The OASIS PKCS 11 Technical Committee develops enhancements to improve the PKCS #11 standard for ease of use in code libraries, open source applications, wrappers, and enterprise/COTS products: implementation guidelines, usage tutorials, test scenarios and test suites, interoperability testing, coordination of functional testing, development of conformance profiles, and providing reference implementations.
The OASIS KMIP TC works to define a single, comprehensive protocol for communication between encryption systems and a broad range of new and legacy enterprise applications, including email, databases, and storage devices. By removing redundant, incompatible key management processes, KMIP will provide better data security while at the same time reducing expenditures on multiple products.
The OASIS KMIP TC works to define a single, comprehensive protocol for communication between encryption systems and a broad range of new and legacy enterprise applications, including email, databases, and storage devices. By removing redundant, incompatible key management processes, KMIP will provide better data security while at the same time reducing expenditures on multiple products.
The OASIS KMIP TC works to define a single, comprehensive protocol for communication between encryption systems and a broad range of new and legacy enterprise applications, including email, databases, and storage devices. By removing redundant, incompatible key management processes, KMIP will provide better data security while at the same time reducing expenditures on multiple products.
The OASIS KMIP TC works to define a single, comprehensive protocol for communication between encryption systems and a broad range of new and legacy enterprise applications, including email, databases, and storage devices. By removing redundant, incompatible key management processes, KMIP will provide better data security while at the same time reducing expenditures on multiple products.
The OASIS KMIP TC works to define a single, comprehensive protocol for communication between encryption systems and a broad range of new and legacy enterprise applications, including email, databases, and storage devices. By removing redundant, incompatible key management processes, KMIP will provide better data security while at the same time reducing expenditures on multiple products.
The OASIS KMIP TC works to define a single, comprehensive protocol for communication between encryption systems and a broad range of new and legacy enterprise applications, including email, databases, and storage devices. By removing redundant, incompatible key management processes, KMIP will provide better data security while at the same time reducing expenditures on multiple products.
This amendment to IEEE Std 802.3-2018 specifies additions and appropriate modifications to add 10 Mb/s Physical Layer (PHY) specifications and management parameters for operation, and associated optional provision of power, over a single balanced pair of conductors.
Specify additions to and appropriate modifications of IEEE Std 802.3 to add greater than 1 Gb/s Physical Layer (PHY) specifications and management parameters for media and operating conditions for applications in the automotive environment.
Regional cloud providers that operate data centers and associated wide-area networking across their region are well positioned to cooperatively build a global cloud infrastructure with other regional cloud providers, and thus, become a valuable party for Content and Application Providers (CPs and APs). We call the formalization of such cooperation a federated cloud. In a federated cloud, application and/or content requests placed to a cloud provider can be served locally -- e.g., by a supporting cloud provider, even when this supporting cloud provider only has an indirect relationship to the AP or CP by way of a primary cloud provider. In this case, a primary cloud provider is defined as the cloud provider with which an AP or CP has a direct contractual arrangement for cloud services. A federated cloud member simultaneously acts as a primary cloud provider and a supporting cloud provider as defined by their relationship with different APs and CPs.
In a federated cloud, part or all of each individual provider's compute, storage, and networking resources become part of a federated pool of cloud resources. Management systems of these individual (regional) cloud providers are linked to facilitate end-to-end cloud services capability. By definition, a federated cloud includes a clearing house to settle expenditures and revenues of the end-to-end cloud services based on agreed methods, interfaces, and procedures for settlement.
The concept of a Federated Cloud comprised of interconnected Service Providers (SP) was introduced in ATIS Standard ATIS-0200003, CDN Interconnection Use Case Specifications and High Level Requirements [https://global.ihs.com/doc_detail.cfm?&csf=ASA&input_doc_number=%20&inpu.... This initial standard described the role of the SPs in the cloud as distributors of content from Content Providers (CP) to End Users (EU). Thus, SPs serve as Content Distribution Network (CDN) Providers. The set of content delivery Life Cycle interactions between two CDN Providers is defined in ATIS-0200003. The method for content distribution in ATIS-0200003 was limited to Unicast Cache-based distribution.
Under certain conditions depending on network configurations and type of content, it may be advantageous to distribute content via Multicast methods. From a network perspective, Multicast is scalable and results in significant savings in efficiencies and capacity utilization.
The purpose of this ATIS Standard is to introduce Multicast-based content distribution. This standard provides the following:
Overview of the Multicast delivery mechanism
Set of content types that are suitable for delivery via Multicast methods
Description of various Multicast methods that can be deployed to interconnect two CDN Providers and distribute content.
The scope of this Standard is limited to use cases and requirements to support the interactions between two CDN Providers for content distribution via Multicast. The Use Cases describe:
Generic interactions supporting Life Cycle Multicast use between two CDN Providers.
Specific Multicast configurations/scenarios that can be deployed for interconnection and content distribution.
Multicast related specifics to support Billing, Provisioning, Reporting, and other network functions will be covered in future ATIS documents. Multicast-based content delivery to mobility-based End User devices is for further study.