Author: claimsbot

1. A pool leafing tool for gathering leaves and other pool debris from a pool bottom wall, said tool comprising a handle, a handle-controlled basket comprising a water-pervious and leaf and debris-impervious plastic mesh pocket having a closed end and an open end and a leaf and debris receiving volume therebetween having longitudinally extended sidewalls, said sidewalls defining an open end edge margin, a pocket supporting frame attached to said edge margin and disposed in a frame plane including said open end, and a pocket stay structure comprising a spring member bent on itself about said pocket closed end and disposed in a stay structure plane substantially normal to said frame plane, said stay structure extending attached to said sidewalls for substantially the sidewall longitudinal extent length thereof for biasing said mesh pocket volume against collapse onto itself in its empty or leaf and debris-filled condition.
2. The pool leafing tool according to claim 1, in which said pocket stay biasing structure is sidewall-attached along from 25 to 95% of said sidewall longitudinal extent, and is free of attachment to said supporting frame.
3. The pool leafing tool according to claim 2, in which said pocket stay biasing structure comprises plural, spaced apart, parallel, bent spring members.
4. The pool leafing tool according to claim 3, in which said pocket stay biasing structure spring members have first and second leg portions attached to said mesh pocket in opposed relation across said volume.
5. The pool leafing tool according to claim 4, in which said pocket stay biasing structure spring members have a plastic surface.
6. The pool leafing tool according to claim 4, in which said mesh pocket has an inner and an outer surface, and said pocket stay biasing structure spring members being attached to said outer surface.
7. The pool leafing tool according to claim 6, in which said pocket biasing structure spring members are raised members from said mesh pocket and arranged to skid along said pool bottom wall in mesh pocket abrasion-reducing relation.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A method of debugging code, comprising:
accessing a log file in a target system from a remote site, the log file being associated with a source file in the target system, the source file representing a non-active program;
correlating a message in the log file to corresponding source code in the source file; and
displaying the corresponding source code to enable debugging of the corresponding source code;
wherein accessing the log file in the target system from the remote site comprises remotely accessing the log file through a network connection to the target system by enabling, from the remote site, an agent in the target system to query the log file.
2. The method of claim 1 wherein displaying comprises displaying the corresponding source code in association with the message.
3. The method of claim 1 wherein the message identifies an event and provides a source code identifier corresponding to the event.
4. The method of claim 3 wherein correlating comprises:
matching the message to source code identified by the source code identifier.
5. The method of claim 4 wherein the source code identifier comprises a source code line number.
6. The method of claim 1 wherein the log file comprises multiple messages.
7. The method of claim 6 wherein the target system supports multiple inter-related processes each corresponding to a different source file and producing a log file, further comprising:
initiating debug sessions involving each different source code and log file; and
switching between two of the debug sessions.
8. The method of claim 7 wherein switching between the two debug sessions comprises:
time correlating messages in the log files involved in the two debug sessions.
9. The method of claim 6 wherein the target system supports threads executing the source code, each thread contributing to the messages in the log file.
10. The method of claim 9 wherein correlating further comprises:
correlating each message in the log file for a selected one of the threads to corresponding source code in the source file.
11. The method of claim 10 wherein the log file further includes states associated with the threads.
12. The method of claim 3 wherein the log file further includes variable values.
13. The method of claim 1 wherein accessing the log file comprises performing a textual search of the log file, and wherein correlating comprises performing a source code line correlation based on the results of the textual search.
14. The method of claim 1 wherein accessing the log file comprises searching the log file according to one or more fields specified by a user for a given search of the log file.
15. The method of claim 1 wherein the one or more fields each correspond to different information provided in the log file.
16. A computer program product residing on a computer-readable medium for debugging code, the computer program product comprising instructions causing a computer to:
access from a remote site a log file, associated with a source file and in a target system, through a network connection to the target system by enabling, from the remote site, an agent in the target system to query the log file, the source file representing a non-active program;
correlate a message in the log file to corresponding source code in the source file; and
display the corresponding source code to enable debugging of the corresponding source code.
17. The computer program product of claim 16 wherein the instructions to display comprise instructions causing a computer to:
display the corresponding source code in association with the message.
18. The computer program product of claim 16 wherein the message identifies an event and provides a source code identifier corresponding to the event.
19. The computer program product of claim 18 wherein the instructions to correlate comprises instructions causing a computer to:
match the message to source code identified by the source code identifier.
20. The computer program product of claim 19 wherein the source code identifier comprises a source code line number.
21. The computer program product of claim 16 wherein the log file comprises multiple messages.
22. The computer program product of claim 21 wherein the target system supports multiple inter-related processes each corresponding to a different source file and producing a log file, further comprising instructions causing a computer to:
initiate debug sessions involving each different source code and log file; and
switch between two of the debug sessions.
23. The computer program product of claim 22 wherein the instructions to switch between the two debug sessions comprise instructions causing a computer to:
time correlate messages in the log files involved in the two debug sessions.
24. The computer program product of claim 21 wherein the target system supports threads executing the source code, each thread contributing to the messages in the log file.
25. The computer program product of claim 24 wherein the instructions to correlate comprises instructions causing a computer to:
correlate each message in the log file for a selected one of the threads to corresponding source code in the source file.
26. The computer program product of claim 25 wherein the log file further includes states associated with the threads.
27. The computer program product of claim 18 wherein the log file further includes variable values.
28. The computer program product of claim 16 wherein the instructions to access the log file comprise instructions causing a computer to perform a textual search of the log file, and wherein correlating comprises performing a source code line correlation based on the results of the textual search.
29. The computer program product of claim 16 wherein the instructions to access the log file comprise instructions causing a computer to search the log file according to one or more fields specified by a user for a given search of the log file.
30. The computer program product of claim 16 wherein the one or more fields each correspond to different information provided in the log file.
31. A debugger system for debugging code, comprising:
means for accessing from a remote site a log file, associated with a source file and in a target system, through a network connection to the target system by enabling, from the remote site, an agent in the target system to query the log file, the source file representing a non-active program;
means for correlating a message in the log file to corresponding source code in the source file; and
means for displaying the corresponding source code to enable debugging of the corresponding source code.
32. An apparatus comprising:
a processor;
a memory storing a computer program residing on a computer-readable medium comprising instructions to cause a computer to:
access from a remote site a log file, associated with a source file and in a target system, through a network connection to the target system by enabling, from the remote site, an agent in the target system to query the log file, the source file representing a non-active program;
correlate a message in the log file to corresponding source code in the source file; and
display the corresponding source code to enable debugging of the corresponding source code.

