Southwest Microwave 330 Digital Microwave Field Disturbance Sensor User Manual 330 Technical Manual USA

Download:
Mirror Download [FCC.gov]
Document ID	1706670
Application ID	2PbsexpULH65ZBcMMBZXSQ==
Document Description	Users Manual
Short Term Confidential	No
Permanent Confidential	No
Supercede	No
Document Type	User Manual
Display Format	Adobe Acrobat PDF - pdf
Filesize	57.99kB (724908 bits)
Date Submitted	2012-05-24 00:00:00
Date Available	2012-09-13 00:00:00
Creation Date	2012-05-23 11:19:31
Producing Software	Acrobat Distiller 6.0.1 (Windows)
Document Lastmod	2012-05-23 13:32:12
Document Title	Microsoft Word - 330 Technical Manual - USA.doc
Document Creator	PScript5.dll Version 5.2.2
Document Author:	gusf

Southwest Microwave, Inc.
Security Systems Division
INTREPID™
MicroWave 330
A DIGITAL MICOWAVE
OUTDOOR PERIMETER INTRUSION DETECTION SYSTEM
MicroWave 330 Installation
and Operation Manual
Version 0
Trademark Notice and Certifications
INTREPID™, MicroPoint™ and MicroTrack™ are registered trademarks of Southwest Microwave, Inc.
Copyright 1995 and 2012 Southwest Microwave, Inc. All rights Reserved.
FCC Notice
MicroWave 330 is classified as a field disturbance sensor.
This device complies with FCC Rules Part 15.245. Operation is subject to the following two conditions:
This device may not cause harmful interference and this device must accept interference received, including
interference that may cause undesired operation.
Notice: changes or modifications not expressly approved by Southwest Microwave, Inc. could void the
user’s authority to operate the equipment.
This equipment has been tested and found to comply with the limits for a Class A digital device, pursuant to
part 15 of the FCC Rules. These limits are designed to provide reasonable protection against harmful
interference when the equipment is operated in a commercial environment. This equipment generates, uses,
and can radiate radio frequency energy and, if not installed and used in accordance with the instruction
manual, may cause harmful interference to radio communications. Operation of this equipment in a
residential area is likely to cause harmful interference in which case the user will be required to correct the
interference at his own expense.
RoHS Compliant
Radiation Safety
The allowable standard minimum of safe radiation exposure level in the United States as established by the
American National Standards Institute is 10mW/cm2. There is currently a proposal to drop this limit to
1mW/cm2. The average Southwest Microwave sensor surface radiation level (when in operation) is
approximately.0186mW/cm2 or 1/50 of the proposed lower standard. This level rapidly dissipates at
distances from the unit. For example, at one meter, the figure reduces to .0012mW/cm2 or 1/800 of the
proposed level.
Copyright Southwest Microwave, Inc. May 2012
Southwest Microwave, Inc.
9055 South McKemy Street
Tempe, Arizona 85284-2946
Tel: (480) 783-0201
Fax: (480) 783-0401
Email: infossd@southwestmicrowave.com
Web: www.southwestmicrowave.com
Version 0
INTREPID™ MicroWave 330 Software
Southwest Microwave, Inc. thanks you for your purchase of the INTREPID MicroWave 330 Digital Microwave
Intrusion Link. Please refer to the Universal Installation Service Tool II (UIST II) for the software setup of this
sensor.
One disk is required to setup the system. It is called:
Universal Installation Service Tool II (UIST II)
This software is used to configure and set-up the system as well as being used for maintenance and
troubleshooting the system.
Software provided by Southwest Microwave, Inc. is subject to the license agreement terms of the individual
product. A copy of the license agreement is available by contacting Southwest Microwave, Inc.
Version 0
Table of Contents
1.
2.
Introduction ................................................................................................................................................ 5
Hardware .................................................................................................................................................... 5
2.1 MicroWave 330 Link............................................................................................................................ 5
2.2 Optional Power Supplies ...................................................................................................................... 6
2.3 Oprional Accessories ............................................................................................................................ 6
3. Principles of Operation and Detection ..................................................................................................... 6
3.1 Description............................................................................................................................................ 6
3.2 Range of Operation ............................................................................................................................... 7
3.3 Overlaps ................................................................................................................................................ 8
3.3.1 High Security Overlaps ................................................................................................................... 9
3.4 Transmitter Block Diagram .................................................................................................................. 9
3.5 Receiver Block Diagram..................................................................................................................... 10
3.6 Specifications...................................................................................................................................... 11
4. Installation Instructions .......................................................................................................................... 13
4.1 Location of MicroWave 330 ............................................................................................................... 13
4.1.1 Required Area ................................................................................................................................ 13
4.1.2 Terrain ........................................................................................................................................... 14
4.1.2.1 Terrain in High Security Applications .................................................................................... 14
4.1.3 Physical Protection ........................................................................................................................ 15
4.1.4 Best Security .................................................................................................................................. 15
4.2 Mounting of MicroWave 330 ............................................................................................................. 16
5. Modes of Operation ................................................................................................................................. 18
5.1 Free Running Mode ............................................................................................................................ 18
5.2 Tethered Mode .................................................................................................................................... 19
6. Wiring ....................................................................................................................................................... 20
6.1 Power Supply Wiring ......................................................................................................................... 20
6.2 Communications Wiring..................................................................................................................... 21
6.3 Tethered Wiring .................................................................................................................................. 21
6.4 Synchronized Wiring .......................................................................................................................... 22
6.5 Remote Test ........................................................................................................................................ 23
7. Terminals, Switches and Indicators ....................................................................................................... 24
7.1 MicroWave 330T Transmitter ............................................................................................................ 24
7.1.1 Channel Select Switch ................................................................................................................... 24
7.1.2 External / Internal Modulation Switch .......................................................................................... 24
7.2 MicroWave 330R Receiver ................................................................................................................ 25
7.2.1 Address Switch .............................................................................................................................. 26
7.1.2 Audio Alarm Switch ...................................................................................................................... 26
7.2.3 Communications Ports................................................................................................................... 26
8. Connecting the Transmitter and Receiver............................................................................................. 26
8.1 MicroWave 330T Transmitter Connections ....................................................................................... 26
8.2 MicroWave 330R Receiver Connections ........................................................................................... 27
9. Alignment and Testing ............................................................................................................................ 27
10. Preventive Maintenance .......................................................................................................................... 28
11. Limited Warranty .................................................................................................................................... 29
12. Returning Equipment under Warranty................................................................................................. 29
13. Returning Equipment fro Non-Warranty Repair................................................................................. 30
14. Replacement Parts ................................................................................................................................... 30
Version 0
1.0
Introduction
The MicroWave 330 is part of the INTREPID™ Series II family of products. It is digital microwave field
disturbance sensor providing perimeter protection for open areas, gates, entryway, walls and rooftop
applications. It provides volumetric detection of human intruders with minimal environmental nuisance alarms.
