Operating temperature:0° C to +45° C
Nonoperating temp:< –40° C or > +75° C
Humidity:to 95% at 35°C
Operating altitude:to 4600 m (15,000 ft)
Nonoperating altitude:to 6300 m (25,000 ft)
Shock:30 g 11 msec half-sine
on each of 6 sides
Vibration:10 – 55 Hz (0.010 m
peak-to-peak excursion)
Introduction
The Meyer PSW-4 self-powered subwoofer contains
independent amplifier and control electronics for one
low (15”) and one sub (18”) frequency driver in a
trapezoidal enclosure. The acoustical crossover point is
60 Hz, which allows each driver to function in its
most efficient frequency range. The PSW-4 is phasecorrected through the crossover to produce exceptional
system impulse response.
The PSW-4 has the following acoustical specifications:
Frequency Response±4 dB 32 – 160 Hz
Phase Response±90° 45 – 110 Hz
Dynamic Range> 110 dB
The PSW-4 is compatible with the Meyer CQ™ Series,
MSL-4, and MTS-4 self-powered speakers, and can be
used in any system requiring additional low frequency
power . The PSW-4’s integrated design impr oves performance, durability, and reliability, eliminates amplifier
racks, and simplifies setup and installation.
The PSW-4’s trapezoidal shape facilitates the cr eation of
speaker arrays that maximize the coverage area for the
size of the array . Rigging har dware is provided to safely
suspend the PSW-4 in elevated installations.
The PSW-4 can be equipped to operate with the RemoteMonitoring System (RMS) network and software
application. RMS displays signal and power levels,
driver and cooling fan status, limiter activity, and
amplifier temperature for all speakers in the network
on a Windows-based PC. Contact Meyer Sound for
more information about RMS.
The PSW-4 can withstand continuous voltages up to
275 V and allows any combination of voltage to GND
(i.e. Neutral-Hot-GND, Hot-Hot-GND). Continuous
voltages higher than 275 V may damage the unit.
The PSW-4 uses a NEMA L6-20P or IEC 309 male power
inlet and satisfies UL, CSA, and EC safety standards.
Voltage Requirements
The PSW-4 operates safely and without audio discontinuity if the AC voltage stays within either of two operating
windows: 85–134 V or 165–264 V, at 50 or 60 Hz. After
applying AC power, the proper operating voltage is
automatically selected, but the system is muted. During
the next three seconds, the primary fan turns on, the
main power supply slowly ramps on, the green Active
LED on the user panel illuminates, and the system is
enabled to pass audio signals.
TROUBLESHOOTING NOTE: If the Active LED does
not illuminate or the system does not respond to audio
input after ten seconds, remove AC power. Electronics
technicians with access to a test bench can contact
Meyer Sound to receive
Series MP-2 and MP-4 Field Verification Procedure
(part # 17.022.066.01). This service document contains
a series of tests to verify that the power supply and
amplifier are functioning properly. Other users should
contact Meyer Sound or an authorized service center.
If the voltage decreases below the lower bound of either
operating range (brown-out), the supply uses stored
energy to continue functioning briefly. The unit turns
off if the voltage does not increase above the threshold
before the storage circuits are depleted. The time that
the PSW-4 continues to operate during brown-out
depends on how low the voltage drops and the audio
source level during this period.
The Meyer Sound Self-Powered
AC Power
When AC power is applied to the PSW -4, the Intelligent
AC™ supply automatically selects the correct operating
voltage, allowing the PSW-4 to be used internationally
without manually setting voltage switches. The Intelligent
AC supply performs the following protective functions
to compensate for hostile conditions on the AC mains:
• suppresses high voltage transients up to several
kilovolts
• filters common mode and deference mode radio
frequencies (EMI)
• sustains operation during low voltage periods
• provides soft-start power-up, which eliminates
high inrush current
If the voltage fluctuates within either operating range,
automatic tap selection stabilizes the internal operating
voltage. This tap selection is instantaneous and there
are no audible artifacts. If the voltage increases above
the upper bound of either range, the power supply
turns off rapidly, preventing damage to the unit.
