Abstract: A computing system includes a virtual server to provide a virtual computing session, and a client device to access the virtual computing session via a communications network. The virtual computing session includes a remote browser, and the client device includes a local browser to access user credential information. The remote browser is used to navigate to a website requiring user authentication, receive a user credential challenge from the website, and request the user credential information from the client device to satisfy the user credential challenge. The client device provides the user credential information to the remote browser for user authentication via the local browser, so as to satisfy the user credential challenge of the website.

Abstract: Aspects described herein provide improved system architectures for a cross-domain proxy so that server/controller software may be placed in a cloud-based environment, with only limited equipment required on-premises at a user location for use by application client software. Aspects described herein provide techniques for communicating information between disparate domains, while each party to the transaction believes it is on the same domain as the other party to the transaction. Aspects described herein generally relate to a method to transparently transport the Citrix Brokering Protocol (CBP, or other protocols) between On-Premises VDAs (e.g., virtualized Windows computers) to an In-Cloud Broker running on the Desktop Delivery Controllers (DDCs) when each resides in different domains. Using aspects described herein, resources that otherwise need to be co-located on the same administrative domain can be moved to different domains, e.g., using a cloud-based system architecture.

Abstract: Aspects of the disclosure relate to using service pool architecture for multitenant services to support canary release. An enterprise canary release server may create a plurality of service pools for a tenant in a cloud-based system that supports a plurality of tenants, where each service pool may comprise a plurality of microservices. The enterprise canary release server may receive a request to perform a canary release for a new version of software and identify a first microservice out of the plurality of microservices in a first service pool. The enterprise canary release server may instantiate a new microservice in the first service pool and enable data plane connectivity between the new microservice and a second microservice. Accordingly, the enterprise canary release server may disable data plane connectivity between the first microservice and the second microservice.

Abstract: Aspects described herein provide improved system architectures for a cross-domain proxy so that server/controller software may be placed in a cloud-based environment, with only limited equipment required on-premises at a user location for use by application client software. Aspects described herein provide techniques for communicating information between disparate domains, while each party to the transaction believes it is on the same domain as the other party to the transaction. Aspects described herein generally relate to a method to transparently transport the Citrix Brokering Protocol (CBP, or other protocols) between On-Premises VDAs (e.g., virtualized Windows computers) to an In-Cloud Broker running on the Desktop Delivery Controllers (DDCs) when each resides in different domains. Using aspects described herein, resources that otherwise need to be co-located on the same administrative domain can be moved to different domains, e.g., using a cloud-based system architecture.

Abstract: A computing system includes a virtual server to provide a virtual computing session, and a client device to access the virtual computing session via a communications network. The virtual computing session includes a remote browser, and the client device includes a local browser to access user credential information. The remote browser is used to navigate to a website requiring user authentication, receive a user credential challenge from the website, and request the user credential information from the client device to satisfy the user credential challenge. The client device provides the user credential information to the remote browser for user authentication via the local browser, so as to satisfy the user credential challenge of the website.

Abstract: Aspects described herein provide improved system architectures for a cross-domain proxy so that server/controller software may be placed in a cloud-based environment, with only limited equipment required on-premises at a user location for use by application client software. Aspects described herein provide techniques for communicating information between disparate domains, while each party to the transaction believes it is on the same domain as the other party to the transaction. Aspects described herein generally relate to a method to transparently transport the Citrix Brokering Protocol (CBP, or other protocols) between On-Premises VDAs (e.g., virtualized Windows computers) to an In-Cloud Broker running on the Desktop Delivery Controllers (DDCs) when each resides in different domains. Using aspects described herein, resources that otherwise need to be co-located on the same administrative domain can be moved to different domains, e.g., using a cloud-based system architecture.

Abstract: Methods, systems, computer-readable media, and apparatuses for updating a multi-tenant virtualization system are described herein. Session launch data for a plurality of end users associated with a plurality of tenants is obtained from a session database, and queried. The session launch data is analyzed for session launch activity. An update time is obtained based on the analysis. A component of the multi-tenant virtualization system is updated at the determined update time. During the updating, new sessions by the plurality of end users associated with the plurality of tenants are prevented from launching.

Abstract: Aspects of the disclosure relate to using service pool architecture for multitenant services to support canary release. An enterprise canary release server may create a plurality of service pools for a tenant in a cloud-based system that supports a plurality of tenants, where each service pool may comprise a plurality of microservices. The enterprise canary release server may receive a request to perform a canary release for a new version of software and identify a first microservice out of the plurality of microservices in a first service pool. The enterprise canary release server may instantiate a new microservice in the first service pool and enable data plane connectivity between the new microservice and a second microservice. Accordingly, the enterprise canary release server may disable data plane connectivity between the first microservice and the second microservice.

Abstract: Aspects described herein provide improved system architectures for a cross-domain proxy so that server/controller software may be placed in a cloud-based environment, with only limited equipment required on-premises at a user location for use by application client software. Aspects described herein provide techniques for communicating information between disparate domains, while each party to the transaction believes it is on the same domain as the other party to the transaction. Aspects described herein generally relate to a method to transparently transport the Citrix Brokering Protocol (CBP, or other protocols) between On-Premises VDAs (e.g., virtualized Windows computers) to an In-Cloud Broker running on the Desktop Delivery Controllers (DDCs) when each resides in different domains. Using aspects described herein, resources that otherwise need to be co-located on the same administrative domain can be moved to different domains, e.g., using a cloud-based system architecture.

Abstract: Aspects described herein provide improved system architectures for a cross-domain proxy so that server/controller software may be placed in a cloud-based environment, with only limited equipment required on-premises at a user location for use by application client software. Aspects described herein provide techniques for communicating information between disparate domains, while each party to the transaction believes it is on the same domain as the other party to the transaction. Aspects described herein generally relate to a method to transparently transport the Citrix Brokering Protocol (CBP, or other protocols) between On-Premises VDAs (e.g., virtualized Windows computers) to an In-Cloud Broker running on the Desktop Delivery Controllers (DDCs) when each resides in different domains. Using aspects described herein, resources that otherwise need to be co-located on the same administrative domain can be moved to different domains, e.g., using a cloud-based system architecture.

Abstract: Methods, systems, computer-readable media, and apparatuses for updating a multi-tenant virtualization system are described herein. Session launch data for a plurality of end users associated with a plurality of tenants is obtained from a session database, and queried. The session launch data is analyzed for session launch activity. An update time is obtained based on the analysis. A component of the multi-tenant virtualization system is updated at the determined update time. During the updating, new sessions by the plurality of end users associated with the plurality of tenants are prevented from launching.

Abstract: Aspects described herein provide improved system architectures for a cross-domain proxy so that server/controller software may be placed in a cloud-based environment, with only limited equipment required on-premises at a user location for use by application client software. Aspects described herein provide techniques for communicating information between disparate domains, while each party to the transaction believes it is on the same domain as the other party to the transaction. Aspects described herein generally relate to a method to transparently transport the Citrix Brokering Protocol (CBP, or other protocols) between On-Premises VDAs (e.g., virtualized Windows computers) to an In-Cloud Broker running on the Desktop Delivery Controllers (DDCs) when each resides in different domains. Using aspects described herein, resources that otherwise need to be co-located on the same administrative domain can be moved to different domains, e.g., using a cloud-based system architecture.