Table 16 - AC Voltage Fuse Part Numbers ...........................................................72
Table 17 - DC Voltage Fuse Part Number.............................................................72
Foxcom Proprietary Information 7
Document No. 93-005-39-A1
7310 Installation and User’s Guide
1. Front Chapter
1.1
Warranty and Repair Policy
Foxcom performs testing and inspection to verify the quality and reliability
of our products. Foxcom uses every reasonable precaution to ensure that
each unit meets specifications before shipment. Customers are asked to
advise their incoming inspection, assembly, and test personnel as to the
precautions required in handling and testing our products. Many of these
precautions are to be found in this manual.
Nullification of Warranty
The Warranty is null and void if the product casing is opened.
The products are covered by the following warranties:
A) General Warranty
Foxcom warrants to the original purchaser all standard products sold
by Foxcom to be free of defects in material and workmanship for one
(1) year from date of shipment from Foxcom. During the warranty
period, Foxcom will repair or replace any product that Foxcom proves
to be defective. This warranty does not apply to any product which
has been subject to alteration, abuse, improper installation or
application, accident, electrical or environmental over-stress,
negligence in use, storage, transportation or handling.
Front Chapter
B) Specific Product Warranty Instructions
All Foxcom products are warranted against defects in workmanship,
materials and construction, and to no further extent. Any claim for
repair or replacement of units found to be defective on incoming
inspection by a customer must be made within 30 days of receipt of
shipment, or within 30 days of discovery of a defect within the
warranty period.
This warranty is the only warranty made by Foxcom and is in lieu of
all other warranties, expressed or implied. Foxcom sales agents or
representatives are not authorized to make commitments on warranty
returns.
C) Returns
In the event that it is necessary to return any product against above
warranty, the following procedure shall be followed:
1.Return authorization is to be received from Foxcom prior to
returning any unit. Advise Foxcom of the model, serial
number, and discrepancy. The unit may then be forwarded to
Foxcom Proprietary Information 8
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Foxcom, transportation prepaid. Devices returned collect or
without authorization may not be accepted.
2.Prior to repair, Foxcom will advise the customer of our test
results and any charges for repairing customer-caused
problems or out-of-warranty conditions etc.
3.Repaired products are warranted for the balance of the original
warranty period, or at least 90 days from date of shipment.
D) Limitations of Liabilities
Foxcom's liability on any claim, of any kind, including negligence for
any loss or damage arising from, connected with, or resulting from the
purchase order, contract, quotation, or from the performance or breach
thereof, or from the design, manufacture, sale, delivery, installation,
inspection, operation or use of any equipment covered by or furnished
under this contact, shall in no case exceed the purchase price of the
device which gives rise to the claim.
EXCEPT AS EXPRESSLY PROVIDED HEREIN, FOXCOM
NETWORKS MAKES NO WARRANTY, EXPRESSED OR
IMPLIED, WITH RESPECT TO ANY GOODS, PARTS AND
SERVICES PROVIDED IN CONNECTION WITH THIS
AGREEMENT INCLUDING, BUT NOT LIMITED TO, THE
IMPLIED WARRANTIES OF MERCHANTABILITY AND
FITNESS FOR A PARTICULAR PURPOSE. FOXCOM
NETWORKS SHALL NOT BE LIABLE FOR ANY OTHER
DAMAGE INCLUDING, BUT NOT LIMITED TO, INDIRECT,
SPECIAL OR CONSEQUENTIAL DAMAGES ARISING OUT
OF OR IN CONNECTION WITH FURNISHING OF GOODS,
PARTS AND SERVICE HEREUNDER, OR THE
PERFORMANCE, USE OF, OR INABILITY TO USE THE
GOODS, PARTS AND SERVICE.
The Company's exclusive warranty and the remedy provided for
breach thereof shall not apply to (a) any Product used or operated other
than pursuant to the Company's written instructions, (b) damage or
deficiencies resulting from accident, alteration, modification, misuse,
tampering, negligence, improper maintenance, installation or abuse, (c)
use of any Product other than at the Installation Site, (d) use of any
Product that is defective or damaged due to misuse, accident, or
neglect, or due to external electrical stress, lightning or other acts of
nature, (e) use of any Product by a person who is not any authorized
employee of the Customer, or (f) used other than as explicitly
authorized in writing by the Company.
Front Chapter
Foxcom Proprietary Information 9
Document No. 93-005-39-A1
7310 Installation and User’s Guide
1.2 Reporting Defects
The units were inspected before shipment and found to be free of mechanical
and electrical defects.
Examine the units for any damage which may have been caused in transit. If
damage is discovered, file a claim with the freight carrier immediately.
Notify Foxcom Networks as soon as possible.
Refer to Warranty and Repair Policy for further details.
Note
Keep all packing material until you have completed the inspection.
1.3 Certification
The 7310 IFL has CE, FCC, FDA, and UL Certification.
1.4 Conventions
In this manual the following special formats are used:
Note
Front Chapter
Notes contain information detailing the current topic.
CAUTION
Cautions contain information regarding situations or materials which
could damage your product.
WARNING
WARNINGS CONTAIN INFORMATION REGARDING DANGEROUS
FUNCTIONS.
Foxcom Proprietary Information 10
Document No. 93-005-39-A1
7310 Installation and User’s Guide
1.5 Precautions
1.5.1 Personal Safety
WARNING
OPTICAL RADIATION
APPLYING POWER TO THE TRANSMITTER UNIT WILL
CREATE A LASER ENERGY SOURCE OPERATING IN CLASS I
AS DEFINED BY IEC 825-1. USE AN INFRARED VIEWER,
OPTICAL POWER METER OR FLUORESCENT SCREEN FOR
OPTICAL OUTPUT VERIFICATION.
AC POWER HAZARD
THE RACKMOUNT POWER SUPPLY LINE IS EMI FILTERED.
THE CHASSIS IS CONNECTED TO EARTH GROUND IN
COMPLIANCE WITH SAFETY REQUIREMENTS. ALWAYS USE
THE 3 PRONG AC PLUG WITH EARTH GROUND TO AVOID
POSSIBILITY OF ELECTRICAL SHOCK HAZARD TO
PERSONNEL.