If the PSW-4 shuts down due to either low or high
voltage, the power supply automatically turns on after
three seconds if the voltage has returned to either normal
operating range. If the PSW-4 does not turn back on
after ten seconds, remove AC power and refer to the
TROUBLESHOOTING NOTE
NOTE: We recommend that the supply be operated at
least a few volts away from the upper and lower bounds
of the operating windows to avoid brown-out and
possible shut-down.
above.
3
Current Requirements
Safety Issues
The PSW-4 presents a dynamic load to the AC mains
which causes the amount of current to fluctuate between
quiet and loud operating levels. Since different types of
cables and circuit breakers heat up (and trip) at varying
rates, it is essential to understand the types of current
ratings and how they correspond to circuit breaker
and cable specifications.
The maximum continuous RMS current is the maximum
RMS current over a duration of at least 10 seconds. It is
used to calculate the temperature increase in cables,
which is used to select cables that conform to electrical
code standards. It is also used to select the rating for
slow-reacting thermal breakers.
The maximum burst RMS current is the maximum RMS
current over a one second duration. It is used to select
the rating for most magnetic breakers.
The maximum instantaneous peak current during burst
is used to select the rating for fast-reacting magnetic
breakers and to calculate the peak voltage drop in long
AC cables according to the formula
Vpk
= Ipk x Rtotal cable
drop
Use the table below as a guide to select cables and circuit
breakers with appropriate ratings for your operating voltage.
Pay close attention to these important electrical and
safety issues.
Use a power cord adapter to drive the PSW-4
from a standard 3-prong outlet (NEMA 5-15R;
125 V max).
earth
ground
chassis
ground
The PSW-4 requires a grounded outlet. Always
use a grounding adapter when connecting to
ungrounded outlets.
Do not use a ground-lifting adapter or cut the
AC cable ground pin.
sgnitaRtnerruC4-WSP
V511V032V001
SMRsuounitnoC.xaM
SMRtsruB.xaM
A8
A51
tsruBgniruDkaeP.xaM
A22
A4
SMR
A8
SMR
A11
KAEP
A01
SMR
SMR
KAEP
SMR
A81
SMR
A52
KAEP
The minimum electrical service amperage required by a
system of Meyer speakers is the sum of their maximumcontinuous RMS currents. We recommend allowing an
additional 30% above the minimum amperage to prevent
peak voltage drops at the service entry.
TROUBLESHOOTING NOTE: In the unlikely case that
the circuit breakers trip (the white center buttons pop
out), do not reset the breakers! Contact Meyer Sound for
repair information.
Keep all liquids away from the PSW-4 to avoid hazards
from electrical shock.
Do not operate the unit if the power cables are frayed or
broken.
Tie-wrap anchors on the amplifier chassis provide strain
relief for the power and signal cables. Insert the plastic
tie-wraps through the anchors and wrap them around
the cables.
4
Power Connector Wiring Conventions
Use the following AC cable wiring diagram to create
international or special-purpose power connectors:
blue =
neutral
yellow/green =
earth ground
(chassis)
AC cable color code
If the colors referred to in the diagram don't correspond
to the terminals in your plug, use the following guidelines:
• Connect the blue wire to the terminal marked
with an N or colored black.
• Connect the brown wire to the terminal marked
with an L or colored red.
• Connect the green and yellow wire to the terminal
marked with an E (or ) or colored green (or
green and yellow).
brown = hot
Audio Input
The PSW-4 pr esents a 10 kΩ balanced input impedance
to a three-pin XLR connector wired with the following
convention:
Pin 1 — 220 kΩ to chassis and earth ground (ESD clamped)
Pin 2 — Signal
Pin 3 — Signal
Case — Earth (AC) ground and chassis
Shorting an input connector pin to the case can
form a ground loop and cause hum.
Differential Inputs
A single sour ce can drive multiple PSW -4s with a paralleled input loop, creating an unbuffered har dwired loop
connection. Make certain that the source equipment can
drive the total load impedance presented by the paralleled
input circuit. For example, since the input impedance of
a single PSW-4 is 10 kΩ, cascading 20 PSW-4s produces
a balanced input impedance of 500 Ω. If a 150 Ω source is
used, the 500 Ω load results in a 2.28 dB loss.
