5S comparsion

Version 19.1 by Stone Wu on 2022/07/28 17:29

version	line-number	content
17.5	1	= 1 Basic differences =
3.1	2
9.1	3	\|=(% scope="row" %)Functions\|=5V\|=5S\|=3V
	4	\|=Running Mode\|(% colspan="3" %)Cyclic scan /Interrupt
	5	\|=Power supply\|(% colspan="3" %)A：AC 220V；D：DC 24V
	6	\|=Output type\|MT：Transistor\|MT：Transistor；MR：Relay\|MT：Transistor；MR：Relay
	7	\|=I/O\|1212；1412；1616；2416；2424；3624；\|0806；1208；1212；1412；
3.1	8	1616；2416；2424；3624；\|0806；1208；1212；1412；
	9	1616；2416；2424；3624；
9.1	10	\|=Programming\|(% colspan="3" %)Ladder
	11	\|=Type of instruction\| \| \|
	12	\|=Execute Time\|Basic 0.01-0.03μs\|Basic 0.03-0.08μs\|Basic 0.06μs/Applied instruction:1-10us
	13	\|=Program Capacity\|(% colspan="2" %)512KB\|16k
	14	\|=High Speed Pulse Output\|≤1412MT and smaller: 4*200KHz；
3.1	15	≥1616MT and bigger: 8200KHz。\|MT/MR2H: 2 200KHz；
	16	MT4H: 4* 200KHz。\|MT/2H: 2100KHZ, or 4H: 4100, single: 200kHZ
9.1	17	\|=High speed counter Interrupt\|(% colspan="2" %)100 channels\|21channels
	18	\|=Timer Interrupt\|(% colspan="2" %)100 channels，Support 0.1ms Interrupt\|95 channels
	19	\|=X Interrupt\|X0-X7 Rising & Falling\|X0-X5 Rising & Falling\|X0-X5 Rising & Falling
	20	\|=High speed counter Single Phase\|*≤1412 and smaller: 4150KHz
3.1	21	≥1616 and bigger: 8150KHz\|≤1412 and smaller: 2150KHz；4*10KHz
	22	≥1616 and bigger: 6150KHz\|2200KHz; 410KHz*
9.1	23	\|=High speed counter AB phase\|*≤1412 and smaller: 4100KHz
3.1	24	≥1616 and bigger: 8100KHz\|≤1412 and smaller: 1100KHz+2*10KHz
	25	≥1616 and bigger: 3100KHz\|2100KHz**
9.1	26	\|=Storage Type\|(% colspan="3" %)FLASH
	27	\|=Serial Communication\|(((
3.1	28	COM1: RS422、RS485；COM2: RS485
	29	)))\|1208 and smaller: COM1: RS422；COM2: RS485；
	30	1212 and bigger: COM1: RS422、RS485；COM2:RS485\|1208 and smaller: COM1: RS422；COM2: RS485；
	31	1212 and bigger: COM1: RS422、RS485；COM2: RS485
9.1	32	\|=BD board support\|yes\|yes\|yes
	33	\|=Communication BD board\|(% colspan="2" %)inbuilt ethernet port series, RS485 BD board in developing \|RS485 BD support, 3vp supports ethernet bd board
	34	\|=Expansion Module\|(% colspan="2" %)yes √ (1212 and bigger can support)\|yes √ (1212 and bigger can support)
	35	\|=Electronic CAM\|√（2 sheets for switch)\|√（2 sheets for switch）\|N/A
	36	\|=S-type CAM\|√\|√\|N/A
	37	\|=N：N Comm\|√\|√\|N/A
	38	\|=Linear Interpolation\|√\|√\|N/A
	39	\|=Circular Interpolation\|√\|√\|N/A
	40	\|=sub-rotine\|√\|√\|N/A
3.1	41
17.5	42	= 2 Software difference between 5S vs 5V =
3.1	43
15.1	44	== High speed counter configuration ==
3.1	45
	46	5V as below
	47
7.1	48	[[image:image-20220614151005-1.png]]
3.1	49
	50	5S is as below
	51
7.1	52	[[image:image-20220614151015-2.png]]
3.1	53
	54	More detail information,please check the product catalog
	55
7.1	56	= 3 Functions that 3V has but 5V does not =
1.1	57
15.1	58	== BD board ==
1.1	59
	60	LX5V does not support RS485 BD
	61
	62	LX5V does not support Ethernet BD
	63
	64	LX5V does not support CAN BD
	65
15.1	66	== Analog BD board expansion address ==
1.1	67
	68	Provides the function of analog board BD to modify parameters such as filtering. For specific functions, please refer to the BD board manual.
