Abstract: A load balancer capable of instantiating a data plane within the load balancer, deleting the data plane from the load balancer, and/or enacting a change to the data plane. The load balancer instantiates a data plane for an identified tenant. The instantiated data plane is placed in a data path of network data transmitted from one or more sources to a plurality of tenant addresses that each corresponds to a different tenant or group of tenants. The instantiated data plane is also dedicated to the identified tenant such that the data plane isolates first network data destined to a first tenant address that corresponds to the identified tenant from second network data destined to one or more other tenant addresses. The load balancer also deletes the instantiated data plane from the load balancer, or enacts a change to the instantiated data plane.

Abstract: A load balancer capable of instantiating a data plane within the load balancer, deleting the data plane from the load balancer, and/or enacting a change to the data plane. The load balancer instantiates a data plane for an identified tenant. The instantiated data plane is placed in a data path of network data transmitted from one or more sources to a plurality of tenant addresses that each corresponds to a different tenant or group of tenants. The instantiated data plane is also dedicated to the identified tenant such that the data plane isolates first network data destined to a first tenant address that corresponds to the identified tenant from second network data destined to one or more other tenant addresses. The load balancer also deletes the instantiated data plane from the load balancer, or enacts a change to the instantiated data plane.

Abstract: A load balancer capable of adjusting how network data is distributed to a tenant or group of tenants by manipulating the data plane. The load balancer is placed directly in the flow path of network data that is destined for a tenant or group of tenants having a tenant address. The load balancer includes a control plane and one or more data planes. Each data plane may contain one or more network traffic multiplexors. Further, each data plane may be dedicated to a tenant or group of tenants. Data planes may be added or deleted from the load balancer; additionally, multiplexors may be added or deleted from a data plane. Accordingly, network data directed towards one tenant is less likely to affect the performance of load balancing performed for another tenant.

Abstract: Aspects of the subject matter described herein relate to selecting a source interface with which to establish a connection. In aspects, a profile for each network location a host has seen is maintained in a data store. The profile includes information about the network interfaces available to a source host at the network location. This information indicates, among other things, the reliability of each interface of the source host. Based on the profile, an interface is selected with which to establish a connection. If the interface is unsuccessful in establishing the connection, the interface is de-prioritized and another interface may be selected.

Abstract: The technology described herein manages the deployment of a group of machines from a staged state to a production state, while maintaining both the production and staged machines behind a single virtual internet protocol (VIP) address. The machines may be deployed within one or more data centers. Requests for service addressed to the VIP can be sent by a load balancer to machines within a staged pool or a production pool. The load balancer can evaluate characteristics of the request against a policy to determine whether to communicate the request to a machine in the first or second pool.

Abstract: A load balancer capable of adjusting how network data is distributed to a tenant or group of tenants by manipulating the data plane. The load balancer is placed directly in the flow path of network data that is destined for a tenant or group of tenants having a tenant address. The load balancer includes a control plane and one or more data planes. Each data plane may contain one or more network traffic multiplexors. Further, each data plane may be dedicated to a tenant or group of tenants. Data planes may be added or deleted from the load balancer; additionally, multiplexors may be added or deleted from a data plane. Accordingly, network data directed towards one tenant is less likely to affect the performance of load balancing performed for another tenant.

Abstract: A load balancer capable of adjusting how network data is distributed to a tenant or group of tenants by manipulating the data plane. The load balancer is placed directly in the flow path of network data that is destined for a tenant or group of tenants having a tenant address. The load balancer includes a control plane and one or more data planes. Each data plane may contain one or more network traffic multiplexors. Further, each data plane may be dedicated to a tenant or group of tenants. Data planes may be added or deleted from the load balancer; additionally, multiplexors may be added or deleted from a data plane. Accordingly, network data directed towards one tenant is less likely to affect the performance of load balancing performed for another tenant.

