Thank you for choosing the Hammerfall DSP. This unique audio system is capable of
transferring digital audio data directly to a computer from practically any device equipped with
a digital audio interface, be it SPDIF, AES/EBU or ADAT optical. The numerous unique
features and well thought-out configuration dialog puts the Hammerfall DSP at the very top of
the range of digital audio interface cards.
The package includes drivers for Windows 98/2000/XP and MacOS. An ALSA driver for Linux
is planned to be available soon (see chapter 7).
Our high-performance philosophy guarantees maximum system performance by executing all
functions directly in hardware and not in the driver (i.e. the CPU).
2. Package Contents
Please check that your Hammerfall DSP Systems package contains each of the following:
PCI Interface:
• PCI card HDSP
• Quick Info guide
• RME Driver CD
• Cable IEEE1394, 4.5 m (15 ft)
• Internal cable (3 pin)
CardBus Interface:
• CardBus card
• Quick Info guide
• RME Driver CD
• Cable CardBus to IEEE1394, 4.5 m (15 ft)
• 12 V car cable
• Battery cable
• Power supply 12 V / 1.25 A and power cord
Digiface:
• I/O-box Digiface
• Quick Info guide
• RME Driver CD
• 3 optical cable (TOSLINK), 2 m (6.6 ft)
3. System Requirements
• MacOS 8.6 or greater. G3 300 MHz recommended
• PCI Interface: a free PCI rev. 2.1 Busmaster slot
• CardBus Interface: a free PCMCIA Slot type II, CardBus-compatible
Note: Information on compatibility and performance of notebooks/laptops is included in RMEs
Tech Infos about notebooks, HDSP System – Notebook Basics and Tests.
• 32 bit, 4 byte (stereo 8 byte)
This format is compatible with 16-bit and 20-bit. Resolutions below 24-bit are handled by the
audio application. The card works internally with 32-bit data, but audio data transfer is limited to
24-bits.
5.5 Power supply
• The CardBus card does not provide power to the attached I/O-box. Therefore a hi-tech
switching power supply is included
• The PCI card operates as power supply for the attached I/O-box
The Digiface draws a high startup current of more than 2.5 A during initialisation. Current at 12
Volt operating voltage: unloaded 170 mA (2 Watts), loaded 430 mA (5.1 Watts). Supply voltage
range DC 7 V – 38 V, AC 7 V – 27 V.
6. Hardware Installation
6.1 PCI Interface
Before installing the PCI card, please make sure the computer is switched off and the
power cable is disconnected from the mains supply. Inserting or removing a PCI card while
the computer is in operation can cause irreparable damage to both motherboard and card!
1. Disconnect the power cord and all other cables from the computer.
2. Remove the computer's housing. Further information on how to do this can be obtained
from your computer´s instruction manual.
3. Important: Before removing the card from its protective bag, discharge any static in your
body by touching the metal chassis of the PC.
4. Insert the PCI card firmly into a free PCI slot, press and fasten the screw.
5. Replace the computer's housing.
6. Reconnect all cables including the power cord.
7. Connect PCI interface and Digiface using the supplied cable (IEEE1394). This is a standard
Firewire cable (6-pin).
6.2 CardBus Card
Before inserting the CardBus card make sure the complete HDSP system is ready for
operation!
1. Connect the CardBus card with the Digiface using the supplied cable.
2. Insert the CardBus card with the Hammer logo up into a PCMCIA slot.
3. Plug the power jack of the supplied switching power supply into the connector labeled AUX,
on the rear of the Digiface.
4. Connect power cord to power supply, plug into AC outlet. The green LED of the power
supply and the red LED of the Digiface will light up.
5. Switch on the notebook and boot the operating system.
The small 15-pin connector of the CardBus card is coded. Only the supplied special cable
can be plugged in, and only when the metal sleeve is up. Any kind of violence when
plugging in and out can cause damage to the CardBus card.
First fit the card (see 6. Hardware Installation), then switch on the computer and install the
drivers from the RME Driver CD. The driver files are located on the CD in the folder
'Hammerfall DSP'.
In case a newer driver version was downloaded from RME's website double-click the
'madsp_x.sit' archive to decompress it into separate files (using 'Aladin Stuffit Expander').
If you already installed an older version of the driver first make sure to remove all old files.
To do so open the 'Extensions' folder which is inside your 'System' folder. Remove the file
'Hammerfall DSP Driver'. Also remove 'Hammerfall DSP Settings' from the directory where it
was copied to. Remove the 'Hammerfall DSP ASIO' driver file from any 'ASIO Drivers' folder.
After unstuffing the archive the driver files are found in folders. The name of the folders tell
where to copy the files! The driver installation is done manually in 5 steps:
1. Drag the file Hammerfall DSP
Driver from 'into System folder'
into the System folder. It will be
installed automatically into the
'Extension' folder. Confirm the
system's message to complete
the installation. Now the driver
file should be found in the
'Extension' folder, see example to
the right.
2. Copy the files Hammerfall DSP Settings,
Hammerfall DSP ASIO and Hammerfall DSP
ASIO 96 kHz from 'into ASIO Drivers folder' into all
'ASIO Drivers' folders found on your computer. As
every ASIO software has its own ASIO Drivers
folder, the files most propably have to be copied
several times.
Configuration of the Hammerfall DSP is done through the Settings dialog, which can be called
from within any ASIO compatible software (for example Audio/System/ASIO Control Panel). To
be able to call up the Settings dialog at any time we recommend to create an Alias on the
desktop. To create an Alias select 'Hammerfall DSP Settings' with the mouse cursor, press and
hold the Apple and Alt keys on your keyboard, and drag Hammerfall DSP Settings to the
desired location.
3. Copy the complete sub-folder Hammerfall DSP, found in the folder 'into Preferences folder',
to the system folder 'Preferences'. This way the files related to the HDSP system reside in their
own folder, without cluttering the Preferences folder. Additionally deleting those files is much
easier in case of a driver update. Hammerfall DSP contains 10 files:
default.mix: Default settings for TotalMix
default.vol: Default settings for Digiface/Multiface, as long as TotalMix isn't started
preset1.mix to preset8.mix: Presets for the HDSP mixer
4. The file Hammerfall DSP TotalMix can be copied to any place. When started the HDSP
mixer comes up and allows you to configure the digital real-time mixer of the Digiface.
TotalMix requires Carbon Library 1.1, which is part of the operating system since MacOS
9.1. After installation of Carbon Library 1.1 TotalMix can even be run on older systems
(down to 8.6).
5. Using the MIDI ports of the Digiface requires an installed OMS (Open Music System) from
Opcode. The latest version 2.3.8 can be downloaded for free at
http://www.opcode.com
After the installation of OMS, copy the file HDSP_OMSDriver, found in the folder 'into OMS
Folder folder', into the system folder 'OMS Folder'.
To finish installation reboot the computer.
After re-boot the MIDI driver is installed, but not yet activated. To activate it create a new OMS
Studio setup. Using 'Search' the MIDI driver of the Digiface should be found and added to the
list. Now it can be activated.
