* gdb.texinfo (Embedded Processors, Calling program functions):
Obsolete references to a29k.
This commit is contained in:
Andrew Cagney
parent
cc1cb004a9
commit
7d86b5d55d
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@ -1,3 +1,8 @@
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2002-01-14 Andrew Cagney <ac131313@redhat.com>
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* gdb.texinfo (Embedded Processors, Calling program functions):
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Obsolete references to a29k.
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2002-01-13 Andrew Cagney <ac131313@redhat.com>
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* gdbint.texinfo (Coding): Review Cleanups section. Examples
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@ -9153,11 +9153,11 @@ execute a function from your program, but without cluttering the output
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with @code{void} returned values. If the result is not void, it
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is printed and saved in the value history.
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For the A29K, a user-controlled variable @code{call_scratch_address},
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specifies the location of a scratch area to be used when @value{GDBN}
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calls a function in the target. This is necessary because the usual
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method of putting the scratch area on the stack does not work in systems
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that have separate instruction and data spaces.
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@c OBSOLETE For the A29K, a user-controlled variable @code{call_scratch_address},
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@c OBSOLETE specifies the location of a scratch area to be used when @value{GDBN}
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@c OBSOLETE calls a function in the target. This is necessary because the usual
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@c OBSOLETE method of putting the scratch area on the stack does not work in systems
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@c OBSOLETE that have separate instruction and data spaces.
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@node Patching
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@section Patching programs
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@ -11754,8 +11754,9 @@ the time of attachment.
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This section goes into details specific to particular embedded
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configurations.
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@c OBSOLETE * A29K Embedded:: AMD A29K Embedded
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@menu
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* A29K Embedded:: AMD A29K Embedded
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* ARM:: ARM
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* H8/300:: Hitachi H8/300
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* H8/500:: Hitachi H8/500
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@ -11773,250 +11774,250 @@ configurations.
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* Z8000:: Zilog Z8000
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@end menu
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@node A29K Embedded
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@subsection AMD A29K Embedded
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@menu
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* A29K UDI::
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* A29K EB29K::
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* Comms (EB29K):: Communications setup
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* gdb-EB29K:: EB29K cross-debugging
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* Remote Log:: Remote log
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@end menu
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@table @code
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@kindex target adapt
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@item target adapt @var{dev}
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Adapt monitor for A29K.
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@kindex target amd-eb
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@item target amd-eb @var{dev} @var{speed} @var{PROG}
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@cindex AMD EB29K
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Remote PC-resident AMD EB29K board, attached over serial lines.
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@var{dev} is the serial device, as for @code{target remote};
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@var{speed} allows you to specify the linespeed; and @var{PROG} is the
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name of the program to be debugged, as it appears to DOS on the PC.
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@xref{A29K EB29K, ,EBMON protocol for AMD29K}.
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@end table
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@node A29K UDI
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@subsubsection A29K UDI
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@cindex UDI
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@cindex AMD29K via UDI
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@value{GDBN} supports AMD's UDI (``Universal Debugger Interface'')
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protocol for debugging the a29k processor family. To use this
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configuration with AMD targets running the MiniMON monitor, you need the
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program @code{MONTIP}, available from AMD at no charge. You can also
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use @value{GDBN} with the UDI-conformant a29k simulator program
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@code{ISSTIP}, also available from AMD.
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@table @code
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@item target udi @var{keyword}
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@kindex udi
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Select the UDI interface to a remote a29k board or simulator, where
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@var{keyword} is an entry in the AMD configuration file @file{udi_soc}.
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This file contains keyword entries which specify parameters used to
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connect to a29k targets. If the @file{udi_soc} file is not in your
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working directory, you must set the environment variable @samp{UDICONF}
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to its pathname.
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@end table
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@node A29K EB29K
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@subsubsection EBMON protocol for AMD29K
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@cindex EB29K board
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@cindex running 29K programs
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AMD distributes a 29K development board meant to fit in a PC, together
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with a DOS-hosted monitor program called @code{EBMON}. As a shorthand
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term, this development system is called the ``EB29K''. To use
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@value{GDBN} from a Unix system to run programs on the EB29K board, you
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must first connect a serial cable between the PC (which hosts the EB29K
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board) and a serial port on the Unix system. In the following, we
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assume you've hooked the cable between the PC's @file{COM1} port and
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@file{/dev/ttya} on the Unix system.
