PCS7: CPU_RT êîíòðîëü âûïîëíåíèÿ OB
Äàòà: 2016-03-04
Äîáàâëåíî: komatic
Òåìà: Step7
Áëîê îïðåäåëÿåò âðåìÿ âûïîëíåíèÿ èñîëüçóåìûõ OB (OB1,OB3x,OB8x) è êîíòðîëèðóåò èõ âûïîëíåíèÿ ñ öåëüþ íåäîïóñòèòü ïðåâûøåíèÿ ìàêñèìàëüíîãî öèêëà êîíòðîëëåðà.
Ôóíêöèÿ âçÿòà èç PCS 7 Basis Library V8.0 (ññûëêà íà áèáëèîòåêó âíèçó ìàòåðèàëà)
Ïðè ïðåâûøåíèè öèêëà (âûçîâ OB80) âûïîëíÿåò çàäàííûå äåéñòâèÿ.
Ìîæåò âûäàâàòü ñîîòâåòñòâóþùèå ñîîáùåíèÿ è, åñëè ñêîíôèãóðèðîâàíî, ïðîïóñêàòü âûïîëíåíèå çàäàíûõ OBx íà öèêë, ïîêà ñèòóàöèÿ íå ñòàáèëèçèðóåòñÿ.
Òàêæå ñáðàñûâàåò, ñ ïîìîùüþ SFC43, êîíòðîëü öèêëà.
Name: FB128
Symbolic Name: CPU_RT
Symbol Comment: CPU Performance Block
Family: @SYSTEM
Version: 7.1
Author: DRIVER80
Last modified: 01/18/2012
Use: SFB54,UDT3,FC260,SFC43,SFC51,SFC78
Size: 29016 bytes
Signature: generiert vom SCL Übersetzer Version: SCLCOMP K05.03.07.00_01.02.00.01 release
{
Scl_ResetOptions
;
Scl_OverwriteBlocks:= 'y'
;
Scl_GenerateReferenceData
:= 'y' ;
Scl_S7ServerActive:= 'n'
;
Scl_CreateObjectCode:= 'y' ;
Scl_OptimizeObjectCode:= 'y' ;
Scl_MonitorArrayLimits:= 'n' ;
Scl_CreateDebugInfo
:= 'n'
;
Scl_SetOKFlag:= 'y'
;
Scl_SetMaximumStringLength:= '254'
}
FUNCTION_BLOCK FB1128
TITLE
='CPU Performance
Block'
{
S7_hardware := 'rack';
S7_m_c := 'true';
S7_tasklist := 'OB1,OB100'
}
AUTHOR
: DRIVER80
FAMILY
: '@SYSTEM'
NAME
: CPU_RT
VERSION
: '7.1'
VAR_INPUT
MAX_RTRG { S7_m_c := 'true'
}: INT := 50; //Maximum count of
retrigger attempts
MAX_LIM { S7_m_c := 'true'
}: REAL := 7.500000e+001; //Total
Maximum Limit in percent
MAX_VAL { S7_m_c := 'true'
}: REAL := 9.500000e+001; //Max
Value -> for calculating the Reset of the idle cycles
HYS { S7_m_c := 'true'
}: REAL := 5.000000e+000; //Hysteresis
of Total Maximum Limit in percent
RESET { S7_m_c := 'true';
S7_string_1 := '1'
}: BOOL := TRUE; //Reset Average,
Min and Max Values
OB30_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB30 takes
part in steps of avoiding cpu stop
OB31_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB31 takes
part in steps of avoiding cpu stop
OB32_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB32 takes
part in steps of avoiding cpu stop
OB33_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB33 takes
part in steps of avoiding cpu stop
OB34_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB34 takes
part in steps of avoiding cpu stop
OB35_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB35 takes
part in steps of avoiding cpu stop
OB36_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB36 takes
part in steps of avoiding cpu stop
OB37_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB37 takes
part in steps of avoiding cpu stop
OB38_ATTN { S7_m_c := 'true';
S7_string_0 := '0';
S7_string_1 := '1'
}: BOOL := TRUE; //OB38 takes
part in steps of avoiding cpu stop
SAMPLE_AV { S7_visible := 'false'; S7_m_c :=
'true' }: DINT
:= 25; //Sample Faktor for displayed values
SAMPLE_RE { S7_visible := 'false'; S7_m_c :=
'true' }: DINT
:= 5; //Sample Faktor for calculate the undo of the idle cycle
procedure
N_REQ_ERR { S7_m_c := 'true'
}: INT := 4; //Number of OB3x
Request Errors
UNDO_CYC { S7_m_c := 'true'
}: INT := 5; //Counter in the
slowest OB for undo emergency mode
DELTA_L { S7_visible := 'false'; S7_link :=
'false' }: BOOL
:= TRUE;
//Delta Load is concluded
RUNUPCYC { S7_visible := 'false'; S7_link :=
'false' }: INT
:= 5; //Number of Run Up Cycles
END_VAR
VAR_OUTPUT
IDLE_CYC { S7_m_c := 'true'
}: INT ; //Current
idle cycles for OS
OB30_N_START : INT ; //Startvalue for the idle cycles
OB31_N_START : INT ; //Startvalue for the idle cycles
OB32_N_START : INT ; //Startvalue for the idle cycles
OB33_N_START : INT ; //Startvalue for the idle cycles
OB34_N_START : INT ; //Startvalue for the idle cycles
OB35_N_START : INT ; //Startvalue for the idle cycles
OB36_N_START : INT ; //Startvalue for the idle cycles
OB37_N_START : INT ; //Startvalue for the idle cycles
OB38_N_START : INT ; //Startvalue for the idle cycles
OB30_N_CNT : INT ; //Current
value for the idle cycles
OB31_N_CNT : INT ; //Current
value for the idle cycles
OB32_N_CNT : INT ; //Current
value for the idle cycles
OB33_N_CNT : INT ; //Current
value for the idle cycles
OB34_N_CNT : INT ; //Current
value for the idle cycles
OB35_N_CNT : INT ; //Current
value for the idle cycles
OB36_N_CNT : INT ; //Current
value for the idle cycles
OB37_N_CNT : INT ; //Current
value for the idle cycles
OB38_N_CNT : INT ; //Current
value for the idle cycles
EXC_FR30 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB30
EXC_FR31 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB31
EXC_FR32 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB32
EXC_FR33 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB33
EXC_FR34 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB34
EXC_FR35 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB35
EXC_FR36 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB36
EXC_FR37 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB37
EXC_FR38 { S7_visible := 'false'; S7_m_c :=
'true' }: INT
; //Execution Frequency OB38
DAT_PLAU : BOOL ; //slowest
OB3x has slowest priority
SFC78_EX { S7_m_c := 'true'
}: BOOL ; //SFC78
available on the CPU
SL_OB : BYTE ; //slowest
OB3x
SL_OB_EXC_FR : INT ; //Execution Frequency of slowest OB3x
N_OB1_CYC : INT ; //Number
of OB1 cycles while one slowest OB cycle
MAXCYCTI { S7_m_c := 'true'
}: INT ; //Maximum
Cycle Time of CPU
TOTALCUR { S7_m_c := 'true'
}: REAL ; //Total
Current Value (net average of all OB3x/OB8x + OB1) in percent
TOTALAV { S7_m_c := 'true'
}: REAL ; //Total
Average CPU (net of all OB3x/OB8x + OB1 Net) in percent
TOTALMAX { S7_m_c := 'true'
}: REAL ; //Total
Max Value in percent (derived from current net of all OB3x/OB8x + OB1)
TOTALMIN { S7_m_c := 'true'
}: REAL ; //Total
Min Value in percent (derived from current net of all OB3x/OB8x + OB1)
NET01CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB01
NET01AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB01
NET01MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB01
NET01MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB01
NET01PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB01
NET30CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB30
GRO30CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB30
NET30AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB30
GRO30AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB30
NET30MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB30
GRO30MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB30
NET30MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB30
GRO30MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB30
NET30PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB30
GRO30PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB30
NET31CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB31
GRO31CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB31
NET31AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB31
GRO31AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB31
NET31MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB31
GRO31MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB31
NET31MIN
{ S7_visible := 'false';
S7_m_c := 'true'
}: REAL ; //minimum
Net cycle time of OB31
GRO31MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB31
NET31PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB31
GRO31PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB31
NET32CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB32
GRO32CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB32
NET32AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB32
GRO32AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB32
NET32MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB32
GRO32MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB32
NET32MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB32
GRO32MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB32
NET32PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB32
GRO32PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB32
NET33CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB33
GRO33CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB33
NET33AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB33
GRO33AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB33
NET33MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB33
GRO33MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB33
NET33MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB33
GRO33MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB33
NET33PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB33
GRO33PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB33
NET34CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB34
GRO34CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB34
NET34AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB34
GRO34AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB34
NET34MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB34
GRO34MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB34
NET34MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB34
GRO34MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB34
NET34PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB34
GRO34PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB34
NET35CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB35
GRO35CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB35
NET35AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB35
GRO35AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB35
NET35MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB35
GRO35MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB35
NET35MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB35
GRO35MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB35
NET35PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB35
GRO35PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB35
NET36CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB36
GRO36CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB36
NET36AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB36
GRO36AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB36
NET36MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB36
GRO36MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB36
NET36MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB36
GRO36MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB36
NET36PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB36
GRO36PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB36
NET37CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB37
GRO37CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB37
NET37AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB37
GRO37AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB37
NET37MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB37
GRO37MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB37
NET37MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB37
GRO37MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB37
NET37PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB37
GRO37PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB37
NET38CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB38
GRO38CUR { S7_m_c := 'true'
}: REAL ; //current
Gross cycle time of OB38
NET38AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB38
GRO38AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Gross cycle time of OB38
NET38MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB38
GRO38MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Gross cycle time of OB38
NET38MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Net cycle time of OB38
GRO38MIN { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //minimum Gross cycle time of OB38
NET38PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB38
GRO38PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Gross average percentage cycle time of OB38
NET81CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB81
NET81AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB81
NET81MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB81
NET81PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB81
NET82CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB82
NET82AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB82
NET82MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB82
NET82PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB82
NET83CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB82
NET83AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB83
NET83MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB83
NET83PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB83
NET84CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB84
NET84AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB84
NET84MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB84
NET84PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB84
NET85CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB85
NET85AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB85
NET85MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB85
NET85PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB85
NET86CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB86
NET86AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB86
NET86MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB86
NET86PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB86
NET87CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB87
NET87AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB87
NET87MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB87
NET87PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB87
NET88CUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of OB88
NET88AV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of OB88
NET88MAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of OB88
NET88PER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of OB88
NETXXCUR { S7_m_c := 'true'
}: REAL ; //current
Net cycle time of Rest e.G. OB5x
NETXXAV { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Average Net cycle time of Rest e.G. OB5x
NETXXMAX { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //maximum Net cycle time of Rest e.G. OB5x
NETXXPER { S7_visible := 'false'; S7_m_c :=
'true' }: REAL
; //Net average percentage cycle time of Rest e.G.