Linux/Unix
An ALSA driver for Linux/Unix is planned to be available soon. Further information on ALSA is
The front of the I/O-box Digiface has the second MIDI input and output, the analog stereo
output of the digital mixer, and several status LEDs:
MIDI State indicates sent or received data separately for each MIDI port
Input State indicates a valid input signal separately for each input. RME’s exclusive
SyncCheck shows through a blinking LED, which of the input signals is locked, but not in sync
to the others. See chapter 9.2, Clock Modes - Synchronisation.
The red HOST LED lights up when the power supply or the computer is switched on, this
signalling the presence of operating voltage. At the same time it operates as Error LED, in case
the I/O-box wasn’t initialised, or the connection to the interface has been interrupted (cable not
connected etc.).
Phones is a low impedance line output of highest quality, which can produce a sufficient
volume undistorted even in connected headphones.
The back of the Digiface has the first MIDI input and output, the power supply connector AUX
(only needed with CardBus operation), and all digital inputs and outputs:
ADAT I/O (TOSLINK), 1 to 3. The ADAT1 I/O can also be used for optical SPDIF, if this mode
is selected in the Settings dialog.
The SPDIF inputs are selected via the Settings dialog (started by clicking on the hammer
symbol in the system tray). The HDSP system accepts the commonly used digital audio
formats, SPDIF as well as AES/EBU. Channel status and copy protection are ignored.
In SPDIF mode, identical signals are available at both the optical and the coaxial outputs. An
obvious use for this would be simply connecting two devices, i.e. using the HDSP as a splitter
(distribution 1 on 2).
To receive signals in AES/EBU format,
an adapter cable is required. Pins 2 and 3
of a XLR plug are connected individually
to the two pins of a phono plug. The
cable shielding is only connected to pin 1
of the XLR - not to the phono plug.
The ground-free design using transformers for digital inputs and outputs enables trouble-free
connection even to AES/EBU devices, and perfect hum rejection.
Unlike analog soundcards which produce empty wave files (or noise) when no input signal is
present, digital I/O cards always need a valid input signal to start recording.
To take this into account, RME has included two unique features in the Hammerfall DSP
system: a comprehensive I/O signal status display (showing sample frequency, lock and sync
status) in the Settings dialog, and status LEDs for each input.
The sample frequency shown in the Settings dialog (see chapter 9, screenshot Settings) is
useful as a quick display of the current configuration (the board itself and all connected external
equipment). If no sample frequency is recognized, it will read ‘No Lock’.
With this configuring any suitable audio application for digital recording is simple. After
selecting the required input, Hammerfall DSP displays the current sample frequency. This
parameter can then be changed in the application’s audio attributes (or similar) dialogue.
It often makes sense to monitor the input signal or send it directly to the output. This can be
done at zero latency using TotalMix (see chapter 14).
For an automated real-time monitoring function the HDSP System supports ASIO Direct
Monitoring (ADM) in ASIO 2.0. When 'ASIO Direct Monitoring' has been switched on the input
signal is routed in real-time to the output whenever Record is started.
Configuring the HDSP system is done using its own settings dialog, the program Hammerfall
DSP Settings.
The Hammerfall DSP’s hardware offers a number of helpful, well thought-of practical functions
and options which affect how the card operates - it can be configured to suit many different
requirements. The following is available in the 'Settings' dialog:
• Input selection
• Output mode
• Output channel status
• Synchronization behaviour
• Input and output status display
• Time code display
Any changes made in the
Settings dialog are applied
immediately - confirmation (e.g.
by clicking on OK or exiting the
dialog) is not required. However,
settings should not be changed
during playback or record if it can
be avoided, as this can cause
unwanted noises. Also, please
note that even in 'Stop' mode,
several programs keep the
recording and playback devices
open, which means that any new
settings might not be applied
immediately.
The status displays at the bottom of the dialog box give the user precise information about the
current status of the system, and the status of all signals. ‘SyncCheck’ indicates whether there
is a valid signal for each input (‘Lock’ or ‘No Lock’), or if there is a valid and synchronous signal
(‘Sync’). The ‘AutoSync Ref’ display shows the input and frequency of the current sync source.
'Time Code' displays time information received from the I/O-box ADAT Sync port. This is
convenient for checking whether the system is running in time with the transmitting device (e.g.
ADAT).
The setting ‘Buffer Size’ determines the latency between incoming and outgoing data, as well
as affecting system stability. We recommend selecting the highest value here (8192 samples) the system will still run comfortably.
Options
'Alt. ASIO Mode' activates a different ASIO callback method. This setting is performed in realtime and under operation. Therefore it's very easy to check whether this setting results in any
performance advantages. This setting is recommended for Logic (emagic) and Spark (TC).
SPDIF In
Defines the input for the SPDIF
signal. 'Coaxial' relates to the
phono socket, 'ADAT1' to the
optical input ADAT1.
SPDIF Out
The SPDIF output signal is
constantly available at the phono
plug. After selecting 'ADAT1' it is
also routed to the optical output
ADAT1. For further details about
the settings ‘Professional’,
‘Emphasis’ and ‘Non-Audio’,
please refer to chapter 12.
Clock Mode
The card can be configured to
use its internal clock (Master), or
the clock source pre-defined via
Pref. Sync Ref (AutoSync).
Pref. Sync Ref
Used to pre-select the desired
clock source. If the selected
source isn't available the card will change to the next available one. The currently used clock
source and sample rate is displayed in the AutoSyncRef display.
The automatic clock selection checks and changes between the clock sources ADAT optical,
SPDIF, word clock and ADAT Sync. The latter is recommended especially for sample-accurate
transfers under ASIO 2.0.
System Clock
Shows the current clock state of the HDSP system. The system is either Master (using its own
clock) or Slave (AutoSync Ref).
Hardware State
This display shows the current state of the I/O-box:
I/O Box error: I/O-box not connected or missing power
I/O Box detected: The interface has found a I/O-box and tries to load the firmware
I/O Box locked: Communication between interface and I/O-box ok
In the digital world, all devices are either the ‘Master’ (clock source) or a ‘Slave’ synchronized
to the master. Whenever several devices are linked within a system, there must always be a
single master clock. The Hammerfall DSP’s intelligent clock control is very user-friendly, being
able to switch between clock modes automatically. Selecting 'AutoSync' will activate this mode.
In AutoSync mode, the system
constantly scans all digital inputs
for a valid signal. If this signal
corresponds with the current
playback sample rate, the card
switches from the internal quartz
(AutoSync Ref displays 'Internal')
to a clock generated from the
input signal (AutoSync Ref
displays 'SPDIF' or 'ADATx').
This allows on-the-fly recording,
even during playback, without
having to synchronize the card to
the input signal first. It also allows
immediate playback at any
sample rate without having to
reconfigure the card.
