Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder
with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Features

Supports long-reach optical 10GBASE-LR
Ethernet (Serial LAN-LR) at data rate of
10.3125 Gb/s, with reaches up to 10 km

Selectably supports 10GBASE-LW (Serial WAN-LW)
at data rate of 9.9532 Gb/s and OC-192/STM-64
FEC at data rate of 10.6642 Gb/s

Low power dissipating, uncooled, 1310 nm direct-
modulated laser (DML) transmitter and PIN receiver

Provides 16-channel 644 Mb/s (LR)/622 Mb/s (LW)
electrical tributary access

Compatible with IEEE

Standard

802.3ae-2002 and

300-pin, 10 GbE Transponder MSA

Optional internal reference clock clean-up circuit for
improved jitter performance

Differential LVDS data interface

Automatic transmitter optical power control

Laser bias monitor output

Optical transmitter enable input

Laser degrade alarms

Laser back-facet monitor output

Receiver loss-of-power (LOP) analog output

Transponder alarm interrupt

Selectable MUX reference input clock:
161 MHz (LR)/155 MHz (LW) or
644 MHz (LR)/622 MHz (LW)

Provides 10 GHz electrical system diagnostics loop-
back

Operating case temperature range:

-- 0 °C to 65 °C, continuous
-- 0 °C to 70 °C, in accordance with NEBS GR-63-

CORE*

Compact size: 3.6 in. x 2.6 in. x 0.53 in.

Pigtailed, low-profile package with choice of
industry-standard connectors

Applications

High-speed data communications:
-- Premise
-- Access
-- Metropolitan area networks
-- Wide area networks

10 GbE LAN/WAN architectures

Description

The TB64LR 10 GbE transponder is a bidirectional
module designed to provide a 10GBASE-LR (Serial
LAN)/10GBASE-LW (Serial WAN) Ethernet compliant
electro-optical interface between the photonic physical
media dependent layer and the electrical coding sub-
layer. The module contains a 10.3 Gb/s optical trans-
mitter and a 10.3 Gb/s optical receiver in the same
physical package along with the electronics necessary
to multiplex and demultiplex sixteen 644 Mbits (LR)/622
Mb/s (LW) electrical channels. Clock synthesis and
clock recovery circuits are also included within the
module.

* Note that this device meets NEBS GR-63-CORE requirements of

operation at 70 °C for 14 days (max) per year, or 96 hours of contin-
uous operation.

Table of Contents

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Contents

Page

Tables

Page

For additional information and latest specifications, see our website: www.triquint.com

Features ..................................................................... 1
Applications ................................................................. 1
Description................................................................... 1
Absolute Maximum Ratings......................................... 3
Block Diagram ............................................................. 4
Pin Information ............................................................ 5

Transmitter Input/Output Pin Descriptions ...............5
Receiver Input/Output Pin Descriptions ................... 8
Transponder Pin Map............................................. 10
Truth Tables............................................................ 11
Pin-Map Definitions ................................................ 13

Electrical/Optical Characteristics .............................. 23
Functional Description .............................................. 27

Receiver ................................................................. 27
Transmitter ............................................................. 28

Transponder Interfacing ............................................ 29

Receiver Interface Board Layout............................ 29
Transmitter Interface Board Layout........................ 30

Transponder Grounding ............................................ 31
Qualification and Reliability ....................................... 31
Electrostatic Discharge.............................................. 32
Regulatory and Voluntary Compliance ...................... 32
Outline Diagram......................................................... 33
Ordering Information.................................................. 34

Tables

Page

Table 1. Absolute Maximum Ratings ......................... 3
Table 2 TB64LR-Type Transponder, Transmitter

Input/Output Pin Descriptions ...................... 6

Table 3 TB64LR-Type Transponder, Receiver

Input/Output Pin Descriptions ...................... 8

Table 4 Transponder Pin Map................................. 10
Table 5 TB64LR-Type Transponder Truth Table

(Transmitter)............................................... 11

Table 6 TB64LR-Type Transponder Truth Table

(Receiver) ..................................................12

Table 7 TB64LR-Type Transponder Pin-Map

Definitions ..................................................13

Table 8 Receiver Electrical I/O Characteristics.......23
Table 9 Transmitter Electrical I/O Characteristics...24
Table 10 10GBASE-LR/LW Transmitter Optical

Characteristics ...........................................26

Table 11 10GBASE-LR/LW Receiver Optical

Characteristics ...........................................26

Table 12 Power Supply Characteristics ....................26
Table 13 TB64LR Transponder Receiver

Timing Characteristics................................27

Table 14 B64LR Transponder Transmitter Timing

Characteristics ...........................................28

Table 15 Regulatory and Voluntary Compliance.......32
Table 16 Ordering Information ..................................34

Figures

Page

Figure 1 TB64LR-Type Transponder Block

Diagram .......................................................4

Figure 2 Transmitter Block Diagram...........................5
Figure 3 Receiver Block Diagram ..............................8
Figure 4 TB64LR-Type Transponder Receiver

Timing Characteristics................................27

Figure 5 TB64LR-Type Transponder Transmitter

Timing Characteristics................................28

Figure 6 TB64LR-Type Receiver Interface

Board Layout..............................................29

Figure 7 TB64LR-Type Transmitter Interface

Board Layout..............................................30

Figure 8 Recommended Grounding Scheme...........31
Figure 9 Mechanical Dimensions .............................33

Conventions

All signals referenced in italics are for future use.

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

For additional information and latest specifications, see our website: www.triquint.com

Description (continued)

Figure 1 shows a simplified block diagram of the
TB64LR-type transponder.

In the transmitting direction, the transponder module
multiplexes sixteen 644.53 Mb/s/622.08 Mb/s differen-
tial LVDS compatible electrical data signals into an opti-
cal signal at 10.3125 Gb/s (LR)/9.9532 Gb/s (LW) for
launching into optical fiber. The optical transmitter is
available with an uncooled, direct-modulated 1310 nm
laser for up to 10 km applications. The optical output
signal is compliant to IEEE Std. 802.3ae-2002 specifi-
cations.

In the receiving direction, the transponder module
receives a 10.3125 Gb/s (LR)/9.9532 Gb/s (LW) optical
signal and converts it to an electrical signal, extracts a
clock signal, then demultiplexes the data into sixteen
644.53 Mb/s/622.08 Mb/s differential LVDS compatible
data signals. The receiver operates over the wave-
length range of 1.1

µm to 1.6 µm, and is fully compliant

to IEEE Std. 802.3ae-2002 specifications.

Absolute Maximum Ratings

Stresses in excess of the absolute maximum ratings can cause permanent damage to the device. These are abso-
lute stress ratings only. Functional operation of the device is not implied at these or any other conditions in excess
of those given in the operations sections of the data sheet. Exposure to absolute maximum ratings for extended
periods can adversely affect reliability.

1. Note that this device meets NEBS GR-63-CORE requirements of operation at 70 °C for 14 days (max) per year, or 96 hours of continuous

operation.

