A cloud computing environment provides the ability to deploy a web application that has been developed using one of a plurality of application frameworks and is configured to execute within one of a plurality of runtime environments. The cloud computing environment receives the web application in a package compatible with the runtime environment (e.g., a WAR file to be launched in an application server, for example) and dynamically binds available services by appropriately inserting service provisioning data (e.g., service network address, login credentials, etc.) into the package. The cloud computing environment then packages an instance of the runtime environment, a start script and the package into a web application deployment package, which is then transmitted to an application (e.g., container virtual machine, etc.). The application container unpacks the web application deployment package, installs the runtime environment, loads the web application package into the runtime environment and starts the start script, thereby deploying the web application in the application container.

Cloud platform architecture

A deployment system enables a developer to define a logical, multi-tier application blueprint that can be used to create and manage (e.g., redeploy, upgrade, backup, patch) multiple applications in a cloud infrastructure. In the application blueprint, the developer models an overall application architecture, or topology, that includes individual and clustered nodes (e.g., VMs), logical templates, cloud providers, deployment environments, software services, application-specific code, properties, and dependencies between top-tier and second-tier components. The application can be deployed according to the application blueprint, which means any needed VMs are provisioned from the cloud infrastructure, and application components and software services are installed.

Single, logical, multi-tier application blueprint used for deployment and management of multiple physical applications in a cloud infrastructure

A deployment system enables a developer to generate a deployment plan according to a logical, multi-tier application blueprint defined by application architects. The deployment plan includes tasks to be executed for deploying application components on virtual computing resource provided in a cloud infrastructure. The deployment plan includes time dependencies that determine an execution order of the tasks according to dependencies between application components specified in the application blueprint. The deployment plan enables system administrators to view the application blueprint as an ordered workflow view that facilitates collaboration between system administrators and application architects.

System to generate a deployment plan for a cloud infrastructure according to logical, multi-tier application blueprint

A method for controlling hydraulic line pressure of a hydraulic control system in transmission includes determining an available flow from a plurality of hydraulic pumps, determining a flow consumption of functions served by the hydraulic control system, determining an estimated hydraulic line pressure based upon the flow from the pumps and the flow consumption, determining a desired hydraulic line pressure, and controlling the hydraulic pumps based upon the desired hydraulic line pressure and the estimated hydraulic line pressure.

Method and apparatus to control hydraulic line pressure in an electro-mechanical transmission

A deployment system enables a developer to customize a deployment plan generated according to a logical, multi-tier application blueprint for deploying multiple applications in a cloud infrastructure. Using the deployment system, the developer inserts a custom script or task in a sequence of tasks to be performed to deploy an application component in different phases (e.g., installation, configuration, start-up) on a virtual machine. The deployment system anchors the custom script to the different phases of the application component's deployment such that the customizations to the deployment plan are maintained through changes to the underlying application blueprint.

System and method for customizing a deployment plan for a multi-tier application in a cloud infrastructure

A belt type continuously variable transmission includes a primary pulley ( 11 ), a secondary pulley ( 12 ), a belt ( 13 ) wound around the primary pulley and secondary pulley; a sensor ( 27, 21 ) for detecting a vehicle running state; and a controller ( 1 ). The controller ( 1 ) is programmed to: set a final pulley ratio achieved by a shift of the pulley ratio of the primary and secondary pulleys, based on the vehicle running state, compute a primary steady oil pressure supplied to the primary pulley and a secondary steady oil pressure supplied to the secondary pulley based on an input torque inputted to the primary pulley and an actual pulley ratio, determine a target shift speed based on the final pulley ratio, compute a target stroke speed of the primary pulley and/or secondary pulley from the target shift speed, compute a target pulley rotation speed of the primary pulley, based on the vehicle running state, compute a transitional oil pressure correction amount which can attain the target shift speed, in response to the target pulley rotation speed and the target stroke speed, and set one of the oil pressure supplied to the primary pulley and the oil pressure supplied to the secondary pulley, to the sum of the steady oil pressure and the transitional oil pressure correction amount, so as to attain the final pulley ratio.

Belt type continuously variable transmission

In hydraulic pressure control apparatus and method for a continuously variable transmission, a line pressure of the continuously variable transmission is developed with a working oil supplied from an oil pump as an original pressure, and a command pressure is set to develop a line pressure target value of the target value in such a manner that the command pressure is maintained at a predetermined small value for a constant time and, thereafter, the value of the command pressure is raised up to the target value when a shift range of the continuously variable transmission is switched from a neutral range to a running range, the command pressure being raised at a rate lower than a step input to suppress an overshoot developed in the actual line pressure.

Hydraulic pressure control apparatus and method for continuously variable transmission

A hydraulic control apparatus for an automatic transmission with a line pressure regulator valve operative to regulate an oil pressure produced by an oil pump and set a line pressure, the hydraulic control apparatus including a control unit outputting a first command for controlling the line pressure regulator valve to set the line pressure to a minimum value immediately after engine start, and a second command for controlling the line pressure regulator valve to set the line pressure to a target value in accordance with increase in engine speed. The control unit is programmed to set the target value of the line pressure to a value smaller than a maximum value of the line pressure and/or reduce a target speed of engine speed, upon start of the engine in a low temperature condition.

Hydraulic control apparatus and method for automatic transmission

PROBLEM TO BE SOLVED: To provide a hydraulic controller of a continuously variable transmission capable of suppressing over shoot which occurs when line pressure of hydraulic fluid is risen to operate the continuously variable transmission at the time that transmission range of the continuously variable transmission is changed from an N range to a D range. SOLUTION: When the transmission range of the continuously variable transmission is changed from the N range to the D range, the line pressure of the hydraulic fluid to operate the continuously variable transmission of the automatic transmission is raised to its maximum value. Then, the hydraulic controller of the continuously variable transmission by this invention controls raising rate of line pressure instruction pressure for raising the line pressure to its maximum value so that it becomes milder than the raising rate when using step input instead of raising the line pressure instruction pressure to generate the line pressure to its maximum value at a time by step input. COPYRIGHT: (C)2006,JPO&NCIPI

Midori Yamaguchi

Papers

Belt type continuously variable transmission

Hydraulic pressure control apparatus and method for continuously variable transmission

Hydraulic control apparatus and method for automatic transmission

Hydraulic controller of continuously variable transmission