AutoSync guarantees that normal
record and record-while-play will
always work correctly. In certain
cases however, e.g. when the
inputs and outputs of a DAT
machine are connected directly
to the Hammerfall DSP,
AutoSync causes feedback in the digital carrier, so synchronization breaks down. To remedy
this, switch the HDSP’s clock mode over to 'Master'.
Remember that a digital system can only have one master! If the HDSP’s clock mode is set
to 'Master', all other devices must be set to ‘Slave’.
All the ADAT optical inputs in the Hammerfall DSP as well as the SPDIF input will work
simultaneously. Because there is no input selector however, the HDSP has to be told which of
the signals is the sync reference (a digital device can only be clocked from a single source).
This is why the system has been equipped with automatic clock source selection, which adopts
the first available input with a valid digital signal as the clock reference input. The input
currently used as sync reference is shown in the AutoSync Ref status field, together with the
current sample frequency.
Via Pref. Sync Ref (preferred synchronization reference) a preferred input can be defined. As
long as the card sees a valid signal there, this input will be designated as the sync source,
otherwise the other inputs will be scanned in turn. If none of the inputs are receiving a valid
signal, the card automatically switches clock mode to ‘Master’.
To cope with some situations which may arise in studio practice, setting ‘Pref Sync Ref’ is
essential. One example: An ADAT recorder is connected to the ADAT1 input (ADAT1
immediately becomes the sync source) and a CD player is connected to the SPDIF input. Try
recording a few samples from the CD and you will be disappointed. Few CD players can be
synchronized. The samples will inevitably be corrupted, because the signal from the CD player
is read with the (wrong) clock from the ADAT i.e. out of sync. In this case, 'Pref Sync Ref'
should be temporarily set to SPDIF.
If several digital devices are to be used simultaneously in a system, they not only have to
operate with the same sample frequency but also be synchronous with each other. This is why
digital systems always need a single device defined as ‘master’, which sends the same clock
signal to all the other (‘slave’) devices. RME’s exclusive SyncCheck technology (first
implemented in the Hammerfall) enables an easy to use check and display of the current clock
status. The ‘SyncCheck’ field indicates whether no signal (‘No Lock’), a valid signal (‘Lock’) or a
valid and synchronous signal (‘Sync’) is present at each of the three ADAT optical inputs. The
‘AutoSync Ref’ display shows the current sync source’s input and frequency.
In practice, SyncCheck provides the user with an easy way of checking whether all digital
devices connected to the system are properly configured. With SyncCheck, finally anyone can
master this common source of error, previously one of the most complex issues in the digital
studio world.
An example to illustrate this: The ADAT1 and ADAT2 inputs are receiving signals from a digital
mixing desk that has been set to clock mode 'Internal' or 'Master'. An ADAT recorder is
connected to the ADAT3 input. The Hammerfall DSP is set to AutoSync mode. As expected,
SyncCheck shows that the ADAT1 and ADAT2 inputs are in sync (as they are driven by the
same clock from the mixing desk), but shows ‘Lock’ instead of 'Sync' for the ADAT3 input.
Because the ADAT
recorder is not
receiving any signals
from HDSP or from
the mixer, it will
generate its own
clock at a rate which
is (almost) the same
as the sample
frequency of the
mixing desk - but not
identical. Remedy:
To drive the ADAT
recorder from its
digital input, set it to
slave mode (DIG),
and connect the input
to the HDSP’s ADAT3 output. The Hammerfall DSP is already in sync with the mixing desk, so
it will send an identical (synchronous) signal to ADAT3 out. The ADAT recorder will lock onto
this, its output will also be in sync. The signal from the ADAT recorder is now fully in sync with
the signals from the mixing desk.
Thanks to the its AutoSync technique and a lightning fast PLL, the HDSP is not only capable of
handling standard frequencies, but also any sample rate between 25 and 105 kHz. The input
selected in 'Pref Sync Ref' serves as synchronization source. If word clock is selected as input,
this will serve as the synchronization source, allowing any sample frequency between 25 kHz
and 56 kHz in varispeed operation.
The current sample frequency at the SPDIF input (displayed in the ‘SPDIF In’ field) is useful for
troubleshooting and checking the configuration of all connected digital devices. If an input
without a valid signal (or a faulty one) is selected, ‘No Lock’ will appear. In varispeed mode, or
if the sample frequency is way out of tune, ‘Lock’ is displayed. The Sync state of the SPDIF
signal is shown by a blinking (locked) or constantly lit (Sync) input LED on the front of the
Digiface.
At 88.2 or 96 kHz: If one of the ADAT inputs has been selected in ‘Pref Sync Ref’, the sample
frequency shown in the ‘SPDIF In’ field differs from the one shown in ‘AutoSync Ref’. The card
automatically switches to its Sample Split mode here, because ADAT optical inputs and outputs
are only specified up to 48 kHz. Data from/to a single input/output is spread over two channels,
the internal frequency stays at 44.1 or 48 kHz. In such cases, the ADAT sample frequency is
only half the SPDIF frequency.
Correct interpretation of digital audio data is dependent upon a definite sample frequency.
Signals can only be correctly processed or transferred between devices if these all share the
same clock, otherwise digital signals are misinterpreted, causing distortion, clicks/crackle and
even dropouts.
AES/EBU, SPDIF and ADAT are self-clocking, so an additional line for word clock could be
considered redundant. In practice however, using several devices at the same time can cause
problems. For example, if devices are connected in a loop without there being a defined
‘master’ device, self-clocking may break down. Besides, the clocks of all devices must be
synchronized from a single source. Devices without SPDIF inputs (typically playback devices
such as CD players) cannot be synchronized via self-clocking.
In digital studios, synchronization requirements can be met by connecting all devices to a
central sync source. For instance, the master device could be a mixing desk, sending a
reference signal - word clock - to all other devices. However, this will only work if all the other
devices have word clock inputs (e.g. some professional CD players) allowing them to run as
slaves. This being the case, all devices will receive the same clock signal, so there is no
fundamental reason for sync problems when they are connected together.
10.2 Cables and Termination
Word clock signals are usually distributed in the form of a network, split with BNC T-adapters
and terminated with resistors. We recommend using off-the-shelf BNC cables to connect all
devices, as this type of cable is used for most computer networks. You will find all the
necessary components (T-adapters, terminators, cables) in most electronics and/or computer
stores.
To avoid voltage loss and reflections, both the cable itself and the terminating resistor should
have an impedance of 75 Ohm. If the voltage is too low, synchronization will fail. High
frequency reflection effects can cause both jitter and sync failure.
In practice, the situation has improved in recent years. The relatively low frequency of word
clock signals is not a problem for modern electronic circuits. Because of the higher voltage,
word clock networks are often more stable and reliable if cables are not terminated at all. Also,
75 Ohm cable is almost impossible to find these days. 50 Ohm cable is standard - this will also
work as long as the termination resistors are 75 Ohm.
The word clock input of the Hammerfall DSP is a high-impedance type ensuring maximum
flexibility, and is therefore not terminated. If normal termination is necessary (e.g. because
Hammerfall DSP is the last device in the chain), simply connect a T-adapter to its BNC input
jack, connect the cable supplying the word clock signal to one arm of the T-adapter and
terminate the other with a 75 Ohm resistor (as a short BNC plug).
