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* gdb.texinfo (Packets, Stop Reply Packets, General Query Packets,

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Register Packet Format, Tracepoint Packets): Fix spelling errors.
This commit is contained in:
Bob Wilson
2006-09-05 17:45:53 +00:00
parent 88b882e985
commit 599b237a8a
2 changed files with 23 additions and 18 deletions
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gdb/doc/ChangeLog
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@ -1,3 +1,8 @@
2006-09-02 Bob Wilson <bob.wilson@acm.org>
* gdb.texinfo (Packets, Stop Reply Packets, General Query Packets,
Register Packet Format, Tracepoint Packets): Fix spelling errors.
2006-09-02 Eli Zaretskii <eliz@gnu.org> 2006-09-02 Eli Zaretskii <eliz@gnu.org>
* gdbint.texinfo (Overall Structure): New section "Source Tree * gdbint.texinfo (Overall Structure): New section "Source Tree

36
gdb/doc/gdb.texinfo
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@ -22987,7 +22987,7 @@ suitable for accessing memory-mapped I/O devices.
Reply: Reply:
@table @samp @table @samp
@item @var{XX@dots{}} @item @var{XX@dots{}}
Memory contents; each byte is transmitted as a two-digit hexidecimal Memory contents; each byte is transmitted as a two-digit hexadecimal
number. The reply may contain fewer bytes than requested if the number. The reply may contain fewer bytes than requested if the
server was able to read only part of the region of memory. server was able to read only part of the region of memory.
@item E @var{NN} @item E @var{NN}
@ -22998,7 +22998,7 @@ server was able to read only part of the region of memory.
@cindex @samp{M} packet @cindex @samp{M} packet
Write @var{length} bytes of memory starting at address @var{addr}. Write @var{length} bytes of memory starting at address @var{addr}.
@var{XX@dots{}} is the data; each byte is transmitted as a two-digit @var{XX@dots{}} is the data; each byte is transmitted as a two-digit
hexidecimal number. hexadecimal number.
Reply: Reply:
@table @samp @table @samp
@ -23029,7 +23029,7 @@ Indicating an unrecognized @var{query}.
@anchor{write register packet} @anchor{write register packet}
@cindex @samp{P} packet @cindex @samp{P} packet
Write register @var{n@dots{}} with value @var{r@dots{}}. The register Write register @var{n@dots{}} with value @var{r@dots{}}. The register
number @var{n} is in hexidecimal, and @var{r@dots{}} contains two hex number @var{n} is in hexadecimal, and @var{r@dots{}} contains two hex
digits for each byte in the register (target byte order). digits for each byte in the register (target byte order).
Reply: Reply:
@ -23292,13 +23292,13 @@ components.
@table @samp @table @samp
@item S @var{AA} @item S @var{AA}
The program received signal number @var{AA} (a two-digit hexidecimal The program received signal number @var{AA} (a two-digit hexadecimal
number). This is equivalent to a @samp{T} response with no number). This is equivalent to a @samp{T} response with no
@var{n}:@var{r} pairs. @var{n}:@var{r} pairs.
@item T @var{AA} @var{n1}:@var{r1};@var{n2}:@var{r2};@dots{} @item T @var{AA} @var{n1}:@var{r1};@var{n2}:@var{r2};@dots{}
@cindex @samp{T} packet reply @cindex @samp{T} packet reply
The program received signal number @var{AA} (a two-digit hexidecimal The program received signal number @var{AA} (a two-digit hexadecimal
number). This is equivalent to an @samp{S} response, except that the number). This is equivalent to an @samp{S} response, except that the
@samp{@var{n}:@var{r}} pairs can carry values of important registers @samp{@var{n}:@var{r}} pairs can carry values of important registers
and other information directly in the stop reply packet, reducing and other information directly in the stop reply packet, reducing
@ -23306,7 +23306,7 @@ round-trip latency. Single-step and breakpoint traps are reported
this way. Each @samp{@var{n}:@var{r}} pair is interpreted as follows: this way. Each @samp{@var{n}:@var{r}} pair is interpreted as follows:
@enumerate @enumerate
@item @item
If @var{n} is a hexidecimal number, it is a register number, and the If @var{n} is a hexadecimal number, it is a register number, and the
corresponding @var{r} gives that register's value. @var{r} is a corresponding @var{r} gives that register's value. @var{r} is a
series of bytes in target byte order, with each byte given by a series of bytes in target byte order, with each byte given by a
two-digit hex number. two-digit hex number.
@ -23413,7 +23413,7 @@ Return the current thread id.
Reply: Reply:
@table @samp @table @samp
@item QC @var{pid} @item QC @var{pid}
Where @var{pid} is an unsigned hexidecimal process id. Where @var{pid} is an unsigned hexadecimal process id.
@item @r{(anything else)} @item @r{(anything else)}
Any other reply implies the old pid. Any other reply implies the old pid.
@end table @end table
@ -23874,21 +23874,21 @@ must respond with an empty packet.
The following @code{g}/@code{G} packets have previously been defined. The following @code{g}/@code{G} packets have previously been defined.
