ZIMO MX695 User manual

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 1
Instruction Manual
LARGE-SCALE DECODER WITH & W/O SOUND
MX695KV, -KS, -LV, LS
and NON-SOUND LARGE-SCALE DECODER MX695KN
MX696V, -S
and: Combinations of loco boards and decoder MX696KS, MX696KV
and NON-SOUND LARGE-SCALE DECODER MX696KN
MX697V, -S
MX699KV, -KS, -LV, -LM
1Product - Overview ..................................................................................................2
2Technical Information...............................................................................................4
3Installation and Wiring .............................................................................................5
4Loco Adapter Boards for Large-Scale Decoder......................................................12
5Configuration ........................................................................................................18
5.1 Programming in “Service mode” (on the progr. track) .............................................................18
5.2 Programming in “Operations mode” (on-the-main)..................................................................18
5.3 Decoder-ID, Load-Code, Decoder-Type and SW-Version ......................................................19
5.4 Engine address(es) in DCC mode ...........................................................................................19
5.5 Analog operation ......................................................................................................................20
5.6 Motor control and regulation ....................................................................................................21
5.7 Acceleration and Deceleration:................................................................................................24
5.8 Special Operating Mode “km/h – speed regulation“................................................................25
5.9 The ZIMO “signal controlled speed influence” (HLU) ..............................................................26
5.10 “Asymmetrical DCC-Signal” stops (Lenz ABC)........................................................................26
5.11 DC Brake Sections (Märklin brake mode) ...............................................................................27
5.12 Distance Controlled Stopping - Constant Stopping Distance.................................................27
5.13 Shunting, Half-Speed and MAN Functions..............................................................................28
5.14 The NMRA-DCC function mapping..........................................................................................29
5.15 The extended ZIMO Function mapping ...................................................................................30
5.16 “Unilateral Light Suppression”..................................................................................................31
5.17 The “Swiss Mapping” (from SW version 32) ............................................................................32
5.18 The ZIMO “Input-Mapping“ SW versions 34 and up, also for outputs via SUSI......................34
5.19 Dimming, Low beam and Direction Bits...................................................................................34
5.20 Flasher Effect ...........................................................................................................................35
5.21 F1-Pulse Chains (Only for old LGB products) .........................................................................35
5.22 Special Effects (US and other light effects, smoke generator, uncouplers etc.).....................36
5.23 Configuration of smoke generators..........................................................................................37
5.24 Configuration of Electric Uncouplers........................................................................................38
5.25 Servo Configuration .................................................................................................................40
6Feedback –Bidirectional communication...............................................................41
7ZIMO SOUND –Selection and Programming......................................................... 42
7.1 The “CV #300 procedures”.......................................................................................................43
7.2 “Incremental Programming” of sound CV’s, an alternative to “normal” programming.............46
7.3 The test run for determining the motor’s basic load ................................................................46
7.4 Basic settings independent of powertrain................................................................................47
7.5 Steam engine Basic sound settings....................................................................................49
7.6 Steam engine Load and acceleration dependency.............................................................51
7.7 Diesel and Electric engines .....................................................................................................53
7.8 Random and Switch input sounds ...........................................................................................56
8CV –Summery List................................................................................................ 57
9Service Insructions................................................................................................. 60
ZIMO decoders contain a microprocessor with appropriate software. The software version can be read out from CV #7 and #65.
The current version may not yet capable of all the functions mentioned in this manual. As with other computer programs, it is also
not possible for the manufacturer to thoroughly test this software with all the possible applications. Installing new software ver-
sions later can add new functions or correct recognized errors. SW updates can be done by the end user for all ZIMO decoders
since production date October 2004, see chapter “Software Update”! Software updates are available at no charge if performed by
the end user (except for the purchase of a programming module); Updates and/or upgrades performed by ZIMO are not consid-
ered a warranty issue and are at the expense of the customer. The warranty covers hardware damage exclusively, provided such
damage is not caused by the user or other equipment connected to the decoder. For update versions, see www.zimo.at.
EDITION
2011 05 01
2011 08 15
SW-Version 31 --- 2012 08 15
Including the new MX696 decoder --- 2012 11 30
SW-Version 33.0 --- 2013 04 30
with chapter about loco boards --- 2013 05 20
2014 10 12
2015 06 01
2015 07 07
2015 09 23
2018 04 20
2019 05 16

Page 2 Large-scale Decoder & Sound Decoder MX695/6/7/9
1 Product - Overview
The MX695 large-scale decoder is available in 5 standard versions, 4 of them are equipped with
sound. Special versions for specific high-volume applications with slightly modified features are
also available (i.e. customized number of outputs for a specific project).
ZIMO decoders primarily operate in the NMRA-DCC data format with any NMRA-DCC compat-
ible system, as well as the MOTOROLA protocol (MM) within Märklin systems and other
MOTOROLA command stations. ZIMO decoders also operate in DC analog mode with DC
power packs (including PWM) as well as AC analog (Märklin Transformers with over-voltage
pulses for direction change).
In addition to the types presented below, there are also
loco-board and large-scale decoder combinations available: see chapter 4
51 x 40 x 13 mm
MX695K …
Sound-Decoder (and non-sound decoder) with screw terminals
MX695KV
MX695KS
Full version: 36 Screw terminals
14 Function outputs (including headlights)
1 Special output for smoke generator fan
3 Low-voltage outputs: 5 V, 10 V, variable
4 Servo outputs (3-pin plugs: Control, ground, + 5 V)
2 Pot-meters (for volume and low voltage settings)
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
Reduced 28 Screw terminals (2 x 12 and 1 x 4)
version: 8 Function outputs (including headlights)
1 Special smoke fan output
1 Low-voltage function output: 10 V
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
MX695KN
Non-Sound-Decoder with screw terminals
32 Screw terminals (1 x 8 and 2 x 12)
14 Function outputs (including headlights)
1 Special smoke fan output
3 Low-voltage outputs: 5V, 10V, variable
4 Servo outputs (3-pin plugs: control, ground, + 5 V)
51 x 40 x 13 mm
MX695L …
Sound-Decoder with pin connectors
MX695LV
MX695LS
Full Version: 3 Pin connectors, 12-pins each
14 Function outputs (including headlights)
1 Special output for smoke generator fan
3 Low-voltage outputs: 5 V, 10 V, variable
4 Servo outputs (3-pin plugs: control, ground, + 5 V)
2 Potentiometers (volume, low voltage adjustment)
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
Reduced: 2 Pin connectors, 12-pins ea. (matching ESU-interface)
Version 1 Special output for smoke generator fan
1 4-pin socket for additional connections
8 Function outputs (including headlights)
1 Low voltage output: 10 V
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
55 x 29 x 16 mm
MX696…
Sound and NON-Sound Decoder with narrow body style
MX696V
MX696S
Full Version: 2 20-pin connectors
14 Function-outputs (including headlights)
1 Special smoke fan output
2 Low-voltage outputs: 10V and variable *
4 Servo outputs (control lines)
1 Speaker connection (4 or 8 Ohm at 10 Watt)
Reduced: 1 20-pin connector & 1 10-pin connector
1 Low-voltage function output: 10V
8 Function-outputs (including headlights)
1 Speaker connection (4 or 8 Ohm at 10 Watt)
MX696N
Non-Sound-Decoder, identical size and connections as the MX69
1 20-pin connector
8 Function outputs (including headlights)
1 Low-voltage output: 6 V (Servo supply!)
4 Servo outputs (Control lines)
*) ATTENTION: The sound decoder MX696Vdoes not have a fixed 5V output (as does the
MX695KV/MX695LV), but the variable output can be set between 5 –6V to supply servos with power.
OR: Use the MX696KV (MX696V combined with LOKPL96KV board), which does have a fixed 5V output.

