ETC HFBR

FDDI, 100 Mbps ATM, and
Fast Ethernet Transceivers
in Low Cost 1x9 Package Style
Data Sheet
HFBR-5103/-5103T
1300 nm 2000 m
Features
Description
• Full Compliance with the
Optical Performance
Requirements of the FDDI
PMD Standard
• Full Compliance with the
FDDI LCF-PMD Standard
• Full Compliance with the
Optical Performance
Requirements of the ATM
100 Mbps Physical Layer
• Full Compliance with the
Optical Performance
Requirements of
100 Base-FX Version of
IEEE 802.3u
• Multisourced 1x9 Package
Style with Choice of Duplex
SC or Duplex ST*
Receptacle
• Wave Solder and Aqueous
Wash Process Compatible
• Manufactured in an ISO
9002 Certified Facility
The HFBR-5100 family of transceivers from Agilent
Technologies provide the system
designer with products to
implement a range of FDDI and
ATM (Asynchronous Transfer
Mode) designs at the 100 Mbps/
125 MBd rate.
Applications
These transceivers for 2000 meter
multimode fiber backbones are
supplied in the small 1x9 duplex
SC or ST package style for those
designers who want to avoid the
larger MIC/R (Media Interface
Connector/Receptacle) defined in
the FDDI PMD standard.
• Multimode Fiber Backbone
Links
• Multimode Fiber Wiring
Closet to Desktop Links
• Multimode Fiber Media
Converter
The transceivers are all supplied
in the new industry standard 1x9
SIP package style with either a
duplex SC or a duplex ST*
connector interface.
FDDI PMD, ATM and Fast
Ethernet 2000 m Backbone
Links
The HFBR-5103/-5103T are
1300 nm products with optical
performance compliant with the
FDDI PMD standard. The FDDI
PMD standard is ISO/IEC 9314-3:
1990 and ANSI X3.166 - 1990.
Agilent Technologies also
provides several other FDDI
products compliant with the PMD
*ST is a registered trademark of AT&T Lightguide Cable Connectors.
and SM-PMD standards. These
products are available with MIC/
R, ST© and FC connector styles.
They are available in the 1x13
and 2x11 transceiver and 16 pin
transmitter/receiver package
styles for those designs that
require these alternate
configurations.
The HFBR-5103/-5103T is also
useful for both ATM 100 Mbps
interfaces and Fast Ethernet 100
Base-FX interfaces. The ATM
Forum User-Network Interface
(UNI) Standard, Version 3.0,
defines the Physical Layer for
100 Mbps Multimode Fiber
Interface for ATM in Section 2.3
to be the FDDI PMD Standard.
Likewise, the Fast Ethernet
Alliance defines the Physical
Layer for 100 Base-FX for Fast
Ethernet to be the FDDI PMD
Standard.
Note: The “T” in the product numbers
indicates a transceiver with a duplex ST
connector receptacle.
Product numbers without a “T” indicate
transceivers with a duplex SC connector
receptacle.
2
ATM applications for physical
layers other than 100 Mbps
Multimode Fiber Interface are
supported by Agilent. Products are
available for both the single mode
and the multimode fiber SONETOC-3C (STS-3C) ATM interface
and the 155 Mbps ATM 94 MBd
multimode fiber ATM interface as
specified in the ATM Forum UNI.
Ordering Information
The HFBR-5103/5103T products
are available for production orders
through the Agilent Component
Field Sales Offices and Authorized
Distributors world wide.
HFBR-5103
T = ST Receptacle
Blank = SC Receptacle
F = Flush Shield
E = Extended Shield
J = Jitter Improved
P = Mezzanine Height
3
Transmitter Sections
The transmitter sections of the
HFBR-5103 series utilize
1300 nm Surface Emitting
InGaAsP LEDs. These LEDs are
packaged in the optical
subassembly portion of the
transmitter section. They are
driven by a custom silicon IC
which converts differential PECL
logic signals, ECL referenced
(shifted) to a +5 Volt supply, into
an analog LED drive current.
Receiver Sections
The receiver sections of the
HFBR-5103 series utilize InGaAs
PIN photodiodes coupled to a
custom silicon transimpedance
preamplifier IC. These are
packaged in the optical subassembly portion of the receiver.
These PIN/preamplifier combinations are coupled to a custom
quantizer IC which provides the
final pulse shaping for the logic
output and the Signal Detect
function. The data output is differential. The signal detect output
is single-ended. Both data and
signal detect outputs are PECL
compatible, ECL referenced
(shifted) to a +5 Volt power
supply.
The package outline drawing and
pin out are shown in Figures 2,
2a and 3. The details of this
package outline and pin out are
compliant with the multisource
definition of the 1x9 SIP. The low
profile of the Agilent transceiver
design complies with the
maximum height allowed for the
duplex SC connector over the
entire length of the package.
The outer housing including the
duplex SC connector receptacle
or the duplex ST ports is molded
of filled non-conductive plastic to
provide mechanical strength and
electrical isolation. The solder
posts of the Agilent design are
isolated from the circuit design of
the transceiver and do not require
connection to a ground plane on
the circuit board.
The optical subassemblies utilize
a high volume assembly process
together with low cost lens
elements which result in a cost
effective building block.
The transceiver is attached to a
printed circuit board with the
nine signal pins and the two
solder posts which exit the
bottom of the housing. The two
solder posts provide the primary
mechanical strength to withstand
the loads imposed on the transceiver by mating with duplex or
simplex SC or ST connectored
fiber cables.
The electrical subassembly consists of a high volume multilayer
printed circuit board on which
the IC chips and various surfacemounted passive circuit elements
are attached.
The package includes internal
shields for the electrical and
optical subassemblies to ensure
low EMI emissions and high
immunity to external EMI fields.
