X12 - Manual
X12 - Manual
Technical Manual
May 2011
X-12 Digital Radio Console Technical Manual
AUDIOARTS ENGINEERING
600 Industrial Drive
New Bern, North Carolina 28562
252-638-7000
NOTE: This equipment has been tested and found to comply with the limits for a
Class A digital device, pursuant to Part 15 of the FCC rules. These limits are designed
to provide reasonable protection against harmful interference when the equipment
is operated in a commercial environment. This equipment generates, uses, and can
radiate radio frequency energy and, if not installed and used in accordance with the
instruction manual, may cause harmful interference to radio communications. Opera-
tion of this equipment in a residential area is likely to cause harmful interference in
which case the user will be required to correct the interference at his own expense.
This equipment must be installed and wired properly in order to assure compliance
with FCC regulations.
One ferrite has been included with your X-12 installation kit to help suppress undesired
electromagnetic interference. Rather than install it at the factory, this ferrite has been pack-
aged separately so that you can attach it after the cable has been run, thus easing installation.
Place the ferrite on the console end of the cable that connects the X-12 console to the power
supply.
1. Place the ferrite on the cable so that the ferrite's curved inner edge rests
firmly on the cable, close to the connector that plugs to the console power
connector.
2. Press the two halves of the ferrite closed until they snap together.
3. Place the split washers (2) on the cable on the each side of the ferrite.
4. Attach the cable ties (2) just below the washers so that the ferrite cannot slide
down the cable.
Console end
Washer power connector
Washer
Ferrite
Gain Structure
Broadcast consoles by design have various electronic stages at which the signal level may
be amplified or attenuated. The primary stages are the A-D converter input, channel fader,
DSP mixing, and the bus output D-A converters. The sum of these gain stages is commonly
referred to as the console’s “gain structure.” Wheatstone consoles are factory calibrated for
0dB or “unity gain” when the input channel fader is set to nominal (-12dB).
The following is a stage by stage breakdown of the X-12 console’s gain stages:
• The ADC input circuit cards are designed so that a +4dBu input signal will yield
a -20dBFS digital output with the channel fader at nominal.
• An input gain adjust switch setting can be changed to increase the gain by 8dB to
allow for interfacing unbalanced equipment.
• Mic level preamps have trim pots for matching various microphone source levels
to the console’s normal +4dBu analog operating level.
DSP Gain
• Set in firmware for unity gain (-20dBFS input yields a -20dBFS output when the
input channel fader is set to nominal), digital attenuation may be applied on a
channel by channel basis via a dipswitch setting.
• The analog output DAC circuits are designed so that a -20dBFS digital input signal
will yield a +4dBu analog output with the channel fader at nominal.
These settings will provide a headroom of 20dB over the nominal input signal of +4dBu
analog, or -20dBFS digital.
Note that due to the lack of level standards in the digital domain, headroom available for
digital sources will be entirely dependant on the source. In fact, CD's are frequently made
with less than 1dB of digital headroom, and any boosting of digital CD levels in the console
by moving the fader up above the nominal can result in overload distortion for that channel.
For this reason, a dipswitch allows for digital attenuation on a fader by fader basis; digital
sources can be conveniently attenuated this way to guard against digital overload caused by
not enough headroom on the digital source. Since the X-12 console meters are true digital
reading meters, they will always show the console's digital levels, and whether there are any
"overs" in the signal. By pressing a channel's "CUE" button, the switched meters will show
the digital level of that channel's source. By using the program and watching these meters, the
amount of attenuation can be adjusted to meet your headroom requirements.
MB-X12 Motherboard
Schematic................................................................................................................... 4-21
Load Sheet................................................................................................................. 4-27
Appendix
Replacement Parts List..................................................................A-2
30.53˝ 5.436˝
20.99˝ 20.99˝
11.24˝
4 HOLES, D=0.107˝;
USE #6 SCREWS
27.53˝
1.85˝
System Ground
The first step is to ground the console.
Note that as supplied from the factory, console rackmount power supply
common, audio ground, and the X-12 mainframe are connected together
at the console, but are NOT connected to electrical ground and the chassis
of the power supply. Safety requirements dictate that a positive connection
from the console mainframe to electrical ground be made in the completed
installation. Use the grounding lug on the rear of the mainframe to establish
your system ground. The grounding lug may be found at the rear of the
console, on the rear frame panel, to the left if you are looking at the rear
of the console.
The system ground serves two important purposes:
(1) It provides a zero signal reference point for the entire audio system;
(2) It assures safety from electrical shock.
There exist two terms that one encounters in a discussion of ground:
(A) EARTH GROUND, which is usually a heavy copper rod driven into the soil
adjacent to the building (around 6 feet down) or a connection to the copper water
pipes leading into the building. Either is acceptable (unless, of course, the water
pipe is made of plastic).
MIC PANEL
EFFECTS RACK
GND
CONSOLE DEVICE 1
DEVICE 2
2-TRACK
etc.
COPPER ROD
STUDIO POWER AMP
OTHER
3–5 ft.
SOIL
3-wire ground or separate wire run from chassis
TYPICAL SYSTEM
GROUNDING SCHEME
(B) THE POWER COMPANY EARTH CONDUCTOR that enters the building at the
power line breaker box; this conductor should be (and is often by code) tied to the above-
mentioned earth ground at one point. This point is the SYSTEM EARTH GROUND.
TIE THE CONSOLE GROUND LUG TO THE SYSTEM EARTH
GROUND. TIE EVERY PIECE OF EQUIPMENT IN THE ENTIRE AUDIO
SYSTEM TO THE CONSOLE GROUND LUG. If the system earth ground
point is inaccessible, tie the console ground lug to the power company earth
conductor at the main breaker box (see drawing “Typical Grounding Scheme”
on previous page).
Each piece of equipment should be connected by its own ground wire (usu-
ally the round third pin on the AC cord). This means that every AC outlet must
have a separate conductor run to the console ground lug; the outlets cannot be
daisy-chained as is normally encountered in commercial and residential AC
systems. Any equipment not supplied with 3-wire AC cables must have indi-
vidual ground wires (16 gauge or larger) connected to their chassis grounds
and then run to the console ground lug terminal strip.
Further Grounding Details
Check all equipment to be absolutely certain that each unit is power trans-
former isolated from the AC mains to prevent safety hazards.
It is assumed that in each piece of audio equipment the audio ground and
the chassis are tied together at some point. Any piece of equipment lacking a
grounded chassis is likely to be prone to interference problems.
Locate all unbalanced audio equipment in the same rack if possible, to mini-
mize chassis ground potential differences. It may also be helpful to insulate each
piece of unbalanced equipment from its mounting rails in the rack by means
of nylon 10-32 screws and insulating washers between rails and faceplates.
Once the system is properly grounded, proceed with the console power
supply installation and connection (next section).
Power Supply
Note that the power supply is fitted with a 3-wire grounded AC cord The power feed recom-
mended in the text is often
that should be plugged into a “clean” AC power source, that is, an AC installed and referred to
source that feeds only the control room audio gear. This source should in studios as an “isolated
AC ground” outlet. It is
be a separate feed from those powering lighting, air-conditioning, or any usually orange in color.
other non-audio machinery. The third pin ground wire of the AC source
should be tied to the central system ground point.
Energizing
Assuming the X-12 console mainframe is properly placed and grounded,
and its SPS-100 power supply correctly rackmounted and connected to
the console, you may now energize the power supply by plugging it into
the AC mains.
Note: To de-energize the console, unplug the rackmount power supply’s
AC cord from the AC mains. Never de-energize the console by discon-
necting the cable that connects the console and power supply together.
Once you have verified proper power-up, unplug the rackmount power sup-
ply to de-energize the console. You may now proceed to wire up audio and
control connections.
The SRC-X12 digital input audio card is provided with 110 ohm / 75 ohm
switches on the A and B inputs to allow impedance matching with 75 ohm sources.
Unbalanced Connections (analog audio)
ANALOG INPUTS — Wire to the console with typical shielded two conduc-
tor cable (like Belden 9451), just as if you were connecting a balanced source.
At the unbalanced source machine’s output, connect the black wire (LO) to the
shield.
ANALOG OUTPUTS — All of the X-12 console’s line level analog outputs
are electronically balanced, low impedance, outputs, expecting a minimum load
of 600 ohms. The outputs are balanced but are not floating, and therefore should
only be connected to external equipment having balances inputs.
Hook-Ups
The rear of the console has six slots for plugging in the analog (ADC‑X12) or
digital (SRC-X12) input daughter cards. Each daughter card provides the audio input
circuitry for two faders. The rear of the console also has a plug‑in dual microphone
preamp card (MP-X12) with a 6-pin plug terminal provided for microphone MIC 1
and MIC 2 inputs, and the two RJ-45 connectors for microphone preamp outputs.
Additional RJ-45 connectors are provided for monitor, analog, and digital program
outputs, caller input/output, external input, USB port, and logic connections. There also
is a 3-pin plug terminal provided for tally connections, and a USB port with type B
connector for interfacing with a computer (see page 2-6 for details).
Pinout drawings on pages 1-13 through 1-16 show all wiring connections at glance.
Audio Connections
MP-X12 Mic Preamp Connections
MIC 1 and MIC 2 Inputs—6-pin Plug Terminal
All signals are analog mono. The mic input level is normally -50dBu balanced.
Pin 1 – SH
Pin 2 – LO Mic 2 In These connections are to the inputs
of two internal mic preamplifiers. The
Pin 3 – HI outputs of the mic preamplifiers must
Pin 4 – SH be connected to the desired line inputs
before you will be able to hear the
Pin 5 – LO Mic 1 In microphones. See page 2-3 for details.
Pin 6 – HI
MIC 1 and MIC 2 Outputs—RJ-45
All signals are analog mono. The mic output level is normally +4dBu balanced.
Pins 1 & 3 – HI
Pins 2 & 6 – LO Mic 1 Out
Pins 1 & 3 – HI Mic 2 Out
Pins 2 & 6 – LO
ADC-X12 Analog Input Connections—RJ-45
The signals are analog stereo; level is +4dBu balanced.
Pin 1 – HI
Pin 2 – LO Line 1A Lt In
Pin 3 – HI
Pin 6 – LO Line 1A Rt In
Pin 1 – HI
Pin 2 – LO Line 1B Lt In
Pin 3 – HI
Pin 6 – LO Line 1B Rt In
X-12 / May 2011 page 1 – 9
I N S TA L L AT I O N A N D P O W E R
Pin 1 – HI Line 2A Lt In
Pin 2 – LO
Pin 3 – HI Line 2A Rt In
Pin 6 – LO
Pin 1 – HI Line 2B Lt In
Pin 2 – LO
Pin 3 – HI Line 2B Rt In
Pin 6 – LO
SRC-X12 Digital Input Connections—RJ-45
Pin 1 – HI
Pin 2 – LO AES 1A In
Pin 1 – HI
Pin 2 – LO AES 1B In
Pin 1 – HI
Pin 2 – LO AES 2A In
Pin 1 – HI AES 2B In
Pin 2 – LO
Monitor Output Connections—RJ-45
The signals are analog stereo; unbalanced.
Pin 1 – HI
CR Lt Out
Pin 2 – LO
Pin 3 – HI
CR Rt Out
Pin 6 – LO
Pin 1 – HI
ST Lt Out
Pin 2 – LO
Pin 3 – HI
ST Rt Out
Pin 6 – LO
Pin 1 – HI
CUE Lt Out
Pin 2 – LO
Pin 3 – HI
CUE Rt Out
Pin 6 – LO
Pin 1 – HI
HDPN Lt Out
Pin 2 – LO
Pin 3 – HI
HDPN Rt Out
Pin 6 – LO
Program Analog Output & Caller Connections—RJ-45
The signals are analog stereo; unbalanced.
Pin 1 – HI
PGM 1 Lt Out
Pin 2 – LO
Pin 3 – HI
PGM 1 Rt Out
Pin 6 – LO
Pin 1 – HI
PGM 2 Lt Out
Pin 2 – LO
Pin 3 – HI
PGM 2 Rt Out
Pin 6 – LO
Pin 1 – HI PGM 3 Lt Out
Pin 2 – LO
Pin 3 – HI PGM 3 Rt Out
Pin 6 – LO
X-12 / May 2011 page 1 – 10
I N S TA L L AT I O N A N D P O W E R
Pin 1 – HI
CALLER Out
Pin 2 – LO
Pin 3 – HI
CALLER In
Pin 6 – LO
Program Digital Output & External Input Connections—RJ-45
The signals are analog stereo; level is +4dBu balanced.
Pin 1 – HI PGM 1 AES Out
Pin 2 – LO
Pin 1 – HI PGM 2 AES Out
Pin 2 – LO
Pin 1 – HI PGM 3 AES Out
Pin 2 – LO
Pin 1 – HI EXT LT In
Pin 2 – LO
Pin 3 – HI EXT RT In
Pin 6 – LO
USB Output
The signals are digital stereo.
Pin 1 – HI
Pin 2 – LO USB Out
Logic Connections
Logic Port Connections—RJ-45
All control ports are opto-isolated except for the On Air Tally, which uses relay
contacts. The rear of the console has six RJ-45 connectors to handle six logic ports.