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 3
68 x 29 x 20 mm
MX696K…
Narrow large-scale sound decoder with screw terminals
(Decoder and loco board combinations)
MX696KV
MX696KS
MX696KS
Full Version: 30 Screw terminals
14 Function outputs (including headlights)
1 Special smoke fan output
2 Low-voltage outputs: 5 V, variable
4 Servo outputs (3-pin plugs: Control, ground, + 5 V)
1 Potentiometers (for low voltage outputs)
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
Reduced 20 Screw terminals
Version: 8 Function outputs (including headlights)
1 Special smoke fan output
4 Servo control outputs on solder pads (no 5 V supply)
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
See the chapter “Loco adaptor boards for large-scale decoders” for more information about these boards.
56 x 32 x 21mm
MX697
Large-scale sound decoder for US interfaces
(Bachmann, Aristocraft)
MX697V
MX697S
Full Version: 2 12-pin connectors
10 Function outputs (including headlights)
1 Special smoke fan output
3 Low-voltage outputs: 5 V, 10V, variable
4 Servo outputs (3-pin plugs: Control, ground, + 5 V)
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
Reduced 2 12-pin connectors
Version: 10 Function outputs (including headlights)
1 Special smoke fan output
1 Low-voltage output: 10V
4 Servo control outputs (no 5 V supply)
1 Connection for external capacitor
1 Speaker connection (4 or 8 Ohm at 10 Watt)
51 x 40 x 13 mm
MX699K …
Large-scale sound decoder with screw terminals
.
MX699KV
MX699KS
Full Version: 38 Screw terminals
15 Function outputs (including headlights)
2 Special smoke fan output
3 Low-voltage outputs: 5 V,10 V, variable
1 Low-voltage switch (4 fixed values)
4 Servo outputs (3-pin plugs: Control, ground, + 5 V)
1 Speaker connection (4 or 8 Ohm, 10 Watt)
1 Connection for external volume control
3 Internal super caps (total 1F/8V)
1 Additional connection for external capacitor module
Reduced 30 Screw terminals
Version: 8 Function outputs (including headlights)
1 Special smoke fan output
3 Low-voltage outputs: 5 V,10 V, variable
4 Servo control outputs on solder pads (no 5 V supply)
1 Speaker connection (4 or 8 Ohm at 10 Watt)
1 Connection for external volume control
3 Internal super caps (total 1F/8V)
1 Additional connection for external capacitor module
1
MX699L …
Large-scale sound decoder with pin connectors
.
MX699LV, -LM
-LM: Direct fit for the
2 x 14 –pin Märklin in-
terface with extra pins
on top
MX699LS
-LS: Direct fit for the
2 x 14 –pin Märklin in-
terface
Full Version: 3 14-pin connectors
15 Function outputs (including headlights)
1 Special smoke fan output
3 Low-voltage outputs: 5 V,10 V, variable
1 Low-voltage switch (4 fixed values)
4 Servo outputs (3-pin plugs: Control, ground, + 5 V)
1 Speaker connection (4 or 8 Ohm, 10 Watt)
1 Connection for external volume control
3 Internal super caps (total 1F/8V)
1 Additional connection for external capacitor module
Reduced 2 14-pin connectors
Version: 8 Function outputs (including headlights)
1 Special smoke fan output
3 Low-voltage outputs: 5 V,10 V, variable
4 Servo outputs (3-pin plugs: Control, ground, + 5 V)
1 Speaker connection (4 or 8 Ohm, 10 Watt)
1 Connection for external volume control
3 Internal super caps (total 1F/8V)
1 Additional connection for external capacitor module
Note to the Märklin interface: one of the female terminals on the vehicle decoder board may be used as a key to pre-
vent a wrong installation and may therefore be plugged. The relevant decoder pin („Switch input 1) must be cut off in
such cases. This is not done at the factory because the pin is needed for non-Märklin applications.