OB5x
REQ30ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ31ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ32ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ33ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ34ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ35ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ36ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ37ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ38ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
REQ01ERR { S7_visible := 'false'; S7_m_c :=
'true' }: BOOL
; //OB Request Error occured since last Reset
ERR_NUM { S7_visible := 'false' }: INT
; //Error Number
CPU_RT_DATA { S7_visible := 'false' }: STRUCT
OB_NUM : BYTE ; //OB
Number which caused Request Error
MAX_LIM : BOOL ; //Total
Current Value > MAX_LIM
EMERGENCY_MODE : BOOL ; //Emergency mode, cyclic OB´s get idle
cycles
NOT_PCS7_COMPLIANT : BOOL ; //priority of OB3x not PCS7 compliant
REQUEST_ERR : BOOL ; //Reserved
RES_2 : BOOL ; //Reserved
RES_3 : BOOL ; //Reserved
RES_4 : BOOL ; //Reserved
RES_5 : BOOL ; //Reserved
RES : DINT ; //Reserved
END_STRUCT ;
END_VAR
VAR
RALRM : SFB54; //Multiinstanz RALRM
reserve1 : DWORD ;
reserve2 : DWORD ;
srTemp1 : REAL ;
srTemp2 : REAL ;
srTemp3 : REAL ;
srTemp4 : REAL ;
siRUNUPCNT : INT ; //intertner
Zähler RUNUPCYC
sbERSTLAUF : BOOL :=
TRUE; //Erstlaufmerker
sbyASIG0a : BYTE ;
sbyASIG0a_bool AT sbyASIG0a: ARRAY[0..7] OF BOOL;
sbyASIG0b : BYTE ;
Temp : ARRAY [0
.. 126 ] OF WORD ;
Temp_byte AT Temp : ARRAY[0..251] OF BYTE;
Temp_int AT Temp : ARRAY[0..126] OF INT;
Temp_bool AT Temp : ARRAY[0..2016] OF BOOL;
Temp_st AT Temp : ARRAY[0..8] OF STRUCT
b1 : BYTE;
b2 : BYTE;
b3 : BYTE;
b4 : BYTE;
arr: ARRAY[2..13] OF INT ;
END_STRUCT;
sReqErrOBNr : BYTE ; //OB which put out an Request Error
siTemp : ARRAY [0 .. 62
] OF //temp
data Structure while cyclic OBs running
DINT ; //temp data
Structure while cyclic OBs running
siTemp_real AT siTemp : ARRAY[0..62] OF REAL ;
sSZL822_BUSY : BOOL :=
TRUE;
sSZL222_BUSY : BOOL :=
TRUE;
sSZL112_BUSY : BOOL :=
TRUE;
sSlowestOB : BYTE ;
sSlowestOBExcFreq : INT ;
sSlowestOBPriority : BYTE ;
sFastestOB : BYTE ;
sFastestOBExcFreq : INT ;
sFastestOBPriority : BYTE ;
sDataPlausible : BOOL ;
sSFC78available : BOOL ; //SFC78 ist verfügbar
sOBExcFreq : ARRAY [30 .. 38 ] OF INT ;
sNumOB1Cyc : INT ; //count
of ob1 cycles while one slowest OB cycle Time
s30AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet30 : DINT ; //Current
net value in micro seconds in DINT
siGRO30 : DINT ; //Current
gross value in micro seconds in DINT
sNET30CurrPer : REAL ; //Current value in percent
srNET30AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s31AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet31 : DINT ; //Current
net value in micro seconds in DINT
siGRO31 : DINT ; //Current
gross value in micro seconds in DINT
sNET31CurrPer : REAL ; //Current value in percent
srNET31AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s32AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet32 : DINT ; //Current
net value in micro seconds in DINT
siGRO32 : DINT ; //Current
gross value in micro seconds in DINT
sNET32CurrPer : REAL ; //Current value in percent
srNET32AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s33AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet33 : DINT ; //Current
net value in micro seconds in DINT
siGRO33 : DINT ; //Current
gross value in micro seconds in DINT
sNET33CurrPer : REAL ; //Current value in percent
srNET33AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s34AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet34 : DINT ; //Current
net value in micro seconds in DINT
siGRO34 : DINT ; //Current
gross value in micro seconds in DINT
sNET34CurrPer : REAL ; //Current value in percent
srNET34AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s35AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet35 : DINT ; //Current
net value in micro seconds in DINT
siGRO35 : DINT ; //Current
gross value in micro seconds in DINT
sNET35CurrPer : REAL ; //Current value in percent
srNET35AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s36AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet36 : DINT ; //Current
net value in micro seconds in DINT
siGRO36 : DINT ; //Current
gross value in micro seconds in DINT
sNET36CurrPer : REAL ; //Current value in percent
srNET36AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s37AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet37 : DINT ; //Current
net value in micro seconds in DINT
siGRO37 : DINT ; //Current
gross value in micro seconds in DINT
sNET37CurrPer : REAL ; //Current value in percent
srNET37AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
s38AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet38 : DINT ; //Current
net value in micro seconds in DINT
siGRO38 : DINT ; //Current
gross value in micro seconds in DINT
sNET38CurrPer : REAL ; //Current value in percent
srNET38AVPerIntern : REAL ; //intern average value in percent for undo the idle cycles
srNETAccuPerIntern : REAL ; //accumulate all NET values for undo the idle cycles
sTotalAVCounter : DINT := 1; //counter for 1.. sample necessary to recognice the first
cyc after reset
sTotalCurrPer : REAL ; //Current value in percent
s01AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet01 : DINT ; //Current
net value in micro seconds in DINT
sNET01CurrPer : REAL ; //Current value in percent
srNET01Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET01Merker : BOOL ; //merker for 1 slowest ob cycle expired
s81AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet81 : DINT ; //Current
net value in micro seconds in DINT
sNET81CurrPer : REAL ; //Current value in percent
srNET81Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET81Merker : BOOL ; //merker for 1 slowest ob cycle expired
s82AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet82 : DINT ; //Current
net value in micro seconds in DINT
sNET82CurrPer : REAL ; //Current value in percent
srNET82Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET82Merker : BOOL ; //merker for 1 slowest ob cycle expired
s83AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet83 : DINT ; //Current
net value in micro seconds in DINT
sNET83CurrPer : REAL ; //Current value in percent
srNET83Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET83Merker : BOOL ; //merker for 1 slowest ob cycle expired
s84AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet84 : DINT ; //Current
net value in micro seconds in DINT
sNET84CurrPer : REAL ; //Current value in percent
srNET84Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET84Merker : BOOL ; //merker for 1 slowest ob cycle expired
s85AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet85 : DINT ; //Current
net value in micro seconds in DINT
sNET85CurrPer : REAL ; //Current value in percent
srNET85Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET85Merker : BOOL ; //merker for 1 slowest ob cycle expired
s86AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet86 : DINT ; //Current
net value in micro seconds in DINT
sNET86CurrPer : REAL ; //Current value in percent
srNET86Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET86Merker : BOOL ; //merker for 1 slowest ob cycle expired
s87AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet87 : DINT ; //Current
net value in micro seconds in DINT
sNET87CurrPer : REAL ; //Current value in percent
srNET87Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET87Merker : BOOL ; //merker for 1 slowest ob cycle expired
s88AVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNet88 : DINT ; //Current
net value in micro seconds in DINT
sNET88CurrPer : REAL ; //Current value in percent
srNET88Sample : REAL ; //current value in terms of slowest OB Exc Freq
sbNET88Merker : BOOL ; //merker for 1 slowest ob cycle expired
sXXAVCounter : DINT :=
1; //counter
for 1.. sample necessary to recognice the first cyc after reset
siNetXX : DINT ; //Current
net value in micro seconds in DINT
sNETXXCurrPer : REAL ; //Current value in percent
srNETXXSample : REAL ; //current value in terms of slowest OB Exc Freq
sbNETXXMerker : BOOL ; //merker for 1 slowest ob cycle expired
srNETXXAVPerIntern : REAL ;
END_VAR
VAR_TEMP
RETURN_CODE : INT ; //Hilfsparameter
(Wechselnde Bedeutung)!
x : INT ; //Hilfsparameter
(Wechselnde Bedeutung)!
y : INT ; //Hilfsparameter
(Wechselnde Bedeutung)!