2. Human-body target model is 500 V.

Table 1. Absolute Maximum Ratings

Parameter

Symbol

Min

Max

Unit

Operating Case Temperature Range

°C

Storage Case Temperature Range

°C

5.2 V Supply Voltage

0.5

5.5

3.3 V Supply Voltage

0.5

3.6

5.0 V Supply Voltage

0.5

5.5

Voltage on Any LVDS Pin

High-speed LVDS Output Source Current

Static Discharge Voltage

ESD

500

Relative Humidity (non-condensing)

Receiver Maximum Input Power PIN Diode

8.0

dBm

Minimum Fiber Bend Radius

1.25 (31.8)

in. (mm)

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Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Block Diagram

Figure 1. TB64LR-Type Transponder Block Diagram

LsENABLE

LsBIASMON

LsBIASALM

ANALOG

F18

F24

D18

LsPOWMON

LVTTL

ANALOG

TxDIN[15:0]P/N

LVDS

644 Mb/s/

DATA

RETIME

TxFIFOERR

TxFIFORES

K30
K27

LVTTL

DECODE

TIMING GENERATION

TxPICLKP/N

G28,

LVDS

TxMCLKP/N

(161 MHz/155 MHz CLK)

TxPCLKP/N

TxREFCLKP/N

TxREFSEL

TxLOCKERR

DIVIDE

BY 4

MANUAL

PHASE

ADJUST

ACQUISITION

INDICATOR

DIVIDE

BY 16

PHASE AND

FREQUENCY

DETECTOR

CHARGE

PUMP

VCO

LVDS

C28,

E28, E29

A28, A29
F30

LVTTL

B30
LVTTL

10GBASE-LR/LW OPTICAL

TRANSMITTER

LVTTL

H27 TxLLOOPENB

Tx10GbLOOPBACKDP/N

(ELECTRICAL)

LVTTL

K24

TxRESET

OPEN DRAIN, LVTTL

H15

ALM INT

LVTTL

K21/J21

TxRATESEL[1:0]

B18, B21

TxSKEWSEL[1:0]

J29

TxTRACE

FROM TRANSMITTER

10GBASE-LR/LW

OPTICAL

RECEIVER

SAMPLER

CIRCUIT

DIVIDE

BY 16

LVTTL

RxLOOPENB

RxPOWMON
RxPOWALM
RxSIGMON
RxSIGALM
RxRATESEL[1:0]

F3
F6
F9

F12

K3/J3

ANALOG
LVTTL
ANALOG
LVTTL
LVTTL

DATA PHASE/

FREQUENCY

DETECTION

DIVIDE

BY 1 OR

DIVIDE

BY 4

RxMUTE

DOUT

RxDOUT[15:0]P/N

RxPOCLKP/N

E13/E14

RxMUTEPOCLK

RxMCLKSEL

RxMCLKP/N

RxMUTEMCLK

RxREFSEL

RxREFCLKP/N

LVTTL

CHARGE

PUMP

VCO

G29

C29

LVDS OR LVPECL

LVTTL

ANALOG

LVTTL

LVDS

K9 LVTTL

B12 LVTTL

C13/C14 LVDS RECOVERED

CLOCK OUTPUT

LVDS OR LVPECL
LVTTL

K12

A13/A14

F15

RxRESET
RxLCKREF
RxTRACE
I

CCLOCK

CDATA

LVTTL

LVTTL
ANALOG

K15
K18

INPUT

GIS

DATA

BUFFER

6:1 MULTI

LEXER

GIS

16 DE

MULTI

LEX

RxLOCKERR

B15

LVTTL

622 Mb/s/

F21 LVTTL

LVTTL

D24/D27

TxPHSADJ[1:0]

* Signals referenced in italics are for future use.

TxPICLKSEL

B27

1-1296 (F).a

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Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

Figure 2. Transmitter Block Diagram

Transmitter Input/Output Pin Descriptions

Table 2. TB64LR-Type Transponder, Transmitter Input/Output Pin Descriptions

Pin Name

Pin Description

ENABLE

Laser Enable Input. A logic low on this input pin enables the transmitter's laser. A
logic high disables the laser so there is no optical output.

BIASMON

Laser Bias Monitor Voltage (Analog). Provides a measure of the laser's dc bias
current as well as an indication of the health of the laser in the transmitter. This out-
put power changes at the rate of 20 mV/mA of bias current to the laser. All of the
monitoring voltage is defined with respect to GND.

LsBIASALM

Laser Bias Alarm. This alarm will go active-low when the bias current to the laser
increases by 50% from its beginning-of-life (BOL) value.

LsENABLE

LsBIASMON

LsBIASALM

LsPOWMON

TxDIN[15:0]P/N

DATA

RETIME

TxFIFOERR

TxFIFORES

DECODE

TIMING GENERATION

TxPICLKP/N

TxMCLKP/N

(161 MHz/

TxPCLKP/N

TxREFCLKP/N

TxREFSEL

TxLOCKERR

DIVIDE

BY 4

MANUAL

PHASE

ADJUST

ACQUISITION

INDICATOR

DIVIDE

BY 16

PHASE AND

FREQUENCY

DETECTOR

CHARGE

PUMP

VCO

10GBASE-LR OPTICAL

TRANSMITTER

TxLLOOPENB

Tx10GbLOOPBACKDP/N

(ELECTRICAL)

TxRESET

ALMINT

TxRATESEL[1:0]

TxSKEWSEL[1:0]

TxTRACE

INP

REGIS

DATA

BUFFER

1
6

MULTI

XER

TO RECEIVER

644 Mb/s/

622 Mb/s

TxPHSADJ[1:0]

TxPICLKSEL

155 MHz CLK)

1-1297F.a

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Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

POWMON

Normalized Laser Power Monitor Voltage (Analog). Provides an indication of the
optical output power level from the transmitter laser. LsPOWMON amplifier gain is
normalized to 500 mV for the nominal transmitter optical output power. If the optical
power decreases by 3 dB from the beginning of life (BOL), this output will drop to
approximately 250 mV. Back-facet monitor transfer function varies from module to
module, and as long as the automatic power control loop is working, the laser output
power remains constant. LsPOWMON is not an alarm signal but rather a perfor-
mance-monitoring feature. The user can measure the transmitter aging by summa-
rizing the laser bias variation, temperature changes, and output power at the same
time.

[15:0]P/N

16-bit Differential LVDS Parallel Data Input. T

15P/N is the most significant bit

of the input word and is the first bit serialized. T

0P/N is the least significant bit of

the input word and is the last bit serialized. T

[15:0]P/N is sampled on the rising

edge of TxPICLK (when TxPICLKSEL = 0) or on the rising and falling edge of
TxPICLK (when TxPICLKSEL = 1).

TxFIFOERR

Transmit FIFO Data Storage Overflow. Indicates active-low when an overflow has
occurred in the parallel data storage element. Operationally, when TxFIFOERR
occurs, the transponder automatically recenters the pointers in the parallel data stor-
age element for fastest FIFO overrun recovery.

TxREFCLKP/N

644.53 MHz/622.08 MHz or 161.13 MHz/155.52 MHz Input Reference Clock. This
input is used as the reference for the internal clock frequency synthesizer inside the
MUX that generates the 9.9538 GHz bit-rate clock used to shift data out of the paral-
lel-to-serial converter.

TxREFSEL

Transmitter Reference Select. Used for selection of the TxREFCLK frequency.
Logic 0 is for 161 MHz (LR)/155 MHz (LW), logic 1 or no connection for
644 MHz (LR)/622 MHz (LW).

PCLKP/N

Transmitter Parallel Clock. A 644.53 MHz/622.08 MHz differential output reference
parallel clock. It is normally used to coordinate transfers between customer board
logic and the MUX device.

TxPHASADJ[1:0]

Transmitter Phase Adjust. Adjusts phase of TxPCLKP/N clock in 90° steps.

TxLOCKERR

Lock Detect/Phase Error (Active-Low). It goes low when MUX PLL has not locked
to the TxREFCLK.

TxMCLKP/N

Transmitter 161 MHz (LR)/155 MHz (LW) Clock Output from the Clock Synthe-
sizer of the MUX. This output can be connected to the reference clock input of the
deMUX chip, thereby eliminating the need for a separate RxREFCLK VCO on the
customer board.