Advanced digital signal processing (DSP) allows continuous monitoring of intrusion alarm and tamper switch
status, received signal strength for path fault and detection parameters. A system controller such as the Relay
Control Module II (RCM II), Control Module II (CM II), Graphic Control Module II (GCM II), Perimeter
Security Manager (PSM) or SDK (Software Development Kit) is required to poll and configure alarm sources
from MicroWave 330 for annunciation.
MicroWave 330 operates at K-band (24.125 GHz) frequency, achieving superior performance to X-band
sensors. Because K-band is 2.5 times higher the X-band, the multipath signal generated by an intruder is more
focused, and detection of slow-moving intruders is correspondingly better. At K-band frequency, the unit also
has low susceptibility to outside interference from air/seaport radar or other microwave systems.
MicroWave 330 communicates with other INTREPID Series II devices using RS422 communications. This
communication can be done over 22 or 24 gauge stranded shielded twisted pair wire (max 5,000 feet [1,500m]
between devices) or with fiber optic devices. The address of each MicroWave 330 is set by a dip switch on the
receiver circuit board.
MicroWave 330 operates from 10.5 to 60 VDC @ 2.5 Watts with a minimum startup current of 250mA. The
operating currents with standard power supplies are: 12 VDC @ 125mA (Tx) / 208mA (Rx), 24 VDC @ 63mA
(Tx) / 104mA (Rx) and 48 VDC @ 32mA (Tx) / 52mA (Rx).
2.0
Hardware
2.1 MicroWave 330 Digital Microwave Link
Each MicroWave 330 Digital Microwave Link includes a MicroWave 330 Transmitter, Microwave 330
Receiver and two MB62 Universal Mounting Brackets as shown in Figure 1.
MicroWave 330 dimensions are 10.6 in diameter (270mm) and 10.125 in (257mm) front to back (from radome
face to mounting bracket). Each unit weighs 4.5 lbs (2.041kg).
Figure 1 – MicroWave 330 Hardware
Version 0
2.2 Optional Power Supplies
12 VDC power supply: Model PS13 Power Supply operates from 85-246VAC, 47-63Hz and furnishes 13.6
VDC at up to 2.8A. Power supplies contain automatic switchover and battery charging circuitry for optional
standby batteries of up to 25AH. Temperature rated from 14° to 122° F (-10° to 50° C). UL, ETS, EMC, CE,
RoHS compliant.
12 VDC power supplies: Model PS40 Power Supply operates from 120 VAC, 50-60Hz, 0.5A and furnishes
13.7 VDC at up to 1.6A. Model PS41 Power Supply operates from 220 VAC, 50-60Hz, 0.25A. Both contain
automatic switchover and battery charging circuitry for optional standby batteries of up to 25AH and are fused
on both input and output for maximum protection. Temperature rated from -40° to 150° F (-40° to 66° C).
24 VDC power supply: Model 78B1064 operates from 120VAC to provide 24VDC at 5A with 6.5AH battery
backup. Includes; indoor enclosure 15 x 11 x 4 in. (381 x 280 x 102mm). Temperature rated from 32° to 122° F
(0° to 50° C).
48 VDC power supplies: Model PS48 operates from 120VAC to provide 48VDC at 3A. Includes; indoor
enclosure 14 x 12 x 4 in. (356 x 305 x 102mm). Model PS49 operates from 220VAC to provide 48VDC at 3A.
This supply does not include enclosure. Temperature rated from 32° to 122° F (0° to 50° C). Temperature rated
from 32° to 122° F (0° to 50° C). UL, CSA, TUV, CE compliant.
2.3 Optional Accessories
MB65 Mounting Bracket: Model MB65 is a heavy duty, position locking non corrosive mounting bracket for a
4 inch (102mm) O.D. post.
RS14 Radome: Model RS14 is a shielded radome used to add additional RFI/EMI protection for Microwave
330 transmitter or receiver.
48C15529-A01 Enhanced Reflector: Model 48C15529-A01 is an optional reflector to provide a shorter “dead
zone” to MicroWave 330 transmitter and receiver. This option reduces maximum range to 400 feet (122m).
02A15483-A01 Radome Latch Kit: Model 02A15483-A01 replaces the 6 radome screws for quicker access to
the sensor electronics. Two kits are required for each MicroWave 330 Digital MicroWave Link.
JB70A: Lightning/Surge Protection module protects the data communications and power lines. Includes;
enclosure with terminal strips for wire connections.
3.0 Principles of Operation and Detection
3.1 Description
The MicroWave 330 Transmitter radiates amplitude modulated K-band energy that travels to the MicroWave
330 Receiver where it is detected. A microprocessor and proprietary algorithms provide powerful Digital Signal
Processing to recognize the unique bi-static digital signatures of intruders walking, jumping, running or crawling
through the detection field. Targets are classified and scored in real time at each sensor and stored in the
receiver’s flash memory. When an intruder approaches the beam the energy at the receiver changes in signal
amplitude directly related to the targets size and density allowing the sensor to discriminate between targets.
MicroWave 330 will alarm on average sized humans walking, running or crawling on hands and knees through
the detection pattern. Field adjustments can provide alarm on larger or smaller targets, depending on the specific
site requirements. Operation of MicroWave 330 is illustrated in Figure 2.
Version 0
Figure 2 – Operation of MicroWave 330 Link
3.2 Range of Operation
A single MicroWave 330 may cover a distance of 800 feet (244m). The receiver is equipped with automatic gain
control (AGC), which automatically adjusts receiver for the distance to be covered and sets the Path Fault
parameter.
Typical maximum width protection pattern of MicroWave 330 is shown in Figure 3 for mounting height of 2.5
feet (.76m) above smooth earth. Maximum width will be when Transmitter-Receiver distance is at
maximum and Receiver “Sensitivity” control is set to maximum
Figure 3 – Typical Maximum Horizontal Pattern
Figure 4 illustrates how pattern width varies with Transmitter-Receiver distance and sensitivity setting. Actual
patterns will vary somewhat with site topography and surface condition. Generally, lower mounting height or
rougher surface will increase pattern width. For example, if the total link distance is 500 feet (152.4m) and the
sensitivity adjustment set to mid-point, Figure 4 indicates the detection pattern width to be 7.5 feet (2.3m).