In case Hammerfall DSP resides within a chain of devices receiving word clock, plug a Tadapter into Hammerfall DSP’s BNC input jack and the cable supplying the word clock signal to
one end of the adapter (as above), but connect the free end to the next device in the chain via
a further BNC cable. The last device in the chain should be terminated using another T-adapter
and a terminator plug as described in the previous paragraph.
The green ‘Lock’ LED (Input State) will light up when the input sees a valid word clock signal.
Selecting ‘Word Clock’ in the ‘Clock Mode’ field will switch clock control over to the word clock
signal. As soon as there is a valid signal at the BNC jack, 'AutoSync Ref' will display 'Word'.
This message has the same function as the green ‘Lock’ LED, but appears on the monitor, i.e.
the user can check immediately whether a valid word clock signal is present and is currently
being used.
The word clock output as well as all ADAT ports only works in Single Speed mode. At 96
kHz, the word clock output will therefore be a 48 kHz signal.
11. Using more than one Hammerfall DSP
The current drivers support multiple interfaces and any combination of I/O-boxes. Please note
that only one ADAT Sync can be used (of course). Additional all systems must be in sync i.e.
have to receive valid sync information (either via wordclock or using AutoSync).
12. Special Characteristics of the SPDIF Output
Apart from the audio data itself, digital signals in SPDIF or AES/EBU format have a header
containing channel status information. False channel status is a common cause of malfunction.
The Hammerfall DSP ignores the received header and creates a totally new one for the output
signal.
Note that in record or monitor modes, set emphasis bits will disappear. Recordings originally
done with emphasis should always be played back with the emphasis bit set!
This can be done by selecting the 'Emphasis' switch in the Settings dialogue ('SPDIF Out'). This
setting is updated immediately, even during playback. The Hammerfall DSP’s new output
header is optimized for largest compatibility with other digital devices:
• 32 kHz, 44.1 kHz, 48 kHz, 88.2 kHz or 96 kHz, depending on the current sample rate
• Audio use, Non-Audio
• No Copyright, Copy Permitted
• Format Consumer or Professional
• Category General, Generation not indicated
• 2-channel, No Emphasis or 50/15 µs
• Aux bits Audio Use
Professional AES/EBU equipment can be connected to the Hammerfall DSP thanks to the
transformer-balanced coaxial outputs, and the ‘Professional’ format option with doubled output
voltage. Output cables should have the same pinout as those used for input (see section 8.1
‘Connections’), but with a male XLR plug instead of a female one.
Note that most consumer-orientated equipment (with optical or phono SPDIF inputs) will only
accept signals in ‘Consumer’ format!
The audio bit in the header can be set to 'Non-Audio'. This is necessary when Dolby AC-3
encoded data is sent to external decoders (surround-sound receivers, television sets etc. with
AC-3 digital inputs), as these decoders would otherwise not recognize the data as AC-3.
We will use Steinberg’s Cubase VST as an example throughout this chapter. All information
provided can easily be adopted to other programs.
Start the ASIO software and
select ‘System’ from the
Audio menu. Select 'ASIO
Hammerfall DSP' as the
audio I/O device. The 'ASIO
system control' button opens
the HDSP’s Settings dialog
(see chapter 9,
Configuration).
Hammerfall DSP also allows
simultaneous record and
playback of SPDIF audio
data together with record and
playback in ADAT format.
Please note that the external
SPDIF devices have to be
running in sync, otherwise
recordings will be corrupted.
Hammerfall DSP supports 'ASIO Direct Monitoring' (ADM). Please note that at this time
Cubase, Nuendo and Logic do not support ADM correctly. Bugfixes should be available soon.
For an operation at 88.2 and 96 kHz sample rate the device 'ASIO Hammerfall DSP 96 kHz'
has to be chosen. When the sample frequency is set to 88.2 or 96 kHz, this driver operates all
the ADAT optical inputs and outputs in Sample Split mode, so the number of available
channels is reduced from 24 to 12.
13.2 Performance
The 'Audio Performance' settings are especially important. Firstly, the number of channels
should be changed from 8 to 26 so that all the Hammerfall DSP’s inputs can be accessed.
A very common problem is insufficient hard disk performance. If the first track is missing while recording multiple
tracks, or the error message ‘Audio: Record Error’ appears,
the disk sub-system is too slow i.e. it is unable to write the
audio data to the disk quickly enough. The problem can
almost always be remedied by changing ‘Disk Block Buffer
Size’ from the default 64kB to 256kB.
This is especially true if you want to record more than 12
tracks at the same time. 26 tracks are only possible after
changing ‘Disk Block Buffer Size’ to 256kB (depending on your computer). Please note that
these parameters are only updated after clicking on ‘Apply’.
The heyday of (expensive) SCSI hard disks in high-speed audio workstations is over. Today’s
cheap high-capacity EIDE disks allow continuous transfer rates of well over 10 MB per second.
In practical terms, this is more than enough to record up to 24 simultaneous tracks using
Cubase and Hammerfall!
The Buffer Size value in Hammerfall DSP’s Settings dialog determines the latency (in this case
the delay) between the audio application and the HDSP as well as general system stability. The
higher the value, the more tracks can be recorded and played back simultaneously and the
longer the system takes to react. At the given maximum of about 0.2 seconds, you will not
notice much delay at all - the system will still respond quickly and smoothly.
13.3 Synchronization
To achieve sample-accuracy
between the ADAT recorder
and Hammerfall DSP while
running Cubase, connect the
ADAT sync output with the 9pin D-type sync input of the
HDSP. The ‘Time Code’ field
in the Settings dialogue should
now show the same position as
the ADAT recorder.
Double-clicking on the Sync
button in Cubase’s transport
panel will open the
‘Synchronization’ dialog.
Select ASIO 2.0 as the
timecode base (under Sync Source), confirm the dialog with ‘OK’, then activate Sync mode by
(single) clicking on the Sync button.
If synchronization is not working i.e. Cubase does not respond when the ADAT is set to ‘Play’,
please try the following:
• Check the cables
• Switch Sync off and on again (in Cubase’s transport panel)
• Select ‘Reset Devices’ from the Options menu.
• Switch on the ADAT recorder(s) before starting Cubase
• Use the BRC as Master and send its word clock to all other devices
• Use the Clock Mode ADAT Sync
13.4 Known Problems
In case the used computer has no sufficient CPU-power and/or sufficient PCI-bus transfer
rates, then drop outs, crackling and noise will appear. We also recommend to deactivate all
PlugIns to verify that these are not the reason for such effects.
Another common source of trouble is incorrect synchronization. ASIO does not support
asynchronous operation, which means that the input and output signals must not only have the
same sample frequency, but they must also be in sync. All devices connected to the
Hammerfall DSP must be properly configured for Full Duplex operation. As long as SyncCheck
(in the Settings dialog) only displays 'Lock' instead of 'Sync', the devices have not been set up
properly!
