Samsung Ht As700 User Manual

							91
Logical Instructions
Rotation Instructions
MnemonicNameWord ladder 
symbolDouble word 
ladder symbolDescription
WAND 
(DAND)AND (logical 
multiply)Store AND of S1 and S2 in D
WOR
(DOR)OR (logical sum)Store OR of S1 and S2 in D
WXOR 
(DXOR)Exclusive OR 
(exclusive logical 
sum)Store exclusive OR of S1 and S2 in D
WXNR 
(DXNR)Exclusive OR NOT 
(equivalence)Store exclusive OR NOT of S1 and 
S2 in D 1 (ON if they are equal)
MnemonicInstructionWord ladder 
symbolDouble word 
ladder symbolDescription
RLC 
(DRLC)Rotate left without 
carryRotate the content of D to the left N 
times. (lower -> higher)
RRC 
(DRRC)Rotates right 
without carryRotate the content of D to the right N 
times (higher -> lower) 
ROL 
(DROL)Rotate left with 
carryRotate (shift) to the left N times
(Input F1.8 value to the lowest bit)
ROR 
(DROR)Rotate right with 
carryRotate (shift) to the right N times
(higher -> lower)
(Input F1.8 value to the highest bit)
SHL
(DSHL)Shift leftShift the content of D to the left N 
times (input 0 to the lowest bit)
SHR 
(DSHR)Shift rightShift the content of D to the right N 
times (input 0 to the highest bit)
  D word
    D word
    D word
    D word
    D word
    D word
 
						

							92
Word Conversion Instructions
MnemonicNameWord ladder 
symbolDouble word 
ladder symbolDescription
BCD 
(DBCD)BCD ConversionConvert binary value of S to BCD and 
store it in D.
BIN
(DBIN)Binary ConversionConvert BCD of S to binary number 
and store it in D.
ENCO EncodeStore the location of the highest set 
bit in S in D.
Note) It is different than function of 
SPC series (2
n + 1)
DECO DecodeConvert the low-order 4-bit value of 
S to a power of 2 (2
s) and store it in 
D.
SEG 7-SegmentConverts the low-order 4-bit value of 
S to 7-segment display pattern and 
store them in D.
XCHG 
(DXCHG)ExchangeExchange D1 and D2 values.
DIS Dissemble
Separate S into N+1 units, 4 bits each, 
and store them in the low 4 bits of words 
starting at D.
 
UNI Unify
Combine the low 4 bits of S+1 words 
starting at S, and store them in D 
(N= 0 to 3).
S   ......  0  0  1  1  1  1  1  1   =63(DEC) 
D   ......  0  1  1  0  0  0  1  1   =$63 (BCD) 
When
S=$7325, 
When 
N=3,
When 
N=3,
 
						

							93
Bit Conversion Instructions
MnemonicNameWord ladder 
symbolDouble word 
ladder symbolDescription
BSET Bit SetSet N
th bit of D to 1.
BRST Bit ResetReset N
th bit of D to 0.
BNOT Bit NotInvert N
th bit of D.
BTST Bit TestStore the value of N
th bit of D to F1.8.
SUM SumStore the number of bits in S that are 
1 to D.
SC Set Carry Set carry bit (F1.8) to 1.
RC Reset Carry
Reset carry bit (F1.8) to 0.
CC Complement Carry
Invert carry bit (F1.8). 
When N=15                      1 (N=0~15)
W h e n  N = 3                
W h e n  N = 4                
W h e n  N = 6              
No of 1=7
D=7
 
						

							94
Register address data value
absolute address
When N=4
Move Instructions
MnemonicNameWord ladder 
symbolDouble word 
ladder symbolDescription
MOV MoveCopy Ns words from Sr to D.
FMOV Fill MoveRepeatedly copy the value V to the Ns 
words starting from D.
BMOV Bit MoveMove Ns bits from the bit address Sb 
to the bit address Db.
BFMV Bit Fill MoveRepeatedly copy the bit value V to the  
N bits staring from the bit address 
Db. (V=0, 1)(N=1…256)
(Db is bit address)
LDR 
(DLDR)Load   D ← (S)Store to D the value of the register 
whose absolute address is the value 
of S. (Refer to the manual for 
information about absolute address.)
STO 
(DSTO)Store  (D) ← SStore the value of S to the register 
whose absolute address is the value 
of D.
(Refer to the manual for information 
about absolute address.)
When N=3
When N=4
When V=1, N=5
Register address data value
absolute address
 
						