Front Chapter
1.5.2 Equipment Safety
To avoid damaging your product, please observe the following:
1. Fuses: The 7180M does not have fuses. If the unit fails, pull the
power supply out from the chassis and then push it back in.
2. The output of the receiver is AC coupled and can withstand the bias
from a satellite receiver.
3. Do not allow any dirt or foreign material to get into the optical
connector bulkheads. This may cause damage to the polished optical
connector end faces.
4. The optical fiber jumper cable bend radius is 3 cm. Smaller radii
can cause excessive optical loss and/or fiber breakage.
5. If multiple transmitters are installed in the chassis allow sufficient
room for adequate ventilation; otherwise the units may overheat
causing possible safety hazard or equipment damage.
6. When several units are installed on one 7180M chassis, ensure that
the total current consumption (including any LNB bias) does not
exceed 6A per chassis.
Do not exceed 25V DC bias.
Foxcom Proprietary Information 11
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Introduction to the 7310 IFL
2. Introduction to the 7310 IFL
The Sat Light™ 7310 broadband (10 - 2200 MHz) fiber optic link is designed for a
wide range of antenna remoting applications, wireless or satellite. The 7310
operates over singlemode fiber covering distances of up to 2 kilometers away
while preserving excellent signal quality. The 7310 consists of an optical
transmitter (7310T) which receives the RF signal and an optical receiver (7310R)
which connects to a demodulator or satellite receiver.
The 7310T and 7310R modules plug into the 7180M, a 3U chassis/power supply
that enables expansion of the system to accommodate any eight Sat-Light
modules. Accessories include the Model 7001P Standby Power Supply, the Model
2000 1:1 Redundant Switch, the Model 2100 Amplifier, and the Model 7050 Serial
Data Multiplexer, an asynchronous data link.
The 7310 is a broadband transmission link; all standard satellite modulation
formats can be transmitted (i.e. QPSK, FM, etc.). The 7310 can be used in a wide
variety of applications: cellular, PCS, MMDS, GPS, VSAT, CATV, Earth
Stations, Broadcast, Radar, and others. The RF signal is directly modulated and
adds virtually no phase noise to the original signal. The direct modulation,
coupled with the 7310 Links RF circuitry, guarantees superior signal quality. The
7310 is capable of more than 35 dB carrier to noise performance in a full band or
single carrier environment.
At the receiver site MGC maintains the RF level regardless of optical power or
distance from the transmission site. Front panel LEDs and back panel monitors
and alarms allow for complete system status monitoring and for interfacing with
M & C systems.
2.1 Options
The 7310 IFL comes with a variety of options:
1. 75 Ω/F type or 50 Ω SMA RF connector; standard impedance is 50 Ω
Input-Output Impedance/BNC, female connectors are standard.
2. Extended frequency - 10 to 2500 MHz; the standard bandwidth is
10 - 2150 MHz.
3. Standalone unit; the 7310 IFL can be installed as a standalone unit. If
the 7310 is used as a standalone, a separate power supply must be used.
Foxcom Proprietary Information 12
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Introduction to the 7310 IFL
On the side of the 7310T and the 7310R units is a sticker1 which lists options
1 to 3. Under each option is a square. If the unit includes a particular option
the square under the option should be marked. For example in Figure 1 the
50 Ohm option is marked.
Options
1550 LNB
50
25
Figure 1 - Option Sticker
1
The sticker includes options which are not relevant to the 7310 IFL.
Foxcom Proprietary Information 13
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Introduction to the 7310 IFL
2.2 Product Drawings
Figure 2 shows the front and rear panels of the 7310 IFL Transmitter units.
Figure 2 - 7310 IFL Transmitter Front and Rear Panels
Figure 3 shows the front and rear panels of the 7310 IFL Receiver units.
Figure 3 - 7310 IFL Receiver Front and Rear Panels
Foxcom Proprietary Information 14
Document No. 93-005-39-A1
7310 Installation and User’s Guide
2.3 Block Diagrams
Introduction to the 7310 IFL
Figure 4 - 7310T Transmitter Block Diagram
Figure 5 - 7310R Receiver Block Diagram
Foxcom Proprietary Information 15
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Introduction to the 7310 IFL
2.4 Panel Descriptions
On the Front Panel of the 7310 Transmitter and Receiver unit are LEDs.
The following tables describe the LEDs.
Table 1 - 7310T Transmitter LEDs
LED Name LED Function
Laser
RF
Table 2 - 7310R Receiver LEDs
LED Name LED Function
Opt.
RF
Indicates if the optical output power control is
functioning
Indicates if the RF levels are within operating limits
Indicates if the optical reception power is within
limits
Indicates if the RF levels are within operating limits
Foxcom Proprietary Information 16
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Installation
3. Installation
The following section details how to setup the 7310 IFL units2.
Setting up the 7310 IFL Transmitters and Receivers consists of the following
steps:
1. Setting up the transmitter.
2. Connecting the fiberoptic cable.
3. Setting up the receiver.
4. Powering the IFL.
5. Connecting the back panel jumpers.
6. Aligning the fiberoptic cable.
Observe all warnings and cautions mentioned at the beginning of this manual
(page 11). If after set-up you experience problems, refer to Trouble Shooting on
page 37.
Figure 6 - Typical Application of a 7310 IFL
2
This section gives instructions on installing the transmitter and receiver in a chassis rackmount.
For instructions on installing standalone units refer to Appendix II Installing a Standalone Unit.
Foxcom Proprietary Information 17
Document No. 93-005-39-A1
7310 Installation and User’s Guide
3.1 Setting Up the Transmitter
1. Place the 7310T Transmitter in 7180M Chassis. The operating base plate
temperature must be between -10° C to +55° C.
2. Apply AC power to the chassis. The Laser LED should be lit.
3. Using an optical power meter, measure the optical power. Insert the
meter’s cable into the Transmitter’s optical connector. Power levels should
be between 0.4 - 1.0 mW.