The Hammerfall DSP system includes a powerful digital real-time mixer. RME’s unique
TotalMix technology allows for nearly unlimited mixing and routing with all inputs and playback
channels simultaneously.
Here are some typical applications for TotalMix:
• setting up delay-free submixes (headphone mixes)
• unlimited routing of inputs and outputs (free utilisation, patchbay function)
• distributing signals to several outputs at a time
• simultaneous playback of different programs over only one stereo channel
• mixing of the input signal to the playback signal (complete ASIO Direct Monitoring)
• integration of external devices (effects etc). in real-time
• mixdown of three ADAT inputs to one (realizing two additional inputs)
On page 29 you’ll find a block diagram of the TotalMix mixer of the Digiface. It can help to
understand the basic signal flow and routing. It shows that the record signal always stays unaltered, but can be passed on as often as desired, even with different levels. The level meter of
inputs and playback channels are connected pre-fader (due to the enormous routing
capabilities). The level meters of the hardware’s outputs are connected post-fader.
To call up the mixer start the program Hammerfall DSP TotalMix.
14.1 Elements of the Surface
The visible design of the mixer is mainly determined by the architecture of the HDSP system:
• Upper row: hardware inputs. The level shown is that of the input signal, i. e. Fader
independent. Per fader and routing window, any input channel can be routed and mixed to
any hardware output (third row).
• Middle row: playback channels (playback tracks of the software). Per fader and routing
window, any playback channel can be routed and mixed to any hardware output (third row).
• Lower row: hardware outputs. Because they refer to the output of a subgroup, the level can
only be attenuated here (in order to avoid overloads), routing is not possible. This row has
two additional channels, the analog outputs.
Every single channel has various elements:
Input and playback channels each have a mute and solo button.
Below each there is the panpot, realized as indicator bar (L/R) in order to save space.
In the window below this, the present level is displayed in RMS or Peak, being
updated about every half a second. Overs are indicated here by an additional red dot.
Then comes the fader with a levelmeter. The meter shows both peak values (zero
attack, 1 sample is enough for displaying full scale) by means of a yellow line and
mathematically correct RMS values by means of a green bar. The RMS display has a
relatively slow time constant, so that it shows the average loudness quite well.
Below the fader, the current gain and panorama values are shown.
The white area shows the channel name, the black area shows the current routing
In the following chapters we will explain all functions of the surface step by step. Starting up
TotalMix, the last settings are recalled automatically. When executing the application for the
first time, a default file is loaded, sending all playback tracks 1:1 to the corresponding hardware
outputs with 0 dB gain. The faders in the upper row are set to maximum attenuation (called
m.a. in the following), so there is no monitoring of the input channels.
We will now create a submix for the analogue headphone output. Please start a multitrack
playback and connect your headphones to the analogue output. In playback channel 1 (labeled
'Out 1'), click onto the routing window below the label. A list pops up, showing a checkmark in
front of 'A1 1+2'. Click onto 'Analog'. The list disappears, the routing window no longer shows
'A1 1+2', but 'Analog'. Now move the fader with the mouse. As soon as the fader value is
unequal m.a., the present state is being stored and routing is activated. Move the fader button
to around 0 dB. The present gain value is displayed below the fader in green letters. In the
lower row, on channels 27 and 28 (AN.L. and AN.R.), you can also see the level of what you
are hearing in the phones. The level meter of the hardware output shows the outgoing level.
Click into the area above the fader and drag the mouse in order to set the panorama, in this
case the routing between channels 27 and 28. The present pan value is also being displayed
below the fader.
Please carry out the same steps for 'Out 2' now, in order to route it
to the analog output as well.
Often signals are stereo, i. e. a pair of two channels. It is therefore
helpful to be able to make the routing settings for two channels at
once. Press the Ctrl-key and click into the routing window of 'Out 3'
with the key pressed. The routing list pops up with a checkmark at
'A1 3+4'. Click onto 'Analog'. Now, channel 4 has already been set
to 'Analog' as well.
When you want to set the fader to exactly 0 dB, this can be
difficult, depending on the mouse configuration. Move the fader
close to the 0 position and now press the Shift-key. This activates
the fine-mode, which stretches the mouse movements by a factor
of 8. In this mode, a gain setting accurate to 0.1 dB is no problem
at all.
Please set 'Out 4' to a gain of around -20 dB and the pan close to
center. Now click onto the routing window. You'll now see two
checkmarks, one at 'A1 3+4', the other one at 'Analog'. Click onto
'SPDIF'. The window disappears, fader and panpot jump to their
initial values, the signal can now be routed to the SPDIF output.
You can continue, until all entries have got a checkmark, i. e. you
can send the signal to all outputs simultaneously. This is one of
several differences to the Cubase mixer, which does not allow for
multiple selections.
You will certainly have noticed that the headphone mix has not
changed, while you were routing the channel to other outputs and
setting different gain values. With all analogue and most digital
mixing desks, the fader setting would affect the level for every
routed bus - not so for TotalMix. TotalMix allows for setting all
fader values individually. Therefore the faders and the panpots jump to the appropriate setting
as soon as another routing is chosen.
The checkmarks are un-checked by moving the fader to m.a. This setting deactivates the
routing...why route if there is no level? Click onto 'A1 3+4' in the routing window, pull the fader
down, open the routing window again - the checkmark is gone.
Such a wide range of possibilities make it difficult to maintain the overview. Because practically
all hardware outputs can be used for different submixes, as shown. And when opening the
routing windows you might see an army of checkmarks, but you don't get an overwiev, i.e., how
the signals come together and where. This problem is removed by the view mode 'Submix'. In
this mode, all routing windows jump to the routing pair just being selected. So you can then see
immediately, which channels, which fader and pan settings make a submix (for example
'Analog').
At the same time the Submix View simplifies setting up the mixer, as all channels can be set
simultaneously to the same routing destination with just one click.
14.4 Mute and Solo
Mute works pre-fader, thus mutes all active routings of the channel. As soon as any Mute
button is pressed, the Master Mute button lights up in the quick access area. It can switch all
selected mutes off and on again. You can comfortably make mute groups to activate and
deactivate this way.
The same holds true for the Solo and the Master Solo buttons. Solo is working as a solo-inplace. As soon as one Solo button is pressed, all other Mute buttons are activated and light up.
But TotalMix would not be an Intelligent Audio Solution, if it didn't behave as you'd expect from
a mixing console. If you, for instance, mute 'Out 1' to 'Out 4' and press Solo for 'Out 5', of
course all Mute buttons will light up. If you deactivate Solo, the Mute buttons for 'Out 1' to 'Out
4' light up as before. And if you chose Solo for a channel of this Mute group, mute will be
deactivated, but immediately activated again, if Solo is released.
14.5 Hotkeys
TotalMix knows only a few, but very effective key combinations, that make setting the mixer up
considerably easier and faster. The Shift-key for the fine-mode for faders and panpots has
already been mentioned. But the Ctrl-key can do far more than changing the routing pairwise:
• Clicking anywhere into the fader area with the Ctrl-key pressed, sets the fader to 0 dB, -6
dB for the hardware outputs.