The list below shows the RJ-45 connections for logic ports 1.
Pin 1 – Ground
Pin 2 – Port 1 Start Common
Pin 3 – Port 1 TB to CR
Pin 4 – Port 1 Start
Pin 5 – Port 1 On Tally
Pin 6 – Port 1 Remote Off
Pin 7 – Port 1 Remote On
Pin 8 – Port 1 +5V Digital
The connections for logic ports 2-6 follow the same pattern.
4 4
MIC 2 IN SH 5 5
4
7 7
MIC 2 IN HI 8 8
6
ANALOG INPUTS
“A” RJ-45 “B” RJ-45
1 LINE A LT IN HI 1 LINE B LT IN HI
2 LINE A LT IN LO 2 LINE B LT IN LO
3 LINE A RT IN HI 3 LINE B RT IN HI
4 4
5 5
6 LINE A RT IN LO 6 LINE B RT IN LO
7 7
8 8
DIGITAL INPUTS
“A” RJ-45 “B” RJ-45
1 AES A IN HI 1 AES B IN HI
2 AES A IN LO 2 AES B IN LO
3 3
4 4
5 5
6 6
7 7
8 8
CALLER IN/OUT
RJ-45
1 CALLER OUT HI
2 CALLER OUT LO
3 CALLER IN HI
4
5
6 CALLER IN LO
7
8
EXTERNAL INPUT
“EXT IN L/R” RJ-45
1 EXT LT IN HI
2 EXT LT IN LO
3 EXT RT IN HI
4
5
6 EXT RT IN LO
7
8
4
5 5 ON TALLY TALLY COM
2
7 7 REMOTE ON
8 8 +5V DIGITAL
SW1 position 1 controls the left side gain of the second (even) channel
SW1 position 2 controls the right side gain of the second (even) channel
SW1 position 3 controls the left side gain of the first (odd) channel
SW1 position 4 controls the right side gain of the first (odd) channel
Please note that the gain switches affect both A and B inputs (see page 3-3) of the
channel, so it is best not to have a +4dBu source on an A input and a lower level source
on the same channel’s B input.
To install the console’s daughter cards you must follow this procedure:
• Make sure the console is powered down.
• Slide the daughter card in the appropriate opening in the rear of the console to
plug in its edgecard fingers to the motherboard edge connector. (Figures 2 & 3).
Edge Connector
Edge Connector
• Tighten the daughter card down (Figure 4) with the supplied two Phillips panhead
screws (included in the console’s connector kit).
Panhead Screw
Console Features
Chapter Contents
Overview......................................................................................... 2-2
X-12 Console Layout Drawing....................................................... 2-3
Mic Preamp..................................................................................... 2-4
Line Level Inputs............................................................................ 2-4
Outputs............................................................................................ 2-5
USB Port.......................................................................................... 2-6
Using the USB Port..................................................................................................... 2-6
... With a MAC............................................................................................................. 2-6
... With a Windows® PC.............................................................................................. 2-6
Other Computers......................................................................................................... 2-7
General Considerations............................................................................................... 2-7
Console Features
Overview
Each X-12 console has two Input panels and one Master panel. The Input panel
consists of six faders with associated switches. The Master panel has a CALLER,
MONITOR and METERS sections. Each section is described below.
The basic purpose of the console is to take some of the many audio signals that are
wired to the console inputs, and generate several outputs that combine these inputs in
various groups and at various degrees of loudness, or signal strength. The typical ap-
plication is in a radio station where it is desired to develop the signals that the station
will broadcast (the on air signal), as well as several additional signals for recording
and monitoring.
Mic Preamp
The X-12 console is provided with one dual channel microphone (mic) pre-
amp card, designed to bring balanced microphone level signals (nominally
-50dBu) up to a +4dBu balanced line level for routing into any fader channel provided
with an analog daughter card. For the uninitiated, mic preamps are required because
microphones typically put out signals at relatively low signal strength, and therefore
require more amplification (increase in signal strength) than normal line level sources,
like CD players and tape players, to be properly audible at the console’s outputs.
It is important to note that the end user or installer must deliberately wire the mic
preamp outputs to the desired analog input fader channels, as there is no internal
path provided to make this connection.
Mic level sources are wired to the 6-position plug terminal that is plugged into the
mating 6-position MIC IN 1 and 2 connector on the mic preamp at the rear of the con-
sole. The line level mic preamp outputs are available at the two RJ-45 MIC OUT 1 and
2 connectors on the mic preamp, which must then be wired to the appropriate analog
inputs via the analog input RJ-45 connectors.
M 1 and M 2 GAIN trimpots, also on the mic preamp at the rear of the console, are
used to adjust the gain of each microphone input independently. These are normally
“set and forget” adjustments, and are set at the factory for a gain of 54dB, thus bringing
a -50dBu microphone input level up to +4dBu at the output.
Example: with a microphone input of –60dBm @150 ohm at the port, gain trim can set levels from
-22dBu to +16dBu (note maximum preamp gain is +76dB) at the PGM 1, PGM 2, or PGM 3 output.
If you have more than two microphones in use, you will need to provide external
mic preamps for all but two of them.
daughter cards feed faders 1 and 2, faders 3 and 4, faders 5 and 6, faders 7 and
8, faders 9 and 10, and faders 11 and 12, respectively. Daughter cards are either
analog or digital for both fader channels. Thus, if fader 1 is analog, fader 2 must
be analog as well, or if fader 1 is digital, then fader 2 must be digital also. The
same rule applies to each mentioned pair of faders.
Each fader channel is capable of A/B operation. This means that each daugh-
ter card provides inputs for four stereo signals: first fader A input, first fader B
input, second fader A input, and second fader B input. To overstate the obvious,
each analog card then has four analog stereo inputs, and each digital card then
has four digital inputs; there is no mixing of analog and digital inputs on a single
daughter card.
The X-12 also has one external stereo line level (+4dBu balanced) input that is
available for control room, studio, or switched meter monitoring, and one analog
(+4dBu balanced) input dedicated to use as a telephone caller input.
Outputs
The outputs for all three of the X-12’s main stereo buses, PGM 1, PGM 2,
and PGM 3, are available as both analog and digital outputs. Both analog and
digital outputs from a bus may be used at the same time.
The analog bus outputs all appear on the group of four RJ-45 connectors
mounted below the FADER 11-12 connectors on the rear panel. This group of
four connectors also includes the CALLER I/O connector with the dedicated
caller output (+4dBu analog balanced) and the previously mentioned dedicated
caller input.
The digital bus outputs all appear on the group of four RJ-45 connectors
mounted below the FADER 9-10 connectors on the rear panel. This group of four
connectors also includes the EXT IN L/R connector with the previously mentioned
external monitoring input, which accept a +4dBu line level stereo analog input.
An additional group of four RJ-45
connectors mounted below the MIC card,
provides stereo analog line level (+4dBu)
balanced outputs for Control Room, Stu-
dio, Cue, and Headphones. In addition to
appearing at this connector, a mono sum of
Cue feeds the internal cue speaker, and the
Headphones signal also feeds the console’s headphone jack.
USB Port
The console contains a USB
2.0 interface, available via the
USB Type B connector on the
rear panel, to enable audio to pass
between the console and a USB
port on a computer. Internally,
dipswitches select from PGM 1,
PGM 2, or PGM 3 as the audio from the console to the computer (see “Console In-
ternal Programming”). Audio coming back from the computer via USB shows up as
a stereo digital signal on the USB OUT RJ-45 connector. From there, the audio can
be patched to any digital line input.
. . . With a MAC
In general, this will be a plug-and-play process. The main concern is to choose
the USB Audio Codec under System Preferences>Sound as desired for audio input
and/or output. Then simply start the application.
. . . With a Windows® PC
When you first connect the X-12 USB port to a PC running Windows you will see
the famous “found new hardware” sequence of messages. At some point this sequence
should end with a message that the new hardware is installed and ready to use.
Setting up any given application to use the X-12 USB port will depend on the ap-
plication itself. Generally, you will need to select the appropriate device from a list
of devices in a Preferences dialog.
As an example, let’s look at WinAmp, a free software application used by mil-
lions to play back audio streams from a network (or the Internet), or to play audio
streams into a network.
To play audio from the X-12 on the computer:
• Install the free LineIn plugin for WinAmp.
• Under Preferences - Input select the LineIn plugin from the Input list and click
Configure, then find the USB Audio Codec in the list of available devices and
note its corresponding device number, which you will need below.
• In WinAmp, choose Play URL...
• Enter “line://dev=n” where ‘n’ is the device value that you discovered above.
Other Computers
If your computer does not use one of the above operating systems, or otherwise
behaves differently than described above, consult the documentation for that computer,
operating system, and/or application.
General Considerations
If any problems are encountered, please consider the following points:
• The audio that is output from the X-12 on the USB port depends on the setting
of the internal dipswitches that select between PGM 1, PGM 2, and PGM 3 as
the source (see “Console Internal Programming”).
• The audio coming back into the X-12 on the USB port is available at the USB OUT,
which must be patched to a digital line input if you want it to come up on a fader,
or to some external device if that’s where you want it to show up.
• If you are not able to get the audio into or out of the USB port, check the USB
cable, its connections at both ends, and the port selection settings in the applica-
tion you are using.
• If you have the audio flowing where you want and it suddenly becomes intermit-
tent or disappears, check the USB cable and the connections at both ends.
• Once you have the USB audio under control it is a good idea to make a record
of the application being used, including its version number, the audio direction
(into or out of the computer), and all the settings that were required to make it
work. This information will be invaluable if you later have to troubleshoot the
USB audio, or set it up on another computer.
Attenuation
As mentioned in the Read Me! pages at the front
of the manual, there is a tendency today for CD’s
to be made with less than 1dB of headroom. Any
boosting of level resulting from moving the fader
up from the nominal, unity gain, position results
in overload distortion. For this reason, dipswitch
position 7 is provided to attenuate a channel’s signal by 12dB, thus allowing channels
being fed by such hot CD’s to have their faders moved above nominal without causing
distortion. The 12dB attenuation is applied to the three main stereo buses, cue, and talk-
back — in other words, anywhere in the console that the channel’s audio may be routed.
FADER 1-12 dipswitch position 7 applies 12dB of attenuation to the channel for all
bus feeds
CR Mute
An input channel can be programmed to mute the control room speakers when the
channel is ON. Position 9 of the FADER 1-12 dipswitches, when activated, automatically
mutes the console’s control room speakers when the corresponding channel is turned
ON. This is done to prevent feedback from any live mics in the Control Room.
Logic Assign
The X-12 console has six logic ports. Positions 1 through 6 of the FADER 1-12
dipswitches, when activated, assign the corresponding logic port to the input channel:
Dipswitch pos.1 assigns the logic port 6
Dipswitch pos.2 assigns the logic port 5
Dipswitch pos.3 assigns the logic port 4
Dipswitch pos.4 assigns the logic port 3
Dipswitch pos.5 assigns the logic port 2
Dipswitch pos.6 assigns the logic port 1
CALLER Dipswitch
Cue Dropout
CUE (i.e., caller COM button) can be made to turn
off when the channel’s ON switch is pressed. This is the
factory default setting.
CALLER Dipswitch position 7 activates cue dropout
Cue Pre/Post
The channel’s CUE signal (caller COM button) can
tap pre or post fader.
CALLER Dipswitch position 8 activates post-fader
cue (default is pre)
CR Mutes
A caller channel can be programmed to mute the control room speakers when the
channel is ON. Position 9 of the CALLER dipswitch, when activated, automatically
mutes the console’s control room speakers when the caller channel is turned ON.
This is done to prevent feedback from the CR announcer’s mic, through the external
phone path.
Logic Assign
Positions 1 through 6 of the CALLER dipswitch, when activated, assign the
logic to the caller channel:
Dipswitch pos.1 assigns the logic channel 6
Dipswitch pos.2 assigns the logic channel 5
Dipswitch pos.3 assigns the logic channel 4
Dipswitch pos.4 assigns the logic channel 3
Dipswitch pos.5 assigns the logic channel 2
Dipswitch pos.6 assigns the logic channel 1
Gain Trimpot
There is a PCB-mounted CALLER trimpot, located on the middle of the con-
sole’s rear, that sets caller input gain.
MONITOR 1 Dipswitch
Cue Interrupt
The MONITOR 1 dipswitch pos. 2, when activated, sends cue to the control
room.
Cue Mute
The audio from both the control room speakers and the console’s built-in meter-
bridge cue speaker can easily be picked up by the console operator’s microphone.
This is a potential source of feedback. For this reason the console provides muting
to the control room output and, optionally, the built-in cue speaker, whenever a mic
programmed for control room mute is turned ON with A selected as the input source.
MONITOR 1 dipswitch pos. 3 will mute cue whenever the CR output is muted
by an input channel set to activate the CR mute
Phantom Power
MONITOR 1 dipswitch pos. 7 and 8 turn phantom power on for the two mi-
crophone input ports.
Dipswitch pos. 7 activates phantom power for microphone 1
Dipswitch pos. 8 activates phantom power for microphone 2
MONITOR 2 Dipswitch
Talkback to Studio
The X-12 console has an internal talkback (TB) bus that allows audio from any
of the faders 1-4 to be used by the console operator to talk to talent in the studio.