Amplification and Protection
Circuitry
Each driver in the PSW-4 is power ed by one channel
of the Meyer MP-2, a 1240 W amplifier (620 W/channel)
utilizing complementary power MOSFET output stages
(class AB/H). The following sections discuss the MP-2’s
limiting circuitry and the two-fan cooling system.
TruPower™ Limiting System
Conventional limiters assume that the resistance of a
speaker remains constant and set the limiting threshold
by measuring voltage only. This method is inaccurate
because the speaker’s resistance changes in r esponse to
the frequency content of the source material and thermal
variations in the speaker’s voice coil and magnet.
Conventional limiters begin limiting prematurely , which
under-utilizes system headroom and deprives the speaker
of its full dynamic range.
The T ruPower limiting (TPL) system accounts for varying
speaker impedance by measuring current, in addition to
voltage, to compute the power dissipation and voice coil
temperature. TPL improves performance before and
during limiting by allowing the speaker to produce its
maximum SPL across its entire frequency range. TPL
also extends the lifetime of the drivers by controlling the
temperature of the voice coil.
Pins 2 and 3 carry the input as a differential signal; their
polarity can be reversed with the input polarity switch
on the user panel. If the switch is in the up position,
pin 2 is hot relative to pin 3, resulting in a positive
pressure wave when a positive signal is applied to pin 2.
Use standard audio cables with XLR connectors for
balanced signal sources.
TROUBLESHOOTING NOTE: If abnormal noise (hum,
hiss, popping) is produced from the loudspeaker, disconnect the audio source from the speaker. If the noise
stops, then the problem is not within the loudspeaker;
check the audio input and AC power.
LEDs on the user panel labeled Lo Limit and Sub Limit
indicate TPL activity for the low and sub amplifier
channels. When either channel exceeds the safe continuous
power level, the limiter for that channel engages, and
ceases when the power level returns to normal. The
limiters for each channel function independently and
do not affect the signal when the LEDs are inactive.
5
The PSW-4 performs within its acoustical specifications
and operates at a normal temperature if the limit LEDs
are on for no longer than two seconds, and off for at least
one second. If either LED remains on for longer than
three seconds, that channel is hard limiting with these
negative consequences:
• Increasing the input level will not increase the
volume.
• The system distorts due to clipping and nonlinear
driver operation.
• Unequal limiting between the low and sub
channels alters the frequency response.
• The driver and amplifier life-span is reduced
because they are subjected to excessive heat.
The TPL LED can indicate an imbalance in a system of
speakers by functioning like a spectrum analyzer. If
speakers in a subwoofer , mid-bass, or mid-hi subsystem
begin to limit before reaching the required operating
level for the entire system, then that subsystem needs to
be supplemented with additional speakers.
A foam insert filter, in combination with the entire front
grill surface, acts as an air filter for the cooling system.
Despite the filtering, extensive use or a dusty operating
environment can allow dust to accumulate along the
path of the airflow, preventing normal cooling. We
recommend periodically removing the grill, filter, and
amplifier module and using a vacuum cleaner to clear
dust from the grill, filter , fans, and heatsinks. Make sure
that the air ducts are clear and that there is at least six
inches clearance for exhaust behind the cabinet.
A variable-speed primary fan runs continuously with an
inaudible operating noise of 22 dBA at 1 m at its slowest
speed. The speed of the primary fan begins increasing
when the temperature of the heatsinks reaches 42°C.
The fan reaches full speed at 62°C and is barely audible
near the cabinet, even without an audio signal.
In the unusual event that the heatsink temperature reaches
74°C, the secondary fan turns on; it turns off when the
temperature decreases to 68°C. The secondary fan is
audible at close proximity without an audio signal and
turns on in response to
NOTE: Although the TPL limiters exhibit smooth sonic
characteristics, we do not recommend using them for
intentional compression effects. Use an outboard
compressor/limiter to compress a mixed signal.
Fans and Cooling System
The PSW-4 uses a forced-air cooling system with two
fans to prevent the amplifiers from overheating. The
fans draw air in through ducts on the front of the cabinet,
over the heatsinks, and out the rear of the cabinet. Since
dust does not accumulate in the amplifier circuitry, its
life-span is increased significantly.
cooling fans
air
intake
heatsinks
air
intake
power
supply
• primary fan failure (check its status immediately);
• accumulation of dust in the cooling system path;
• a prolonged period of high source levels in hot
temperatures or direct sunlight;
• driver failure.
