diff options
Diffstat (limited to 'tcl8.6/library/opt')
-rw-r--r-- | tcl8.6/library/opt/optparse.tcl | 1072 | ||||
-rw-r--r-- | tcl8.6/library/opt/pkgIndex.tcl | 12 |
2 files changed, 0 insertions, 1084 deletions
diff --git a/tcl8.6/library/opt/optparse.tcl b/tcl8.6/library/opt/optparse.tcl deleted file mode 100644 index 869a2b6..0000000 --- a/tcl8.6/library/opt/optparse.tcl +++ /dev/null @@ -1,1072 +0,0 @@ -# optparse.tcl -- -# -# (private) Option parsing package -# Primarily used internally by the safe:: code. -# -# WARNING: This code will go away in a future release -# of Tcl. It is NOT supported and you should not rely -# on it. If your code does rely on this package you -# may directly incorporate this code into your application. - -package require Tcl 8.2 -# When this version number changes, update the pkgIndex.tcl file -# and the install directory in the Makefiles. -package provide opt 0.4.6 - -namespace eval ::tcl { - - # Exported APIs - namespace export OptKeyRegister OptKeyDelete OptKeyError OptKeyParse \ - OptProc OptProcArgGiven OptParse \ - Lempty Lget \ - Lassign Lvarpop Lvarpop1 Lvarset Lvarincr \ - SetMax SetMin - - -################# Example of use / 'user documentation' ################### - - proc OptCreateTestProc {} { - - # Defines ::tcl::OptParseTest as a test proc with parsed arguments - # (can't be defined before the code below is loaded (before "OptProc")) - - # Every OptProc give usage information on "procname -help". - # Try "tcl::OptParseTest -help" and "tcl::OptParseTest -a" and - # then other arguments. - # - # example of 'valid' call: - # ::tcl::OptParseTest save -4 -pr 23 -libsok SybTcl\ - # -nostatics false ch1 - OptProc OptParseTest { - {subcommand -choice {save print} "sub command"} - {arg1 3 "some number"} - {-aflag} - {-intflag 7} - {-weirdflag "help string"} - {-noStatics "Not ok to load static packages"} - {-nestedloading1 true "OK to load into nested slaves"} - {-nestedloading2 -boolean true "OK to load into nested slaves"} - {-libsOK -choice {Tk SybTcl} - "List of packages that can be loaded"} - {-precision -int 12 "Number of digits of precision"} - {-intval 7 "An integer"} - {-scale -float 1.0 "Scale factor"} - {-zoom 1.0 "Zoom factor"} - {-arbitrary foobar "Arbitrary string"} - {-random -string 12 "Random string"} - {-listval -list {} "List value"} - {-blahflag -blah abc "Funny type"} - {arg2 -boolean "a boolean"} - {arg3 -choice "ch1 ch2"} - {?optarg? -list {} "optional argument"} - } { - foreach v [info locals] { - puts stderr [format "%14s : %s" $v [set $v]] - } - } - } - -################### No User serviceable part below ! ############### - - # Array storing the parsed descriptions - variable OptDesc - array set OptDesc {} - # Next potentially free key id (numeric) - variable OptDescN 0 - -# Inside algorithm/mechanism description: -# (not for the faint hearted ;-) -# -# The argument description is parsed into a "program tree" -# It is called a "program" because it is the program used by -# the state machine interpreter that use that program to -# actually parse the arguments at run time. -# -# The general structure of a "program" is -# notation (pseudo bnf like) -# name :== definition defines "name" as being "definition" -# { x y z } means list of x, y, and z -# x* means x repeated 0 or more time -# x+ means "x x*" -# x? means optionally x -# x | y means x or y -# "cccc" means the literal string -# -# program :== { programCounter programStep* } -# -# programStep :== program | singleStep -# -# programCounter :== {"P" integer+ } -# -# singleStep :== { instruction parameters* } -# -# instruction :== single element list -# -# (the difference between singleStep and program is that \ -# llength [lindex $program 0] >= 2 -# while -# llength [lindex $singleStep 0] == 1 -# ) -# -# And for