Alternatively, use a DVM to measure the voltage at:
• pins J13-P17 through J13-P24 for the slot being measured (Refer to
Table 6 on page 35 for details regarding J13 pinouts) (7100M
Rackmount)
• at pin #6 of the 9 pin connector (standalone)
The power level should be -4.5 ± 0.3 VDC.
4. On the rear panel, connect the coax cable to the RF Input Connector. The
RF LED should be lit.
Installation
5. On the rear panel, connect the fiberoptic cable to the Optical Connector.
6. Adjust the Gain Control Potentiometer to give the desired output power.
Using a small screw driver, turn the potentiometer (located on the front
panel) to increase or decrease the gain.
• To
• To
increase the gain, turn the gain control clockwise.
decrease the gain, turn the gain control counterclockwise.
For more information refer to Aligning the Fiberoptic Cable on page 25.
Note
The potentiometer is 10 turns potentiometer.
Note
If either LED is not lit, refer to Trouble Shooting on page 37.
CAUTION
When monitoring the voltage outputs use a high resistance DVM only.
Foxcom Proprietary Information 18
Document No. 93-005-39-A1
7310 Installation and User’s Guide
3.2 Connecting the Fiberoptic Cable
Before connecting the cable:
1. The fiberoptic cable must be either fusion spliced or connected via
FC/APC connectors.
2. Wipe the connector with a lint-free cotton cloth.
3. Note the polarity key of the optical connector before inserting.
To connect the cable:
1. Line Up the Polarity Key.
2. Insert the connector.
Installation
3. Tighten the connector.
CAUTION
Do not apply any glue, silicon adhesive, or any other material to the
fiberoptic connector!
Foxcom Proprietary Information 19
Document No. 93-005-39-A1
7310 Installation and User’s Guide
3.3 Setting Up the Receiver
1. Place the 7310R Receiver in the 7180M Chassis, unless a 2000 RF
Switch is installed (refer to Figure 7, page 22). The operating base plate
temperature must be between -10° C to 55° C.
Note
If a 2000 RF Switch(s) is being installed, then slots 2 and/or 5 of the 7180M
are reserved for the switch(es).
2. Apply AC power to the chassis. The Power Supply’s LED should be lit.
3. Using an optical power meter, measure the optical power coming to the
Receiver from the fiberoptic cable. The power levels of the Receiver should
be the power level measured at the Transmitter minus the fiber loss
Alternatively, use a DVM to measure the voltage at:
Installation
3
.
•pins
J13-P9 through J13-P16 for the slot being measured (Refer to
Table 6 on page 35 for details regarding J13 pinouts) (7180M
Rackmount). The voltage level should be 1V for each 1 mW measured
at the Receiver input.
•at pin #5 of the 9 pin connector (standalone)
4. On the rear panel connect the fiberoptic cable to the Optical Connector.
The Opt. and RF LEDs should be lit.
5. On the rear panel, connect the coax cable to the RF Output Connector.
6. Adjust the Gain Control Potentiometer to give the desired output power.
Using a small screw driver, turn the potentiometer (located on the front
panel) to increase or decrease the gain.
Note
If either LED is not lit, refer to Trouble Shooting on page 37.
Note
The potentiometer is 10 turns potentiometer.
• To increase the gain, turn the potentiometer clockwise.
• To
decrease the gain, turn the potentiometer counterclockwise.
For more information refer to Aligning the Fiberoptic Cable on page 25.
3
Fiber loss is defined as:
(0.4 dB/km x length (km) of the fiberoptic cable) + (0.5 dB x number of connectors).
For example if a link was 10 kilometers long and had two connectors the loss would be:
(0.4 dB/km x 10 km) + (0.5 dB x 2) = 5.0 dB.
Foxcom Proprietary Information 20
Document No. 93-005-39-A1
7310 Installation and User’s Guide
3.4 Powering the IFL
• Transmitter power requirement: +15VDC @ 200 mA
• Receiver power requirement: +15VDC @ 270 mA
• The Standalone Transmitter/Receiver can be powered by a
Foxcom-supplied external DC power supply.
•The Rackmount Transmitters/Receivers are plugged into the 7100M
rackmount chassis. The chassis can accept and power up to six units.
Note
°
At temperatures below 10
an additional 100 mA. The Transmitter’s total power requirement will then
be 300 mA.
CAUTION
Ensure that there is a good airflow around the chassis rackmount.
There should be the space of a rackmount between chassis.
C, the Transmitter’s internal heater will require
Installation
3.4.1 7180M Chassis
The 7180M Chassis provides power to the plug in units. The power
supply is a switching type. Each plug-in regulates its own voltage. The
power supply provides:
• 14 VDC stable
• AC input; 100 - 240 VAC
• Units can be plugged in “hot standby”
Foxcom Proprietary Information 21
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Installation
Figure 7 - 7180M Chassis Rear View
3.5 Connecting the Back Panel Jumpers
On the rear panel of the 7180M Back Panel are product selectors (JP1 to JP4). The 3 pin selectors (male) are the connecting
point between the slots and the back panel. One pin is for the transmitter/receiver (Tx/Rx), one is for the optional 2000 1:1
Redundant Switch, and one is for the 7180M. A 2 pin jumper (female) is placed on the relevant pins to complete the
connection between the 7180M and the units. For example, if a 2000 Switch is being used, the jumper is placed on the
Switch-7180M pins.
To connect the jumpers:
1. Each jumper has two sets of pins, upper and lower. The upper pins are labeled SW (Switch) and the lower pins Tx/Rx
(Transmitter/Receiver).
Foxcom Proprietary Information 22
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Installation
2. If the 7180M has Tx or Rx units only, place all jumpers on the lower two pins.
Figure 8 - Jumper Installation: Tx and Rx Only
3. If the 2000 Switch is installed in Slot 2, place the JP1 and JP2 jumpers on the higher two pins and the JP3 and JP4
jumpers on the lower two pins.
Figure 9 - Jumper Installation: 2000 Switch in Slot 2
4. If the 2000 Switch is installed in Slot 5, place the JP1 and JP2 jumpers on the lower two pins and the JP3 and JP4 jumpers
on the higher two pins.
