Automatic control function programming manual ladder language

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Example 5.2.2.6 Branches It is possible to branch adjacent rungs. A branch is shown as a vertical bar after a contact or rung. 5.2.2.7 Execution of a Test Zone The test zone is scanned from top to bottom and from left to right. On a rung, the potential propagates from left to right and never from right to left (contrary to a circuit diagram where propagation can be in both directions). On a branch, propagation is from bottom to top and top to bottom. 5 - 14 en-938846/3
5.2.3 Structure of the Action Zone 5.2.3.1 General The action zone is located to the right of the ladder. It allows actions to be initiated conditionally according to the logical results of the test zone. Six actions conditioned by the six rungs of the test zone can be initiated in one sequence. There are eight possible types of actions. ACTIONS The six rungs can initiate six actions of the following types: Contact type Description Set the bit to the same logic state as the rung. —( )— Set the bit to the inverse logic state of the rung. —( / )— Programming in Ladder Language If the rung is TRUE, set the bit. Else go to the next action. —( S )— If the rung is TRUE, reset the bit. Else go to the next action. —( R )— {;}7 goto() If the rung is TRUE, execute: call()return(...). - a numerical assignment e.g. %M10.B = %V34+3 —( T )— - a function call e.g. setb (%M100.&, 0, 100) - a jump to an internal label in the module e.g. goto (END) - call to an internal label in the module e.g. call (COPY) - a return to the calling module or call e.g. return (%M10.B) Else go to the next action. {;}7 goto() If the rung is FALSE, then execute: call()return(...). - a numerical assignment e.g. %M10.B = %V34+3 --( F )-- - a function call e.g. setb (%M100.&, 0, 100) - a jump to an internal label in the module e.g. goto (END) - call to an internal label in the module e.g. call (COPY) - a return to the calling module or call e.g. return (%M10.B) Else go to the next action. REMARK Subroutines external to the module (e.g. %SP30) are called by function sp(....). en-938846/3 5 - 15 5
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NUM AUTOMATIC CONTROL FUNCTION PROG
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Table of Contents Table of Contents
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Table of Contents 9 Analogue Inputs
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Record of Revisions Record of Revis
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Date Revision Reason for revisions
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Structure of the NUM 1020/1040/1060
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Automatic Control Function Programm
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CHAPTER 8 TRANSPARENT MODE CHAPTER
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CHAPTER 16 PROGRAMMING IN C LANGUAG
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Use of the Automatic Control Functi
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Presentation of the Automatic Contr
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1.1 General Presentation of the Aut
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AXIS 1 INTERFACE AXIS 2 AXIS 3 AXIS
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µ p 68020 SYSTEM BUS BUS INTERFACE
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Structure of an Application 2 Struc
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2.1 General The machine processor c
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2.1.1.3 «System» I/O Card Refresh
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Operation of the Background Tasks N
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2.1.2.4 Real-Time Tasks Structure o
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2.1.3.2 1060 Series II- UCSII Syste
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2.2 Structure of an Application Str
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2.3 Structure of a Ladder Module -
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Variables 3 Variables 3.1 Principle
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Variables 3.8.2.19 Backward of Forw
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3.1 Principle of Exchanges Variable
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Examples %M9 points to byte 9 of th
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3.7 I/O Card Interface Variables %I
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3.7.3.2 Card Status %Irc3C.W Variab
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A configuration change requires mov
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3.7.5 Physical Organisation of Vari
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3.7.6 Rack and Card Identifiers 3.7
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3.7.8 Image Part of the 32 Discrete
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%Qrc00.0 to %Qrc02.7 %Irc00.0 to %I
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%Qrc03.0 to %Qrc05.7 2nd relay modu
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3.7.12 Image Part of the Extension
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3.7.13 Image Part of the Compact Pa
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3.8 CNC I/O Interface Family %R and
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Variables Variable Mnemonic Descrip
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3.8.1.7 Spindle Status: %R12.W Vari
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3.8.1.10 Other Variables Variables
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3.8.1.13 1050 Servo-Drive Status Wo
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Variable Mnemonic Description %W3.0
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3.8.2.4 Negative JOG Commands: %WA.
