str_vector_t sReplVector;

str_vector_const_iterator_t sIterator;

std::string findStr = "";

int32_t pos = 0;

for ( sIterator = sQueryVector1.begin(); sIterator != sQueryVector1.end(); sIterator++ ) {

    findStr = sIterator->c_str();

    pos = findStr.find("INSERT INTO Tbl1");

    LOGDEBUG("[ASIS][sQueryVector1][%s]", sIterator->c_str());

    if ( pos > 0 ) {

        findStr.replace(pos, 17, "INSERT INTO Tbl2");

        sReplVector.push_back(findStr);

        LOGDEBUG("[TOBE][sQueryVector1][%s]", findStr.c_str());

    }

}

// replacing in a string

#include <iostream>
#include <string>

int main ()
{
  std::string base="this is a test string.";
  std::string str2="n example";
  std::string str3="sample phrase";
  std::string str4="useful.";

  // replace signatures used in the same order as described above:

  // Using positions:                 0123456789*123456789*12345
  std::string str=base;           // "this is a test string."
  str.replace(9,5,str2);          // "this is an example string." (1)
  str.replace(19,6,str3,7,6);     // "this is an example phrase." (2)
  str.replace(8,10,"just a");     // "this is just a phrase."     (3)
  str.replace(8,6,"a shorty",7);  // "this is a short phrase."    (4)
  str.replace(22,1,3,'!');        // "this is a short phrase!!!"  (5)

  // Using iterators:                                               0123456789*123456789*
  str.replace(str.begin(),str.end()-3,str3);                    // "sample phrase!!!"      (1)
  str.replace(str.begin(),str.begin()+6,"replace");             // "replace phrase!!!"     (3)
  str.replace(str.begin()+8,str.begin()+14,"is coolness",7);    // "replace is cool!!!"    (4)
  str.replace(str.begin()+12,str.end()-4,4,'o');                // "replace is cooool!!!"  (5)
  str.replace(str.begin()+11,str.end(),str4.begin(),str4.end());// "replace is useful."    (6)
  std::cout << str << '\n';
  return 0;
}

[*.c]
gcc FILENAME.c -I/path/to/include -L/path/to/lib -lLINK_NAME -o output

[*.cpp]
g++ FILENAME.cpp -I/path/to/include -L/path/to/lib -lLINK_NAME -o output

9.7 Summary of Options

Here is a table of all the options make understands:

‘-b’

‘-m’

These options are ignored for compatibility with other versions of make. 

‘-B’

‘--always-make’

Consider all targets out-of-date. GNU make proceeds to consider targets and their prerequisites using the normal algorithms; however, all targets so considered are always remade regardless of the status of their prerequisites. To avoid infinite recursion, if MAKE_RESTARTS (see Other Special Variables) is set to a number greater than 0 this option is disabled when considering whether to remake makefiles (see How Makefiles Are Remade). 

‘-C dir’

‘--directory=dir’

Change to directory dir before reading the makefiles. If multiple ‘-C’ options are specified, each is interpreted relative to the previous one: ‘-C / -C etc’ is equivalent to ‘-C /etc’. This is typically used with recursive invocations of make (see Recursive Use ofmake). 

‘-d’

Print debugging information in addition to normal processing. The debugging information says which files are being considered for remaking, which file-times are being compared and with what results, which files actually need to be remade, which implicit rules are considered and which are applied—everything interesting about how make decides what to do. The -d option is equivalent to ‘--debug=a’ (see below). 

‘--debug[=options]’

Print debugging information in addition to normal processing. Various levels and types of output can be chosen. With no arguments, print the “basic” level of debugging. Possible arguments are below; only the first character is considered, and values must be comma- or space-separated.

a (all)

All types of debugging output are enabled. This is equivalent to using ‘-d’. 

b (basic)

Basic debugging prints each target that was found to be out-of-date, and whether the build was successful or not. 

v (verbose)

A level above ‘basic’; includes messages about which makefiles were parsed, prerequisites that did not need to be rebuilt, etc. This option also enables ‘basic’ messages. 

i (implicit)

Prints messages describing the implicit rule searches for each target. This option also enables ‘basic’ messages. 

j (jobs)

Prints messages giving details on the invocation of specific subcommands. 

m (makefile)

By default, the above messages are not enabled while trying to remake the makefiles. This option enables messages while rebuilding makefiles, too. Note that the ‘all’ option does enable this option. This option also enables ‘basic’ messages.

‘-e’

‘--environment-overrides’

Give variables taken from the environment precedence over variables from makefiles. See Variables from the Environment. 

‘--eval=string’

Evaluate string as makefile syntax. This is a command-line version of the eval function (see Eval Function). The evaluation is performed after the default rules and variables have been defined, but before any makefiles are read. 

‘-f file’

‘--file=file’

‘--makefile=file’

Read the file named file as a makefile. See Writing Makefiles. 

‘-h’

‘--help’

Remind you of the options that make understands and then exit. 

‘-i’

‘--ignore-errors’

Ignore all errors in recipes executed to remake files. See Errors in Recipes. 

‘-I dir’

‘--include-dir=dir’

Specifies a directory dir to search for included makefiles. See Including Other Makefiles. If several ‘-I’ options are used to specify several directories, the directories are searched in the order specified. 

‘-j [jobs]’

‘--jobs[=jobs]’

Specifies the number of recipes (jobs) to run simultaneously. With no argument, make runs as many recipes simultaneously as possible. If there is more than one ‘-j’ option, the last one is effective. See Parallel Execution, for more information on how recipes are run. Note that this option is ignored on MS-DOS. 