Abstract: Embodiments are directed to routing requests with different protocols to the same destination. In one scenario, a computer system receives a request that uses a specified protocol. The request includes a request source identifier and a request destination identifier. The computer system identifies, based on both the request source identifier and the request destination identifier, a destination to send the request to and generates a routing entry for the request that indicates which destination the first request was sent to. The computer system receives another request that uses a different protocol. This request includes a request source identifier and a request destination identifier of its own. The computer system determines that the request source identifier and request destination identifier of the subsequent request match those of the generated routing entry, and routes the subsequent request to the destination indicated in the routing entry.

Abstract: A load balancer capable of adjusting how network data is distributed to a tenant or group of tenants by manipulating the data plane. The load balancer is placed directly in the flow path of network data that is destined for a tenant or group of tenants having a tenant address. The load balancer includes a control plane and one or more data planes. Each data plane may contain one or more network traffic multiplexors. Further, each data plane may be dedicated to a tenant or group of tenants. Data planes may be added or deleted from the load balancer; additionally, multiplexors may be added or deleted from a data plane. Accordingly, network data directed towards one tenant is less likely to affect the performance of load balancing performed for another tenant.

Abstract: Aspects of the subject matter described herein relate to selecting a source interface with which to establish a connection. In aspects, a profile for each network location a host has seen is maintained in a data store. The profile includes information about the network interfaces available to a source host at the network location. This information indicates, among other things, the reliability of each interface of the source host. Based on the profile, an interface is selected with which to establish a connection. If the interface is unsuccessful in establishing the connection, the interface is de-prioritized and another interface may be selected.

Abstract: The technology described herein manages the deployment of a group of machines from a staged state to a production state, while maintaining both the production and staged machines behind a single virtual internet protocol (VIP) address. The machines may be deployed within one or more data centers. Requests for service addressed to the VIP can be sent by a load balancer to machines within a staged pool or a production pool. The load balancer can evaluate characteristics of the request against a policy to determine whether to communicate the request to a machine in the first or second pool.

Abstract: Aspects of the subject matter described herein relate to selecting a source interface with which to establish a connection. In aspects, a profile for each network location a host has seen is maintained in a data store. The profile includes information about the network interfaces available to a source host at the network location. This information indicates, among other things, the reliability of each interface of the source host. Based on the profile, an interface is selected with which to establish a connection. If the interface is unsuccessful in establishing the connection, the interface is de-prioritized and another interface may be selected.

Abstract: Embodiments are directed to routing requests with different protocols to the same destination. In one scenario, a computer system receives a request that uses a specified protocol. The request includes a request source identifier and a request destination identifier. The computer system identifies, based on both the request source identifier and the request destination identifier, a destination to send the request to and generates a routing entry for the request that indicates which destination the first request was sent to. The computer system receives another request that uses a different protocol. This request includes a request source identifier and a request destination identifier of its own. The computer system determines that the request source identifier and request destination identifier of the subsequent request match those of the generated routing entry, and routes the subsequent request to the destination indicated in the routing entry.

Abstract: Aspects of the subject matter described herein relate to selecting a source interface with which to establish a connection. In aspects, a profile for each network location a host has seen is maintained in a data store. The profile includes information about the network interfaces available to a source host at the network location. This information indicates, among other things, the reliability of each interface of the source host. Based on the profile, an interface is selected with which to establish a connection. If the interface is unsuccessful in establishing the connection, the interface is de-prioritized and another interface may be selected.

Abstract: Aspects of the subject matter described herein relate to selecting a source interface with which to establish a connection. In aspects, a profile for each network location a host has seen is maintained in a data store. The profile includes information about the network interfaces available to a source host at the network location. This information indicates, among other things, the reliability of each interface of the source host. Based on the profile, an interface is selected with which to establish a connection. If the interface is unsuccessful in establishing the connection, the interface is de-prioritized and another interface may be selected.

Abstract: Aspects of the subject matter described herein relate to selecting a source interface with which to establish a connection. In aspects, a profile for each network location a host has seen is maintained in a data store. The profile includes information about the network interfaces available to a source host at the network location. This information indicates, among other things, the reliability of each interface of the source host. Based on the profile, an interface is selected with which to establish a connection. If the interface is unsuccessful in establishing the connection, the interface is de-prioritized and another interface may be selected.