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fhem-mirror/fhem/FHEM/44_S7_ARead.pm

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# $Id$
##############################################
package main;
use strict;
use warnings;
use Time::HiRes qw(gettimeofday);
#use Switch;
require "44_S7_Client.pm";
my %gets = (
# "libnodaveversion" => ""
);
sub _isfloat {
my $val = shift;
# return $val =~ m/^\d+.\d+$/;
return $val =~ m/^[-+]?\d*\.?\d*$/;
#[-+]?[0-9]*\.?[0-9]*
}
#####################################
sub S7_ARead_Initialize($) {
my $hash = shift @_;
# Provider
# Consumer
$hash->{Match} = "^AR";
$hash->{DefFn} = "S7_ARead_Define";
$hash->{UndefFn} = "S7_ARead_Undef";
$hash->{ParseFn} = "S7_ARead_Parse";
$hash->{AttrFn} = "S7_ARead_Attr";
$hash->{AttrList} = "IODev offset multiplicator " . $readingFnAttributes;
main::LoadModule("S7");
}
#####################################
sub S7_ARead_Define($$) {
my ( $hash, $def ) = @_;
my @a = split( "[ \t][ \t]*", $def );
my ( $name, $area, $DB, $start, $datatype );
$name = $a[0];
AssignIoPort($hash);
if ( uc $a[2] =~ m/^[NA](\d*)/ ) {
my $Offset;
$area = "db";
$DB = 0;
my $startposition;
if ( uc $a[2] =~ m/^AI(\d*)/ ) {
$startposition = 2;
if ( defined($hash->{IODev}{S7TYPE}) && $hash->{IODev}{S7TYPE} eq "LOGO7" ) {
$Offset = 926;
}
elsif ( defined($hash->{IODev}{S7TYPE}) && $hash->{IODev}{S7TYPE} eq "LOGO8" ) {
$Offset = 1032;
}
else {
my $msg =
"wrong syntax : define <name> S7_ARead {inputs|outputs|flags|db} <DB> <address> \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
}
elsif ( uc $a[2] =~ m/^AQ(\d*)/ ) {
$startposition = 2;
if ( defined($hash->{IODev}{S7TYPE}) && $hash->{IODev}{S7TYPE} eq "LOGO7" ) {
$Offset = 944;
}
elsif ( defined($hash->{IODev}{S7TYPE}) && $hash->{IODev}{S7TYPE} eq "LOGO8" ) {
$Offset = 1072;
}
else {
my $msg =
"wrong syntax : define <name> S7_ARead {inputs|outputs|flags|db} <DB> <address> \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
}
elsif ( uc $a[2] =~ m/^AM(\d*)/ ) {
$startposition = 2;
if ( defined($hash->{IODev}{S7TYPE}) && $hash->{IODev}{S7TYPE} eq "LOGO7" ) {
$Offset = 952;
}
elsif ( defined($hash->{IODev}{S7TYPE}) && $hash->{IODev}{S7TYPE} eq "LOGO8" ) {
$Offset = 1118;
}
else {
my $msg =
"wrong syntax : define <name> S7_ARead {inputs|outputs|flags|db} <DB> <address> \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
}
elsif ( uc $a[2] =~ m/^NAI(\d*)/ ) {
$startposition = 3;
if ( $hash->{IODev}{S7TYPE} eq "LOGO8" ) {
$Offset = 1262;
}
else {
my $msg =
"wrong syntax : define <name> S7_ARead {inputs|outputs|flags|db} <DB> <address> \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
}
elsif ( uc $a[2] =~ m/^NAQ(\d*)/ ) {
$startposition = 3;
if ( $hash->{IODev}{S7TYPE} eq "LOGO8" ) {
$Offset = 1406;
}
else {
my $msg =
"wrong syntax : define <name> S7_ARead {inputs|outputs|flags|db} <DB> <address> \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