TROUBLESHOOTING NOTE: In the highly unlikely event
that the secondary fan does not keep the temperature
below 85°C, the PSW-4 automatically shuts down until
AC power is removed and reapplied. If the PSW-4 shuts
down again after cooling and reapplying AC power,
contact Meyer Sound for repair information.
6
Rigging
The PSW-4 weighs 177 lb (80.3 kg). The maximum recommended load for a single cabinet with aircraft pan
fittings is 600 lb (273kg). This working load is based on a
5:1 safety factor. The PSW-4 has six rigging brackets
(three on top and bottom). Each bracket is capable of
supporting the full working load of the cabinet.
There are four types of interchangeable rigging brackets,
each fastened by six Phillips screws:
• aircraft pan fittings (ring and stud)
•3/8”-16 nut plates
• M-10 x 1.5 metric nut plates
• blank plates (if no rigging brackets are requested)
NOTE: Units with nut plates are rated for the weight of
one cabinet only.
Configuration, Placement,
and Polarity
Designing a full-range system requires an understanding
of how subwoofers respond when grouped together,
how they interact with nearby walls and floors, and how
their location in a system affects the choice of polarity to use
for other speakers. These topics are introduced as background for the section
Configuration
A single subwoofer has an essentially omnidirectional
coverage pattern. A horizontal line with two adjacent
subs narrows the horizontal coverage area, without
changing the vertical coverage, compared to one sub. A
vertical stack of two subs narrows the vertical coverage
without changing the horizontal coverage. In both cases,
there is 3 to 6 dB SPL of on-axis addition.
Full-Range Systems
.
rigging brackets
three on top, three on bottom
Handles are for carrying only.
!
Do not use them for rigging!
Rigging load ratings assume a straight tensile pull and
that the cabinet is in new condition with aircraft pan
fittings. If the preceding conditions are not met, or the
rigging is worn or damaged, the load ratings can be
reduced significantly. Inspect the rigging hardware
regularly and replace worn or damaged components
immediately.
The cabinet, exposed electronic circuitry, and drivers can
receive protective treatment that permits safe use in wet
conditions. Additionally, a rain hood can be fitted to
shield cables and electronics. Do not install a unit outdoorswithout weather protection! Contact Meyer Sound for more
information.
Increasing the size of the horizontal or vertical array
from two to three subs further narrows the r espective H
or V coverage without changing the corresponding V or
H coverage. Both the vertical and horizontal three-sub
arrays provide approximately 10 dB SPL addition mor e
than one sub.
Increasing the number of subs in the horizontal or vertical
array increases the corresponding H or V directional
control and the system SPL. A pr operly designed vertical
array steers low frequencies to include balconies and
upper tiers but avoids unnecessary interaction with the
ceiling; a horizontal array focuses low frequencies for
the longer throw distances required by large venues.
The three-by-two array (below left) narrows the H and V
coverages, and produces 10 to 15 dB SPL more than a
single sub. Combining the vertical and horizontal arrays
in an L-configuration (below right) provides more on-axis
SPL and directional contr ol than the three-by-two array.
NOTE: All Meyer Sound products must be used in accordance with local, state, federal, and industry regulations.
It is the owner’s and/or user’s responsibility to evaluate
the reliability of any rigging method for their application.
Rigging should be done only by experienced professionals.
Both the three-by-two group and L-configuration increase
the SPL and directional control.
7
Placement
One of the most important factors governing subwoofer
response is their placement relative to adjacent surfaces.
Subwoofers gain significant power by coupling, or loading,
with nearby floors and walls. Half-space loading describes
a speaker coupling with one surface. Subs placed on
the floor benefit from half-space loading, while flown
subs in free-space (without a nearby wall or ceiling) do
not. In general, subs in half-space generate twice the
SPL (+6 dB) compared to the same number in freespace.
It can be beneficial to fly subwoofers, despite the lack of
half-space loading. Placing subwoofers within a flown
cluster of mid-hi speakers creates a smooth frequency
image because the subs are not separated by the distance
from the cluster to the floor.