Busy : BOOL ;
ERR : INT ; //Error
beim Anlauf
TOP_SI : STRUCT
EV_CLASS : BYTE ;
EV_NUM : BYTE ;
PRIORITY : BYTE ;
NUM : BYTE ;
TYP2_3 : BYTE ;
TYP1 : BYTE ;
ZI1 : WORD ;
ZI2 : BYTE ;
ZI3 : BYTE ;
ZI4 : BYTE ;
ZI5 : BYTE ;
T : DATE_AND_TIME ;
SUBNET : BYTE ; //Mastersystem
RACK : BYTE ; //Racknr.
SL_TYP : BYTE ; //Slave-
und Profil-Typ
A_INF : BYTE ; //A-Info-
Typ/Struktur-Vers
ET_CR_FL : BYTE ; //ET-CR-Flags
ET_ER_FL : BYTE ; //ET-ER-
Flags
PNO_ID : WORD ; //PNO-Ident
END_STRUCT ;
AINFO : BYTE ;
STATUS : DWORD ; //Funktionsergebnis/Fehlermeldung
SZL_HEADER : STRUCT
LENTHDR : WORD ;
N_DR : WORD ;
END_STRUCT ;
MS_AS : DWORD ; //Maintenance
State AS
END_VAR
BEGIN
RALRM(MODE
:= 1
,MLEN := 0
,TINFO := TOP_SI
,AINFO := AINFO
);
STATUS:=RALRM.STATUS;
IF
(TOP_SI.NUM=B#16#64) OR
(((sbERSTLAUF) OR DELTA_L) AND (TOP_SI.NUM=B#16#1)) THEN
sDataPlausible:=false;
IF TOP_SI.NUM=B#16#64 THEN
siRUNUPCNT:=RUNUPCYC;
FOR x:=0 TO 126 BY 1 DO
Temp[x]:=W#16#0;
END_FOR;
REPEAT
RETURN_CODE:=RDSYSST(REQ := true
,SZL_ID := W#16#112
,INDEX := W#16#100
,BUSY := sSZL112_BUSY
,SZL_HEADER := SZL_HEADER
,DR := Temp
);
UNTIL NOT(TOP_SI.NUM=B#16#64) OR NOT sSZL112_BUSY
END_REPEAT;
IF NOT
sSZL112_BUSY THEN
SFC78_EX:=false;
FOR x:=0 TO WORD_TO_INT(SZL_HEADER.N_DR)
BY 1 DO
IF Temp[x]=W#16#106 THEN
SFC78_EX:=true;
END_IF;
END_FOR;
END_IF;
ELSE
sSZL112_BUSY:=false;
END_IF;
IF NOT
sSZL112_BUSY THEN
FOR x:=0 TO 13 BY 1 DO
Temp[x]:=W#16#0;
END_FOR;
REPEAT
RETURN_CODE:=RDSYSST(REQ := true
,SZL_ID := W#16#222
,INDEX := W#16#50
,BUSY := sSZL222_BUSY
,SZL_HEADER := SZL_HEADER
,DR := Temp
);
UNTIL NOT(TOP_SI.NUM=B#16#64) OR NOT sSZL222_BUSY
END_REPEAT;
END_IF;
IF NOT
sSZL222_BUSY AND NOT
sSZL112_BUSY THEN
MAXCYCTI:=WORD_TO_INT(Temp[5]);
FOR x:=0 TO 126 BY 1 DO
Temp[x]:=W#16#0;
END_FOR;
REPEAT
RETURN_CODE:=RDSYSST(REQ := true
,SZL_ID := W#16#822
,INDEX := W#16#1E
,BUSY := sSZL822_BUSY
,SZL_HEADER := SZL_HEADER
,DR := Temp_byte
);
UNTIL NOT(TOP_SI.NUM=B#16#64) OR NOT sSZL822_BUSY
END_REPEAT;
IF RETURN_CODE<>0 THEN
ERR_NUM:=1;
END_IF;
IF NOT
sSZL822_BUSY AND ERR_NUM<>1 THEN
FOR x:=30 TO 38 BY 1 DO
sOBExcFreq[x]:=0;
END_FOR;
sOBExcFreq[BYTE_TO_INT(Temp_byte[3])]:=Temp_int[5];
sSlowestOB:=Temp_byte[3];
sSlowestOBExcFreq:=Temp_int[5];
sSlowestOBPriority:=Temp_byte[2];
FOR x:=1 TO 8 BY 1 DO
IF Temp_st[x].arr[5]>0 THEN
sOBExcFreq[BYTE_TO_INT(Temp_st[x].b4)]:=Temp_st[x].arr[5];
IF Temp_st[x].arr[5]>sSlowestOBExcFreq
THEN
sSlowestOB:=Temp_st[x].b4;
sSlowestOBExcFreq:=Temp_st[x].arr[5];
sSlowestOBPriority:=Temp_st[x].b3;
ELSE
IF Temp_st[x].arr[5]=sSlowestOBExcFreq
THEN
IF BYTE_TO_INT(Temp_st[x].b3)<BYTE_TO_INT(sSlowestOBPriority) THEN
sSlowestOB:=Temp_st[x].b4;
sSlowestOBExcFreq:=Temp_st[x].arr[5];
sSlowestOBPriority:=Temp_st[x].b3;
END_IF;
END_IF;
END_IF;
ELSE
EXIT;
END_IF;
END_FOR;
FOR x:=0 TO 8 BY 1 DO
IF Temp_st[x].arr[5]>0 THEN
IF BYTE_TO_INT(sSlowestOBPriority)<BYTE_TO_INT(Temp_st[x].b3) OR
Temp_st[x].b4=sSlowestOB
THEN
sDataPlausible:=true;
CPU_RT_DATA.NOT_PCS7_COMPLIANT:=false;
ELSE
sDataPlausible:=false;
CPU_RT_DATA.NOT_PCS7_COMPLIANT:=true;
EXIT;
END_IF;
ELSE
EXIT;
END_IF;
END_FOR;
DAT_PLAU:=sDataPlausible;
SL_OB:=sSlowestOB;
SL_OB_EXC_FR:=sSlowestOBExcFreq;
sbERSTLAUF:=false;
DELTA_L:=false;
RESET:=true;
FOR x:=0 TO 62 BY 1 DO
siTemp[x]:=0;
END_FOR;
END_IF;
END_IF;
ELSE;
END_IF;
IF
ERR_NUM<>1
AND sSlowestOBExcFreq>0 THEN
IF NOT
SFC78_EX THEN
IF TOP_SI.NUM=sSlowestOB AND
sDataPlausible THEN
siTemp[17]:=siTemp[17]+1;
IF siTemp[21]=0 THEN
siTemp[17]:=siTemp[17]+1;
ELSE
siTemp[17]:=0;
END_IF;
IF siTemp[17]>=UNDO_CYC THEN
siTemp[17]:=0;
IF OB30_N_START>1 OR
OB31_N_START>1
OR
OB32_N_START>1
OR
OB33_N_START>1
OR
OB34_N_START>1
OR
OB35_N_START>1
OR
OB36_N_START>1
OR
OB37_N_START>1
OR
OB38_N_START>1
THEN
IF IDLE_CYC>1 THEN
IDLE_CYC:=IDLE_CYC-1;
END_IF;
IF OB30_N_START>1 THEN
OB30_N_START:=OB30_N_START-1;
END_IF;
IF OB31_N_START>1 THEN
OB31_N_START:=OB31_N_START-1;
END_IF;
IF OB32_N_START>1 THEN
OB32_N_START:=OB32_N_START-1;
END_IF;
IF
OB33_N_START>1
THEN
OB33_N_START:=OB33_N_START-1;
END_IF;
IF
OB34_N_START>1
THEN
OB34_N_START:=OB34_N_START-1;
END_IF;
IF
OB35_N_START>1
THEN
OB35_N_START:=OB35_N_START-1;
END_IF;
IF
OB36_N_START>1
THEN
OB36_N_START:=OB36_N_START-1;
END_IF;
IF
OB37_N_START>1
THEN
OB37_N_START:=OB37_N_START-1;
END_IF;
IF
OB38_N_START>1
THEN
OB38_N_START:=OB38_N_START-1;
END_IF;
ELSIF
NOT OB30_ATTN AND
OB30_N_START>0
OR
NOT
OB31_ATTN AND OB31_N_START>0 OR
NOT
OB32_ATTN AND OB32_N_START>0 OR
NOT
OB33_ATTN AND OB33_N_START>0 OR
NOT
OB34_ATTN AND OB34_N_START>0 OR
NOT
OB35_ATTN AND OB35_N_START>0 OR
NOT
OB36_ATTN AND OB36_N_START>0 OR
NOT
OB37_ATTN AND OB37_N_START>0 OR
NOT
OB38_ATTN AND OB38_N_START>0
THEN
IF
NOT OB30_ATTN AND
OB30_N_START>0
THEN
OB30_N_START:=OB30_N_START-1;
END_IF;
IF
NOT OB31_ATTN AND
OB31_N_START>0
THEN
OB31_N_START:=OB31_N_START-1;
END_IF;
IF
NOT OB32_ATTN AND
OB32_N_START>0
THEN
OB32_N_START:=OB32_N_START-1;
END_IF;
IF
NOT OB33_ATTN AND
OB33_N_START>0
THEN
OB33_N_START:=OB33_N_START-1;
END_IF;
IF
NOT OB34_ATTN AND
OB34_N_START>0
THEN
OB34_N_START:=OB34_N_START-1;
END_IF;
IF
NOT OB35_ATTN AND
OB35_N_START>0
THEN
OB35_N_START:=OB35_N_START-1;
END_IF;
IF
NOT OB36_ATTN AND
OB36_N_START>0
THEN
OB36_N_START:=OB36_N_START-1;
END_IF;
IF
NOT OB37_ATTN AND
OB37_N_START>0
THEN
OB37_N_START:=OB37_N_START-1;
END_IF;
IF
NOT OB38_ATTN AND
OB38_N_START>0
THEN
OB38_N_START:=OB38_N_START-1;
END_IF;
ELSIF
OB30_N_START>0
OR
OB31_N_START>0 OR
OB32_N_START>0 OR
OB33_N_START>0 OR
OB34_N_START>0 OR
OB35_N_START>0 OR
OB36_N_START>0 OR
OB37_N_START>0 OR
OB38_N_START>0
THEN
IF
IDLE_CYC>0
THEN IDLE_CYC:=IDLE_CYC-1; END_IF;
IF
OB30_N_START>0
THEN OB30_N_START:=OB30_N_START-1; END_IF;
IF
OB31_N_START>0
THEN OB31_N_START:=OB31_N_START-1; END_IF;
IF
OB32_N_START>0
THEN OB32_N_START:=OB32_N_START-1; END_IF;
IF
OB33_N_START>0
THEN OB33_N_START:=OB33_N_START-1; END_IF;
IF
OB34_N_START>0
THEN OB34_N_START:=OB34_N_START-1; END_IF;
IF
OB35_N_START>0
THEN OB35_N_START:=OB35_N_START-1; END_IF;
IF
OB36_N_START>0
THEN OB36_N_START:=OB36_N_START-1; END_IF;
IF
OB37_N_START>0
THEN OB37_N_START:=OB37_N_START-1; END_IF;
IF
OB38_N_START>0
THEN OB38_N_START:=OB38_N_START-1; END_IF;
ELSE
CPU_RT_DATA.EMERGENCY_MODE:=false;
END_IF;
END_IF;
IF
siRUNUPCNT>0
THEN
siRUNUPCNT:=siRUNUPCNT-1;
END_IF;
N_OB1_CYC:=sNumOB1Cyc;
sNumOB1Cyc:=0;
siTemp[60]:=0;
FOR x:=30 TO 38 BY 1 DO
siTemp[60]:=siTemp[60]+siTemp[x];
siTemp[x]:=0;
END_FOR;
IF
siTemp[60]=0 THEN
CPU_RT_DATA.REQUEST_ERR:=false;
END_IF;
END_IF;
ELSE
IF siRUNUPCNT=0 THEN
CASE BYTE_TO_INT(TOP_SI.NUM)
OF
30 :
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
30 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet30 // Runtime of the most recent execution
,LAST_ET :=
siGRO30 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET30CUR:=DINT_TO_REAL(siNet30)/1000.0;
GRO30CUR:=DINT_TO_REAL(siGRO30)/1000.0;
EXC_FR30:=sOBExcFreq[30];
sNET30CurrPer:=NET30CUR/EXC_FR30*100.0;
IF NOT RESET THEN
srTemp1:=(NET30CUR-NET30AV)/s30AVCounter+NET30AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET30AV:=srTemp1;
END_IF;
srTemp1:=(GRO30CUR-GRO30AV)/s30AVCounter+GRO30AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO30AV:=srTemp1;
END_IF;
IF
s30AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR30
THEN
s30AVCounter:=s30AVCounter+1;
END_IF;