TxPICLKP/N

Differential LVDS Compatible Parallel Input Clock. A 644.53 MHz/622.08 MHz
nominally 50% duty cycle input clock, to which TxDin[15:0]P/N is aligned. TxPICLK
is used to transfer the data on the 16 TxD

inputs into the holding register in the par-

allel-to-serial converter. Internally biased and terminated.

TxPICLKSEL

TxPICLK Clock Select. Used to select between the 644.53 MHz/622.08 MHz or
322.27 MHz/311.03 MHz dual-edge clock options of the TxPICLKP/N. Logic 0 is for
644.53 MHz/622.08 MHz, and logic 1 is for 322.27 MHz/311.03 MHz.

TxRESET

MUX Master Reset. Reset input for the device. Reset must be held active-low for a
minimum of 6.4 ns. During a reset, the true data outputs are in the logic low state.
For normal power sequencing on powerup, no reset is required.

Table 2. TB64LR-Type Transponder, Transmitter Input/Output Pin Descriptions (continued)

Pin Name

Pin Description

Pin Information

(continued)

Transmitter Input/Output Pin Descriptions

(continued)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

ALMINT

Alarm Interrupt (Active-Low). Combined logic level (OR) output of RxPOWALM,
RxSIGALM, RxLOCKERR, LsBIASALM, and TxLOCKERR. The signal is an open
drain-type LVTTL output.

TxRATESEL[1,0]

Transmitter Rate Select, FEC Rate Select (Active-Low). Selects the 10GGBASE-
LR rate of 10.3125 Gb/s (serial LAN), the 10GBASE-LW rate of 9.9532 Gb/s (serial
WAN), or the OC-192/STM-64 FEC rate of 10.6642 Gb/s:

0, 0 = 10GBASE-LR rate of 10.3125 Gb/s
0, 1 = TBD
1, 0 = OC-192/STM-64 FEC rate of 10.6642 Gb/s
1, 1 = 10GBASE-LW and OC-192/STM-64 rate of 9.9532 Gb/s

Note that all input and output clock and data rates are scaled when operating at the
FEC rate.

TxFIFORES

TxLLOOPENB

TxSKEWSEL[1:0]

TxTRACE

Pins reserved in MSA. Functions not implemented.

Table 2. TB64LR-Type Transponder, Transmitter Input/Output Pin Descriptions (continued)

Pin Name

Pin Description

Pin Information

(continued)

Transmitter Input/Output Pin Descriptions

(continued)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Figure 3. Receiver Block Diagram

Receiver Input/Ou

tpu

t Pin Descriptions

Table 3. TB64LR-Type Transponder, Receiver Input/Output Pin Descriptions

Pin Name

Pin Description

LOCKERR

Clock Recovery Error Indicator (Active-Low). Indicates when the internal clock recov-
ery has not locked onto the incoming data stream. RxLOCKERR is an asynchronous out-
put.

REFCLKP/N

Differential ac-Coupled Reference Clock Input at 161.13 MHz/155.52 MHz or
644.53 MHz/622.08 MHz. The PLL inside the deMUX will lock onto this reference in
absence of optical serial input data. Note that this clock frequency must scale to the
appropriate reference rate when not operating at the standard 10 GbE rate. Internally ac
coupled and biased.

RxREFSEL

REFCLK Frequency Selector. Logic 0 for 161 MHz (LR)/155 MHz (LW) (divide by 64)

and logic 1 or no connections for 644 MHz (LR)/622 MHz (LW) (divide by 16).

OUT

[15:0]P/N

16-bit Differential LVDS Parallel Output Data Bus. D

OUT

[15:0] is the

644 Mb/s (LR)/622 Mb/s (LW) 16-bit output word. D

OUT

15P/N is the most significant bit of

the received word and is the first bit received. D

OUT

0P/N is the least significant bit of the

received word and is the last bit received. Note that this clock frequency must scale to the
appropriate reference rate when not operating at the standard 10 GbE rate. Internally ac
coupled and biased.

POCLKP/N

Recovered Differential LVDS Parallel Output Clock of 644 MHz (LR)/622 MHz (LW).
(Nominally 50% Duty Cycle). This clock is recovered from the incoming optical signal
and is aligned to the D

OUT

[15:0] output data. When RxPOCLKP/N is not locked to the

incoming data signal, RxLOCKERR will be forced low. Pins are active but forced to differ-
ential logic low when RxMUTE D

OUT

= 0. Note that this clock frequency must scale to the

appropriate reference rate when not operating at the standard 10 GBASE-LR/LW rate.
Internally ac coupled and biased.

RxMUTEPOCLK

Disables the output clock of 644 MHz (LR)/622 MHz (LW).

FROM TRANSMITTER

RxLOOPBACKDATA

(ELECTRICAL)

10GBASE-LR/LW

OPTICAL

RECEIVER

SAMPLER

CIRCUIT

DIVIDE

BY 16

RxDLOOPENB

RxPOWMON
RxPOWALM
RxSIGMON
RxSIGALM
RxRATESEL[1:0]

DATA PHASE/

FREQUENCY

DETECTION

DIVIDE

BY 1 OR

DIVIDE

BY 4

RxMUTE

DOUT

RxDOUT[15:0]P/N

RxPOCLKP/N

RxMUTEPOCLK

RxMCLKSEL

RxMCLKP/N

RxMUTEMCLK

RxREFSEL

RxREFCLKP/N

CHARGE

PUMP

VCO

RECOVERED

CLOCK OUTPUT

RxRESET
RxLCKREF
RxTRACE
I

CCLOCK

CDATA

OUT

16 DEMULTI

XER

RxLOCKERR

STER

1-1282 (F).a

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

RxPOWMON

Input Power Monitor Voltage (Analog). Provides a relative measure of the average
input optical (ac + dc) power to the receiver. This signal is referenced to ground. Output
voltage to input optical transfer function is 1.0 V/mW.

RxPOWALM

Receive Loss-of-Signal Alarm (Active Low). Activates when the received optical power
falls 3dB below the EOL receiver sensitivity.

RxRATESEL[1:0]

Receiver Rate Select (Active-Low). Selects the 10GBASE-LR rate of 10.3125 Gb/s
(Serial LAN), the 10GBASE-LW rate of 9.9532 Gb/s (Serial WAN), or the OC-192/STM-64
FEC rate of 10.6642 Gb/s:

0, 0 = 10GBASE-LR rate of 10.3125 Gb/s
0, 1 = TBD
1, 0 = OC-192/STM-64 FEC rate of 10.6642 Gb/s
1, 1 = 10GBASE-LW rate of 9.9532 Gb/s

Note that all input and output clock and data rates are scaled when operating at the FEC
rate.

MCLKP/N

Receiver 161 MHz (LR)/155 MHz (LW) or 644 MHz (LR)/622 MHz (LW) Output Clock.

RxMUTEMCLK

When RxMUTEMCLK is 0, it mutes RxMCLK. Normal operation, when RxMUTEMCLK is
1.

RxMCLKSEL

When 0, RxMCLKSEL selects the RxMCLK frequency of 161 MHz (LR)/155 MHz (LW).
When 1, RxMCLKSEL selects the RxMCLK frequency of 644 MHz (LR)/622 MHz (LW).

RxRESET

Active-low. Resets all synchronous logic. During a reset, the data outputs are in the logic
low state. Reset must be held active-low for a minimum of 6.4 ns while the internal oscilla-
tor is active:
0 = reset
1 or no connection = normal operation

RxDLOOPENB

Diagnostic Loopback Enable (Active-Low). Enables diagnostic loopback (10 Gb/s
MUX to 10 Gb/s deMUX).

RxMUTED

OUT

Receiver Mute D

OUT

(Active-Low). When RxMUTED

OUT

is active, it forces all deMUX

output data RxDout[15:0]P/N to a logic low level. When RxMUTED

OUT

is inactive, data to

the deMUX will be processed normally.