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@node Comms (EB29K)
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@subsubsection Communications setup
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The next step is to set up the PC's port, by doing something like this
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in DOS on the PC:
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@example
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C:\> MODE com1:9600,n,8,1,none
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@end example
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@noindent
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This example---run on an MS DOS 4.0 system---sets the PC port to 9600
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bps, no parity, eight data bits, one stop bit, and no ``retry'' action;
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you must match the communications parameters when establishing the Unix
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end of the connection as well.
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@c FIXME: Who knows what this "no retry action" crud from the DOS manual may
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@c mean? It's optional; leave it out? ---doc@cygnus.com, 25feb91
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@c
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@c It's optional, but it's unwise to omit it: who knows what is the
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@c default value set when the DOS machines boots? "No retry" means that
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@c the DOS serial device driver won't retry the operation if it fails;
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@c I understand that this is needed because the GDB serial protocol
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@c handles any errors and retransmissions itself. ---Eli Zaretskii, 3sep99
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To give control of the PC to the Unix side of the serial line, type
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the following at the DOS console:
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@example
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C:\> CTTY com1
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@end example
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@noindent
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(Later, if you wish to return control to the DOS console, you can use
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the command @code{CTTY con}---but you must send it over the device that
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had control, in our example over the @file{COM1} serial line.)
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From the Unix host, use a communications program such as @code{tip} or
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@code{cu} to communicate with the PC; for example,
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@example
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cu -s 9600 -l /dev/ttya
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@end example
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@noindent
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The @code{cu} options shown specify, respectively, the linespeed and the
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serial port to use. If you use @code{tip} instead, your command line
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may look something like the following:
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@example
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tip -9600 /dev/ttya
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@end example
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@noindent
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Your system may require a different name where we show
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@file{/dev/ttya} as the argument to @code{tip}. The communications
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parameters, including which port to use, are associated with the
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@code{tip} argument in the ``remote'' descriptions file---normally the
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system table @file{/etc/remote}.
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@c FIXME: What if anything needs doing to match the "n,8,1,none" part of
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@c the DOS side's comms setup? cu can support -o (odd
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@c parity), -e (even parity)---apparently no settings for no parity or
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@c for character size. Taken from stty maybe...? John points out tip
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@c can set these as internal variables, eg ~s parity=none; man stty
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@c suggests that it *might* work to stty these options with stdin or
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@c stdout redirected... ---doc@cygnus.com, 25feb91
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@c
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@c There's nothing to be done for the "none" part of the DOS MODE
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@c command. The rest of the parameters should be matched by the
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@c baudrate, bits, and parity used by the Unix side. ---Eli Zaretskii, 3Sep99
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@kindex EBMON
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Using the @code{tip} or @code{cu} connection, change the DOS working
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directory to the directory containing a copy of your 29K program, then
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start the PC program @code{EBMON} (an EB29K control program supplied
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with your board by AMD). You should see an initial display from
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@code{EBMON} similar to the one that follows, ending with the
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@code{EBMON} prompt @samp{#}---
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@example
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C:\> G:
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G:\> CD \usr\joe\work29k
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G:\USR\JOE\WORK29K> EBMON
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Am29000 PC Coprocessor Board Monitor, version 3.0-18
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Copyright 1990 Advanced Micro Devices, Inc.
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Written by Gibbons and Associates, Inc.
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Enter '?' or 'H' for help
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PC Coprocessor Type = EB29K
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I/O Base = 0x208
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Memory Base = 0xd0000
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Data Memory Size = 2048KB
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Available I-RAM Range = 0x8000 to 0x1fffff
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Available D-RAM Range = 0x80002000 to 0x801fffff
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PageSize = 0x400
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Register Stack Size = 0x800
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Memory Stack Size = 0x1800
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CPU PRL = 0x3
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Am29027 Available = No
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Byte Write Available = Yes
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# ~.
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@end example
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Then exit the @code{cu} or @code{tip} program (done in the example by
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typing @code{~.} at the @code{EBMON} prompt). @code{EBMON} keeps
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running, ready for @value{GDBN} to take over.