NET30PER:=NET30AV/EXC_FR30*100.0;
GRO30PER:=GRO30AV/EXC_FR30*100.0;
END_IF;
srTemp1:=(NET30CUR/EXC_FR30*100.0-srNET30AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR30)+
srNET30AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET30AVPerIntern:=srTemp1; END_IF;
IF
NET30CUR>NET30MAX THEN NET30MAX:=NET30CUR;
END_IF;
IF
NET30CUR<NET30MIN THEN NET30MIN:=NET30CUR;
END_IF;
IF
GRO30CUR>GRO30MAX THEN GRO30MAX:=GRO30CUR;
END_IF;
IF
GRO30CUR<GRO30MIN THEN GRO30MIN:=GRO30CUR;
END_IF;
31:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
31 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet31 // Runtime of the most recent execution
,LAST_ET :=
siGRO31 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET31CUR:=DINT_TO_REAL(siNet31)/1000.0;
GRO31CUR:=DINT_TO_REAL(siGRO31)/1000.0;
EXC_FR31:=sOBExcFreq[31];
sNET31CurrPer:=NET31CUR/EXC_FR31*100.0;
IF NOT RESET THEN
srTemp1:=(NET31CUR-NET31AV)/s31AVCounter+NET31AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET31AV:=srTemp1;
END_IF;
srTemp1:=(GRO31CUR-GRO31AV)/s31AVCounter+GRO31AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO31AV:=srTemp1;
END_IF;
IF
s31AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR31
THEN
s31AVCounter:=s31AVCounter+1;
END_IF;
NET31PER:=NET31AV/EXC_FR31*100.0;
GRO31PER:=GRO31AV/EXC_FR31*100.0;
END_IF;
srTemp1:=(NET31CUR/EXC_FR31*100.0-srNET31AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR31)+
srNET31AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET31AVPerIntern:=srTemp1; END_IF;
IF
NET31CUR>NET31MAX THEN NET31MAX:=NET31CUR;
END_IF;
IF
NET31CUR<NET31MIN THEN NET31MIN:=NET31CUR;
END_IF;
IF
GRO31CUR>GRO31MAX THEN GRO31MAX:=GRO31CUR;
END_IF;
IF
GRO31CUR<GRO31MIN THEN GRO31MIN:=GRO31CUR;
END_IF;
32:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
32 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet32 // Runtime of the most recent execution
,LAST_ET :=
siGRO32 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET32CUR:=DINT_TO_REAL(siNet32)/1000.0;
GRO32CUR:=DINT_TO_REAL(siGRO32)/1000.0;
EXC_FR32:=sOBExcFreq[32];
sNET32CurrPer:=NET32CUR/EXC_FR32*100.0;
IF NOT RESET THEN
srTemp1:=(NET32CUR-NET32AV)/s32AVCounter+NET32AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET32AV:=srTemp1;
END_IF;
srTemp1:=(GRO32CUR-GRO32AV)/s32AVCounter+GRO32AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO32AV:=srTemp1;
END_IF;
IF
s32AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR32
THEN
s32AVCounter:=s32AVCounter+1;
END_IF;
NET32PER:=NET32AV/EXC_FR32*100.0;
GRO32PER:=GRO32AV/EXC_FR32*100.0;
END_IF;
srTemp1:=(NET32CUR/EXC_FR32*100.0-srNET32AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR32)+
srNET32AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET32AVPerIntern:=srTemp1; END_IF;
IF
NET32CUR>NET32MAX THEN NET32MAX:=NET32CUR;
END_IF;
IF
NET32CUR<NET32MIN THEN NET32MIN:=NET32CUR;
END_IF;
IF
GRO32CUR>GRO32MAX THEN GRO32MAX:=GRO32CUR;
END_IF;
IF
GRO32CUR<GRO32MIN THEN GRO32MIN:=GRO32CUR;
END_IF;
33:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
33 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet33 // Runtime of the most recent execution
,LAST_ET :=
siGRO33 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET33CUR:=DINT_TO_REAL(siNet33)/1000.0;
GRO33CUR:=DINT_TO_REAL(siGRO33)/1000.0;
EXC_FR33:=sOBExcFreq[33];
sNET33CurrPer:=NET33CUR/EXC_FR33*100.0;
IF NOT RESET THEN
srTemp1:=(NET33CUR-NET33AV)/s33AVCounter+NET33AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET33AV:=srTemp1;
END_IF;
srTemp1:=(GRO33CUR-GRO33AV)/s33AVCounter+GRO33AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO33AV:=srTemp1;
END_IF;
IF
s33AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR33
THEN
s33AVCounter:=s33AVCounter+1;
END_IF;
NET33PER:=NET33AV/EXC_FR33*100.0;
GRO33PER:=GRO33AV/EXC_FR33*100.0;
END_IF;
srTemp1:=(NET33CUR/EXC_FR33*100.0-srNET33AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR33)+
srNET33AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET33AVPerIntern:=srTemp1; END_IF;
IF
NET33CUR>NET33MAX THEN NET33MAX:=NET33CUR;
END_IF;
IF
NET33CUR<NET33MIN THEN NET33MIN:=NET33CUR;
END_IF;
IF
GRO33CUR>GRO33MAX THEN GRO33MAX:=GRO33CUR;
END_IF;
IF
GRO33CUR<GRO33MIN THEN GRO33MIN:=GRO33CUR;
END_IF;
34:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
34 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet34 // Runtime of the most recent execution
,LAST_ET :=
siGRO34 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET34CUR:=DINT_TO_REAL(siNet34)/1000.0;
GRO34CUR:=DINT_TO_REAL(siGRO34)/1000.0;
EXC_FR34:=sOBExcFreq[34];
sNET34CurrPer:=NET34CUR/EXC_FR34*100.0;
IF NOT RESET THEN
srTemp1:=(NET34CUR-NET34AV)/s34AVCounter+NET34AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET34AV:=srTemp1;
END_IF;
srTemp1:=(GRO34CUR-GRO34AV)/s34AVCounter+GRO34AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO34AV:=srTemp1;
END_IF;
IF
s34AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR34
THEN
s34AVCounter:=s34AVCounter+1;
END_IF;
NET34PER:=NET34AV/EXC_FR34*100.0;
GRO34PER:=GRO34AV/EXC_FR34*100.0;
END_IF;
srTemp1:=(NET34CUR/EXC_FR34*100.0-srNET34AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR34)+
srNET34AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET34AVPerIntern:=srTemp1; END_IF;
IF
NET34CUR>NET34MAX THEN NET34MAX:=NET34CUR;
END_IF;
IF
NET34CUR<NET34MIN THEN NET34MIN:=NET34CUR;
END_IF;
IF
GRO34CUR>GRO34MAX THEN GRO34MAX:=GRO34CUR;
END_IF;
IF
GRO34CUR<GRO34MIN THEN GRO34MIN:=GRO34CUR;
END_IF;
35:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
35 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet35 // Runtime of the most recent execution
,LAST_ET :=
siGRO35 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET35CUR:=DINT_TO_REAL(siNet35)/1000.0;
GRO35CUR:=DINT_TO_REAL(siGRO35)/1000.0;
EXC_FR35:=sOBExcFreq[35];
sNET35CurrPer:=NET35CUR/EXC_FR35*100.0;
IF NOT RESET THEN
srTemp1:=(NET35CUR-NET35AV)/s35AVCounter+NET35AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET35AV:=srTemp1;
END_IF;
srTemp1:=(GRO35CUR-GRO35AV)/s35AVCounter+GRO35AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO35AV:=srTemp1;
END_IF;
IF
s35AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR35
THEN
s35AVCounter:=s35AVCounter+1;
END_IF;
NET35PER:=NET35AV/EXC_FR35*100.0;
GRO35PER:=GRO35AV/EXC_FR35*100.0;
END_IF;
srTemp1:=(NET35CUR/EXC_FR35*100.0-srNET35AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR35)+
srNET35AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET35AVPerIntern:=srTemp1; END_IF;
IF
NET35CUR>NET35MAX THEN NET35MAX:=NET35CUR;
END_IF;
IF
NET35CUR<NET35MIN THEN NET35MIN:=NET35CUR;
END_IF;
IF
GRO35CUR>GRO35MAX THEN GRO35MAX:=GRO35CUR;
END_IF;
IF
GRO35CUR<GRO35MIN THEN GRO35MIN:=GRO35CUR;
END_IF;
36:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
36 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet36 // Runtime of the most recent execution
,LAST_ET :=
siGRO36 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET36CUR:=DINT_TO_REAL(siNet36)/1000.0;
GRO36CUR:=DINT_TO_REAL(siGRO36)/1000.0;
EXC_FR36:=sOBExcFreq[36];
sNET36CurrPer:=NET36CUR/EXC_FR36*100.0;
IF NOT RESET THEN
srTemp1:=(NET36CUR-NET36AV)/s36AVCounter+NET36AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET36AV:=srTemp1;
END_IF;
srTemp1:=(GRO36CUR-GRO36AV)/s36AVCounter+GRO36AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO36AV:=srTemp1;