}
else {
my $msg =
"wrong syntax : define <name> S7_ARead {inputs|outputs|flags|db} <DB> <address> \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
$start = $Offset + ((int( substr( $a[2], $startposition ) ) - 1)*2);
$datatype = "u16";
}
else {
$area = lc $a[2];
$DB = $a[3];
$start = $a[4];
$datatype = lc $a[5];
if ( $area ne "inputs"
&& $area ne "outputs"
&& $area ne "flags"
&& $area ne "db" )
{
my $msg =
"wrong syntax: define <name> S7_ARead {inputs|outputs|flags|db} <DB> <start> {u8|s8|u16|s16|u32|s32|float} \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
if ( $datatype ne "u8"
&& $datatype ne "s8"
&& $datatype ne "u16"
&& $datatype ne "s16"
&& $datatype ne "u32"
&& $datatype ne "s32"
&& $datatype ne "float" )
{
my $msg =
"wrong syntax: define <name> S7_ARead {inputs|outputs|flags|db} <DB> <start> {u8|s8|u16|s16|u32|s32|float} \n Only for Logo7 or Logo8:\n define <name> S7_ARead {AI|AM|AQ|NAI|NAQ}";
Log3 undef, 2, $msg;
return $msg;
}
}
$hash->{AREA} = $area;
$hash->{DB} = $DB;
$hash->{ADDRESS} = $start;
$hash->{DATATYPE} = $datatype;
if ( $datatype eq "u16" || $datatype eq "s16" ) {
$hash->{LENGTH} = 2;
}
elsif ( $datatype eq "u32" || $datatype eq "s32" || $datatype eq "float" ) {
$hash->{LENGTH} = 4;
}
else {
$hash->{LENGTH} = 1;
}
my $ID = "$area $DB";
if ( !defined( $modules{S7_ARead}{defptr}{$ID} ) ) {
my @b = ();
push( @b, $hash );
$modules{S7_ARead}{defptr}{$ID} = \@b;
}
else {
push( @{ $modules{S7_ARead}{defptr}{$ID} }, $hash );
}
$hash->{IODev}{dirty} = 1;
Log3 $name, 4,
"S7_ARead (" . $hash->{IODev}{NAME} . "): define $name Adress:$start";
return undef;
}
#####################################
sub S7_ARead_Undef($$) {
my ( $hash, $name ) = @_;
Log3 $name, 4,
"S7_ARead ("
. $hash->{IODev}{NAME}
. "): undef "
. $hash->{NAME}
. " Adress:"
. $hash->{ADDRESS};
delete( $modules{S7_ARead}{defptr} );
return undef;
}
#####################################
sub S7_ARead_Parse($$) {
my ( $hash, $rmsg ) = @_;
my $name = $hash->{NAME};
my @a = split( "[ \t][ \t]*", $rmsg );
my @list;
my ( $area, $DB, $start, $length, $datatype, $s7name, $hexbuffer,
$clientNames );
$area = lc $a[1];
$DB = $a[2];
$start = $a[3];
$length = $a[4];
$s7name = $a[5];
$hexbuffer = $a[6];
$clientNames = $a[7];
my $ID = "$area $DB";
Log3 $name, 5, "$name S7_ARead_Parse $rmsg";
my @clientList = split( ",", $clientNames );
if ( int(@clientList) > 0 ) {
my @Writebuffer = unpack( "C" x $length,
pack( "H2" x $length, split( ",", $hexbuffer ) ) );
#my $b = pack( "C" x $length, @Writebuffer );
my $now = gettimeofday();
foreach my $clientName (@clientList) {
my $h = $defs{$clientName};
if ( $h->{TYPE} eq "S7_ARead"
&& $start <= $h->{ADDRESS}
&& $start + $length >= $h->{ADDRESS} + $h->{LENGTH} )
{
my $n = $h->{NAME}; #damit die werte im client gesetzt werden!