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For this example, we've assumed what is probably the most convenient
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way to make sure the same 29K program is on both the PC and the Unix
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system: a PC/NFS connection that establishes ``drive @file{G:}'' on the
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PC as a file system on the Unix host. If you do not have PC/NFS or
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something similar connecting the two systems, you must arrange some
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other way---perhaps floppy-disk transfer---of getting the 29K program
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from the Unix system to the PC; @value{GDBN} does @emph{not} download it over the
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serial line.
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@node gdb-EB29K
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@subsubsection EB29K cross-debugging
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Finally, @code{cd} to the directory containing an image of your 29K
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program on the Unix system, and start @value{GDBN}---specifying as argument the
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name of your 29K program:
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@example
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cd /usr/joe/work29k
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@value{GDBP} myfoo
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@end example
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@need 500
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Now you can use the @code{target} command:
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@example
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target amd-eb /dev/ttya 9600 MYFOO
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@c FIXME: test above 'target amd-eb' as spelled, with caps! caps are meant to
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@c emphasize that this is the name as seen by DOS (since I think DOS is
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@c single-minded about case of letters). ---doc@cygnus.com, 25feb91
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@end example
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@noindent
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In this example, we've assumed your program is in a file called
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@file{myfoo}. Note that the filename given as the last argument to
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@code{target amd-eb} should be the name of the program as it appears to DOS.
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In our example this is simply @code{MYFOO}, but in general it can include
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a DOS path, and depending on your transfer mechanism may not resemble
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the name on the Unix side.
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At this point, you can set any breakpoints you wish; when you are ready
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to see your program run on the 29K board, use the @value{GDBN} command
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@code{run}.
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To stop debugging the remote program, use the @value{GDBN} @code{detach}
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command.
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To return control of the PC to its console, use @code{tip} or @code{cu}
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once again, after your @value{GDBN} session has concluded, to attach to
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@code{EBMON}. You can then type the command @code{q} to shut down
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@code{EBMON}, returning control to the DOS command-line interpreter.
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Type @kbd{CTTY con} to return command input to the main DOS console,
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and type @kbd{~.} to leave @code{tip} or @code{cu}.
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@node Remote Log
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@subsubsection Remote log
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@cindex @file{eb.log}, a log file for EB29K
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@cindex log file for EB29K
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The @code{target amd-eb} command creates a file @file{eb.log} in the
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current working directory, to help debug problems with the connection.
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@file{eb.log} records all the output from @code{EBMON}, including echoes
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of the commands sent to it. Running @samp{tail -f} on this file in
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another window often helps to understand trouble with @code{EBMON}, or
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unexpected events on the PC side of the connection.
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@c OBSOLETE @node A29K Embedded
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@c OBSOLETE @subsection AMD A29K Embedded
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@c OBSOLETE
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@c OBSOLETE @menu
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@c OBSOLETE * A29K UDI::
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@c OBSOLETE * A29K EB29K::
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@c OBSOLETE * Comms (EB29K):: Communications setup
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@c OBSOLETE * gdb-EB29K:: EB29K cross-debugging
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@c OBSOLETE * Remote Log:: Remote log
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@c OBSOLETE @end menu
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@c OBSOLETE
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@c OBSOLETE @table @code
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@c OBSOLETE
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@c OBSOLETE @kindex target adapt
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@c OBSOLETE @item target adapt @var{dev}
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@c OBSOLETE Adapt monitor for A29K.
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@c OBSOLETE
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@c OBSOLETE @kindex target amd-eb
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@c OBSOLETE @item target amd-eb @var{dev} @var{speed} @var{PROG}
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@c OBSOLETE @cindex AMD EB29K
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@c OBSOLETE Remote PC-resident AMD EB29K board, attached over serial lines.
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@c OBSOLETE @var{dev} is the serial device, as for @code{target remote};
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@c OBSOLETE @var{speed} allows you to specify the linespeed; and @var{PROG} is the
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@c OBSOLETE name of the program to be debugged, as it appears to DOS on the PC.
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@c OBSOLETE @xref{A29K EB29K, ,EBMON protocol for AMD29K}.
