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PLEASE
READ
CAREFULLY
BEFORE
PROCEEDING
GEO Technology is radically new thinking
The GEO R&D Project has, to date, resulted in the following patent applications:
The GEO Hyperboloid Reflective Wavesource™ differs radically from the megaphone-variant type horns
you know and love (or hate). “Tried and true” methods will produce entirely unexpected results. HRW
technology produces precise and predictable results.
The Configurable Directivity Flange. A waveguide that allows the operator to alter its behaviour. An
unprecedented NEXO development that is easy to use
– once you know how and when.
The Phase Directivity Device needs no operator input to function, but it is reassuring to know that the
coupling of the midrange of the system is considered as impo
rtant as the high frequencies…
DSP-driven Directional Sub-bass devices are a new approach to controlling LF/VLF acoustic energy.
GEO is not hard to use when you understand how…
The technology behind GEO is revolutionary, but it is grounded in years of practical experience with the
problems of delivering high quality professional sound to large audiences at high SPL levels. The GEO
toolbox includes NS-1 - a simple yet powerful and highly predictive design tool. The array assembly
system is keyed to the design software and will easily enable you to deploy your design with great
precision. NEXO Digital TDcontroller technology provide driver protection and system optimization for the
GEO M and MSUB series.
GEO is a high precision system
The GEO HRW™ controls acoustic energy more precisely than other multiple element waveguides. It
also makes GEO less forgiving of mistakes. Whilst conventional horns never combine into a coherent
array, they may deliver acceptable results even if the design and deployment of the system is less than
optimal. This is not the case with GEO where careless installation produces catastrophic results.
A GEO Tangent Array is not a “line array”
GEO Technology is equally effective in designing and deploying tangent curved vertical arrays. For best
results in a specific application the user needs to know how multi-speaker arrays interact with audience
geometry, along with the benefits and drawbacks of curved vertical arrays and horizontal arrays.
Curved tangent arrays require different design techniques
In the past, sound reinforcement professionals have worked with horizontal arrays that use conventional
horns to deliver [more or less] ‘equal power to equal
angles
’. Curved vertical arrays are now designed to
deliver [more or less] equal power to equal
areas
’. When arrays use conventional horns, the lack of
precision, overlap and interference masks errors in array design and aiming. The highly precise GEO
wavesource responds accurately, consistently and predictably to the design and deployment of a curved
vertical tangent array. This is why the GEO rigging system is designed to control angular splay to 0.1°
precision.
GEO curved tangent arrays require different operational techniques
Over the years, system designers and operators have developed a number of signal processing
techniques to disguise and partly overcome the limitations of horn design. “Frequency shading,”
“amplitude shading,” “High Frequency compensation”, all of these are tools of the advanced sound system
operator. NONE OF THESE TECHNIQUES ARE APPLICABLE TO GEO TANGENT ARRAYS. Instead
of enhancing the array’s performance they will severely degrade it.
Take time to learn how to get great results with GEO Technology. It is an investment that will pay off in
more satisfied clients, more efficient operating procedures and more recognition for your skill as a sound
system designer and operator. A comprehensive understanding of GEO theory, tangent arrays, and
specific features of the GEO M Series will help you to operate your system at its full potential.
Содержание GEO M10
Страница 11: ...CONNECTION DIAGRAMS Page 11 79 3 3 GEO M10 NXAMP4x1 Bridge Stereo 3 4 MSUB15 NXAMP4x1 Bridge Stereo ...
Страница 12: ...Page 12 79 CONNECTION DIAGRAMS 3 5 MSUB15 GEO M10 NXAMP4x1 Bridge Stereo ...
Страница 13: ...CONNECTION DIAGRAMS Page 13 79 3 6 GEO M10 NXAMP4x4 4 Channels ...
Страница 14: ...Page 14 79 CONNECTION DIAGRAMS 3 7 MSUB15 Omni Mode NXAMP4x4 4 channels ...
Страница 15: ...CONNECTION DIAGRAMS Page 15 79 3 8 MSUB15 Cardio Mode NXAMP4x4 4 channels ...
Страница 16: ...Page 16 79 CONNECTION DIAGRAMS 3 9 MSUB15 GEO M10 NXAMP4x4 4 channels ...
Страница 53: ...GEO M10 HARDWARE SETUP PROCEDURE Page 53 79 6 4 5 MSUB15 and GEO M10 flown with Touring Bumper ...
Страница 66: ...Page 66 79 TECHNICAL SPECIFICATIONS 8 3 3 VNT GSTKM10L Parts X1 Dimensions Weight 9 kg 20 lb ...
Страница 67: ...TECHNICAL SPECIFICATIONS Page 67 79 8 3 4 VNT GSTKM10S Parts X1 Dimensions Weight 6 kg 13 3 lb ...
Страница 68: ...Page 68 79 TECHNICAL SPECIFICATIONS 8 3 5 VNT MNSTKM10 Parts X1 Dimensions Weight 2 2 kg 5 lb ...
Страница 69: ...TECHNICAL SPECIFICATIONS Page 69 79 8 3 6 GMT LBUMPM10 Parts X1 X1 Dimensions Weight 8 kg 18 lb ...
Страница 70: ...Page 70 79 TECHNICAL SPECIFICATIONS 8 3 7 GMT EXBARM10L Parts X1 X2 X2 X1 Dimensions Weight 7 kg 15 5 lb ...
Страница 71: ...TECHNICAL SPECIFICATIONS Page 71 79 8 3 8 GMT FLGM10 Parts X1 Weight 0 3 kg 0 7 lb ...
Страница 72: ...Page 72 79 TECHNICAL SPECIFICATIONS 8 3 9 MST WBMSUB15 Parts X1 Dimensions Weight 6 kg 13 3 lb ...
Страница 73: ...TECHNICAL SPECIFICATIONS Page 73 79 8 3 10 MST COVMSUB15 Parts X1 Weight 2kg 4 4 lb ...
Страница 74: ...Page 74 79 TECHNICAL SPECIFICATIONS 8 3 11 MST 2CASEMSUB15 Parts Dimensions Weight 43 kg 95 lb ...
Страница 75: ...TECHNICAL SPECIFICATIONS Page 75 79 8 3 12 GMT 3CASEM10 Parts Dimensions Weight 40 kg 88 lb ...
Страница 76: ...Page 76 79 TECHNICAL SPECIFICATIONS 8 3 13 GMT 6CASEM10 Parts Dimensions Weight 45 kg 100 lb ...