Figure 4 – Typical Maximum Horizontal Pattern
Version 0
25
(7.6m)
20
(6m)
MAX.
15
(4.5m)
10
(3m)
MIN.
SENSITIVITY
NOMINAL BEAM HEIGHT - FEET
Vertical protection pattern will also depend upon Transmitter-Receiver distance, mounting height and
“Sensitivity” setting. Actual patterns will vary somewhat with site topography and surface condition. Typical
pattern height is 50 to 75% of pattern width. Approximate vertical protection pattern is shown in Figure 5. For
example, at 50 feet (15m) with minimum sensitivity the pattern height is 5 feet (1.5m).
(1.5m)
100 150 200
250
300
50
350
400
(15m) (30m) (45m) (60m) (76m) (90m) (107m) (121m)
DISTANCE - FEET
Figure 5 – Typical Vertical Pattern
3.3 Overlaps
Protection pattern below centerline will tend to fill area between beam centerline and ground except for a “dead
zone” immediately in front of and below Transmitter and Receiver. This zone is best protected by overlapping
links at ends and corners as shown in Figures 6.
Figure 6 – Overlaps and Dead Zone
Corner overlaps should be 30 feet (9.2m) minimum. Intermediate or in line overlaps should be 60 feet (18.3m)
minimum with a beam centerline offset of 18 to 20 inches (46-51cm). Basket weave overlaps should be 60 feet
(18.3m) minimum and a minimum of 5 feet (1.5m) off the fence (except for corners).
Version 0
DEAD ZONE - FEET
Figure 7 shows amount of overlap required to detect against hands and knees crawling intruders, as a function of
“Sensitivity” setting. It is always recommended to keep the sensitivity setting at the lowest possible value to
minimize nuisance alarms but maintaining a high probability of detection.
Figure 7 – Sensitivity vs Dead Zone
3.3.1
High Security Overlaps
For maximum-security applications where detection of prone “commando style” crawl is required, the
intermediate over-lap should be 60 feet (18.3m) minimum with parallel beam centerline offset of 18 inches
(46cm) maximum. The corner overlaps should be 30 feet (9.2m) minimum. Terrain flatness should be no more
than plus three inches or minus three inches deviation from a plane drawn between the transmitter and receiver.
The zone length (Transmitter to Receiver) should not exceed 400 feet (122m).
High security applications also use stacked link configurations to meet site requirements. A stacked link may
consist of two or more MicroWave 330 links or used in combination with the Model 300B link which operates
at X-band frequency of 10.525 GHz. A stacked link greatly reduces the dead zone and increases PD.
3.4 Transmitter Block Diagram
Slave
Modulation
Tamper
MicroWave 330T Transmitter consists of two major subassemblies – RF Assembly and Transmitter Circuit
Board. A block diagram is shown in Figure 8.
Figure 8 – MicroWave 330 Transmitter
Version 0
The RF assembly consists of a Gunn oscillator, which generates K-band microwave energy and the parabolic
antenna system. The Transmitter circuit board contains voltage regulator and modulation circuit to drive the
microwave oscillator and a secure CPLD. Modulation frequency in Free Run Mode is selected from one of six
channels (A, B, C, D, E, and F) by a dip switch on the Transmitter Circuit Board.
The CPLD is responsible for the generation of the asynchronous modulation frequencies when the “Mode”
switch is set to “Internal” position and also for determining the quality of the signal provided on the tether when
the “Mode” switch is set to “External” position.
A “Test” terminal is provided on the Transmitter Circuit Board. Application of 5.0 to 14.0 VDC will cause
Transmitter to turn off and illuminate the red “Channel Error” LED, generating a test alarm at receiver. A green
LED on Transmitter Circuit Board indicates that power is on.
3.5 Receiver Block Diagram
MicroWave 330R Receiver consists of two major subassemblies – RF Assembly and Receiver Circuit Board. A
block diagram is shown in Figure 9.
Cavity
Det.
24.125Ghz
Squarewave Modulated
Memory
(optional)
Enclosure
Tamper
Low Noise
Bias
BPF
AGC
30dB
Secure
External
Tamper
HI
LO
Align (ADC)
Target (ADC)
PS (ADC)
5th
LPF
∫
Secure
VCXO
CPLD
CLK
Timing
Logic
Level
Shift
BDM
18.432 MHz
Reset
(Q)
CLK
Wrong
Channel
10.5-60VDC
RTC
Sync
Channel
Modulation
RS232
Configuration
Port
Com 1
RS422
Alarm
Network
TX +
TX Gnd
RX +
RX -
HPF
Watchdog
TX +
TX Gnd
RX +
RX -
Power
Supply
TX +
TX -
HPF
Jam
TX +
TX RX +
RX -
CPU
(I)
1st
LPF
Node Address
Com 2
RS422
Alarm
Network
Figure 9 – MicroWave 330 Receiver
10
Version 0
MicroWave 330R Receiver RF Assembly consists of a parabolic antenna (identical to antenna of Transmitter)
and a Schottky diode detector. The detector converts modulated K-band energy from Transmitter into a low
frequency signal for processing by Receiver Circuit Board.
The received audio signal is amplified by an automatic gain control (AGC) preamplifier enabling the
preamplifier output to be held to a constant level regardless of Transmitter Receiver distance (distance must be
within maximum distance of link). This also set the “Path Fault” alarm parameter.
The detector output is a voltage level that is held constant under normal conditions by the slow-acting AGC
loop. Rapidly changing signal strength caused by a target moving into the microwave beam is not affected by
AGC loop and causes an AC signal to appear at the detector output. Signal is amplified, filtered, digitized and
compared with detection parameters.
Whenever signal matches the detection parameters, an alarm is generated. “Sensitivity” is adjusted in the UIST
II software program.
Microwave 330R Receiver is equipped with various alignment and troubleshooting features. Alignment voltage
test point provides a DC voltage proportional to received signal strength that may be measured with an ordinary
VOM. It is usually viewed in the UIST II software program.
A red “Alarm” LED lights whenever an intrusion occurs. A red “Wrong Channel” LED lights whenever
Transmitter and Receiver are set to different modulation channels. A red “Jam” LED lights when a secondary
interfering signal is present. A red “Pulse” LED indicates the application program is running. There are also
LED’s for communications status of the RS422 and RS232 ports.
