Moxa Technologies ETHERDEVICE EDS-305 Manual

Moxa EtherDevice Switch
EDS-305
Hardware Installation Guide
Eighth Edition, September 2010
©2010 Moxa Inc. All rights reserved.
Reproduction without permission is prohibited.
Fl.4, No.135, Lane 235, Pao-Chiao Rd. Shing Tien City, Taipei, Taiwan,
R.O.C.
TEL: [phone]
P/N: 1802003050030

- 2 -
Overview
Moxa’s EtherDevice™ EDS-305 are smart Ethernet switches that provide an
economical solution for your Ethernet connections. As an added bonus, the
built-in smart alarm function helps system maintainers monitor the health of
your Ethernet network.
The EDS-305 have a wide operating temperature range of -40 to 75ºC, and are
designed to withstand a high degree of vibration and shock. The rugged
hardware design makes either model perfect for ensuring that your Ethernet
equipment can withstand critical industrial applications, and complies with
FCC and CE Standards.
NOTE Throughout this Hardware Installation Guide, we use EDS as an
abbreviation for Moxa EtherDevice Switch:
EDS = Moxa EtherDevice Switch
Package Checklist
Your EDS is shipped with the following items. If any of these items is missing
or damaged, please contact your customer service representative for assistance.
yMoxa EtherDevice™ Switch
yHardware Installation Guide
yMoxa Product Warranty booklet
yProtective caps for unused ports
Features
High Performance Network Switching Technology
y10/100BaseT(X) (RJ45), 100BaseFX (SC/ST-type, Multi/Single mode)
yIEEE802.3/802.3u/802.3x
yStore and Forward switching process type, with 1024 address entries
y10/100M, Full/Half-Duplex, MDI/MDIX auto-sensing
Industrial Grade Reliablity
yPower failure, port break alarm by relay output
yRedundant dual DC power inputs
Rugged Design
yOperating temperature range from 0 to 60ºC, or extended operating
temperature from -40 to 75ºC for “-T” models
yIP30, rugged high-strength case
yDIN-rail or panel mounting ability
WARNING
The power for this product is intended to be supplied by a Listed
Power Supply, with output marked LPS, and rated to deliver 12 to
48 VDC at a maximum of 0.6A.
The DC jack should be used with an LPS unit that is rated to
deliver 12 to 48 VDC at a minimum of 1.1A. The product should
not be disassembled by operators or service people.

- 3 -
Panel Layout
EDS-305
Front Panel View
5
6
7
8
9
10
11
2
V1 V2 INPUTS: 24 VDC
PWR2
V2+
V2-
V1-
V1+
12345
ON DIP
PORT ALARM
FAULT
PWR1
Top Panel View
1
2
3
4
1
Rear Panel View
2
13
12
12
1. Grounding screw
2. Terminal block for power inputs
PWR1/PWR2 and relay output
3. Heat dissipation orifices
4. DIP switches
5. Power input PWR1 LED
6. Power input PWR2 LED
7. Fault LED
8. 10/100BaseT(X) Port
9. TP port’s 100 Mbps LED
10. TP port’s 10 Mbps LED
11. Model Name
12. Screw holes for wall mounting
kit
13. DIN-rail Kit

- 4 -
Panel Layout (SC-type)
V1 V2 INPUTS: 24 VDC
PWR2
V2+
V2-
V1-
V1+
12345
ON DIP
PORT ALARM
FAULT
PWR1
Top Panel View
1
2
3
4
1
Rear Panel View
2
15
14
14
EDS-305-M-SC
Front Panel View
12
13
5
6
7
9
10
11
2
8
NOTE: The appearance of
EDS-305-S-SC is identical to
EDS-305-M-SC
1. Grounding screw
2. Terminal block for power inputs
PWR1/PWR2 and relay output
3. Heat dissipation orifices
4. DIP switches
5. Power input PWR1 LED
6. Power input PWR2 LED
7. Fault LED
8. 10/100BaseT(X) Port
9. TP port’s 100 Mbps LED
10. TP port’s 10 Mbps LED
11. Model Name
12. 100BaseFX Port
13. FX port’s 100 Mbps LED
14. Screw holes for wall mounting
kit
15. DIN-rail Kit