END_IF;
IF
s36AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR36
THEN
s36AVCounter:=s36AVCounter+1;
END_IF;
NET36PER:=NET36AV/EXC_FR36*100.0;
GRO36PER:=GRO36AV/EXC_FR36*100.0;
END_IF;
srTemp1:=(NET36CUR/EXC_FR36*100.0-srNET36AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR36)+
srNET36AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET36AVPerIntern:=srTemp1; END_IF;
IF
NET36CUR>NET36MAX THEN NET36MAX:=NET36CUR;
END_IF;
IF
NET36CUR<NET36MIN THEN NET36MIN:=NET36CUR;
END_IF;
IF
GRO36CUR>GRO36MAX THEN GRO36MAX:=GRO36CUR;
END_IF;
IF
GRO36CUR<GRO36MIN THEN GRO36MIN:=GRO36CUR;
END_IF;
37:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
37 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet37 // Runtime of the most recent execution
,LAST_ET :=
siGRO37 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET37CUR:=DINT_TO_REAL(siNet37)/1000.0;
GRO37CUR:=DINT_TO_REAL(siGRO37)/1000.0;
EXC_FR37:=sOBExcFreq[37];
sNET37CurrPer:=NET37CUR/EXC_FR37*100.0;
IF NOT RESET THEN
srTemp1:=(NET37CUR-NET37AV)/s37AVCounter+NET37AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET37AV:=srTemp1;
END_IF;
srTemp1:=(GRO37CUR-GRO37AV)/s37AVCounter+GRO37AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO37AV:=srTemp1;
END_IF;
IF
s37AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR37
THEN
s37AVCounter:=s37AVCounter+1;
END_IF;
NET37PER:=NET37AV/EXC_FR37*100.0;
GRO37PER:=GRO37AV/EXC_FR37*100.0;
END_IF;
srTemp1:=(NET37CUR/EXC_FR37*100.0-srNET37AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR37)+
srNET37AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET37AVPerIntern:=srTemp1; END_IF;
IF
NET37CUR>NET37MAX THEN NET37MAX:=NET37CUR;
END_IF;
IF
NET37CUR<NET37MIN THEN NET37MIN:=NET37CUR;
END_IF;
IF
GRO37CUR>GRO37MAX THEN GRO37MAX:=GRO37CUR;
END_IF;
IF
GRO37CUR<GRO37MIN THEN GRO37MIN:=GRO37CUR;
END_IF;
38:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
38 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet38 // Runtime of the most recent execution
,LAST_ET :=
siGRO38 // Time between the call and the end of
execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
NET38CUR:=DINT_TO_REAL(siNet38)/1000.0;
GRO38CUR:=DINT_TO_REAL(siGRO38)/1000.0;
EXC_FR38:=sOBExcFreq[38];
sNET38CurrPer:=NET38CUR/EXC_FR38*100.0;
IF NOT RESET THEN
srTemp1:=(NET38CUR-NET38AV)/s38AVCounter+NET38AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET38AV:=srTemp1;
END_IF;
srTemp1:=(GRO38CUR-GRO38AV)/s38AVCounter+GRO38AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN GRO38AV:=srTemp1;
END_IF;
IF
s38AVCounter<sSlowestOBExcFreq*SAMPLE_AV/EXC_FR38
THEN
s38AVCounter:=s38AVCounter+1;
END_IF;
NET38PER:=NET38AV/EXC_FR38*100.0;
GRO38PER:=GRO38AV/EXC_FR38*100.0;
END_IF;
srTemp1:=(NET38CUR/EXC_FR38*100.0-srNET38AVPerIntern)/
(sSlowestOBExcFreq*SAMPLE_RE/EXC_FR38)+
srNET38AVPerIntern;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET38AVPerIntern:=srTemp1; END_IF;
IF
NET38CUR>NET38MAX THEN NET38MAX:=NET38CUR;
END_IF;
IF
NET38CUR<NET38MIN THEN NET38MIN:=NET38CUR;
END_IF;
IF
GRO38CUR>GRO38MAX THEN GRO38MAX:=GRO38CUR;
END_IF;
IF
GRO38CUR<GRO38MIN THEN GRO38MIN:=GRO38CUR;
END_IF;
1:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
01 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet01 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
IF
N_OB1_CYC>0
AND sbNET01Merker THEN
NET01CUR:=srNET01Sample/N_OB1_CYC;
sNET01CurrPer:=NET01CUR/sSlowestOBExcFreq*100.0;
srNET01Sample:=0.0;
sbNET01Merker:=false;
IF
NOT RESET THEN
srTemp1:=(NET01CUR-NET01AV)/s01AVCounter+NET01AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET01AV:=srTemp1;
END_IF;
IF
s01AVCounter<SAMPLE_AV THEN
s01AVCounter:=s01AVCounter+1;
END_IF;
NET01PER:=NET01AV/sSlowestOBExcFreq*100.0;
END_IF;
IF
NET01CUR>NET01MAX THEN NET01MAX:=NET01CUR;
END_IF;
IF
NET01CUR<NET01MIN THEN NET01MIN:=NET01CUR;
END_IF;
ELSE
srTemp1:=DINT_TO_REAL(siNet01)/1000.0+srNET01Sample;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN srNET01Sample:=srTemp1; END_IF;
END_IF;
81:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
81 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet81 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
siTemp_real[1]:=DINT_TO_REAL(siNet81)/1000.0+siTemp_real[1];
sNET81CurrPer:=siTemp_real[1]/sSlowestOBExcFreq*100.0+sNET81CurrPer;
IF
siTemp_real[1]>NET81MAX
THEN NET81MAX:=siTemp_real[1]; END_IF;
82:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
82 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet82 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
siTemp_real[2]:=DINT_TO_REAL(siNet82)/1000.0+siTemp_real[2];
sNET82CurrPer:=siTemp_real[2]/sSlowestOBExcFreq*100.0+sNET82CurrPer;
IF
siTemp_real[2]>NET82MAX
THEN NET82MAX:=siTemp_real[2]; END_IF;
83:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
83 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet83 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
siTemp_real[3]:=DINT_TO_REAL(siNet83)/1000.0+siTemp_real[3];
sNET83CurrPer:=siTemp_real[3]/sSlowestOBExcFreq*100.0+sNET83CurrPer;
IF
siTemp_real[3]>NET83MAX
THEN NET83MAX:=siTemp_real[3]; END_IF;
84:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
84 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet84 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] // time-to-go
between the actual time and the time of execution
);
siTemp_real[4]:=DINT_TO_REAL(siNet84)/1000.0+siTemp_real[4];
sNET84CurrPer:=siTemp_real[4]/sSlowestOBExcFreq*100.0+sNET84CurrPer;
IF
siTemp_real[4]>NET84MAX
THEN NET84MAX:=siTemp_real[4]; END_IF;
85:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
85 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet85 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
siTemp_real[5]:=DINT_TO_REAL(siNet85)/1000.0+siTemp_real[5];
sNET85CurrPer:=siTemp_real[5]/sSlowestOBExcFreq*100.0+sNET85CurrPer;
IF
siTemp_real[5]>NET85MAX
THEN NET85MAX:=siTemp_real[5]; END_IF;
86:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
86 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet86 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
siTemp_real[6]:=DINT_TO_REAL(siNet86)/1000.0+siTemp_real[6];
sNET86CurrPer:=siTemp_real[6]/sSlowestOBExcFreq*100.0+sNET86CurrPer;
IF
siTemp_real[6]>NET86MAX
THEN NET86MAX:=siTemp_real[6]; END_IF;
87:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
87 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet87 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
siTemp_real[7]:=DINT_TO_REAL(siNet87)/1000.0+siTemp_real[7];
sNET87CurrPer:=siTemp_real[7]/sSlowestOBExcFreq*100.0+sNET87CurrPer;
IF
siTemp_real[7]>NET87MAX
THEN NET87MAX:=siTemp_real[7]; END_IF;
88:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
88 // OB whose
last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNet88 // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] //
time-to-go between the actual time and the time of execution
);
siTemp_real[8]:=DINT_TO_REAL(siNet88)/1000.0+siTemp_real[8];
sNET88CurrPer:=siTemp_real[8]/sSlowestOBExcFreq*100.0+sNET88CurrPer;
IF
siTemp_real[8]>NET88MAX
THEN NET88MAX:=siTemp_real[8]; END_IF;
40..47:
RETURN_CODE:=OB_RT(
// Determining the OB Program Runtime
OB_NR :=
BYTE_TO_INT(TOP_SI.NUM)
// OB whose last evaluated times are to be queried.