Typically, one of these faders would be used, but, to accommodate those situations
where more than one microphone is used for the talkback function, any of the first
four input channels may be assigned to feed the talkback bus. Positions 6-9 of the
MONITOR 2 dipswitch are used for this purpose. Turning the switch on routes that
channel’s pre-fader, pre-on/off signal to the talkback bus. When the console opera-
tor presses the TB switch on the MASTER panel, the talkback bus audio interrupts
the feed to the studio speakers, allowing the console operator to talk to studio talent.
Dipswitch pos. 6 allows input channel 4’s audio to feed the talkback bus
Dipswitch pos. 7 allows input channel 3’s audio to feed the talkback bus
Dipswitch pos. 8 allows input channel 2’s audio to feed the talkback bus
Dipswitch pos. 9 allows input channel 1’s audio to feed the talkback bus
SW 4
Power down the console and remove the screws that hold in the first IP-X12 Input
Panel. Carefully raise the front end of the panel, nearest the armrest, taking care not
to strain or disconnect the ribbon cable that connects the panel to the motherboard.
Standing at the console operator position and looking under the panel at the
motherboard, you will find dipswitch SW 2 at the right, partly under the second
IP‑X12 Input Panel. Slide the appropriate position’s handle to the left (ON) to as-
sign that bus to the USB feed,and make sure the handles for the other two busses
are slid to the right (OFF). NOTE: Only ONE bus may be assigned to the USB
feed — DO NOT have more than one bus feed position turned on.
With the switch set at the desired position, carefully lower the panel back down
and replace the screws that hold down the panel. You can now power the console
back up.
Source Select
Each input channel accepts two analog or digital stereo sources: A and
B, switched at the top of the panel. The INPUT button will be lit when
source B is selected.
Program Assign
Output switches assign the selected source signal to any combination
of the console’s three stereo Program outputs—PGM 1, PGM 2, and PGM
3. The button will be lit when the source is assigned to its respective bus.
To remove a source from the bus, press the button again; the light will go
off to indicate that the source is no longer assigned to that bus. NOTE that
when the console is powered up all input channels will be off, with source
A selected, and assigned to PGM 1.
Cue Button
The CUE switch places the channel’s signal on the console’s cue bus,
where it may be heard on the meterbridge mounted cue speaker, as an in-
terrupt to the console operator’s headphones, as an interrupt to the control
room monitor speakers, if so programmed, and at the console’s CUE output
on the rear panel.
Press the CUE button. The channel’s input signal will be included in
the console’s CUE output at a level that is independent of the FADER set-
ting, and the button will light. The fader does not need to be turned ON. To
remove a fader from cue, press the CUE BUTTON again; the light will go
off to indicate the channel is no longer assigned to cue.
Fader
Level is set by a long-throw fader. The fader is the sliding mechanism
that determines how strong is the presence of the input in some of the vari-
ous console outputs.
If the fader is all the way down (that is, pulled toward the console opera-
tor), the signal will not be present in any of the three program main buses
to which it is assigned. As the fader is moved up (that is, pushed away from
the console operator) the signal will appear more strongly in each of the
main buses to which it is assigned.
The channel’s fader setting will not affect the level of the signal in
CUE. It will also not affect the level of the signal in PGM 3 if the fader has
programmed for PGM 3 pre assignment.
ON/OFF Switches
The ON (red) and OFF (white) buttons on the bottom of the panel turn
the channel on and off by means of electronic switching, and can simulta-
neously start external source machines. These can also be programmed (as
mentioned in the previous chapter) to activate control room mute and cue
dropout. ºExternal machine interfacing is only available on faders that have
been assigned to a logic port.
Caller Input
The caller section is used for telephone call-in talk segments, and con-
trols the audio for the caller. The caller signal enters the console from your
station hybrid.
The caller feed can be any of the three Program buses. The caller feed
setting is displayed by the three program LEDs under the CALLER FEED
button. The caller feed will never contain the caller’s own voice.
Program Assign
Output switches assign the caller to any combination of the console’s
three Program outputs (PGM 1, PGM 2, and PGM 3), and permit live
talk-ins.
Pressing any of the three program switches causes the caller’s audio
to be included in the output mix for that bus, at a level dependent on the
FADER setting, as long as the caller section is ON. The button will be lit
when the caller is assigned to its respective bus. To remove the caller from
a bus to which it is currently assigned, press the button again; the light will
go off to indicate that the caller is no longer assigned to that bus.
COM Button
The COM (SET UP, or Cue) button allows interviewing the caller prior
to airing by including the caller in the console’s cue bus, where it may be
heard on the meterbridge mounted cue speaker. At the same time, the con-
sole’s talkback bus is routed to the output back to the caller, allowing the
operator’s mic (if so programmed) to be used to talk to the caller off line.
Fader
The long-throw fader sets the caller’s signal level.
If a fader is all the way down the caller’s voice will not be present in
any of the three Program buses (PGM 1, PGM 2, and PGM 3) to which the
phone is assigned. As the fader is moved up the signal will appear more
strongly in each of the main buses to which the phone is assigned.
The fader position will also affect the strength of the caller in the cue
output, if the caller is set up via the CALLER dipswitch for post fader cue
(see page 2-9).
ON/OFF Switches
The ON (red) and OFF (white) buttons on the bottom of the panel de-
termine if the phone channel is ON or OFF. The buttons can also be used
to provide external start logic for the hybrid if the caller fader has been
assigned to a logic port.
If the phone channel is OFF, caller signal will not be present in any
main bus output, regardless of the status of the PGM ASSIGN buttons or
the position of the fader. If the phone channel is OFF its signal will still be
present in the cue output if it has been assigned to cue.
Caller Set-Ups
Pre-air segment communication between the console operator (DJ)
and caller is aided by the COM button, which places the caller’s voice on
the console’s cue speaker and headphones, and (if so programmed) CR
speakers. This cue signal can be programmed pre or post fader.
The DJ can assign his microphone input channel to an unused out-
put bus—say PGM 3—and the DJ then selects the PGM 3 bus with the
CALLER FEED switch. This sends a dedicated (digitally generated)
version of the PGM 3 bus signal to the caller’s hybrid output, where it
is ultimately heard by the caller through his telephone. This mix minus
source select method can also be used to preplay a musical segment (or
any other program content) for the caller off-air. Take the input channel
handling the desired music cut and assign it to the same bus as the caller’s
mix minus source and the caller will hear it off-air.
For convenient handling of call-ins, the console is capable of driv-
ing the PGM 3 bus with a pre-fade signal from any input channel 1-12
so programmed (see page 2-6). That way, when you use PGM 3 as the
caller FEED source, the DJ mic, and any other inputs you want the caller
to hear, do not need to be faded up for the caller to hear them, as long as
those inputs are assigned to PGM 3 and programmed for PGM 3 pre.
Regardless of any input PGM 3 pre setting, the caller audio to the PGM 3
bus is always post-fade, post-on.
The DJ microphone input channel can also be assigned via dipswitch
to the console’s talkback (TB) bus. Any audio on the TB bus is heard by
a caller when the caller COM button is pressed.
Monitor Section
The Control Room is the monitor that allows
the operator to listen to the console’s three ste-
reo Program outputs and an external stereo line
level input. This section of the console includes
the monitor level controls for the control room,
headphone, and cue circuits, the TB level, and
the Studio level.
In a typical radio application the console
is located in the Control Room. Speakers in
the Control Room allow the console opera-
tor to listen to the console bus outputs to be
assured that the console is performing as de-
sired. These speakers are fed by a stereo sig-
nal from the console’s Control Room output.
In addition to the Control Room output, the
operator may also desire to listen to specific
isolated faders via the cue system and the
console’s internal cue speaker, or may want
to listen via headphones. Thus, the control
room monitor consists of the above mentioned
level controls, along with three program assign
(PGM 1, PGM 2, and PGM 3) buttons, and an
external input (EXT) button.
In some instances the console operator may
also be performing talent whose voice will be
heard over the radio. The operator’s micro-
phone may thus provide a part of the signal that
is going out over the air. If that signal is the
one being monitored with the Control Room
speakers, there is the potential for feedback.
The amplified signal from the Control Room
speakers is picked up by the microphone and
preamplified to a new, higher, level, which then
is once again picked up by the microphone. The
signal quickly rises to an ear-splitting screech.
To prevent this, the operator’s microphone is normally set to MUTE the Control
Room output to prevent the occurrence of feedback.
The master CUE circuit drives a meterbridge-mounted speaker through a
built-in power amp, and can be programmed to interrupt control room feed, or
provide a split feed (program mono sum to right, cue mono sum to left) to the
control monitor speakers. It also automatically interrupts the headphone feed.
In addition to the Control Room, there may be a Studio in which one or more
performers will be assembled, usually with microphones so that their voices
can become part of the mix. Speakers may be provided in the Studio to allow
the talent to listen to the console bus outputs at times that they are not actually
on air. These speakers are fed from the console’s stereo Studio output.
TB (Talkback) Button
The TB button lets the operator’s microphone signal interrupt the normal
feed to the studio speakers.
There may be times when the console operator wants to talk to one of
the performers in the Studio. When the TB button in the Studio is pressed
(it is momentary action), any inputs assigned to the talkback bus (see page
2-11) will interrupt the regular monitor signal being sent to the studio output.
TB Level Control
The TB master level control sets the level of the talkback interrupt signal.
Meters (VU-X12)
The METERS section consists of two VU meter pairs on the console’s
meterbridge, and three METERS select buttons, plus a CUE indicator,
located on the Master panel.
VU Meter Pairs
The two VU meter pairs (PROGRAM 1 VU and SWITCHED VU)
are stereo LED bargraph type meters.
The level of the signal being metered is indicated by the number of
display elements that are lighted. The more elements lighted, the stronger
is the signal being displayed. The right four LEDs in each bargraph are
red to indicate when the signal level is approaching a clipping (distorted)
level. The next four LEDs are yellow, indicating a normal level range,
and the remaining LEDs are green. The top member of the pair indicates
the level of the signal’s left channel, while the bottom member of the pair
indicates the level of the signal’s right channel. Peak (CLIP) indication
is also provided.
The left VU meter pair shows the level of the PGM 1 output, while
the right VU meter pair (the SWITCHED VU) allows the console opera-
tor to meter PGM 2, PGM 3, or the console’s external stereo line signal
(analog, +4dBu balanced).
The Master panel also has a master CUE indicator. Whenever any input
channel is placed in cue the CUE indicator lights. At the same time the
switched meter pair automatically switches to show the level of audio on
the cue bus. While the CUE indicator is lit, the selected switched meter
source switch light goes off.