this application: -# -# singleStep :== { instruction varname {hasBeenSet currentValue} type -# typeArgs help } -# instruction :== "flags" | "value" -# type :== knowType | anyword -# knowType :== "string" | "int" | "boolean" | "boolflag" | "float" -# | "choice" -# -# for type "choice" typeArgs is a list of possible choices, the first one -# is the default value. for all other types the typeArgs is the default value -# -# a "boolflag" is the type for a flag whose presence or absence, without -# additional arguments means respectively true or false (default flag type). -# -# programCounter is the index in the list of the currently processed -# programStep (thus starting at 1 (0 is {"P" prgCounterValue}). -# If it is a list it points toward each currently selected programStep. -# (like for "flags", as they are optional, form a set and programStep). - -# Performance/Implementation issues -# --------------------------------- -# We use tcl lists instead of arrays because with tcl8.0 -# they should start to be much faster. -# But this code use a lot of helper procs (like Lvarset) -# which are quite slow and would be helpfully optimized -# for instance by being written in C. Also our struture -# is complex and there is maybe some places where the -# string rep might be calculated at great exense. to be checked. - -# -# Parse a given description and saves it here under the given key -# generate a unused keyid if not given -# -proc ::tcl::OptKeyRegister {desc {key ""}} { - variable OptDesc - variable OptDescN - if {[string equal $key ""]} { - # in case a key given to us as a parameter was a number - while {[info exists OptDesc($OptDescN)]} {incr OptDescN} - set key $OptDescN - incr OptDescN - } - # program counter - set program [list [list "P" 1]] - - # are we processing flags (which makes a single program step) - set inflags 0 - - set state {} - - # flag used to detect that we just have a single (flags set) subprogram. - set empty 1 - - foreach item $desc { - if {$state == "args"} { - # more items after 'args'... - return -code error "'args' special argument must be the last one" - } - set res [OptNormalizeOne $item] - set state [lindex $res 0] - if {$inflags} { - if {$state == "flags"} { - # add to 'subprogram' - lappend flagsprg $res - } else { - # put in the flags - # structure for flag programs items is a list of - # {subprgcounter {prg flag 1} {prg flag 2} {...}} - lappend program $flagsprg - # put the other regular stuff - lappend program $res - set inflags 0 - set empty 0 - } - } else { - if {$state == "flags"} { - set inflags 1 - # sub program counter + first sub program - set flagsprg [list [list "P" 1] $res] - } else { - lappend program $res - set empty 0 - } - } - } - if {$inflags} { - if {$empty} { - # We just have the subprogram, optimize and remove - # unneeded level: - set program $flagsprg - } else { - lappend program $flagsprg - } - } - - set OptDesc($key) $program - - return $key -} - -# -# Free the storage for that given key -# -proc ::tcl::OptKeyDelete {key} { - variable OptDesc - unset OptDesc($key) -} - - # Get the parsed description stored under the given key. - proc OptKeyGetDesc {descKey} { - variable OptDesc - if {![info exists OptDesc($descKey)]} { - return -code error "Unknown option description key \"$descKey\"" - } - set OptDesc($descKey) - } - -# Parse entry point for ppl who don't want to register with a key, -# for instance because the description changes dynamically. -# (otherwise one should really use OptKeyRegister once + OptKeyParse -# as it is way faster or simply OptProc which does it all) -# Assign a temporary key, call OptKeyParse and then free the storage -proc ::tcl::OptParse {desc arglist} { - set tempkey [OptKeyRegister $desc] - set ret [catch {uplevel 1 [list ::tcl::OptKeyParse $tempkey $arglist]} res] - OptKeyDelete $tempkey - return -code $ret $res -} - -# Helper function, replacement for proc that both -# register the description under a key which is the name of the proc -# (and thus unique to that code) -# and add a first line to the code to call the OptKeyParse proc -# Stores the list of variables that have been actually given by the user -# (the other will be sets to their default value) -# into local variable named "Args". -proc ::tcl::OptProc {name desc body} { - set namespace [uplevel 1 [list ::namespace current]] - if {[string match "::*" $name] || [string equal $namespace "::"]} { - # absolute name or global namespace, name is the key - set key $name - } else { - # we are relative to some non top level namespace: - set key "${namespace}::${name}" - } - OptKeyRegister $desc $key - uplevel 1 [list ::proc $name args "set Args \[::tcl::OptKeyParse $key \$args\]\n$body"] - return $key -} -# Check that a argument has been given -# assumes that "OptProc" has been used as it will check in "Args" list -proc ::tcl::OptProcArgGiven {argname} { - upvar Args alist - expr {[lsearch $alist $argname] >=0} -} - - ####### - # Programs/Descriptions manipulation - - # Return the instruction word/list of a given step/(sub)program - proc OptInstr {lst} { - lindex $lst 0 - } - # Is a (sub) program or a plain instruction ? - proc OptIsPrg {lst} { - expr {[llength [OptInstr $lst]]>=2} - } - # Is this instruction a program counter or a real instr - proc OptIsCounter {item} { - expr {[lindex $item 0]=="P"} - } - # Current program counter (2nd word of first word) - proc OptGetPrgCounter {lst} { - Lget $lst {0 1} - } - # Current program counter (2nd word of first word) - proc OptSetPrgCounter {lstName newValue} { - upvar $lstName lst - set lst [lreplace $lst 0 0 [concat "P" $newValue]] - } - # returns a list of currently selected items. - proc OptSelection {lst} { - set res {} - foreach idx [lrange [lindex $lst 0] 1 end] { - lappend res [Lget $lst $idx] - } - return $res - } - - # Advance to next description - proc OptNextDesc {descName} { - uplevel 1 [list Lvarincr $descName {0 1}] - } - - # Get the current description, eventually descend - proc OptCurDesc {descriptions} { - lindex $descriptions [OptGetPrgCounter $descriptions] - } - # get the current description, eventually descend - # through sub programs as needed. - proc OptCurDescFinal {descriptions} { - set item [OptCurDesc $descriptions] - # Descend untill we get the actual item and not a sub program - while {[OptIsPrg $item]} { - set item [OptCurDesc $item] - } - return $item - } - # Current final instruction adress - proc OptCurAddr {descriptions {start {}}} { - set adress [OptGetPrgCounter $descriptions] - lappend start $adress - set item [lindex $descriptions $adress] - if {[OptIsPrg $item]} { - return [OptCurAddr $item $start] - } else { - return $start - } - } - # Set the value field of the current instruction - proc OptCurSetValue {descriptionsName value} { - upvar $descriptionsName descriptions - # get the current item full adress - set adress [OptCurAddr $descriptions] - # use the 3th field of the item (see OptValue / OptNewInst) - lappend adress 2 - Lvarset descriptions $adress [list 1 $value] - # ^hasBeenSet flag - } - - # empty state means done/paste the end of the program - proc OptState {item} { - lindex $item 0 - } - - # current state - proc OptCurState {descriptions} { - OptState [OptCurDesc $descriptions] - } - - ####### - # Arguments manipulation - - # Returns the argument that has to be processed now - proc OptCurrentArg {lst} { - lindex $lst 0 - } - # Advance to next argument - proc OptNextArg {argsName} { - uplevel 1 [list Lvarpop1 $argsName] - } - ####### - - - - - - # Loop over all descriptions, calling OptDoOne which will - # eventually eat all the