	69
15.1	70	== PLDID ==
1.1	71
	72	Program label function, when the label of the program corresponds to the label of the PLC, the ladder diagram can be uploaded and downloaded. Clearing the memory does not clear this tag either. It is mainly to limit the ladder diagram used by PLC.
	73
15.1	74	== Instructions ==
1.1	75
	76	(1) NOP instruction (null instruction)
	77
	78	(2) TRAN instruction (SFC transfer begins)
	79
	80	(3) FEND instruction (main program ends)
	81
	82	(4) IRET instruction (interrupt return)
	83
	84	(5) SRET instruction (subroutine return)
	85
	86	(6) SPD instruction
	87
	88	(7) DRVI2 instruction
	89
	90	(8) PTO/DPTO instruction(envelope pulse command)
	91
	92	(9) DABS instruction
	93
	94	(10) RSLIST instruction
	95
	96	(11) CPAVL instruction（communication BD configuration）
	97
15.1	98	== Unsupported special register function (M8000, D8000) ==
1.1	99
15.1	100	=== Clock related ===
1.1	101
	102	Clock function not supported by LX5V
	103
10.1	104	\|=M8014\|Oscillation clock with 1 minute clock period
9.1	105	\|=M8015\|Clock stop and preset
	106	\|=M8016\|Stop time to read the display
	107	\|=M8017\|±30 seconds correction
	108	\|=M8018\|install and examine
	109	\|=M8019\|Real-time clock (RTC) error
1.1	110
15.1	111	=== High-speed counter ring counting function ===
1.1	112
12.1	113	\|=M8099\|High-speed ring counter count start
	114	\|=M8099\|Ring count configuration
1.1	115
15.1	116	=== X0~~X5 pulse capture function ===
1.1	117
12.1	118	\|=M8170\|X000 pulse capture
	119	\|=M8171\|X001 pulse capture
	120	\|=M8172\|X002 pulse capture
	121	\|=M8173\|X003 pulse capture
	122	\|=M8174\|X004 pulse capture
	123	\|=M8175\|X005 pulse capture
1.1	124
16.1	125	= 4 5V function under development =
1.1	126
	127	N:N communication protocol
	128
	129	Interpolation instructions (G90G01, G90G02, G90G03, G91G01, G91G02, G91G03)
	130
15.1	131	= 5 3V and 5V incompatible functions =
1.1	132
15.1	133	(% class="wikigeneratedid" %)
	134	(These can be automatically converted in the future)
1.1	135
15.1	136	== General register ==
	137
1.1	138	(% class="table-bordered" %)
9.1	139	\|=(% scope="row" %)register\|=LX3V\|=LX5V\|=Remarks
	140	\|=Input\|X0~~X377\|X0~~X1777\|
	141	\|=Output\|Y0~~Y377\|Y0~~Y1777\|
	142	\|=Auxiliary\|M0~~M3071\|M0~~M7999\|
	143	\|=Status\|S0~~S999\|S0~~S4095\|
	144	\|=Timer\|T0~~T255\|T0~~T511\|
	145	\|=counter\|C0~~C199\|C0~~C255\|
	146	\|=Double word counter\|C200~~C219\|LC0~~LC99\|Non-power-down save
	147	\|=Double word counter\|C220~~C234\|LC100~~LC255\|Power-down save
	148	\|=High-speed counter\|C235~~C255\|HSC0~~HSC7\|Check the high-speed input function
	149	\|=Data Register\|D0~~D7999\|D0~~D7999 (R0~~R29999)\|
	150	\|=Pointer P\|P0~~P127\|P0~~P4095\|
	151	\|=Instruction I\|I0~~I8xx\|None\|
	152	\|=constant\|K, H, E\|K, H, E\|
1.1	153
	154	Incompatible part
	155
	156	~1. T250~~T255 of LX3V are 100ms timers, while T250~~T255 of LX5V are 10ms timer.