- 5 -
Panel Layout (ST-type)
V1 V2 INPUTS: 24 VDC
PWR2
V2+
V2-
V1-
V1+
12345
ON DIP
PORT ALARM
FAULT
PWR1
Top Panel View
1
2
3
4
1
Rear Panel View
2
15
14
14
EDS-305-M-ST
Front Panel View
12
13
5
6
7
9
10
11
2
8
1. Grounding screw
2. Terminal block for power
input PWR1/PWR2 and relay
output
3. Heat dissipation orifices
4. DIP switches
5. Power input PWR1 LED
6. Power input PWR2 LED
7. Fault LED
8. 10/100BaseT(X) Port
9. TP port’s 100 Mbps LED
10. TP port’s 10 Mbps LED
11. Model Name
12. 100BaseFX Port
13. 100 Mbps LEDfor FX port
14. Screw hole for wall mounting
kit
15. DIN-rail Kit
16. 100 Mbps LED for FX port 7
17. 100 Mbps LED for FX port 8
18. 100 Mbps LED for FX port 9

- 6 -
Mounting Dimensions (unit = mm)
Rear View
Side View
Front View
DlN-Rail Kit
DlN-Rail Kit
DlN-Rail
105.00
9.00 19.80
35.00
30.00
135.00
13.10 25.40
15.10
53.60
135.00
23.15 46.77 39.37 25.71
13 18 13
27.20
48.30
Wall Mounting Kit
3.5
6
13.9 18.2
6
13.9
10
10
5
7.75 30.50 7.75
66.80
57.05
++
++
DIN-rail Mounting
The aluminum DIN-rail attachment plate should already be fixed to the back
panel of the EDS when you take it out of the box. If you need to reattach the
DIN-rail attachment plate, make sure the stiff metal spring is situated towards
the top, as shown in the figures below.
STEP 1:
Insert the top of the DIN-rail into the
slot just below the stiff metal spring.
STEP 2:
The DIN-rail attachment unit will
snap into place as shown below.
metal
spring
DIN-Rail
metal
spring
DIN-Rail
To remove the EDS from the DIN-rail, simply reverse Steps 1 and 2 above.

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Wall Mounting (optional)
For some applications, you will find it convenient to mount the EDS on the
wall, as illustrated below.
STEP 1:
Remove the aluminum DIN-rail
attachment plate from the
EDS’s rear panel, and then
attach the wall mount plates, as
shown in the diagram below. ⇒
top
plate
bottom
plate
STEP 2:
Mounting the EDS on the wall requires 4 screws. Use the
switch, with wall mount plates attached, as a guide to mark
the correct locations of the 4 screws. The heads of the
screws should be less than 6.0 mm in diameter, and the
shafts should be less than 3.5 mm in diameter, as shown in
the figure at the right.
6.0 mm
3.5 mm
NOTE Before tightening screws into the wall, make sure the screw head and
shank size are suitable by inserting the screw into one of the keyhole-
shaped apertures of the Wall Mounting Plates.
Do not screw the screws in all the way—leave about 2 mm to allow room for
sliding the wall mount panel between the wall and the screws.
STEP 3:
Once the screws are fixed in the
wall, insert the four screw heads
through the large parts of the
keyhole-shaped apertures, and then
slide the EDS downwards, as
indicated. Tighten the four screws
for added stability.
⇒
II 3G
ATEX Information
1. Certification number DEMKO 09 ATEX 0812123X
2. Ambient range (-40°C ≤Tamb ≤75°C)
3. Certification string (Ex nC nL IIC T4)
4. Standards covered ( EN60079-0:2006, EN60079-15:2005)
5. The conditions of safe usage:
yThe Ethernet Communication Devices are to be mounted in an IP54
enclosure and used in an area of not more than pollution degree 2 as
defined by IEC60664-1.
yA 4mm2 conductor must be used when connection to the external
grounding screw is utilized.
yConductors suitable for use in an ambient temperature of 93°C must be
used for the Power Supply Terminal. Provisions shall be made to
prevent the rated voltage being exceeded by the transient disturbances
of more than 40%.

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Wiring Requirements
WARNING
Do not disconnect modules or wires unless the power supply has
been switched off or the area is known to be non-hazardous. The
devices may only be connected to the supply voltage shown on
the type plate.
The devices are designed for operation with a Safety Extra-Low
Voltage. Thus, they may only be connected to the supply voltage
connections and to the signal contact with the Safety Extra-Low
Voltages (SELV) in compliance with IEC950/ EN60950/
VDE0805.
WARNING
Substitution of components may impair suitability for Class I,
Division 2, and Zone 2. These devices must be supplied by an
SELV source as defined in Low Voltage Directive 73/23/EEC
and 93/68/EEC.
WARNING
This unit is a built-in type. When the unit is installed in another
p
iece of equipment, the equipment enclosing the unit must
comply with fire enclosure regulation IEC 60950/EN60950 (or
similar regulation).
WARNING
Safety First!
Be sure to disconnect the power cord before installing and/or
wiring your Moxa EtherDevice Switch.
Calculate the maximum possible current in each power wire and
common wire. Observe all electrical codes dictating the
maximum current allowable for each wire size.
If the current goes above the maximum ratings, the wiring could
overheat, causing serious damage to your equipment.
You should also pay attention to the following items:
yUse separate paths to route wiring for power and devices. If power wiring
and device wiring paths must cross, make sure the wires are perpendicular
at the intersection point.
yNOTE: Do not run signal or communications wiring and power wiring in
the same wire conduit. To avoid interference, wires with different signal
characteristics should be routed separately.
yYou can use the type of signal transmitted through a wire to determine
which wires should be kept separate. The rule of thumb is that wiring that
shares similar electrical characteristics can be bundled together.
yKeep input wiring and output wiring separated.
yIt is strongly advised that you label wiring to all devices in the system when
necessary.