0 = deMUX output muted.
1 or no connection = normal operation.

RxSIGMON

RxSIGALM

RxLCKREF

RxTRACE

CCLOCK

CDATA

Pins reserved in MSA. Functions not implemented.

Table 3. TB64LR-Type Transponder, Receiver Input/Output Pin Descriptions (continued)

Pin Name

Pin Description

Pin Information

(continued)

Receiver Input/Output Pin Descriptions

(continued)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information (continued)

Transponder Pin Map

* This feature is only available on lasers using thermoelectric coolers. For uncooled transponders, the associated pin is considered NUC.

Table 4. Transponder Pin Map

Receiver Section

1 5.0 V Analog RxTRACE

Frame GND RxD

OUT

12P 1.8 V Digital RxD

OUT

8P Digital

GND RxD

OUT

Digital

GND

RxD

OUT

2 5.0 V Analog

FFU

Frame GND RxD

OUT

12N 1.8 V Digital RxD

OUT

8N Digital

GND RxD

OUT

Digital

GND

RxD

OUT

3 RxRATESEL0

RxRATESEL1

FFU

Digital GND RxPOWMON Digital

GND

FFU

Digital

GND

FFU

Digital

GND

4 3.3 V Analog

NUC

Frame GND RxDOUT13P 3.3 V Digital RxD

OUT

9P Digital

GND RxD

OUT

Digital

GND

RxD

OUT

5 3.3 V Analog

NUC

Frame GND RxDOUT13N 3.3 V Digital RxD

OUT

9N Digital

GND RxD

OUT

Digital

GND

RxD

OUT

RxRESET

NUC

RxDLOOPENB

Digital GND RxPOWALM Digital

GND

FFU

Digital

GND RxMUTED

OUT

Digital

GND

FFU

Analog GND

RxD

OUT

14P 3.3 V Digital RxD

OUT

10P Digital

GND RxD

OUT

Digital

GND

RxD

OUT

FFU

Analog GND

RxD

OUT

14N 3.3 V Digital RxD

OUT

10N Digital

GND RxD

OUT

Digital

GND

RxD

OUT

RxMUTEPOCLK

NUC

FFU

Digital GND RxSIGMON Digital

GND

FFU

Digital

GND RxLCKREF

Digital

GND

10 5.2 V Analog

FFU

Analog GND

RxD

OUT

15P 5.2 V Digital RxD

OUT

11P Digital

GND RxD

OUT

Digital

GND

RxD

OUT

11 5.2 V Analog

FFU

Analog GND

RxD

OUT

15N 5.2 V Digital RxD

OUT

11N Digital

GND RxD

OUT

Digital

GND

RXD

OUT

RxMUTEMCLK

NUC

FFU

Digital GND

RxSIGALM Digital

GND

FFU

Digital

GND RxMCLKSEL Digital

GND

13 5.2 V Analog

FFU

Analog GND

FFU

5.2 V Digital RxPOCLKP Digital

GND RxMCLKP

Digital

GND RxREFCLKP

14 5.2 V Analog RxALMINT Analog GND

FFU

5.2 V Digital RxPOCLKN Digital

GND RxMCLKN

Digital

GND RxREFCLKN

15 I

CCLOCK

NUC

ALMINT

Digital GND RxREFSEL Digital

GND

FFU

Digital

GND RxLOCKERR Digital

GND

Transmitter Section

16 5.0 V Analog

TxALMINT

Analog GND

TxD

12P

1.8 V Digital

TxD

Digital

GND

TxD

Digital

GND

TxD

17 5.0 V Analog

FFU

Analog GND

TxD

12N

1.8 V Digital

TxD

Digital

GND

TxD

Digital

GND

TxD

CDATA

NUC

LsTUNE0*

Digital GND LsBIASMON Digital

GND LsPOWMON Digital

GND TxSKEWSEL0 Digital

GND

19 3.3 V Analog

FFU

Analog GND

TxD

13P

3.3 V Digital

TxD

Digital

GND

TxD

Digital

GND

TxD

20 3.3 V Analog

FFU

Analog GND

TxD

13N

3.3 V Digital

TxD

Digital

GND

TxD

Digital

GND

TxD

21 TxRATESEL0

TxRATESEL1

LsTUNE1*

Digital GND

LsENABLE Digital

GND

LsTEMPMON*

Digital

GND TxSKEWSEL1 Digital

GND

22 3.3 V Analog

FFU

Analog GND

TxD

14P

3.3 V Digital TxD

10P Digital

GND

TxD

Digital

GND

TxD

23 3.3 V Analog

FFU

Analog GND

TxD

14N

3.3 V Digital TxD

10N Digital

GND

TxD

Digital

GND

TxD

TxRESET

NUC

LsTUNE2*

Digital GND LsBIASALM Digital

GND TxPHSADJ0 Digital

GND L

TWEAK*

Digital

GND

25 5.2 V Analog

NUC

Frame GND

TxD

15P 5.2 V Digital TxD

11P

Digital

GND

TxD

Digital

GND

TxD

26 5.2 V Analog

NUC

Frame GND

TxD

15N 5.2 V Digital TxD

11N Digital

GND

TxD

Digital

GND

TxD

27 TxFIFORES

NUC

TxLLOOPENB

Digital GND

TEMPALM*

Digital

GND TxPHSADJ1 Digital

GND TxPICLKSEL Digital

GND

28 5.2 V Analog

FFU

Frame GND

TxPICLKP 5.2 V Digital TxPCLKP Digital

GND TxMCLKP

Digital

GND TxREFCLKP

29 5.2 V Analog TxTRACE

Frame GND

TxPICLKN 5.2 V Digital TxPCLKN Digital

GND TxMCLKN

Digital

GND TxREFCLKN

30 TxFIFOERR

NUC

TxLINETIMSEL

IGital

GND

TxREFSEL Digital

GND

FFU

Digital

GND TxLOCKERR Digital

GND

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Truth Tables

1. TxPICLK frequency of 644 MHz (LR)/622 MHz (LW) is the MSA standard. The TxPICLK function should be tied to ground when not used.

Table 5. TB64LR-Type Transponder Pin-Map Truth Table (Transmitter)

Pin Name and Pin Configuration

Description

LsENABLE

0
1

Normal Operation.
Laser Disabled.

LsBIASALM

0
1

Laser Bias Alarm Active.
Normal Operation.

TxREFSEL

0
1

Selects a TxREFCLK Frequency of 161 MHz (LR)/155 MHz (LW).
Selects a TxREFCLK Frequency of 644 MHz (LR)/622 MHz (LW).

TxPICLKSEL

0
1

Selects the TxPICLK Frequency of 644 MHz (LR)/622 MHz (LW).
Selects the TxPICLK Frequency of 322 MHz/311 MHz.

TxLOCKERR

0
1

Indicates Loss of PLL Lock.
Normal Operation.

TxRESET

0
1

Asynchronous MUX System Reset.
Normal Operation.

TxFIFOERR

0
1

Indicates a MUX FIFO Error.
Normal Operation.

ALMINT

0
1

Indicates an Alarm.
Normal Operation.

TxRATESEL1

0
0
1
1

TxRATESEL0

0
1
0
1

10GBASE-LR rate of 10.3125 Gb/s.
TBD
OC-192/STM-64 FEC rate of 10.6642 Gb/s.
10GBASE-LW rate of 9.9532 Gb/s.

TxPHSADJ1

0
0
1
1

TxPHSADJ0

0
1
0
1

Adjusts the Phase of the TxPLCK by 0°.
Adjusts the Phase of the TxPLCK by 90°.
Adjusts the Phase of the TxPLCK by 180°.
Adjusts the Phase of the TxPLCK by 270°.