In the below, some thirty-two bit registers are transferred as In the below, some thirty-two bit registers are transferred as
sixty-four bits. Those registers should be zero/sign extended (which?) sixty-four bits. Those registers should be zero/sign extended (which?)
to fill the space allocated. Register bytes are transfered in target to fill the space allocated. Register bytes are transferred in target
byte order. The two nibbles within a register byte are transfered byte order. The two nibbles within a register byte are transferred
most-significant - least-significant. most-significant - least-significant.
@table @r @table @r
@item MIPS32 @item MIPS32
All registers are transfered as thirty-two bit quantities in the order: All registers are transferred as thirty-two bit quantities in the order:
32 general-purpose; sr; lo; hi; bad; cause; pc; 32 floating-point 32 general-purpose; sr; lo; hi; bad; cause; pc; 32 floating-point
registers; fsr; fir; fp. registers; fsr; fir; fp.
@item MIPS64 @item MIPS64
All registers are transfered as sixty-four bit quantities (including All registers are transferred as sixty-four bit quantities (including
thirty-two bit registers such as @code{sr}). The ordering is the same thirty-two bit registers such as @code{sr}). The ordering is the same
as @code{MIPS32}. as @code{MIPS32}.
@ -23944,7 +23944,7 @@ following forms:
@item R @var{mask} @item R @var{mask}
Collect the registers whose bits are set in @var{mask}. @var{mask} is Collect the registers whose bits are set in @var{mask}. @var{mask} is
a hexidecimal number whose @var{i}'th bit is set if register number a hexadecimal number whose @var{i}'th bit is set if register number
@var{i} should be collected. (The least significant bit is numbered @var{i} should be collected. (The least significant bit is numbered
zero.) Note that @var{mask} may be any number of digits long; it may zero.) Note that @var{mask} may be any number of digits long; it may
not fit in a 32-bit word. not fit in a 32-bit word.
@ -23954,7 +23954,7 @@ Collect @var{len} bytes of memory starting at the address in register
number @var{basereg}, plus @var{offset}. If @var{basereg} is number @var{basereg}, plus @var{offset}. If @var{basereg} is
@samp{-1}, then the range has a fixed address: @var{offset} is the @samp{-1}, then the range has a fixed address: @var{offset} is the
address of the lowest byte to collect. The @var{basereg}, address of the lowest byte to collect. The @var{basereg},
@var{offset}, and @var{len} parameters are all unsigned hexidecimal @var{offset}, and @var{len} parameters are all unsigned hexadecimal
values (the @samp{-1} value for @var{basereg} is a special case). values (the @samp{-1} value for @var{basereg} is a special case).
@item X @var{len},@var{expr} @item X @var{len},@var{expr}
@ -23997,29 +23997,29 @@ one of the following forms:
@table @samp @table @samp
@item F @var{f} @item F @var{f}
The selected frame is number @var{n} in the trace frame buffer; The selected frame is number @var{n} in the trace frame buffer;
@var{f} is a hexidecimal number. If @var{f} is @samp{-1}, then there @var{f} is a hexadecimal number. If @var{f} is @samp{-1}, then there
was no frame matching the criteria in the request packet. was no frame matching the criteria in the request packet.
@item T @var{t} @item T @var{t}
The selected trace frame records a hit of tracepoint number @var{t}; The selected trace frame records a hit of tracepoint number @var{t};
@var{t} is a hexidecimal number. @var{t} is a hexadecimal number.
@end table @end table
@item QTFrame:pc:@var{addr} @item QTFrame:pc:@var{addr}
Like @samp{QTFrame:@var{n}}, but select the first tracepoint frame after the Like @samp{QTFrame:@var{n}}, but select the first tracepoint frame after the
currently selected frame whose PC is @var{addr}; currently selected frame whose PC is @var{addr};
@var{addr} is a hexidecimal number. @var{addr} is a hexadecimal number.
@item QTFrame:tdp:@var{t} @item QTFrame:tdp:@var{t}
Like @samp{QTFrame:@var{n}}, but select the first tracepoint frame after the Like @samp{QTFrame:@var{n}}, but select the first tracepoint frame after the
currently selected frame that is a hit of tracepoint @var{t}; @var{t} currently selected frame that is a hit of tracepoint @var{t}; @var{t}
is a hexidecimal number. is a hexadecimal number.
@item QTFrame:range:@var{start}:@var{end} @item QTFrame:range:@var{start}:@var{end}
Like @samp{QTFrame:@var{n}}, but select the first tracepoint frame after the Like @samp{QTFrame:@var{n}}, but select the first tracepoint frame after the
currently selected frame whose PC is between @var{start} (inclusive) currently selected frame whose PC is between @var{start} (inclusive)
and @var{end} (exclusive); @var{start} and @var{end} are hexidecimal and @var{end} (exclusive); @var{start} and @var{end} are hexadecimal
numbers. numbers.
@item QTFrame:outside:@var{start}:@var{end} @item QTFrame:outside:@var{start}:@var{end}