push( @list, $n );
#aktualisierung des wertes
my $s = $h->{ADDRESS} - $start;
my $myI;
if ( $h->{DATATYPE} eq "u8" ) {
$myI = $hash->{S7PLCClient}->ByteAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "s8" ) {
$myI = $hash->{S7PLCClient}->ShortAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "u16" ) {
$myI = $hash->{S7PLCClient}->WordAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "s16" ) {
$myI = $hash->{S7PLCClient}->IntegerAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "u32" ) {
$myI = $hash->{S7PLCClient}->DWordAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "s32" ) {
$myI = $hash->{S7PLCClient}->DintAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "float" ) {
$myI = $hash->{S7PLCClient}->FloatAt( \@Writebuffer, $s );
}
else {
Log3 $name, 3,
"$n S7_ARead: Parse unknown type : ("
. $h->{DATATYPE} . ")";
}
#now we need to correct the analog value by the parameters attribute and offset
my $offset = 0;
if ( defined( $main::attr{$n}{offset} ) ) {
$offset = $main::attr{$n}{offset};
}
my $multi = 1;
if ( defined( $main::attr{$n}{multiplicator} ) ) {
$multi = $main::attr{$n}{multiplicator};
}
$myI = $myI * $multi + $offset;
my $reading="state";
# main::readingsSingleUpdate( $h, $reading, $myI, 1 );
#check event-onchange-reading
#code wurde der datei fhem.pl funktion readingsBulkUpdate entnommen und adaptiert
my $attreocr= AttrVal($h->{NAME}, "event-on-change-reading", undef);
my @a;
if($attreocr) {
@a = split(/,/,$attreocr);
$h->{".attreocr"} = \@a;
}
# determine whether the reading is listed in any of the attributes
my @eocrv;
my $eocr = $attreocr &&
( @eocrv = grep { my $l = $_; $l =~ s/:.*//;
($reading=~ m/^$l$/) ? $_ : undef} @a);
# check if threshold is given
my $eocrExists = $eocr;
if( $eocr
&& $eocrv[0] =~ m/.*:(.*)/ ) {
my $threshold = $1;
if($myI =~ m/([\d\.\-eE]+)/ && looks_like_number($1)) { #41083, #62190
my $mv = $1;
my $last_value = $h->{".attreocr-threshold$reading"};
if( !defined($last_value) ) {
# $h->{".attreocr-threshold$reading"} = $mv;
} elsif( abs($mv - $last_value) < $threshold ) {
$eocr = 0;
} else {
# $h->{".attreocr-threshold$reading"} = $mv;
}
}
}
my $changed = !($attreocr)
|| ($eocr && ($myI ne ReadingsVal($h->{NAME},$reading,"")));
my $attrminint = AttrVal($h->{NAME}, "event-min-interval", undef);
my @aa;
if($attrminint) {
@aa = split(/,/,$attrminint);
}
my @v = grep { my $l = $_;
$l =~ s/:.*//;
($reading=~ m/^$l$/) ? $_ : undef
} @aa;
if(@v) {
my (undef, $minInt) = split(":", $v[0]);
my $le = $h->{".lastTime$reading"};
if($le && $now-$le < $minInt) {
if(!$eocr || ($eocr && $myI eq ReadingsVal($h->{NAME},$reading,""))){
$changed = 0;
#} else {
# $hash->{".lastTime$reading"} = $now;
}
} else {
#$hash->{".lastTime$reading"} = $now;
$changed = 1 if($eocrExists);
}
}
if ($changed == 1) {
main::readingsSingleUpdate( $h, $reading, $myI, 1 );
}
}
}
}
else {
Log3 $name, 3, "$name S7_ARead_Parse going the save way ";
if ( defined( $modules{S7_ARead}{defptr}{$ID} ) ) {
foreach my $h ( @{ $modules{S7_ARead}{defptr}{$ID} } ) {
if ( defined( $main::attr{ $h->{NAME} }{IODev} )
&& $main::attr{ $h->{NAME} }{IODev} eq $name )
{
if ( $start <= $h->{ADDRESS}
&& $start + $length >= $h->{ADDRESS} + $h->{LENGTH} )
{
my $n =
$h->{NAME}; #damit die werte im client gesetzt werden!
push( @list, $n );
#aktualisierung des wertes
my @Writebuffer = unpack( "C" x $length,
pack( "H2" x $length, split( ",", $hexbuffer ) ) );
my $s = $h->{ADDRESS} - $start;
#my $b = pack( "C" x $length, @Writebuffer );
my $myI;
if ( $h->{DATATYPE} eq "u8" ) {
$myI =
$hash->{S7PLCClient}->ByteAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "s8" ) {
$myI =
$hash->{S7PLCClient}
->ShortAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "u16" ) {
$myI =
$hash->{S7PLCClient}->WordAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "s16" ) {
$myI =
$hash->{S7PLCClient}
->IntegerAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "u32" ) {
$myI =
$hash->{S7PLCClient}
->DWordAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "s32" ) {
$myI =
$hash->{S7PLCClient}->DintAt( \@Writebuffer, $s );
}