Page 4 Large-scale Decoder & Sound Decoder MX695/6/7/9
2 Technical Information
.
Track Voltage in digital mode (DCC) ................................................................................. 10 - 30 V
(peak) in analog mode (High voltage pulse for direction reversal) ........................................ 35 V
Threshold voltages in analog mode - see below!
Maximum continuous motor output = maximum continuous total output MX695.......................... 6 A
Maximum continuous motor output = maximum continuous total output MX696, MX697............. 4 A
Maximum continuous motor output = maximum continuous total output MX699.......................... 6 A
Maximum peak current (Motor only or total) ............................................................................. 10 A
Number of function outputs …..MX695KV, MX695LV, MX695KN, MX696V ….……………...........14
MX699KV, MX699LV ...................................................................15
MX695KS, MX695LS, MX696S, MX696N, MX699KS, MX699LS .8
MX697V, MX697S .......................................................................10
Maximum continuous function output current ........................................................................... 2 A
Maximum continuous output for low-voltage functions (5 V, 10 V, adjustable) ................. each 1 A
Voltage range for adjustable low-voltage functions (MX695KV, -LV) .............................. 1.5 to 16 V
Maximum current at special output for Smoke-Ventilator (5 V - Motor) with brake function . 200 mA
Storage capacity for sound samples .................................................................................. 32 Mbit
Playback frequencies according to sound sample …...................................................... 11 or 22 kHz
Number of simultaneously playable sound channels ..................................................................... 6
Sound-amplifier output at 4 Ohm ................................................................................. Sinus 10 W
Loudspeaker impedance........................................................ 8 Ohm, 2 x 8 Ohm parallel or 4 Ohm
Externally connectable energy storage device . .............................................charging voltage 17 V
for standard electrolytic capacitors ...................... >= 20 V, any capacity
Gold-caps (pack with 7 pieces at 2,5 V ea. - in series) >= 17 V, max. 1 F
Rechargeable battery (only with special circuitry) .............. 14.4 V pack
Charge current for external energy storage ......................................................................... 80 mA
Analog mode (DC or AC) *) ............................................Threshold-voltage headlights........... @ 4 V
Threshold-voltage sound................. @ 5 V
Threshold-voltage motor ..................@ 6 V
Operating temperature............................................................................................... - 20 to 100 oC
Dimensions (L x W x H including screw terminals) **) MX695-, -99KV, -KS ..... 50 x 40 x 13 mm
(L x W x H including pins)............................MX695-, -99LV ............. 50 x 40 x 13 mm
in cases of long plug-in pins for ESU-loco boards with MX695LS ...................... 50 x 40 x 20 mm
MX696 ......................... 55 x 29 x 16 mm
MX697 ......................... 56 x 32 x 21 mm
*) Actual analog-characteristics depend heavily on the type of power pack and the locomotive’s drive
train (because the transformer output voltage may collapse more or less under load)
**) Length given without break-away mounting brackets; these increase the length by 2 x 6 mm
RailCom is a registered trademark by Lenz Elektronik GmbH
Tel +43 (1) 81 31 007 0
The decoder type can be read out in CV #250
130=MX630 (Rev. 2019) 135=MX635 136=MX636 137=MX637 142=MDS442
160=MX660 182=MX682 (2019) 190=MX659 192=MX622 (Rev. 2019) 193=MX638
195=MX616 196=KISS Silberlinge 197=MX617 198=FLM_E69 199=MX600
200=MX82 201=MX620 202=MX62 203=MX63 204=MX64
205=MX64H 206=MX64D 207=MX680 208=MX690 209=MX69
210=MX640 211=MX630-P2520 212=MX632 213=MX631 214=MX642
215=MX643 216=MX647 217=MX646 218=MX630-P25K22 219=MX631-P25K22
220=MX632-P25K22 221=MX645 222=MX644 223=MX621 224=MX695-RevB
225=MX648 226=MX685 227=MX695-RevC 228=MX681 229=MX695N
230=MX696 231=MX696N 232=MX686 233=MX622 234=MX623
235=MX687 236=MX621-FLM 237=MX633 238=MX820 RevA 240=MX634
241=MX686B 242=MX820RevB 243=MX618 244=Roco NextG 245=MX697
246=MX658 247=MX688 248=MX821 249=MX648-RevC,D 250=MX699
251=Roco 2067 252=Roco ICE 253=MX649 254=MX697-RevB
OVERLOAD PROTECTION
The motor and function outputs of the ZIMO large-scale decoders are designed with large re-
serve capacities and are additionally protected against over-currents and short circuits. Automat-
ic shutoff will occur in case of overload followed by automatic reboot attempts (which often re-
sults in flashing lights).
These safety precautions do not mean that the decoder is indestructible. Please pay attention to the
following:
Faulty decoder hook-up (mixed up connection wires) and improper electric connections between the motor
terminal and chassis are not always recognized and can lead to output driver damage or even total destruction
of the receiver.
Unsuitable or defective motors (e.g. with short-circuited turns or collectors) are not always recognizable by
their high consumption of electricity (only peaks may register) and can lead to decoder damage, sometimes
long term effects can cause output driver defects.
The decoders output drivers (for the motor and function outputs) are not only at risk through over-current but
also through voltage spikes as they are delivered from the motor and other inductive consumers. Depend-
ing on track voltage, such spikes can reach several hundred volts and are absorbed by special protection cir-
cuits inside the decoder. The capacity and speed of such elements is limited and so unnecessarily high track
voltage should not be used. Never use a higher voltage than recommended for a particular vehicle. Only in ex-
ceptional cases should the ZIMO adjustable range (up to 24 V) be utilized.
THERMAL PROTECTION
All ZIMO decoders come equipped with a sensor that detects the actual temperature. Once the
maximum permissible value (ca. 100 oC on the circuit board) has been reached, power to the
motor will be shut off. Rapidly flashing headlights (at ca. 10 Hz) will signal that a shut-off has oc-
curred. Motor operation will resume automatically after a drop in temperature of about 20 oC, typ-
ically after 30 to 60 sec.
SOFTWARE UPDATE
ZIMCO decodes are designed so that software updates can be completed by the user. This re-
quires a device with an update function (ZIMO decoder update module MXDECUP, or MXULF,
or “central system cab“ MX31ZL/MX32ZL, or command station MX10).The update itself is car-
ried out via a USB stick (MXULF, MX31ZL, MX32ZL, MX10) or via a computer with the “ZIMO
Sound Programmer” ZSP software or “ZIMO Rail Center” ZIRC software.
There is no need to remove the decoder; the locomotive does not need to be opened; it can be
placed onto the update-track (connected to the update-device) without any changes and can
then be updated via a USB stick or a computer.
Note: Locomotive accessories that are directly connected to a track (not controlled by the decoder) may inter-
fere with the update; in that case the locomotive will have to be opened and removed from the track.

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 5
3 Installation and Wiring of the MX695 - MX699