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Programme %9999.9 must be structure
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3.8.2.13 Spindle Controls: %W22.W V
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- Select spindle b control: COMBRb
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3.8.2.16 Modes Inhibited: %W30.L Va
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3.8.2.19 Backward of Forward Moveme
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3.8.3 Inputs from the Axis Groups V
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Page 101 and 102: Nonmodal functions A nonmodal funct
Page 103 and 104: Variables Variable M function Defin
Page 105 and 106: 3.8.4 Outputs to the Axis Groups Th
Page 107 and 108: 3.8.5 System Faults and Diagnostic
Page 109 and 110: 3.8.7 Output Card Write Enable: %W9
Page 111 and 112: 3.8.10 Physical Organisation of %R
Page 113 and 114: 3.9.3 Organisation of %S Common Wor
Page 115 and 116: Language element Includes Comment V
Page 117 and 118: B4_ARR B3_ARR B2_ARR B1_ARR B4_ROT
Page 119 and 120: 3.11.3 Output to the CNC CHG_ C_ C-
Page 121 and 122: VER VER VER VER STOP STOP STOP STOP
Page 123 and 124: 3.11.4 PLC-CNC Exchange Area - 1050
Page 125 and 126: M63 M62 M65 M64 %Rg24.7 %Rg24.6 %Rg
Page 127 and 128: Literal Elements of Ladder Language
Page 129 and 130: 4.1 Notations Used The notations us
Page 131 and 132: Literal Elements of Ladder Language
Page 133 and 134: 4.5.5 Order of Evaluation of the Ex
Page 135 and 136: 4.5.8 Overflow - Sign Change Litera
Page 137 and 138: Programming in Ladder Language 5 Pr
Page 139 and 140: 5.1 Elements Common to All Types of
Page 141 and 142: Programming in Ladder Language en-9
Page 143 and 144: 5.2 Network Sequence 5.2.1 General
Page 145 and 146: Example 5.2.2.3 Conditional Actions
Page 147 and 148: Off Timeout «TOF_n» E Q %TQxx.7 T
Page 149: Upcounters E C Q %CQxx.7 Threshold
Page 153 and 154: Pitfall Related to Scanning Program
Page 155 and 156: Invalid Network - Branch without Po
Page 157 and 158: 5.2.7 Programming Hints 5.2.7.1 Opt
Page 159 and 160: Unoptimised Network Optimised Netwo
Page 161 and 162: 5.2.7.4 Testing the Bits of a Byte,
Page 163 and 164: General Purpose Functions 6 General
Page 165 and 166: General Purpose Functions 6.1 Conve
Page 167 and 168: General Purpose Functions 6.3 BCD
Page 169 and 170: General Purpose Functions 6.5 Separ
Page 171 and 172: General Purpose Functions 6.7 Copy
Page 175 and 176: Return code If OK Number of charact
Page 177 and 178: General Purpose Functions 6.14 Simu
Page 179 and 180: General Purpose Functions 6.17 Sear
Page 181 and 182: General Purpose Functions 6.20 Jump
Page 183 and 184: Return code If OK Not significant.