3.6 Specifications
1.0 Detection Capability
1.1
Range: 100 feet (30.5m) to 800 feet (244m).
1.2
Beam Diameter: 2 feet (.6m) to 22 feet (6.7m) depending upon link distance and “Sensitivity” setting
per Figure 4.
1.3
Target: 77 pound (35kg) human – walking, running, hands and knees crawling or jumping. Prone
crawling or rolling 77 pound (35kg) human or simulated with a 12-inch (30cm) diameter metal
sphere detected at maximum range of 400 feet (122m) with flat terrain.
1.4
Minimum Target Velocity: 0.1ft. /sec. (30mm/sec.)
1.5
Maximum Target Velocity: 50ft. /sec. (15m/sec.).
2.0 Reliability
2.1
Equipment False Alarm Rate: 1/year/unit based upon signal-to-noise ratio at maximum sensitivity
setting.
2.2
Probability of Detection: 0.99% minimum on 77-pound (35kg) human upright or on hands and knees.
2.3
Self Supervision: Alarm on failure (inherent in design, fully self-supervised) and remote test.
11
Version 0
2.4
Automatic Gain Control: Link automatically adjusts to slow changes in path loss due to environment.
AGC range: -60dB.
2.5
Cross Modulation: When installed in accordance with following installation instructions cross
modulation (interference) from adjacent links will be 25dB below primary signal.
3.0 Transmittal Signal
3.1
Radiated Power: 33Bm peak EIRP (maximum), square wave modulated.
3.2
Carrier Frequency: K-band 24.125GHz.
3.3
Modulation Frequencies: Six field-selectable modulation frequencies.
3.4
Above specifications for USA are in accordance with F.C.C. regulations part 15.245.
4.0 Power Requirement
4.1
Voltage: 10.5 to 60.0VDC 2.5W maximum (Tx or Rx).
4.2
Current: Transmitter and Receiver under normal ambient operating conditions:
12 VDC: Tx @ 125mA – Rx @ 208mA
24 VDC: Tx @ 063mA – Rx @ 104mA
48 VDC: Tx @ 032mA – Rx @ 052mA
4.3
Transmitter fused for 0.25 amps and Receiver fused for 0.5 amps.
5.0 Alarm Indication
5.1
Red Alarm LED.
5.2
Red Jam LED.
5.3
Red Wrong Channel LED.
5.4
Audible alarm with Sonalert.
5.4
Tamper Switch, Transmitter and Receiver: Form C contacts rated 2.0 amps at 28 VDC.
6.0 Alignment and Test Aids
6.1
Alignment Voltage: Available in software or at Receiver Test Point. Positive voltage, suitable for
100,000 ohms/volt VOM, increases with receiver signal strength. Range 0.5-5.0 VDC.
6.2
Wrong Channel LED: Red LED on Receiver board lights when Transmitter and Receiver set to
different channels.
6.3
Jam LED: Red LED on Receiver board lights when receiver is receiving multiple RF sources.
6.4
Pulse LED: LED on Receiver board blinks showing the application software is running.
6.5
Communication LED’s: Green LED’s on Receiver board to indicate RS422 and RS232 transmit and
receive communication polls.
12
Version 0
6.6
Transmitter “ON” LED: Green LED on Transmitter circuit board indicates that power is on.
6.7
Channel Error LED: Red LED on Transmitter to indication Tx/Rx set to different modulation
channel or Remote Test is on.
7.0 Communications Ports
7.1
1 - RS232 configuration port. 2 – RS422 communications ports.
8.0 Weight, Transmitter, or Receiver: 4.5 pounds (2.04kg). Shipping weight 18 pounds (8.2kg)
9.0 Operating Environment
8.1
Temperature: -40° F to +150° F (-40° C to +66° C)
8.2
Relative Humidity: 0 to 100%.
10.0 Dimensions (Transmitter or Receiver)
Figure 10 – MicroWave 330 Transmitter or Receiver Dimensions
4.0 Installation Instructions
4.1 Location of Microwave 330
4.1.1 Required Area
MicroWave 330 must be located in an area which is free of obstructions and moving objects such as chain link
fences parallel to the detection field, trees, bushes and large areas of water as shown in Figure 11. Large moving
objects within the protection pattern will be indistinguishable from an intruder and will cause nuisance alarms.
The clear area required for a MicroWave 330 installation depends upon the distance to be covered by the link.
Protection patterns for various conditions are given in Figures 4. In each installation the clear area must be at
least as large as the maximum protection pattern.
13
Version 0
DO
DONT
Figure 11 – Clear Area
4.1.2 Terrain
Since the operation of Link requires transmission of energy from Transmitter to Receiver, it is important to
maintain a clear line of sight between the units. Therefore, the ground must be flat across the protected area.
Any bumps, hills or ditches in the area will shadow the beam and may provide crawl space for an intruder.
Bumps or hills must be leveled, and ditches filled so that the area is flat to within six (6) inches (15cm) as shown
in Figure 12.
DO
DONT
Figure 12 – Terrain
The protected area can be any stable, reasonably smooth material such as concrete, asphalt, tilled earth or gravel.
If there is grass or vegetation in the protected area it must be kept cut to a maximum of three (3) inches (8cm) in
height. Snow accumulation should not exceed three (3) inches (8cm) in height. MicroWave 330 should
not be operated over open water.
4.1.2.1 Terrain in High Security Applications
For maximum-security applications where detection of prone “commando style” crawl is required, the terrain
flatness should be no more than plus three inches or minus three inches deviation from a plane drawn between
the transmitter and receiver. The zone length (Transmitter to Receiver) should not exceed 400 feet (122m).
14
Version 0
4.1.3 Physical Protection
Install the Transmitter and Receiver in locations that provide protection from accidental damage as well as from
tampering. Simple devices such as bumper posts or parking guards may be used to protect equipment from
damage from vehicles as shown in Figure 13.
DO
DONT
Figure 13 – Physical Protection
4.1.4 Best Security
Choose the location that will provide best security, yet be free from false nuisance alarms. Always locate
MicroWave 330 inside a controlled access area to prevent unwanted nuisance alarms due to random foot traffic,
vehicles, or large animals. Typically, units should be mounted 2 ½ to 3 feet (0.76-0.91m) above ground level,
and far enough inside fence to provide a clear area of protection as shown in Figures 14 & 15.