Page 6 Large-scale Decoder & Sound Decoder MX695/6/7/9

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 7
MX697

Page 8 Large-scale Decoder & Sound Decoder MX695/6/7/9

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 9
The following connection diagrams
are based on the MX699.
The connections on the MX696 and MX697 are placed differently, but functionally similar
3.1 Tracks and motor(s)
The loco must provide enough
space inside, so the decoder can
be mounted without exerting me-
chanical stress.
All direct connections that are
present in the original wiring con-
figuration between the power
pick-ups (wheels and wipers) and
the motor must be insulated.
The same is important for the
headlights and other additional
accessories, which must be com-
pletely insulated.
Tracks (wheels, wipers) and mo-
tor are connected to the corre-
sponding positions on the screw
terminals (pins) according to the
picture. The second connection
points (only partly available) can,
but do not have to, be used addi-
tionally.
Generally, all DC motors used in model railways can be used.
In case, there is more than one motor in the loco, those are connected in parallel and com-
bined with each other to the decoder. A parallel connection like this ensures an automatic
alignment, provided it is an identical motor- and transmission arrangement. The MX699 usu-
ally is always strong enough to handle two or more motors.
See configuration (CVs) for motor regulation!
The connection pins for tracks and motor are available twice on the decoder, to enable send-
ing the full voltage through the relatively thin cables. For a use of up to 2 A, it is, however,
sufficient to use only one pin.
3.2 Speaker, cam sensor and volume regulation
All 4 Ohm or 8 Ohm speakers can be used,
or even some speakers connected in paral-
lel, so there is a total impedance of not
more than 4 Ohm.
The sound amplifier of the MX699 works
with 10.8V and therefore presents a sinus
power of 12 Watt onto a 4 Ohm speaker;
onto an 8 Ohm correspondingly less, i.e.
about 5 Watt.
In case, tweeters are used, they are con-
nected in parallel to the main speaker via a
frequency crossover (e.g.: a capacitor of 10
μF).
Attention: for speakers with lower specifica-
tions the volume has to be adjusted to the
processable track power.
A cam sensor (to synchronize steam chuffs
with wheel rotation) is usually not neces-
sary, because the software-provided “virtual
cam sensor” is sufficient.
In case there is a real cam sensor, a mechanical contact or a photo transistor, as well as a
Hall sensor can be connected to the switch input “IN3”. The corresponding element has to
produce a low-resistance (i.e. <10K) connection between switch input and GROUND in the
desired rotation-dependent cycle.
The volume can be controlled alternatively or additionally to the CV-configuration (see CV
#266) via the connections to an external regulator in the loco.
ONLY MX695: If such a regulator is used (100K, preferably logarithmic), the regulator on
the PCB shall be set to the highest possible volume (left limit stop), unless it is used to limit
the maximum volume to protect a lower-power speaker.
Note to the decoder MX696, MX697, MX699:
These large-scale decoders (i.e. all except the MX695) do NOT have a volume regulator
on the PCB. Nevertheless, external volume control units (potentiometers, 10K for MX697,
5K for MX699) can be connected. This is NOT possible with MX696!

Page 10 Large-scale Decoder & Sound Decoder MX695/6/7/9
3.3 Consumers and low voltage outputs
“Consumers” (or function elements) is all equipment connected to the function outputs Flf,
Flr, FO1-FO13. Mostly, this is lighting equipment (light bulbs and LEDs), but also positioning
magnets, small motors, relays, etc.
Each consumer (light bulbs, groups of light bulbs or other) is always connected to the corre-
sponding function output (negative) and to one of the up to 4 positive poles (positive):
- Positive pole - full track voltage: the directly commutated driving voltage; depending on the
stabilization of the digital command station and track voltage, this is relatively unstable, i.e.
oscillates with the driving voltage.
- Low voltage - 10V: this is the voltage mostly used within the decoder to produce sound. AT-
TENTION: too much or volatile consumption by the consumers at the 10 V source can impair
the sound quality. A short circuit on the 10 V output can damage the decoder. Therefore, on-
ly use it, if there is no other possibility (i.e. the adjustable low-voltage output is already in
use).
- Low-voltage - 5 V: this voltage is provided for servos and consumers, e.g. also for common 5
V light bulbs.
Only in V-types!
- the adjustable (= variable) low-voltage: via a coding switch on the decoder PCB, which leads to
the space between FO12 and FO13, the low-voltage can be adjusted in the following steps: 1.5
V, 6.5 V, 10V, 15V.
Only in V-types!
NOTE: Rather use a low-voltage source than reducing the voltage per software (dimming
with CV #60), because dimming uses PWM reduction (full voltage impulses with a corre-
sponding duty cycle), which can damage light bulbs (not LEDs).
See chapters concerning decoder configuration (CVs) for function mapping, function ef-
fects, electrical couplers (systems by Krois, Heyn), etc.
Note to decoders MX696:
The MX696 does NOT have the (definite) 5 V low-voltage. If needed (e.g. for servos) the ad-
justable low-voltage (only MX696V) has to be used.
Note to decoders MX696N (non-sound version):
Those provide a 6 V low voltage output (instead of the 10 V low voltage of the sound decod-
ers). Due to this, servos can be supplied directly by the decoder.
3.4 Special connections for smoke-fans
Those outputs are used to control fan motors of clocked smoke generators, as they are
used in many modern locos.
The special feature of these outputs (in contrast to the “normal” function outputs) is the
possibility to brake the motor. This inhibits the motor from rotating after a current impulse,
whereby the steam-clocking gets stronger and more accentuated. The outputs are de-
signed for a 5 V motor and for a load capacity of up to 100 mA continuous current (the
start-up current may be higher).
The decoders MX695, MX696 and MX697 only have one fan output.
3.5 Servos
The MX699 provides 4 connections for common servos, which can be used for couplers,
pantographs and other mechanical equipment.
ATTENTION: Servos of different manu-
facturers all have three wires, but the or-
der and colors of the wires differ.
See chapter concerning decoder con-
figuration regarding allocation and
setting of the servos.
5V supply for servos is only available in
V-types. The control wires on the other
hand can be used in all types of the
MX695; if needed, the 5 V supply has to
be provided externally.
The 5 V supply for servos is only availa-
ble in the MX695KV, MX695LV and other
V –type models!
The control wires though are usable with
all sound decoder versions; if necessary,
use an external 5V power source to power the servo.