Page 185 and 186: Return code If OK Value returned by
Page 187 and 188: Return code If OK Number of charact
Page 191 and 192: General Purpose Functions 6.34 Swap
Page 193 and 194: General Purpose Functions 6.36 Read
Page 195 and 196: General Purpose Functions 6.38 Init
Page 197 and 198: Task Management 7 Task Management 7
Page 199 and 200: 7.1 Introduction Task Management Fo
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Transparent Mode 8 Transparent Mode
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8.1 Introduction Transparent Mode T
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8.1.4 Character Codes Used by %R0.W
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8.2 Functions Assigned to transpare
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Transparent Mode Operation Sends a
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Example 1 Consider the following va
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Transparent Mode 8.2.7 Open a Numer
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Return code Transparent Mode If OK
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Transparent Mode Operation putimage
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en-938846/7 8 - 19 Transparent Mode
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471 470 89 76 40 0 4 16 COL. 0 A A
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Transparent Mode Description Instru
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8.3.4 Alphanumeric Characters and I
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Format D (Expanded characters) 0x9B
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Example To position the cursor on L
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Definition of a Reference System Ce
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J: «J» [VALUE] Current Y coordina
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8.3.5.8 Shift Screen Origin Instruc
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P2 P1 P1 P2 P1 P2 N1 P3 P1 N6 P0 P0
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! CAUTION Arguments [CLIP], [X] and
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Analogue Inputs/Outputs 9 Analogue
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9.1 General Analogue Inputs/Outputs
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Analogue Inputs/Outputs 9.3 Write a
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Analogue Inputs/Outputs 9.5 Reassig
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Explicit Read/Write of Input/Output
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10.1 General Explicit Read/Write of
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Explicit Read/Write of Input/Output
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Interrupt Inputs 11 Interrupt Input
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11.1 General The automatic control
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11.2 Principle of Line Assignment N
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Example Filtering on rising edge T1
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Interrupt Inputs 11.6 Associate a %
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Serial Lines 12 Serial Lines 12.1 G
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12.1 General The automatic control
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Detail of the «format» argument 0
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PERIPHERAL Transmission to peripher
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Copy requested No. into buffer Yes
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Serial Lines 12.6 Control the Seria
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Serial Lines 12.7.2.3 Xon/Xoff Flow
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13.1 General Description of the Tim
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14.1 General Description of the Dat
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Exchanges by Protocol 15 Exchanges
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15.1 General Description of Exchang
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15.1.2 DNC1000 Exchange Mechanism E
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15.2 Objects Accessible by a UNITE
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15.2.2 Object Constituents The IU c
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Exchanges by Protocol Segment Acces
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Exchanges by Protocol Segment Acces
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Detailed List of G Functions Presen
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Example of reading the current prog
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15.3.3 «DELETE-FILE» Request Used
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Negative answer ANSWER CODE (1 byte
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Request format Answer format Positi
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15.3.8 «READ-BLOCK» Request Used
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15.3.10 «RESERVE-MEMORY» Request
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Exchanges by Protocol Transmission
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Return code If OK Code Report messa
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TRANSMISSION (PORT 0x30) TRANSMISSI
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Structure of the Transmission Buffe
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Structure of the Reception Buffer B
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Exchanges by Protocol 15.5.4 Settin
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Programming in C Language 16 Progra
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16.1 General Programming in C Langu
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16.4 Programming in C 16.4.1 Concep
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16.4.3 Exchange Area Programming in
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16.4.9 Library Functions Programmin
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16.4.9.2 Using System Functions Exa
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Programming in C Language Read an I
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Programming in C Language Initialis
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Programming in C Language Draw a Ci
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Programming in C Language Colour an
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Programming in C Language Read an A
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Programming in C Language End a Cri
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Programming in C Language Semaphore
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Programming in C Language REMARKS I
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Programming in C Language Write a F
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Description of a Directory File A d
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17.1 General The PLC axis programmi
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18 Programme Debugging 18.1 Program
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Programme Debugging 18.1 Programme
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18.2.2 Monitoring CPU Operation Thi
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Programme Debugging Messages Commen
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Requirements «PLC OPERATION» menu
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18.2.3 Monitor and %TS Task Times P
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18.2.4 File Management This functio
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18.2.4.2 Application Directory This
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18.2.5 Input/Output Configuration T
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Example Identification of rack 0 an
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18.2.6.1 Software Backup Actions Se
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Select the module to be animated us
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Load a new Ladder module Press «F2
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Write a Variable Press «F10». ☞
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19.1 List of Hardware Errors ERR_BU
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Lists of Functions A Lists of Funct
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A.1 List by Themes A.1.1 General Pu
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A.1.6 Interrupt Input Management Li
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Lists of Functions Function Descrip
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Symbols %I Organisation 3-15 %INI 2
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L Label 4-3 Ladder module structure
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