Measurement and System
Integration Tools
It is essential that even the most carefully assembled
sound systems be analyzed with precise measurement
tools. W e r ecommend using the Meyer SIM® System IISound Analyzer and CP-10 Parametric Equalizer to
• assist the process of choosing and configuring
speakers;
• measure propagation delays between subsystems
to set the correct polarity and delay times;
• measure and equalize variations in frequency
response caused by the acoustical environment
and the placement and interaction of speakers.
NOTE: SPL values refer to an on-axis measurement
position. The actual SPL addition and narrowing of
coverage varies with frequency and depends on the
distance between cabinets, loading conditions, and room
acoustics.
Polarity
The cabinets in the
close-proximity coplanar orientation, unless otherwise
stated. Separating a mid-hi speaker from a subwoofer
by more than 5 ft may require setting the speakers to
opposite polarities to compensate for the propagation
delay from each speaker to the designated listening or
measurement position.
In a coplanar orientation, externally amplified Meyer
subwoofers require the opposite polarity setting to all
Meyer self-powered speakers.
Full-Range Systems
section are in a
Contact Meyer Sound for assistance with your application.
We recommend using the Meyer LD-1A Line Driver to
integrate different types of Meyer self-powered speakers
into a complete system. The LD-1A has two channels
equipped to control a full-range main system, and six
auxiliary channels for down-fill, front-fill, and delay
systems. The LD-1A maintains signal integrity for long
cable paths and provides the following useful functions:
• The Lo Cut switch activates a high-pass filter
(160 Hz, –12 dB/oct, Q = 0.8) that performs a
crossover function for the Mid-Hi output.
• The DS-2 φ and Sub φ switches (channels 1 and 2
only) toggle the polarity for the DS-2 and Sub
outputs.
• The Mid-Hi, DS-2, and Sub outputs (channels 1
and 2 only) each have their own gain control and
mute switch.
POLARITY NOTE: The polarity for Meyer self-powered
speakers may be reversed using the input polarity switch
on the user panel. The LD-1A also allows polarity reversal
with the
connected to the DS-2 and Sub outputs. When making
polarity decisions in applications that include the LD-1A,
check the state of all polarity switches.
DS-2 φ
and
Sub φ
switches for speakers
8
Full-Range Systems
Meyer Speaker Types
The following Meyer speakers are mentioned in the
example applications.
The Meyer self-powered speakers listed above have a
loop connection to send the input signal to another
speaker . Full-range signals may be applied to all Meyer
self-powered subwoofers because they have built-in
active crossovers that filter mid-hi frequencies.
PSW-4 and MTS-4
Combining the PSW-4 with the MTS-4 doubles the low
frequency power of the system because both loudspeakers contain the same sub and low drivers. Due to the
summation between the PSW-4 and the MTS-4, the
system frequency response exhibits a rise in the range
30–160 Hz. It is important to emphasize that the speakers
are in phase in this region. This rise can be corrected
using the Meyer CP-10 Parametric Equalizer , if desir ed.
PSW-4, MSL-4, with LD-1A
The PSW-4 performs ef ficiently with the MSL-4 but their
overlap in frequency response causes a rise in the
system frequency response in the range 65–160 Hz. This
rise can be eliminated by activating the Lo Cut filter for
the Mid-Hi output on the LD-1A, if desired.
Although a typical MSL-4 : PSW-4 ratio is 2:1, separate
Sub and Mid-Hi level controls on the LD-1A allow the
ratio to vary while maintaining control of the spectral
balance of the system.
MSL-4
Mid-Hi
LD-1A
Line Driver
Sub
Set the MSL-4 and PSW-4 to the same polarity.
PSW-4
CP-10 EQ
(1 Channel)
Set the MTS-4 and PSW-4 to the same polarity.
input
loop
MTS-4
PSW-4
9
Driver Troubleshooting
The Remote Monitoring System (RMS) is the best method
to query the status of the drivers in a system before and
during the performance. RMS monitors peak power,
peak voltage, and average voltage (VU) for each amplifier
channel, allowing immediate detection and muting for
drivers with open or shorted voice coils, with minimal
disruption to the system. Contact Meyer Sound for more
information about RMS.
In the absence of RMS, several methods can be employed
to obtain information about the state of the drivers.