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 11
3.6 Switch inputs
Additionally to the switch input “IN 3” (see chapter 3.2, speaker and cam sensor) there are 3
further inputs (“IN 1”, “IN 2” and “IN 4”). These can be used to connect reed contacts to trig-
ger sounds, etc. Electrically, those switch inputs behave very similar.
See chapter concerning decoder configuration (CVs), especially regarding sound.
3.7 External stay-alive capacitor
A stay-alive capacitor (a
bigger electrolytic capacitor,
a “Goldcap”, etc. or a bat-
tery)
- improves the driving behavior on
dirty tracks (or wheels),
- reduces flickering lights
caused by interrupted contact
(e.g. frogs),
- Prevents the train from getting
stuck when driving slowly, especially in combination with the ZIMO software fea-
ture “prevent stopping on tracks without current” *),
- compensates energy loss produced by RailCom and HLU cut-outs and the corre-
sponding motor sound, additionally improves the quality of the RailCom signal.
*) In case, the current supply is interrupted (due to dirty rails or frogs), the decoder auto-
matically provides enough energy to move the train forward, even if it was currently in a
braking procedure and was supposed to stop. The train is stopped as soon as the wheel-
track-contact is reestablished. After the train stopped, the decoder tests again for track
power (if there is none, the engine moves the train a little forward until power is restored).
Generally, the efficiency of energy storage modules increases with the capacity; starting with
1000 μF (μF = Micro Farad) you can see an effect, about 100,000 μF are recommended for
large-scale locos, as far as there is enough space in the loco. Goldcap modules with a capacity
of 1 F do have a bigger effect. Too big capacities have the disadvantage of very long charging
times; this is why ZIMO recommends not more than 0.5 F for Goldcap modules (related to full
voltage of about 15 V to 25 V from a series connection of 6-10 elements with 2.5 V each; a single
Goldcap therefore has a capacity of up to about 3 F.
Proper preparations in ZIMO large-scale locos (capacitor+ connection) ensure that external capaci-
tors do not cause problems when programming decoders or updating the software (referring to
ZIMO loco number recognition via RailCom).
The charging current for the stay-alive capacitor on the positive connection is about 100 mA, i.e.
fully charging a 10,000 μF capacitor takes about 5 seconds, a 0.5 F Goldcap takes about 3
minutes.
The ZIMO Goldcap mostly used is the GOLMRUND (and the GOLMLANG), which consists of
7 Goldcaps, 1F / 2.5 V each, ergo 140.000 μF / 17.5 V in total. The capacitor+ connection on the
decoder ensures that the charging voltage does not get too high.
Using a battery instead of a capacitor can only be recommended for experts (engineering spe-
cialists); it is very important that the battery is completely discharged after taking the loco off
the supply of the tracks. Tip: a relay, supplied by the running voltage, with a capacitor hold cir-
cuit, which interrupts the connection to the battery after about 1 minute of lost supply.
Note to decoders MX699:
Contrary to other types, the MX699 also have an internal stay-alive capacitor, which consists
of 3 Supercaps in series, each with 3 F / 2.7 V, i.e. 1 F and 8 V in total. This capacitor ensures
securely passing parts without current, possibly with reduced speed. The sound supply is
guaranteed by transforming 8 V to 10 V, so the sound is fully preserved.
Nevertheless, it may be useful to connect an external stay-alive capacitor, like a GOLMRUND,
because it is charged to higher voltage (17.5 V instead of 8 V). This provides more voltage and
energy for motor and functions.
3.8 SUSI interface
The “SUSI” interface was developed by Fa. Dietz and
defines the connection of additional modules to the
decoder. Usually these are sound modules, which are
used in combination with non-sound decoders, i.e.
MX695KN and MX696N.
Additional to the sound modules, the market also pro-
vides digital couplers with a SUSI interface. Some lo-
cos have PCBs for pantographs with SUSI interface
integrated, wherefore they can use the interface on
the decoder.
Furthermore, the SUSI interface is used for loading a
sound project or update fast (with the decoder updat-
ing and testing device MXULF/A); however, this uses
faster communication instead of the SUSI protocol.
the Goldcap module GOLMRUND, often used as stay-alive capacitor
it consists of 7 Goldcaps, i.e. 7 x 1F, in total 140000 μF / 17.5 V.

Page 12 Large-scale Decoder & Sound Decoder MX695/6/7/9
4 Loco Adapter Boards for Large-Scale Decoder
Locomotive adapter boards serve as an "intermediate part" between the engine and the decoder,
to facilitate the decoder installation and connection to the various loco components. It also allows
for an easy exchange of the decoder when necessary. Additionally, some loco boards also offer
a low voltage output (i.e. for servos).
Note: Adapter boards for ZIMO large-scale decoders DO NOT contain an additional synchronous
rectifier to increase power, as do the boards for “small” decoders (for N, HO etc., see operating
manual for MX618, MX621...MX648 decoder). This would be redundant due to the very strong
and low-loss synchronous rectifier already present in large-scale decoders.
Because of the very different needs, there are a relatively large number of types or versions of
these locomotive boards available. In addition to the standard types described below, special de-
signs are also manufactured (for a minimum-order quantity of about 50, mostly for vehicle manu-
facturers) that are based on the standard printed circuit boards, but with different or differently ar-
ranged connectors.
Loco boards LOKPL95BS, -BV with solder pads,
designed for the large-scale decoders MX695LS and MX695LV
The wires from the locomotive (motor, track, lights, speakers...) are soldered directly to the solder
pads and an appropriate decoder is plugged into these boards. Depending on the type of the lo-
co board (-BS or BV), these are either simple circuit boards (no other electronic components on
the board) or a board with "additional benefits" (in this case a voltage regulator for low voltages,
which is often useful to have):
LOKPL95BS LOKPL95BV
circuit board with solder pads, with additional variable low voltage
usabilty of upper connector row (Adjustable from 1.5 V to track voltage),
depends on the decoder type otherwise identical
plugged in
Loco board LOKPL95BV with decoder MX695 plugged in
NOTE: The servo connections are NOT
accessible on the loco board. They are
therefore directly plugged in to the decod-
er (at the 3-pin sockets of the MX695).
Special applications may also contain servo
connectors on the loco board (i.e. with special
board layouts that have enough room on the
underside).
Loco boards LOKPL96...
designed for large-scale decoders MX696S and MX696V
The large-scale decoder family MX696 differs from the MX695 by their narrow designs (29 mm
instead of 40 mm). The slightly lower rating (4 A instead of 6 A) is not all that significant, but the
MX696 is not equipped as well with low voltage outputs as the MX695, in particular the 5 V –
supply is lacking. The loco boards LOKPL96.V therefore offer a 5 V source (and the complete
servo connectors), but no variable low-voltage as the ...PL95.
Connection diagram for loco boards
LOKPL96BS (Solder pads)
and LOKPL96BV “
LOKPL96LS (Plug-in)
and LOKPL96LV “
LOKPL96KS (Screw terminals)
and LOKPL96KV “
LOKPL96BS LOKPL96BV
68 x 26 x 6 mm