,PRIO :=
y // The priority class of the queried OB is output in
PRIO
,LAST_RT :=
siNetXX // Runtime of the most recent execution
,LAST_ET :=
siTemp[24] // Time
between the call and the end of execution
,CUR_T :=
siTemp[25] // Time
of the OB request
,CUR_RT :=
siTemp[26] //
Expired execution runtime
,CUR_ET :=
siTemp[27] // Time
expired
,NEXT_ET :=
siTemp[28] // time-to-go
between the actual time and the time of execution
);
siTemp_real[0]:=DINT_TO_REAL(siNetXX)/1000.0+siTemp_real[0];
sNETXXCurrPer:=siTemp_real[0]/sSlowestOBExcFreq*100.0+sNETXXCurrPer;
IF
siTemp_real[0]>NETXXMAX
THEN NETXXMAX:=siTemp_real[0]; END_IF;
END_CASE;
END_IF;
IF TOP_SI.NUM=sSlowestOB THEN
NET81CUR:=siTemp_real[1];
siTemp_real[1]:=0.0;
IF NOT RESET THEN
srTemp1:=(NET81CUR-NET81AV)/s81AVCounter+NET81AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET81AV:=srTemp1;
END_IF;
IF
s81AVCounter<SAMPLE_AV THEN
s81AVCounter:=s81AVCounter+1;
END_IF;
NET81PER:=NET81AV/sSlowestOBExcFreq*100.0;
END_IF;
NET82CUR:=siTemp_real[2];
siTemp_real[2]:=0.0;
IF NOT RESET THEN
srTemp1:=(NET82CUR-NET82AV)/s82AVCounter+NET82AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET82AV:=srTemp1;
END_IF;
IF
s82AVCounter<SAMPLE_AV THEN
s82AVCounter:=s82AVCounter+1;
END_IF;
NET82PER:=NET82AV/sSlowestOBExcFreq*100.0;
END_IF;
NET83CUR:=siTemp_real[3];
siTemp_real[3]:=0.0;
IF NOT RESET THEN
srTemp1:=NET83AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET83AV:=srTemp1;
END_IF;
IF
s83AVCounter<SAMPLE_AV THEN
s83AVCounter:=s83AVCounter+1;
END_IF;
NET83PER:=NET83AV/sSlowestOBExcFreq*100.0;
END_IF;
NET84CUR:=siTemp_real[4];
siTemp_real[4]:=0.0;
IF NOT RESET THEN
srTemp1:=(NET84CUR-NET84AV)/s84AVCounter+NET84AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET84AV:=srTemp1;
END_IF;
IF
s84AVCounter<SAMPLE_AV THEN
s84AVCounter:=s84AVCounter+1;
END_IF;
NET84PER:=NET84AV/sSlowestOBExcFreq*100.0;
END_IF;
NET85CUR:=siTemp_real[5];
siTemp_real[5]:=0.0;
IF NOT RESET THEN
srTemp1:=(NET85CUR-NET85AV)/s85AVCounter+NET85AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET85AV:=srTemp1;
END_IF;
IF
s85AVCounter<SAMPLE_AV THEN
s85AVCounter:=s85AVCounter+1;
END_IF;
NET85PER:=NET85AV/sSlowestOBExcFreq*100.0;
END_IF;
NET86CUR:=siTemp_real[6];
siTemp_real[6]:=0.0;
IF NOT RESET THEN
srTemp1:=(NET86CUR-NET86AV)/s86AVCounter+NET86AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET86AV:=srTemp1;
END_IF;
IF
s86AVCounter<SAMPLE_AV THEN
s86AVCounter:=s86AVCounter+1;
END_IF;
NET86PER:=NET86AV/sSlowestOBExcFreq*100.0;
END_IF;
NET87CUR:=siTemp_real[7];
siTemp_real[7]:=0.0;
IF NOT RESET THEN
srTemp1:=(NET87CUR-NET87AV)/s87AVCounter+NET87AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET87AV:=srTemp1;
END_IF;
IF
s87AVCounter<SAMPLE_AV THEN
s87AVCounter:=s87AVCounter+1;
END_IF;
NET87PER:=NET87AV/sSlowestOBExcFreq*100.0;
END_IF;
NET88CUR:=siTemp_real[8];
siTemp_real[8]:=0.0;
IF NOT RESET THEN
srTemp1:=(NET88CUR-NET88AV)/s88AVCounter+NET88AV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NET88AV:=srTemp1;
END_IF;
IF
s88AVCounter<SAMPLE_AV THEN
s88AVCounter:=s88AVCounter+1;
END_IF;
NET88PER:=NET88AV/sSlowestOBExcFreq*100.0;
END_IF;
NETXXCUR:=siTemp_real[0];
siTemp_real[0]:=0.0;
IF NOT RESET THEN
srTemp1:=(NETXXCUR-NETXXAV)/sXXAVCounter+NETXXAV;
srTemp1:=ChkREAL(In
:= srTemp1,ErrNum :=
ERR );
IF
ERR<>3
THEN NETXXAV:=srTemp1;
END_IF;
IF
sXXAVCounter<SAMPLE_AV THEN
sXXAVCounter:=sXXAVCounter+1;
END_IF;
NETXXPER:=NETXXAV/sSlowestOBExcFreq*100.0;
END_IF;
IF
OB30_N_START>0
THEN
srNETAccuPerIntern:=(OB30_N_START+1.0)*srNET30AVPerIntern/OB30_N_START;
ELSE
srNETAccuPerIntern:=srNET30AVPerIntern;
END_IF;
IF
OB31_N_START>0
THEN
srNETAccuPerIntern:=(OB31_N_START+1.0)*srNET31AVPerIntern/OB31_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET31AVPerIntern;
END_IF;
IF
OB32_N_START>0
THEN
srNETAccuPerIntern:=(OB32_N_START+1.0)*srNET32AVPerIntern/OB32_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET32AVPerIntern;
END_IF;
IF
OB33_N_START>0
THEN
srNETAccuPerIntern:=(OB33_N_START+1.0)*srNET33AVPerIntern/OB33_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET33AVPerIntern;
END_IF;
IF
OB34_N_START>0
THEN
srNETAccuPerIntern:=(OB34_N_START+1.0)*srNET34AVPerIntern/OB34_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET34AVPerIntern;
END_IF;
IF
OB35_N_START>0
THEN
srNETAccuPerIntern:=(OB35_N_START+1.0)*srNET35AVPerIntern/OB35_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET35AVPerIntern;
END_IF;
IF
OB36_N_START>0
THEN
srNETAccuPerIntern:=(OB36_N_START+1.0)*srNET36AVPerIntern/OB36_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET36AVPerIntern;
END_IF;
IF
OB37_N_START>0
THEN
srNETAccuPerIntern:=(OB37_N_START+1.0)*srNET37AVPerIntern/OB37_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET37AVPerIntern;
END_IF;
IF
OB38_N_START>0
THEN
srNETAccuPerIntern:=(OB38_N_START+1.0)*srNET38AVPerIntern/OB38_N_START+srNETAccuPerIntern;
ELSE
srNETAccuPerIntern:=srNETAccuPerIntern+srNET38AVPerIntern;
END_IF;
IF
srNETAccuPerIntern+NET01PER<MAX_VAL THEN
siTemp[17]:=siTemp[17]+1;
IF
siTemp[17]>=UNDO_CYC
THEN
siTemp[17]:=0;
IF
OB30_N_START>1
OR
OB31_N_START>1 OR
OB32_N_START>1 OR
OB33_N_START>1 OR
OB34_N_START>1 OR