	157
	158	2. C200~~C234 of LX3V are double word counters, LX5V is changed to single word, and LC0~~LC255 are added as double word counters.
	159
	160	3. LX3V's high-speed counters C235~~C255 are no longer used. In LX5V, the high-speed counter type is configured through the configuration table, and HSC0~~HSC7 is selected as the high-speed input counter according to the channel. See the high-speed input function for details.
	161
	162	4. CJ instruction uses pointer P63 to jump directly to END instruction in 3V, but P63 of LX5V is a normal label.
	163
	164	5. Pointer I is cancelled in LX5V, please check the programming mode for details.
	165
15.1	166	== Programming method ==
1.1	167
15.1	168	=== Subroutine ===
1.1	169
15.1	170	(% class="wikigeneratedid" %)
	171	(For details, please refer to LX5V Programming Manual Chapter 1.4-Subroutine Branch)
	172
1.1	173	Use of LX3V subroutines
	174	[[image:1652684087594-147.png]]
	175
	176	(% id="cke_bm_21076S" style="display:none" %) (%%)Use of LX5V subroutines
	177
	178	Add new subroutine: project management -> subroutine -> right click -> new
	179
	180	[[image:1652684473552-267.png]]
	181
	182	Subroutine can be directly used in the main program by calling its name.
	183
	184	[[image:1652684829740-769.png]]
	185
15.1	186	=== Interrupt ===
1.1	187
15.1	188	(% class="wikigeneratedid" %)
	189	(For details, please refer to LX5V Programming Manual Chapter 1.4-Branch)
	190
1.1	191	LX3V interrupt
	192
	193	The interrupt program is under FEND and returns with IRET. The meaning of the specific interrupt is distinguished by the pointer I number.(Refer to EI/DI instruction in 3V)
	194
	195	The 1ms interrupt program of LX3V is as follows:
	196
	197	[[image:1652685542135-419.png]]
	198
	199	LX5V interrupt
	200
	201	Add new interrupt: Project Management -> program->Interrupt -> New
	202
	203	[[image:1652685665041-340.png]]
	204
	205	Interrupt configuration: select interrupt mode
	206
	207	[[image:1652685809566-630.png]]
