Abstract: Computerized methods, systems, and computer-storage media for allowing virtual machines (VMs) residing on a common physical node to fairly share network bandwidth are provided. Restrictions on resource consumption are implemented to ameliorate stressing the network bandwidth or adversely affecting the quality of service (QoS) guaranteed to tenants of the physical node. The restrictions involves providing a scheduler that dynamically controls networking bandwidth allocated to each of the VMs as a function of QoS policies. These QoS policies are enforced by controlling a volume of traffic being sent from the VMs. Controlling traffic includes depositing tokens into token-bucket queues assigned to the VMs, respectively. The tokens are consumed as packets pass through the token-bucket queues. Upon consumption, packets are held until sufficient tokens are reloaded to the token-bucket queues.

Abstract: Computerized methods, systems, and computer-storage media for allowing virtual machines (VMs) residing on a common physical node to fairly share network bandwidth are provided. Restrictions on resource consumption are implemented to ameliorate stressing the network bandwidth or adversely affecting the quality of service (QoS) guaranteed to tenants of the physical node. The restrictions involves providing a scheduler that dynamically controls networking bandwidth allocated to each of the VMs as a function of QoS policies. These QoS policies are enforced by controlling a volume of traffic being sent from the VMs. Controlling traffic includes depositing tokens into token-bucket queues assigned to the VMs, respectively. The tokens are consumed as packets pass through the token-bucket queues. Upon consumption, packets are held until sufficient tokens are reloaded to the token-bucket queues.

Abstract: Computerized methods, systems, and computer-storage media for allowing virtual machines (VMs) residing on a common physical node to fairly share network bandwidth are provided. Restrictions on resource consumption are implemented to ameliorate stressing the network bandwidth or adversely affecting the quality of service (QoS) guaranteed to tenants of the physical node. The restrictions involves providing a scheduler that dynamically controls networking bandwidth allocated to each of the VMs as a function of QoS policies. These QoS policies are enforced by controlling a volume of traffic being sent from the VMs. Controlling traffic includes depositing tokens into token-bucket queues assigned to the VMs, respectively. The tokens are consumed as packets pass through the token-bucket queues. Upon consumption, packets are held until sufficient tokens are reloaded to the token-bucket queues.

Abstract: Method and computer storage media for efficiently deploying an operating system are provided. A virtual hard drive file is communicated by a computing device, such as a server. The virtual hard drive file may be compounded with a boot manager enhancer and/or a translator. Upon receipt of the virtual hard drive file, a computing device is enhanced to expose and mount the virtual hard drive as a drive and boot option for the computing device. Thereafter, an initial boot sequence may be commenced utilizing the virtual hard drive file as the boot source. In some embodiments, a boot manager enhancer and a translator are utilized to do one or more of expose, mount, and translate the virtual hard drive file. In some embodiments, a virtual SCSI miniport driver is utilized to do one or more of expose, mount, and translate the virtual hard drive file.

Abstract: Computerized methods, systems, and computer-storage media for allowing virtual machines (VMs) residing on a common physical node to fairly share network bandwidth are provided. Restrictions on resource consumption are implemented to ameliorate stressing the network bandwidth or adversely affecting the quality of service (QoS) guaranteed to tenants of the physical node. The restrictions involves providing a scheduler that dynamically controls networking bandwidth allocated to each of the VMs as a function of QoS policies. These QoS policies are enforced by controlling a volume of traffic being sent from the VMs. Controlling traffic includes depositing tokens into token-bucket queues assigned to the VMs, respectively. The tokens are consumed as packets pass through the token-bucket queues. Upon consumption, packets are held until sufficient tokens are reloaded to the token-bucket queues.

Abstract: An application compatibility module is disclosed that provides compatibility between legacy binary system modules (“legacy binaries”) and a native operating system. The application compatibility module therefore allows legacy applications to execute within the native operating system, while still using their corresponding legacy binaries. The application compatibility module may provide compatibility between legacy binaries and the native operating system by translating communications between the legacy binaries and the native operating system.

Abstract: Method and computer storage media for efficiently deploying an operating system are provided. A virtual hard drive file is communicated by a computing device, such as a server. The virtual hard drive file may be compounded with a boot manager enhancer and/or a translator. Upon receipt of the virtual hard drive file, a computing device is enhanced to expose and mount the virtual hard drive as a drive and boot option for the computing device. Thereafter, an initial boot sequence may be commenced utilizing the virtual hard drive file as the boot source. In some embodiments, a boot manager enhancer and a translator are utilized to do one or more of expose, mount, and translate the virtual hard drive file. In some embodiments, a virtual SCSI miniport driver is utilized to do one or more of expose, mount, and translate the virtual hard drive file.

Abstract: Method and computer storage media for efficiently deploying an operating system are provided. A virtual hard drive file is received by a computing device. Upon receipt of the virtual hard drive file, the computing device is enhanced to expose and mount the virtual hard drive as a drive and boot option for the computing device. Thereafter, an initial boot sequence may be commenced utilizing the virtual hard drive file as the boot source. In some embodiments, a boot manager enhancer and a translator are utilized to do one or more of expose, mount and translate the virtual hard drive file. In some embodiments, a virtual SCSI miniport driver is utilized to do one or more of expose, mount, and translate the virtual hard drive file.

Abstract: Method and computer storage media for efficiently deploying an operating system are provided. A virtual hard drive file is received by a computing device. Upon receipt of the virtual hard drive file, the computing device is enhanced to expose and mount the virtual hard drive as a drive and boot option for the computing device. Thereafter, an initial boot sequence may be commenced utilizing the virtual hard drive file as the boot source. In some embodiments, a boot manager enhancer and a translator are utilized to do one or more of expose, mount and translate the virtual hard drive file. In some embodiments, a virtual SCSI miniport driver is utilized to do one or more of expose, mount, and translate the virtual hard drive file.

Abstract: An application compatibility module is disclosed that provides compatibility between legacy binary system modules (“legacy binaries”) and a native operating system. The application compatibility module therefore allows legacy applications to execute within the native operating system, while still using their corresponding legacy binaries. The application compatibility module may provide compatibility between legacy binaries and the native operating system by translating communications between the legacy binaries and the native operating system.