OB35_N_START>1 OR
OB36_N_START>1 OR
OB37_N_START>1 OR
OB38_N_START>1
THEN
IF
siTemp[20]>3 THEN
siTemp[20]:=siTemp[20]-1;
END_IF;
IF
IDLE_CYC>1
THEN
IDLE_CYC:=IDLE_CYC-1;
END_IF;
IF
OB30_N_START>1
THEN OB30_N_START:=OB30_N_START-1; END_IF;
IF
OB31_N_START>1
THEN OB31_N_START:=OB31_N_START-1; END_IF;
IF
OB32_N_START>1
THEN OB32_N_START:=OB32_N_START-1; END_IF;
IF
OB33_N_START>1
THEN OB33_N_START:=OB33_N_START-1; END_IF;
IF
OB34_N_START>1
THEN OB34_N_START:=OB34_N_START-1; END_IF;
IF
OB35_N_START>1
THEN OB35_N_START:=OB35_N_START-1; END_IF;
IF
OB36_N_START>1
THEN OB36_N_START:=OB36_N_START-1; END_IF;
IF
OB37_N_START>1
THEN OB37_N_START:=OB37_N_START-1; END_IF;
IF
OB38_N_START>1
THEN OB38_N_START:=OB38_N_START-1; END_IF;
ELSIF
(NOT OB30_ATTN AND
OB30_N_START>0)
OR
(NOT
OB31_ATTN AND OB31_N_START>0) OR
(NOT
OB32_ATTN AND OB32_N_START>0) OR
(NOT
OB33_ATTN AND OB33_N_START>0) OR
(NOT
OB34_ATTN AND OB34_N_START>0) OR
(NOT
OB35_ATTN AND OB35_N_START>0) OR
(NOT
OB36_ATTN AND OB36_N_START>0) OR
(NOT
OB37_ATTN AND OB37_N_START>0) OR
(NOT
OB38_ATTN AND OB38_N_START>0)
THEN
IF
siTemp[20]>2 THEN
siTemp[20]:=siTemp[20]-1; END_IF;
IF
NOT OB30_ATTN AND
OB30_N_START>0
THEN OB30_N_START:=OB30_N_START-1; END_IF;
IF
NOT OB31_ATTN AND
OB31_N_START>0
THEN OB31_N_START:=OB31_N_START-1; END_IF;
IF
NOT OB32_ATTN AND
OB32_N_START>0
THEN OB32_N_START:=OB32_N_START-1; END_IF;
IF
NOT OB33_ATTN AND
OB33_N_START>0
THEN OB33_N_START:=OB33_N_START-1; END_IF;
IF
NOT OB34_ATTN AND
OB34_N_START>0
THEN OB34_N_START:=OB34_N_START-1; END_IF;
IF
NOT OB35_ATTN AND
OB35_N_START>0
THEN OB35_N_START:=OB35_N_START-1; END_IF;
IF
NOT OB36_ATTN AND
OB36_N_START>0
THEN OB36_N_START:=OB36_N_START-1; END_IF;
IF
NOT OB37_ATTN AND
OB37_N_START>0
THEN OB37_N_START:=OB37_N_START-1; END_IF;
IF
NOT OB38_ATTN AND
OB38_N_START>0
THEN OB38_N_START:=OB38_N_START-1; END_IF;
ELSIF
OB30_N_START>0
OR
OB31_N_START>0 OR
OB32_N_START>0 OR
OB33_N_START>0 OR
OB34_N_START>0 OR
OB35_N_START>0 OR
OB36_N_START>0 OR
OB37_N_START>0 OR
OB38_N_START>0
THEN
IF
siTemp[20]>1 THEN
siTemp[20]:=siTemp[20]-1; END_IF;
IF
IDLE_CYC>0
THEN IDLE_CYC:=IDLE_CYC-1; END_IF;
IF
OB30_N_START>0
THEN OB30_N_START:=OB30_N_START-1; END_IF;
IF
OB31_N_START>0
THEN OB31_N_START:=OB31_N_START-1; END_IF;
IF
OB32_N_START>0
THEN OB32_N_START:=OB32_N_START-1; END_IF;
IF
OB33_N_START>0
THEN OB33_N_START:=OB33_N_START-1; END_IF;
IF
OB34_N_START>0
THEN OB34_N_START:=OB34_N_START-1; END_IF;
IF
OB35_N_START>0
THEN OB35_N_START:=OB35_N_START-1; END_IF;
IF
OB36_N_START>0
THEN OB36_N_START:=OB36_N_START-1; END_IF;
IF
OB37_N_START>0
THEN OB37_N_START:=OB37_N_START-1; END_IF;
IF
OB38_N_START>0
THEN OB38_N_START:=OB38_N_START-1; END_IF;
ELSE
CPU_RT_DATA.EMERGENCY_MODE:=false;
siTemp[20]:=0;
END_IF;
END_IF;
ELSE
siTemp[17]:=0;
END_IF;
IF
siRUNUPCNT>0
THEN siRUNUPCNT:=siRUNUPCNT-1; END_IF;
N_OB1_CYC:=sNumOB1Cyc;
sNumOB1Cyc:=0;
sbNET01Merker:=true;
siTemp[60]:=0;
FOR x:=30 TO 38 BY 1 DO
siTemp[60]:=siTemp[60]+siTemp[x];
siTemp[x]:=0;
END_FOR;
IF
siTemp[60]=0 THEN
CPU_RT_DATA.REQUEST_ERR:=false; END_IF;
IF
CPU_RT_DATA.EMERGENCY_MODE THEN
TOTALCUR:=NET30PER+
NET31PER+
NET32PER+
NET33PER+
NET34PER+
NET35PER+
NET36PER+
NET37PER+
NET38PER+
NET81PER+
NET82PER+
NET83PER+
NET84PER+
NET85PER+
NET86PER+
NET87PER+
NET88PER+
NET01PER+
NETXXPER;
ELSE
TOTALCUR:=sNET30CurrPer+
sNET31CurrPer+
sNET32CurrPer+
sNET33CurrPer+
sNET34CurrPer+
sNET35CurrPer+
sNET36CurrPer+
sNET37CurrPer+
sNET38CurrPer+
sNET81CurrPer+
sNET82CurrPer+
sNET83CurrPer+
sNET84CurrPer+
sNET85CurrPer+
sNET86CurrPer+
sNET87CurrPer+
sNET88CurrPer+
sNET01CurrPer+
sNETXXCurrPer;
END_IF;
IF
TOTALCUR>100.0
THEN TOTALCUR:=100.0; END_IF;
sTotalCurrPer:=sNET30CurrPer+
sNET31CurrPer+
sNET32CurrPer+
sNET33CurrPer+
sNET34CurrPer+
sNET35CurrPer+
sNET36CurrPer+
sNET37CurrPer+
sNET38CurrPer+
sNET81CurrPer+
sNET82CurrPer+
sNET83CurrPer+
sNET84CurrPer+
sNET85CurrPer+
sNET86CurrPer+
sNET87CurrPer+
sNET88CurrPer+
sNET01CurrPer+
sNETXXCurrPer;
IF
sTotalCurrPer>100.0
THEN sTotalCurrPer:=100.0; END_IF;
sNET81CurrPer:=0.0;
sNET82CurrPer:=0.0;
sNET83CurrPer:=0.0;
sNET84CurrPer:=0.0;
sNET85CurrPer:=0.0;
sNET86CurrPer:=0.0;
sNET87CurrPer:=0.0;
sNET88CurrPer:=0.0;
sNETXXCurrPer:=0.0;
IF
CPU_RT_DATA.EMERGENCY_MODE THEN
TOTALMAX:=100.0;
ELSE
IF
sTotalCurrPer>TOTALMAX THEN
TOTALMAX:=sTotalCurrPer;
END_IF;
END_IF;
IF
sTotalCurrPer<TOTALMIN THEN TOTALMIN:=sTotalCurrPer;
END_IF;
IF NOT RESET THEN
TOTALAV:=(TOTALCUR-TOTALAV)/sTotalAVCounter+TOTALAV;
IF
sTotalAVCounter<SAMPLE_AV THEN sTotalAVCounter:=sTotalAVCounter+1; END_IF;
END_IF;
IF
TOTALCUR>MAX_LIM THEN CPU_RT_DATA.MAX_LIM:=true; END_IF;
IF
TOTALCUR<(MAX_LIM-HYS)
THEN CPU_RT_DATA.MAX_LIM:=false; END_IF;
END_IF;
END_IF;
IF TOP_SI.NUM=B#16#50 THEN
IF TOP_SI.EV_NUM=B#16#2 THEN
siTemp[BYTE_TO_INT(TOP_SI.ZI5)]:=siTemp[BYTE_TO_INT(TOP_SI.ZI5)]+1;
IF
siTemp[BYTE_TO_INT(TOP_SI.ZI5)]>N_REQ_ERR
THEN
CPU_RT_DATA.REQUEST_ERR:=true;
CPU_RT_DATA.OB_NUM:=TOP_SI.ZI5;
END_IF;
CASE BYTE_TO_INT(TOP_SI.ZI5)
OF
30:
REQ30ERR:=true;
31:
REQ31ERR:=true;
32:
REQ32ERR:=true;
33:
REQ33ERR:=true;
34:
REQ34ERR:=true;
35:
REQ35ERR:=true;
36:
REQ36ERR:=true;
37:
REQ37ERR:=true;
38:
REQ38ERR:=true;
END_CASE;