	208
15.1	209	=== Instructions ===
1.1	210
15.1	211	OUT instruction
1.1	212
	213	Double word counter[[image:file:///C:\Users\ANNAXU~~1\AppData\Local\Temp\ksohtml14432\wps28.png]]
	214
	215	LX3V: OUT C200 KXXX
	216
	217	LX5V: OUT LC0 KXXX
	218
	219	The C200~~C219 of LX3V are converted to LC0~~LC19 of LX5V (Un-power-down save).
	220
	221	The OUT C220~~C234 of LX3V is converted to OUT LC100~~LC114 of LX5V (Power-down save).
	222
	223	CALL instruction
	224
	225	LX3V: OUT C200 PXXX
	226
	227	LX5V: OUT LC0 subroutine name(See LX5V programming manual for details)
	228
	229	CJ instruction
	230
	231	LX5V does not support CJ P63 to jump directly to the END instruction.
	232
	233	LX5V does not support CJ instructions to jump into subroutines and interrupts.
	234
	235	DI, EI instructions
	236
	237	There is no need to connect the contact before the DI instruction of LX3V.
	238
	239	[[image:1652687225743-267.png]]
	240
	241	The contact must be connected before the DI instruction of LX5V.
	242
	243	[[image:1652687930224-987.png]]
	244
	245	DHSCS instruction
	246
	247	LX3V: calls interrupt using IXX
	248
	249	[[image:1652688357931-327.png]]
	250
	251	LX5V: calls interrupts by using the interrupt program name
	252
	253	[[image:1652688536392-339.png]]
	254
	255	CPAVL instruction
	256
	257	CPVAL is used to configure communication BD boards in 3V. LX5V does not currently support it.
	258
	259	CPVAL is used to switch electronic cam table in LX3V. LX5V uses ECAMCUT instruction(Refer to Chapter 9.1 of LX5V Programming Manual for details).
	260
	261	TRH instruction
	262
	263	LX3V: input parameters are floating
	264
	265	LX5V: input parameters are integer
	266
	267	ASC instruction
	268
	269	LX3V: input strings don't need double quotes
	270
	271	[[image:1652689598958-799.png]]
	272
	273	LX5V: input strings need double quotes
	274
	275	[[image:1652689626279-240.png]]
	276
15.1	277	= 6 High-speed input function =
1.1	278
15.1	279	== Use on LX3V ==
1.1	280
	281	Find the high-speed input counter you need to use according to the following table:
	282
	283	[[image:1652689864332-317.png]]
	284
	285	Through special registers, configure the functions such as frequency multiplication and counting direction.
	286
	287	Use the OUT instruction to start the high-speed counter counting.
	288
	289	[[image:1652690126303-800.png]]
	290
15.1	291	== Use on LX5V ==
1.1	292
	293	According to channel, select the HSC register to use:
	294
	295	[[image:1652692297496-626.png]]
	296
	297	Configure the high-speed counter mode through the host computer configuration table：
	298
	299	[[image:1652692281566-353.png]]
	300
	301	Use the OUT instruction to start the high-speed counter counting.
	302
	303	[[image:1652692388207-617.png]]
	304
15.1	305	== Difference between high-speed counters on LX5V and LX3V ==
1.1	306
	307	LX3V updates the count value when the OUT instruction is executed, which is affected by the scan cycle.
	308
	309	LX5V is updated in the 100us interrupt, not affected by the scan cycle, and provides the REF instruction to refresh the current high-speed counter value immediately.
	310
	311	LX5V single-phase high-speed counter supports filtering function, configurable 0~~17us.
	312
	313	LX5V high-speed input counter will update the input frequency in the special soft element (SD) every 100us.
	314
15.1	315	= 7 High-speed output function =
1.1	316
	317	High-speed pulse commands are the same in the use of commands.
	318
	319	(% class="table-bordered" %)
9.1	320	\|=(% scope="row" %) \|=LX3V\|=LX5V
	321	\|=DRVI\|√\|√
	322	\|=DRVA\|√\|√
	323	\|=PLSR\|√\|√
	324	\|=PLSV\|√\|√
	325	\|=PLSY\|√\|√
	326	\|=DVIT\|√\|√
	327	\|=ZRN\|√\|√
	328	\|=PLSR2\|√\|√
1.1	329
	330	High-speed pulse command difference.
	331
	332	PLSR2 instruction parameter address is different
	333
	334	Special device change
	335
	336	~1. LX3V has multiple high-speed pulse devices that are shared by multiple axes, while LX5V is separated. Therefore, when converting the program, this type of special address needs to be assigned to all axes together. For example, D8148 of 3V is the acceleration and deceleration time of 4 axes Y0~~Y3, then in LX5V, Y0 acceleration time SD902, deceleration time SD962 and other axis acceleration and deceleration time need to be set to the value of D8148.