Chapter Contents
X-12 Flow Diagrams
Inputs, Caller Feed, and Channel Logic...................................................................... 4-2
Monitors....................................................................................................................... 4-3
Master Outputs............................................................................................................ 4-4
MB-X12 Motherboard
Schematic................................................................................................................... 4-21
Load Sheet................................................................................................................. 4-27
1 LOGIC ASSIGN 6
A/B
DATA
DATA
LOGIC FADER
L
Analog R L ANALOG TO PH+
DB-9
E DIGITAL MIC OUT
INPUT C MIC IN TRIM
T CONVERTER
H
L
Analog L F (ADC) 2
H H
B
E
T R L L
H S
PH+
L
Analog R W LINE RT GAIN
SW1
ADC-X12 MP-X12
DAUGHTER CARD MIC PREAMP
OR
A
Digital B SAMPLE
A AES
S RATE
INPUT E
RECEIVER
B
Digital L CONVERTER
E
C (SRC)
T
SRC-X12
DAUGHTER CARD CALLER DIPSW
1 LOGIC ASSIGN 6
DIGITAL AUDIO
DATA
DATA
FADER
TRIM ANALOG TO
H DIGITAL
FROM CALLER L
CONVERTER
(ADC)
DIGITAL TO
H ANALOG
TO CALLER L FROM DSP
CONVERTER
(DAC)
X-12 / May 2011 X-12 Signal Flow Diagram - Inputs, Caller Feed, and Channel Logic page 4 - 2
MONITOR 1 DIPSW
MONITOR LOGIC
CR SPLIT CUE
TALLY
CUE SPKR
DIGITAL TO H
L L L
L
ANALOG
CUE BUS
CUE OUT
CONVERTER
H
(DAC) R R L
R
H
L L
L
HDPN OUT
H
R L
R
DIGITAL TO L L
ANALOG
PGM 1 HDPN JACK
CONSOLE BUSSES
CONVERTER
S (DAC) R R
O
PGM 2 U
R
C
PGM 3 E H
DIGITAL TO L L L
L
S ANALOG
E CR OUT
L CONVERTER
H
E (DAC) R R L
R
H ANALOG TO C
L
L T
DIGITAL
EXT
H CONVERTER
R DIGITAL TO L L
H
L
L (ADC) L
ANALOG
ST OUT
CONVERTER
H
(DAC) R R L
R
TB MONITOR
H
L PGM 2 DIG OUT
H
L PGM 3 DIG OUT
FROM
USB
DIP SW CODEC COMPUTER
USB
TO CONN
PATCH OUT
RJ-45
H PGM 1 LT
L L OUT
DAC PROGRAM 1
H PGM 1 RT
PGM 1 R L OUT
PGM DATA
TO CONSOLE
METERS
H PGM 2 LT
L L OUT
SWITCHED DATA
DAC PROGRAM 2
PGM 2 H PGM 2 RT
R L OUT
FROM DSP
S
W
I
H PGM 3 LT
L L OUT T
DAC PROGRAM 3 C
PGM 3 H PGM 3 RT H
R L OUT E
D
V
U
H CUE LT
L L OUT S
E
DAC CUE
CUE RT L
CUE H
R L OUT E
C
T
H
L
L
EXT ADC
H
L
R
A B C D E F
VCC VCC VCC VCC VCC VCC
SW7 SW8 SW9 SW10 SW11 SW12
D8 4148 D18 4148 D28 4148 D38 4148 D48 4148 D58 4148
MY_ADDR_2A 2 1 SW_D[1] MY_ADDR_2B 2 1 SW_D[1] MY_ADDR_2C 2 1 SW_D[1] MY_ADDR_2D 2 1 SW_D[1] MY_ADDR_2E 2 1 SW_D[1] MY_ADDR_2F 2 1 SW_D[1]
3 4 R15 220 3 4 R16 220 3 4 R17 220 3 4 R20 220 3 4 R21 220 3 4 R22 220
3 4 R23 220 3 4 R24 220 3 4 R25 220 3 4 R26 220 3 4 R27 220 3 4 R28 220
C 3 4 R38 220 3 4 R39 220 3 4 R40 220 3 4 R41 220 3 4 R42 220 3 4 R43 220
C
PGM3 PGM3 PGM3 PGM3 PGM3 PGM3
3 4 R50 220 3 4 R51 220 3 4 R52 220 3 4 R53 220 3 4 R54 220 3 4 R55 220
CT6 CT2
GND GND GND GND
1 2 1 2
MY_ADDR_2A IN_D GND
3 4 3 4
MY_ADDR_2B GND IN_SPR
B B
5 6 5 6
GND GND
7 8 7 8
MY_ADDR_2C VCC VCC
9 10 9 10
SW_D[6] VCC VCC
11 12 11 12
VCC VCC GND GND
13 14 13 14
SW_D[7] MY_ADDR_2D IN_SYNC GND
15 16 15 16
GND IN_CLK
17 18 17 18
MY_ADDR_2E GND GND
19 20 19 20
MY_ADDR_2F
21 22
TO MBW-12 PCB
23 24
GND GND
25 26
TO ONS-6 PCB
+2.5V +2.5V +2.5V +2.5V +2.5V +2.5V +2.5V +2.5V VCC VCC VCC VCC VCC VCC
C44 C36 C46 C16 C35 C18 C30 C22 C12 C43 C48 C3 C42 C9
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF
GND GND GND GND GND GND GND GND GND GND GND GND GND GND
A INS-6 A
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
+3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V VCC VCC VCC VCC VCC VCC
DRAWN SA 9-5-07 600 Industrial Drive
C45
0.1uF
C17
0.1uF
C40
0.1uF
C41
0.1uF
C29
0.1uF
C15
0.1uF
C20
0.1uF
C47
0.1uF
C5
0.1uF
C7
0.1uF
C6
0.1uF
C10
0.1uF
C55
0.1uF
C39
0.1uF
C38
0.1uF
C19
0.1uF
C4
0.1uF
C8
0.1uF
C2
0.1uF
C1
0.1uF
C11
0.1uF
C49
0.1uF
CHECKED SA New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND SA
D 16S2001-1 A
W# 700916 SCALE INS-6A PCB SHEET 1 OF 3
8 7 6 5 4 3 2 1
F LOGIC ASSIGN 2
5
SW_D[5]
CT9
FDR_5 3
CH0 VCC
9
D D
4 CH1 VCC
LOGIC ASSIGN 3 D56 4148 5 FDR_4 4
3 SW_D[6] CH2
LOGIC ASSIGN 4 FDR_1 FDR_3 5
2 D57 4148 4 CH3
LOGIC ASSIGN 5 SW_D[7]
1 R56 C23
LOGIC ASSIGN 6 D59 4148
3 6
100K 1uF COM
MY_ADDR_1F 2
D60 4148 FDR_REF 8
GND GND FDR_REF VREF
1
ADF1_CLK 16
FADER 1 DCLK
D41 4148 GND
15
___ 13
MY_ADDR_2E D42 4148
CS
_____ BUSY
7
SHDN
SW5 ADF1_SDI 14 12 ADF1_SDO
9 D43 4148 DIN DOUT
CR MUTE
8
PGM 3 PRE FADER D44 4148 11 10
7 CT8 MODE GND
ATTENUATION
6
LOGIC ASSIGN 1 D45 4148 5 ADS7841
E LOGIC ASSIGN 2
LOGIC ASSIGN 3
5
4 D46 4148
4
FDR_2
GND GND
3 R57 C24
LOGIC ASSIGN 4 3
2 D47 4148 100K 1uF
LOGIC ASSIGN 5
1 2
LOGIC ASSIGN 6 D49 4148 GND GND FDR_REF
1
MY_ADDR_1E
D50 4148
FADER 2
GND
D31 4148
C C
U5
SW4 FDR_2 2 1
9 D33 4148 CT7 CH0 VCC
CR MUTE FDR_1 3 9
8 CH1 VCC
PGM 3 PRE FADER D34 4148
5 GND 4
7 CH2
ATTENUATION FDR_3 GND 5
6 4 CH3
LOGIC ASSIGN 1 D35 4148
D 5 R58 C25
LOGIC ASSIGN 2 3 6
4 100K 1uF COM
LOGIC ASSIGN 3 D36 4148
3 2
LOGIC ASSIGN 4 FDR_REF 8
2 D37 4148 GND GND FDR_REF VREF
LOGIC ASSIGN 5 1
1
LOGIC ASSIGN 6 ADF2_CLK 16
D39 4148 FADER 3 DCLK
GND
MY_ADDR_1D ___
D40 4148 15 13
CS
_____ BUSY
7
SHDN
ADF2_SDI 14 12 ADF2_SDO
DIN DOUT
D21 4148
11 10
MY_ADDR_2C D22 4148
CT5 MODE GND
SW3 5 ADS7841
9 D23 4148 GND GND
CR MUTE FDR_4
8 4
PGM 3 PRE FADER D24 4148
7 R59 C26
ATTENUATION 3
6 100K 1uF
LOGIC ASSIGN 1 D25 4148
C LOGIC ASSIGN 2
LOGIC ASSIGN 3
5
4 D26 4148
2
1
GND GND FDR_REF
3
LOGIC ASSIGN 4
2 D27 4148 FADER 4 VCC +3.3V
LOGIC ASSIGN 5 GND
1
LOGIC ASSIGN 6
INSTALL ONE
D29 4148
B B
R48
2
MY_ADDR_1C 150
D30 4148 FDR_REF U7 6 FDR_REF
ADR291
C37 Z1
LM4040 4
CT4 47uF 3.0V
D11 4148
5
MY_ADDR_2B D12 4148 FDR_5 GND GND
4
SW2
9 D13 4148 R60 C27
CR MUTE 3
8 100K 1uF
PGM 3 PRE FADER D14 4148
7 2
ATTENUATION
6 GND GND FDR_REF
LOGIC ASSIGN 1 D15 4148 1
B 5 FDR_REF FDR_REF FDR_REF FDR_REF FDR_REF FDR_REF
LOGIC ASSIGN 2
4 FADER 5
LOGIC ASSIGN 3 D16 4148 GND
3 C51 C50 C56 C54 C53 C52
LOGIC ASSIGN 4
2 D17 4148 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF
LOGIC ASSIGN 5
1
LOGIC ASSIGN 6 D19 4148 GND GND GND GND GND GND
MY_ADDR_1B
D20 4148
CT3
5
D1 4148 FDR_6
4
MY_ADDR_2A D2 4148
R61 C28
R7 1.00K 3
100K 1uF
SW1
9 D3 4148 2
CR MUTE R8 1.00K
8 GND GND FDR_REF
PGM 3 PRE FADER D4 4148
1
7
INS-6
R9 1.00K
ATTENUATION
A A
6 FADER 6 CONTRACT NO.
LOGIC ASSIGN 1 D5 4148 GND
A 5 R10 1.00K
LOGIC ASSIGN 2 - SA UR US - Sergey Averin -
4
LOGIC ASSIGN 3 D6 4148
R11 1.00K
LOGIC ASSIGN 4
3 APPROVALS DATE
2 D7 4148
LOGIC ASSIGN 5 R12 1.00K DRAWN
1 SA 9-5-07 600 Industrial Drive
LOGIC ASSIGN 6 D9 4148
R13 1.00K CHECKED SA New Bern, NC 28562
MY_ADDR_1A
D10 4148
R14 1.00K
ISSUED SIZE FSCM NO. DWG. NO. REV
SA
D 16S2001-2 A
W# 700916
GND
SCALE INS-6A PCB SHEET 2 OF 3
8 7 6 5 4 3 2 1
A B C D
CT7
FDR_REF
3
VCC VCC VCC VCC
FDR_CR
2
SW4
D1 4148 R47 C45
MY_ADDR_2A 2 1 SW_D[1] MY_ADDR_2B MY_ADDR_2C MY_ADDR_2D 1
100K 1uF
3 4 R1 220 CR
GND GND GND
D MXM
FEED
D
CT6
FDR_REF
3
FDR_HDPN
2
SW5 SW9
D29 4148 D34 4148 R48 C46
2 1 SW_D[2] 2 1 SW_D[2] 1
100K 1uF
PGM1 PGM1
CT5
FDR_REF
3
FDR_ST
2
SW6 SW10 SW11
D31 4148 D35 4148 D36 4148 R49 C47
2 1 SW_D[3] 2 1 SW_D[3] 2 1 SW_D[3] 1
100K 1uF
10K 3 2 FDR_CUE
CR1 1
R35 C35
SW7 SW12 SW13 SW14
D32 4148 D37 4148 D38 4148 D39 4148 100K 1uF
2 1 SW_D[4] 2 1 SW_D[4] 2 1 SW_D[4] 2 1 SW_D[4] GND
CUE
C 3 4 R28 220 3 4 R41 220 3 4 R42 220 3 4 R43 220
GND GND
C
FDR_REF
PGM3 PGM3 PGM3 TB
10K 3 2 FDR_TB
CR2 1
R36 C36
100K 1uF
GND
SW8 SW15 SW16 SW17 TB
D33 4148 D40 4148 D41 4148 D42 4148 GND GND
2 1 SW_D[5] 2 1 SW_D[5] 2 1 SW_D[5] 2 1 SW_D[5]
5
CUE EXT EXT EXT FDR_PH
TB 4
R34 C34
3
100K 1uF
2
GND GND FDR_REF
1
PHONE GND
CT4 CT2
GND VCC GND GND
1 2 1 2 +3.3V +3.3V +3.3V +3.3V
U5 U6
MY_ADDR_2A MN_D GND
3 4 3 4 FDR_PH 2 1 FDR_ST 2 1
CH0 VCC CH0 VCC
SW_D[6] SW_D[7] GND MN_SPR FDR_CUE 3 9 FDR_HDPN 3 9
5 6 5 6 CH1 VCC CH1 VCC
FDR_TB 4 FDR_CR 4
GND GND CH2 CH2
7 8 7 8 GND 5 GND 5
B B
CH3 CH3
VCC GND VCC VCC
9 10 9 10
6 6
VCC VCC COM COM
11 12
GND GND FDR_REF 8 FDR_REF 8
13 14 VREF VREF
MN_SYNC GND
15 16 ADF1_CLK 16 ADF2_CLK 16
DCLK DCLK
GND MN_CLK
17 18 ___ ___
15 13 15 13
DS1 GND GND CS
_____ BUSY CS
_____ BUSY
R14 220 19 20 7 7
VCC SHDN SHDN
ADF1_SDI 14 12 ADF1_SDO ADF2_SDI 14 12 ADF2_SDO
PGM1 DIN DOUT DIN DOUT
DS2 TO MBW-12 PCB
R13 220 11 10 11 10
VCC MODE GND MODE GND
PGM2 ADS7841 ADS7841
DS3 DS5 GND GND GND GND
R12 220 R32 220