elsif ( $h->{DATATYPE} eq "float" ) {
$myI =
$hash->{S7PLCClient}
->FloatAt( \@Writebuffer, $s );
}
else {
Log3 $name, 3,
"$name S7_ARead: Parse unknown type : ("
. $h->{DATATYPE} . ")";
}
#now we need to correct the analog value by the parameters attribute and offset
my $offset = 0;
if ( defined( $main::attr{$n}{offset} ) ) {
$offset = $main::attr{$n}{offset};
}
my $multi = 1;
if ( defined( $main::attr{$n}{multiplicator} ) ) {
$multi = $main::attr{$n}{multiplicator};
}
$myI = $myI * $multi + $offset;
#my $myResult;
main::readingsSingleUpdate( $h, "state", $myI, 1 );
# main::readingsSingleUpdate($h,"value",$myResult, 1);
}
}
}
}
}
if ( int(@list) == 0 ) {
Log3 $name, 6, "S7_ARead: Parse no client found ($name) ...";
push( @list, "" );
}
return @list;
}
#####################################
sub S7_ARead_Attr(@) {
my ( $cmd, $name, $aName, $aVal ) = @_;
# $cmd can be "del" or "set"
# $name is device name
# aName and aVal are Attribute name and value
my $hash = $defs{$name};
if ( $cmd eq "set" ) {
if ( $aName eq "offset" || $aName eq "multiplicator" ) {
if ( !_isfloat($aVal) ) {
Log3 $name, 3,
"S7_ARead: Invalid $aName in attr $name $aName $aVal ($aVal is not a number): $@";
return "Invalid $aName $aVal: $aVal is not a number";
}
}
elsif ( $aName eq "IODev" ) {
if ( defined( $hash->{IODev} ) ) { #set old master device dirty
$hash->{IODev}{dirty} = 1;
}
if ( defined( $defs{$aVal} ) ) { #set new master device dirty
$defs{$aVal}{dirty} = 1;
}
Log3 $name, 4, "S7_ARead: IODev for $name is $aVal";
}
}
return undef;
}
1;
=pod
=item summary logical device for a analog reading from a S7/S5
=item summary_DE logisches Device für einen analogen Nur Lese Datenpunkt von einer S5 / S7
=begin html
<a name="S7_ARead"></a>
<h3>S7_ARead</h3>
<ul>
This module is a logical module of the physical module S7. <br>
This module provides analog data (signed / unsigned integer Values).<br>
Note: you have to configure a PLC reading at the physical module (S7) first.<br>
<br><br>
<b>Define</b><br>
<code>define &lt;name&gt; S7_ARead {inputs|outputs|flags|db} &lt;DB&gt; &lt;start&gt; {u8|s8|u16|s16|u32|s32}</code>
<br><br>
<ul>
<li>inputs|outputs|flags|db defines where to read.</li>
<li>DB Number of the DB</li>
<li>start start byte of the reading</li>
<li>{u8|s8|u16|s16|u32|s32} defines the datatype: </li>
<ul>
<li>u8 . unsigned 8 Bit integer</li>
<li>s8 . signed 8 Bit integer</li>
<li>u16 . unsigned 16 Bit integer</li>
<li>s16 . signed 16 Bit integer</li>
<li>u32 . unsigned 32 Bit integer</li>
<li>s32 . signed 32 Bit integer</li>
</ul>
Note: the required memory area (start start + datatypelength) need to be with in the configured PLC reading of the physical module.
</ul>
<br>
<b>Attr</b><br>
The following parameters are used to scale every reading<br>
<ul>
<li>multiplicator</li>
<li>offset</li>
</ul>
newValue = &lt;multiplicator&gt; * Value + &lt;offset&gt;
</ul>
=end html
=begin html_DE
<a name="S7_ARead"></a>
<h3>S7_ARead</h3>
<ul>
This module is a logical module of the physical module S7. <br>
This module provides analog data (signed / unsigned integer Values).<br>
Note: you have to configure a PLC reading at the physical module (S7) first.<br>
<br><br>
<b>Define</b><br>
<code>define &lt;name&gt; S7_ARead {inputs|outputs|flags|db} &lt;DB&gt; &lt;start&gt; {u8|s8|u16|s16|u32|s32}</code>
<br><br>
<ul>
<li>inputs|outputs|flags|db defines where to read.</li>
<li>DB Number of the DB</li>
<li>start start byte of the reading</li>
<li>{u8|s8|u16|s16|u32|s32} defines the datatype: </li>
<ul>
<li>u8 . unsigned 8 Bit integer</li>
<li>s8 . signed 8 Bit integer</li>
<li>u16 . unsigned 16 Bit integer</li>
<li>s16 . signed 16 Bit integer</li>
<li>u32 . unsigned 32 Bit integer</li>
<li>s32 . signed 32 Bit integer</li>
<li>float . 4 byte float </li>
</ul>
Note: the required memory area (start start + datatypelength) need to be with in the configured PLC reading of the physical module.
</ul>
<b>Attr</b>
The following parameters are used to scale every reading
<ul>
<li>multiplicator</li>
<li>offset</li>
</ul>
newValue = &lt;multiplicator&gt; * Value + &lt;offset&gt;
</ul>
=end html_DE
=cut