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Truth Tables

(continued)

Table 6. TB64LR-Type Transponder Pin-Map Truth Table (Receiver)

Pin Name and Pin Configuration

Description

RxRESET

0
1

Asynchronous DeMUX System Reset.
Normal Operation.

RxMUTEPOCLK

0
1

Mutes the RxPOCLK.
Normal Operations.

RxMUTEMCLK

0
1

Mutes the RxMCLK.
Normal Operations.

RxDLOOPENB

0
1

Enables Diagnostic Loopback (10 Gb/s MUX to 10 Gb/s DeMUX).
Normal Operation.

RxMUTEDOUT

0
1

Mutes the RxDOUT[15:0].
Normal Operation.

RxLCKREF

0
1

RxPOCLK Locks to RxREFCLK.
Normal Operation.

RxMCLKSEL

0
1

Selects the RxMCLK Frequency of 161 MHz (LR)/155 MHz (LW).
Selects the RxMCLK Frequency of 644 MHz (LR)/622 MHz (LW).

RxLOCKERR

0
1

Indicates Loss of PLL Lock.
Normal Operation.

RxPOWALM

0
1

Indicates Alarm Active.
Normal Operation.

RxSIGALM

0
1

Indicates Alarm Active.
Normal Operation.

RxREFSEL

0
1

Selects an RxREFCLK Frequency of 161 MHz (LR)/155 MHz (LW).
Selects an RxREFCLK Frequency of 644 MHz (LR)/622 MHz (LW).

RxRATESEL1

0
0
1
1

RxRATESEL0

0
1
0
1

10GBASE-LR rate of 10.3125 Gb/s.
TBD.
OC-192/STM-64 FEC rate of 10.6642 Gb/s.
10GBASE-LW rate of 9.9532 Gb/s.

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

Table 7. TB64LR-Type Transponder Pin-Map Definitions

Pin #

Pin Name

I/O

Logic

Description

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

A10

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

A11

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

A12

Digital GND

Supply

Receiver Digital Ground.

A13

REFCLKP

LVDS or LVPECL Receiver Reference Clock.

A14

REFCLKN

LVDS or LVPECL Receiver Reference Clock.

A15

Digital GND

Supply

Receiver Digital Ground.

A16

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A17

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A18

Digital GND

Supply

Transmitter Digital Ground.

A19

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A20

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A21

Digital GND

Supply

Transmitter Digital Ground.

A22

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A23

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A24

Digital GND

Supply

Transmitter Digital Ground.

A25

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A26

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

A27

Digital GND

Supply

Transmitter Digital Ground.

A28

TxREFCLKP

LVDS or LVPECL Transmitter Reference Clock.

A29

TxREFCLKN

LVDS or LVPECL Transmitter Reference Clock.

A30

Digital GND

Supply

Transmitter Digital Ground.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

Digital GND

Supply

Receiver Digital Ground.

Digital GND

Supply

Receiver Digital Ground.

FFU

Reserved for Future Use.

Digital GND

Supply

Receiver Digital Ground.

Digital GND

Supply

Receiver Digital Ground.

MUTED

OUT

LVTTL

Mutes the Data Outputs of the DeMUX.

Digital GND

Supply

Receiver Digital Ground.

Digital GND

Supply

Receiver Digital Ground.

LCKREF

LVTTL

Locks R

POCLK to RxREFCLK.

B10

Digital GND

Supply

Receiver Digital Ground.

B11

Digital GND

Supply

Receiver Digital Ground.

B12

MCLKSEL

LVTTL

Selects Speed of Output R

MCLK.

B13

Digital GND

Supply

Receiver Digital Ground.

B14

Digital GND

Supply

Receiver Digital Ground.

B15

LOCKERR

LVTTL Loss of Lock of RxPOCLK (active-low).

B16

Digital GND

Supply

Transmitter Digital Ground.

B17

Digital GND

Supply

Transmitter Digital Ground.

B18

SKEWSEL0

LVTTL

Adjusts Skew of T

PICLK (LSB).

B19

Digital GND

Supply

Transmitter Digital Ground.

B20

Digital GND

Supply

Transmitter Digital Ground.

B21

SKEWSEL1

LVTTL

Adjusts Skew of T

PICLK (MSB).

B22

Digital GND

Supply

Transmitter Digital Ground.

B23

Digital GND

Supply

Transmitter Digital Ground.

B24

TWEAK

Analog

Laser Fine Tuning of DWDM Wavelength.

B25

Digital GND

Supply

Transmitter Digital Ground.

B26

Digital GND

Supply

Transmitter Digital Ground.

B27

PICLKSEL

LVTTL

Selects Speed of Input T

PICLK.

B28

Digital GND

Supply

Transmitter Digital Ground.

B29

Digital GND

Supply

Transmitter Digital Ground.

B30

TxLOCKERR

LVTTL

Indicates Loss of T

PLL Lock.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

C10

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

C11

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

C12

Digital GND

Supply

Receiver Digital Ground.

C13

MCLKP

LVDS

VCO-Derived Output Rx Clock.

C14

MCLKN

LVDS

VCO-Derived Output Rx Clock.

C15

Digital GND

Supply

Receiver Digital Ground.

C16

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C17

TXD

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C18

Digital GND

Supply

Transmitter Digital Ground.

C19

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C20

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C21

Digital GND

Supply

Transmitter Digital Ground.

C22

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C23

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C24

Digital GND

Supply

Transmitter Digital Ground.

C25

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C26

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

C27

Digital GND

Supply

Transmitter Digital Ground.

C28

TxMCLKP

LVDS

VCO-Derived Output Tx Clock.

C29

TxMCLKN

LVDS

VCO-Derived Output Tx Clock.

C30

Digital GND

Supply

Transmitter Digital Ground.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

Digital GND

Supply

Receiver Digital Ground.

Digital GND

Supply

Receiver Digital Ground.

FFU

Reserved for Future Use.

Digital GND

Supply

Receiver Digital Ground.

Digital GND

Supply

Receiver Digital Ground.

FFU

Reserved for Future Use.

Digital GND

Supply

Receiver Digital Ground.

Digital GND

Supply

Receiver Digital Ground.

FFU

Reserved for Future Use.

D10

Digital GND

Supply

Receiver Digital Ground.

D11

Digital GND

Supply

Receiver Digital Ground.

D12

FFU

Reserved for Future Use.

D13

Digital GND

Supply

Receiver Digital Ground.

D14

Digital GND

Supply

Receiver Digital Ground.

D15

FFU

Reserved for Future Use.

D16

Digital GND

Supply

Transmitter Digital Ground.

D17

Digital GND

Supply

Transmitter Digital Ground.

D18

POWMON

Analog

Laser Output Power Monitor.

D19

Digital GND

Supply

Transmitter Digital Ground.

D20

Digital GND

Supply

Transmitter Digital Ground.

D21

TEMPMON

Analog

Laser Temperature Monitor.

D22

Digital GND

Supply

Transmitter Digital Ground.

D23

Digital GND

Supply

Transmitter Digital Ground.

D24

TxPHSADJ0

LVTTL

Adjusts Phase of TxPCLK (LSB).

D25

Digital GND

Supply

Transmitter Digital Ground.

D26

Digital GND

Supply

Transmitter Digital Ground.

D27

TxPHSADJ1

LVTTL

Adjusts Phase of TxPCLK (MSB).

D28

Digital GND

Supply

Transmitter Digital Ground.

D29

Digital GND

Supply

Transmitter Digital Ground.

D30

FFU

Reserved for Future Use.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

10P

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

10N

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

E10

OUT

11P

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

E11

OUT

11N

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

E12

Digital GND

Supply

Receiver Digital Ground.