For maximum security it is necessary to overlap the ends of links so that the “dead zone” below and
immediately in front of the adjoining link is protected. A 60-foot (18m) overlap is recommended at intermediate
points, and a 30-foot (9.2m) overlap is recommended at corners. If site demands shorter overlap, increased
sensitivity will reduce dead zone, per Figure 7, but will also widen beam, per Figure 4.The offset of overlapping
links in line should be 18 inches (46cm) as shown in Figure 6. Additional protection may be added at critical
points by installing SOUTHWEST MICROWAVE, INC. Model 380 or 385 Transceiver, Model 415 PIR,
MS15/MS16 Dual Tech sensor or stacking MicroWave 330 links or stacking with Model 300B microwave link.
DO
DONT
Figure 14 – Best Security
15
Version 0
Figure 15 – Overlapping Links
Note from Figure 15 that at each point of overlap either two Transmitters or two Receivers are installed. This
arrangement prevents an adjacent Transmitter and Receiver from establishing an unwanted link across the short
overlap distance. If there is an odd number of links in an installation, a transmitter and receiver will need to be
overlapped. This should be done in a corner as shown in Figure 15. Alternatively the synchronization capability
in MicroWave 330 could be utilized.
4.2 Mounting Microwave 330
Prepare a rigid mounting surface for the MicroWave 330 Transmitter and Receiver as shown in Figure 16.
Cap
4" (10.2cm) O.D.
Galvanized Pipe
Gnd. Lug & Wire
1/2" (1.3cm)
Flexible
Conduit
36"
(0.91m)
Nominal
48"
(1.22m)
Nominal
Ground Lug
#6 AWG
Ground Bus
Grounding
Rod
per Local
Electrical
Code
Concrete
24" (61cm)
Tamper, Com, Sync and Power Lines
Install Per Local
Electrical Code
Figure 16 – Mounting Detail
16
Version 0
Do not mount units on a cyclone fence or any vibrating surface. A recommended mounting post is a 3 ½ inch
(9cm) galvanized pipe (outside diameter 4 inches, 10cm), sunk into the ground in a concrete base, and
protruding above ground level to a height of 4 feet (1.2m). Mount the Transmitter and Receiver 2 ½ to 3 feet
(0.76 to 0.91m) above ground level and allow for height adjustment of at least plus or minus 6 inches (15cm).
Height adjustment may be required during final alignment to achieve optimum protection pattern. An 18-inch
(46cm) ½ inch (1.3cm) flex conduit is recommended between conduit fitting of T/R and rigid conduit.
Stacking MicroWave 330
For high security applications where “prone crawl” detection is required, the MicroWave 330 can be stacked to
provide a high probability of detection with a very low nuisance/false alarm rate and a reduction in dead zone as
shown in Figure 17.
To eliminate mutual interference between links, one link can be rotated 90° to change the polarity from an Eplane (vertical polarization) to an H-plane (horizontal polarization) which will cross polarize the waveguides to
eliminate potential interference. MicroWave 330 includes synchronization circuitry that can also be utilized to
eliminate potential interference.
Cap
4" (10.2cm) O.D.
Galvanized Pipe
Gnd. Lug & Wire
330
BX20 or BX35
Junction Box
(optional)
1/2" (1.3cm)
Flexible
Conduit
48"
(1.22m)
Nominal
36"
(0.91m)
Nominal
330
17"
(43.2cm)
Nominal
12" (30cm)
Nominal
#6 AWG
Ground
Bus
Concrete
24"
(61cm)
Tamper, Com, Sync and Power Lines
Grounding
Rod
per Local
Electrical
Code
Install Per
Local
Electrical
Code
Figure 17 – Stacked Mounting Detail
1. Remove the MicroWave 330 T/R Link(s) from the shipping containers. Separate the swivel assembly
from the mounting plate by turning the large nuts counter-clockwise. Large nuts require 1 ¼ inch
(32mm) open-end wrench.
17
Version 0
2. Secure the mounting bracket to the post with U-bolt or to other mounting surface with appropriate
screws or fasteners.
3. Secure the swivel assembly to MicroWave 330 Transmitter and Receiver and attach to mounting
bracket.
4. Rotate the MicroWave 330 Transmitter and Receiver so that the conduit fittings are pointed straight
down.
5. Tighten the large nuts on the swivel assembly to hold the units in place.
5.0 Modes of Operation
MicroWave 330 has two modes of operation. One is the Normal Free Running configuration and the other is the
Tethered configuration. In either configuration a controller is required for operation. The controllers that can be
used are the Relay Control Module II (RCM II), Control Module II (CM II), Graphic Control Module II (GCM
II), and Perimeter Security Manager (PSM) or a third party SDK development. See controller manuals for more
information.
5.1 Free Running Mode
In the Free Running mode the controller and laptop are connected to the MicroWave 330 receiver as shown in
Figure 18. MicroWave 330 setup and detection parameters are configured using the Universal Installation
Service Tool II (UIST II) running on a laptop or desktop computer connected to the RS232 Configuration Port,
Com 3. Alarm reporting is configured at the controller and is communicated on the RS422 alarm polling
network, Com 1 and Com 2. If a CM II or GCM II controller is used, MicroWave 330 can be configured using
the UIST II through the controller.
Figure 18 – Free Running
In the Free Running mode the MicroWave 330 transmitter and receiver are independently configured. The
transmitter and receiver must have their modulation channel set to the same modulation frequency. The tamper
switch from the transmitter is monitored independently. The receiver has two tamper switches. One can be
monitored over the alarm polling network and the other can be monitored independently. A typical Free Run
configuration using an RCM II as the controller and a Relay Output II (ROM II) module is show in Figure 19.
Optionally an AIM II can be used to monitor transmitter tampers. Note: power wiring has been left off this
example for clarity.
18
Version 0
RECEIVER
TRANSMITTER
ROM II
RCM II
RS422
Tampers to Alarm Panel
To Alarm Panel
Tampers to Alarm Panel
Tampers to Alarm Panel
TRANSMITTER
RECEIVER
TRANSMITTER
RECEIVER
Figure 19 – Free Running Example
5.2 Tethered Mode
In the Tethered mode the controller and laptop are connected to the MicroWave 330 receiver as shown in Figure
20. MicroWave 330 setup and detection parameters are configured using the Universal Installation Service Tool
II (UIST II) running on a laptop or desktop computer connected to the RS232 Configuration Port, Com 3. Alarm
reporting is configured at the controller and is communicated on the RS422 alarm polling network, Com 1 and
Com 2. If a CM II or GCM II controller is used, MicroWave 330 can be configured using the UIST II through
the controller.