arguments. - proc OptDoAll {descriptionsName argumentsName} { - upvar $descriptionsName descriptions - upvar $argumentsName arguments -# puts "entered DoAll" - # Nb: the places where "state" can be set are tricky to figure - # because DoOne sets the state to flagsValue and return -continue - # when needed... - set state [OptCurState $descriptions] - # We'll exit the loop in "OptDoOne" or when state is empty. - while 1 { - set curitem [OptCurDesc $descriptions] - # Do subprograms if needed, call ourselves on the sub branch - while {[OptIsPrg $curitem]} { - OptDoAll curitem arguments -# puts "done DoAll sub" - # Insert back the results in current tree - Lvarset1nc descriptions [OptGetPrgCounter $descriptions]\ - $curitem - OptNextDesc descriptions - set curitem [OptCurDesc $descriptions] - set state [OptCurState $descriptions] - } -# puts "state = \"$state\" - arguments=($arguments)" - if {[Lempty $state]} { - # Nothing left to do, we are done in this branch: - break - } - # The following statement can make us terminate/continue - # as it use return -code {break, continue, return and error} - # codes - OptDoOne descriptions state arguments - # If we are here, no special return code where issued, - # we'll step to next instruction : -# puts "new state = \"$state\"" - OptNextDesc descriptions - set state [OptCurState $descriptions] - } - } - - # Process one step for the state machine, - # eventually consuming the current argument. - proc OptDoOne {descriptionsName stateName argumentsName} { - upvar $argumentsName arguments - upvar $descriptionsName descriptions - upvar $stateName state - - # the special state/instruction "args" eats all - # the remaining args (if any) - if {($state == "args")} { - if {![Lempty $arguments]} { - # If there is no additional arguments, leave the default value - # in. - OptCurSetValue descriptions $arguments - set arguments {} - } -# puts "breaking out ('args' state: consuming every reminding args)" - return -code break - } - - if {[Lempty $arguments]} { - if {$state == "flags"} { - # no argument and no flags : we're done -# puts "returning to previous (sub)prg (no more args)" - return -code return - } elseif {$state == "optValue"} { - set state next; # not used, for debug only - # go to next state - return - } else { - return -code error [OptMissingValue $descriptions] - } - } else { - set arg [OptCurrentArg $arguments] - } - - switch $state { - flags { - # A non-dash argument terminates the options, as does -- - - # Still a flag ? - if {![OptIsFlag $arg]} { - # don't consume the argument, return to previous prg - return -code return - } - # consume the flag - OptNextArg arguments - if {[string equal "--" $arg]} { - # return from 'flags' state - return -code return - } - - set hits [OptHits descriptions $arg] - if {$hits > 1} { - return -code error [OptAmbigous $descriptions $arg] - } elseif {$hits == 0} { - return -code error [OptFlagUsage $descriptions $arg] - } - set item [OptCurDesc $descriptions] - if {[OptNeedValue $item]} { - # we need a value, next state is - set state flagValue - } else { - OptCurSetValue descriptions 1 - } - # continue - return -code continue - } - flagValue - - value { - set item [OptCurDesc $descriptions] - # Test the values against their required type - if {[catch {OptCheckType $arg\ - [OptType $item] [OptTypeArgs $item]} val]} { - return -code error [OptBadValue $item $arg $val] - } - # consume the value - OptNextArg arguments - # set the value - OptCurSetValue descriptions $val - # go to next state - if {$state == "flagValue"} { - set state flags - return -code continue - } else { - set state next; # not used, for debug only - return ; # will go on next step - } - } - optValue { - set item [OptCurDesc $descriptions] - # Test the values against their required type - if {![catch {OptCheckType $arg\ - [OptType $item] [OptTypeArgs $item]} val]} { - # right type, so : - # consume the value - OptNextArg arguments - # set the value - OptCurSetValue descriptions $val - } - # go to next state - set state next; # not used, for debug only - return ; # will go on next step - } - } - # If we reach this point: an unknown - # state as been entered ! - return -code error "Bug! unknown state in DoOne \"$state\"\ - (prg counter [OptGetPrgCounter $descriptions]:\ - [OptCurDesc $descriptions])" - } - -# Parse the options given the key to previously registered description -# and arguments list -proc ::tcl::OptKeyParse {descKey arglist} { - - set desc [OptKeyGetDesc $descKey] - - # make sure -help always give usage - if {[string equal -nocase "-help" $arglist]} { - return -code error [OptError "Usage information:" $desc 1] - } - - OptDoAll desc arglist - - if {![Lempty $arglist]} { - return -code error [OptTooManyArgs $desc $arglist] - } - - # Analyse the result - # Walk through the tree: - OptTreeVars $desc "#[expr {[info level]-1}]" -} - - # determine string length for nice tabulated output - proc OptTreeVars {desc level {vnamesLst {}}} { - foreach item $desc { - if {[OptIsCounter $item]} continue - if {[OptIsPrg $item]} { - set vnamesLst [OptTreeVars $item $level $vnamesLst] - } else { - set vname [OptVarName $item] - upvar $level $vname var - if {[OptHasBeenSet $item]} { -# puts "adding $vname" - # lets use the input name for the returned list - # it is more usefull, for instance you can check that - # no flags at all was given with expr - # {![string match "*-*" $Args]} - lappend vnamesLst [OptName $item] - set var [OptValue $item] - } else { - set var [OptDefaultValue $item] - } - } - } - return $vnamesLst - } - - -# Check the type of a value -# and emit an error if arg is not of the correct type -# otherwise returns the canonical value of that arg (ie 0/1 for booleans) -proc ::tcl::OptCheckType {arg type {typeArgs ""}} { -# puts "checking '$arg' against '$type' ($typeArgs)" - - # only types "any", "choice", and numbers can have leading "-" - - switch -exact -- $type { - int { - if {![string is integer -strict $arg]} { - error "not an integer" - } - return $arg - } - float { - return [expr {double($arg)}] - } - script - - list { - # if llength fail : malformed list - if {[llength $arg]==0 && [OptIsFlag $arg]} { - error "no values with leading -" - } - return $arg - } - boolean { - if {![string is boolean -strict $arg]} { - error "non canonic boolean" - } - # convert true/false because expr/if is broken with "!,... - return [expr {$arg ? 1 : 0}] - } - choice { - if {[lsearch -exact $typeArgs $arg] < 0} { - error "invalid choice" - } - return $arg - } - any { - return $arg - } - string - - default { - if {[OptIsFlag $arg]} { - error "no values with leading -" - } - return $arg - } - } - return neverReached -} - - # internal utilities - - # returns the number of flags matching the given arg - # sets the (local) prg counter to the list of matches - proc OptHits {descName arg} { - upvar $descName desc - set hits 0 - set hitems {} - set i 1 - - set larg [string tolower $arg] - set len [string length $larg] - set last [expr {$len-1}] - - foreach item [lrange $desc 1 end] { - set flag [OptName $item] - # lets try to match case insensitively - # (string length ought to be cheap) - set lflag [string tolower $flag] - if {$len == [string length $lflag]} { - if {[string equal $larg $lflag]} { - # Exact match case - OptSetPrgCounter desc $i - return 1 - } - } elseif {[string equal $larg [string range $lflag 0 $last]]} { - lappend hitems $i - incr hits - } - incr i - } - if {$hits} { - OptSetPrgCounter desc $hitems - } - return $hits - } - - # Extract fields from the list structure: - - proc OptName {item} { - lindex $item 1 - } - proc OptHasBeenSet {item} { - Lget $item {2 0} - } - proc OptValue {item} { - Lget $item {2 1} - } - - proc OptIsFlag {name} { - string match "-*" $name - } - proc OptIsOpt {name} { - string match {\?