							95
Program Control Instructions
MnemonicNameWord ladder 
symbolDouble word 
ladder symbolDescription
FOR 
(DFOR)For LoopExecute instructions in the block 
between FOR and corresponding 
NEXT. Repeat execution D times.
NEXT NextDecrement D of FOR instruction by 1. 
If it is not zero, repeat execution 
from FOR instruction. 
JMP JumpJump to the position marked LBL L 
(label number).
(L: 0 to 63)
LBL LabelPosition jumped to by the 
corresponding JMP instruction.
(L:0 to 63)
JMPS Jump Start Jump to the JMPE instruction.
JMPE Jump EndPosition jumped to by the 
corresponding JMPS instruction.
CALL Call SubroutineCall subroutine Sb.
(Sb = 0 to 63)
SBR Subroutine StartStart subroutine Sb.
(Sb = 0 to 63)
RET Subroutine ReturnEnd of subroutine. Return execution 
to the instruction after CALL.
INT Begin InterruptBegin the block of constant cycle 
scan instructions.
Ni = 1 to 999 (20 msec to 10 sec)
Constant cycle time = (Ni+1) x 0.01 
sec
RETI Return InterruptEnd the block of constant cycle scan 
instructions.
 
						

							96
System Control Instructions
MnemonicNameWord ladder 
symbolDouble word 
ladder symbolDescription
INPR Input RefreshRefresh external input (Receive input 
signal during program execution).
Ch is external input word address.
OUTR Output RefreshRefresh external output (Send 
output signal during program 
execution). 
Ch is external output word address.
WAT Watchdog Timer Clear watchdog scan time.
END ENDEnd of program. This instruction is 
automatically added by WinGPC.
 
						

							97
Communications Control Instructions
MnemonicNameWord ladder 
symbolDouble word 
ladder symbolDescription
READRead Data
(from shared 
memory of high 
performance 
module) Read NR3 words from the module 
memory address NR6 of the slot 
NN5, and write them to the words 
starting from RR1.
WRITEWrite Data
(to shared 
memory of high 
performance 
module)Read NR3 words from NR5, and 
write them to the module memory 
address NR2 of slot NN1.
RMRDRead Remote
Slave Data
(from shared 
memory of high 
performance 
module)Read NR1 words from the module 
memory address NR6 of the slot 
NN5 for the station NN4 on the 
remote network loop NN3, and 
write them in words starting at RR2.
RMWRWrite Remote 
Slave Data
(to shared 
memory of high 
performance 
module)Read NR5 words from the module 
memory address NR6, and write 
them to the words starting from 
NR4 of the slot NN3 in the station 
NN2 on the remote network loop 
NN1.
RECVReceive Link 
Data Word
 
Read NR1 words from the module 
memory NR6 of the slot NN5 in the 
station NN4 on the link network 
loop NN3, and write them to the 
words starting from RR2.
SENDSend Link 
Data WordRead NR5 words from the module 
memory NR6, and write them to the 
module memory starting from NR4 
of the slot NN3 in the station NN2 
on the link network loop NN1.
RECVBReceive Link 
Data BitRead the bit NR6 of the slot NN5 in 
the station NN4 on the link network 
loop NN3, and write it the bit 
register BR1.
SENDB Send Link Data BitWrite the content of bit NB5 to the 
bit NR4 of the slot NN3 in the 
station NN2 on the link network 
loop NN1.
READ 
TO=RR1 
SZ=NR3 
FR=NN5:NR6
WRITE 
TO=NN1:NR2
SZ=NR3 
FR=NN5  
RMRD 
TO=NR1:RR2
NT=NN3:NN4
FR=NN5:NR6
RMWR 
NT=NN1:NN2
TO=NN3:NR4
FR=NR5:NR6 
RECV 
TO=NR1:RR2
NT=NN3:NN4
FR=NN5:NR6
SEND
NT=NN1:NN2
TO=NN3:NR4
FR=NN5:NR6
RECVB 
TO=BR1 
NT=NN3:NN4
FR=NN5:NR6
SENDB 
NT=NN1:NN2
TO=NN3:NR4
FR=NB5  
 
						

							98
 
						

							99
7
NX-CPU700p System Product Dimensions
System Dimensions
unit (mm)
Backplane Dimensions 
unit (mm)
 3-slot type5-slot type8-slot type10-slot type12-slot type
A (mm) 205.0 276.0 381.0 452.0 522.0
B (mm) 183.8 254.2 359.8 430.2 500.6
¥ı
5.0*4
L7.0 27.522 .5
A
unit (mm)
 SlotsAL
3 205.0 153.8
5 276.0 224.2
8 381.0 329.8
10 452.0 400.2
12 522.0 470.6
 
						

							100
Power Supply Module Dimensions)
Processor and I/O Modules Dimensions
OPEN
S MSUNG
POWER
Programmable
Controller
104.0 115.5
43.0
SAMSUNG
POWER
Programmable
Controller
OPEN
NX700
unit (mm)
18
19
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
1
2
20
104 .0
115 .5
35.0
INIT
TEST
RUN
RMT
PROG
RS232CTOOL RS232C COMCOM1
RS232C
RS485
COM1
RS232C
RS485
RUN
PROG
TEST
BREAKERROR
BATT
ALARMNX-CPU 700pCPUNX-X 16DDC INNX-X 64DDC IN
unit (mm)