VCC VCC
VCC +3.3V
PGM3 CUE
INSTALL ONE
R40
2
150
FDR_REF U7 6 FDR_REF
ADR291
C42 Z1
LM4040 4
47uF 3.0V
+2.5V +2.5V +2.5V +2.5V +2.5V +2.5V +2.5V +2.5V +3.3V +3.3V +3.3V FDR_REF FDR_REF FDR_REF FDR_REF FDR_REF FDR_REF FDR_REF
C29 C25 C31 C13 C24 C15 C23 C21 C48 C28 C4 C39 C37 C38 C49 C52 C53 C54 GND GND
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF
GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND
A MNS-12 A
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
+3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V +3.3V VCC VCC VCC VCC VCC VCC VCC VCC VCC
DRAWN SA 10-15-07 600 Industrial Drive
C30
0.1uF
C14
0.1uF
C27
0.1uF
C26
0.1uF
C22
0.1uF
C12
0.1uF
C19
0.1uF
C32
0.1uF
C3
0.1uF
C6
0.1uF
C5
0.1uF
C7
0.1uF
C51
0.1uF
C20
0.1uF
C50
0.1uF
C41
0.1uF
C8
0.1uF
C44
0.1uF
C1
0.1uF
C43
0.1uF
C33
0.1uF
C40
0.1uF
CHECKED SA New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND GND SA
D 16S2003-1 A
W# 700918 SCALE MNS-12A PCB SHEET 1 OF 2
8 7 6 5 4 3 2 1
R79 40.2K
TO MBW-12 PCB
C72 33pF
CT8
RJ-45 CONNECTOR GND GND
1 2
CT5
V+
C94 1uF
VCC VCC
1
HDPN_LT_HI
MPW-12 3 4 -8dBu
5
CT7 GND GND
D D
HDPN_LT_LO 5 6 C68 22uF
2 36 35 HDPNOUTLT R81 40.2K 2
PH1_EN PH2_EN R64
HDPN_RT_HI PH+ 34 33 PH+ 7 8 LM675 4 PHN_OUT_LT
3
LT 32 31 MB_SPARE1 MB_SPARE2 1
U13
POLYSW
9 10
4 30 29 R80 R69 R68 0.16A
HDPN PH2_EN
MB_SPARE3
11 12
MB_SPARE4
1.00K 3.3 3.3
28 27 PH1_EN 3
5 AGND
RT 26 25 MB_MCLK_DAC MB_SCLK_DAC
HDPN_RT_LO 13 14
V-
6 GND 24 23 GND C60 C79 1uF C59
MB_LRCK_DAC
22 21 15 16 330pF AGND 0.22uF
7
VCC 20 19 VCC MB_SDATA_CUE MB_SDATA_CR
17 18
8 VA+ 18 17 VA+ AGND AGND
MB_SDATA_ST MB_SDATA_HDPN
GND 16 15 GND 19 20
TOP
AGND 14 13 AGND AGND CUE_SPKR
21 22
RJ-45 CONNECTOR
12 11
AGND AGND
V- 10 9 V- 23 24 R108 40.2K
CT4 8 7 V-mb V-mb
25 26 C96 33pF
CUE_LT_HI V+ 6 5 V+
1 V+mb V+mb
4 3 27 28
CUE_LT_LO
2 AGND AGND AGND AGND
V+
2 1 C41 1uF
29 30
CUE_RT_HI -8dBu
3 VA+ VA+ 5
31 32
C97 22uF
LT 4 AGND AGND HDPNOUTRT R110 40.2K 2
33 34 R95
4 PHN_OUT_RT
CUE 5 GND
35 36
GND LM675
U17
1
CUE_RT_LO POLYSW
RT 6 CT1 VCC VCC R109 R97 R98 0.16A
37 38
+PHin 1.00K 3 3.3 3.3
7 1 GND GND AGND
39 40
GND
V-
8 2 C87 C104 1uF C86
C C
GND 330pF AGND 0.22uF
3
+DIGin
RJ-45 CONNECTOR 4 AGND AGND
+DIGin
5 F8 J2
CT3 V+
AGND V+in
ST_LT_HI 6
1 POLYSW
V-in 1.0A GND AGND
ST_LT_LO 7
2
V+in
ST_RT_HI 8
3 F6 J1
V-
LT 4 PWR IN V-in
V+ CT6
POLYSW
1.0A GND AGND PHN_OUT_LT
ST 5
C58
LT 1
ST_RT_LO AGND
RT 6 330uF HDPN 2
C139 1uF F1 C125 0.1uF
+PHin PHN_OUT_RT
7 +PHin PH+ +PHin RT 3
C140 1uF POLYSW
8 +DIGin 0.16A C127 0.1uF AGND C85
GND 330uF
C141 1uF
+DIGin V-
C126 0.1uF
RJ CONNECTOR V-in
C138 1uF GND
B B
C44 33pF
CR 5 F5 C131 0.1uF -2dBu
V-mb
CR_RT_LO V-in V+in
RT 6
V+
POLYSW C23 22uF C67 1uF
CUEOUTLT R61 88.7K
1.0A
7 AGND 5
C45 22uF
8 CUEOUTRT R49 88.7K 2
R37
LM675 4 CUE_SPKR
U9
1
POLYSW
-2dBu R48 R35 R36 0.16A
1.00K 3 3.3 3.3
AGND
V-
C35 C54 1uF C34
R19 2.00K FB5 R18 6.19K 330pF AGND 0.22uF
C5 0.01uF
CB5 +5V-D AGND AGND
6 U2 3 TP2 VCC
F4 L1
+DIGin +REG 2 FB CB 1 OUT5
VIN OUT
CL GND SS
POLYSW
1.0A 5 4 7 LM2673
C6 C2 C1 D1 C12 C21 C11 C13 Z2 Z3 Z1
F3 MBRD835 1SMB5919 1SMB5919 1SMB5919
330uF 22uF 22uF R17 C20 47uF 47uF 47uF 1500uF 5.6V 5.6V 5.6V
10.0K 0.22uF
POLYSW
1.0A
TP1
F2
GND
POLYSW
1.0A
C75 33pF
R89 220 MB_MCLK_DAC
A MNW-12RJ A
R137 2.00K FB5A R136 6.19K CONTRACT NO.
C114 0.01uF C76 33pF
R90 220 MB_SCLK_DAC
CB5A +5V-A VA+ - SA UR US - Sergey Averin -
6 U19 3 TP4
V+in
F9
+REGA 2 FB CB 1 OUT5A
L2 C77 33pF
R91 220 MB_LRCK_DAC
APPROVALS DATE
VIN OUT
CL GND SS DRAWN WWP 6-2-11
POLYSW
1.0A 5 4 7 LM2673 600 Industrial Drive
C115
330uF
C110
22uF
C109
22uF R135 C119
D2
MBRD835
C120
47uF
C122
47uF
C121
47uF
C123
1500uF
Z5
1SMB5919
5.6V
Z4
1SMB5919
5.6V
Z6
1SMB5919
5.6V
GND
CHECKED WWP New Bern, NC 28562
10.0K 0.22uF
ISSUED SIZE FSCM NO. DWG. NO. REV
TP3
WWP
D 16S2014-1 A
AGND W# 700966 SCALE MNW12RJA PCB SHEET 1 OF 3
8 7 6 5 4 3 2 1
D D
1.00K AGND C7 33pF
2 18 8 V+
R62
DVDD AVDD 2.00K R88 5.76K R73 CROUTLT CROUTLT R8 49.9K 2 -22dBu
12 17 5532 1 R7 10 R6 4.99K 6
DIF0/DCLK VREFH 390pF C63 U1
13 C65 3 5532 7 R2 10 R1 47 CR_LT_LO
DIF1/DSDL U1
14 22 3900pF 5
DIF2/DSDR AOUTL- 8 V+ 4 V-
AGND
MB_MCLK_DAC 3 U12 AGND 475 R74 2
MCLK AGND
MB_SCLK_DAC 5 5532 1
BICK/DCLK U11
MB_SDATA_CR 6 23 2.00K R87 475 R86 3
SDATA/DSDL AOUTL+
MB_LRCK_DAC 7 -2dBu
LRCK/DSDR
C64 R85 C70 4 V- R22 5.49K R20 47 CR_RT_HI
10 C81 4.7uF 3900pF 5.76K 390pF
DEM0/CCLK 24
11 VCOM AGND C22 33pF
DEM1/CDTI R30 4.99K
9 AGND AGND AGND
DFS0/CAD0 -22dBu
25 -2dBu
P/S 8 V+ C27 33pF
AK4396 20 2.00K R82 5.76K R71 CROUTRT
AOUTR-
26 CROUTRT R33 49.9K 2 -22dBu
TST1/DZFL 390pF C62
27 5532 1 R32 10 R31 4.99K 6
TST2/CAD1 C61 U5
28 3 5532 7 R21 10 R16 47 CR_RT_LO
ACKS/DZFR 3900pF U5
21 5
AOUTR+
8 475 R70 6 4 V-
SMUTE/CSN
___ AGND AGND
4 16 5532 7
PD VREFL U11 AGND
2.00K R83 475 R84 5
R10 DVSS TTL AVSS -2dBu
10.0K 1 15 19 C73 R72 C69
3900pF 5.76K 390pF
AGND AGND AGND AGND AGND AGND
C C
AGND AGND AGND
B B
AOUTR+
8 AGND 475 R38 6 4 V-
SMUTE/CSN
___ AGND
4 16 5532 7
PD VREFL U6 AGND
2.00K R51 475 R52 5
DVSS TTL AVSS -2dBu
1 15 19 C46 R40 C47
3900pF 5.76K 390pF
AGND AGND AGND AGND AGND
AGND AGND AGND
V+
A MNW-12RJ A
CONTRACT NO.
C112 C3 C56 C55 C10 C118
AGND
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF - SA UR US - Sergey Averin -
V-
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2014-2 A
W# 700966 SCALE MNW12RJA PCB SHEET 2 OF 3
8 7 6 5 4 3 2 1
D D
1.00K AGND C49 33pF
2 18 8 V+
R9
DVDD AVDD 2.00K R29 5.76K R14 STOUTLT STOUTLT R60 49.9K 2 -22dBu
12 17 5532 1 R59 10 R58 4.99K 6
DIF0/DCLK VREFH 390pF C16 U8
13 C18 3 5532 7 R44 10 R43 47 ST_LT_LO
DIF1/DSDL U8
14 22 3900pF 5
DIF2/DSDR AOUTL- 8 V+ 4 V-
AGND
MB_MCLK_DAC 3 U4 AGND 475 R15 2
MCLK AGND
MB_SCLK_DAC 5 5532 1
BICK/DCLK U3
MB_SDATA_ST 6 23 2.00K R28 475 R27 3
SDATA/DSDL AOUTL+
MB_LRCK_DAC 7 -2dBu
LRCK/DSDR
C17 R26 C26 4 V- R67 5.49K R65 47 ST_RT_HI
10 C30 4.7uF 3900pF 5.76K 390pF
DEM0/CCLK 24
11 VCOM AGND C57 33pF
DEM1/CDTI R75 4.99K
9 AGND AGND AGND
DFS0/CAD0 -22dBu
25 -2dBu
P/S 8 V+ C71 33pF
AK4396 20 2.00K R23 5.76K R12 STOUTRT
AOUTR-
26 STOUTRT R78 49.9K 2 -22dBu
TST1/DZFL 390pF C15
27 5532 1 R77 10 R76 4.99K 6
TST2/CAD1 C14 U10
28 3 5532 7 R66 10 R63 47 ST_RT_LO
ACKS/DZFR 3900pF U10
21 5
AOUTR+
8 475 R11 6 4 V-
SMUTE/CSN
___ AGND AGND
4 16 5532 7
PD VREFL U3 AGND
2.00K R24 475 R25 5
DVSS TTL AVSS -2dBu
1 15 19 C24 R13 C25
3900pF 5.76K 390pF
AGND AGND AGND AGND AGND
C C
AGND AGND AGND
B B
AOUTR+
8 AGND 475 R99 6 4 V-
SMUTE/CSN
___ AGND
4 16 5532 7
PD VREFL U15 AGND
2.00K R112 475 R113 5
DVSS TTL AVSS -2dBu
1 15 19 C98 R101 C99
3900pF 5.76K 390pF
AGND AGND AGND AGND AGND
AGND AGND AGND
V+
A MNW-12RJ A
CONTRACT NO.
C83 C103 C8 C82 C32 C33
AGND
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF - SA UR US - Sergey Averin -
V-
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2014-3 A
W# 700966 SCALE MNW12RJ PCB SHEET 3 OF 3
8 7 6 5 4 3 2 1
D D
V-
V+
7 -10dBu -2dBu
+4dBu BAL SH
MIC 1 NOTE: PHASE SYMBOLS DENOTE SIGNAL POLARITY
HI
MIC1INHI
C11 10uF
2 4 8 V+ C7 33pF
OUT
-50dBu BAL L2 C4 5 SSM2017 6
22uF C9
R8 4.99K 2 -2dBu AGND IN PHASE OUT OF PHASE
MIC 1 LO MIC1INLO L1 C3 10uF
330pF 3
U2
5532 1 R9 10 R11 4.99K 6
IN 8 3
U3
5532 7 R16 10 R17 47 MIC1OUTLO
LO
Z2 Z4 U3
1 5
SH R6 R12 C2 C10 C5V1
5.1V
C5V1
5.1V
R7 R13 AGND
4 V-
AGND
4.99K 4.99K 0.001uF 0.001uF 10.0K 10.0K R14
MIC 1 AGND
PH1 10
GAIN AGND
CR1 1 2
AGND AGND 5.1V 5.1V AGND AGND
TRIM
1K 3
C8 C5V1 C5V1
Z1 Z3 NE5532 IC PINOUT
10uF
VIEWED FROM ABOVE
PH+ R5 1.30K
8
2 AQW210S 7
(COMPONENT SIDE)
AGND AGND AGND
U1
1 OUT V+ 8
3 IN+ IN- 6
4 V- IN+ 5
R1 4.99K
C SSM2017 IC PINOUT
C
R29 13.3K R32 47 MIC2OUTHI
HI VIEWED FROM ABOVE
(COMPONENT SIDE)
C26 33pF
R24 4.99K RG1 RG2
V-
V+
1 8
2 IN- V+ 7
7 -10dBu -2dBu
+4dBu BAL SH
MIC 2 3 IN+ OUT 6
HI
MIC2INHI C24 10uF
2 4 8 V+ C20 33pF
OUT 4 V- GND 5
C17 22uF C22
-50dBu BAL L4 5 SSM2017 6 R22 4.99K 2 AGND
-2dBu
MIC 2 LO MIC2INLO L3 C15 10uF 330pF 3
U4
5532 1 R23 10 R25 4.99K 6
IN 8 3
U5
5532 7 R30 10 R31 47 MIC2OUTLO
LO
Z6 Z8 U5
1 5
SH R20 R26 C16 C23 C5V1 C5V1 R21 R27 AGND
5.1V 5.1V 4 V-
AGND
4.99K 4.99K 0.001uF 0.001uF 10.0K 10.0K R28
MIC 2 AGND
PH2 10
GAIN AGND
CR2 1 2
AGND AGND 5.1V 5.1V AGND AGND
TRIM
1K 3
C21 C5V1 C5V1
Z5 Z7
10uF
PH+ R19 1.30K
6
4 AQW210S 5
R2 4.99K
B B
V+
A MPW-12RJ A
4 3
CONTRACT NO.