*} $name - } - proc OptVarName {item} { - set name [OptName $item] - if {[OptIsFlag $name]} { - return [string range $name 1 end] - } elseif {[OptIsOpt $name]} { - return [string trim $name "?"] - } else { - return $name - } - } - proc OptType {item} { - lindex $item 3 - } - proc OptTypeArgs {item} { - lindex $item 4 - } - proc OptHelp {item} { - lindex $item 5 - } - proc OptNeedValue {item} { - expr {![string equal [OptType $item] boolflag]} - } - proc OptDefaultValue {item} { - set val [OptTypeArgs $item] - switch -exact -- [OptType $item] { - choice {return [lindex $val 0]} - boolean - - boolflag { - # convert back false/true to 0/1 because expr !$bool - # is broken.. - if {$val} { - return 1 - } else { - return 0 - } - } - } - return $val - } - - # Description format error helper - proc OptOptUsage {item {what ""}} { - return -code error "invalid description format$what: $item\n\ - should be a list of {varname|-flagname ?-type? ?defaultvalue?\ - ?helpstring?}" - } - - - # Generate a canonical form single instruction - proc OptNewInst {state varname type typeArgs help} { - list $state $varname [list 0 {}] $type $typeArgs $help - # ^ ^ - # | | - # hasBeenSet=+ +=currentValue - } - - # Translate one item to canonical form - proc OptNormalizeOne {item} { - set lg [Lassign $item varname arg1 arg2 arg3] -# puts "called optnormalizeone '$item' v=($varname), lg=$lg" - set isflag [OptIsFlag $varname] - set isopt [OptIsOpt $varname] - if {$isflag} { - set state "flags" - } elseif {$isopt} { - set state "optValue" - } elseif {![string equal $varname "args"]} { - set state "value" - } else { - set state "args" - } - - # apply 'smart' 'fuzzy' logic to try to make - # description writer's life easy, and our's difficult : - # let's guess the missing arguments :-) - - switch $lg { - 1 { - if {$isflag} { - return [OptNewInst $state $varname boolflag false ""] - } else { - return [OptNewInst $state $varname any "" ""] - } - } - 2 { - # varname default - # varname help - set type [OptGuessType $arg1] - if {[string equal $type "string"]} { - if {$isflag} { - set type boolflag - set def false - } else { - set type any - set def "" - } - set help $arg1 - } else { - set help "" - set def $arg1 - } - return [OptNewInst $state $varname $type $def $help] - } - 3 { - # varname type value - # varname value comment - - if {[regexp {^-(.+)$} $arg1 x type]} { - # flags/optValue as they are optional, need a "value", - # on the contrary, for a variable (non optional), - # default value is pointless, 'cept for choices : - if {$isflag || $isopt || ($type == "choice")} { - return [OptNewInst $state $varname $type $arg2 ""] - } else { - return [OptNewInst $state $varname $type "" $arg2] - } - } else { - return [OptNewInst $state $varname\ - [OptGuessType $arg1] $arg1 $arg2] - } - } - 4 { - if {[regexp {^-(.+)$} $arg1 x type]} { - return [OptNewInst $state $varname $type $arg2 $arg3] - } else { - return -code error [OptOptUsage $item] - } - } - default { - return -code error [OptOptUsage $item] - } - } - } - - # Auto magic lazy type determination - proc OptGuessType {arg} { - if { $arg == "true" || $arg == "false" } { - return boolean - } - if {[string is integer -strict $arg]} { - return int - } - if {[string is double -strict $arg]} { - return float - } - return string - } - - # Error messages front ends - - proc OptAmbigous {desc arg} { - OptError "ambigous option \"$arg\", choose from:" [OptSelection $desc] - } - proc OptFlagUsage {desc arg} { - OptError "bad flag \"$arg\", must be one of" $desc - } - proc OptTooManyArgs {desc arguments} { - OptError "too many