	337
	338	2. Comparison of bit devices
	339
	340	(% class="table-bordered" %)
9.1	341	\|=(% scope="row" %)3V\|=Description\|=5V\|=Description
	342	\|=M8145\|Y000 pulse output stop\|SM898\|Y000 pulse output stop
	343	\|=M8146\|Y001 Pulse output stop\|SM958\|Y001 Pulse output stop
	344	\|=M8152\|Y002 pulse output stop\|SM1018\|Y002 pulse output stop
	345	\|=M8153\|Y003 Pulse output stop\|SM1078\|Y003 Pulse output stop
	346	\|=M8147\|Y000 monitoring during pulse output\|SM880\|Y000 monitoring during pulse output
	347	\|=M8148\|Y001 Monitoring during pulse output\|SM940\|Y001 Monitoring during pulse output
	348	\|=M8149\|Y002 Monitoring during pulse output\|SM1000\|Y002 Monitoring during pulse output
	349	\|=M8150\|Y003 Monitoring during pulse output\|SM1060\|Y003 Monitoring during pulse output
	350	\|=(% rowspan="4" %)(((
1.1	351
	352
	353
	354	M8029
	355	)))\|(% rowspan="4" %)(((
	356
	357
	358	Some instructions (PLSR, etc.) instruction execution completed (Y0-Y3)
	359	)))\|SM882\|Y0 pulse sending completed
9.1	360	\|=SM942\|Y1 pulse sending completed
	361	\|=SM1002\|Y2 pulse transmission completed
	362	\|=SM1062\|Y3 pulse transmission completed
	363	\|=M8134\|Y0's thousandth control bit\|SM897\|Y0's thousandth control bit
	364	\|=M8135\|(((
1.1	365	The acceleration and deceleration time between each axis of Y1's thousandth control position positioning command is separated
	366	)))\|(((
	367	SM957
	368	)))\|Y1 Perimeter control bit
9.1	369	\|=M8136\|Y2 Perimeter control bit\|SM1017\|Y2 Perimeter control bit
	370	\|=M8137\|Y3 Perimeter control bit\|SM1077\|Y3 Perimeter control bit
1.1	371
	372	3. Comparison of word devices
	373
	374	(% class="table-bordered" %)
9.1	375	\|=(% scope="row" %)3V\|=Description\|=5V\|=Description
	376	\|=D8104\|Y0 acceleration and deceleration time (open M8135)\|SD902/SD962\|Y0 acceleration/deceleration time
	377	\|=D8105\|Y1 acceleration and deceleration time (open M8135)\|SD1022/SD1082\|Y1 acceleration/deceleration time
	378	\|=D8106\|Y2 acceleration and deceleration time (open M8135)\|SD1142/SD1202\|Y2 acceleration/deceleration time
	379	\|=D8107\|Y3 acceleration and deceleration time (open M8135)\|SD1262/SD1322\|Y3 acceleration/deceleration time
	380	\|=D8140\|Y000 Current position low\|SD880\|Y000 Current position low
	381	\|=D8141\|Y000 current position high\|SD881\|Y000 current position high
	382	\|=D8142\|Y001 Current position low\|SD940\|Y001 Current position low
	383	\|=D8143\|Y001 Current position high\|SD941\|Y001 Current position high
	384	\|=D8150\|Y002 current position low\|SD1000\|Y002 current position low
	385	\|=D8151\|Y002 current position high\|SD1001\|Y002 current position high
	386	\|=D8152\|Y003 Current position low\|SD1060\|Y003 Current position low
	387	\|=D8153\|Y003 Current position high\|SD1061\|Y003 Current position high
	388	\|=(% rowspan="4" %)(((
1.1	389
	390
	391
	392	D8145
	393	)))\|(% rowspan="4" %)(((
	394
	395
	396
	397	Y0-Y3 Paranoid speed (single word)
	398	)))\|SD900, SD901\|Y0 Paranoid speed (double word)
9.1	399	\|=SD960, SD961\|Y1 Paranoid speed (double word)
	400	\|=SD1020, SD1021\|Y2 Paranoid speed (double word)
	401	\|=SD1080, SD1081\|Y3 Paranoid speed (double word)