Figure 20 – Tethered Mode
The Tethered mode requires a wire connection between the transmitter and receiver for synchronous operation.
The modulation signal from the receiver is provided on the tether to the transmitter and the transmitter tamper is
wired into the External Tamper Input on the receiver so it is included in the alarm polling network. The tether
also allow for changing the modulation frequency using the UIST II.
19
Version 0
Also available in the tethered mode is synchronization. MicroWave 330 incorporates synchronization circuitry
that provides time division multiplexing so multiple links and Model 380 or Model 385 microwave transceivers
can be used in close proximity without mutual interference. Two (2) MicroWave 330 links and seven (7)
transceivers can be connected on the sync line.
A typical Tethered configuration using a CM II as the controller and a ROM II is show in Figure 21. Note:
power wiring has been left off this example for clarity.
RECEIVER
TRANSMITTER
ROM II
RS422
CM II
To Alarm Panel
Tether
TRANSMITTER
RECEIVER
TRANSMITTER
RECEIVER
Figure 21 – Tethered Configuration
6.0 Wiring
6.1 Power Supply
MicroWave 330 operates from 10.5 to 60 VDC @ 2.5W. The operational current rating with standard power
supplies are: 12 VDC @ 125mA Tx / 208mA Rx, 24 VDC @ 63mA Tx / 104mA Rx and 48 VDC @s 32mA
Tx / 52mA Rx. Figure 22 shows the typical voltage drop for a 500 foot (152.4m) length of cable using various
wire gauges.
Figure 22 – Voltage Drop
20
Version 0
6.2 Communications Wiring
Figure 23 shows the typical RS422 wiring diagram for the alarm polling network. This example uses the Relay
Control Module II (RCM II) as the system controller connected to a Relay Output Module II-16 (ROM II-16)
and a MicroWave 330 receiver. The MicroWave 330 is located on the perimeter. The RCM II and the ROM II16 are located in the control room for relay output interface to other control room devices.
The communications is RS422 and must use a 22 or 24 gauge twisted, stranded, shielded pair wire. Fiber optic
devices can be used as well. Since this RS422 communications format is a point to point configuration, no
termination device is required for the last unit on the line.
TB5
All the RS422 communications wiring is from the transmit side of one device to the receive side of the next
device with the wiring from TX + to RX + and TX – to RX – as shown in Figure 23.
TB3
Figure 23 – MicroWave 330 Communications Wiring
6.3 Tethered Wiring between Transmitter and Receiver
Figure 24 shows the typical wiring from MicroWave 330 Transmitter to Receiver in the Tethered configuration.
The “Mod Out” terminal from the receiver is connected to the “Modulation Input” terminal on the transmitter
for synchronous operation. Switch S2 “Modulation” would be set to “External”. The “Tamper Switch” terminal
from the transmitter is connected to the “Input Ext Tamper” terminal on the receiver. This puts the transmitter
tamper in the alarm polling network.
The 10.5 to 60 VDC input power can be directly connect to the transmitter and receiver or additional wiring can
be included in the connection from the transmitter and receiver to bring power down this line for both
transmitter and receiver. Make sure the wire gauge is correct to cover the voltage drop to maintain the correct
input voltage.
21
Version 0
Figure 24 – Tethered Wiring
6.4 Synchronized Wiring
If MicroWave 330 is to be synchronized to another MicroWave 330 or Model 380 or Model 385 transceiver it
must be in the Tethered configuration. In the synchronized configuration MicroWave 330 supports two (2) time
slots, Phase 1 and Phase 2. This will allow for synchronizing two (2) MicroWave 330 links and up to seven (7)
transceivers as shown in Figure 25. Two more links can be added if they are rotated 90° as explained in Section
4.2.
Figure 25 – Synchronization Plan
22
Version 0
The synchronization wiring is shown in Figure 26 for two (2) MicroWave 330 links and two (2) Model 380
transceivers. The Phase 0 or Phase 1 setting is configured in the UIST II software program. The synchronization
line must use a 22 or 24 gauge twisted, stranded, shielded pair wire. The last unit in the synchronization chain
must be terminated with a 120 ohm resistor. For setting the Model 380 or Model 358 in a synchronized mode,
please refer to their respective technical manuals. Note: all other wiring has been omitted for clarity.
Figure 26 – Synchronization Wiring
6.5 Remote Test
MicroWave 330 is equipped with a remote test circuit located on the transmitter. When a voltage, greater than 5
VDC and less than 14 VDC, is applied to the “Test” terminal, the K-band oscillator will turn off as long as the
voltage is applied. This loss of signal will cause the receiver to go into an alarm condition. This feature will
work in the free running or tethered configuration.
In the tethered configuration, a “test” can be initiated by sending a command over the communications line
using the UIST II. The UIST II has a “Remote Test” button which may be activated to exercise this function in
the tethered mode. The receiver will process the command and turn off the modulated signal to the tether for a
minimum of five (5) seconds causing an alarm at the receiver. The remote test state is stored in volatile memory
so that on power-up the remote test feature is inactive.
23
Version 0
7.0 Terminals, Switches and Indicators
7.1 MicroWave 330T Transmitter
The electrical connections, switches and indicators for the MicroWave 330T transmitter are shown in Figure 27.
TB1
SW1
SW2
J2
CH-F
CH-E
CH-D
CH-C
CH-B
CH-A
J3
Figure 27 – MicroWave 330T Transmitter
7.1.1
Channel Select Switch
SW1
The “Channel Select Switch” SW1 as shown in Figure 28 is used in the Free Running mode to set the modulated
frequency of the MicroWave 330 transmitter. The same channel must be used on transmitter and receiver. If
transmitter and receiver are on different channels the “Channel Error” LED will illuminate.
CH-F
CH-E
CH-D
CH-C
CH-B
CH-A
Figure 28 – Channel Select Switch Transmitter
7.1.2 External – Internal Modulation Switch
The “External – Internal Modulation Switch” SW2 as shown in Figure 29 is used in the “Internal” position
when in Free Running mode and in the “External” position when used in the Tethered mode. In the Tethered
mode the “Mod Out” terminal from the receiver must be wired to the “Modulation Input” terminal on the
transmitter and SW2 set to “External” for the system to operate properly.
24
Version 0
MODULATION
EXTERNAL
INTERNAL
Figure 29 – Internal – External Modulation Select Switch Transmitter
7.2 MicroWave 330R Receiver
The electrical connections, switches and indicators for the MicroWave 330R receiver are shown in Figure 30.