‘-k’

‘--keep-going’

Continue as much as possible after an error. While the target that failed, and those that depend on it, cannot be remade, the other prerequisites of these targets can be processed all the same. See Testing the Compilation of a Program. 

‘-l [load]’

‘--load-average[=load]’

‘--max-load[=load]’

Specifies that no new recipes should be started if there are other recipes running and the load average is at least load (a floating-point number). With no argument, removes a previous load limit. See Parallel Execution. 

‘-L’

‘--check-symlink-times’

On systems that support symbolic links, this option causes make to consider the timestamps on any symbolic links in addition to the timestamp on the file referenced by those links. When this option is provided, the most recent timestamp among the file and the symbolic links is taken as the modification time for this target file. 

‘-n’

‘--just-print’

‘--dry-run’

‘--recon’

Print the recipe that would be executed, but do not execute it (except in certain circumstances). See Instead of Executing Recipes. 

‘-o file’

‘--old-file=file’

‘--assume-old=file’

Do not remake the file file even if it is older than its prerequisites, and do not remake anything on account of changes in file. Essentially the file is treated as very old and its rules are ignored. See Avoiding Recompilation of Some Files. 

‘-p’

‘--print-data-base’

Print the data base (rules and variable values) that results from reading the makefiles; then execute as usual or as otherwise specified. This also prints the version information given by the ‘-v’ switch (see below). To print the data base without trying to remake any files, use ‘make -qp’. To print the data base of predefined rules and variables, use ‘make -p -f /dev/null’. The data base output contains filename and linenumber information for recipe and variable definitions, so it can be a useful debugging tool in complex environments. 

‘-q’

‘--question’

“Question mode”. Do not run any recipes, or print anything; just return an exit status that is zero if the specified targets are already up to date, one if any remaking is required, or two if an error is encountered. See Instead of Executing Recipes. 

‘-r’

‘--no-builtin-rules’

Eliminate use of the built-in implicit rules (see Using Implicit Rules). You can still define your own by writing pattern rules (see Defining and Redefining Pattern Rules). The ‘-r’ option also clears out the default list of suffixes for suffix rules (see Old-Fashioned Suffix Rules). But you can still define your own suffixes with a rule for .SUFFIXES, and then define your own suffix rules. Note that only rules are affected by the -r option; default variables remain in effect (see Variables Used by Implicit Rules); see the ‘-R’ option below. 

‘-R’

‘--no-builtin-variables’

Eliminate use of the built-in rule-specific variables (see Variables Used by Implicit Rules). You can still define your own, of course. The ‘-R’ option also automatically enables the ‘-r’ option (see above), since it doesn't make sense to have implicit rules without any definitions for the variables that they use. 

‘-s’

‘--silent’

‘--quiet’

Silent operation; do not print the recipes as they are executed. See Recipe Echoing. 

‘-S’

‘--no-keep-going’

‘--stop’

Cancel the effect of the ‘-k’ option. This is never necessary except in a recursive make where ‘-k’ might be inherited from the top-level make via MAKEFLAGS (see Recursive Use of make) or if you set ‘-k’ in MAKEFLAGS in your environment. 

‘-t’

‘--touch’

Touch files (mark them up to date without really changing them) instead of running their recipes. This is used to pretend that the recipes were done, in order to fool future invocations of make. See Instead of Executing Recipes. 

‘-v’

‘--version’

Print the version of the make program plus a copyright, a list of authors, and a notice that there is no warranty; then exit. 

‘-w’

‘--print-directory’

Print a message containing the working directory both before and after executing the makefile. This may be useful for tracking down errors from complicated nests of recursive make commands. See Recursive Use of make. (In practice, you rarely need to specify this option since ‘make’ does it for you; see The ‘--print-directory’ Option.)

‘--no-print-directory’

Disable printing of the working directory under -w. This option is useful when -w is turned on automatically, but you do not want to see the extra messages. See The ‘--print-directory’ Option. 

‘-W file’

‘--what-if=file’

‘--new-file=file’

‘--assume-new=file’

Pretend that the target file has just been modified. When used with the ‘-n’ flag, this shows you what would happen if you were to modify that file. Without ‘-n’, it is almost the same as running a touch command on the given file before running make, except that the modification time is changed only in the imagination of make. See Instead of Executing Recipes. 

‘--warn-undefined-variables’

Issue a warning message whenever make sees a reference to an undefined variable. This can be helpful when you are trying to debug makefiles which use variables in complex ways.

Eclipse, Java 기반: http://www.slideshare.net/caniszczyk/effective-development-with-eclipse-mylyn-git-gerrit-and-hudson

Gerrit 사이트: http://code.google.com/p/gerrit/ 

Git의 경우는 다음의 링크를 참고 하여 주시기 바랍니다. 

• http://www.eecs.harvard.edu/~cduan/technical/git/
• http://git-scm.com/documentation
• http://git.or.cz/gitwiki/GitFaq
• http://www.gitready.com/intermediate/2009/01/31/intro-to-rebase.htm
• http://git.or.cz/gitwiki/GitCheatSheet

1.   Gerrit과 Jenkins를 연동한 Demo : http://alblue.bandlem.com/2011/02/gerrit-git-review-with-jenkins-ci.html

2. 버전 관리 시스템 유랑기, 그리고 Git 적응기 : http://blog.benelog.net/2937766