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@c OBSOLETE
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@c OBSOLETE @end table
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@c OBSOLETE
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@c OBSOLETE @node A29K UDI
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@c OBSOLETE @subsubsection A29K UDI
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@c OBSOLETE
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@c OBSOLETE @cindex UDI
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@c OBSOLETE @cindex AMD29K via UDI
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@c OBSOLETE
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@c OBSOLETE @value{GDBN} supports AMD's UDI (``Universal Debugger Interface'')
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@c OBSOLETE protocol for debugging the a29k processor family. To use this
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@c OBSOLETE configuration with AMD targets running the MiniMON monitor, you need the
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@c OBSOLETE program @code{MONTIP}, available from AMD at no charge. You can also
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@c OBSOLETE use @value{GDBN} with the UDI-conformant a29k simulator program
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@c OBSOLETE @code{ISSTIP}, also available from AMD.
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@c OBSOLETE
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@c OBSOLETE @table @code
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@c OBSOLETE @item target udi @var{keyword}
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@c OBSOLETE @kindex udi
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@c OBSOLETE Select the UDI interface to a remote a29k board or simulator, where
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@c OBSOLETE @var{keyword} is an entry in the AMD configuration file @file{udi_soc}.
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@c OBSOLETE This file contains keyword entries which specify parameters used to
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@c OBSOLETE connect to a29k targets. If the @file{udi_soc} file is not in your
|
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@c OBSOLETE working directory, you must set the environment variable @samp{UDICONF}
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@c OBSOLETE to its pathname.
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@c OBSOLETE @end table
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@c OBSOLETE
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@c OBSOLETE @node A29K EB29K
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@c OBSOLETE @subsubsection EBMON protocol for AMD29K
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@c OBSOLETE
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@c OBSOLETE @cindex EB29K board
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@c OBSOLETE @cindex running 29K programs
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@c OBSOLETE
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@c OBSOLETE AMD distributes a 29K development board meant to fit in a PC, together
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@c OBSOLETE with a DOS-hosted monitor program called @code{EBMON}. As a shorthand
|
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@c OBSOLETE term, this development system is called the ``EB29K''. To use
|
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@c OBSOLETE @value{GDBN} from a Unix system to run programs on the EB29K board, you
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@c OBSOLETE must first connect a serial cable between the PC (which hosts the EB29K
|
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@c OBSOLETE board) and a serial port on the Unix system. In the following, we
|
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@c OBSOLETE assume you've hooked the cable between the PC's @file{COM1} port and
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@c OBSOLETE @file{/dev/ttya} on the Unix system.
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@c OBSOLETE
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@c OBSOLETE @node Comms (EB29K)
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@c OBSOLETE @subsubsection Communications setup
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@c OBSOLETE
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@c OBSOLETE The next step is to set up the PC's port, by doing something like this
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@c OBSOLETE in DOS on the PC:
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@c OBSOLETE
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@c OBSOLETE @example
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@c OBSOLETE C:\> MODE com1:9600,n,8,1,none
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@c OBSOLETE @end example
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@c OBSOLETE
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@c OBSOLETE @noindent
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@c OBSOLETE This example---run on an MS DOS 4.0 system---sets the PC port to 9600
|
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@c OBSOLETE bps, no parity, eight data bits, one stop bit, and no ``retry'' action;
|
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@c OBSOLETE you must match the communications parameters when establishing the Unix
|
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@c OBSOLETE end of the connection as well.
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@c OBSOLETE @c FIXME: Who knows what this "no retry action" crud from the DOS manual may
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@c OBSOLETE @c mean? It's optional; leave it out? ---doc@cygnus.com, 25feb91
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@c OBSOLETE @c
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@c OBSOLETE @c It's optional, but it's unwise to omit it: who knows what is the
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@c OBSOLETE @c default value set when the DOS machines boots? "No retry" means that
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@c OBSOLETE @c the DOS serial device driver won't retry the operation if it fails;
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@c OBSOLETE @c I understand that this is needed because the GDB serial protocol
|
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@c OBSOLETE @c handles any errors and retransmissions itself. ---Eli Zaretskii, 3sep99
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@c OBSOLETE
|
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@c OBSOLETE To give control of the PC to the Unix side of the serial line, type
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@c OBSOLETE the following at the DOS console:
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@c OBSOLETE
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@c OBSOLETE @example
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@c OBSOLETE C:\> CTTY com1
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@c OBSOLETE @end example
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@c OBSOLETE
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@c OBSOLETE @noindent
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@c OBSOLETE (Later, if you wish to return control to the DOS console, you can use
|
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@c OBSOLETE the command @code{CTTY con}---but you must send it over the device that
|
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@c OBSOLETE had control, in our example over the @file{COM1} serial line.)