• Clicking anywhere into the pan area with the Ctrl-key pressed, sets the panorama to <C>
meaning 'Center'.
The faders can also be moved pairwise, corresponding to the basic stereo pairs. This can be
achieved by pressing the Alt-key and is especially comfortable when setting the SPDIF and
analogue output level. Even the Panoramas can be operated with Alt, from stereo through
mono to inversed channels. At the same time, TotalMix also supports combinations of these
keys. If you press Ctrl and Alt at the same time, clicking with the mouse makes the faders jump
to 0 dB pairwise, and they can be set pairwise by Shift-Alt in fine-mode.
Also very useful: the faders have two mouse areas. The first area is the fader button, which can
be grabbed at any place without changing the position. This avoids unwanted changes when
clicking onto it. The second area is the whole fader setting area. Clicking into this area makes
the fader jump to the mouse at once. If you want to set several faders to m.a. for instance, it is
sufficient to click onto the lower end of the fader path. Which happens pairwise with the Alt-key
pressed.
Using the hotkeys I, O and P the complete row each of Input, Playback and Output channels
can be toggled between visible and invisible. Hotkey S switches Submix view on/off. Those
four hotkeys have the same functionality as the buttons in the View section of the Quick Access
Panel. The Level Meter Setup dialog can be opened by pressing the key L.
Further hotkeys are available to control the configuration of the Level Meter (see chapter 14.8):
Key 4 or 6: Display range 40 or 60 dB
Key E or R: Numerical display showing Peak or RMS
Key 0 or 3: RMS display absolute or relative to 0 dBFS
14.6 The Quick Access Panel
This section includes additional options, further improving the handling of TotalMix. The Master
button for Mute and Solo has already been described, they allow for group-based working with
these functions.
In the View section the single rows can be made visible or invisible. If the inputs are not
needed for a pristine playback mix, the whole upper row falls out of the picture after a click on
the input button. If the hardware outputs don't interest you either, the surface can thus be
reduced to the playback channels to save space. All combinations are possible.
Submix sets all routing windows to the same selection as described before. Deactivating
Submix automatically recalls the previous view.
The mixer can also be made smaller horizontally, and, scrolled. TotalMix can be made
substantially smaller and space-saving on the desktop/screen, if you have to have to monitor or
set only a few channels or level meters.
The Presets are one of the mightiest and most useful features of TotalMix.
Behind the eight buttons, eight files are hidden (see next chapter). These contain
the complete mixer state. Just try it: all faders and other settings follow the
changing of preset(s) in real-time, just by a single mouse click. The Save button
allows for storing the present settings in the present preset. You can change
back and forth between a signal distribution, complete input monitoring, a stereo
and mono mix, and various submixes without any problem.
Also here, RME's love for details can be seen. If any parameter is being altered
after loading a preset (e. g. moving a fader), the preset display flashes in order
to announce that something was changed, still showing, which state the present
mix is based on.
If no preset button is lit, another preset had been loaded via the File menu and
'Open file'. Mixer settings can of course be saved the usual way, and with long
file names.
Up to three Hammerfall DSP systems can be used simultaneously. The Card buttons switch
between the systems. Systems, because card 1 can be a Digiface, but card 2 can also be a
Multiface.
The number of ADAT channels is reduced to half automatically when chosing double speed
operation (88.2 or 96 kHz). The display is adjusted accordingly, but the fader settings remain
stored.
During the driver installation 8 factory presets are copied to the preferences folder (inside the
folder 'Hammerfall DSP'). Those files are named preset1.mix to preset8.mix, and will be used
when clicking on the 8 Preset buttons in the Quick Access Panel.
But TotalMix will read those files only at first usage. As soon as one of the Presets is saved,
TotalMix writes a new file and adds the number of the currently used system (Card 1, 2 or 3).
The files preset1.mix thus changes to preset11.mix, if Card 1 was active. This method offers
two major advantages:
• Presets modified by the user will not be overwritten when reinstalling or updating the driver
• The factory presets remain unchanged, and can be reloaded anytime using the menu,
Files/Open
The 8 factory presets offer not only a useful functionality for TotalMix, but also a pretty good
base to modify them to your personal needs.
Preset1.mix
Description: All channels routed 1:1, playback monitoring via headphone out
Details: All inputs maximum attenuation (m.a.). All playback channels 0 dB, routet to the same
output. All output channels 0 dB, phones -6 dB. Submix of all inputs and outputs to the analog
output (Phones), with input faders set to m.a., playback to 0 dB. All channels prepared for all
routings to left/right panning. Level display set to RMS -3 dB.
Note: This preset is Default, offering the standard functionality of a I/O-card.
Preset2.mix
Description: All channels routed 1:1, input and playback monitoring via Phones. As Preset 1,
plus submix of all inputs (0 dB) on Phones.
Preset3.mix
Description: All channels 1:1, input and playback monitoring via Phones and outputs. As Preset
2, but all inputs set to 0 dB (1:1 pass through).
Preset4.mix
Description: All channels 1:1, playback monitoring via Phones and outputs. As Preset 3, but all
inputs muted.
Preset5.mix
Description: All faders m.a. As Preset 1, but all outputs m.a.
Preset6.mix
Description: Submix on SPDIF at -6 dB. As Preset 1, plus submix of all playbacks on SPDIF.
View Submix SPDIF active.
Preset7.mix
Description: Submix on SPDIF at -6 dB. As Preset 6, but submix of all inputs and outputs on
SPDIF. View Submix SPDIF active.
Preset8.mix
Description: Panic. As Preset 4, but also playback muted (no output signal).
Having set a new standard with the level meters of DIGICheck, Hammerfall DSP goes even
further: The calculation of the Peak, RMS and Over is realized in hardware, in order to be
capable of using them independent of the software in use, and to significantly reduce the CPU
load.
The level meters integrated in TotalMix - considering their size - cannot be compared with the
HDSP Meter Bridge (available later). Nevertheless they already include many useful functions.
Peak and RMS is displayed for every channel. 'Level Meter Setup' (Menu Options) or direct
keyboard entry (hotkeys) makes various options available:
• Display range 40 or 60 dB (hotkey 4 or 6)
• Release time of the Peak display (Fast/Medium/Slow)
• Numerical display selectable either Peak or RMS (Hotkey E or R)
• Number of consecutive samples for Overload display (1 to 15)
• RMS display absolute or relative to 0 dBFS (Hotkey 3 or 0)
The latter is a point often overlooked, but nonetheless
important. RMS shows 3 dB less for sine signals. This
is mathematically correct, but not very reasonable for
a level meter. Therefore, we had corrected
DIGICheck's RMS display by 3 dB, a full scale sine
signal shows both 0 dBFS Peak and RMS. This setting
also yields directly readable signal-to-noise values,
while other applications (like WaveLab) will show a
value 3 dB better than actual (because the reference
is not 0 dB, but -3 dB).