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 13
circuit board with solder pads, with additional 5 V low voltage
usability of upper connector row (for servos), otherwise
depends on the decoder identical
type plugged in
LOKPL96LS LOKPL96LV
Circuit board with with additional 5 V low voltage (for servos),
10-pin plugs, complete servo connections,
usability of upper connector row and third 10-pin plug (angled)
depends on the decoder type
plugged in
This version (-LS) is designed to combine This version (-LV) is designed to combine
with the MX696S decoder: with the MX696V decoder. The angled
pins (at the back for the higher FO’s and
in the front for servo’s) must be bent or
cut off if space is limited.
The 10-pin plugs can be connected
with the locomotive using cable and
crimp sockets (also available from
ZIMO). The 3-pin servo connectors
accept the typical servo plugs (se-
quence: GROUND - 5V - control).
Suitable for LGB locos with 10-pin "DCC interface", which has the exact mirror image of the
LOKPL96LS (or LV) board’s left connector. The connecting cable is therefore particularly easy to
produce.
LOKPL96KS LOKPL96KV
Circuit board with with additional 5 V low voltage (for servos),
10-pin screw terminals, complete servo connections,
usability of upper connector row and a third row of screw terminals
depends on the decoder type
plugged in
This version (-KS) is designed to combine This version (-KV) is designed to
with the MX696S decoder. combine with the MX696V decoder.
The angled servo pins must be
bent or cut off if space is limited.
Sold as a single decoder type -
Combinations of loco board and decoder
Particularly useful combinations of loco board and decoder are treated as separate decoder
types (with their own names, part numbers and prices): this is especially true for
LOKPL96KS + MX696S = MX696KS
This decoder combination is similar to the type
MX695KS in terms of functions and connectivy (Screw
terminals) but is much narrower (29 instead of 40 mm).
LOKPL96KV + MX696V = MX696KV
This decoder combination is similar to the type
MX695KV in terms of functions and connectivy (Screw
terminals) but is much narrower (29 instead of 40
mm).mm).
Combination LOKPL96KV + MX696V = MX696KV

Page 14 Large-scale Decoder & Sound Decoder MX695/6/7/9

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 15

Page 16 Large-scale Decoder & Sound Decoder MX695/6/7/9
Special loco board LOKPLSHMAL
as carrier of the large-scale decoders MX696S or MX696V
This board is a special development for the “HSB Mallet 995901” engine from TrainLine, but can
also be used by other engine manufacturers, workshops as well as private model railroaders.
100 x 56 x 20 mm
Loco board LOKPLSHMAL
with plugged-in decoder MX696S
Connection diagram for
loco board LOKPLSHMAL
NOTES for LOCO-CONVERSION (using the example of the Train Line HSB Mallet 995 901):
The original board in the vehicle is removed and replaced by the Zimo "Special Loco board" (with
inserted decoder MX696S). The Zimo loco board has the same connectors (but no connection
for a potentiometer) and also the same holes for the mounting screws as the Train Line original
board. The plugs are labeled on the Zimo loco board the same as the original board, i.e. J1, J2,
J3, etc. The exchange of the loco board is therefore very easy. It is recommended to first mark
the cables - at least the two-pole –in order to make the correct connections on the Zimo loco
board ... It makes sense to previously remove the decoder (for better accessibility of the loco
board connectors) and to plug it back in after finishing the installation of the loco board.
The ZIMO loco board, in contrast to the TrainLine original board, offers a connection (double
screw terminal in the lower right corner) for an energy storage device: preferably a ZIMO gold
cap module GOLMRUND or GOLMLANG.
Additionally: connections for uncouplers (for servos or Massoth uncouplers).
The conversion of the "analog version" ("A-Lok" that comes without a decoder, but does have a
loco board and connection board installed, which both have to be removed) is the same as for
the "digital" version ("D-Lok" which includes a factory-installed decoder); they differ mainly with
respect to the smoke generator. It is therefore necessary to place the 6 jumpers on the loco
board accordingly; ideally BEFORE the installation –the loco board, as delivered, is set for the
“analog version” (”A-Lok”).
The decoder offered for the HSB Mallet already contains a particularly high quality sound project
from Heinz Däppen and is optimized for this model. The decoder is also provided with a valid
load code to facilitate possible future firmware upgrades or an improved version of the sound
project. The “ZIMO & Däppen” sound offers a number of advantages for this vehicle, compared
to the manufacturer’s original digital version: prototypical chuff beats (not exaggeratedly hard),
cylinder typical “load sounds”, Mallet-typical sound even in the lower speed range, sound of aux-
iliary units from the actual locomotive.
More info ... in special document "Upgrading Notes"
The upgraded locomotive: Goldcap-Module on the left, decoder on the right.

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 17
Loco board LOKPL99 with solder pads,
for large-scale decoders MX699LS and MX699LV
When installing these loco boards, all wires (track, motor, speaker, bulbs...) are soldered to
the loco board and after that, the approrpiate decoder is plugged in.
Connection diagram for
loco board LOKPL99 (with solder pads)
62 x 40 x 10 mm
WILL BE ADDED LATER
NOTE: The servos are connected directly
to the decoder MX695. For this reason,
the loco board has special cut-outs
LOKPL99
WILL BE ADDED LATER
WILL BE ADDED LATER
Loco board LOKPL99 with
decoder MX699LS or –LV
plugged in