|
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@c OBSOLETE
|
||||
@c OBSOLETE From the Unix host, use a communications program such as @code{tip} or
|
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@c OBSOLETE @code{cu} to communicate with the PC; for example,
|
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@c OBSOLETE
|
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@c OBSOLETE @example
|
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@c OBSOLETE cu -s 9600 -l /dev/ttya
|
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@c OBSOLETE @end example
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@c OBSOLETE
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@c OBSOLETE @noindent
|
||||
@c OBSOLETE The @code{cu} options shown specify, respectively, the linespeed and the
|
||||
@c OBSOLETE serial port to use. If you use @code{tip} instead, your command line
|
||||
@c OBSOLETE may look something like the following:
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @example
|
||||
@c OBSOLETE tip -9600 /dev/ttya
|
||||
@c OBSOLETE @end example
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @noindent
|
||||
@c OBSOLETE Your system may require a different name where we show
|
||||
@c OBSOLETE @file{/dev/ttya} as the argument to @code{tip}. The communications
|
||||
@c OBSOLETE parameters, including which port to use, are associated with the
|
||||
@c OBSOLETE @code{tip} argument in the ``remote'' descriptions file---normally the
|
||||
@c OBSOLETE system table @file{/etc/remote}.
|
||||
@c OBSOLETE @c FIXME: What if anything needs doing to match the "n,8,1,none" part of
|
||||
@c OBSOLETE @c the DOS side's comms setup? cu can support -o (odd
|
||||
@c OBSOLETE @c parity), -e (even parity)---apparently no settings for no parity or
|
||||
@c OBSOLETE @c for character size. Taken from stty maybe...? John points out tip
|
||||
@c OBSOLETE @c can set these as internal variables, eg ~s parity=none; man stty
|
||||
@c OBSOLETE @c suggests that it *might* work to stty these options with stdin or
|
||||
@c OBSOLETE @c stdout redirected... ---doc@cygnus.com, 25feb91
|
||||
@c OBSOLETE @c
|
||||
@c OBSOLETE @c There's nothing to be done for the "none" part of the DOS MODE
|
||||
@c OBSOLETE @c command. The rest of the parameters should be matched by the
|
||||
@c OBSOLETE @c baudrate, bits, and parity used by the Unix side. ---Eli Zaretskii, 3Sep99
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @kindex EBMON
|
||||
@c OBSOLETE Using the @code{tip} or @code{cu} connection, change the DOS working
|
||||
@c OBSOLETE directory to the directory containing a copy of your 29K program, then
|
||||
@c OBSOLETE start the PC program @code{EBMON} (an EB29K control program supplied
|
||||
@c OBSOLETE with your board by AMD). You should see an initial display from
|
||||
@c OBSOLETE @code{EBMON} similar to the one that follows, ending with the
|
||||
@c OBSOLETE @code{EBMON} prompt @samp{#}---
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @example
|
||||
@c OBSOLETE C:\> G:
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE G:\> CD \usr\joe\work29k
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE G:\USR\JOE\WORK29K> EBMON
|
||||
@c OBSOLETE Am29000 PC Coprocessor Board Monitor, version 3.0-18
|
||||
@c OBSOLETE Copyright 1990 Advanced Micro Devices, Inc.
|
||||
@c OBSOLETE Written by Gibbons and Associates, Inc.
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE Enter '?' or 'H' for help
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE PC Coprocessor Type = EB29K
|
||||
@c OBSOLETE I/O Base = 0x208
|
||||
@c OBSOLETE Memory Base = 0xd0000
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE Data Memory Size = 2048KB
|
||||
@c OBSOLETE Available I-RAM Range = 0x8000 to 0x1fffff
|
||||
@c OBSOLETE Available D-RAM Range = 0x80002000 to 0x801fffff
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE PageSize = 0x400
|
||||
@c OBSOLETE Register Stack Size = 0x800
|
||||
@c OBSOLETE Memory Stack Size = 0x1800
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE CPU PRL = 0x3
|
||||
@c OBSOLETE Am29027 Available = No
|
||||
@c OBSOLETE Byte Write Available = Yes
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE # ~.
|
||||
@c OBSOLETE @end example
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE Then exit the @code{cu} or @code{tip} program (done in the example by
|
||||
@c OBSOLETE typing @code{~.} at the @code{EBMON} prompt). @code{EBMON} keeps
|
||||
@c OBSOLETE running, ready for @value{GDBN} to take over.