Foxcom Proprietary Information 23
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Installation
Figure 10 - Jumper Installation: 2000 Switch in Slot 5
5. If the 2000 Switch is installed in Slots 2 and 5, place the JP1, JP2, JP3, and JP4 jumpers on the higher two pins.
Figure 11 - Jumper Installation: 2000 Switch in Slots in Slot 2 and 5
Foxcom Proprietary Information 24
Document No. 93-005-39-A1
7310 Installation and User’s Guide
3.6 Aligning the Fiberoptic Cable
The final step in installing the System 7310 is re-adjusting the Receiver Gain
Control for unity gain.
To set the unity gain
1. Connect combiner output to input of Spectrum Analyzer (S.A.).
2. Set Signal Generator 1 to -3 dBm on the S.A. at 1000 MHz.
3. Repeat for S.G.2 at 1010 MHz.
4. Set up the system as shown in Figure 12.
5. Set the Transmitter Gain Control for 3
at the Receiver output.
6. Adjust the Receiver Gain Control for unity gain.
4
:
rd
order intermodulation level of -40 dBc
Installation
Figure 12 - Fiberoptic Alignment Setup
4
If you are unable to perform this procedure refer to Manual Gain Control, page 37.
Input/Output Impedance
Return Loss
Intermodulation Products
Input Signal Range (Total Power)
Output Signal Range (Total Power)
Maximum Input without Damage
CNR
Noise Figure
IMD
Gain Control
Link Gain
RF Connector
5
Product Specifications
10 - 2200 MHz
(2500 MHz optional)
± 2.0 dB (Typical)
± 1.0 dB (Typical)
± 0.15 dB (Typical)
75 Ω (50 Ω option)
13 dB
-40 dBc (max.)
6
-25 to -5 dBm
-25 to -5 dBm
+10 dB
>55 dB in 1 MHz BW
(single channel)
40 dB (Typical)
-40 dBc (Adjustable)
Manual
adjustable ± 10 dB
F type female
(BNC or SMA - optional)
5
At nominal conditions
6
Roughly equivalent to 10 channels of FM @ -50 to -30 dBm/channel
Foxcom Proprietary Information 26
Document No. 93-005-39-A1
7310 Installation and User’s Guide
7310 Specifications Continued
Optical Specifications
Optical Wavelength
Optical Power Output
Optical Connector
Singlemode Fiber Loss
Optical Budget/Distance
Optical Return Loss
Physical Specifications
Chassis Capacity
Chassis Size
Standalone Size
Power for Chassis
Power for Standalone
Transmitter
Receiver
Operating Temperature
Range
Storage Temperature
Product Specifications
1310 ± 10 nm
0.4 to 1 mW
FC/APC
0.4 dB/km typical
3 dB/2 km
-50 dB
8 Plug-ins
19” x 5.25” x 7.3”
5” x 4.8” x 1.6”
100 to 240 VAC 50/60 Hz
90 Watts (max.)
15 VDC @ 200 mA (max.)
0
(300 mA <10
C)
15 VDC @ 270 mA (max.)
-10° C to 55° C
-20° C to 85° C
All specs are subject to change without prior notice.
Note
Optical fiber plant must be singlemode 9/125 and low reflection. Use FC/APC
connectors only.
Foxcom Proprietary Information 27
Document No. 93-005-39-A1
7310 Installation and User’s Guide
4.2 Model Dimensions
Figure 13 - Unit Dimensions
Product Specifications
Figure 14 - 7180M Chassis Dimensions
Foxcom Proprietary Information 28
Document No. 93-005-39-A1
7310 Installation and User’s Guide
4.3 7310 IFL Pinouts
Table 3 - 7310T Transmitter Pinout
Product Specifications
Standalone
9 Pin
Connector
7180M
Chassis Back
Panel
2380 Relay
Adaptor
Connector
Name Description
Connector
1 —
—
+15V
Power
200 mA
7
2 — — Spare Not Used
3 J11-P9
J12-P25
J2-P25
J4-P25
GND Chassis Ground
J13-P25
4 J13-P1 to
J13-P8
J4-P1 to J4-P8 RSSI RF Signal Strength
Indicator;
Range 0.2 - 10V
5 J13-P9 to
J13-P16
J4-P9 to J4-P16PDI Measures Laser
Optical Power;
Range -3 to -4V
6 J13-P17 to
J13-P24
7 J12-P1 to
J12-P8
J4-P17 to
J4-P24
J2: P1-P2
P3-P4, P5-P6
P7-P8, P9-P10
P11-P12
LSRI Indicates Laser Bias;
Range -4.5 ± 0.3V
AGCA RF Alarm: Open
collector interface.
8
Sinks current at low
RF, up to 30 mA.
P13-P14
P15-P16
8 J12-P9 to
J12-P16
See Note
Below
OPTA Optical Alarm: Open
collector interface.
9
Sinks current at low
optical, up to 30 mA
9
J11-P1 to
—
Spare Not Used
J11-P6
*Dependent on Order
Note
If a 2380 Relay Adaptor is installed RF and Optical Levels are measured together; the
alarm indicates a problem in either the RF or Optical Levels.
7
300 mA below 100 C
8
If the 2380 Relay Adapter is installed, the alarms are dry contact. Refer to section . Appendix III The 2380
Relay Adaptor
9
If the 2380 Relay Adapter is installed, the alarms are dry contact. Refer to section
Relay Adaptor
Foxcom Proprietary Information 29
.
Appendix III The 2380
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Figure 15 - 7310T Transmitter Pinout
Product Specifications
Foxcom Proprietary Information 30
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Table 4 - 7310R Receiver Pinout
Product Specifications
Standalone 9
Pin
Connector
7180M Chassis
Back Panel
Connector
2380 Relay
Adaptor
Connector
Name Description
(J14)
1 — — +15V
DC 280 mA
Power
2 — — Spare Not Used
3 J11-P9
J12-P25
J2-P25
J4-P25
GND Chassis Ground
J13-P25
4 J13-P1 to
J13-P8
J4-P1 to J4-P8 RSSI RF Signal
Strength Indicator;
Range:
0.25 to 10V
5 J13-P9 to
J13-P16
J4-P9 to J4-P16 PDI Indicates Optical
Power Received:
1V/mW
6 — — Spare Not Used
7 J12-P1to J12-P8 J2: P1-P2
. Sinks
current when RF
level is low, up to
30 mA.