END_IF;
IF MAX_RTRG>0 AND (SFC78_EX OR
sDataPlausible) THEN
IF TOP_SI.EV_NUM=B#16#1 THEN
siTemp[21]:=siTemp[21]+1;
REQ01ERR:=true;
IF
siTemp[21]<MAX_RTRG
THEN
RE_TRIGR(); //
Re-triggering Cycle Time Monitoring
END_IF;
IF
siTemp[21]>1 THEN
CPU_RT_DATA.EMERGENCY_MODE:=true;
IF
siTemp[21]>siTemp[20] THEN
siTemp[20]:=siTemp[21]; END_IF;
IF
siTemp[20]=2 THEN
IDLE_CYC:=1;
IF
sOBExcFreq[30]>0 AND OB30_ATTN THEN OB30_N_START:=1; END_IF;
IF
sOBExcFreq[31]>0 AND OB31_ATTN THEN OB31_N_START:=1; END_IF;
IF
sOBExcFreq[32]>0 AND OB32_ATTN THEN OB32_N_START:=1; END_IF;
IF
sOBExcFreq[33]>0 AND OB33_ATTN THEN OB33_N_START:=1; END_IF;
IF
sOBExcFreq[34]>0 AND OB34_ATTN THEN OB34_N_START:=1; END_IF;
IF
sOBExcFreq[35]>0 AND OB35_ATTN THEN OB35_N_START:=1; END_IF;
IF
sOBExcFreq[36]>0 AND OB36_ATTN THEN OB36_N_START:=1; END_IF;
IF
sOBExcFreq[37]>0 AND OB37_ATTN THEN OB37_N_START:=1; END_IF;
IF
sOBExcFreq[38]>0 AND OB38_ATTN THEN OB38_N_START:=1; END_IF;
ELSIF
siTemp[20]=3 THEN
IF
sOBExcFreq[30]>0 THEN
OB30_N_START:=1;
END_IF;
IF
sOBExcFreq[31]>0 THEN
OB31_N_START:=1;
END_IF;
IF
sOBExcFreq[32]>0 THEN
OB32_N_START:=1;
END_IF;
IF
sOBExcFreq[33]>0 THEN
OB33_N_START:=1;
END_IF;
IF
sOBExcFreq[34]>0 THEN
OB34_N_START:=1;
END_IF;
IF
sOBExcFreq[35]>0 THEN
OB35_N_START:=1;
END_IF;
IF
sOBExcFreq[36]>0 THEN
OB36_N_START:=1;
END_IF;
IF
sOBExcFreq[37]>0 THEN
OB37_N_START:=1;
END_IF;
IF
sOBExcFreq[38]>0 THEN
OB38_N_START:=1;
END_IF;
ELSIF
siTemp[20]>3 THEN
IDLE_CYC:=DINT_TO_INT(siTemp[20])+(-2);
IF
sOBExcFreq[30]>0 THEN
OB30_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[31]>0 THEN
OB31_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[32]>0 THEN
OB32_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[33]>0 THEN
OB33_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[34]>0 THEN
OB34_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[35]>0 THEN
OB35_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[36]>0 THEN
OB36_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[37]>0 THEN
OB37_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
IF
sOBExcFreq[38]>0 THEN
OB38_N_START:=DINT_TO_INT(siTemp[20])+(-2); END_IF;
ELSE;
END_IF;
END_IF;
END_IF;
END_IF;
END_IF;
IF TOP_SI.NUM=B#16#1 THEN
IF RESET THEN
NET30AV:=0.0;
GRO30AV:=0.0;
NET30CUR:=0.0;
GRO30CUR:=0.0;
s30AVCounter:=1;
NET30MIN:=(EXC_FR30);
NET30MAX:=0.0;
GRO30MIN:=(EXC_FR30);
GRO30MAX:=0.0;
srNET30AVPerIntern:=0.0;
NET31AV:=0.0;
GRO31AV:=0.0;
NET31CUR:=0.0;
GRO31CUR:=0.0;
s31AVCounter:=1;
NET31MIN:=(EXC_FR31);
NET31MAX:=0.0;
GRO31MIN:=(EXC_FR31);
GRO31MAX:=0.0;
srNET31AVPerIntern:=0.0;
NET32AV:=0.0;
GRO32AV:=0.0;
NET32CUR:=0.0;
GRO32CUR:=0.0;
s32AVCounter:=1;
NET32MIN:=(EXC_FR32);
NET32MAX:=0.0;
GRO32MIN:=(EXC_FR32);
GRO32MAX:=0.0;
srNET32AVPerIntern:=0.0;
NET33AV:=0.0;
GRO33AV:=0.0;
NET33CUR:=0.0;
GRO33CUR:=0.0;
s33AVCounter:=1;
NET33MIN:=(EXC_FR33);
NET33MAX:=0.0;
GRO33MIN:=(EXC_FR33);
GRO33MAX:=0.0;
srNET33AVPerIntern:=0.0;
NET34AV:=0.0;
GRO34AV:=0.0;
NET34CUR:=0.0;
GRO34CUR:=0.0;
s34AVCounter:=1;
NET34MIN:=(EXC_FR34);
NET34MAX:=0.0;
GRO34MIN:=(EXC_FR34);
GRO34MAX:=0.0;
srNET34AVPerIntern:=0.0;
NET35AV:=0.0;
GRO35AV:=0.0;
NET35CUR:=0.0;
GRO35CUR:=0.0;
s35AVCounter:=1;
NET35MIN:=(EXC_FR35);
NET35MAX:=0.0;
GRO35MIN:=(EXC_FR35);
GRO35MAX:=0.0;
srNET35AVPerIntern:=0.0;
NET36AV:=0.0;
GRO36AV:=0.0;
NET36CUR:=0.0;
GRO36CUR:=0.0;
s36AVCounter:=1;
NET36MIN:=(EXC_FR36);
NET36MAX:=0.0;
GRO36MIN:=(EXC_FR36);
GRO36MAX:=0.0;
srNET36AVPerIntern:=0.0;
NET37AV:=0.0;
GRO37AV:=0.0;
NET37CUR:=0.0;
GRO37CUR:=0.0;
s37AVCounter:=1;
NET37MIN:=(EXC_FR37);
NET37MAX:=0.0;
GRO37MIN:=(EXC_FR37);
GRO37MAX:=0.0;
srNET37AVPerIntern:=0.0;
NET38AV:=0.0;
GRO38AV:=0.0;
NET38CUR:=0.0;
GRO38CUR:=0.0;
s38AVCounter:=1;
NET38MIN:=(EXC_FR38);
NET38MAX:=0.0;
GRO38MIN:=(EXC_FR38);
GRO38MAX:=0.0;
srNET38AVPerIntern:=0.0;
NET01AV:=0.0;
s01AVCounter:=1;
NET01MIN:=(MAXCYCTI);
NET01MAX:=0.0;
NET81AV:=0.0;
NET81CUR:=0.0;
s81AVCounter:=1;
NET81MAX:=0.0;
NET82AV:=0.0;
NET82CUR:=0.0;
s82AVCounter:=1;
NET82MAX:=0.0;
NET83AV:=0.0;
NET83CUR:=0.0;
s83AVCounter:=1;
NET83MAX:=0.0;
NET84AV:=0.0;
NET84CUR:=0.0;
s84AVCounter:=1;
NET84MAX:=0.0;
NET85AV:=0.0;
NET85CUR:=0.0;
s85AVCounter:=1;
NET85MAX:=0.0;
NET86AV:=0.0;
NET86CUR:=0.0;
s86AVCounter:=1;
NET86MAX:=0.0;
NET87AV:=0.0;
NET87CUR:=0.0;
s87AVCounter:=1;
NET87MAX:=0.0;
NET88AV:=0.0;
NET88CUR:=0.0;
s88AVCounter:=1;
NET88MAX:=0.0;
NETXXAV:=0.0;
NETXXCUR:=0.0;
sXXAVCounter:=1;
NETXXMAX:=0.0;
TOTALAV:=0.0;
sTotalAVCounter:=1;
TOTALMIN:=100.0;
TOTALMAX:=0.0;
REQ30ERR:=false;
REQ31ERR:=false;
REQ32ERR:=false;
REQ33ERR:=false;
REQ34ERR:=false;
REQ35ERR:=false;
REQ36ERR:=false;
REQ37ERR:=false;
REQ38ERR:=false;
REQ01ERR:=false;
RESET:=false;
END_IF;
siTemp[21]:=0;
sbyASIG0a_bool[3]:=false;
sNumOB1Cyc:=sNumOB1Cyc+1;
END_IF;
END_IF;
END_FUNCTION_BLOCK
Block checksum îðèãèíàëüíîãî è âîññòàíîâëåííîãî áëîêà ñîâïàäàåò.
Áëîê èíòåðåñåí ïðåæäå âñåãî ñâîèì ðàçìåðîì) è òåõíèêîé ïðîãðàììíîãî óïðàâëåíèÿ îðãàíèçàöèîííûìè áëîêàìè.
Îðèãèíàëüíàÿ áèáëèîòåêà PCS7 (BasisLibrary (V8.0) (zip, 1.3Mb)
Äîêóìåíòàöèÿ íà áëîê (PCS 7 Basis Library V8.0 Function Manual, 11/2011) (pdf, 2Mb)
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