Troubleshooting with TPL
Driver Polarity in the Same Loudspeaker
Use the following test procedure to verify polarity
between drivers in the same loudspeaker:
1. Place a measurement microphone 3 ft from the
front of the loudspeaker at the midway point
between the two drivers.
2. Connect a signal source to the loudspeaker and
note the frequency response.
This driver is180° out of phase
The TPL LED can indicate serious driver problems, if
interpreted correctly. If one PSW-4 in a system exhibits
substantially more TPL activity than others receiving
the same audio signal, then one or both drivers in that
unit may have a short circuit. This is a potentially
dangerous condition for the electronics; remove AC
power from the PSW-4 immediately.
The TPL circuit does not activate if there is no power
dissipation in the driver, regardless of the input signal
level. Therefore, if all PSW-4s in a system receiving the
same audio signal exhibit TPL activity except one, then
that unit may have an open voice coil; disconnect it and
contact Meyer Sound for repair information.
Driver Replacement
To determine whether a driver is functioning properly,
or replace a damaged driver, contact Meyer Sound to
obtain the
Procedure for Self-Powered Series Products
17.010.120.01).
Low Driver Inspection and Evaluation
(part #
Verifying Driver Polarity
Incorrect driver polarity impairs system performance
and may damage the drivers. All Meyer loudspeakers
are shipped with the drivers in correct alignment. However, if the driver or circuit wiring has been removed or
disassembled in any loudspeaker in a system for any
reason, it is essential to check the polarity between
drivers in the same cabinet and between adjacent loudspeakers.
Drivers with correct
polarity cause acoustic
addition
The polarity is correct if the frequency response is
±4 dB 35 – 1 20 H z. Cancellation greater than 6 dB in
the same range indicates polarity reversal.
Drivers with reverse
polarity cause acoustic
cancellation
Polarity Between Adjacent Loudspeakers
Use the following test procedure to verify the polarity
between adjacent loudspeakers of the same type:
1. Position two loudspeakers adjacent to each other.
2. Place a measurement microphone 3 ft from the
speakers on the axis between them.
3. Connect a signal source to one speaker and note the
frequency response and overall level.
4. Apply the same signal to the second speaker with
the first speaker still connected.
The polarity is correct if the frequency response remains
constant with a significant increase in amplitude. Broadband cancellation (decreased overall level) indicates
polarity reversal.
NOTE: Checking the polarity of more than two adjacent
cabinets in one test may damage the drivers in the
cabinet with reversed polarity.
NOTE: Since polarity reversal causes excessive driver
excursion at high source levels, use moderate levels for
these tests.
10
Safety Summary
!
EnglishFrançais
• To reduce the risk of electric shock, disconnect the loudspeaker from the AC mains before installing audio cable.
Reconnect the power cord only after making all signal
connections.
• Connect the loudspeaker to a two-pole, three wire grounding mains receptacle. The receptacle must be connected to
a fuse or circuit breaker. Connection to any other type of
receptacle poses a shock hazard and may violate local
electrical codes.
• Do not install the loudspeaker in wet or humid locations
without using weather protection equipment from Meyer
Sound.
• Do not allow water or any foreign object to get inside the
loudspeaker. Do not put objects containing liquid on, or
near, the unit.
• To reduce the risk of overheating the loudspeaker, avoid
exposing it to direct sunlight. Do not install the unit near
heat emitting appliances, such as a room heater or stove.
• This loudspeaker contains potentially hazardous voltages. Do not attempt to disassemble the unit. The unit
contains no user serviceable parts. Repairs should be
performed only by factory trained service personnel.
• Pour réduire le risque d’électrocution, débrancher la
prise principale de l’haut-parleur, avant d’installer le
câble d’interface allant à l’audio. Ne rebrancher le bloc
d’alimentation qu’après avoir effectué toutes les connections.
• Branchez l’haut-parleur dans une prise de courant à 3
dérivations (deux pôles et la terre). Cette prise doit être
munie d’une protection adéquate (fusible ou coupe-circuit).
Le branchement dans tout autre genre de prise pourrait
entraîner un risque d’électrocution et peut constituer une
infraction à la réglementation locale concernant les
installations électriques.