OPTA Optical Alarm:
Open collector
interface
11
. Sinks
current when
optical level is low
up to 30 mA.
9 — — Spare Not Used
Note
If a 2380 Relay Adaptor is installed RF and Optical Levels are measured together; the
alarm indicates a problem in either the RF or Optical Levels.
10
If the 2380 Relay Adapter is installed, the alarms are dry contact. Refer to section Appendix III The
2380 Relay Adaptor.
11
If the 2380 Relay Adapter is installed, the alarms are dry contact. Refer to section Appendix III The
2380 Relay Adaptor.
Foxcom Proprietary Information 31
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Figure 16 - 7310R Receiver Pinout
CAUTION
When monitoring the voltage outputs use a high resistance DVM only.
Product Specifications
Foxcom Proprietary Information 32
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Product Specifications
4.4 7180M Chassis Pinouts12
The unit’s pins are found at the backplane of the 7180M chassis. The 7180M chassis backplane incorporates eight slots. Pinouts
from the nine pin connector at each slot are sent through the backplane assembly to the two 25 pin D connectors, J12 and J13, and
one nine pin connector, J11.
Figure 17 - 7180M Chassis Rear View
Table 5 - 7180M Alarm Connector (J12) Pinouts and Table 6 - 7180M Monitor Connector (J13) Pinout describe the 7180M
pinouts when any Foxcom IFL is installed in the chassis. Any monitor voltages to be measured may be done between the chassis
ground and the required pin.
12
For further information refer to . Appendix V Pinouts, Detailed Information
The 2000 Switch provides optional 1:1 redundancy switching for all
Foxcom Interfacility Links. If the customer chooses to add
redundancy switching to the link, the pin connector jumpers need to be
moved. Detailed instructions on moving the jumpers are provided in
the
Model 2000 1:1 Redundant Switch Installation and User’s Guide
(Document Number 93-010-01).
Product Specifications
13
13
The LNB connector is not used in the 7310.
Foxcom Proprietary Information
36
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Manual Gain Control
5. Manual Gain Control
All internal adjustments have been set up at the factory; the only user adjustments
are input and output RF signal levels accessible from the front panel and described
in the following sections.
To adjust the Transmitter Gain:
1. Set the input power to the expected power level.
2. Set the gain control to the nominal voltage, 3.5V ± 0.5.
To adjust the Receiver Gain:
1. Set the input power to the expected power level.
2. Set the gain to unity gain.
Foxcom Proprietary Information
37
Document No. 93-005-39-A1
7310 Installation and User’s Guide
Trouble Shooting
6. Trouble Shooting
The 7310 IFL was tested before it left the factory. However if you are
experiencing difficulties consult the list below for possible solutions. If your
system is still experiencing problems, attempt to isolate and identify the
malfunctioning unit.
Table 7 - Trouble Shooting
PROBLEM POSSIBLE CAUSE
1. Laser LED not on 1. No DC power to the unit. Possible power
supply problem or AC power input problem.
Check the fuse.
2. Verify LSRI monitor is -4.8 and -4.2V. If not,
laser may have overheated. Disconnect power
or remove plug in and allow to cool. Try again
with better airflow.
3. If an optical power meter is available, measure
the optical power out of the transmitter. The
power should be 0.4 mW to 1 mW. If an optical
power meter is not available, then use another
receiver to determine if there is optical power
emerging from the transmitter (use the 5 meter
jumper cable). If there is no optical power, then
the transmitter unit is malfunctioning.
If any or all the above are not within the
guidelines, the transmitter unit is faulty.
2. Lack of RF signal
present at Receiver, yet
optical power is
functioning.
1. If the unit has an LNB drive option, verify
that the correct LNB bias is coming down the
center of the RF connector at the transmit
site.
2. Verify that the dish is pointed and correctly
receiving satellite signals.
Conclusion: If signal still not present then
Transmitter input stage amplifier is defective.
Contact Foxcom.
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PROBLEM POSSIBLE CAUSE
Trouble Shooting
3. No optical power, LED
not illuminated.
4. Optical power light
illuminated with
disconnected optical
input.
1. There is a break or severe bend in the fiberoptic
cable. Use an optical power meter or another
functioning receiver unit to verify optical
power coming down the fiber.
2. Optical power too low, too many splits, too
long a distance (thus exceeding optical budget).
System may still function without LED
illuminated although at reduced performance.
3. The transmitter is not functioning, see above.
Damaged (leaky) photodiode. Unit may still
function, otherwise contact Factory for service.
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Appendix I Cleaning Fiberoptic Connections
7. Appendix I Cleaning Fiberoptic Connections
The unit has an FC/APC (or other optional) angle polished optical connector for
very high optical return loss performance. The units are specified into singlemode
fiber i.e. 9/125 micron core diameter. Full performance is specified only for low
return loss optical plant - meaning that the fiber must be fusion spliced and all
connections or splices must have a return loss greater than -60 dB. With these
guidelines in mind, link lengths beyond 20 kilometers (DFB based products) can
be achieved with high performance. Specific performance and/or design assistance
is available by request from Foxcom.
If there is low/no signal or noisy signal at a Foxcom module, the connector should
be cleaned. Dirt on the inside connector tip can impair the flow of light causing
problems in signal transmission. Foxcom modules are sealed but dirt can
occasionally enter during installation and alignment.
The input and output optical ports of all OnePath Networks equipment are known
in the fiber optic world as bulkhead ports. The two bulkhead types used on
Foxcom equipment are either the FC/APC or SC/APC type.
The purpose of this document is to define the cleaning procedure for the SC/APC
and FC/APC bulkhead fiberoptic ports and for the SC/APC and FC/APC fiberoptic
connectors which are connected to the bulkhead ports.
The following materials are representative of the types of cleaning materials that
should be used for cleaning the fiberoptic ports and connectors. They are available
from several suppliers.