ELECTRICAL SUBASSEMBLY
Package
The overall package concept for
the Agilent transceivers consists
of the following basic elements;
two optical subassemblies, an
electrical subassembly and the
housing as illustrated in Figure 1
and Figure 1a.
DIFFERENTIAL
DATA OUT
PIN PHOTODIODE
SINGLE-ENDED
SIGNAL
DETECT OUT
QUANTIZER IC
PREAMP IC
OPTICAL
SUBASSEMBLIES
DIFFERENTIAL
Figure 2b shows the outline
drawing for options that include
mezzanine height with extended
shield. Figure 2c is the outline
option for mezzanine height with
flush shield.
DUPLEX SC
RECEPTACLE
LED
DATA IN
DRIVER IC
TOP VIEW
Figure 1. SC Block Diagram.
4
ELECTRICAL SUBASSEMBLY
DUPLEX ST
RECEPTACLE
DIFFERENTIAL
DATA OUT
PIN PHOTODIODE
SINGLE-ENDED
SIGNAL
DETECT OUT
QUANTIZER IC
PREAMP IC
OPTICAL
SUBASSEMBLIES
DIFFERENTIAL
LED
DATA IN
DRIVER IC
TOP VIEW
Figure 1a. ST Block Diagram.
39.12
MAX.
(1.540)
25.40
MAX.
(1.000)
A
12.70
(0.500)
6.35
(0.250)
AREA
RESERVED
FOR
PROCESS
PLUG
12.70
(0.500)
HFBR-5XXX
DATE CODE (YYWW)
SINGAPORE
+ 0.08
- 0.05
+ 0.003
)
(0.030
- 0.002
5.93 ± 0.1
(0.233 ± 0.004)
0.75
3.30 ± 0.38
(0.130 ± 0.015)
10.35
MAX.
(0.407)
2.92
(0.115)
ø
23.55
(0.927)
18.52
(0.729)
4.14
(0.163)
0.46
(9x)
(0.018)
NOTE 1
20.32
[8x(2.54/.100)]
(0.800)
16.70
(0.657)
0.87
(0.034)
+ 0.25
- 0.05
+ 0.010
)
(0.050
- 0.002
NOTE 1
1.27
17.32 20.32 23.32
(0.682) (0.800) (0.918)
23.24
(0.915)
15.88
(0.625)
NOTE 1: THE SOLDER POSTS AND ELECTRICAL PINS ARE PHOSPHOR BRONZE WITH TIN LEAD OVER NICKEL PLATING.
DIMENSIONS ARE IN MILLIMETERS (INCHES).
Figure 2. Package Outline Drawing with Standard Height.
5
42 MAX.
(1.654)
5.99
(0.236)
24.8
(0.976)
12.7
(0.500)
25.4
MAX.
(1.000)
HFBR-5103T
DATE CODE (YYWW)
SINGAPORE
+ 0.08
0.5
- 0.05
(0.020) + 0.003
- 0.002
(
12.0
MAX.
(0.471)
3.2
(0.126)
φ 0.46
(0.018)
NOTE 1
3.3 ± 0.38
(0.130) (± 0.015)
20.32 ± 0.38
(± 0.015)
φ 2.6
(0.102)
+ 0.25
- 0.05
+ 0.010
0.050
- 0.002
1.27
(
20.32
17.4
[(8x (2.54/0.100)]
(0.800)
(0.685)
22.86
21.4
(0.900)
(0.843)
3.6
(0.142)
(
20.32
(0.800)
1.3
(0.051)
23.38
(0.921)
18.62
(0.733)
NOTE 1: PHOSPHOR BRONZE IS THE BASE MATERIAL FOR THE POSTS & PINS
WITH TIN LEAD OVER NICKEL PLATING.
DIMENSIONS IN MILLIMETERS (INCHES).
Figure 2a. ST Package Outline Drawing with Standard Height.
(
6
29.6 UNCOMPRESSED
(1.16)
39.6
(1.56) MAX.
4.7
(0.185)
AREA
RESERVED
FOR
PROCESS
PLUG
A
25.4
(1.00)MAX.
12.70
(0.50)
12.7
(0.50)
0.51
SLOT DEPTH (0.02)
+0.1
0.25 -0.05
+0.004
0.010 -0.002
(
)
9.8 MAX.
(0.386)
SLOT WIDTH
2.09 UNCOMPRESSED
(0.08)
10.2 MAX.
(0.40)
1.3
(0.05)
3.3 ± 0.38
(0.130 ± 0.015)
+0.25
0.46 -0.05
9X ∅
+0.010
0.018 -0.002
(
20.32
23.8
(0.937) (0.800)
2X ∅
20.32
(0.80)
2.0 ± 0.1
(0.079 ± 0.004)
15.8 ± 0.15
(0.622 ± 0.006)
)
8X 2.54
(0.100)
2X ∅
+0.25
1.27 -0.05
+0.010
0.050 -0.002
(
20.32
(0.800)
1.3
(0.051)
DIMENSIONS ARE IN MILLIMETERS (INCHES).
ALL DIMENSIONS ARE ± 0.025 mm UNLESS OTHERWISE SPECIFIED.
Figure 2b. Package Outline Drawing – Mezzanine Height with Extended Shield.
)
7
39.6
(1.56) MAX.
12.7
(0.50)
4.7
(0.185)
1.01
(0.40)
AREA
RESERVED
FOR
PROCESS
PLUG
A
25.4
(1.00)MAX.
25.8 MAX.
(1.02)
+0.1
0.25 -0.05
+0.004
0.010 -0.002
(
+0.25
0.46 -0.05
9x ∅
+0.010
0.018 -0.002
(
20.32
23.8
(0.937) (0.800)
2x ∅
SLOT DEPTH 2.2
(0.09)
SLOT WIDTH 2.0 ± 0.1
(0.079 ± 0.004)
14.4
(0.57)
9.8 MAX.
(0.386)
22.0
(0.87)
20.32
(0.800)
15.8 ± 0.15
(0.622 ± 0.006)
)
2x ∅
+0.25
1.27 -0.05
+0.010
0.050 -0.002
(
AREA
RESERVED
FOR
PROCESS
PLUG
8x 2.54
(0.100)
1.3
(0.051)
DIMENSIONS ARE IN MILLIMETERS (INCHES).