E13

POCLKP

LVDS

Receiver Parallel Output Clock.

E14

RXPOCLKN

LVDS

Receiver Parallel Output Clock.

E15

Digital GND

Supply

Receiver Digital Ground.

E16

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E17

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E18

Digital GND

Supply

Transmitter Digital Ground.

E19

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E20

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E21

Digital GND

Supply

Transmitter Digital Ground.

E22

10P

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E23

TXD

10N

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E24

Digital GND

Supply

Transmitter Digital Ground.

E25

11P

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E26

TXD

11N

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

E27

Digital GND

Supply

Transmitter Digital Ground.

E28

PCLKP

LVDS

Transmitter Parallel Output Clock.

E29

PCLKN

LVDS

Transmitter Parallel Output Clock.

E30

Digital GND

Supply

Transmitter Digital Ground.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

1.8 V Digital

Supply

Receiver Digital Power.

1.8 V Digital

Supply

Receiver Digital Power.

POWMON

Analog

Receiver Power Monitor (ac + dc).

3.3 V Digital

Supply

Receiver Digital Power.

3.3 V Digital

Supply

Receiver Digital Power.

RxPOWALM

LVTTL

Loss of Receiver Average Power Alarm.

3.3 V Digital

Supply

Receiver Digital Power.

3.3 V Digital

Supply

Receiver Digital Power.

SIGMON

Analog

Receiver Signal Monitor (ac only).

F10

5.2 V Digital

Supply

Receiver Digital Power.

F11

5.2 V Digital

Supply

Receiver Digital Power.

F12

SIGALM

LVTTL

Loss of Receiver ac Power Alarm

F13

5.2 V Digital

Supply

Receiver Digital Power.

F14

5.2 V Digital

Supply

Receiver Digital Power.

F15

RxREFSEL

LVTTL

Selects R

REFCLK Frequency.

F16

1.8 V Digital

Supply

Transmitter Digital Power.

F17

1.8 V Digital

Supply

Transmitter Digital Power.

F18

LsBIASMON

Analog

Laser Bias Current Monitor.

F19

3.3 V Digital

Supply

Transmitter Digital Power.

F20

3.3 V Digital

Supply

Transmitter Digital Power.

F21

LsENABLE

LVTTL

Laser Enable (disable is inverse).

F22

3.3 V Digital

Supply

Transmitter Digital Power.

F23

3.3 V Digital

Supply

Transmitter Digital Power.

F24

LsBIASALM

LVTTL

Laser Bias Current Alarm.

F25

5.2 V Digital

Supply

Transmitter Digital Ground.

F26

5.2 V Digital

Supply

Transmitter Digital Ground.

F27

TEMPALM

LVTTL

Laser Temperature Alarm.

F28

5.2 V Digital

Supply

Transmitter Digital Power.

F29

5.2 V Digital

Supply

Transmitter Digital Power.

F30

REFSEL

LVTTL

Selects T

REFCLK Frequency.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

OUT

12P

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

12N

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

13P

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

13N

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

OUT

14P

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

OUT

14N

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

Digital GND

Supply

Receiver Digital Ground.

G10

OUT

15P

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

G11

OUT

15N

LVDS

Receiver 644 Mb/s/622 Mb/s Data Output.

G12

Digital GND

Supply

Receiver Digital Ground.

G13

FFU

Reserved for Future Use.

G14

FFU

Reserved for Future Use.

G15

Digital GND

Supply

Receiver Digital Ground.

G16

12P

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G17

12N

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G18

Digital GND

Supply

Transmitter Digital Ground.

G19

13P

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G20

13N

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G21

Digital GND

Supply

Transmitter Digital Ground.

G22

14P

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G23

14N

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G24

Digital GND

Supply

Transmitter Digital Ground.

G25

15P

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G26

15N

LVDS

Transmitter 644 Mb/s/622 Mb/s Data Input.

G27

Digital GND

Supply

Transmitter Digital Ground.

G28

PICLKP

LVDS

Transmitter Parallel Input Clock.

G29

PICLKN

LVDS

Transmitter Parallel Input Clock.

G30

Digital GND

Supply

Transmitter Digital Ground.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

Frame GND

Supply

Frame GND Tied to Chassis Ground.

Frame GND

Supply

Frame GND Tied to Chassis Ground.

FFU

Reserved for Future Use.

Frame GND

Supply

Frame GND Tied to Chassis Ground.

Frame GND

Supply

Frame GND Tied to Chassis Ground.

RxDLOOPENB

LVTTL

Diagnostic Loopback Enable.

Analog GND

Supply

Receiver Analog Ground.

Analog GND

Supply

Receiver Analog Ground.

FFU

Reserved for Future Use.

H10

Analog GND

Supply

Receiver Analog Ground.

H11

Analog GND

Supply

Receiver Analog Ground.

H12

FFU

Reserved for Future Use.

H13

Analog GND

Supply

Receiver Analog Ground.

H14

Analog GND

Supply

Receiver Analog Ground.

H15

ALMINT

Open Drain

Electrical OR of All Rx and Tx Alarms.

H16

Analog GND

Supply

Transmitter Analog Ground.

H17

Analog GND

Supply

Transmitter Analog Ground.

H18

LsTUNE0

LVTTL

Wavelength-Select Pin 0 (LSB).

H19

Analog GND

Supply

Transmitter Analog Ground.

H20

Analog GND

Supply

Transmitter Analog Ground.

H21

LsTUNE1

LVTTL

Wavelength-Select Pin 1.

H22

Analog GND

Supply

Transmitter Analog Ground.

H23

Analog GND

Supply

Transmitter Analog Ground.

H24

LsTUNE2

LVTTL

Wavelength-Select Pin 2 (MSB).

H25

Frame GND

Supply

Frame GND Tied to Chassis Ground.

H26

Frame GND

Supply

Frame GND Tied to Chassis Ground.

H27

TxLLOOPENB

LVTTL

Line Loopback Enable.

H28

Frame GND

Supply

Frame GND Tied to Chassis Ground.

H29

Frame GND

Supply

Frame GND Tied to Chassis Ground.

H30

TxLINETIMSEL

LVTTL

Line Timing Select.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

RxTRACE

Analog

Low-Frequency PhotoDiode Output.

FFU

Reserved for Future Use.

RxRATESEL1

LVTTL

Receiver Bit Rate Select (MSB)

NUC

No User Connection.

NUC

No User Connection.

NUC

No User Connection.

FFU

Reserved for Future Use.

FFU

Reserved for Future Use.

NUC

No User Connection.

J10

FFU

Reserved for Future Use.

J11

FFU

Reserved for Future Use.

J12

NUC

No User Connection.

J13

FFU

Reserved for Future Use.

J14

RxALMINT

Open Drain

Electrical OR of All Rx Alarms.

J15

NUC

No User Connection.

J16

TxALMINT

Open Drain

Electrical OR of All Tx Alarms.

J17

FFU

Reserved for Future Use.

J18

NUC

No User Connection.

J19

FFU

Reserved for Future Use.

J20

FFU

Reserved for Future Use.

J21

TxRATESEL1

LVTTL

Receiver Bit Rate Select (MSB)

J22

FFU

Reserved for Future Use.

J23

FFU

Reserved for Future Use.

J24

NUC

No User Connection.

J25

NUC

No User Connection.

J26

NUC

No User Connection.

J27

NUC

No User Connection.

J28

FFU

Reserved for Future Use.

J29

TxTRACE

Analog

Low-Frequency Transmitter Input.

J30

NUC

No User Connection

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Pin Information

(continued)

Pin-Map Definitions

(continued)

Table 7. TB64LR-Type Transponder Pin-Map Definitions (continued)

Pin #

Pin Name

I/O

Logic

Description

5.0 V Analog

Supply

Receiver Analog Power.

