Microsoft Technology Licensing, LLC

Xin Yan

Keira L Amos

Deepak Bansal

Vaibhav Kumar

Douglas Jay Rosen

Brian Chamberlain

Jason P Smith

Techniques are disclosed for dynamically adjusting a throttling threshold in a multi-tenant virtualized computing environment. System health parameters are collected during a predetermined time interval. A system health status of the multi-tenant virtualized computing environment is determined. Based on the system health status, a throttling threshold for service requests for the multi-tenant virtualized computing environment is determined. The throttling threshold is applied for further service requests. During a subsequent time interval, an updated system health status of the multi-tenant virtualized computing environment is determined based on system health parameters received during the subsequent time interval. The throttling threshold is updated based on the updated system health status. The updated throttling threshold is applied for further service requests.

Dynamic throttling based on health metrics

When an up to date state has been achieved for the inputs and outputs of a build process, an asset state indicator is set to indicate that all the inputs and outputs are up to date. Those inputs and outputs are monitored. If a change to any of the inputs and/or outputs is detected, the asset state indicator is updated to indicate that some build execution is needed. When a build request is detected, the current state of the asset state indicator is exposed. An execution sequence for targets of the build process based on dependencies between targets is determined. A starting point for a partial build is determined by determining the earliest-appearing target in the sequence that is affected by the detected changes to the inputs and outputs to the targets of the execution sequence. Executing the build process from this starting point will produce the updated outputs and return the system to the up to date state.

Monitoring asset state to enable partial build

A WYSIWYG visual programming environment for programming applications for portable computer devices is provided. The developer selects a form skin based on the underlying portable computer device that the developer intends the application to execute on. The form skin appears to the developer as a graphic modeled after the actual device. The developer is able to drag and drop GUI elements onto the form, where they appear at approximately the same size and resolution as they would to the user of the actual device, regardless of the resolution used on the developer's computing device. The developer is able to associate code with the GUI elements, as well as any softkeys that appear on the form skin. The developer is able to test the application by emulating the hardware of the portable device, and operating the device using the form skin. Through the form skin, the developer is able to see nearly exactly how the application will look and operate on the underlying portable device without having to leave the development environment.

Form skin and design time WYSIWYG for .net compact framework

A software development tool, in the form of an integrated development environment (IDE), comprises a managed platform registry for managing the combination of compatible target platforms and versions of a software development framework. Each compatible combination of a platform and a version of the software development framework is assigned a unique managed platform ID. The managed platform IDs and information associated therewith are managed by the managed platform registry. The software development tool provides upgrade capability allowing a developer to use a newer version of the software development framework while maintaining the current target platform. The software development tool also provides the ability to switch target platforms while maintaining the current version of the software development framework.

Integrated development environment with managed platform registry

A method of viewing a high resolution display on a low resolution development system display for a digital device includes selecting a target device and identifying an image form for the selected device. An image form displays a realistic form of the selected target device. A form factor is selected which represents the display capabilities of the target device. The image form size is adjusted such that the developer may see text in proper proportion to the image form so as to simulate the look of the high resolution display of the target device. Object code for the target device is generated which contains the proper font size to correspond to the image form and font on the development display.

Method and system for a target device display simulation

A method of creating a menu for a handheld digital device in a development environment includes selecting a target device which has an associated operating system available to the development environment. An editor is called for creation of the menu. The editor uses the constraints of the associated target device operating system so that actual behavior of the target device can be viewed as the development occurs. The developer defines functionality for the menu and can verify its operation. The menu editor can be customized for new digital devices with new operating system. Code may be generated as a result of completing the development process and saving the design. The resulting code is assured to run properly on the target device operating system.

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Bellevue, WA, United States of America

Xin Yan