arguments (unexpected argument(s): $arguments),\ - usage:"\ - $desc 1 - } - proc OptParamType {item} { - if {[OptIsFlag $item]} { - return "flag" - } else { - return "parameter" - } - } - proc OptBadValue {item arg {err {}}} { -# puts "bad val err = \"$err\"" - OptError "bad value \"$arg\" for [OptParamType $item]"\ - [list $item] - } - proc OptMissingValue {descriptions} { -# set item [OptCurDescFinal $descriptions] - set item [OptCurDesc $descriptions] - OptError "no value given for [OptParamType $item] \"[OptName $item]\"\ - (use -help for full usage) :"\ - [list $item] - } - -proc ::tcl::OptKeyError {prefix descKey {header 0}} { - OptError $prefix [OptKeyGetDesc $descKey] $header -} - - # determine string length for nice tabulated output - proc OptLengths {desc nlName tlName dlName} { - upvar $nlName nl - upvar $tlName tl - upvar $dlName dl - foreach item $desc { - if {[OptIsCounter $item]} continue - if {[OptIsPrg $item]} { - OptLengths $item nl tl dl - } else { - SetMax nl [string length [OptName $item]] - SetMax tl [string length [OptType $item]] - set dv [OptTypeArgs $item] - if {[OptState $item] != "header"} { - set dv "($dv)" - } - set l [string length $dv] - # limit the space allocated to potentially big "choices" - if {([OptType $item] != "choice") || ($l<=12)} { - SetMax dl $l - } else { - if {![info exists dl]} { - set dl 0 - } - } - } - } - } - # output the tree - proc OptTree {desc nl tl dl} { - set res "" - foreach item $desc { - if {[OptIsCounter $item]} continue - if {[OptIsPrg $item]} { - append res [OptTree $item $nl $tl $dl] - } else { - set dv [OptTypeArgs $item] - if {[OptState $item] != "header"} { - set dv "($dv)" - } - append res [string trimright [format "\n %-*s %-*s %-*s %s" \ - $nl [OptName $item] $tl [OptType $item] \ - $dl $dv [OptHelp $item]]] - } - } - return $res - } - -# Give nice usage string -proc ::tcl::OptError {prefix desc {header 0}} { - # determine length - if {$header} { - # add faked instruction - set h [list [OptNewInst header Var/FlagName Type Value Help]] - lappend h [OptNewInst header ------------ ---- ----- ----] - lappend h [OptNewInst header {(-help} "" "" {gives this help)}] - set desc [concat $h $desc] - } - OptLengths $desc nl tl dl - # actually output - return "$prefix[OptTree $desc $nl $tl $dl]" -} - - -################ General Utility functions ####################### - -# -# List utility functions -# Naming convention: -# "Lvarxxx" take the list VARiable name as argument -# "Lxxxx" take the list value as argument -# (which is not costly with Tcl8 objects system -# as it's still a reference and not a copy of the values) -# - -# Is that list empty ? -proc ::tcl::Lempty {list} { - expr {[llength $list]==0} -} - -# Gets the value of one leaf of a lists tree -proc ::tcl::Lget {list indexLst} { - if {[llength $indexLst] <= 1} { - return [lindex $list $indexLst] - } - Lget [lindex $list [lindex $indexLst 0]] [lrange $indexLst 1 end] -} -# Sets the value of one leaf of a lists tree -# (we use the version that does not create the elements because -# it would be even slower... needs to be written in C !) -# (nb: there is a non trivial recursive problem with indexes 0, -# which appear because there is no difference between a list -# of 1 element and 1 element alone : [list "a"] == "a" while -# it should be {a} and [listp a] should be 0 while [listp {a b}] would be 1 -# and [listp "a b"] maybe 0. listp does not exist either...) -proc ::tcl::Lvarset {listName indexLst newValue} { - upvar $listName list - if {[llength $indexLst] <= 1} { - Lvarset1nc list $indexLst $newValue - } else { - set idx [lindex $indexLst 0] - set targetList [lindex $list $idx] - # reduce refcount on targetList (not really usefull now, - # could be with optimizing compiler) -# Lvarset1 list $idx {} - # recursively