• Ne pas installer l’haut-parleur dans un endroit où il y a de
l’eau ou une humidité excessive.
• Ne pas laisser de l’eau ou tout objet pénétrer dans l’hautparleur. Ne pas placer de r´cipients contenant un liquide
sur cet appareil, ni à proximité de celui-ci.
• Pour éviter une surchauffe de l’haut-parleur, conserver-la
à l’abri du soleil. Ne pas installer à proximité d’appareils
dégageant de la chaleur tels que radiateurs ou appareils
de chauffage.
• Ce haut-parleur contient des circuits haute tension
présentant un danger. Ne jamais essayer de le démonter.
Il n’y a aucun composant qui puisse être réparé par
l’utilisateur. Toutes les réparations doivent être effectuées
par du personnel qualifié et agréé par le constructeur.
DeutschEspañol
• Um die Gefahr eines elektrischen Schlages auf ein Minimum
zu reduzieren, den Lautsprecher vom Stromnetz trennen,
bevor ggf. ein Audio-Schnittstellensignalkabel
angeschlossen wird. Das Netzkabel erst nach Herstellung
aller Signalverbindungen wieder einstecken.
• Der Lautsprecher an eine geerdete zweipolige DreiphasenNetzsteckdose anschließen. Die Steckdose muß mit einem
geeigneten Abzweigschutz (Sicherung oder
Leistungsschalter) verbunden sein. Der Anschluß der
unterbrechungsfreien Stromversorgung an einen anderen
Steckdosentyp kann zu Stromschlägen führen und gegen
die örtlichen Vorschriften verstoßen.
• Der Lautsprecher nicht an einem Ort aufstellen, an dem
sie mit Wasser oder übermäßig hoher Luftfeuchtigkeit in
Berührung kommen könnte.
• Darauf achten, daß weder Wasser noch Fremdkörper in
das Innere den Lautsprecher eindringen. Keine Objekte,
die Flüssigkeit enthalten, auf oder neben die
unterbrechungsfreie Stromversorgung stellen.
• Um ein Überhitzen dem Lautsprecher zu verhindern, das
Gerät vor direkter Sonneneinstrahlung fernhalten und
nicht in der Nähe von wärmeabstrahlenden
Haushaltsgeräten (z.B. Heizgerät oder Herd) aufstellen.
• Im Inneren diesem Lautsprecher herrschen potentiell
gefährliche Spannungen. Nicht versuchen, das Gerät zu
öffnen. Es enthält keine vom Benutzer reparierbaren Teile.
Reparaturen dürfen nur von ausgebildetem
Kundenienstpersonal durchgeführt werden.
• Para reducir el riesgo de descarga eléctrica, desconecte de
la red el altoparlante antes de instalar el cable de
señalización de interfaz de la segnale. Vuelva a conectar el
conductor flexible de alimentación solamente una vez
efectuadas todas las interconexiones de señalizatción.
• Conecte el altoparlante a un tomacorriente bipolar y trifilar
con neutro de puesta a tierra. El tomacorriente debe estar
conectado a la protección de derivación apropiada (ya sea
un fusible o un disyuntor). La conexión a cualquier otro
tipo de tomacorriente puede constituir peligro de descarga
eléctrica y violar los códigos eléctricos locales.
• No instale el altoparlante en lugares donde haya agua o
humedad excesiva.
• No deje que en el altoparlante entre agua ni ningún objeto
extraño. No ponga objetos con líquidos encima de la
unidad ni cerca de ella.
• Para reducir el riesgo de sobrecalentamiento, no exponga
la unidad a los rayos directos del sol ni la instale cerca de
artefactos que emiten calor, como estufas o cocinas.
• Este altoparlante contiene niveles de voltaje peligrosos en
potencia. No intente desarmar la unidad, pues no contiene
piezas que puedan ser repardas por el usuario. Las
reparaciones deben efectuarse únicamente por parte del
personal de mantenimiento capacitado en la fábrica.