AGND 2 1 AGND
- SA UR US - Sergey Averin -
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2015 A
W# 700967 SCALE MPW12RJA PCB SHEET 1 OF 1
8 7 6 5 4 3 2 1
SW1
3
LINE 1
750 R42 R34 1.30K LT GAIN 15 R29
D D
VCC VCC
A1_IN_LT_HI R18 10.0K 6 8 V+ 0.001uF AGND AGND AGND
HI 22uF C1 C44 22uF
R19 4.99K
RJ-45 CONNECTOR
7 14 13 6
LT +4dBu BAL
A1_IN_LT_LO R7 10.0K
5532
U2 X-Y X
51 R33
D4
BAT54
AGND BAT54
D4 4.99K
23 7 4.7uF .1uF C46
5 6 12 7 2
LO INH Y 5532
U7 R22
CT5 2.32K R40 C34 C45 0.1uF
VD
VA
11 U3 5 5532 1 51 R31 2
C22 C9 C8 R6 S R26 U7 GNDL
A1_IN_LT_HI 74VHC4053 3 15 R30 4 1 VREFL1
1 0.001uF 0.001uF 33pF 4.99K 40.2K -18dBu AINL+ VREFL
4 V- -18dBu 5 3 VCOML1
A1_IN_LT_LO 2.5V1
AINL- VCOML
2
AGND AGND AGND AGND AGND SW1 2.5V1
A1_IN_RT_HI 4 25
3 AINR+
LT LINE 1
4 LINE 1 "A" 4
6
X-Y X
5
3
750 R12 R11 1.30K RT GAIN 15 R8
24
27
AINR- VREFR
28 VREFR1
26 VCOMR1
A R16 4.99K INH Y GNDR U4 VCOMR
9
5 C20 33pF -2dBu S U3 220pF C15 C12 C24 C11
RT 74VHC4053 2.32K R10 BAT54 VA1+ D1 13
A1_IN_RT_LO D1 BAT54 LRCK 0.1uF 4.7uF .1uF
6 14
8 V+ 220pF C3 SCLK
C17 17
7 8 V+ MCLK AGND AGND AGND
A1_IN_RT_HI R15 10.0K 2 0.001uF 16
HI 22uF C23 U3 C10 22uF FSYNC
8 1 R20 4.99K 15 1 6
RT +4dBu BAL
A1_IN_RT_LO R13 10.0K
5532
U2 X-Y X
51 R4
D2
BAT54
AGND BAT54
D2
3 6 2 7 2 19
TOP LO INH Y 5532
U1 2.32K R2
HPFE
10 8 5 5532 1 51 R3 20 15 R14 68 SDATA_I1
C19 C5 C6 R5 S GND R21 U1 TEST SDATA
4 V- 74VHC4053 3 15 R9
0.001uF 0.001uF 33pF 4.99K 40.2K -18dBu AK5383
4 V- 18
-18dBu DFS
2.5V1 12
AGND AGND AGND AGND AGND 2.5V1
SMODE1
11 9
SMODE2 CAL
IN 1
LINE 1 "A"/ LR_I 6
DGND
AGND
BGND
ZCAL
____
LINE 1 "B" SCLK_I 10
RST
R37 4.99K SELECT MCLK_I
RJ-45 CONNECTOR
22 21 8
C43 33pF -2dBu
B R1 2.32K
B
A ADCW-12RJ A
AGND 14 13 AGND CONTRACT NO.
12 11
V- 10 9 V- - SA UR US - Sergey Averin -
8 7
V+ 6 5 V+
APPROVALS DATE
4 3 DRAWN WWP 6-2-11
AGND 2 1 AGND 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2011-1 A
W# 700963 SCALE ADCW12RJA PCB SHEET 1 OF 2
8 7 6 5 4 3 2 1
SW1
1
LINE 2
750 R85 R82 1.30K LT GAIN 15 R77
D D
VCC VCC
A2_IN_LT_HI R62 10.0K 6 8 V+ 0.001uF AGND AGND AGND
HI 22uF C58 C104 22uF
R57 4.99K
RJ-45 CONNECTOR
7 14 13 6
LT +4dBu BAL
A2_IN_LT_LO R51 10.0K
5532
U9 X-Y X
51 R81
D10
BAT54
AGND BAT54
D10 4.99K
23 7 4.7uF .1uF C106
5 6 12 7 2
LO INH Y 5532
U14 R65
CT2 2.32K R80 C95 C105 0.1uF
VD
VA
11 U10 5 5532 1 51 R71 2
C79 C66 C65 R50 S R70 U14 GNDL
A2_IN_LT_HI 74VHC4053 3 15 R78 4 1 VREFL2
1 0.001uF 0.001uF 33pF 4.99K 40.2K -18dBu AINL+ VREFL
4 V- -18dBu 5 3 VCOML2
A2_IN_LT_LO 2.5V2
AINL- VCOML
2
AGND AGND AGND AGND AGND SW1 2.5V2
A2_IN_RT_HI 2 25
3 AINR+
LT LINE 2
4 LINE 2 "A" 4
6
X-Y X
5
3
750 R55 R54 1.30K RT GAIN 15 R52
24
27
AINR- VREFR
28 VREFR2
26 VCOMR2
A R60 4.99K INH Y GNDR U11 VCOMR
9
5 C77 33pF -2dBu S U10 220pF C72 C69 C82 C68
RT 74VHC4053 2.32K R47 BAT54 VA2+ D7 13
A2_IN_RT_LO D7 BAT54 LRCK 0.1uF 4.7uF .1uF
6 14
8 V+ 220pF C60 SCLK
C74 17
7 8 V+ MCLK AGND AGND AGND
A2_IN_RT_HI R59 10.0K 2 0.001uF 16
HI 22uF C80 U10 C67 22uF FSYNC
8 1 R63 4.99K 15 1 6
RT +4dBu BAL
A2_IN_RT_LO R56 10.0K
5532
U9 X-Y X
51 R48
D8
BAT54
AGND BAT54
D8
3 6 2 7 2 19
TOP LO INH Y 5532
U8 2.32K R45
HPFE
10 8 5 5532 1 51 R46 20 15 R58 68 SDATA_I2
C76 C62 C63 R49 S GND R64 U8 TEST SDATA
4 V- 74VHC4053 3 15 R53
0.001uF 0.001uF 33pF 4.99K 40.2K -18dBu AK5383
4 V- 18
-18dBu DFS
2.5V2 12
AGND AGND AGND AGND AGND 2.5V2
SMODE1
11 9
SMODE2 CAL
IN 2
LINE 2 "A"/ LR_I 6
DGND
AGND
BGND
ZCAL
____
LINE 2 "B" SCLK_I 10
RST
R74 4.99K SELECT MCLK_I
RJ-45 CONNECTOR
22 21 8
C96 33pF -2dBu
B B
VA2+ VA+
J2
A ADCW-12RJ A
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2011-2 A
W# 700963 SCALE ADCW12RJA PCB SHEET 2 OF 2
8 7 6 5 4 3 2 1
D D
2 4.7uF 0.1uF 1.00K 20 7 22 21
SW1 1A TDM_I VDD_IO
1 3 VA VD VL VCC 20 19 VCC
1B C37 0.01uF
5 GND GND 5 26 4 23 VA+ 18 17 VA+
R7 FOR 75 OHM 2A RXN SDOUT SDATA_I SDATA_O
T1 6 4 4 27 5 25 GND 16 15 GND
0.1uF C4 220 2B 1Y RXP0 OSCLK SCLK_I SCLK_O
A1_IN_HI 3 4 14 7 0.01uF C12 3 28 6 24 AGND 14 13 AGND
3A 2Y RXP1 OLRCK LRCLK_I LRCLK_O
R4 R5 13 12 2 12 11
3B 3Y GND RXP2
A1_IN_LO 1 6 220 220 11 9 1 10 V- 10 9 V-
4A 4Y RXP3 U12 SMODE_I_0
10 10 11 8 7
4B
__ RXSEL1 SMODE_I_1
1 +3.3V 11 24 12 V+ 6 5 V+
A/B
__ RXSEL0 RMCK SMODE_I_2
15 12 4 3
G TXSEL1
R44 13 25 19 AGND 2 1 AGND
TXSEL0 OMCK SMODE_O_0
74ACT157 4.99K 18
GND R42 SMODE_O_1
14 20
NV/RERR
______ TX 4.99K
MDL ID BIT - 1,0
15 19 17
AUDIO C WLNGTH_O_0 NO PCB - H,H
16 18 16
96KHZ U WLNGTH_O_1 SRC - L,H
36 PIN
GND
17 C43 0.001uF SLADC - H,L
RCBL
9
____ 8 3.83K R50
C35 0.01uF
2
MCLK_I MCLK_O
3 MMADC - L,L (*)
EDGE
RST FILT
26
+3.3V
CONNECTOR
MMODE_I_0 Q1
U5 R46 R43 AGND DGND C34 0.01uF 27
MMODE_I_1 2 3 VCC
14 4.99K 4.99K 7 CS8416 22 28 OUT IN 19
15
A+ MMODE_I_2 GND
20
+5V
J2
A- GND C15 C14 C26 C7 LT1117 1 C23 C18
10 GND GND GND GND GND 1
B+ GRPDLYS
______ 47uF 0.1uF 0.1uF 0.1uF 0.1uF 47uF
9 13 13 23
B- OUTA RESET
24
DIG.COM.
6 11 9
C+ OUTB BYPASS
7 5 14 15
J1
C- OUTC R8 MUTE_I MUTE_O GND
2 3
D+ OUTD 4.99K
1 AD1896
C C
D- VCC VCC VCC +3.3V +3.3V
4
EN
___ GND GND GND 1
12 4
EN U10 2 C24 C6 C25 C30 C20
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF
AM26C32 74LVC1G32
GND
GND GND GND GND GND
LR_I
SCLK_I R13 100 VCC VCC VCC VCC VCC
5 Y1
4 R12 10.0K C27 C16 C17 C8 C5
6 U1 _
NOT INSTALLED E/D OUT 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF
74ACT02
GND 16.384MHz
SDATA1_I R6 68 GND GND GND GND GND
B B
T3 6 4 4 27 5 25
0.1uF C19 220 2B 1Y RXP0 OSCLK SCLK_I SCLK_O
A2_IN_HI 3 4 14 7 0.01uF C31 3 28 6 24 8 8
3A 2Y RXP1 OLRCK LRCLK_I LRCLK_O
R18 R19 13 12 2
3B 3Y GND RXP2 TOP TOP
A2_IN_LO 1 6 220 220 11 9 1 R47 10
4A 4Y RXP3 U13 SMODE_I_0
10 10 40.2K 11
4B
__ RXSEL1 SMODE_I_1
1 +3.3V +3.3V 11 24 12
A/B
__ RXSEL0 RMCK SMODE_I_2
IN 1 IN 2
15 12 GND
G TXSEL1
R48 R40 13 25 19
TXSEL0 OMCK SMODE_O_0
74ACT157 40.2K 4.99K 18
GND R38 SMODE_O_1
RJ-45 CONNECTOR RJ-45 CONNECTOR
14 20
NV/RERR
______ TX 4.99K
15 19 17
AUDIO C WLNGTH_O_0
16 18 16 CT4 CT1
96KHZ U GND WLNGTH_O_1
17 C42 0.001uF B1_IN_HI B2_IN_HI
RCBL 1 1
2 3
____ C33 0.01uF MCLK_I MCLK_O B1_IN_LO B2_IN_LO
9 8 3.83K R49 2 2
RST FILT
26
MMODE_I_0 3 3
R45 R39 AGND DGND C32 0.01uF 27
MMODE_I_1
4.99K 4.99K 7 CS8416 22 28 4 4
MMODE_I_2 B B
J4
GND 5 5
GND GND GND GND GND 1
GRPDLYS
______
13 6 6
RESET
9
BYPASS 7 7
14 15
J3
R25 MUTE_I MUTE_O
8 8
4.99K
AD1896 BTM BTM
GND GND GND 1
4
U11 2
A SRCW-12RJ A
74LVC1G32 CONTRACT NO.