5.0 V Analog

Supply

Receiver Analog Power.

RxRATESEL0

LVTTL

Receiver Bit Rate Select (LSB).

3.3 V Analog

Supply

Receiver Analog Power.

3.3 V Analog

Supply

Receiver Analog Power.

RESET

LVTTL

Receiver Asynchronous System Reset.

FFU

Reserved for Future Use.

FFU

Reserved for Future Use.

RxMUTEPOCLK

LVTTL

Mutes the RxPOCLK.

K10

5.2 V Analog

Supply

Receiver Analog Power.

K11

5.2 V Analog

Supply

Receiver Analog Power.

K12

RxMUTEMCLK

LVTTL

Mutes the RxMCLK.

K13

5.2 V Analog

Supply

Receiver Analog Power.

K14

5.2 V Analog

Supply

Receiver Analog Power.

K15

CCLOCK

LVTTL

C Clock Input for Remote Access.

K16

5.0 V Analog

Supply

Transmitter Analog Power.

K17

5.0 V Analog

Supply

Transmitter Analog Power.

K18

CDATA

I/O

LVTTL

C Data Input/Output for Remote Access.

K19

3.3 V Analog

Supply

Transmitter Analog Power.

K20

3.3 V Analog

Supply

Transmitter Analog Power.

K21

TxRATESEL0

LVTTL

Transmitter Bit Rate Select (LSB).

K22

3.3 V Analog

Supply

Transmitter Analog Power.

K23

3.3 V Analog

Supply

Transmitter Analog Power.

K24

TxRESET

LVTTL

Transmitter Asynchronous System Reset.

K25

5.2 V Analog

Supply

Transmitter Analog Power.

K26

5.2 V Analog

Supply

Transmitter Analog Power.

K27

TxFIFORES

LVTTL

MUX FIFO Reset.

K28

5.2 V Analog

Supply

Transmitter Analog Power.

K29

5.2 V Analog

Supply

Transmitter Analog Power.

K30

TxFIFOERR

LVTTL

MUX FIFO Error Indicator.

Receiver Section

Transmitter Section

Other

Rx power and GND supplies

Tx power and GND supplies

NUC: no user connection

Rx dc signals

Tx dc signals

FFU: reserved for future use

644 Mb/s/622 Mb/s differential signals

(transmitter and receiver sections)

Italics: future feature (not

immediately available)

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Electrical/Optical Characteristics

Maximum and minimum values are specified over operating case temperature range at 50% duty cycle.

* Note that LVTTL input and output values are different. Input values take board signal losses into consideration.

Table 8. Receiver Electrical I/O Characteristics (Tc = 0 °C to 65 °C)

Parameter

Symbol

Logic

Min

Typ

Max

Unit

Receiver Input Power Monitor

RxPOWMON

Analog

0.8

1.2

V/mW

Receiver Input ac Power Monitor

RxSIGMON

Analog

TBD

V/mV

Clock Recovery Lock Error:

Output High, V

Output Low, V

RxLOCKERR

LVTTL

2.4

--
--

3.47

0.8

V
V

Select MCLK (161 MHz/155 MHz/644 MHz/

622 MHz):

Input High, V

Input Low, V

RxMCLKSEL

LVTTL*

2.1

--
--

3.47

0.8

V
V

Select Reference Clock:

Input High, V

Input Low, V

RxREFSEL

LVTTL*

2.1

--
--

3.47

0.8

V
V

Mute Parallel Output Clock:

Input High, V

Input Low, V

RxMUTEPOCLK

LVTTL*

2.1

--
--

3.47

0.8

V
V

Reset:

Input High, V

Input Low, V

RXRESET

LVTTL*

2.1

--
--

3.47

0.8

V
V

Rate Select:

Input High, V

Input Low, V

RxRATESEL[1:0]

LVTTL*

2.1

--
--

3.47

0.8

V
V

Rx Mute Data Out:

Input High, V

Input Low, V

RxMUTE D

OUT

LVTTL*

2.1

--
--

3.47

0.8

V
V

Parallel Data Outputs:

Output High, V

Output Low, V

Differential Output Voltage Swing

RxD

OUT

[15:0]P/N

LVDS

0.925

250

--
--
--

1.475

400

V
V

mVp-p

Reference Clock Input:

Input Voltage
Frequency Tolerance
Input Duty Cycle
Rise and Fall Times (20%--80%)

RxREFCLKP/N

Differential

ac-coupled

LVDS

LVPECL

100
20

100

--
--

800

20
60

TBD

mVp-p

ppm

161/155 MHz Clock Output:

Output High, V

Output Low, V

Output Voltage Swing
Duty Cycle

RxMCLKP/N

LVDS

0.925

250

--
--
--

1.475

400

V
V

mVp-p

Recovered Parallel Output Clock:

Output High, V

Output Low, V

Output Voltage Swing
Duty Cycle

RxPOCLKP/N

LVDS

0.925

250

--
--
--

1.475

400

V
V

mVp-p

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Electrical/Optical Characteristics

(continued)

Maximum and minimum values are specified over operating case temperature range at 50% duty cycle.

Table 9. Transmitter Electrical I/O Characteristics (T

= 0 °C to 65 °C)

Parameter

Symbol

Logic

Min

Typ

Max

Unit

Laser Enable:

Input High, V

Input Low, V

ENABLE

LVTTL

2.1

--
--

3.47

0.8

V
V

Laser Bias Output

BIASMON

Analog

500

2500

Laser Degrade Alarm Output:

Output High, V

Output Low, V

BIASALM

LVTTL

2.4

--
--

3.47

0.5

V
V

Laser Power Monitor Output

POWMON

Analog

400

500

600

Lock Error of MUX PLL:

Output High, V

Output Low, V

LOCKERR

LVTTL

2.4

--
--

3.47

0.8

V
V

Reference Clock:

Differential Input Voltage Swing
Frequency Tolerance
Input Duty Cycle
Rise and Fall Times (20%--80%)

REFCLKP/N

Differential

ac-coupled

LVDS

LVPECL

100
20

100

--
--

800

20
60

TBD

mVp-p

ppm

Input Data Signal Level:

Input Voltage Range
Differential Input Voltage Swing
Differential Input Impedance

[15:0]P/N

LVDS

100

1200

100

2400

400
120

mVp-p

Parallel Input Clock:

Input Common Voltage Range
Differential Input Voltage Swing
Differential Input Impedance
Frequency

PlCLKP/N

LVDS

100

1200

100

644.53/

622.08

2400

400
120

mVp-p

MHz

644 MHz/622 MHz Parallel Output Clock:

Output High, V

Output Low, V

Differential Output Voltage Swing
Duty Cycle

PCLKP/N

LVDS

0.925

250

--
--
--

1.475

400

V
V

mVp-p

161 MHz/155 MHz Output Clock:

Output High, V

Output Low, V

Diff. Output Voltage Swing
Duty Cycle

MCLKP/N

LVDS

0.925

250

--
--
--

1.475

400

V
V

REFCLK

Reference Select:

Input High, V

Input Low, V

REFSEL

LVTTL

2.1

--
--

3.47

0.8

V
V

1. The transmitter is normally enabled and requires only an active-high external voltage to disable.
2. Please note that LVTTL input and output values are different. Input values take board signal losses into consideration.
3. The alarm will go active-low when the bias current to the laser increases by 50% or decreases by 50% from its beginning-of-life (BOL)

value.

4. Active-low.

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

value.

