancellation level index or a feature value for determining a matching degree between a headset and an ear canal of a user. The noise cancellation processing unit obtains an inverse phase noise of an ambient noise based on the noise cancellation parameter. After the inverse phase noise is mixed with a played downlink audio signal, the ambient noise can be canceled. In addition, because the noise cancellation parameter is determined from a preset noise cancellation parameter library based on the received or autonomously determined noise cancellation level index, instead of being uniformly configured, a noise cancellation level can be flexibly adjusted, thereby improving a noise cancellation effect and user experience.

Abstract: The present disclosure discloses a stable and high-capacity neutral aqueous redox flow lithium battery based on redox-targeting reaction and belongs to the technical field of flow lithium batteries. The present disclosure solves the technical problem that an existing flow battery can only work at low current density. The flow lithium battery of the present disclosure includes a positive electrode storage tank and a negative electrode storage tank; the positive electrode storage tank is filled with a positive electrolyte; and the negative electrode storage tank is filled with a negative electrolyte. The flow lithium battery is characterized in that the positive electrolyte includes a salt containing [Fe(CN)6]4? and/or [Fe(CN)6]3?, and the positive electrode storage tank is further filled with LFP particles and/or FP particles. The flow lithium battery of the present disclosure has wide application prospects in the field of large-scale energy storage.

Abstract: The present application is directed to a theranostic probe and its use for targeting and/or labeling the EGFR kinase and/or the cells expressing EGFR or its family members.

Abstract: A processing device such as a router or other network device implements a locator-identifier mapping system associating identifiers of respective endpoints with respective locators in accordance with a locator-identifier separation protocol. A first one of the endpoints comprises a storage server associated with a storage array. In conjunction with reconfiguration of the storage server, the locator-identifier mapping system updates a particular one of the locators corresponding to the endpoint identifier of the storage server. The reconfiguration of the storage server may comprise, for example, a migration of the storage server within a given data center, or from a first data center to a second data center. The locator of the storage server illustratively specifies a subnet of the storage server. The processing device may comprise a router operating as at least one of an ingress tunnel router and an egress tunnel router in accordance with the locator-identifier separation protocol.

Abstract: A method, a computer program product, a system for analyzing data in a converged infrastructure system, comprising capturing metadata associated with a network path via a port on a network switch enabled to collect metadata; capturing content data associated with the metadata via the port on the network switch enabled to collect metadata; and performing data analytics on the metadata and the content data.

Abstract: Example embodiments of the present invention relate to a method, a system, and a computer program product for implementing a locator-identifier separation protocol for a virtual storage array. The method includes associating an endpoint identifier to a virtual storage array in a datacenter and associating a routing locator with the endpoint identifier in accordance with a locator-identifier separation protocol. Communications with the virtual storage array then may be directed according to the endpoint identifier via its association with the routing locator.

Abstract: At least one processing device comprises a processor coupled to a memory and implements virtualization infrastructure including a first container comprising a software agent of a locator-identifier separation protocol. The software agent is configured to communicate with a locator-identifier mapping system that associates identifiers of respective endpoints with respective locators in accordance with the locator-identifier separation protocol. The endpoints comprise respective ones of a plurality of additional containers of the virtualization infrastructure. The first container may be coupled to the plurality of additional containers via a bridge element that combines virtual interfaces of respective ones of the additional containers into a single physical network interface.

Abstract: A processing device such as a router or other network device implements a locator-identifier mapping system associating identifiers of respective endpoints with respective locators in accordance with a locator-identifier separation protocol. A first one of the endpoints comprises a storage server associated with a storage array. In conjunction with reconfiguration of the storage server, the locator-identifier mapping system updates a particular one of the locators corresponding to the endpoint identifier of the storage server. The reconfiguration of the storage server may comprise, for example, a migration of the storage server within a given data center, or from a first data center to a second data center. The locator of the storage server illustratively specifies a subnet of the storage server. The processing device may comprise a router operating as at least one of an ingress tunnel router and an egress tunnel router in accordance with the locator-identifier separation protocol.

Abstract: An apparatus comprises at least one container host device implementing containers for respective tenants of a multi-tenant environment, a storage platform coupled to the container host device and implementing storage resources for utilization by the containers, and a container storage controller associated with the container host device. The container storage controller is configured to provision portions of the storage resources for respective ones of the containers including for each of the containers at least one virtual storage volume accessible only to that container and having an associated file system that is not visible to an operating system of the container host device. The provisioned portion of the storage resources for a given one of the containers of a corresponding one of the tenants is thereby isolated from the provisioned portions of the storage resources for respective other ones of the containers of corresponding other ones of the tenants.

Abstract: A first portion of a bootstrapping process is performed for a data storage system. The first portion of the bootstrapping process comprises a hypervisor scanning for and initializing a plurality of physical storage devices of the data storage system, and storing boot information obtained during the scanning and initializing steps. A second portion of a bootstrapping process is performed for the data storage system. The second portion of the bootstrapping process comprises providing at least a portion of the stored boot information to at least one virtual machine implementing an application program that utilizes the plurality of physical storage devices, and the virtual machine initializing one or more virtual resources using the stored boot information provided by the hypervisor. The scanning for the plurality of physical storage devices of the data storage system may be performed in a parallel manner.