1. A measuring wheel comprising:
a handle set including a handle and a panel mounted on the handle;
a first rod mounted on the handle set and having a first seat mounted on the first rod, the first seat including
a first body disposed on the end of the first seat and having an assembling groove defined in a side of the first body and a supporting recess defined in a bottom surface of the first body and communicating with the assembling groove;
a first pivotal portion extending from the first body; and
a buckling unit pivotally mounted in the assembling groove in the first body and located adjacent to the bottom surface of the first body; and

a second rod pivotally connected with the first rod and having a second seat mounted on the second rod and pivotally assembled with the first seat of the first rod, the second seat including
a second body disposed on the end of the second rod and having a supporting block protruding from the second body for correspondingly inserting into the supporting recess, the supporting block having a buckling groove defined in one side of the supporting block for selectively receiving the buckling unit; and
a second pivotal portion extending from a top of the second seat and pivotally connected to the first pivotal portion; and

a wheel seat mounted on the second rod and located opposite to the second seat; and
a wheel rotatably mounted on the wheel seat.
2. The measuring wheel as claimed in claim 1, wherein the buckling unit has one end aligning with an outer periphery of the supporting recess in the bottom surface of the first body.
3. The measuring wheel as claimed in claim 2, wherein the buckling unit includes
a pivotal board pivotally mounted on the first body and received in the assembling groove;
a resilient member mounted on the pivotal board;
a pivotal clasp pivotally mounted on the pivotal board, abutting against the resilient member, having one end aligning with the bottom surface of the first body, and having a protrusion inwardly extending from the end of the pivotal clasp for corresponding to the buckling groove in the second body; and
a pintle mounted through the pivotal board and the pivotal clasp for pivotally assembling the pivotal board and the pivotal clasp with the first body.
4. The measuring wheel as claimed in claim 3, wherein the wheel seat has a stand pivotally mounted on one side of the wheel seat.
5. The measuring wheel as claimed in claim 4 further comprising an ear having two ends respectively and pivotally connected to two sides of the wheel seat.
6. The measuring wheel as claimed in claim 1, wherein the buckling unit includes
a pivotal board pivotally mounted on the first body and received in the assembling groove;
a resilient member mounted on the pivotal board;
a pivotal clasp pivotally mounted on the pivotal board, abutting against the resilient member, having one end aligning with the bottom surface of the first body, and having a protrusion inwardly extending from the end of the pivotal clasp for corresponding to the buckling groove in the second body; and
a pintle mounted through the pivotal board and the pivotal clasp for pivotally assembling the pivotal board and the pivotal clasp with the first body.
7. The measuring wheel as claimed in claim 1, wherein the wheel seat has a stand pivotally mounted on one side of the wheel seat.
8. The measuring wheel as claimed in claim 2, wherein the wheel seat has a stand pivotally mounted on one side of the wheel seat.
9. The measuring wheel as claimed in claim 6, wherein the wheel seat has a stand pivotally mounted on one side of the wheel seat.
10. The measuring wheel as claimed in claim 1 further comprising an ear having two ends respectively and pivotally connected to two sides of the wheel seat.
11. The measuring wheel as claimed in claim 2 further comprising an ear having two ends respectively and pivotally connected to two sides of the wheel seat.
12. The measuring wheel as claimed in claim 3 further comprising an ear having two ends respectively and pivotally connected to two sides of the wheel seat.
13. The measuring wheel as claimed in claim 6 further comprising an ear having two ends respectively and pivotally connected to two sides of the wheel seat.