Description Manufacturer
Kimwipes Kimberly Clark
Cletop Automatic Connector Cleaner Cletop
Fiberoptic Swab Cletop or FIS
Fiberoptic Compressed Air Chemtronics
Wiping clothes should be made of lint free alcohol free nonabrasive materials.
Swabs should have a tightly wrapped tip and be talcum free. For removing dust
from receptacles, a canned compressed gas is recommended. Do not use
commercial compressed air because of risk of contamination.
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Appendix I Cleaning Fiberoptic Connections
7.1 Cleaning Procedures for SC/APC or FC/APC
Connectors
Use a Kim Wipe to gently wipe the end face surface of the connector.
Alternatively a Cletop automatic connector cleaner can be used.
Figure 19 - Wiping the Connector with a Kim Wipe
Figure 20 - Wiping the Connector with a Kim Wipe (2)
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Appendix I Cleaning Fiberoptic Connections
7.2 Cleaning Procedure for SC/APC or FC/APC
Bulkhead Ports
CAUTION
Clean the transmitter and receiver optical ports only when there is
evidence of contamination or reduced performance.
7.2.1 Swab Method
Using a clean fiber optic cleaning swab, gently wipe out the optical
port. Discard the swab after use.
Figure 21 - Cleaning the Optical Port
Figure 22 - Cleaning the Optical Port (2)
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Appendix II Installing a Standalone Unit
7.2.2 Compressed Air Method
Using the extension tube of the compressed air, blow into the port to
remove any dust or debris. Do not allow the tube to touch the bottom
of the port. Do not use commercial compressed air due to potential oil
contamination.
Note
To prevent contamination, the optical ports should be connected or
covered with a dust cap at all times.
8. Appendix II Installing a Standalone Unit
To install the 7310T-STD or 7310R-STD:
1. Place the 7310 unit on the standalone flange, matching the holes.
2. Using four screws (#4 or #6) secure the unit and the flange to the wall.
3. Using the Foxcom Power Adapter, apply DC power to each unit (9 pin
connector). The Laser or Opt. LED should be lit.
3. All remaining steps are the same. Refer to Setting Up the Transmitter on page
18, and Setting Up the Receiver on page 19.
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Appendix III The 2380 Relay Adaptor
9. Appendix III The 2380 Relay Adaptor
The following section describes how to install the 2380 Relay Adaptor onto the
7180M Chassis. The 2380 Relay Adaptor assembly provides dry contact output
signals as an option to the standard open collector signals available on the 7180M
chassis backplane.
If the 2380 Relay Adaptor is ordered separately from the 7180M chassis, it must
be mounted by the user. The 2380 is easily mounted directly over the connectors
on the 7180M backplane, as shown below.
9.1 Installing the 2380 - Parts Needed
• 2380 Relay Adapter
• Two pin guides
• Four one inch screws
• Screw driver
9.2 Installing the 2380 - Procedure
To mount to the 2380 Relay Adapter:
WARNING
DO NOT PERFORM THIS PROCEDURE BEFORE DISCONNECTING
THE ELECTRICITY
1. Disconnect the electricity.
2. Make sure that you have all the needed equipment.
3. Install the pin guides.
Figure 23 - Mounting the Chassis and Adaptor - Detail
4. Mount the unit onto the pin guides.
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Appendix III The 2380 Relay Adaptor
Figure 24 - Mounting the Pins and Adaptor
5. Mount the four screws. The screws must be installed in the order shown
in Figure 25 and Figure 26.
Figure 25 - Mounting the Screws (1)
Figure 26 - Mounting the Screws (2)
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Appendix III The 2380 Relay Adaptor
CAUTION
Use only the mounting screws provided by Foxcom. Using other screws
can permanently damage the unit!
Figure 27 - Mounted 2380
6. Connect the cables.
9.3 2380 Dimensions and Front Panel Label
Figure 28 - 2380 Dimensions
Figure 29 - 2380 Front Label
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9.4 2380 Pinouts
The following table details the 2380 Alarms pinouts.
The 7100M Chassis is a standard Foxcom Chassis which holds up to 6 modules.
If 7310 IFL is being installed into a 7100M the following information should be
used for installing and checking the unit.
10.1 Equipment Safety
To avoid damaging your product, please observe the following:
1. Fuses: To avoid possibility of fire hazard, always replace fuses with the
same type and rating of fuse as recommended on the power supply rear
label.
In the US/Canada 1A fuses must be used (refer to page 71).
In Europe/Asia/South America 0.5A fuses must be used.
2. The transmitter and receiver output are DC coupled and can withstand the
bias from a satellite receiver. Do not exceed 25V DC bias.
3. Do not allow any dirt or foreign material to get into the optical connector
bulkheads. This may cause damage to the polished optical connector end
faces.
4. The optical fiber jumper cable bend radius is 3 cm. Smaller radii can
cause excessive optical loss and/or fiber breakage.
5. If multiple transmitters are installed in the chassis allow sufficient room
for adequate ventilation; otherwise the units may overheat causing possible
safety hazard or equipment damage.
6. When several units are installed on one 7100M chassis, ensure that the
total units’ current (including any LNB bias) does not exceed 2A per power
supply.
CAUTION
If several units in one chassis use the LNB option, the total current may
exceed 2A. Over current in this configuration and a failure of one
power supply may blow the fuse in the spare power supply.
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Appendix IV 7100M Chassis
10.2 Installation
The following section details the steps in the installation process which
differ from units installed in the 7180M Chassis. All other steps are the
same.
CAUTION
By default, a 7000 IFL installed in a 7100M is set to 230V. To change the
voltage to 115V, refer to page 71, Changing the VAC.
Observe all warnings and cautions mentioned at the beginning of this manual
(page 11). If after set-up you experience problems, refer to Trouble
Shooting, page 38.
10.2.1 Setting up the Transmitter
1. Place the 7310T in the chassis. The operating base plate
temperature must be between -10° C to 55° C.
2. Apply AC power to the chassis. The Laser LED should be lit.
3. Using an optical power meter, measure the optical power. Insert
the meter’s cable into the Transmitter’s optical connector. Power
levels should be between 0.4 - 1.0 mW.