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE For this example, we've assumed what is probably the most convenient
|
||||
@c OBSOLETE way to make sure the same 29K program is on both the PC and the Unix
|
||||
@c OBSOLETE system: a PC/NFS connection that establishes ``drive @file{G:}'' on the
|
||||
@c OBSOLETE PC as a file system on the Unix host. If you do not have PC/NFS or
|
||||
@c OBSOLETE something similar connecting the two systems, you must arrange some
|
||||
@c OBSOLETE other way---perhaps floppy-disk transfer---of getting the 29K program
|
||||
@c OBSOLETE from the Unix system to the PC; @value{GDBN} does @emph{not} download it over the
|
||||
@c OBSOLETE serial line.
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @node gdb-EB29K
|
||||
@c OBSOLETE @subsubsection EB29K cross-debugging
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE Finally, @code{cd} to the directory containing an image of your 29K
|
||||
@c OBSOLETE program on the Unix system, and start @value{GDBN}---specifying as argument the
|
||||
@c OBSOLETE name of your 29K program:
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @example
|
||||
@c OBSOLETE cd /usr/joe/work29k
|
||||
@c OBSOLETE @value{GDBP} myfoo
|
||||
@c OBSOLETE @end example
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @need 500
|
||||
@c OBSOLETE Now you can use the @code{target} command:
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @example
|
||||
@c OBSOLETE target amd-eb /dev/ttya 9600 MYFOO
|
||||
@c OBSOLETE @c FIXME: test above 'target amd-eb' as spelled, with caps! caps are meant to
|
||||
@c OBSOLETE @c emphasize that this is the name as seen by DOS (since I think DOS is
|
||||
@c OBSOLETE @c single-minded about case of letters). ---doc@cygnus.com, 25feb91
|
||||
@c OBSOLETE @end example
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @noindent
|
||||
@c OBSOLETE In this example, we've assumed your program is in a file called
|
||||
@c OBSOLETE @file{myfoo}. Note that the filename given as the last argument to
|
||||
@c OBSOLETE @code{target amd-eb} should be the name of the program as it appears to DOS.
|
||||
@c OBSOLETE In our example this is simply @code{MYFOO}, but in general it can include
|
||||
@c OBSOLETE a DOS path, and depending on your transfer mechanism may not resemble
|
||||
@c OBSOLETE the name on the Unix side.
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE At this point, you can set any breakpoints you wish; when you are ready
|
||||
@c OBSOLETE to see your program run on the 29K board, use the @value{GDBN} command
|
||||
@c OBSOLETE @code{run}.
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE To stop debugging the remote program, use the @value{GDBN} @code{detach}
|
||||
@c OBSOLETE command.
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE To return control of the PC to its console, use @code{tip} or @code{cu}
|
||||
@c OBSOLETE once again, after your @value{GDBN} session has concluded, to attach to
|
||||
@c OBSOLETE @code{EBMON}. You can then type the command @code{q} to shut down
|
||||
@c OBSOLETE @code{EBMON}, returning control to the DOS command-line interpreter.
|
||||
@c OBSOLETE Type @kbd{CTTY con} to return command input to the main DOS console,
|
||||
@c OBSOLETE and type @kbd{~.} to leave @code{tip} or @code{cu}.
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE @node Remote Log
|
||||
@c OBSOLETE @subsubsection Remote log
|
||||
@c OBSOLETE @cindex @file{eb.log}, a log file for EB29K
|
||||
@c OBSOLETE @cindex log file for EB29K
|
||||
@c OBSOLETE
|
||||
@c OBSOLETE The @code{target amd-eb} command creates a file @file{eb.log} in the
|
||||
@c OBSOLETE current working directory, to help debug problems with the connection.
|
||||
@c OBSOLETE @file{eb.log} records all the output from @code{EBMON}, including echoes
|
||||
@c OBSOLETE of the commands sent to it. Running @samp{tail -f} on this file in
|
||||
@c OBSOLETE another window often helps to understand trouble with @code{EBMON}, or
|
||||
@c OBSOLETE unexpected events on the PC side of the connection.
|
||||
|
||||
@node ARM
|
||||
@subsection ARM
|
||||
|
|
|
|||
Loading…
Reference in New Issue