11
OA
TT
N
a
q
e
Mains circuit
breakers
Low Limit (red)
Sub Limit (red)
Power LED (green/red)
Input polarity switch
Signal input and
loop connectors
Remote Monitoring
System panel
(if RMS is installed)
10K
Ω
Balanced
ESD
Controls and Connectors
S
H
U
PUSH
P
R
T
E
I
-
-
C
K
I
R
S
H
U
P
R
T
E
I
-
-
C
K
I
R
2
1
1
3
3
Input
Loop
Service
Wink
Remote Monitoring System
Reset
Activity
Network
PSW-4
LO Limit
SUB Limit
Active / Speaker Fault
Input Polarity
2 +
3 +
1
220K
Ω
2
Case
Earth / Chassis
Rear User Panel shown with the optional
Remote Monitoring System (RMS) panel
!
WARNINGS:
THIS PRODUCT MUST BE GROUNDED
This surface may reach high temperatures while in use.
To ensure proper operation, allow at least 6 inches
clearance from this surface and adequate ventilation.
To reduce the risk of electric shock do not remove cover.
No operator serviceable parts inside.
Refer servicing to qualified personnel.
To reduce the risk of fire or electric shock
do not expose this appliance to rain or moisture.
ATENCIÓN
:
ACCESO INTERNO SOLO
AUTORIZADO A PERSONAL TÉCNICO CALIFICADO
ACHTUNG
:
GEHÄUSE NICHT ÖFFNEN WARTUNG
UND REPARATUR NUR DURCH ELEKTROFACHKRÄFTE
ATTENTION
:
ENTRETIEN ET REPARATIONS
INTERNES NE SONT AUTORISEES QU'AU
PERSONNEL TECHNIQUE QUALIFIÉ
UK WARNING
:
THIS APPARATUS MUST BE EARTHED.
NO OPERATOR SERVICEABLE PARTS INSIDE.
REFER SERVICING TO QUALIFIED PERSONNEL
Auto-Voltage Select
95-125V
~
208-235V
50-60Hz
1400W RMS MAX
Meyer Sound, Berkeley, CA. USA
~
50-60Hz
1400W RMS MAX
Mains AC inlet
Tie-wrap anchor
THIS PRODUCT MUST BE GROUNDED
S
H
U
P
R
T
E
I
-
-
C
K
I
R
S
H
U
P
R
T
E
I
-
-
C
K
I
R
Input Polarity
Pin
2 +
3 +
PUSH
1
Earth / Chassis
Earth / Chassis
2
1
2
1
3
3
LISTED
UU
UU
LL
LL
®®
3K59
CC
COMMERCIAL
AUDIO SYSTEM
Input
Loop
Made by:Meyer Sound,Berkeley,Ca. U.S.A.
European Office:
Meyer Sound Europe
14, Long Barn Lane,
Reading, Berkshire,
England RG2 7SZ
European User Panel with
IEC 309 connector
!
WARNINGS:
This surface may reach high temper
To ensure proper operation, allow a
clearance from this surface and ade
To reduce the risk of electric shoc
No operator serviceable parts insid
qualified personnel.
To reduce the risk of fire or electric
this appliance to rain or moisture.
ATENCIÓN: ACCESO INTERN
A PERSONAL TÉCNICO CALIFIC
ACHTUNG: GEHÄUSE NICH
WARTUNG UND REPARATUR
ELEKTROFACHKRÄFTE
ATTENTION: ENTRETIEN E
INTERNES NE SONT AUTORISEE
TECHNIQUE QUALIFIÉ
UK WARNING:THIS APPARA
NO OPERATOR SERVICEABLE PAR
SERVICING TO QUALIFIED PERSON
Auto-Voltage Sel
8A RMS
20A Peak
~
95-125
50-60Hz
700W RMS MAX
Meyer Sound,
39.25"
12
Dimensions
All units in inches
FrontSideTop
21.25
19.25"
5.50"
30.00"
16.00"
10.63"
21.25"
13.16"
7.5°
Contact Information
Meyer Sound Laboratories, Inc.
2832 San Pablo Avenue
Berkeley, California 94702
Telephone:510 - 486 - 1166
FAX:510 - 486 - 8356
E-mail: techsupport@meyersound.com
http://www.meyersound.com
Meyer Sound Germany
Gmbh
Carl Zeiss Strasse 13
56751 Polch, Germany
Telephone: 49.2654.9600.58
FAX:49.2654.9600.59
21.97"
13.36"
30.26"
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