ALL DIMENSIONS ARE ± 0.025 mm UNLESS OTHERWISE SPECIFIED.
Figure 2c. Package Outline Drawing – Mezzanine Height with Flush Shield.
1 = VEE
N/C
2 = RD
Rx
3 = RD
4 = SD
5 = VCC
6 = VCC
7 = TD
Tx
8 = TD
N/C
9 = VEE
TOP VIEW
Figure 3. Pin Out Diagram.
12.7
(0.50)
10.2 MAX.
(0.40)
)
3.3 ± 0.38
(0.130 ± 0.015)
29.7
(1.17)
20.32
(0.800)
)
8
The Applications Engineering
group in the Agilent Optical
Communication Division is
available to assist you with the
technical understanding and
design trade-offs associated with
these transceivers. You can
contact them through your
Agilent sales representative.
The following information is
provided to answer some of the
most common questions about
the use of these parts.
Transceiver Optical Power
Budget versus Link Length
Optical Power Budget (OPB) is
the available optical power for a
fiber optic link to accommodate
fiber cable losses plus losses due
to in-line connectors, splices,
optical switches, and to provide
margin for link aging and
unplanned losses due to cable
plant reconfiguration or repair.
Figure 4 illustrates the predicted
OPB associated with the
transceiver series specified in this
data sheet at the Beginning of
Life (BOL). These curves
represent the attenuation and
chromatic plus modal dispersion
losses associated with the 62.5/
125 µm and 50/125 µm fiber
cables only. The area under the
curves represents the remaining
OPB at any link length, which is
available for overcoming nonfiber cable related losses.
Agilent LED technology has
produced 1300 nm LED devices
with lower aging characteristics
than normally associated with
these technologies in the
industry. The industry convention
is 1.5 dB aging for 1300 nm
LEDs. The HP 1300 nm LEDs will
experience less than 1 dB of
aging over normal commercial
equipment mission life periods.
Contact your Agilent sales representative for additional details.
Figure 4 was generated with an
Agilent fiber optic link model
containing the current industry
conventions for fiber cable
specifications and the FDDI PMD
and LCF-PMD optical parameters.
These parameters are reflected in
the guaranteed performance of
the transceiver specifications in
this data sheet. This same model
has been used extensively in the
ANSI and IEEE committees,
including the ANSI X3T9.5
committee, to establish the
optical performance requirements
for various fiber optic interface
standards. The cable parameters
used come from the ISO/IEC
JTC1/SC 25/WG3 Generic
Cabling for Customer Premises
per DIS 11801 document and the
EIA/TIA-568-A Commercial
Building Telecommunications
Cabling Standard per SP-2840.
Transceiver Signaling
Operating Rate Range and
BER Performance
For purposes of definition, the
symbol (Baud) rate, also called
signaling rate, is the reciprocal of
the shortest symbol time. Data
rate (bits/sec) is the symbol rate
divided by the encoding factor
used to encode the data (symbols/
bit).
When used in FDDI and ATM 100
Mbps applications the
performance of the 1300 nm
transceivers is guaranteed over
the signaling rate of 10 MBd to
125 MBd to the full conditions
listed in individual product
specification tables.
The transceivers may be used for
other applications at signaling
rates outside of the 10 MBd to
125 MBd range with some
penalty in the link optical power
budget primarily caused by a
reduction of receiver sensitivity.
Figure 5 gives an indication of
the typical performance of these
1300 nm products at different
rates.
14
OPTICAL POWER BUDGET (dB)
Application Information
12
HFBR-5103, 62.5/125 µm
10
8
6
4
HFBR-5103,
50/125 µm
2
0
0.15 0.5 1.0 1.5 2.0 2.5 3.0 3.5 4.0
FIBER OPTIC CABLE LENGTH (km)
Figure 4. Optical Power Budget at BOL versus
Fiber Optic Cable Length.
9
The Agilent 1300 nm receivers
will tolerate the worst case input
optical jitter allowed in Sections
8.2 Active Input Interface of the
FDDI PMD and LCF-PMD
standards without violating the
worst case output electrical jitter
allowed in the Tables E1 of the
Annexes E.
These transceivers can also be
used for applications which
require different Bit Error Rate
(BER) performance. Figure 6
illustrates the typical trade-off
between link BER and the
receivers input optical power
level.
Transceiver Jitter
Performance
The Agilent 1300 nm transceivers
are designed to operate per the
system jitter allocations stated in
Tables E1 of Annexes E of the
FDDI PMD and LCF-PMD
standards.
The jitter specifications stated in
the following 1300 nm
transceiver specification tables
are derived from the values in
Tables E1 of Annexes E. They
represent the worst case jitter
contribution that the transceivers
are allowed to make to the overall
system jitter without violating the
Annex E allocation example. In
practice the typical contribution
of the Agilent transceivers is well
below these maximum allowed
amounts.
3.0
Care should be used to avoid
shorting the receiver data or
signal detect outputs directly to
ground without proper current
limiting impedance.
Solder and Wash Process
Compatibility
The transceivers are delivered
with protective process plugs
inserted into the duplex SC or
duplex ST connector receptacle.
1 x 10-2
2.5
1 x 10-3
BIT ERROR RATE
TRANSCEIVER RELATIVE OPTICAL POWER BUDGET
AT CONSTANT BER (dB)
The Agilent 1300 nm transmitters
will tolerate the worst case input
electrical jitter allowed in these
tables without violating the worst
case output jitter requirements of
Sections 8.1 Active Output
Interface of the FDDI PMD and
LCF-PMD standards.