The value displayed in the text field is independent of
the setting 40/60 dB, it represents the full 24 bit range
of the RMS measurement, thus making possible a
SNR measurement 'RMS unweighted', which you
would otherwise need extremely expensive
measurement devices for. An ADI-8 DS connected to
the Digiface will therefore show around -113 dB on all
8 channels.
This level display will constantly bring the reduced
dynamic range of your equipment, maybe of the whole studio, in front of your eyes. Nice to
have everything 24 bit - but still noise and hum everywhere in the range around -90 dB or
worse... sorry, but this is hard reality. The up-side about it is that TotalMix allows for constantly
monitoring the signal quality without effort. Thus it can be a valuable tool for sound optimization
and error removal in the studio.
Measuring SNR (Signal to Noise) requires to press R (for RMS) and 0 (for referring to 0
dBFS, a full scale signal). The text display will then show the same value as an expensive
measurement system, when measuring ‘RMS unweighted’.
Note: There is no RMS calculation for the third row, the physical outputs. Therefore these green
bars show the peak value.
The HDSP system uses the notebook’s PCMCIA type II port as CardBus interface. Compared
to a PC-Card, which only has access to the outdated ISA-bus, CardBus is a 32 bit PCI
interface. When inserting the CardBus card it usually is detected automatically by the notebook
hardware and then by the MacOS. An icon labeled 'Hammerfall DSP' will appear on the
desktop.
Like with a desktop computer it is not possible to remove a PCI device while in operation. First
the operating system has to receive a 'removal request’, then the device has to be stopped.
This procedure prooves to be very simple on the MacOS: just drag the
'Hammerfall DSP' icon in the trash can. The MacOS internally de-installs
the CardBus card and switches off power (the red Host LED begins to
blink). The card can now be pulled out of the PCMCIA slot.
The Hammerfall DSP System was tested thoroughly on several notebooks by RME. We did not
find any compatibility problems with older G3 Powerbooks or the latest Titanium. The
performance was good and allowed to use latencies down to 1.5 ms.
The mobile operation of the HDSP system can cause problems. Explanations and solutions on
digital noise, ground loops, headphone operation and Line Out wiring, power supplies and the
mobile operation with battery can be found in the Tech Info HDSP System: Notebook Basics - The Audio Notebook in Practise.
The hardware of a notebook differs in many points from that of a desktop computer –
sometimes…Detailed information on all components, from CPU to the display, can be found in
the Tech Info HDSP System: Notebook Basics – Notebook Hardware. Although this Tech Info
speaks about IBM-compatible machines it is still interesting even for the MacOS user.
The newest information can always be found on our website www.rme-audio.com, section
MacOS, Hammerfall DSP Support.
The ADAT timecode is not in sync
• The tape is formatted to 48 kHz, but played back at 44.1 kHz (Pitch). This 'Blackface'
problem cannot be solved in a satisfactory way.
ADAT timecode is running, but Cubase does not start 'Play' automatically
• The input displayed in ‘Sync Ref’ is not in sync mode. Sync mode is essential, because
ADAT’s so-called time code is really a sample position, and is therefore only valid for
synchronous audio data.
• Sync is displayed (referring to the card’s clock), but the incoming data is not in sync with the
sample position received at the ADAT Sync In. Then Cubase does not start. Remedy: Set
‘Pref. Sync Ref’ to the input corresponding to the received ADAT Sync signal.
• Sync mode wasn't activated (button in the transport panel), or ASIO 2.0 has not been
chosen as the SMPTE sync source.
The input signal cannot be monitored in real-time
• ASIO Direct Monitoring has not been enabled, and/or monitoring has been globally disabled.
The first 8 channels don’t seem to work
• S/PDIF output has been switched to ADAT1. This means that the first ADAT output device,
and therefore the first 8 channels in the ASIO application, are no longer available. All
channels and their assignments still exist, but the optical transmitter has been disconnected
from the ADAT and is now fed from the S/PDIF output (channels 25 and 26).
Playback works, but record doesn’t:
• Check that there is a valid signal at the input. If so, the current sample frequency is
displayed in the Settings dialog.
• Check whether the Hammerfall DSP has been selected as recording device in the audio
application.
• Check whether the sample frequency set in the audio application (‘Recording properties’ or
similar) matches the input signal.
• Check that cables/devices have not been connected in a closed loop. If so, set the
systems’s clock mode to ‘Master’.
Crackle during record or playback:
• Increase the number and size of buffers in the ‘Settings’ dialog or in the application.
• Try different cables (coaxial or optical) to rule out any defects here.
• Check that cables/devices have not been connected in a closed loop. If so, set the system’s
clock mode to ‘Master’.
• Increase the buffer size of the hard disk cache.
The performance with emagic's Logic is poor
• Ensure that 'Alt.ASIO Mode' is checked (RME DIGI Settings, Options). This setting can be
Digital Performer and Logic crash when used at 96 kHz
• This problem (missing reset for changed number of channels in Double Speed operation) is
solved by the special ASIO driver 'Hammerfall DSP ASIO 96 kHz'. Select this driver within
the corresponding program when working in 88.2 and 96 kHz.
16.2 Installation
The dialog 'New hardware component found’ does not appear:
• Check whether the CardBus card is completely inserted into the PCMCIA slot, or the PCI
interface is correctly inserted in the PCI slot.
The card and drivers have been installed correctly, but playback does not work:
• Check whether the Hammerfall DSP has been selected as current ASIO device.
The following symptoms are typical for PCI related problems:
• When booting the control panels are displayed too big, or spread across the whole screen
• Software or OS crash as soon as the card is used
These problems were reported with older computers (prior to G3). They can be solved in most
cases by simply using a different slot, or by exchanging slots with other PCI cards (like SCSI
controllers or graphics cards).
17. Software and Hardware Compatibility
Hammerfall DSP is fully compatible with PCI bus version 2.1.
The Hammerfall series is compatible to all major ASIO applications, like Cubase VST, emagic
Logic, Opcode Studio Vision PRO, Prosoniq SonicWORX, TC SPARK, Peak from Bias, Motu
Digital Performer, Max/MSP from Cycling '74 and Super Collider.
As far as we are aware, the Hammerfall DSP digital inputs and outputs are fully compatible
with all devices with SPDIF or AES/EBU interfaces.
RME offers several optional components, further increasing the flexibility and usability of the
HDSP system. Additionally parts of the HDSP system, like the special CardBus cable and the
switching power supply, are available seperately.
Part Number Description
36000 19“, 1UH Universal rack holder
This 19" rack holder has holes for Digiface and Multiface. Two units can be installed side by
side in any combination. The rack holder also includes holes for nearly all 19" half-rack units
from other manufacturers.