Page 18 Large-scale Decoder & Sound Decoder MX695/6/7/9
5 Configuring the MX695 - MX699
ZIMO decoders can be programmed in
- “Service Mode” (on the programming track) for assigning a new address or reading and
writing CV content, or in
- “Operations Mode” (a.k.a. “Programming on the main” or “PoM”), which is done on the
main track; programming CV’s “on the main” is always possible in operations mode. However,
an acknowledgement of successful programming steps or when reading out CV’s is only pos-
sible with a DCC system capable of “RailCom”.
5.1 “Service mode”programming (on the programming track)
Before programming is possible, it must be unlocked with
CV #144 = 0 or = 128 (the latter allows programming but prevents decoder updating).
This (CV #144 = 0) is normally the default setting, but the programming lock is activated in many
sound projects to prevent accidental changes. It is therefore recommended to check that CV, es-
pecially when attempted programming has already failed.
Successful programming steps as well as CV read-outs on the programming track are acknowl-
edged by decoder-generated power pulses, by briefly turning on the motor and/or headlights. If
the motor and/or headlights do not draw power (i.e. they are not connected) or don’t draw
enough power, acknowledgments for successful programming or CV read-outs are not possible.
To make acknowledgments possible in such cases activate CV #112 bit 1, which enables the de-
coder to use an alternate acknowledgment by sending high frequency pulses from the motor end
stage. Whether this method is successful though depends on the DCC system used.
CV
Designation
Range
Default
Description
#144
Programming and
Update Lock
Note: The programming
lock has no effect on
CV #144, which is
therefore always ac-
cessible for unlocking.
Bits
6, 7
0
or
255
= 0: Update and programming lock not active
Bit 6 = 1: No programming possible in “service mode”:
protection against unintentional program-
ming.
Note: Programming in “Operations Mode“ is not
locked because any such programming only
applies to the active loco address and re
programming the wrong locomotive is there-
fore not possible.
Bit 7 = 1: Software updates via MXDECUP, MX31ZL
or other means are locked.
#112
Special ZIMO configu-
ration bits
0 - 255
4 =
00000100
That is
Bit 1 = 0
(normal)
Bit 1 = 0: Normal “service mode“ acknowledgement;
i.e. motor and headlights are pulsed.
= 1: High frequency pulses instead of normal
acknowledgments from motor and headlights.
Bit 2 = 0: loco number recognition off
etc,
Attention: The CV values of a sound decoder in the delivery state do NOT correspond with
the default values in the following chapters, but rather the initial values of the loaded sound
project!
This applies most often to
CV #29 –analog operation is usually turned off (Bit 3 = 0); CV #29 = 14 turns this on if desired.
CV #144 –the update lock may be activated (Bit 7 = 1), sometimes even the programming
lock (Bit 6 = 1); before updating or programming a decoder, set this CV to CV #144 = 0.
CV #3, 4 –acceleration and deceleration CV’s are often set to higher values (i.e. 12).
CV #33 and following –the functions are often mapped to a specific loco model.
…and of course the sound CV’s (from CV #265) and (less frequently) all other CV’s.
5.2 “Operations mode”programming (on-the-main)
Programming in “Operations mode”, otherwise known as “Programming-on-the-main” = PoM
“Programming-on-the-fly”.
According to the current NMRA DCC standards it should only be possible to program and read
CV’s on the main track, but not assign new vehicle addresses. However, certain DCC systems
(among them ZIMO beginning with the system generation MX10/MX32) will allow addresses to
be modified on the main track with the help of bidirectional communication.
All ZIMO decoders are equipped with bidirectional communication (“RailCom”) and can there-
fore (with a corresponding DCC system such as ZIMO MX31ZL and all devices of the new
MX10/MX32 generation) read, program and acknowledge successful CV programming steps in
operations mode (on the main track). This requires RailCom to be activated, which is the case
if the following CV’s are set as:
CV #29, Bit 3 = 1 AND CV #28 = 3
This is usually the default setting, but in certain sound projects or OEM CV sets it may be
turned off by default and must first be turned on again.
CV
Designation
Range
Default
Description
#28
RailCom
Configuration
0 - 3
3
Bit 0 - RailCom Channel 1 (broadcast)
0 = off 1 = on
Bit 1 - RailCom Channel 2 (Data)
0 = off 1 = on
#29
Base Configuration
Configuration data
0 - 63
14 =
0000 1110
That is
Bit 3 = 1
(“RailCom“
is on)
Bit 0 –train direction
0 = normal, 1 = reversed
Bit 1 - number of speed steps
0 = 14, 1 = 28
Bit 2 –DC operations (analog mode)
0 = disabled 1 = enabled
Bit 3 - RailCom (“bi-directional communication”)
0 = off 1 = on
Bit 4 –individual speed table
0 = off, CV #2, 5 and 6 are active.
1 = on, according to CV ‘s #67 – 9494
Bit 5 –Decoder address (DCC)
0 = primary address as per CV # 1
1 = ext. address as per CV’s #17+18

Large-scale Decoder & Sound Decoder MX695, MX696, MX697, MX699 Page 19
5.3 Decoder-ID, Load-Code, Decoder-Type and SW-Version
CV
Designation
Range
Default
Description
#250,
#251,
#252,
#253
Decoder-ID
also contains
Decoder type in
CV #250
(see chapter 1,
“Product Overview” for
decoder type code)
read only
-
The decoder ID (serial number) is automatically en-
tered during production: the first byte (CV #250) de-
notes the decoder type; the three other bytes contain
the serial number.
The decoder ID is primarily used for automatic ad-
dress assignment when an engine is placed on the
layout track (future function) as well is in conjunction
with the “load code” for “coded” sound projects (see
CV #260 –263)
#260,
#261,
#262,
#263
Load-code
for
"coded” sound projects
-
-
New ZIMO sound decoders can be ordered for a
small fee with the “load code” pre-installed, which en-
titles the user to install “coded” sound projects of a
selected sound “bundle”.
The load code can also be bought and installed at a
later date: see www.zimo.at or ZIRC.
#8
Manufacturer ID
and
HARD RESET
with CV #8 = “8“
or CV #8 = 0
or
ACTIVATION
of special CV sets
Read only
Reading out
the decoder
always shows
“145”, which
is ZIMO’s
assigned
number.
For pseudo
programming
see the
description
on the right.
145
( = ZIMO)
Reading out this CV always result in “145”
(”10010001”), the number issued for ZIMO by the
NMRA.
This CV is also used to execute various resets with
the help of Pseudo-Programming.
Pseudo-Programming means that the entered value is not real-
ly stored, but rather used to start a defined action.
CV #8 = “8” HARD RESET (NMRA standard); all
CV’s reset to the last active CV set (incl. sound pro-
ject), or the default values as listed in this CV table if
no such set was active before.
CV #8 = “9” HARD RESET to old LGB-MZS
system (14 speed steps, pulse chain commands).
Further options: see chapter “CV Sets”!
#7
SW version number
Also see CV #65 for
sub-version number
and
special programming
procedures with
“Lokmaus-2” and other
“low level” systems
Read only
For pseudo
programming
see the
description
on the right
-
This CV holds the main number of the currently load-
ed decoder software (firmware).
It is also used via “pseudo programming“ to program
decoders with DCC systems of limited numbers range
(typ. example: old Lokmaus):
Ones digit = 1: Subsequent programming value + 100
= 2: ... + 200
Tens digit = 1: Subsequent CV number + 100
= 2: … + 200
etc. = 9: … + 900
Hundreds digit = 0: Revaluation applies only once
= 1: … until power-off
#65
SW sub-version num.
See also CV #7 for
main version number
Read only
-
This CV indicates a possible sub-version number of a
main version noted in CV #7.
The entire SW version number is thus composed of
CV #7 and #65 (i.e. 28.15).
5.4 Engine address(es) in DCC mode
Decoders are usually delivered with default address 3 (CV #1 = 3), for the DCC as well as MM
protocol. All aspects of operations are possible with this address but it is recommended to
change to a different address as soon as possible.
The address space required for DCC exceeds the range of a single CV, up to 10239 in fact.
Addresses higher than 127 are stored in CV #17 and #18. Bit 5 in CV #29 is used to select be-
tween the short address in CV #1 and the long address in CV’s #17/18.
Most digital systems (with the possible exception of very old or simple products) automat-
ically calculate the value for the CV’s involved and also set Bit 5 in CV #29 to the proper
value when writing the address, so that the user does not have to deal with the necessary
coding.
CV
Designation
Range
Default
Description
#1
Short address
DCC:
1 - 127
MM:
1 - 80
3
The “short” (1-byte) loco address (DCC,MM)
In the case of DCC:
The address in CV #1 is only valid if CV #29, Bit 5 = 0.
Otherwise, if CV #29 Bit 5 = 1, the long address in CV
#17 + #18 applies.
#17
+
#18
Extended Address
128
-
10239
0
The long DCC address applies to addresses >127.
It is only active if CV #29 Bit 5 = 1.
#29
Base Configuration
0 - 63
14 =
0000 1110
with
Bit 5 = 0
(for short
address)
Bit 0 –Train direction:
0 = normal, 1 = reversed
Bit 1 - Number of speed steps:
0 = 14, 1 = 28
Bit 2 –DC operation (analog mode)
0 = disabled 1 = enabled
Bit 3 - RailCom (“bi-directional communication“)
0 = deactivated 1= activated
Bit 4 –Individual speed table
0 = off, CV #2, 5 and 6 are active.
1 = on, according to CV ‘s #67 – 9494
Bit 5 - Decoder address selection:
0 = short address as per CV #1
1 = long address as per CV #17+18

