Abstract:
The performance monitoring system allocates virtual machines to users or user sessions according to a user categorization that is determine using user session information and virtual machine metrics. A session monitor of the performance monitoring system is notified that a user session terminated, where the user session accessed a virtual machine. The session monitor responsively records the user session information and obtains virtual machine metrics for the virtual machine from a virtual machine performance monitor. The performance monitoring system updates a user workload profile using the user session information and the virtual machine metrics, and categorizes the user of the user session according to the user workload profile. Upon receiving a request from a user for a virtual machine, a virtual desktop infrastructure requests a virtual machine from a virtual machine manager. The virtual machine manager responsively allocates a virtual machine to the user according to the user's categorization.
Abstract:
A method and apparatus for controlling the attenuation level of a semiconductor VOA relative to an absolute temperature of the VOA without the use of a power monitor is provided. The method includes the step of providing a variable optical attenuator for attenuating the optical signal. The variable optical attenuator is instructed to maintain the desired attenuation level of the optical signal. The temperature of the variable optical attenuator is periodically sensed, and a required voltage level is determined to achieve the desired attenuation level based at least partially on the periodically sensed temperature of the VOA. The method can further include the step of increasing and decreasing a voltage to the VOA to achieve the required voltage level and thus the desired attenuation level.
Abstract:
A networking policy implementation for a multi-virtual machine appliance that includes a method for selecting a network implementation by applying a network policy to existing network configurations within a virtualization environment of a computing device. A control program that executes within the virtualization environment, receives an event notification generated by a virtual machine in response to a lifecycle event. The control program, in response to receiving the notification, invokes a policy engine that applies a network policy to existing network configurations of the virtualization environment. This network policy can correspond to the virtual machine or to a network object connected to virtual interface objects of the virtual machine. The policy engine then identifies an existing network configuration that has attributes which satisfy the network policy, and selects a network implementation that satisfies the network policy and the network configuration.
Abstract:
A waste storage device (200) is provided comprising a waste storage compartment for storing waste and a lid (206). The device (200) further comprises a dispenser (208) for dispensing an agent inside the waste storage device (200) and an actuator (212) arranged to activate the dispenser (208).
Abstract:
Storage optimization selection for virtual disks of a virtualization environment, where the storage optimization can be selected based in part on the disk type of a virtual disk included in a virtual machine. The disk type of the virtual disk can be discovered by the virtualization environment which queries a database within the virtualization environment for metadata associated with the virtual disk. The metadata can be created when a virtual desktop infrastructure creates the virtual disk, and a virtual machine template that includes the at least one virtual disk. The virtual disk can be modified to either include or be associated with the metadata that describes a disk type of the virtual disk. Upon executing the virtual machine that includes the modified virtual disk, a storage subsystem of the virtualization environment can obtain the metadata of the virtual disk to discover the disk type of the virtual disk.
Abstract:
A pneumatic-internal combustion (IC) engine based power management system with improved energy efficiency for automobile application. More particularly, the pneumatic IC engine based power management system comprises a compressor, a pressure vessel, a pneumatic motor and related control mechanisms to provide energy on demand and reduce environmental pollution. The compressor is driven by the IC engine during low power demand by the vehicle. The lightweight pressure vessel wrapped with high strength metal wire and/or fibers provide impact resistance adequate to store compressed air at rated pressure. For low/no load condition of engine or compressor, the IC engine will shut off rather than idling to save fuel. The stored compressed air drives the air motor that powers the vehicle's initial motion and then starts the IC engine to provide continuous power. A controller monitors the power demand and actuates different system components accordingly through sensors. The system also supports accessories such as air conditioning, heater etc. and a wheel-rim system for inflation maintenance and easy change over of tires.
Abstract:
In some embodiments, an electronic apparatus comprises a communication interface, an input/output interface, a processor, and logic to collect, in the electronic apparatus, a first identifier associated with a first communication device and second identifier associated with a second communication device, logic to establish a communication connection between the electronic apparatus and the first communication device, and logic to initiate, in the electronic apparatus, a connection request for a communication connection between the first communication device and the second communication device. Other embodiments may be described.