replace in targetList - Lvarset targetList [lrange $indexLst 1 end] $newValue - # put updated sub list back in the tree - Lvarset1nc list $idx $targetList - } -} -# Set one cell to a value, eventually create all the needed elements -# (on level-1 of lists) -variable emptyList {} -proc ::tcl::Lvarset1 {listName index newValue} { - upvar $listName list - if {$index < 0} {return -code error "invalid negative index"} - set lg [llength $list] - if {$index >= $lg} { - variable emptyList - for {set i $lg} {$i<$index} {incr i} { - lappend list $emptyList - } - lappend list $newValue - } else { - set list [lreplace $list $index $index $newValue] - } -} -# same as Lvarset1 but no bound checking / creation -proc ::tcl::Lvarset1nc {listName index newValue} { - upvar $listName list - set list [lreplace $list $index $index $newValue] -} -# Increments the value of one leaf of a lists tree -# (which must exists) -proc ::tcl::Lvarincr {listName indexLst {howMuch 1}} { - upvar $listName list - if {[llength $indexLst] <= 1} { - Lvarincr1 list $indexLst $howMuch - } else { - set idx [lindex $indexLst 0] - set targetList [lindex $list $idx] - # reduce refcount on targetList - Lvarset1nc list $idx {} - # recursively replace in targetList - Lvarincr targetList [lrange $indexLst 1 end] $howMuch - # put updated sub list back in the tree - Lvarset1nc list $idx $targetList - } -} -# Increments the value of one cell of a list -proc ::tcl::Lvarincr1 {listName index {howMuch 1}} { - upvar $listName list - set newValue [expr {[lindex $list $index]+$howMuch}] - set list [lreplace $list $index $index $newValue] - return $newValue -} -# Removes the first element of a list -# and returns the new list value -proc ::tcl::Lvarpop1 {listName} { - upvar $listName list - set list [lrange $list 1 end] -} -# Same but returns the removed element -# (Like the tclX version) -proc ::tcl::Lvarpop {listName} { - upvar $listName list - set el [lindex $list 0] - set list [lrange $list 1 end] - return $el -} -# Assign list elements to variables and return the length of the list -proc ::tcl::Lassign {list args} { - # faster than direct blown foreach (which does not byte compile) - set i 0 - set lg [llength $list] - foreach vname $args { - if {$i>=$lg} break - uplevel 1 [list ::set $vname [lindex $list $i]] - incr i - } - return $lg -} - -# Misc utilities - -# Set the varname to value if value is greater than varname's current value -# or if varname is undefined -proc ::tcl::SetMax {varname value} { - upvar 1 $varname var - if {![info exists var] || $value > $var} { - set var $value - } -} - -# Set the varname to value if value is smaller than varname's current value -# or if varname is undefined -proc ::tcl::SetMin {varname value} { - upvar 1 $varname var - if {![info exists var] || $value < $var} { - set var $value - } -} - - - # everything loaded fine, lets create the test proc: - # OptCreateTestProc - # Don't need the create temp proc anymore: - # rename OptCreateTestProc {} -} diff --git a/tcl8.6/library/opt/pkgIndex.tcl b/tcl8.6/library/opt/pkgIndex.tcl deleted file mode 100644 index 107d4c6..0000000 --- a/tcl8.6/library/opt/pkgIndex.tcl +++ /dev/null @@ -1,12 +0,0 @@ -# Tcl package index file, version 1.1 -# This file is generated by the "pkg_mkIndex -direct" command -# and sourced either when an application starts up or -# by a "package unknown" script. It invokes the -# "package ifneeded" command to set up package-related -# information so that packages will be loaded automatically -# in response to "package require" commands. When this -# script is sourced, the variable $dir must contain the -# full path name of this file's directory. - -if {![package vsatisfies [package provide Tcl] 8.2]} {return} -package ifneeded opt 0.4.6 [list source [file join $dir optparse.tcl]] |