Recommended Handling
Precautions
Agilent recommends that normal
static precautions be taken in the
handling and assembly of these
transceivers to prevent damage
which may be induced by
electrostatic discharge (ESD).
The HFBR-5100 series of
transceivers meet MIL-STD-883C
Method 3015.4 Class 2 products.
2.0
1.5
1.0
HFBR-5103/5103T SERIES
1 x 10-4
1 x 10-5
CENTER OF SYMBOL
1 x 10-6
1 x 10-7
1 x 10-8
2.5 x 10-10
1 x 10-11
1 x 10-12
0.5
0
0
25
50
75
100
125
150
175 200
SIGNAL RATE (MBd)
CONDITIONS:
1. PRBS 27-1
2. DATA SAMPLED AT CENTER OF DATA SYMBOL.
3. BER = 10-6
4. TA = 25° C
5. VCC = 5 Vdc
6. INPUT OPTICAL RISE/FALL TIMES = 1.0/2.1 ns.
Figure 5. Transceiver Relative Optical Power Budget
at Constant BER vs. Signaling Rate.
-6
-4
-2
0
2
4
RELATIVE INPUT OPTICAL POWER – dB
CONDITIONS:
1. 125 MBd
2. PRBS 27-1
3. CENTER OF SYMBOL SAMPLING.
4. TA = 25° C
5. VCC = 5 Vdc
6. INPUT OPTICAL RISE/FALL TIMES = 1.0/2.1 ns.
Figure 6. Bit Error Rate vs. Relative Receiver Input
Optical Power.
10
This process plug protects the
optical subassemblies during
wave solder and aqueous wash
processing and acts as a dust
cover during shipping.
These transceivers are compatible with either industry standard
wave or hand solder processes.
Board Layout - Art Work
The Applications Engineering
group has developed Gerber file
artwork for a multilayer printed
circuit board layout incorporating
the recommendations above.
Contact your local Agilent sales
representative for details.
Shipping Container
The transceiver is packaged in a
shipping container designed to
protect it from mechanical and
ESD damage during shipment or
storage.
Board Layout - Decoupling
Circuit and Ground Planes
It is important to take care in the
layout of your circuit board to
achieve optimum performance
from these transceivers. Figure 7
provides a good example of a
schematic for a power supply
decoupling circuit that works well
with these parts. It is further
recommended that a contiguous
ground plane be provided in the
circuit board directly under the
transceiver to provide a low
inductance ground for signal
return current. This recommendation is in keeping with good high
frequency board layout practices.
Board Layout - Hole Pattern
The Agilent transceiver complies
with the circuit board “Common
Transceiver Footprint” hole
pattern defined in the original
multisource announcement which
defined the 1x9 package style.
This drawing is reproduced in
Figure 8 with the addition of
ANSI Y14.5M compliant
dimensioning to be used as a
guide in the mechanical layout of
your circuit board.
Board Layout - Mechanical
For applications providing a
choice of either a duplex SC or a
duplex ST connector interface,
while utilizing the same pinout on
the printed circuit board, the ST
port needs to protrude from the
chassis panel a minimum of
9.53 mm for sufficient clearance
to install the ST connector.
Rx
Tx
NO INTERNAL CONNECTION
NO INTERNAL CONNECTION
HFBR-510X
TOP VIEW
Rx
VEE
1
RD
2
RD
3
SD
4
Rx
VCC
5
Tx
VCC
6
C1
TD
7
TD
8
Tx
VEE
9
C2
VCC
TERMINATION
AT PHY
DEVICE
INPUTS
L1
VCC
R5
C3
R7
TERMINATION
AT TRANSCEIVER
INPUTS
R10
RD
RD
SD
VCC
R4
C5
R9
R8
R3
R1
C4
VCC FILTER
AT VCC PINS
TRANSCEIVER
C6
R6
R2
L2
TD
TD
NOTES:
THE SPLIT-LOAD TERMINATIONS FOR ECL SIGNALS NEED TO BE LOCATED AT THE INPUT
OF DEVICES RECEIVING THOSE ECL SIGNALS. RECOMMEND 4-LAYER PRINTED CIRCUIT
BOARD WITH 50 OHM MICROSTRIP SIGNAL PATHS BE USED.
R1 = R4 = R6 = R8 = R10 = 130 OHMS.
R2 = R3 = R5 = R7 = R9 = 82 OHMS.
C1 = C2 = C3 = C5 = C6 = 0.1 µF.
C4 = 10 µF.
L1 = L2 = 1 µH COIL OR FERRITE INDUCTOR.
Figure 7. Recommended Decoupling and Termination Circuits
11
Please refer to Figure 8a for a
mechanical layout detailing the
recommended location of the
duplex SC and duplex ST transceiver packages in relation to the
chassis panel.
For both shielded design options,
Figures 8b and 8c identify front
panel aperture dimensions.
Regulatory Compliance
These transceiver products are
intended to enable commercial
system designers to develop
equipment that complies with the
various international regulations
governing certification of
Information Technology
Equipment. See the Regulatory
Compliance Table for details.
Additional information is
available from your Agilent sales
representative.
Electrostatic Discharge (ESD)
There are two design cases in
which immunity to ESD damage
is important.
The first case is during handling
of the transceiver prior to mounting it on the circuit board. It is
important to use normal ESD
handling precautions for ESD
sensitive devices. These
precautions include using
grounded wrist straps, work
benches, and floor mats in ESD
controlled areas.
Electromagnetic Interference
(EMI)
Most equipment designs utilizing
these high speed transceivers
from Agilent will be required to
meet the requirements of FCC in
the United States, CENELEC
EN55022 (CISPR 22) in Europe
and VCCI in Japan.
The second case to consider is
static discharges to the exterior
of the equipment chassis containing the transceiver parts. To
the extent that the duplex SC
connector is exposed to the
These products are suitable for
use in designs ranging from a
desktop computer with a single
transceiver to a concentrator or
switch product with a large
number of transceivers.