The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.

1. A power converting transformer, comprising:
a substantially rectangular flat I-core extending along an x-y plane in an xyz orthogonal coordinate system; and
an E-core including a substantially rectangular flat base portion extending along the x-y plane, a central leg portion installed upright at a center of the base portion to extend in a z-direction, and a pair of outer leg portions installed upright in opposite end portions of the base portion in a y-direction to extend in the z-direction, the I-core placed on the outer leg portions,
wherein the I-core includes a pair of fixing grooves provided at centers on opposite side surfaces of the I-core in the y-direction, the fixing grooves extending through the I-core in the z-direction,
the E-core includes a pair of fixing recess portions provided at x-direction centers of the y-direction opposite end portions of the base portion on a surface opposite from a surface of the base portion facing the I-core,
the I-core and the E-core are pressed and fixed to each other by a fixing spring wrapped around the I-core and the E-core through the fixing grooves and the fixing recess portions, and
an x-direction length of the E-core is shorter than an x-direction length of the I-core, a y-direction length of the E-core being shorter than or equal to a y-direction distance between the fixing grooves of the I-core.
2. The power converting transformer of claim 1, wherein the y-direction distance between the fixing grooves of the I-core is equal to the y-direction length of the E-core.
3. The power converting transformer of claim 1, wherein the x-direction length of the I-core is defined by an x-direction length of the E-core, an x-direction length of the fixing recess portions of the E-core, an x-direction length of the fixing grooves of the I-core and an x-direction width of the fixing spring.
4. The power converting transformer of claim 2, wherein the x-direction length of the I-core is defined by an x-direction length of the E-core, an x-direction length of the fixing recess portions of the E-core, an x-direction length of the fixing grooves of the I-core and an x-direction width of the fixing spring.
5. The power converting transformer of claim 3, wherein the x-direction length of the I-core is larger than or equal to the x-direction length of the E-core added by the x-direction length of the fixing recess portions of the E-core and the x-direction length of the fixing grooves of the I-core and subtracted by the double of the x-direction width of the fixing spring.
6. The power converting transformer of claim 4, wherein the x-direction length of the I-core is larger than or equal to the x-direction length of the E-core added by the x-direction length of the fixing recess portions of the E-core and the x-direction length of the fixing grooves of the I-core and subtracted by the double of the x-direction width of the fixing spring.
7. The power converting transformer of claim 1, wherein the I-core includes a fit-in groove into which the fixing spring is fitted, the fit-in groove formed on a surface of the I-core opposite from a surface of the I-core facing the E-core, the fit-in groove extending in the y-direction to interconnect the fixing grooves.
8. The power converting transformer of claim 1, wherein the E-core includes an anti-short-circuit groove provided in the base portion near a circumferential edge of the central leg portion to prevent the E-core from being short-circuited with a coil pattern of a wiring board interposed between the I-core and the E-core.
9. A vehicle headlight comprising the power converting transformer of claim 1.
10. A motor vehicle comprising the vehicle headlight of claim 9.
11. A power converting transformer, comprising:
a substantially rectangular flat I-core extending along an x-y plane in an xyz orthogonal coordinate system; and
an E-core including a substantially rectangular flat base portion extending along the x-y plane, a central leg portion installed upright at a center of the base portion to extend in a z-direction, and a pair of outer leg portions installed upright in opposite end portions of the base portion in a y-direction to extend in the z-direction, the I-core placed on the outer leg portions,
wherein the I-core includes a fit-in groove into which a fixing spring is fitted, the fit-in groove formed on a surface of the I-core opposite from a surface of the I-core facing the E-core,
the E-core includes a pair of fixing recess portions provided at x-direction centers of the y-direction opposite end portions of the base portion on a surface opposite from a surface of the base portion facing the I-core,
the I-core and the E-core are pressed and fixed to each other by the fixing spring wrapped around the I-core and the E-core through the fit-in groove and the fixing recess portions, and
an x-direction length of the E-core is shorter than an x-direction length of the I-core, a y-direction length of the E-core being shorter than a y-direction length of the I-core.