Pulse
LED
463930-SST REV 0
E1 E2 E3
GRY WHT BRN
MODEL 330
RECEIVER REV02D46394-A01
ALIGNMENT
VOLTAGE
+-
Address
Switch
JP1
ON
Alarm
LED
PULSE
JAM LED
JAM
Wrong Channel LED
WRONG CH
LSB
MSB
ALARM
1 2 3 4 5 6 7 8
SW2
ADDRESS
COM3 RS232
TX CONFIG PORT
LNA
P1
E4 E7
LNA
DRIVE
RS232 COM LED’s
S.M.I.
MADE IN USA
ON OFF
RS232
Configuration Port
TP10
-5V
SW4
SONALERT
TP11
+5V
TX
BZ1
COM2
COM1
TP13
+3.3V
SONALERT
RX
RX
TX
RX
E8
E9
BRN
WHT
GRY
E10
L20
TB1
TB2
TB3
J1
F1
500 TPV
+-
+10.5 GND N.O. COM N.C.
to 60
VDC
TAMPER
PWR IN
SWITCH
+ OUT
SHLD
+ - +
IN
SYNCHRONIZE
SHLD
MOD
OUT
TAMP GND
INPUT
EXT TAMPER
+ TX
SHLD
+ - + RX
COM1 RS422
TX
SHLD
+ -
Alarm Buzzer
and Switch
RX
COM2 RS422
RS422 Com LED’s
Terminal Strip
Figure 30 – MicroWave 330R Receiver
25
Version 0
7.2.1
Address Switch
The “Address Switch” is used to set the node address of the MicroWave 330 receiver which is used for the
alarm polling by one of the INTREPID™ controllers (RCM II, CM II, GCM II, PSM or SDK). The address can
be set from 0 to 239. Switch SW2, as shown in Figure 31, is set by using the LSB (Least Significant Bit) as the
binary reference starting point for address 1.
Figure 31 – Address Switch
7.2.2
Audio Alarm Switch
Each MicroWave 330 receiver includes an on board “Sonalert” buzzer for alarm annunciation. The audio can be
turned on or off by switch SW4 as shown in Figure 32. The switch should be set to “On” when performing
intrusion detection tests and set to “Off” when in operation.
Figure 32 – Audio Alarm Switch
7.2.3
Communications Ports
Each MicroWave 330 receiver has three (3) communications ports. COM 1 and COM 2 are RS422
communications ports. They are used to connect to the controller and to the next device in line for alarm polling.
COM 3 is a RS232 dB9 connector and is the configuration port used with the UIST II to setup and configure the
MicroWave 330 link. Each communications port has LED’s to indicate communications polling.
8.0 Connecting the Transmitter and Receiver
8.1 MicroWave 330T Transmitter Connections
Caution: DO NOT APPLY POWER UNTIL ALL WIRE CONNECTIONS HAVE BEEN MADE.
1. Remove the radome of MicroWave 330 transmitter by removing the six-radome screws.
26
Version 0
2. Insert power wires, tamper circuit wires, test wires and modulation input wires (if in tethered mode)
through conduit fitting. Leave enough slack in wires so that Transmitter may be tilted after radome is
replaced.
3. Make connections to the terminal strip according to labeled terminal functions as shown in Figure 27.
4. Attach power wires to terminal identified as 10.5 to 60 VDC + (Positive) and - (Negative). OBSERVE
POLARITY.
5. For protection against unauthorized openings or tampering, a Form C tamper switch with a separate set
of contacts is provided. Attach tamper wires to the N.O. (normally open), COM (common) or N.C.
(normally closed) Tamper Switch terminals per site circuit requirements.
6. Connect Remote Test wire if used, to terminal labeled Test.
7. If configured in the tethered mode connect the “Mod Out” wires from MicroWave 330R receiver to the
Modulation Input terminals. Wiring should be + to +, shield to shield and - to –. The tamper switch from
the transmitter should be wired to the EXT TAMPER INPUT on the receiver.
8.2 MicroWave 330R Receiver Connections
1. Remove radome of MicroWave 330R receiver by removing the six-radome screws.
2. Insert power wires; tamper circuit wires, modulation output wires (if in tethered mode) and
synchronization wires (if used) through conduit fitting. Leave enough slack in wiring so that receiver
may be tilted after radome is replaced.
3. Make connections to the terminal strip according to labeled terminal functions as shown in Figure 30.
4. Attach power wires to terminal identified as PWR IN 10.5 to 60 VDC + (Positive) and GND (Negative).
OBSERVE POLARITY.
5. For protection against unauthorized openings or tampering, a Form C tamper switch with a separate set
of contacts is provided. Attach tamper wires to the N.O. (normally open), COM (common) or N.C.
(normally closed) Tamper Switch terminals per site circuit requirements. A secondary tamper switch is
also available that is reported in software using the UIST II to configure and a controller for the alarm
reporting.
6. There are no physical relays mounted on the MicroWave 330R receiver. The intrusion alarm output is
configured using the UIST II and is polled and annunciated using a controller with graphics and /or
relays on the ROM II-8 or ROM II-16. Refer to UIST II manual, controller (being used) manual and
ROM II manual.
NOTE: After wiring is completed, it is recommended that entry conduit be filled (sealed) with noncorrosive sealant such as Dow-Corning #738 RTV. This will prevent moist air in the conduit system
from entering MicroWave 330 Transmitter or Receiver.
9.0 Alignment and Testing
The following outline will assist the installer in alignment and testing of the MicroWave 330 Digital Microwave
Intrusion Link using a VOM (volt-ohm-meter) with an input impedance of 100,000 ohms/volt or greater
27
Version 0
1. With radomes removed, apply power to the Transmitter and Receiver.
2. Be sure the identical modulation frequency, channel A through F, is being used on the Transmitter and
Receiver in Free Running mode or modulation terminals are connected in Tethered mode.
3. Check for transmitter and receiver operation by monitoring the “POWER” LED on transmitter circuit
board and “PULSE” LED. The LED’s must be illuminated.
4. Visually aim the Transmitter and Receiver for “bore-sight” alignment. Aim the transmitter and receiver
at each other. Make sure the transmitter and receiver are parallel and perpendicular to the ground plane
that is being secured.
5. On the Receiver, voltmeter connected to JP1 “ALIGNMENT VOLTAGE” + and - with meter range set
to 1-5VDC can be used to align the link. The alignment can also be done using the UIST II software
program which is recommended.
