John A Eldridge, 521190 Minuteman St, Billings, MT 59105

6766472, Jul 20, 2004

May 24, 2001

09/865934

Gregory Hogdal - Sammamish WA
John R. Eldridge - Bellevue WA

Microsoft Corporation - Redmond WA

G06F 1100

714 25, 714 27, 711 6

Systems and methods are described for replicating virtual memory translation from a target computer on a host computer, and debugging a fault that occurred on the target computer on the host computer. The described techniques are utilized on a target computer having a processor that has halted execution. Virtual to physical address translation data from the target computer is transferred to the host computer. The host computer utilizes the virtual to physical address translation data to access data pointed by virtual memory addresses that were used by the target computer, and then debugs a fault by accessing the data by reading the physical memory address on the host computer. After the virtual to physical memory address translation data have been acquired, they can be cached at the host computer.

6785893, Aug 31, 2004

Nov 30, 2000

09/726907

Larry A. Morris - Kirkland WA
Michael J. Thomson - Bellevue WA
John R. Eldridge - Bellevue WA
Susan A. Dey - Seattle WA
David M. Sauntry - Redmond WA
Jonathan M. Tanner - Bothell WA
Marc Shepard - Bellevue WA

Microsoft Corporation - Redmond WA

G06F 946

719318, 710260, 710263

A system and method for logging events processed by an operating system is provided. The events logged can include interrupt and non-interrupt events, and can include user-defined events. Information concerning the interrupt events is initially written, during event handling time, into a first buffer while information concerning non-interrupt events is initially written, during event handling time, into a second buffer. Information from the two buffers is then written to a third buffer not during event handling time. Separating the interrupt event buffer from the non-interrupt event buffer rather than having one buffer, and writing relatively small amounts of data during event handling time to memory, rather than transporting data to slower non-memory mapped devices allows the event logger to be less intrusive and facilitates greater accuracy in event logging. Data stored in the third buffer can be accessed by a viewing component, which facilitates displaying data in a manner useful to diagnose operating systems.

7114100, Sep 26, 2006

Apr 16, 2004

10/826228

Gregory Hogdal - Sammamish WA, US
John R. Eldridge - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F 11/00
G06F 12/02

714 27, 714 25, 711206

Systems and methods are described for replicating virtual memory translation from a target computer on a host computer, and debugging a fault that occurred on the target computer on the host computer. The described techniques are utilized on a target computer having a processor that has halted execution. Virtual to physical address translation data from the target computer is transferred to the host computer. The host computer utilizes the virtual to physical address translation data to access data pointed by virtual memory addresses that were used by the target computer, and then debugs a fault by accessing the data by reading the physical memory addresson the host computer. After the virtual to physical memory address translation data have been acquired, they can be cached at the host computer.

7360115, Apr 15, 2008

Mar 8, 2006

11/276644

Gregory Hogdal - Redmond WA, US
John R. Eldridge - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F 11/00

714 27, 711 6, 717127

Systems and methods are described for replicating virtual memory translation from a target computer on a host computer, and debugging a fault that occurred on the target computer on the host computer. The described techniques are utilized on a target computer having a processor that has halted execution. Virtual to physical address translation data from the target computer is transferred to the host computer. The host computer utilizes the virtual to physical address translation data to access data pointed by virtual memory addresses that were used by the target computer, and then debugs a fault by accessing the data by reading the physical memory address on the host computer. After the virtual to physical memory address translation data have been acquired, they can be cached at the host computer.

7434100, Oct 7, 2008

Mar 8, 2006

11/276633

Gregory Hogdal - Redmond WA, US
John Eldridge - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F 11/00

714 27, 711 6, 711205

Systems and methods are described for replicating virtual memory translation from a target computer on a host computer, and debugging a fault that occurred on the target computer on the host computer. The described techniques are utilized on a target computer having a processor that has halted execution. Virtual to physical address translation data from the target computer is transferred to the host computer. The host computer utilizes the virtual to physical address translation data to access data pointed by virtual memory addresses that were used by the target computer, and then debugs a fault by accessing the data by reading the physical memory addresson the host computer. After the virtual to physical memory address translation data have been acquired, they can be cached at the host computer.

7818754, Oct 19, 2010

Jun 14, 2004

10/866861

Larry A. Morris - Kirkland WA, US
Susan A. Dey - Seattle WA, US
Michael J. Thomson - Bellevue WA, US
John R. Eldridge - Bellevue WA, US
David M. Sauntry - Redmond WA, US
Jonathan M. Tanner - Bothell WA, US
Marc Shepard - Bellevue WA, US

Microsoft Corporation - Redmond WA

G06F 9/44
G06F 11/00
G06F 3/00

719318, 710 48, 714 48, 714723, 719312

A system and method for logging events processed by an operating system is provided. The events logged can include interrupt and non-interrupt events, and can include user-defined events. Information concerning the interrupt events is initially written, during event handling time, into a first buffer while information concerning non-interrupt events is initially written, during event handling time, into a second buffer. Information from the two buffers is then written to a third buffer not during event handling time. Separating the interrupt event buffer from the non-interrupt event buffer rather than having one buffer, and writing relatively small amounts of data during event handling time to memory, rather than transporting data to slower non-memory mapped devices allows the event logger to be less intrusive and facilitates greater accuracy in event logging. Data stored in the third buffer can be accessed by a viewing component, which facilitates displaying data in a manner useful to diagnose operating systems.

2010007, Mar 25, 2010

Sep 23, 2008

12/236174

Javier Nisim Flores Assad - Bothell WA, US
Michael Hung-Hsiang Chen - Bellevue WA, US
John Robert Eldridge - Bellevue WA, US
Gregory Hogdal - Sammamish WA, US

MICROSOFT CORPORATION - Redmond WA

G06F 9/44

717129

Filtering exceptions on a target computing device to selectively interrupt a host computing device based on rules. The rules represent user-defined scenarios, and each rule includes one or more criteria and a break decision. Upon detecting an exception on the target computing device, the target computing device evaluates the rules based on the criteria and information about the exception without notifying the host computing device. For example, a score is calculated for each rule, and the rule with the highest score is selected. The break decision associated with the selected rule is applied. For example, the break decision indicates that the exception is of interest and the host computing device should be notified, or that the exception does not match a scenario of interest and execution should continue without a break.

2014037, Dec 25, 2014

Jun 25, 2013

13/926322

Steve Robbins - Bellevue WA, US
Scott C. McEldowney - Redmond WA, US
Xinye Lou - Redmond WA, US
David D. Bohn - Fort Collins CO, US
Quentin Simon Charles Miller - Sammamish WA, US
John Robert Eldridge - Bellevue WA, US
William M. Crow - Sequim WA, US

G02B 27/01
G06T 19/00
G06F 3/01

345156

Embodiments are disclosed herein that relate to aligning a near-eye display of a near-eye display device with an eye of a user. For example, one disclosed embodiment provides, on a near-eye display device, a method comprising receiving an image of an eye from a camera via a reverse display optical path, detecting a location of the eye in the image, and determining a relative position of the eye with regard to a target viewing position of the near-eye display. The method further comprises determining an adjustment to make to the near-eye display device to align the location of the eye with the target viewing position.