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| Linear Spatial Reference | |
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| LSR6332 Studio Monitor System | |
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Key Features: |
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Advanced Linear Spatial Reference |
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design ensures flatter response at the |
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mix position. |
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Differential Drive® technology with |
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dynamic braking for extended low |
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frequency response and low power |
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compression. |
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Neodymium midrange with 2" voice |
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coil and Kevlar™ cone material for |
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extended frequency response and |
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low distortion. |
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Titanium composite high frequency |
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transducer with elliptical oblate |
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spheroidal waveguide and damped |
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polepiece. |
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| LSR6332R (Right) shown | ||
resonance and stable inertial ground. |
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Linear Dynamics Aperture port | 252G Low Frequency Transducer | ||
design eliminates port turbulence | |||
and reduces port compression. | The neodymium 12" woofer is based on JBL patented Differential Drive® | ||
Magnetically shielded for use near | technology. With the neodymium structure and dual drive coils, power com- | ||
pression is kept to a minimum to reduce spectral shift as power level increase. | |||
video monitors. | |||
An added third coil between the drive coils acts as a dynamic brake to limit | |||
Reinforced enclosure and convenient | |||
excess excursion and reduce audible distortion at the highest levels. The cone is | |||
mounting points allow mounted | made of a graphite polypropylene composite forming a rigid piston supported | ||
installation. | by a soft butyl rubber surround. | ||
Midrange/high frequency | C500G Midrange Transducer | ||
may be rotated by user for horizontal | |||
or vertical orientation. | The 5" midrange transducer has a 2" neodymium magnetic structure with a | ||
Available as mirror imaged left and | woven Kevlar cone. The powerful motor structure was chosen to support the | ||
low crossover frequency to the woofer. In order to achieve the goal of accurate | |||
right models. (order LSR6332L or | |||
spatial response the crossover points are placed at 250 Hz and 2.2 kHz. These | |||
LSR6332R) | |||
transition points match the directivity characteristics of the three transducers. | |||
The LSR6332 studio monitor is | |||
053TiS High Frequency Transducer | |||
designed for use as a near or | |||
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reference monitor, or a | The high frequency transducer has a composite diaphragm integrated with an | ||
main monitor in applications requiring | |||
exceptional spectral accuracy and high | Elliptical Oblate Spheroidal (EOS) waveguide with wide uniform dispersion, | ||
SPL capability. The LSR6332 combines | which is critical to the smooth spatial response required in today’s working | ||
the latest in JBL’s renowned transducer | environments. The mid and high frequency devices are mounted within mil- | ||
and system technology with psychoa- | limeters of each other on a cast aluminum | ||
coustically derived spatial response cri- | horizontal or vertical placement, giving maximum flexibility in placement to | ||
teria, resulting in a more accurate stu- | reduce console and ceiling splash that interferes with stereo imaging and depth. | ||
dio monitoring reference. In this design |
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process, the system’s frequency |
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response over the forward listening |
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range (±15° vertically and ±30° hori- |
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zontally) is optimized, as opposed to |
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the conventional approach of optimiz- |
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ing the response directly |
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design approach involves careful com- |
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ponent design, selection of crossover |
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frequency, and precise baffle geometry |
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and detail. The result is a system that |
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can be used for the most critical judge- |
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ments of recording balance, image |
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placement, and equalization. |
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