36001 Firewire cable IEE1394 6M/6M, 1 m (3.3 ft)
36002 Firewire cable IEE1394 6M/6M, 3 m (9.9 ft)
36005 Firewire cable IEE1394 6M/6M, 5 m (16.4 ft)
36010 Firewire cable IEE1394 6M/6M, 10 m (32.8 ft)
Firewire cable for the HDSP system, both sides 6-pin male. Cable longer than 16 ft is not
allowed for Firewire, therfore hard to get in computer shops. However the HDSP system can
operates flawlessly even with a cable length of up to 50ft (15 m).
36081 RME Firewire cable for CardBus 15/6M, 5 m (16.4 ft)
Special cable 15-pin close Lan coded to 6-pin male, for RME CardBus card.
36003 Optical cable, Toslink, 0.5 m (1.5 ft)
36004 Optical cable, Toslink, 1 m (3.3 ft)
36006 Optical cable, Toslink, 2 m (6.6 ft)
36007 Optical cable, Toslink, 3 m (9.9 ft)
36008 Optical cable, Toslink, 5 m (16.4 ft)
36009 Optical cable, Toslink, 10 m (32.8 ft)
Standard lightpipe with TOSLINK connectors, RME approved quality.
36011 RME FW Repeater for Digiface/Multiface 6F/6F
Active receiver/transmitter to extend the cable length of the HDSP system. Can not be used as
Firewire repeater! Using two Repeaters and 10 m Firewire cables, up to 30 m (100 ft) can be
realized between interface and I/O box. Switchable ground lift is also available, to avoid ground
loops and disturbances due to different power sources.
37011 Power supply for HDSP CardBus card
Robust and light weigth switching power supply, 100V-240V AC, 12V 1.25 A DC. Also
neccessary when operating the Repeater in ground lift mode, cause Digiface and Multiface will
no longer be powered from the computer (the PCI interface).
Not all information to and around our products fit in a manual. Therefore RME offers a lot more
and detailed information in the Tech Infos. The very latest Tech Infos can be found on our
website, section News & Infos, or the directory \rmeaudio.web\techinfo on the RME Driver
CD. These are some of the currently available Tech Infos:
Synchronization II (DIGI96 series)
Digital audio synchronization - technical background and pitfalls.
Installation problems
Problem descriptions and solutions.
Information on driver updates
Lists all changes in the drivers.
Configuring Logic, Samplitude and Cubase for the DIGI32/96 series
Configuring Cakewalk and SAWPlus32 for the DIGI32/96 series
Step by step instructions.
DIGICheck: Analysis, tests and measurements with the DIGI96 series
A description of DIGICheck, including technical basics.
ADI-8 Inside
Technical information about the RME ADI-8 (24-bit AD/DA converter).
HDSP System: Notebook Basics - Notebook Hardware
HDSP System: Notebook Basics - The Audio Notebook in Practice
HDSP System: Notebook Basics - Background Knowledge and Tuning
HDSP System: Notebook Tests - Compatibility and Performance
Many background information on laptops. Tests of notebooks
HDSP System: TotalMix - Hardware and Technology
HDSP System: TotalMix - Software, features, operation
The digital mixer of the Hammerfall DSP in theory and practise
Each individual Hammerfall DSP undergoes comprehensive quality control and a complete test
in a PC environment at RME before shipping. This may cause very slight signs of wear (if it
looks like it was used one time before - it was). The usage of high grade components allows us
to offer a full two year warranty. We accept a copy of the sales receipt as valid warranty
legitimation.
RME’s replacement service within this period is handled by the retailer. If you suspect that your
card is faulty, please contact your local retailer. The warranty does not cover damage caused
by improper installation or maltreatment - replacement or repair in such cases can only be
carried out at the owner’s expense.
RME does not accept claims for damages of any kind, especially consequential damage.
Liability is limited to the value of the Hammerfall DSP. The general terms of business drawn up
by Synthax OHG apply at all times.
21. Appendix
RME news, driver updates and further product information are available on our website:
http://www.rme-audio.com
If you prefer to read the information off-line, you can load a complete copy of the RME website
from the RME Driver CD (in the \rmeaudio.web directory) into your browser.
Trademarks
All trademarks, registered or otherwise, are the property of their respective owners. RME,
DIGI96, SyncAlign, SyncCheck, ZLM and Hammerfall are registered trademarks of RME
Intelligent Audio Solutions. DIGICheck, , TotalMix and TMS are trademarks of RME Intelligent
Audio Solutions. Alesis and ADAT are registered trademarks of Alesis Corp. ADAT optical is a
trademark of Alesis Corp. Microsoft, Windows, Windows 98/2000/XP are registered trademarks
or trademarks of Microsoft Corp. Apple and MacOS are registered trademarks of Apple
Computer Inc. Steinberg, Cubase and VST are registered trademarks of Steinberg Media
Technologies AG. ASIO is a trademark of Steinberg Media Technologies AG. emagic and
Logic Audio are registered trademarks of emagic Soft- und Hardware GmbH. Pentium is a
registered trademark of Intel Corp.
Copyright Matthias Carstens, 3/2002. Version 1.4
Current driver version: 2.10
Although the contents of this User’s Guide have been thoroughly checked for errors, RME can not guarantee that it is correct
throughout. RME does not accept responsibility for any misleading or incorrect information within this guide. Lending or
copying any part of the guide or the RME Driver CD, or any commercial exploitation of these media without express written
permission from RME Intelligent Audio Solutions is prohibited. RME reserves the right to change specifications at any time
without notice.
This diagram shows the signal paths in ASIO double speed mode (88.2 / 96 kHz). The devices
available under ASIO have been implemented according to the hardware. Signal routing is
identical for record and playback.
Device: The device name in the audio application SR: Sample Rate
Device name code: Channel in ASIO host, ADAT interface, Digiface, card number
This diagram shows the signal flow inside the TotalMix mixer of the Digiface. It shall clarify the
following function:
• The input signal of the hardware (ADAT/SPDIF In) is always directly fed through to the
recording software. At the same time it can be routed to all 28 hardware outputs (ADAT/
SPDIF/ Analog), even to all of them simultaneously.
This device has been tested and found to comply with the EN55022 class B and EN50082-1
norms for digital devices, according to the European Council directive on counterpart laws in
the member states relating to electromagnetic compatibility (EMVG).
FCC
This device has been tested and found to comply with the requirements listed in FCC
Regulations, part 15 for Class ‘B’ digital devices. Compliance with these requirements provides
a reasonable level of assurance that your use of this product in a residential environment will
not result in harmful interference with other electronic devices.
This equipment generates radio frequencies and, if not installed and used according to the
instructions in the User’s Guide may cause interference harmful to the operation of other
electronic devices.
Compliance with FCC regulations does not guarantee that interference will not occur in all
installations. If this product is found to be the source of interference, which can be determined
by turning the unit off and on again, please try to eliminate the problem by using one of the
following measures:
• Relocate either this product or the device that is being affected by the interference
• Use power outlets on different branch circuits, or install AC line filters
• Contact your local retailer or any qualified radio and television engineer
When connecting external devices to this product, compliance to limits for a Class ‘B’ device
requires the use of shielded cables.
FCC compliance statement: Tested to comply with FCC standards for home or office use.