Page 20 Large-scale Decoder & Sound Decoder MX695/6/7/9
Decoder-controlled consisting (a.k.a. "advanced consisting”)
The combined operation of two or more locomotives (consisting) can be organized by
- the DCC system (common practice with ZIMO systems, without changing any decoder CV’s) or
- by programming the following decoder CV’s individually, which can also be managed by some
DCC systems (often the case with American made systems).
This chapter covers only the latter; the decoder controlled consisting!
CV
Designation
Range
Default
Description
#19
Consist address
0 - 127
0
A consist address common for 2 or more engines can
be entered in this CV to each loco of the same consist.
If CV #19 > 0: Speed and direction is governed by this
consist address (not the individual address in CV #1 or
#17+18); functions are controlled by either the consist
address or individual address, see CV’s #21 + 22.
Bit 7 = 1: Driving direction reversed
#20
Extended consist ad-
dress
From SW version 36.6
0 - 255
0
The value of CV20 multiplied with 100 added together
with the value of CV 19 which result is the address at
consist.
e.g. CV20= 12, CV19=34 is address. 1234
CV20=100, CV19=00 is address 10000
#21
Consist Functions
F1 - F8
0 - 255
0
Functions selected with this CV will be controlled by the
consist address.
Bit 0 = 0: F1 controlled by individual address
= 1: …. by consist address
Bit 1 = 0: F2 controlled by individual address
= 1: …. by consist address
………. F3, F4, F5, F6, F7
Bit 7 = 0: F8 controlled by individual address
= 1: …. by consist address
,
#22
Consist Functions
F9 –F27
and
headlight control
0 - 191
0
Select whether headlights and/or functions F9 –F12 are
controlled via consist address or single address.
Bit 0 = 0: F0 (forw.) controlled by individual address
= 1: …. by consist address
Bit 1 = 0: F0 (rev.) controlled by individual address
= 1: …. by consist address
Bit 2 = 0: F9 controlled by individual address
= 1: …. by consist address
Bit 3 = 0: F10 controlled by individual address
= 1: …. by consist address
Bit 4 = 0: F11 controlled by individual address
= 1: …. by consist address
Bit 5 = 0: F12 controlled by individual address
= 1: …. by consist address
Bit 7 = 1: F13 –F27 (all !) …. by consist address
5.5 Analog operation
All ZIMO decoders are capable of operating in DC analog on conventional layouts (with DC
power packs, including PWM throttles) as well as in AC analog (Marklin transformers with high
voltage pulse for direction change).
To allow analog operation CV #29, Bit 2 = 1
must be set. This is usually the case by default (CV #29 = 14, which includes Bit 2 = 1), but ana-
log operation may be turned off in many sound projects (sound decoders). Check this CV first to
ensure that the analog mode is enabled if the engine won’t run on an analog layout. It is rec-
ommended to set CV #29, Bit 2 = 0 when operating in a DCC environment only!
The new large scale decoders (MX695/6/7) are very well designed for analog operation because
they can turn on lights, sound and the motor at a very low track voltage, by "raising” the track
voltage internally to a certain degree. See the chapter titled “Technical Data”. This effect is
achieved by applying stepped threshold voltages that is, the headlights will come on first, the
sound at a slightly higher voltage and only after that will the motor start.
The actual behavior during analog operation however, is strongly influenced by the locomotive
controller (power pack). Especially in conjunction with a weak transformer, it is easy possible
that the track voltage collapses when the decoder (motor) starts to draw power which, in the
worst case, may lead to intermittent performance. There are a number of adjustment possibili-
ties for analog operations where motor control and function outputs are concerned; these CV’s
can of course be read-out or programmed only with a DCC system or other programming de-
vices.
CV
Designation
Range
Default
Description
#13
Analog Functions
F1-F8
0 - 255
0
Defines function outputs that should be “ON” in analog
mode.
Bit 0 = 0: F1 is OFF in analog mode
= 1: …ON in analog mode
Bit 1 = 0: F2 is OFF in analog mode
Bit 1 = 1: …ON in analog mode
………..F3, F4, F5, F6, F7
Bit 7 = 0: F8 is OFF in analog mode
Bit 7 = 1: …ON in analog mode
#14
Analog functions
F9 –F12,
Analog momentum
and
Regulated Analog
0 - 255
64
(Bit 6 = 1)
Defines function outputs that should be “ON” in analog
mode.
Bit 0 = 0: F0 (forw) is OFF in analog mode
= 1: …ON in analog mode
Bit 1 = 0: F0 (rev) is OFF in analog mode
Bit 1 = 1: …ON in analog mode
Bit 2 = 0: F9 is OFF in analog mode
Bit 2 = 1: …ON in analog mode
------------F10, F11
Bit 5 = 0: F12 is OFF in analog mode
Bit 5 = 1: …ON in analog mode
Bit 6 = 0: Analog operation with acceleration and
deceleration according to CV #3 and #4.
Bit 6 = 1: Analog operation without acceleration and
deceleration according to CV #3 and #4.
This manual suits for next models
19
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