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9

Decoder settings

5. Appendix

5.1. Programming Long Addresses

As described in chapter 3.3.1.2. the long address is split into two 

CVs. The byte with the higher value of the address is in CV 17. This 

byte determines the range in which the extended address will be 

located. For instance, if you enter the value 192 in CV 17 then the 

extended address may be between 0 and 255. If 193 is written into 

CV 17 then the extended address will be between 256 and 511. 

You can continue this up to addresses with values of 9984 and 

10239. The possible values are shown in the table on the right.

5.1.1. Write address

To programme a long address you first of all need to calculate the 

values for CV 17 and CV 18 and then programme it. Please note 

that it is not possible to programme addresses via the program-

ming mode “POM”.

To programme the long address proceed as follows:

• First you determine the desired address, for instance 4007.
• Then you look for the appropriate address range in the table on 

the right. The value to be entered into CV 17 can be found in the 

column on the right. In our example, it is 207.
The value for CV 18 is established as follows:

esired address

4007

minus

first address in the address range -

3840

===============================

====

equals

value for CV 18 

167

• 167 is therefore the value to be entered in CV 18. Thus your de-

coder is now programmed to address 4007.

5.1.2. Read out addess

If you wish to read out the address of a locomotive please read 

the values of CV 17 and CV 18 one after another and proceed 

then in reverse order:

Let’s assume you have read: 

CV 17 = 196; CV 18 = 147. Look up the corresponding address 

range in the table below. The first possible address within this 

range is 1024.  Then you have to add the value from CV 18 and 

you arrive at the locomotive address:

1024

147
====

1171

Address Range

Address Range

Address Range

from

to

CV17

from

to

CV17

from

to

CV17

0

255

192

3584  3839  206

7168 7423  220

256 

511 

193

3840  4095  207

7424  7679  221

512 

767 

194

4096 4351

208

7680 7935

222

768 

1023 

195 

4352  4607  209

7936  8191  223

1024 

1279 

196 

4608  4863  210

8192  8447  224

1280 

1535 

197 

4864  5119  211

8448  8703  225

1536 

1791 

198 

5120  5375  212

8704  8959  226

1792 

2047 

199 

5376  5631  213

8960  9215  227

2048 

2303 

200 

5632  5887  214

9216  9471

228

2304 

2559 

201 

5888  6143  215

9472  9727  229

2560 

2815 

202 

6144  6399  216

9728  9983  230

2816 

3071 

203 

6400  6655  217

9984  10239  231

3072 

3327 

204 

6656  6911  218

3328 

3583 

205 

6912  7167  219

Appendix

Summary of Contents for GHB DD-1

Page 1: ...LokSound 5 DCC Instruction manual GHB DD 1 P N 99440...

Page 2: ...s 9 5 1 2 Read out addess 9 6 Support and Assistance 15 Copyright 1998 2020 by ESU electronic solutions ulm GmbH Co KG Electri cal characteristics and dimensions are subject to change without prior no...

Page 3: ...l functions such as motor control control of all lighting functions and all sound and special sound functions The decoder supports DCC with RailComPlus It can also be used on analogue DC systems The D...

Page 4: ...restriced Driving functions forward backward backward Light changes Motor sounds automatically For analogue operation you can use any DC power supplies Please note that a trouble free operation with e...

Page 5: ...ehaviour of the decoder 3 1 2 Standardization in the NMRA The NMRA National Model Railroad Association has defined which CVs determine certain parameters of a decoder The DCC standard allocates fixed...

Page 6: ...okmaus2 Lenz digital plus Lenz compact only support the values 1 99 as short addresses 3 4 1 2 Extended Address Programming on the Main also called Operations Mode pro gramming enables you to program...

Page 7: ...set in CV 4 Permitted values are 0 no delay to 63 The times set in these CVs work speed dependant Therefore the acceleration distance and the brake distance are longer at high speeds In other words t...

Page 8: ...g into account the programmed deceleration 3 4 3 3 Lenz ABC Brake Mode LokSound decoder support the ABC braking technique introduced by Lenz In order to use this function a group of anti parallel diod...

Page 9: ...established as follows esired address 4007 minus first address in the address range 3840 equals value for CV 18 167 167 is therefore the value to be entered in CV 18 Thus your de coder is now program...

Page 10: ...ncy Motor PWM frequency as a multiple of 1000 Hz 10 50 40 13 Analogue mode F1 F8 Status of functions F1 to F8 in analogue mode 0 255 128 Bit Description Value 0 Function F1 1 1 Function F2 2 2 Functio...

Page 11: ...ant information some of which are only relevant for DCC operation 14 Bit Description Value 0 Normal direction of travel Reversed direction of travel 0 1 1 14 speed steps DCC 28 or 128 speed steps DCC...

Page 12: ...w is active 0 255 10 52 Load Control param K for slow driving K component of the internal PI controller for the low speed steps 0 255 15 53 Control Reference voltage Defines the Back EMF voltage which...

Page 13: ...od Frequency of BEMF measurement in 0 1 milliseconds at speed step 255 50 200 150 118 Slow speed BEMF Measurement gap Min Length of the BEMF measuring gap in 0 1 milliseconds at speed step 1 10 20 15...

Page 14: ...l be recognised 4 32 12 155 162 Notch Points Notch Point 1 Notch Point 8 The internal speed step where the diesel engine sound notches to the next Notch Not for all sound projects 0 255 163 Sound CV9...

Page 15: ...d also check our website for more information You will find many hints under Support FAQ and even feedback from other users that may help you with your particular question Of course we will always ass...

Page 16: ...16 Instruction manual LokSound 5 GHB DD 1...

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