- SA UR US - Sergey Averin -
LR_I
SCLK_I R31 100 APPROVALS DATE
5 DRAWN WWP 6-2-11
6 U6
4 R30 10.0K
600 Industrial Drive
NOT INSTALLED
CHECKED WWP New Bern, NC 28562
74ACT02
GND
SDATA2_I R24 68
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2012 A
W# 700964 SCALE SRCW12RJA PCB SHEET 1 OF 1
8 7 6 5 4 3 2 1
+1.2V
VCC Q2
3 2
IN OUT
ADJ
C17 1 LT1117 C46
D NOT INSTALLED
U8 VCC
1uF 1.2V 1uF
D
28 24
RT VIN
R67 220 GND 220 R262
GND VIN
23
C45 C43 TMS320C6713BPYP C44
REG_SYNC 27 22 XC3S200 T1
SYNC VIN 1uF 47uF 47uF
VCC PGM1_TXN PGM1_D_LO
VIN
21 DSP56374 220 R266
VCC Q1 +3.3V
VCC
R65 10.0K R66 10.0K 26
SS/ENA VIN
20
GND L1 GND (1.225V) GND
C212
14 3 2 +3.3V +3.3V PGM1_TXP 68pF PGM1_D_HI
4148 D6 PH +1.2V IN OUT
R74 25 13 GND
+3.3V VBIAS PH
10.0K 12 C67 C34 C63 C32 C19 1 LT1117 C20 C13
4148 D5 PH 3.3V
4 11 0.1uF 47uF 0.01uF 47uF 1uF 1uF 47uF TP5
+2.5V PWRGD PH
10 220 R263
R68 C61 C62 PH
3 9 GND GND GND GND T2
88.7K 0.1uF 0.1uF COMP PH
8 GND PGM2_TXN 220 R267 PGM2_D_LO
PH
TPS54610 7 C213
GND GND GND PH
6 PGM2_TXP 68pF PGM2_D_HI
PH TP4
2 5 VCC Q3 +2.5V
VSENSE BOOT
19 3 2 +2.5V +2.5V
C66 C65 PGND C33 IN OUT
18 TP6 GND
3900pF 0.01uF PGND 47uF
17 C52 1 LT1117 C53 C86 220 R264
PGND 2.5V
R73 1 16 1uF 1uF 47uF TP7 T3
AGND PGND GND GND
2.00K 15 PGM3_TXN 220 R268 PGM3_D_LO
PGND
GND C214
R71 10.0K
R70 R69 POWERPAD GND PGM3_TXP 68pF PGM3_D_HI
100K 40.2K
GND GND GND C64 0.01uF
R72 100 TP2 TP11 TP3 TP10 TP1
GND GND
B B
475 1.00K 475 1.00K 475 1.00K 475 1.00K 475 1.00K 475 1.00K
A MBW-12RJ A
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2013-3 A
W# 700965 SCALE MBW12RJA PCB SHEET 3 OF 8
8 7 6 5 4 3 2 1
D D
4.99K 0.1uF 4.99K 0.1uF 4.99K 0.1uF 4.99K 0.1uF 4.99K 0.1uF 4.99K 0.1uF
2 AQW210S 7 2 AQW210S 7 2 AQW210S 7 2 AQW210S 7 2 AQW210S 7 2 AQW210S 7
B B
A MBW-12RJ A
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2013-4 A
W# 700965 SCALE MBW12RJA PCB SHEET 4 OF 8
8 7 6 5 4 3 2 1
D +3.3V +3.3V
VA+
D
C23 4.7uF C48 4.7uF
AGND
1.00K AGND 2 18
R26
DVDD AVDD 2.00K R44 5.76K R52 R151 5.49K R200 47 PGM1_LT_HI
12 17
DIF0/DCLK VREFH 390pF C75
13 C56 C156 33pF
DIF1/DSDL R194 4.99K
14 22 3900pF
DIF2/DSDR AOUTL- 8 V+ -2dBu
8 V+ C183 33pF
MCLK_DAC 3 U3 AGND 475 R43 2
MCLK
SCLK_DAC 5 5532 1 R150 4.99K 2 -2dBu
BICK/DCLK U10
SDATA_PGM1 6 23 2.00K R53 475 R61 3 5532 1 R159 10 R201 4.99K 6
SDATA/DSDL AOUTL+ U23
LRCK_DAC 7 -2dBu 3 5532 7 R189 10 R193 47 PGM1_LT_LO
LRCK/DSDR U23
C70 R75 C76 4 V- 5
10 C24 4.7uF 3900pF 5.76K 390pF 4 V-
DEM0/CCLK 24 AGND
11 VCOM AGND
DEM1/CDTI AGND
9 AGND AGND AGND
DFS0/CAD0
25
P/S
AK4396 20 2.00K R145 5.76K R136 R212 5.49K R284 47 PGM1_RT_HI
AOUTR-
26
TST1/DZFL 390pF C116
27 C138 C207 33pF
TST2/CAD1 R277 4.99K
28 3900pF
ACKS/DZFR -2dBu
21
AOUTR+ 8 V+ C229 33pF
8 AGND 475 R144 6
SMUTE/CSN
___
4 16 5532 7 R213 4.99K 2
PD VREFL -2dBu
U10
C C
2.00K R137 475 R132 5 5532 1 R229 10 R285 4.99K 6
DVSS TTL AVSS U37
R35
-2dBu 3 5532 7 R272 10 R276 47 PGM1_RT_LO
10.0K C129 R129 C117 U37
1 15 19 5
3900pF 5.76K 390pF 4 V-
AGND
AGND AGND AGND AGND AGND AGND
AGND
AGND AGND AGND
VA+
+3.3V +3.3V
1.00K AGND 2 18
R27
DVDD AVDD 2.00K R46 5.76K R54 R153 5.49K R202 47 PGM2_LT_HI
12 17
DIF0/DCLK VREFH 390pF C77
13 C57 C157 33pF
DIF1/DSDL R196 4.99K
14 22 3900pF
DIF2/DSDR AOUTL- 8 V+ -2dBu
8 V+ C184 33pF
MCLK_DAC 3 U4 AGND 475 R45 2
MCLK
SCLK_DAC 5 5532 1 R152 4.99K 2
-2dBu
BICK/DCLK U11
SDATA_PGM2 6 23 2.00K R55 475 R62 3 5532 1 R160 10 R203 4.99K 6
SDATA/DSDL AOUTL+ U24
LRCK_DAC 7
-2dBu
3 5532 7 R190 10 R195 47 PGM2_LT_LO
LRCK/DSDR U24
C71 R76 C78 4 V- 5
10 C26 4.7uF 3900pF 5.76K 390pF 4 V-
DEM0/CCLK 24 AGND
11 VCOM AGND
DEM1/CDTI AGND
9 AGND AGND AGND
DFS0/CAD0
25
P/S
AK4396 20 2.00K R147 5.76K R138 R214 5.49K R286 47 PGM2_RT_HI
B B
AOUTR-
26
TST1/DZFL 390pF C118
27 C139 C208 33pF
TST2/CAD1 R279 4.99K
28 3900pF
ACKS/DZFR -2dBu
21
AOUTR+ 8 V+ C230 33pF
8 AGND 475 R146 6
SMUTE/CSN
___
4 16 5532 7 R215 4.99K 2
PD VREFL -2dBu
2.00K R139 475 R133 U11
5 5532 1 R230 10 R287 4.99K 6
U38
DVSS TTL AVSS -2dBu
3 5532 7 R273 10 R278 47 PGM2_RT_LO
C130 R130 C119 U38
1 15 19 5
3900pF 5.76K 390pF 4 V-
AGND
AGND AGND AGND AGND AGND
AGND
AGND AGND AGND
V+
A MBW-12RJ A
CONTRACT NO.
C224 C223 C222 C152 C175 C201
AGND
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF - SA UR US - Sergey Averin -
V-
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2013-5 A
W# 700965 SCALE MBW12RJA PCB SHEET 5 OF 8
8 7 6 5 4 3 2 1
D +3.3V +3.3V
VA+
D
C27 4.7uF C50 4.7uF
AGND
1.00K AGND 2 18
R28
DVDD AVDD 2.00K R48 5.76K R56 R155 5.49K R204 47 PGM3_LT_HI
12 17
DIF0/DCLK VREFH 390pF C79
13 C58 C158 33pF
DIF1/DSDL R198 4.99K
14 22 3900pF
DIF2/DSDR AOUTL- 8 V+ -2dBu
8 V+ C185 33pF
MCLK_DAC 3 U5 AGND 475 R47 2
MCLK
SCLK_DAC 5 5532 1 R154 4.99K 2 -2dBu
BICK/DCLK U12
SDATA_PGM3 6 23 2.00K R57 475 R63 3 5532 1 R161 10 R205 4.99K 6
SDATA/DSDL AOUTL+ U25
LRCK_DAC 7 -2dBu 3 5532 7 R191 10 R197 47 PGM3_LT_LO
LRCK/DSDR U25
C72 R77 C80 4 V- 5
10 C28 4.7uF 3900pF 5.76K 390pF 4 V-
DEM0/CCLK 24 AGND
11 VCOM AGND
DEM1/CDTI AGND
9 AGND AGND AGND
DFS0/CAD0
25
P/S
AK4396 20 2.00K R149 5.76K R140 R216 5.49K R288 47 PGM3_RT_HI
AOUTR-
26
TST1/DZFL 390pF C120
27 C140 C209 33pF
TST2/CAD1 R281 4.99K
28 3900pF
ACKS/DZFR -2dBu
21
AOUTR+ 8 V+ C231 33pF
8 AGND 475 R148 6
SMUTE/CSN
___
4 16 5532 7 R217 4.99K 2
PD VREFL -2dBu
U12
C C
2.00K R141 475 R134 5 5532 1 R231 10 R289 4.99K 6
DVSS TTL AVSS U39
-2dBu 3 5532 7 R274 10 R280 47 PGM3_RT_LO
C131 R131 C121 U39
1 15 19 5
3900pF 5.76K 390pF 4 V-
AGND
AGND AGND AGND AGND AGND
AGND
AGND AGND AGND
VA+
+3.3V +3.3V
1.00K AGND 2 18
R29
DVDD AVDD
12 17
DIF0/DCLK VREFH
13
DIF1/DSDL
14 22 3.92K R50 5.76K R58 R218 5.49K R290 47 CALL_OUT_HI
DIF2/DSDR AOUTL-
390pF C83
MCLK_DAC 3 U6 C59 C210 33pF
MCLK R283 4.99K
SCLK_DAC 5 3900pF
BICK/DCLK 8 V+ -2dBu
SDATA_CALL 6 23 3.92K R59
SDATA/DSDL AOUTL+ 8 V+ C232 33pF
LRCK_DAC 7 AGND 475 R49 2
LRCK/DSDR
5532 1 R219 4.99K 2
-2dBu
475 R94 U15 R232 10 R291 4.99K
10 C30 4.7uF 3 5532 1 6
DEM0/CCLK 24 U40
11 VCOM AGND
-2dBu 3 5532 7 R275 10 R282 47 CALL_OUT_LO
DEM1/CDTI U40
9 C81 R78 C84 4 V- 5
DFS0/CAD0
25 3900pF 5.76K 390pF 4 V-
P/S AGND
AK4396 20 R79 3.92K
B B
AOUTR- AGND
26 AGND AGND AGND
TST1/DZFL
27
TST2/CAD1 R122 4.99K
28
ACKS/DZFR C132 33pF
21 R64 3.92K
AOUTR+
8
SMUTE/CSN
___
4 16
PD VREFL 6 J3
5532 7
DVSS TTL AVSS U15
5
1 15 19 GND AGND
AGND
AGND AGND AGND AGND AGND
V+
A MBW-12RJ A
CONTRACT NO.