• pins J10-P13 through J10-P18 for the slot being measured
(Refer to Table 13 on page 64 for details regarding J10 pinouts)
(7100M Rackmount)
• at pin #6 of the 9 pin connector (standalone)
The voltage level should be -4.5 ± 0.3VDC.
4. On the rear panel, connect the coax cable to the RF Input
Connector. The Laser LED should be lit.
5. On the rear panel, connect the fiberoptic cable to the Optical
Connector.
6. Adjust the Gain Control Potentiometer to give the desired output power.
Using a small screw driver, turn the potentiometer (located on the front
panel) to increase or decrease the gain.
• To increase the gain, turn the gain control clockwise.
• To decrease the gain, turn the gain control counterclockwise.
For more information refer to Aligning the Fiberoptic Cable on page 25.
Note
The potentiometer is 10 turns potentiometer.
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Appendix IV 7100M Chassis
Note
If either LED is not lit, refer to Trouble Shooting on page 37.
CAUTION
When monitoring the voltage outputs use a high resistance DVM only.
10.2.2 Setting Up the Receiver
1. Place the 7310R Receiver in slot 1, 3, 4, or 6 of the 7100M Chassis
(refer to Figure 7, page 22)
15
. The operating base plate temperature
must be between -10° C to 55° C.
2. Apply AC power to the chassis. The Power Supply’s LED should
be lit.
3. On the rear panel connect the fiberoptic cable to the Optical
Connector. The Opt. LED should be lit.
4. Using an optical power meter, measure the optical power coming to
the Receiver from the fiberoptic cable. The power levels of the
Receiver should be the power level measured at the Transmitter minus
the fiber loss
16
.
Alternatively, use a DVM to measure the voltage at:
• pins J10-P7 through J10-P12 for the slot being measured (Refer
to Table 13 on page 64 for details for details regarding J10
pinouts) (7100M Rackmount). The voltage level should be 1V
for each 1 mW measured at the Receiver input.
• at pin #6 of the 9 pin connector (standalone)
5. On the rear panel, connect the fiberoptic cable to the Optical
Connector. The Opt. LED should be lit.
6. On the rear panel, connect the coax cable to the RF Output
Connector.
Note
If either LED is not lit, refer to Trouble Shooting on page 37.
15
If the 2000 RF Switch is being installed in slots 2 or 5 of the 7100M. If the 2000 RF Switch is
not being installed, then the 7000R can be placed in slots 1 - 6.
16
Fiber loss is defined as:
(0.4 dB/km x length (km) of the fiberoptic cable) + (0.5 dB x number of connectors).
For example if a link was 10 kilometers long and had two connectors the loss would be:
(0.4 dB/km x 10 km) + (0.5 dB x 2) = 5.0 dB.
A 6 dB loss is equivalent to a 4 times loss (i.e. 25% of original launched power)
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10.2.3 Powering the IFL
Transmitter power requirement: 15VDC @ 200mA.
Receiver power requirement: 15VDC @ 270mA.
The Standalone Transmitter/Receiver is powered by a
user-supplied external DC power supply.
The Rackmount Transmitters/Receivers are plugged into the
rackmount chassis. The chassis can accept and power up to six
units.
Note
Appendix IV 7100M Chassis
At temperatures below -10
°
C, the Transmitter’s internal heater will
require an additional 100 mA. The Transmitter’s total power
requirement will then be 300 mA.
CAUTION
Ensure that there is a good airflow around the chassis
rackmount.
Note
By default the power supply is set to 230V (0.5A).
7100M Chassis
The 7100M Chassis provides power to the plug in units. The power
supply is a linear unregulated type. Each plug-in regulates its own
voltage. The power supply provides:
• 15 to 18 VDC (unregulated) @ 2.2 amps power
17
• AC input @ 110/220 VAC (user selected)
• Units can be plugged in “hot standby”
• An internal 5 amp fuse (refer to Appendix IV , page 49 for the
fuse part numbers)
Note
By default the power supply is set to 220V (0.5A).
17
For instructions on how to change the VAC fuse refer to page 49, Appendix IV .
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7000S (Optional) Hot Standby Power Supply
For applications demanding the utmost in reliability and uptime, the
7000S standby power supply can be optionally plugged in to the
standard chassis. The 7000S features hot swapping - supplies may
be installed and removed even during operation. Each power supply
is fully redundant and can power a completely loaded chassis on its
own should its "partner" fail. During normal operation the two units
share the load by means of current steering diodes located on the
rear panel.
Appendix IV 7100M Chassis
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7310 Installation and User’s Guide Appendix IV 7100M Chassis
Figure 31 - 7100M Chassis Rear View
10.2.4 Connecting the Back Panel Jumpers
On the rear panel of the 7100M Back Panel are product connectors (JP1 to JP4). The 3 pin connectors (male) are the
connecting point between the slots and the back panel. One pin is for the Tx/Rx, one is for the 2000 RF Switch, and one is
for the 7100M. A 2 pin jumper (female) is placed on the relevant pins to complete the connection between the 7100M and
the units. For example, if a 2000 RF Switch is being used, the jumper is placed on the Switch-7100M pins.
To connect the jumpers:
1. Each jumper has two sets of pins, upper and lower. The upper pins are labeled SW (Switch) and the lower pins Tx/Rx
(Transmitter/Receiver).
2. If the 7100M has Tx or Rx units only, place all jumpers on the lower two pins.
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Figure 32 - Jumper Installation: Tx and Rx Only
3. If the 2000 Switch is installed in Slot 2, place the JP1 and JP2 jumpers on the higher two pins and the JP3 and JP4
jumpers on the lower two pins.
Figure 33 - Jumper Installation: 2000 Switch in Slot 2
4. If the 2000 Switch is installed in Slot 5, place the JP1 and JP2 jumpers on the lower two pins and the JP3 and JP4
jumpers on the higher two pins.