(2X) ø
20.32
.800
1.9 ± 0.1
.075 ± .004
Ø0.000
(9X) ø
20.32
.800
2.54
.100
TOP VIEW
Figure 8. Recommended Board Layout Hole Pattern
M A
0.8 ± 0.1
.032 ± .004
Ø0.000
(8X)
outside of the equipment chassis
it may be subject to whatever
ESD system level test criteria that
the equipment is intended to
meet.
M A
–A–
12
42.0
12.0
24.8
9.53
(NOTE 1)
0.51
12.09
25.4
39.12
11.1
6.79
0.75
25.4
NOTE 1: MINIMUM DISTANCE FROM FRONT
OF CONNECTOR TO THE PANEL FACE.
Figure 8a. Recommended Common Mechanical Layout for SC and ST 1x9 Connectored Transceivers.
A
13
0.8
2x (0.032)
0.8
2x (0.032)
+ 0.5
10.9 – 0.25
+ 0.02
0.43 – 0.01
(
9.4
(0.374)
6.35
(0.25)
MODULE
PROTRUSION
27.4 ± 0.50
(1.08 ± 0.02)
PCB BOTTOM VIEW
DIMENSIONS ARE IN MILLIMETERS (INCHES).
ALL DIMENSIONS ARE ± 0.025 mm UNLESS OTHERWISE SPECIFIED.
Figure 8b. Dimensions Shown for Mounting Module with Extended Shield to Panel.
)
14
1.98 THICKER PANEL WILL RECESS MODULE.
(0.078) THINNER PANEL WILL PROTRUDE MODULE.
1.27 OPTIONAL SEPTUM
(0.05)
30.2
(1.19)
0.36
(0.014)
KEEP OUT ZONE
10.82
(0.426)
13.82
(0.544)
26.4
(1.04)
BOTTOM SIDE OF PCB
12.0
(0.47)
DIMENSIONS ARE IN MILLIMETERS (INCHES).
ALL DIMENSIONS ARE ± 0.025 mm UNLESS OTHERWISE SPECIFIED.
Figure 8c. Dimensions Shown for Mounting Module with Flush Shield to Panel.
14.73
(0.58)
15
Regulatory Compliance Table
Feature
Electrostatic Discharge
(ESD) to the Electrical
Pins
Test Method
MIL-STD-883C
Method 3015.4
Performance
Meets Class 2 (2000 to 3999 Volts)
Withstand up to 2200 V applied between
electrical pins.
Electrostatic Discharge
(ESD) to the Duplex SC
Receptacle
Electromagnetic
Interference (EMC)
Variation of
IEC 801-2
Typically withstand at least 25 kV without damage
when the Duplex SC Connector Receptacle is
contacted by a Human Body Model probe.
Typically provide a 13 dB margin (with duplex SC
package) or a 9 dB margin (with duplex ST
package) to the noted standard limits when tested
at a certified test range with the transceiver
mounted to a circuit card without a chassis
enclosure.
Immunity
FCC Class B
CENELEC CEN55022
Class B (CISPR 22B)
VCCI Class 2
Variation of IEC 801-3
Typically show no measurable effect from a
10 V/m field swept from 10 to 450 MHz
applied to the transceiver when mounted to a
circuit card without a chassis enclosure.
∆λ – TRANSMITTER OUTPUT OPTICAL
SPECTRAL WIDTH (FWHM) –nm
200
180
160
3.0
1.5
3.5
2.0
140 2.5
120
tr/f – TRANSMITTER
OUTPUT OPTICAL
RISE/FALL TIMES – ns
3.0
3.5
100
1200
1300
1320
1340
1360
1380
λC – TRANSMITTER OUTPUT OPTICAL
CENTER WAVELENGTH –nm
HFBR-5103 FDDI TRANSMITTER TEST RESULTS
OF λC, ∆λ AND tr/f ARE CORRELATED AND
COMPLY WITH THE ALLOWED SPECTRAL WIDTH
AS A FUNCTION OF CENTER WAVELENGTH FOR
VARIOUS RISE AND FALL TIMES.
Figure 9. Transmitter Output Optical Spectral Width (FWHM) vs. Transmitter
Output Optical Center Wavelength and Rise/Fall Times.
16
In all well-designed chassis, two
0.5" holes for ST connectors to
protrude through will provide
4.6 dB more shielding than one
1.2" duplex SC rectangular
cutout. Thus, in a well-designed
chassis, the duplex ST 1x9
transceiver emissions will be
identical to the duplex SC 1x9
transceiver emissions.
For additional information
regarding EMI, susceptibility,
ESD and conducted noise testing
procedures and results on the
1x9 Transceiver family, please
refer to Applications Note 1075,
Testing and Measuring Electromagnetic Compatibility
Performance of the HFBR510X/-520X Fiber Optic
Transceivers.
Immunity
Equipment utilizing these
transceivers will be subject to
radio-frequency electromagnetic
fields in some environments.
These transceivers have a high
immunity to such fields.
and are undergoing ongoing
quality monitoring. Details are
available from your Agilent sales
representative.
These transceivers are manufactured at the Agilent Singapore
location which is an ISO 9002
certified facility.
Transceiver Reliability
and Performance
Qualification Data
The 1x9 transceivers have passed
Agilent reliability and
performance qualification testing
4.40
1.975
1.25
4.850
10.0
5.6
1.025
1.00
0.975
1.525
0.525
0.075
RELATIVE AMPLITUDE
0.90
100% TIME
INTERVAL
40 ± 0.7
0.50
± 0.725
± 0.725
0% TIME
INTERVAL
0.10
0.025
0.0
-0.025
-0.05
0.075
5.6
10.0
1.525
0.525
1.975
4.40
4.850
80 ± 500 ppm
TIME – ns
THE HFBR-5103 OUTPUT OPTICAL PULSE SHAPE SHALL FIT WITHIN THE BOUNDARIES OF THE
PULSE ENVELOPE FOR RISE AND FALL TIME MEASUREMENTS.