	402	\|=(% rowspan="8" %)(((
1.1	403
	404
	405
	406
	407
	408	D8146,D8147
	409	)))\|(% rowspan="8" %)(((
	410
	411
	412
	413
	414
	415	Y0-Y3 maximum frequency (double word)
	416	)))\|SD898\|Y0 Maximum speed low
9.1	417	\|=SD899\|Y0 Highest speed
	418	\|=SD958\|Y1 Maximum speed low
	419	\|=SD959\|Y1 Highest speed
	420	\|=SD1018\|Y2 Maximum speed low
	421	\|=SD1019\|Y2 Highest speed
	422	\|=SD1078\|Y3 Maximum speed low
	423	\|=SD1079\|Y3 Highest speed
	424	\|=(% rowspan="4" %)(((
1.1	425
	426
	427
	428	D8148
	429	)))\|(% rowspan="4" %)(((
	430
	431
	432	4-axis acceleration/deceleration time (when M8135 is not turned on)
	433	)))\|SD902/SD962\|Y0 acceleration/deceleration time
9.1	434	\|=SD1022/SD1082\|Y1 acceleration/deceleration time
	435	\|=SD1142/SD1202\|Y2 acceleration/deceleration time
	436	\|=SD1262/SD1322\|Y3 acceleration/deceleration time
1.1	437
	438	4. New features of high-speed pulse instructions on LX5V
	439
	440	①Support lower frequency output
	441
	442	3V: 10hz-200KHZ 5V: 1HZ-200K
	443
	444	②Support a larger range of acceleration/deceleration time, separate acceleration/deceleration
	445
	446	3V: 50ms-5000ms 5V: 15ms-32000ms
	447
	448	③Support to directly set the start frequency
	449
	450	④Support to modify the pulse frequency during operation
	451
	452	⑤Support to modify the pulse position (number) during operation
	453
	454	⑥Support direction delay (first output the direction and then delay and then output the pulse)
	455
	456	⑦Support positive and negative limit
	457
	458	⑧Provide different stopping methods (deceleration to stop or immediate stop)
	459
	460	⑨Support direction reversal (can set the forward direction to low level)
	461
15.1	462	= 8 Communication function =
1.1	463
	464	~1. Communication parameter configuration
	465
	466	There is a difference in the serial port parameter settings, mainly in the start bit of STX and ETX of the custom protocol. 3V is B8 B9 and 5V is B10 B11. The main reason is that 5V increases the baud rate of 921600.
	467
	468	2. Differences in protocol settings
	469
	470	3V settings:
	471
	472	(% class="table-bordered" %)
9.1	473	\|=(% scope="row" %)protocol\|=D8126 value setting
	474	\|=RS instruction (custom protocol)\|00H
	475	\|=HMI monitoring protocol (PLC protocol)\|01H
	476	\|=MODBUS-RTU slave\|02H
	477	\|=MODBUS-ASCII slave\|03H
	478	\|=N:N network communication protocol slave\|04H
	479	\|=RS instruction (custom protocol)\|10H
	480	\|=MODBUS-RTU master station\|20H
	481	\|=MODBUS-ASCII master station\|30H
	482	\|=N:N network communication protocol master station\|40H
1.1	483
	484	5V settings:
	485
	486	(% class="table-bordered" %)
13.1	487	\|=(% scope="row" %)SD2592 value setting\|=Protocol
	488	\|=0 H\|Wecon Modbus slave
	489	\|=2 H\|ModbusRTU slave
	490	\|=3 H\|ModbusASCII slave
	491	\|=10 H\|User-defined protocol
	492	\|=20 H\|ModbusRTU master station
	493	\|=30 H\|(((
1.1	494	ModbusASCII master
	495
	496
	497	)))
	498
	499	Although 5V does not have 3V HMI monitoring protocol. But the current HMI has matched the 5V Wecon Modbus slave protocol. The Wecon Modbus slave protocol is modified based on ModbusRTU slave, Compatible with all ModbusRTU slave content.
