Chi W Lin

20100161715, Jun 24, 2010

Dec 22, 2008

12/340844

Johney Tsai - Irvine CA, US
David Strong - Laguna CA, US
Chi Lin - Chino Hills CA, US

G06F 15/16

709203

A Java enterprise resource management (JERM) system and method are provided that allow both timing metrics and call metrics to be monitored and gathered in real-time, and which can cause appropriate actions to be taken in real-time. The JERM system provides a level of granularity with respect to the monitoring of methods triggered during a transaction that is equivalent to or better than that which is currently provided in the aforementioned known call-analysis resource management systems. In addition, the JERM system also provides information associated with the timing of hops that occur between servers, and between and within applications, during a transaction. Because all of this information is obtained in real-time, the JERM system is able to respond in real-time to cause resources to be scaled in or scaled out in a way that provides improved efficiency and productivity, and that enables the enterprise to quickly recover from resource failures.

20100161719, Jun 24, 2010

Dec 31, 2008

12/347032

Johney Tsai - Irvine CA, US
David Strong - Laguna CA, US
Chi Lin - Chino Hills CA, US

G06F 15/16

709203, 709202, 709226

A Java enterprise resource management (JERM) system and method are provided that allow both timing metrics and call metrics to be monitored and gathered in real-time, and which can cause appropriate actions to be taken in real-time. The JERM system provides a level of granularity with respect to the monitoring of methods triggered during a transaction that is equivalent to or better than that which is currently provided in the aforementioned known call-analysis resource management systems. In addition, the JERM system also provides information associated with the timing of hops that occur between servers, and between and within applications, during a transaction. Because all of this information is obtained in real-time, the JERM system is able to respond in real-time to cause resources to be scaled in or scaled out in a way that provides improved efficiency and productivity, and that enables the enterprise to quickly recover from resource failures.

20100162244, Jun 24, 2010

Jul 14, 2009

12/502504

Johney Tsai - Irvine CA, US
David Strong - Laguna CA, US
Chi Lin - Chino Hills CA, US

G06F 9/46

718100

A computerized work chain and methods are provided. The work chain comprises at least one processing device configured to perform the computerized work chain M work queues implemented in the one or more processing devices, and a work queue handler implemented in the one or more processing devices, where M is a positive integer that is greater than or equal to one. Each work queue comprises a queue monitor, an exception monitor, a pool of worker threads, a logger, and a data queue. The work queue handler forms the work chain by linking the M work queues together such that respective outputs of a first one of the work queues through an M−1 one of the work queues are linked to respective inputs of a second one of the work queues through an Mone of the work queues, respectively.

20100169408, Jul 1, 2010

Jul 14, 2009

12/502273

Johney Tsai - Irvine CA, US
David Strong - Laguna CA, US
Chi Lin - Chino Hills CA, US

G06F 15/16

709203, 709202, 709226

A Java enterprise resource management (JERM) system and methods that implement a work chain are provided that allow both timing metrics and call metrics to be monitored and gathered in real-time, and which can cause appropriate actions to be taken in real-time. The JERM system provides a level of granularity with respect to the monitoring of methods triggered during a transaction that is equivalent to or better than that which is currently provided in the aforementioned known call-analysis resource management systems. In addition, the JERM system also provides information associated with the timing of hops that occur between servers, and between and within applications, during a transaction. Because all of this information is obtained in real-time, the JERM system is able to respond in real-time to cause resources to be scaled in or scaled out in a way that provides improved efficiency and productivity, and that enables the enterprise to quickly recover from resource failures.

54828198, Jan 9, 1996

Apr 4, 1994

8/223255

Eddy Tjhia - Sunnyvale CA
Chi Lin - Milpitas CA
Anjali Anagol-Subbarao - San Jose CA

National Semiconductor Corporation - Santa Clara CA

G03F 720

430394

A photolithographic process for forming a lead frame pattern or other pattern is described. In the preferred embodiment, a mask approximately 12 inches by 12 inches contains two nearly identical patterns: a first lead frame pattern is provided on one half of the mask, and a second lead frame pattern, having features reduced by 0. 3 mil, is provided on the other half of the mask. The first pattern is positioned over a copper web having a layer of photoresist laminated on it, and ultraviolet light is transmitted through the first pattern. The photoresist is thus exposed by a first image formed by the first pattern. While the copper web remains stationary, the mask is moved perpendicular to the length of the copper web so that the second pattern now forms a second image overlying the photoresist pattern from the first image. The photoresist layer is then exposed by the second image. The two nearly identical patterns on the mask essentially double expose the photoresist except for a 0.

20200111836, Apr 9, 2020

Oct 3, 2019

16/591944

- Taichung City, TW
Chi Shun LIN - Fremont CA, US

H01L 27/24
H01L 23/528
H01L 23/522
H01L 45/00
G11C 13/00

The invention provides a resistive memory with better area efficiency without degrading reliability, which includes an array area, word lines, a local bit line, source lines, and a shared bit line. In the array area, memory cells are arranged in a matrix, and each memory cells includes a variable resistance element and an accessing transistor. The word lines extend in a row direction of the array area and are connected to the memory cells in the row direction. The local bit line extends in a column direction of the array area. The source lines extend in the column direction and are connected to first electrodes of the memory cells in the column direction. The shared bit line is connected to the local bit line. The shared bit line extends in the row direction and is connected to second electrodes of the memory cells in the row direction.