Figure 10. Output Optical Pulse Envelope.
17
Applications Support
Materials
Contact your local Agilent
Component Field Sales Office for
information on how to obtain
PCB layouts, test boards and
demo boards for the 1x9
transceivers.
RELATIVE INPUT OPTICAL POWER (dB)
Evaluation Kits
Agilent has available three
evaluation kits for the 1x9
transceivers. The purpose of
these kits is to provide the necessary materials to evaluate the
performance of the HFBR-510X
family in a pre-existing 1x13 or
2x11 pinout system design
configuration or when connectored to various test equipment.
1. HFBR-0319 Evaluation Test
Fixture Board
This test fixture converts +5 V
ECL 1x9 transceivers to –5 V
ECL BNC coax connections so
that direct connections to
industry standard fiber optic
test equipment can be
accomplished.
Accessory Duplex SC Connectored Cable Assemblies
Agilent recommends for optimal
coupling the use of flexible-body
duplex SC connectored cable.
5
HFBR-5103 SERIES
4
3
2.5 x 10-10 BER
2
1.0 x 10-12 BER
1
0
-4
-3
-2
-1
0
1
2
3
4
EYE SAMPLING TIME POSITION (ns)
CONDITIONS:
1.TA = 25° C
2. VCC = 5 Vdc
3. INPUT OPTICAL RISE/FALL TIMES = 1.0/2.1 ns.
4. INPUT OPTICAL POWER IS NORMALIZED TO
CENTER OF DATA SYMBOL.
5. NOTE 20 AND 21 APPLY.
Figure 11. Relative Input Optical Power vs. Eye
Sampling Time Position.
Accessory Duplex ST
Connectored Cable
Assemblies
Agilent recommends the use of
Duplex Push-Pull connectored
cable for the most repeatable
optical power coupling
performance.
18
-31.0 dBm
OPTICAL POWER
MIN (PO + 4.0 dB OR -31.0 dBm)
PA(PO + 1.5 dB < PA < -31.0 dBm)
INPUT OPTICAL POWER
(> 1.5 dB STEP INCREASE)
PO = MAX (PS OR -45.0 dBm)
(PS = INPUT POWER FOR BER < 102)
INPUT OPTICAL POWER
(> 4.0 dB STEP DECREASE)
-45.0 dBm
ANS – MAX
SIGNAL
DETECT
OUTPUT
AS – MAX
SIGNAL – DETECT (ON)
SIGNAL – DETECT (OFF)
TIME
AS – MAX — MAXIMUM ACQUISITION TIME (SIGNAL).
AS – MAX IS THE MAXIMUM SIGNAL – DETECT ASSERTION TIME FOR THE STATION.
AS – MAX SHALL NOT EXCEED 100.0 µs. THE DEFAULT VALUE OF AS – MAX IS 100.0 µs.
ANS – MAX — MAXIMUM ACQUISITION TIME (NO SIGNAL).
ANS – MAX IS THE MAXIMUM SIGNAL – DETECT DEASSERTION TIME FOR THE STATION.
ANS – MAX SHALL NOT EXCEED 350 µs. THE DEFAULT VALUE OF AS – MAX IS 350 µs.
Figure 12. Signal Detect Thresholds and Timing.
HFBR-5103 Series
Absolute Maximum Ratings
Parameter
Storage Temperature
Symbol
Min.
TS
-40
Typ.
Max.
Unit
100
°C
Lead Soldering Temperature
TSOLD
260
°C
Lead Soldering Time
tSOLD
10
sec.
Supply Voltage
VCC
-0.5
7.0
V
Data Input Voltage
VI
-0.5
VCC
V
Differential Input Voltage
VD
1.4
V
Output Current
IO
50
mA
Reference
Note 1
19
HFBR-5103 Series
Recommended Operating Conditions
Parameter
Symbol
Min.
Ambient Operating Temperature
TA
Supply Voltage
Max.
Unit
0
70
°C
VCC
4.75
5.25
V
Data Input Voltage - Low
VIL - VCC
-1.810
-1.475
V
Data Input Voltage - High
VIH - VCC
-1.165
-0.880
V
Data and Signal Detect Output Load
Typ.
RL
50
Reference
Ω
Note 2
Transmitter Electrical Characteristics
(TA = 0°C to 70°C, VCC = 4.75 V to 5.25 V)
Parameter
Symbol
Typ.
Max.
Unit
Reference
ICC
145
185
mA
Note 3
P DISS
0.76
0.97
W
Supply Current
Power Dissipation
Data Input Current - Low
I IL
Data Input Current - High
IIH
Min.
-350
µA
0
14
350
µA
Receiver Electrical Characteristics
(TA = 0°C to 70°C, VCC = 4.75 V to 5.25 V)
Parameter
Supply Current
Power Dissipation
Symbol
Min.
Typ.
Max.
Unit
Reference
ICC
82
145
mA
Note 4
P DISS
0.3
0.5
W
Note 5
Data Output Voltage - Low
VOL - VCC
-1.840
-1.620
V
Note 6
Data Output Voltage - High
VOH - VCC
-1.045
-0.880
V
Note 6
Data Output Rise Time
tr
0.35
2.2
ns
Note 7
Data Output Fall Time
tf
0.35
2.2
ns
Note 7
Signal Detect Output Voltage - Low
VOL - VCC
-1.840
-1.620
V
Note 6
Signal Detect Output Voltage - High
VOH - VCC
-1.045
-0.880
V
Note 6
Signal Detect Output Rise Time
tr
0.35
2.2
ns
Note 7
Signal Detect Output Fall Time
tf
0.35
2.2
ns
Note 7
20
HFBR-5103/-5103T
Transmitter Optical Characteristics
(TA = 0°C to 70°C, VCC = 4.75 V to 5.25 V)
Parameter
Output Optical Power
BOL
62.5/125 µm, NA = 0.275 Fiber EOL
Output Optical Power
50/125 µm, NA = 0.20 Fiber
Optical Extinction Ratio
BOL
EOL
Symbol
PO
Min.