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Grounding the EtherDevice Switch
Grounding and wire routing help limit the effects of noise due to
electromagnetic interference (EMI). Run the ground connection from the
ground screw to the grounding surface prior to connecting devices.
ATTENTION
This product is intended to be mounted to a well-grounded
mounting surface, such as a metal panel.
Wiring the Alarm Contact
The Alarm Contact consists of the two middle contacts of the terminal block on
EDS’s top panel. You may refer to the next section for detailed instructions on
how to connect the wires to the terminal block connector, and how to attach the
terminal block connector to the terminal block receptor. In this section, we
explain the meaning of the two contacts used to connect the Alarm Contact.
FAULT
FAULT
Top View
Front View
FAULT: The two middle contacts of the
6-contact terminal block connector are used to
detect both power faults and port faults. The
two wires attached to the Fault contacts form
an open circuit when:
1. The EDS has lost power from one of the
DC power inputs.
OR
2. One of the ports for which the
corresponding PORT ALARM DIP Switch
is set to ON is not properly connected.
If neither of these two conditions is satisfied,
the Fault circuit will be closed.
Wiring the Redundant Power Inputs
The top two contacts and the bottom two contacts of the 6-contact terminal
block connector on the EDS’s top panel are used for the EDS’s two DC inputs.
Top and front views of one of the terminal block connectors are shown here.
Top View
Front View
STEP 1: Insert the negative/positive DC wires
into the V-/V+ terminals.
STEP 2: To keep the DC wires from pulling
loose, use a small flat-blade screwdriver to
tighten the wire-clamp screws on the front of the
terminal block connector.
STEP 3: Insert the plastic terminal block
connector prongs into the terminal block
receptor, which is located on the EDS’s top
panel.

- 10 -
ATTENTION
Before connecting the EDS to the DC power inputs, make sure
the DC power source voltage is stable.
Communication Connections
EDS-305 models have 4 or 5 10/100BaseT(X) Ethernet ports, and 1 or 0 (zero)
100 BaseFX (SC/ST-type connector) fiber ports.
10/100BaseT(X) Ethernet Port Connection
The 10/100BaseT(X) ports located on the EDS’s front panel are used to
connect to Ethernet-enabled devices.
Below we show pinouts for both MDI (NIC-type) ports and MDI-X
(HUB/Switch-type) ports, and also show cable wiring diagrams for
straight-through and cross-over Ethernet cables.
MDI Port Pinouts MDI-X Port Pinouts 8-pin RJ45
Pin Signal Pin Signal
1 Tx+ 1 Rx+
2 Tx- 2 Rx-
3 Rx+ 3 Tx+
6 Rx- 6 Tx-
RJ45 (8-pin) to RJ45 (8-pin) Straight-Through Cable Wiring
Straight-Through Cable
RJ45 Plug Pin 1
Switch Port
RJ45
Connector RJ45 Connecto
r
Tx+
Tx-
Rx+
Rx-
NIC Port
Cable Wiring
3 3
6 6
1 1
2 2
Rx+
Rx-
Tx+
Tx-
RJ45 (8-pin) to RJ45 (8-pin) Cross-Over Cable Wiring
Cross-Over Cable
RJ45 Plug Pin 1
Switch Port
(NIC Port)
RJ45
Connector RJ45 Connector
Tx+
Tx-
Rx+
Rx-
(Rx+)
(Rx-)
(Tx+)
(Tx-)
(Tx+)
(Tx-)
(Rx+)
(Rx-)
Switch Port
(NIC Port)
Cable Wiring
3 1
6 2
1 3
2 6
Rx+
Rx-
Tx+
Tx-
100BaseFX Ethernet Port Connection
The concept behind the SC/ST port and cable is quite straightforward. Suppose
you are connecting devices I and II. Contrary to electrical signals, optical
signals do not require a circuit in order to transmit data. Consequently, one of
the optical lines is used to transmit data from device I to device II, and the
other optical line is used transmit data from device II to device I, for
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