6. Swivel Receiver up and down and side to side, to obtain maximum meter reading. Tighten locking nut
on mounting bracket to secure sensor in this position.
7. Raise or lower mounting height of receiver and/or transmitter as required to obtain maximum meter
reading.
8. Swivel Transmitter up and down and side to side, to obtain maximum meter reading. Tighten locking
nut on mounting bracket to secure sensor in this position. The minimum alignment voltage for the
MicroWave 330 is 0.5VDC. Although this is the minimum voltage, proper alignment and mounting
height will typically be greater. The peak alignment voltage should range between 0.5 and 5 VDC
depending upon link distance. The further apart the units the smaller the alignment voltage.
9. Perform site requirement tests (walk, run, crawl, etc) to determine detection pattern, while monitoring
alarm indication by means of the red “Alarm” LED or by the Sonalert on the receiver.
10. Adjust detection parameters using the UIST II until site requirements are obtained. Adjust the sensitivity
to optimize the sensor performance to meet detection requirements at the lowest setting possible.
11. Replace radomes using all six screws.
10.0 Preventive Maintenance
MicroWave 330 requires no calibration other than alignment and sensitivity adjustment during installation. To
maintain a trouble free system the following is recommended:
1. Wax the radomes every 3 to 6 months using a standard automotive wax. (At maximum security
installations, where detection of prone crawling targets is required, wax once a month.)
2. Keep the isolation area clean and free of tall grass, weeds, debris, washouts and obstructions.
3. Upon initial installation, establish a zone data chart. Record input supply voltage, zone distance,
transmitter/receiver mounting height, alignment voltage, modulation channel, sensitivity setting, and
battery voltages.
4. If standby batteries are used, they should be functionally tested every three months.
28
Version 0
5. A site inspection should be performed every six months. The inspection should include: verifying data
from Step 3, checking for physical damage (cracks, leaks, corrosion, etc.) checking for isolation zone
changes (washouts, materials placement, vegetation growth, loose fence fabric, etc.)
6. For troubleshooting information, please contact the factory about MicroWave 330 Service Manual.
11.0 Limited Warranty
SOUTHWEST MICROWAVE, INC. warrants each of its products to be free from defects in materials and
workmanship. The limit of liability under this warranty is to repair or replace any products or part thereof which
shall within one year after delivery to the original user be returned, shipping costs prepaid and insured, to
SOUTHWEST MICROWAVE, INC. at its plant in Tempe, Arizona, or authorized Warranty Service Company,
and which shall have been found to be defective upon examination by SOUTHWEST MICROWAVE, INC. or
authorized Warranty Service Company.
This warranty shall be limited to the repair or replacement of SOUTHWEST MICROWAVE, INC. products and
shall not extend to any incidental or consequential damages there from. Disassembly of any product by anyone
other than an authorized representative of SOUTHWEST MICROWAVE, INC. voids the obligations of
SOUTHWEST MICROWAVE, INC. to repair or replace any products so disassembled.
Excluded from this warranty are fuses and batteries except to the extent that the original manufacturer warrants
such parts, and such warranty is marked on the product. Claim under warranty for fuses and batteries should be
made by the purchaser directly to the manufacturer.
Warranty returns must first be authorized by SOUTHWEST MICROWAVE, INC. or authorized Warranty
Service Company.
SOUTHWEST MICROWAVE, INC. reserves the right to make changes in design on any of its products
without incurring any obligation to make the same changes on units previously purchased.
This warranty is the extent of the obligations or liabilities assumed by SOUTHWEST MICROWAVE, INC.
With respect to its products and is in lieu of all other warranties, express or implied, including, but not limited
to, any warranty of merchantability or fitness. SOUTHWEST MICROWAVE, INC. shall not be liable for
consequential damages and its liability is expressly limited to the obligations expressed herein. SOUTHWEST
MICROWAVE, INC. Neither assumes nor authorizes any other person to assume for it any other warranty
concerning its products.
12.0 Returning Equipment under Warranty
As per the provisions set forth in our Security Products warranty, any person desiring to return equipment to
SOUTHWEST MICROWAVE, INC. for any reason, must first contact SOUTHWEST MICROWAVE, INC.
for authorization of return.
An authorization number will be issued at the time of authorization, and this number will appear on all
correspondence, invoices and credits pertaining to subject equipment.
ALL SOUTHWEST MICROWAVE, INC. sensors and power supplies are provided with a serial number at the
time of manufacture. In order to accurately and efficiently supply replacement parts, perform repair service, or
issue credit on equipment being returned to SOUTHWEST MICROWAVE, INC., it is essential that
SOUTHWEST MICROWAVE, INC. be advised of the serial number of the equipment prior to authorization for
return. This notification may be made by telephone or by mail.
29
Version 0
13.0 Returning Equipment for Non-Warranty Repair
Return of equipment out of warranty must first be authorized by SOUTHWEST MICROWAVE, INC. at which
time a return authorization number will be issued. The returned equipment must be accompanied by an
evaluation repair purchase order. Returned equipment will be examined and customer advised of cost of repair
or replacement.
14.0 Replacement Parts
To order a replacement or module, specify the complete part number and serial number and address the order or
contact us at:
SOUTHWEST MICROWAVE, INC.
9055 South McKemy Street
Tempe, Arizona 85284-2946
TEL: (480) 783-0201
FAX: (480) 783-0401
Infossd@southwestmicrowave.com
www.southwestmicrowave.com
30
Version 0
31
Version 0

---

Source Exif Data:

File Type                       : PDF
File Type Extension             : pdf
MIME Type                       : application/pdf
PDF Version                     : 1.4
Linearized                      : Yes
Author                          : gusf
Create Date                     : 2012:05:23 11:19:31-07:00
Modify Date                     : 2012:05:23 13:32:12-07:00
XMP Toolkit                     : Adobe XMP Core 5.2-c001 63.139439, 2010/09/27-13:37:26
Producer                        : Acrobat Distiller 6.0.1 (Windows)
Creator Tool                    : PScript5.dll Version 5.2.2
Metadata Date                   : 2012:05:23 13:32:12-07:00
Document ID                     : uuid:b6214cae-6244-4291-a443-f6c2a76e5781
Instance ID                     : uuid:876e4217-4b80-4638-9437-bfbd2382325f
Format                          : application/pdf
Title                           : Microsoft Word - 330 Technical Manual - USA.doc
Creator                         : gusf
Page Count                      : 31

EXIF Metadata provided by EXIF.tools