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Figure 34 - Jumper Installation: 2000 Switch in Slot 5
5. If the 2000 Switch is installed in Slots 2 and 5, place the JP1, JP2, JP3, and JP4 jumpers on the higher two pins.
Figure 35 - Jumper Installation: 2000 Switch in Slots 2 and 5
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Figure 36 - Unit Dimensions
Appendix IV 7100M Chassis
Figure 37 - 7100M Chassis Dimensions
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10.3 7310 IFL Pinouts (7100M Chassis)
Table 10 - 7310T Transmitter Pinout
Appendix IV 7100M Chassis
Standalone
9 Pin
Connector
7100M Chassis
Back Panel
Connector
2300 Relay
Adaptor
Connector
Name Description
(J14)
1 — — +15V Power 200 mA18
2 — — Spare Not Used
3 J9-P25
J10-P25
J2-P25
J4-P25
GND Chassis Ground
J11-9
4 J10-P1 to
J10-P6
J4-P1 to
J4-P6
RSSI RF Signal Strength
Indicator;
Range 0.2 - 10V
5 J10-P7 to
J10-P12
J4-P7 to
J4-P12
PDI Indicates Laser
Optical Power;
Range -3 to -4V
6 J10-P13 to
J10-P18
7 J9P1-J9P6 J2-P2, P5,
J4-P13 to
J4-P18
P8, P11, P14,
P17
LSRI Indicates Laser Bias;
Range -4.5 ± 0.3V
RF Alarm RF Alarm: Open
collector interface.
19
Sinks current at low
RF up to 30 mA
8 J9-P14 to
J9-P19
J2-P1, P4,
P7, P10, P13,
P16
OPTA Optical Alarm: Open
collector interface.
20
Sinks current at low
optical up to 30 mA
9 J11-P1 to
— Spare Not Used
J11-P6
18
300 mA below 100 C
19
If the 2300 Relay Adapter is installed, the alarms are dry contact.
20
If the 2300 Relay Adapter is installed, the alarms are dry contact.
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Figure 38 - 7310T Transmitter Pinout
CAUTION
Appendix IV 7100M Chassis
When monitoring the voltage outputs use only a high resistance DVM.
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Table 11 - 7310R Receiver Pinout
Appendix IV 7100M Chassis
Standalone 9
Pin
Connector
7100M Chassis
Pin Back Panel
Connector
2300 Relay
Adaptor
Connector
Name Description
(J14)
1 — — +15V Power 270 mA
2 — — Spare Not Used
3 J9-P25
J10-P25
J2-P25
J4-P25
GND Chassis Ground
J11-P9
4 J10-P1 to
J10-P6
J4-P1 to
J4-P6
RSSI RF Signal
Strength Indicator;
Range 0.25 to 10V
5 J10-P7 to
J10-P12
J4-P7 to
J4-P12
PDI 1V/mW Optical
Power Received
6 — — Spare Not Used
7 J9-P1 to J9-P6 J2-P2, P5, P8,
P11, P14, P17
RF Alarm RF Alarm: Open
collector
interface
21
. Sinks
current when RF
level is low up to
30 mA.
8 J9-P14 to
J9-P19
J2-P1, P4, P7,
P10, P13, P16
OPTA Optical Alarm:
Open collector
interface
22
. Sinks
current when
optical level is low
up to 30 mA.
9 — — Spare Not Used
21
If the 2300 Relay Adapter is installed, the alarms are dry contact.
22
If the 2300 Relay Adapter is installed, the alarms are dry contact.
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Appendix IV 7100M Chassis
Figure 39 - 7310R Receiver Pinout
CAUTION
When monitoring the voltage outputs use a high resistance DVM only.
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Appendix IV 7100M Chassis
10.4 7100M Pinouts
The unit’s pins are found at the backplane of the 7100M chassis. The
7100M backplane incorporates 6 slots. Pinouts from the nine pin connector
at each slot are sent through the backplane assembly to the two 25 pin D
connectors, J9 and J10, and one nine pin connector, J11. Any monitor
voltages to be measured may be done between the chassis ground and the
required pin.
The 2000 Switch provides optional 1:1 redundancy switching for all
Foxcom Interfacility Links. If the customer chooses to add
redundancy switching to the link, the pin connector jumpers need to be
moved. Detailed instructions on moving the jumpers are provided in
the Model 2000 1:1 Redundant Switch Installation and User’s Guide
(Document Number 93-010-01).
23
The LNB connector is not used in the 7310.
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Appendix IV 7100M Chassis
10.5 The 2300 Relay Adaptor
The following section describes how to install the 2300 Relay Adaptor onto
the 7100M Chassis. The 2300 Relay Adaptor assembly provides dry contact
outputs as an option to the standard open collector signals available on the
7100M chassis backplane.
If the 2300 Relay Adaptor is ordered separately from the 7100M chassis, it
must be mounted by the user. The 2300 is easily mounted directly over the
connectors on the 7100M backplane, as shown below.
10.5.1 Installing the 2300 - Parts Needed
• 2300 Relay Adapter
• Two pin guides
• Four one inch screws
• Screw driver
10.5.2 Installing the 2300 - Procedure
To mount to the 2300 Relay Adapter:
WARNING
DO NOT PERFORM THIS PROCEDURE BEFORE
DISCONNECTING THE ELECTRICITY
1. Disconnect the electricity.
2. Make sure that you have all the needed equipment.
3. Install the pin guides.
Figure 41 - Mounting the Chassis and Adaptor - Detail
4. Mount the unit onto the pin guides.
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Figure 42 - Mounting the Pins and Adaptor
Appendix IV 7100M Chassis
5. Mount the four screws. The screws must be installed in the order
shown in and Figure 44.
Figure 43 - Mounting the Screws (1) Figure 44 - Mounting the Screws (2)
CAUTION
Use only the mounting screws provided by Foxcom. Using other
screws can permanently damage the unit!
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Figure 45 - Mounted 2300
6. Connect the cables.
10.5.3 2300 Dimensions and Front Panel Label
Appendix IV 7100M Chassis
Figure 46 - 2300 Dimensions
Figure 47 - 2300 Front Label
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10.5.4 2300 Pinouts
The following table details the 2300 Alarms pinouts.