C198 C154 C174 C199 C225 C145
AGND
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 100uF - SA UR US - Sergey Averin -
V-
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2013-6 A
W# 700965 SCALE MBW12RJA PCB SHEET 6 OF 8
8 7 6 5 4 3 2 1
4.99K
23 7 10uF 0.1uF C128
R98
VD
VA
2 C126 C127 0.22uF
GNDL
750 R175 10 R142 4 1 VREFL1
AINL+ VREFL
5 3 VCOML1
D D
R234 4.99K 330pF C169 AINL- VCOML
2.43K R176 BAT54 VA+ D10
C205 33pF -2dBu D10 BAT54
25
330pF C170 AINR+
C133 24 28 VREFR1
8 V+ AINR- VREFR
EXT1LT_HI R269 10.0K 6 3900pF 27 26 VCOMR1
HI 22uF C204 GNDR U19 VCOMR
7 R226 4.99K 2
LT +4dBu BAL
EXT1LT_LO R258 10.0K
5532
U34 39 R178
D11
BAT54
AGND BAT54
D11 C97 C87 C96
5 1 6 13
LO 5532
U33 2.43K R158
LRCK 0.22uF 10uF 0.1uF
3 5532 7 14
C226 C219 C200 R227 U33 SCLK
5 39 R179 10 R143 17
0.001uF 0.001uF 33pF 4.99K -14dBu MCLK AGND AGND AGND
4 V- -14dBu 16
2.5VA+1
FSYNC
AGND AGND AGND AGND 2.5VA+1
"EXT "
750 R118 10 R96 19
R180 4.99K HPFE
20 15 R97 68 SDATA14
C171 33pF -2dBu 330pF C134 TEST SDATA
2.43K R119 BAT54 VA+ D7
D7 BAT54 AK5383
18
8 V+ 330pF C135 DFS
C82 12
8 V+ SMODE1
EXT1RT_HI R270 10.0K 2 3900pF 11 9
HI 22uF C88 SMODE2 CAL
1 R106 4.99K 2
RT +4dBu BAL
EXT1RT_LO R259 10.0K
5532
U34 39 R125
D8
BAT54
AGND BAT54
D8
3 1 6 6
LO 5532
DGND
AGND
BGND
U21 ZCAL
____
3 2.43K R107 5532 7 10
C227 C220 C193 R199 U21 RST
4 V- 5 39 R126 10 R93
0.001uF 0.001uF 33pF 4.99K -14dBu
4 V- -14dBu 22 21 8
2.5VA+1
AGND AGND AGND AGND 2.5VA+1 AGND AGND AGND AGND
LRCK_ADC
C C
SCLK_ADC
MCLK_ADC
1 CR1
2 3 10K
4.99K
R235 8.45K 23 7 10uF 0.1uF C41
CALL R24
VD
VA
2 C47 C40 0.22uF
GAIN 750 R120 10 R42 4
GNDL
1 VREFL2
TRIM 5
AINL+ VREFL
3 VCOML2
R260 R265 330pF C136 AINL- VCOML
2.43K R121 BAT54 VA+ D3
C206 33pF 1.69K 100 D3 BAT54
25
330pF C137 AINR+
53.6K
R261
C51 24 28 VREFR2
-2dBu AINR- VREFR
CALL_IN_HI 6 8 V+ 3900pF 27 26 VCOMR2
HI DB15 22uF C89 GNDR U1 VCOMR
7 R108 4.99K 2 AGND
+4dBu BAL 5532
U35
D4
BAT54
BAT54
D4 C22 C18 C21
CALL_IN_LO 5 1 39 R127 6 13
LO DB3 5532
U22 2.43K R109
LRCK 0.22uF 10uF 0.1uF
53.6K
R271
3 5532 7 14
U22 SCLK
C228 C221 5 39 R128 10 R51 17
R228 8.45K -14dBu MCLK AGND AGND AGND
0.001uF 0.001uF 4 V- 16
SH DB16
C202 R236 2.5VA+2
-14dBu FSYNC
2.5VA+2
"CALL " AGND AGND 33pF 1.69K 19
AGND HPFE
20 15 R25 68 SDATA13
TEST SDATA
AGND AGND
AK5383
18
R182 4.99K DFS
12
B B
SMODE1
C172 33pF 11 9
SMODE2 CAL
DGND
AGND
BGND
8 V+ ZCAL
____
10
RST
2
5532 1 22 21 8
U35
3
AGND AGND AGND AGND
AGND 4 V-
LRCK_ADC
SCLK_ADC
MCLK_ADC
+3.3V +3.3V VA+ VA+
J7
V+
GND AGND
VA+ VA+
C92 C161 C98 C90 C91
R184 R185
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF
475 475
2.5VA+1 2.5VA+2
A MBW-12RJ A
CONTRACT NO.
C110 C122 C111 C173 C112 C153 C159 R181 C155 C160 R183
AGND
0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 0.1uF 4.7uF 475 0.1uF 4.7uF 475 - SA UR US - Sergey Averin -
V-
AGND AGND AGND AGND AGND AGND
APPROVALS DATE
DRAWN WWP 6-2-11 600 Industrial Drive
CHECKED WWP New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
WWP
D 16S2013-7 A
W# 700965 SCALE MBW12RJA PCB SHEET 7 OF 8
8 7 6 5 4 3 2 1
AGND
AGND R117
+3.3V +3.3V +3.3V
40.2K
8
V+ OPA2353 U20
C143 C144
4
C203 5 0.1uF 10uF V- OPA2353 U20 USB_OUT_LT_LO
1
USB 0.1uF
2 U36
4
AGND
AGND AGND
CT18 AGND
AGND 3 +3.3V +3.3V
74LVC1G08 R187 R186
AGND 4 U26
AGND 13.3K 1.69K ______ 28 TP9 AGND
1
DP 3 D+ SSPND C113 C123 C124 C114 R174 53.6K
R188 22 C164 10uF
2 27 10pF 10pF 10pF 10pF
DM 2 D- VDDI
C C
R192 22 C151 68pF
3 26 Y3
VBUS 1 VBUS DGND
R233
R257 R256 R255 4
DGNDU TEST1
25 R111 3.3
AGND
_
E/D OUT R
C141 10uF
1.69K 1.69K 1.69K J4
1.0M 5 24 R112 3.3 12.000MHz
HID0 TEST0
C148 0.1uF Y4 R135 22.1K R156 3.92K 6
J5 6 23
AGND AGND HID1 VCCXI C142 10uF OPA2353 7 R323 3.3 USB_OUT_RT_HI
TBD C166 U20 R177 100
7 22 5 C167 10uF
HID2 AGNDX Y1 NOT INSTALLED
0.001uF
J6 8 21
SEL0 XTI
MUTE & VOLUME R124 1.0M R157
9 20 AGND
JUMPERS SEL1 XTO 40.2K
10uF C196 C149 0.1uF
10 19
VCCCI VCCP2I OSCILATOR_12.000MHz
2
11 18 GND Y3 USB_OUT_RT_LO
AGNDC AGNDP
R325 10.0K
12 17 AGND
VIN_L VCCP1I AGND
AGND
13 16 C249 10pF
VIN_R VOUT_L
14 15
VCOM VOUT_R
V+ V+
PCM2900B 8
C182
10uF R113 C165 C150 C247
RJ-45 CONNECTOR
2
3.3 0.1uF 10uF 0.1uF 5532 1
R327 U53
CT9 3 R319 3.3
C250 10uF
2.43K
USB_OUT_LT_HI_RJ AGND AGND AGND AGND
1
AGND C246 4
USB_OUT_LT_LO AGND V-
2 0.1uF
USB_OUT_RT_HI_RJ V-
3 C197 10uF R321 3.3
LT TP12
B USB OUT
4
DO NOT INSTALL B
5
RT C211 10uF TP13
USB_OUT_RT_LO R324 10.0K
6
7 C248 10pF
AGND
8
TOP
6
5532 7
R326 U53
5 R318 3.3
2.43K C251 10uF
AGND
R322 3.3
8 7 6 5 4 3 2 1
Bottom
D D
A B C D E F
VCC VCC VCC VCC VCC VCC
SW1 SW2 SW3 SW4 SW5 SW6
D6 4148 D4 4148 D3 4148 D2 4148 D1 4148 D5 4148
MY_ADDR_2A 2 1 SW_D[6] MY_ADDR_2B 2 1 SW_D[6] MY_ADDR_2C 2 1 SW_D[6] MY_ADDR_2D 2 1 SW_D[6] MY_ADDR_2E 2 1 SW_D[6] MY_ADDR_2F 2 1 SW_D[6]
ON ON ON ON ON ON
B GND
CT1
GND
B
1 2
MY_ADDR_2A
3 4
MY_ADDR_2B
5 6
7 8
MY_ADDR_2C
9 10
11 12
VCC VCC
13 14
MY_ADDR_2D
15 16
17 18
MY_ADDR_2E
19 20
MY_ADDR_2F
21 22
23 24
GND GND
25 26
A ONS-6 A
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
DRAWN SA 3-21-07 600 Industrial Drive
CHECKED SA New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
SA
D 16S2001 _
W# 700917 SCALE ONS-6 PCB SHEET 1 of 1
8 7 6 5 4 3 2 1
Top Bottom
B B
A
VCC
SW1 CT1
D1 4148
MY_ADDR_2A 2 1 SW_D[6] GND VCC
1 2
MY_ADDR_2A
3 4 R1 220 3 4
SW_D[6] SW_D[7]
5 6
ON
7 8
VCC GND
9 10
SW2
D2 4148
2 1 SW_D[7]
3 4 R2 220
OFF
A A
PHONS-12
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
DRAWN SA 3-21-07 600 Industrial Drive
CHECKED New Bern, NC 28562
SA
SIZE FSCM NO. DWG. NO. REV
ISSUED SA B 16S2005 _
W#700920 SCALE PHONS-12 PCB SHEET 1 OF 1
2 1
X-12 / May 2011 page 4 - 30
SCCOHNESMOALTEI CF E
DARTAUWRI E
NSGS
Top Bottom
INSTALL TWO
D1 UF4007
R70 24
R72 24
INSTALL ONE
D D
R73 24
D2 UF4007 F3
R71 24 DV36P
+36V +36V
INSTALLED
INSTALLED
INSTALLED
Z1 C38 C32 C26 POLYSW C14 C19 C9
NOT
NOT
NOT
TP3 1N5364 0.16A
51V 10uF 220uF 220uF 220uF 220uF 10uF
+BR T2 ~V48P
MUR3020
1 20 A2
0.47uF 3
DV16P
+16V
K
MB3510
C63 R52 2.43K 2.43K R53 C61 19 ~V36P 2
+16V
D12
4 A1 L1
100nF 1
C39 C33 C27 4.7uH C20 C10 R66
UF4007 D14 GNDP GNDP GNDP 2 18 ~V16P D3 22uF 330uF 330uF 330uF 22uF 220
R65 11K SNB DRN
MBR-4060P
D8 4148
TP2
A2
16VCC
3
DV8P2
+8V
5 17 K
FER
R60 88.7K R61 88.7K R62 88.7K C60 2
+8V
INSTALL ONE R51 2.43K ~V8P A1 L3
2.2nF C41 C35 C29 C22 C12 R68
TP1
3 1 4.7uH
UF4007 D11
R50 3.32K R59 10 D5 22uF 330uF 330uF 330uF 22uF 56
16
MBR-4060P
R58 10 6 A2
KBL08
3
DV8P1
+8V
D10 4148 14 K
28VR
D7
28VC
0.001uF C52 SYNC VCC D
R57 10.0K 9 12
PWM ~V8N
MUR3020
RT1 SG55
C C
5.6V
C49 4.7nF
CGND
1.0M
R40
GNDP GND
Z4 C58 Z3
1SMB5919 1SMB5919
5.6V 0.1uF 5.6V
PR1
PR2
0.47uF
R46 1.00K
C44
+8V
4.7nF
4.7nF
C43
C37
5 U2 1 CT5
CGND CGND Z5 C57 Z2 C50 R45 R44
1SMB5919 1SMB5919 CNY17 1
Y Y 5.6V 0.22uF 5.6V 0.01uF 1.30K 26.7K
R49 220
-
10mH
10mH
L5
R43 40.2K
R47 220
+8V 3 +
GNDP R48 53.6K DS1
+16V NOT
3 INSTALLED
C31
0.47uF
GREEN
PRch11
PRch12
U1 1 2.5V
KA431
Pwr ON
2 R41
LED
4.99K
C46 C45
NOT
1.0M
R39
0.0047uF
INSTALLED
4.99K 1K 3 POLYSW C64
C24
C25
NOT
1.0A 2
330uF
GND
GND 3
Y Y
Fan
NOT
B B
INSTALLED
FUSE
FUSE
2.0A
2.0A
F1
F2
PRf1
PRf2
WP3
CT3
WP2
+36V 1
CGND WP1
GND 2
GND 3
CT1
CT2
T1 T1 +8V 4
1
+16V
13 11b
FOR ETD-39
~V8P ~V8P
C8 C7 C6 C5 C4 C3 C2 C1
Output
10b 0.01uF 0.01uF 0.01uF 0.01uF 0.01uF 0.01uF 0.01uF 0.01uF
12 GND
8b
7 10 ~V16N
~V14A ~V8N
A SPS-100 A
GNDP
6 9
~V16N
CONTRACT NO.
- SA UR US - Sergey Averin -
APPROVALS DATE
DRAWN SA/WWP 1-5-09 600 Industrial Drive
CHECKED SA/MM New Bern, NC 28562
ISSUED SIZE FSCM NO. DWG. NO. REV
SA
D 00S0041 B
W# 700915 SCALE SPS-100B PCB SHEET 1 OF 1
8 7 6 5 4 3 2 1
Appendix
Contents
Replacement Parts List..................................................................A-2
POT KNOB 21mm BLACK COLLET KNOB FOR 1/8” SHAFT, NO LINE 520126
POT CAP 1mm BLACK/005 CAP W/ LINE FOR 15mm KNOB 530037
NKK SWITCH JB15 SWITCH W/BRIGHTER RED LED AND SILICON GASKET 510290
NKK SWITCH JB15 SWITCH W/BRIGHTER YELLOW LED AND SILICON GASKET 510291
POWER CONNECTOR PIN 40 AMP RIGHT ANGLE PCB MOUNT PLUG LONG 200117