-19
-20
Typ.
-16.8
Max.
-14
Unit
dBm avg.
Reference
Note 11
PO
-22.5
-23.5
-20.3
-14
dBm avg.
Note 11
0.001
-50
0.03
-35
%
dB
Note 12
-45
dBm avg.
Note 13
1308
1380
nm
137
170
nm
Note 14
Figure 9
Note 14
Figure 9
Output Optical Power at
Logic “0” State
Center Wavelength
PO (“0”)
Spectral Width - FWHM
∆λ
λC
1270
Optical Rise Time
tr
0.6
1.0
3.0
ns
Optical Fall Time
tf
0.6
2.1
3.0
ns
Note 14, 15
Figure 9, 10
Note 14, 15
Figure 9, 10
Duty Cycle Distortion
Contributed by the
Transmitter
DCD
0.02
0.6
ns p-p
Note 16
Data Dependent Jitter
Cobntributed by the
Transmitter
DDJ
0.02
0.6
ns p-p
Note 17
RJ
0
0.69
ns p-p
Note 18
Random Jitter Contributed
by the Transmitter
21
HFBR-5103/-5103T
Receiver Optical and Electrical Characteristics
(TA = 0°C to 70°C, VCC = 4.75 V to 5.25 V)
Parameter
Input Optical Power
Minimum at Window Edge
Input Optical Power
Minimum at Eye Center
Input Optical Power Maximum
Operating Wavelength
Duty Cycle Distortion
Contributed by the Receiver
Data Dependent Jitter
Contributed by the Receiver
Random Jitter Contributed
by the Receiver
Symbol
Typ.
Max.
Unit
Reference
PIN Min. (W)
-33.5
-31
dBm avg.
PIN Min. (C)
-34.5
-31.8
dBm avg.
Note 19
Figure 11
Note 20
Figure 11
Note 19
1380
dBm avg.
nm
PIN Max.
λ
Min.
-14
1270
-11.8
DCD
0.02
0.4
ns p-p
Note 8
DDJ
0.35
1.0
ns p-p
Note 9
RJ
1.0
2.14
ns p-p
Note 10
-33
dBm avg.
Note 21, 22
Figure 12
Note 23, 24
Figure 12
Signal Detect - Asserted
PA
PD + 1.5 dB
Signal Detect - Deasserted
PD
-45
PA - PD
AS_Max
1.5
0
2.4
55
100
dB
µs
ANS_Max
0
110
350
µs
Signal Detect - Hysteresis
Signal Detect Assert Time
(off to on)
Signal Detect Deassert Time
(on to off)
dBm avg.
Figure 12
Note 21,
Figure 12
Note 23, 24
Figure 12
22
Notes:
1. This is the maximum voltage that
can be applied across the Differential Transmitter Data Inputs to
prevent damage to the input ESD
protection circuit.
2. The outputs are terminated with
50 Ω connected to VCC -2 V.
3. The power supply current needed to
operate the transmitter is provided
to differential ECL circuitry. This
circuitry maintains a nearly constant current flow from the power
supply. Constant current operation
helps to prevent unwanted electrical
noise from being generated and
conducted or emitted to neighboring
circuitry.
4. This value is measured with the outputs terminated into 50 Ω connected
to VCC - 2 V and an Input Optical
Power level of -14 dBm average.
5. The power dissipation value is the
power dissipated in the receiver
itself. Power dissipation is calculated as the sum of the products of
supply voltage and currents, minus
the sum of the products of the
output voltages and currents.
6. These values are measured with
respect to VCC with the output
terminated into 50 Ω connected to
VCC - 2 V.
7. The output rise and fall times are
measured between 20% and 80%
levels with the output connected to
VCC -2 V through 50 Ω.
8. Duty Cycle Distortion contributed
by the receiver is measured at the
50% threshold using an IDLE Line
State, 125 MBd (62.5 MHz squarewave), input signal. The input
optical power level is -20 dBm
average. See Application
Information - Transceiver Jitter
Section for further information.
9. Data Dependent Jitter contributed
by the receiver is specified with the
FDDI DDJ test pattern described in
the FDDI PMD Annex A.5. The
input optical power level is -20 dBm
average. See Application Information - Transceiver Jitter Section for
further information.
10. Random Jitter contributed by the
receiver is specified with an IDLE
Line State, 125 MBd (62.5 MHz
square-wave), input signal. The
input optical power level is at maximum “PIN Min. (W)”. See Application
Information - Transceiver Jitter
Section for further information.
11. These optical power values are
measured with the following
conditions:
• The Beginning of Life (BOL) to
the End of Life (EOL) optical
power degradation is typically 1.5
dB per the industry convention
for long wavelength LEDs. The
actual degradation observed in
Agilent’s 1300 nm LED products
is < 1 dB, as specified in this data
sheet.
• Over the specified operating
voltage and temperature ranges.
• With HALT Line State, (12.5
MHz square-wave), input signal.
• At the end of one meter of noted
optical fiber with cladding modes
removed.
The average power value can be
converted to a peak power value by
adding 3 dB. Higher output optical
power transmitters are available on
special request.
12. The Extinction Ratio is a measure
of the modulation depth of the
optical signal. The data “0” output
optical power is compared to the
data “1” peak output optical power
and expressed as a percentage.
With the transmitter driven by a
HALT Line State (12.5 MHz
square-wave) signal, the average
optical power is measured. The
data “1” peak power is then
calculated by adding 3 dB to the
measured average optical power.
