Microsoft Technology Licensing, LLC

Quadtek, Inc.

Richard Keith James

Benjamin C Constable

Rossen Atanassov

Samuel R Fortiner

Rafael V Cintron

Cenk Ergan

Kevin Michael Babbitt

Bogdan Brinza

Ian J Prest

Justin Rogers

Rico Mariani

Jason Joseph Weber

Li-Hsin Huang

Christian Fortini

Jonathan A Silvera

Brian E Manthos

R Scott Briggs

Praveen Kumar Muralidhar Rao

Sergey Z Malkin

Matthew P Kotsenas

Anjali S Parikh

Yuanzhe Wang

Nirankush Panchbhai

Peter Salas

Grant A Watters

A first thread receives a start movement command and a parametric curve from a second thread in response to the second thread receiving an input to move an element that is rendered in an interface. The parametric curve defines parameters for movement of an element. The first thread calculates a positioning of the element on the interface using the parametric curve. Then, the first thread positions the element in the interface based on the positioning and continues to calculate the positioning and position the element in the interface using the parametric curve until a stop movement command is received from the second thread.

Thread independent parametric positioning for rendering elements

A first thread sends a rendering request for a scalable video graphics operation using a scalable video graphics object to a second thread. The second thread processes the scalable video graphics operation to render the scalable video graphics object using a first set of parameters that is stored in a data structure. The first thread performs a computation that calculates a second set of parameters for the scalable video graphics operation and stores the second set of parameters in the data structure. The first thread sends a signal to the second thread indicating that the first set of parameters have changed to the second set of parameters to allow the second thread to synchronize and use the second set of parameters to process the scalable video graphics operation.

Thread independent scalable vector graphics operations

Techniques for synchronization points for state information are described. In at least some embodiments, synchronization points are employed to propagate state information among different processing threads. A synchronization point, for example, can be employed to propagate state information among different independently-executing threads. Accordingly, in at least some embodiments, synchronization points serve as inter-thread communications among different independently-executing threads.

Synchronization points for state information

Various embodiments provide techniques for partitioning high resolution images into sub-images for display. In at least some embodiments, the techniques can enable a device to display an image in its native resolution (e.g., the image capture resolution) even when the image exceeds a threshold image size for the device. In example implementations, techniques determine that a size of an image exceeds a threshold image size for a system. Further to some embodiments, the techniques can determine that the image is to be partitioned into multiple sub-images that can each be processed and reassembled to display the image. The sub-images can each be rendered by a graphics processing functionality (e.g., a graphics processing unit) and displayed on a display device to present a version of the image in its native resolution.

Partitioning high resolution images into sub-images for display

Techniques for hardware accelerated caret rendering are described in which a system based caret is emulated using hardware acceleration technology. The hardware accelerated caret can be rendered using dedicated graphics processing hardware to look and feel like a system caret. This can involve using pixel shaders to produce the hardware accelerated caret and a employing a back-up texture to remove the caret after it is drawn and cause the caret to blink. In addition, rendering of the caret can be coordinated with other animations and/or other presentations of a frame buffer to piggy back drawing of the caret onto other drawing operations. This can reduce the number of times the frame buffer is presented and therefore improve performance.

Hardware accelerated caret rendering

A method is presented for selecting an HTTP authentication scheme at a client computer. A request message is sent from the client computer to a server computer to access information on the server computer. In response, the client computer receives a response message from the server computer. The response message includes an HTTP header that includes a first scheme identifier, indicating a first HTTP authentication scheme and a second scheme identifier, indicating a second HTTP authentication scheme. If the client computer does not support the second HTTP authentication scheme, the client computer uses the first HTTP authentication scheme when sending another HTTP message to the server computer. If the client computer supports the second HTTP authentication scheme, the client computer uses the second HTTP authentication scheme when sending another HTTP message to the server computer.

Adaptive HTTP authentication scheme selection

An imaging and temperature monitoring system (10) is disclosed for displaying an image of an environment (E), along with information regarding the temperature of select regions (R) within the environment. The system includes a sensor head (12) equipped with a video imager (26) for producing a video image of the environment. The sensor head also includes a pyrometer (22) mounted on a computer-controlled translation stage (24), which allows the pyrometer to directly collect temperature information from the various regions. The combined imaging and temperature monitoring functions are advantageously achieved without tradeoffs in the performance of either function.

Imaging and temperature monitoring system

A temperature-imaging system for generating an absolute temperature value for a point of interest on a monitored surface is disclosed. The system includes a camera and a temperature analyzer. The camera gathers video image data related to surface intensity and reference temperature data related to the absolute temperature at a reference point on the surface. The camera is configured so that the reference point is a fixed known point in the surface intensity image that moves with the movement of the camera. Thus, the reference temperature to reference point relationship is fixed. In operation, a video image and the reference temperature data are passed to the temperature analyzer. The temperature analyzer determines the absolute-temperature at a preselected point of interest on the surface. The temperature analyzer identifies the portion of the video image corresponding to the point of interest, and identifies the portion of the video image related to the reference point. The temperature analyzer generates an absolute temperature value for the point of interest by analyzing the reference temperature data, and the video image intensities related to the reference point and the point of interest. Because of the fixed relationship between the reference temperature data and the reference point in the video image, the system is always well calibrated and provides accurate absolute temperature outputs.

System for generating temperature images with corresponding absolute

A video imaging and counting system for use in counting moving particles. A video camera (14) is used to monitor the interior of a boiler (12) for carryover particles (46) of burning fuel. A video signal produced by the camera is electronically filtered according to a software algorithm implemented by a microcomputer (116). The video signal is digitized and at least a portion of it is processed and filtered to eliminate the fixed background noise, and variations in illumination across each image. Hot particles appearing as streaks in the image are counted when adjacent time/spatially filtered data points exceeding a threshold level lie in a defined ranged of angular trajectories. The range conforms to the expected motion of a particle entrained in hot gas flow within the area of interest in the boiler. An enhanced image of the moving particles filtered by a similar algorithm and the particle count are displayed on a video monitor (22).

Apparatus and method for imaging and counting moving particles

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Redmond, WA, United States of America

Richard Keith James