	500
	501	3. Differences in special devices
	502
	503	3V only supports setting the serial port parameters in the first cycle of the scan cycle. The mode of the first cycle setting can be switched only by modifying the corresponding soft element setting according to the special soft element comparison table.
	504
	505	4. Slave address difference
	506
	507	5V address:
	508
	509	(% class="table-bordered" %)
13.1	510	\|=(% scope="row" %)Port\|=Occupy\|=(% style="width: 240px;" %)Address range\|=(% style="width: 221px;" %)(((
1.1	511	10 hex Register
13.1	512	)))\|=(((
1.1	513	Total reserved land Address size
	514	)))
13.1	515	\|=Word address\| \|(% style="width:240px" %) \|(% style="width:221px" %) \|
	516	\|=T0~~T511\|512 WORD\|(% style="width:240px" %)0x0000-0x01ff\|(% style="width:221px" %)0\|1536
	517	\|=C0~~C255\|256 WORD\|(% style="width:240px" %)0x0600-0x06ff\|(% style="width:221px" %)1536\|1024
	518	\|=LC0~~LC255\|512 WORD\|(% style="width:240px" %)0x0A00-0x0BFF\|(% style="width:221px" %)2560\|1024
	519	\|=HSC0~~HSC15\|128 WORD\|(% style="width:240px" %)0x0E00-0x0E1F\|(% style="width:221px" %)3584\|512
	520	\|=D0~~D7999\|8000 WORD\|(% style="width:240px" %)0x1000-0x2F3F\|(% style="width:221px" %)4096\|16384
	521	\|=SD0~~SD4095\|4096 WORD\|(% style="width:240px" %)0x5000-0x5FFF\|(% style="width:221px" %)20480\|12288
	522	\|=R0~~R30000\|30000 WORD\|(% style="width:240px" %)0x8000-0xF52F\|(% style="width:221px" %)32768\|30000
	523	\|=Bit address\| \|(% style="width:240px" %) \|(% style="width:221px" %) \|
	524	\|=T0~~T511\|512 bit\|(% style="width:240px" %)0x0000-0x01ff\|(% style="width:221px" %) \|1536
	525	\|=C0~~C255\|256 bit\|(% style="width:240px" %)0x0600-0x06ff\|(% style="width:221px" %)1536\|1024
	526	\|=LC0~~LC255\|256 bit\|(% style="width:240px" %)0x0A00-0x0AFF\|(% style="width:221px" %)2560\|1024
	527	\|=HSC0~~HSC15\|64 bit\|(% style="width:240px" %)0x0E00-0x0E0F\|(% style="width:221px" %)3584\|512
	528	\|=M0~~M8000\|8192bit\|(% style="width:240px" %)0x1000-0x2F3F\|(% style="width:221px" %)4096\|16384
	529	\|=SM0~~SM4095\|4096bit\|(% style="width:240px" %)0x5000-0x5FFF\|(% style="width:221px" %)20480\|12288
	530	\|=Reserved\| \|(% style="width:240px" %)0x8000-0xBFFF\|(% style="width:221px" %) \|16383
	531	\|=S0~~S4095\|4096bit\|(% style="width:240px" %)0xC000-0xCFFF\|(% style="width:221px" %)49152\|8192
	532	\|=X0~~X1023\|1024bit\|(% style="width:240px" %)0xE000-0xE3FF\|(% style="width:221px" %)57344\|4096
	533	\|=Y0~~Y1023\|1024bit\|(% style="width:240px" %)0xF000-0xF3FF\|(% style="width:221px" %)61440\|4096
1.1	534
	535	5. LX5V added functions
	536
	537	Modify serial communication parameters during RUN. For example, use PROTOCOL instruction to modify the protocol during run. The corresponding instruction description can also find the method of setting without instruction. For details, please refer to the relevant instructions of the instruction. Commands are PROTOCOL (set serial port protocol), PROTPARA (set serial port parameters), STATION (set station number)

Wiki source code of 11 LX3V/5V/5S comparsion

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