The data “0” output optical power is
found by measuring the optical
power when the transmitter is
driven by a logic “0” input. The
extinction ratio is the ratio of the
optical power at the “0” level
compared to the optical power at
the “1” level expressed as a
percentage or in decibels.
13. The transmitter provides
compliance with the need for
Transmit_Disable commands from
the FDDI SMT layer by providing
an Output Optical Power level of
< -45 dBm average in response to a
logic “0” input. This specification
applies to either 62.5/125 µm or
50/125 µm fiber cables.
14. This parameter complies with the
FDDI PMD requirements for the
tradeoffs between center wavelength, spectral width, and rise/fall
times shown in Figure 9.
15. This parameter complies with the
optical pulse envelope from the
FDDI PMD shown in Figure 10.
The optical rise and fall times are
measured from 10% to 90% when
the transmitter is driven by the
FDDI HALT Line State (12.5 MHz
square-wave) input signal.
16. Duty Cycle Distortion contributed
by the transmitter is measured at a
50% threshold using an IDLE Line
State, 125 MBd (62.5 MHz squarewave), input signal. See Application
Information - Transceiver Jitter
Performance Section of this data
sheet for further details.
17. Data Dependent Jitter contributed
by the transmitter is specified with
the FDDI test pattern described in
FDDI PMD Annex A.5. See
Application Information Transceiver Jitter Performance
Section of this data sheet for
further details.
18. Random Jitter contributed by the
transmitter is specified with an
IDLE Line State, 125 MBd (62.5
MHz square-wave), input signal.
See Application Information Transceiver Jitter Performance
Section of this data sheet for
further details.
23
19. This specification is intended to
indicate the performance of the
receiver section of the transceiver
when Input Optical Power signal
characteristics are present per the
following definitions. The Input
Optical Power dynamic range from
the minimum level (with a window
time-width) to the maximum level
is the range over which the receiver
is guaranteed to provide output
data with a Bit Error Ratio (BER)
better than or equal to 2.5 x 10-10.
• At the Beginning of Life (BOL)
• Over the specified operating
temperature and voltage ranges
• Input symbol pattern is the
FDDI test pattern defined in
FDDI PMD Annex A.5 with 4B/
5B NRZI encoded data that
contains a duty cycle base-line
wander effect of 50 kHz. This
sequence causes a near worst
case condition for inter-symbol
interference.
• Receiver data window time-width
is 2.13 ns or greater and centered
at mid-symbol. This worst case
window time-width is the
minimum allowed eye-opening
presented to the FDDI PHY
PM._Data indication input (PHY
input) per the example in FDDI
PMD Annex E. This minimum
window time-width of 2.13 ns is
based upon the worst case FDDI
PMD Active Input Interface
optical conditions for peak-topeak DCD (1.0 ns), DDJ (1.2 ns)
and RJ (0.76 ns) presented to the
receiver.
To test a receiver with the worst
case FDDI PMD Active Input jitter
condition requires exacting control
over DCD, DDJ and RJ jitter
components that is difficult to
implement with production test
equipment. The receiver can be
equivalently tested to the worst
case FDDI PMD input jitter
conditions and meet the minimum
output data window time-width of
2.13 ns. This is accomplished by
using a nearly ideal input optical
signal (no DCD, insignificant DDJ
and RJ) and measuring for a wider
window time-width of 4.6 ns. This
is possible due to the cumulative
effect of jitter components through
their superposition (DCD and DDJ
are directly additive and RJ
components are rms additive).
Specifically, when a nearly ideal
input optical test signal is used and
the maximum receiver peak-topeak jitter contributions of DCD
(0.4 ns), DDJ (1.0 ns), and RJ (2.14
ns) exist, the minimum window
time-width becomes 8.0 ns -0.4 ns 1.0 ns - 2.14 ns = 4.46 ns, or
conservatively 4.6 ns. This wider
window time-width of 4.6 ns
guarantees the FDDI PMD Annex
E minimum window time-width of
2.13 ns under worst case input
jitter conditions to the Agilent
receiver.
• Transmitter operating with an
IDLE Line State pattern, 125
MBd (62.5 MHz square-wave),
input signal to simulate any
cross-talk present between the
transmitter and receiver sections
of the transceiver.
20. All conditions of Note 19 apply
except that the measurement is
made at the center of the symbol
with no window time-width.
21. This value is measured during the
transition from low to high levels of
input optical power.
22. The Signal Detect output shall be
asserted within 100 µs after a step
increase of the Input Optical
Power. The step will be from a low
Input Optical Power, ≤ -45 dBm,
into the range between greater
than PA, and -14 dBm. The BER of
the receiver output will be 10-2 or
better during the time, LS_Max (15
µs) after Signal Detect has been
asserted. See Figure 12 for more
information.
23. This value is measured during the
transition from high to low levels of
input optical power. The maximum
value will occur when the input
optical power is either -45 dBm
average or when the input optical
power yields a BER of 10-2 or
better, whichever power is higher.
24. Signal detect output shall be deasserted within 350 µs after a step
decrease in the Input Optical
Power from a level which is the
lower of; -31 dBm or PD + 4 dB (PD
is the power level at which signal
detect was deasserted), to a power
level of -45 dBm or less. This step
decrease will have occurred in less
than 8 ns. The receiver output will
have a BER of 10-2 or better for a
period of 12 µs or until signal
detect is deasserted. The input data
stream is the Quiet Line State.
Also, signal detect will be
deasserted within a maximum of
350 µs after the BER of the receiver
output degrades above 10-2 for an
input optical data stream that
decays with a negative ramp function instead of a step function. See
Figure 12 for more information.
www.semiconductor.agilent.com
Data subject to change.
Copyright © 2001 Agilent Technologies, Inc.
February 21, 2001
Obsoletes 5980-1058E (10/00)
5988-1575EN