4. Active-low.
5. Open-drain output.

Tx FIFO Buffer Reset:

Input High, V

Input Low, V

TxFIFORES

LVTTL

2.1

--
--

3.47

0.8

V
V

Diagnostic Loop Enable:

Input High, V

Input Low, V

RxDLOOPENB

LVTTL

2.1

--
--

3.47

0.8

V
V

Tx Reset:

Input High, V

Input Low, V

TxRESET

LVTTL

2.1

--
--

3.47

0.8

V
V

Alarm Interrupt:

Output High, V

Output Low, V

ALMINT

LVTTL

2.4

--
--

3.47

0.8

V
V

Tx Rate Select:

Input High, V

Input Low, V

TxRATESEL[1:0]

LVTTL

2.1

--
--

3.47

0.8

V
V

Table 9. Transmitter Electrical I/O Characteristics (T

= 0 °C to 65 °C) (continued)

Parameter

Symbol

Logic

Min

Typ

Max

Unit

Electrical/Optical Characteristics

(continued)

Maximum and minimum values are specified over operating case temperature range at 50% duty cycle.

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Electrical/Optical Characteristics

(continued)

Maximum and minimum values are specified over operating case temperature range at 50% duty cycle.

Table 10. 10GBASE-LR/LW Transmitter Optical Characteristics (Tc = 0 °C to 65 °C)

1. Output power definitions and measurements per ITU-T Recommendation G.691.
2. Full spectral width measured 20 dB down from the central wavelength peak under fully modulated conditions.
3. Ratio of the average output power in the dominant longitudinal mode to the power in the most significant side mode under fully

modulated conditions.

4. Ratio of logic 1 output power to logic 0 output power under fully modulated conditions.

Table 11. 10GBASE-LR/LW Receiver Optical Characteristics (Tc = 0 °C to 65 °C)

1. PIN receiver at 1310 nm, 1 x 10

BER, 2

1 pseudorandom data input.

2. At 1310 nm, BER < 1 x 10

, 2

1 pseudorandom data input, measured with a transmit signal having a 3.5 dB extinction ratio, 2.2 dB ver-

tical eye closure penalty, and 0.3 UI peak-peak jitter.

Parameter

Symbol

Min

Typ

Max

Unit

Average Output Power

0.5

dBm

Operating Wavelength

1260

1310

1355

Spectral Width

Side-mode Suppression Ratio (DFB laser)

SMSR

Extinction Ratio

3.5

Optical Modulation Amplitude

OMA

5.2

dBm

Transmitter and Dispersion Penalty

TDP

3.2

OMA-TDP

6.2

Transmitter Reflectance

Optical Link Budget

9.4

Eye Mask of Optical Output

Compliant to IEEE Standard 802.3ae-2002

Transmitter Jitter

Compliant to IEEE Standard 802.3ae-2002

Parameter

Symbol

Min

Typ

Max

Unit

Wavelength (range)

1260

1310

1355

Receiver Sensitivity in OMA (EOL)

MIN

12.6

dBm

Average Receiver Overload (EOL)

0.5

dBm

Receiver Reflectance

Stressed Receiver Sensitivity in OMA

(EOL)

10.3

dBm

Jitter Tolerance

Compliant to IEEE Standard 802.3ae-2002

Table 12. Power Supply Characteristics (T

= 0 °C to 65 °C)

Parameter

Symbol

Min

Typ

Max

Unit

3.3 V Supply Voltage

3.13

3.3

3.46

Supply Current Drain

1100

1150

1300

5. 0 V Supply Voltage

4.75

5.0

5.25

Supply Current Drain

100

250

300

5. 2 V Supply Voltage

4.94

5.2

5.46

Supply Current Drain

100

200

Package Power

DISS

4.6

5.6

7.0

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

For additional information and latest specifications, see our website: www.triquint.com

Functional Description

Receiver

The optical receiver in the TB64LR-type transponder is
optimized for the particular 10GBASE-LR/LW applica-
tion segment in which it was designed to operate and
will have a PIN photodetector. The detected serial data
output of the optical receiver is connected to a clock
and data recovery circuit (CDR) that extracts a
10312.5 MHz/9953.28 MHz clock signal for normal
10GBASE-LR/LW Ethernet rate, 10664.2 MHz at
OC-192/STM-64 FEC rate. This recovered serial bit

clock signal and a retimed serial data signal are pre-
sented to the 16-bit serial-to-parallel converter.

The receiver contains a lock-detect circuit that monitors
the integrity of the serial data inputs. If the received
serial data fails the frequency test, the PLL will be
forced to lock to the local reference clock. This will
maintain the correct frequency of the recovered clock
output under loss-of-signal or loss-of-power conditions.

Figure 4. TB64LR-Type Transponder Receiver Timing Characteristics

Table 13. TB64LR-Type Transponder Receiver Timing Characteristics

Parameter

Symbol

Min

Typ

Max

Unit

Clock Period (RxPOCLK)

1.55

Duty Cycle

TW/T0

Rise/Fall Time (20%--80%)

300

Data/Clock Skew

CQ-MIN/

CQ-MAX

250/250

RxPOCLKP

RxDOUTP/N

CROSS

CQ_MIN

CQ_MAX

CROSS

DATA INVALID WINDOW

SWING

1-1283F

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

For additional information and latest specifications, see our website: www.triquint.com

Functional Description

(continued)

Transmitter

The optical transmitter in the TB64LR-type transponder
is optimized for the particular 10GBASE-LR/LW Ether-
net segment in which it is designed to operate. The
transmitter has an uncooled direct-modulated laser as
the optical element and operates at the
1310 nm window. A serial data stream developed in the
parallel-to-serial conversion logic input drives the trans-
mitter.

The parallel-to-serial converter block shown in Figure 1
is comprised of two byte-wide registers. The first regis-
ter latches the 16 bits of parallel input data
(TxDin[15:0]) on the rising edge of TxPICLK. The sec-
ond register is a 16-bit parallel load, serial-out shift reg-
ister that is loaded from the input register. An internally
generated byte clock, which is phase aligned to the
10312.5 MHz serial transmit clock, activates the data
transfer between the input register and the parallel-to-
serial register.

The clock-divider and phase-detect circuitry shown in
Figure 1 generates internal reference clocks and timing
functions for the transmitter. Therefore, it is important
that the TxREFCLKP/N input is generated from a pre-
cise and stable source. It is required that the TxREF-
CLKP/N input be generated from a crystal oscillator or
other source having a frequency accuracy better than
±20 ppm.

The timing generation circuitry provides two separate
functions. One is a byte-rate clock that is synchronized
to the 10312.5 MHz/9.9532 MHz transmit serial clock;
the other is a mechanism for aligning the phase
between the incoming byte clock (TxPICLKP/N) and
the clock that loads the parallel data from the input reg-
ister into the parallel-to-serial shift register. The TxP-
CLKP/N output is a byte-rate (644 MHz/622 MHz)
version of the serial transmit clock and is intended for
use by upstream multiplexing and overhead processing
circuits. Using TxPCLKP/N for upstream circuits will
ensure a stable frequency and phase relationship
between the parallel data coming into the transmitter
and the subsequent parallel-to-serial timing functions.

Figure 5. TB64LR-Type Transponder Transmitter Timing Characteristics

Table 14

TB64LR-Type Transponder Receiver Timing Characteristics

Parameter

Symbol

Min

Typ

Max

Unit

Clock Period (TxPICLK)

1.55

Duty Cycle

TW/T0

Rise/Fall Time (20%--80%)

100

300

Setup Time/Hold Time

SETUP/

HOLD

300/300

TxPICLKP

TxDINP/N

CROSS

SETUP

HOLD

CROSS

DATA VALID WINDOW

1-1284F

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

For additional information and latest specifications, see our website: www.triquint.com

Transponder Interfacing

Receiver Interface Board Layout

All the receiver data outputs (RxD

OUT

P/N[15:0]) on the

customer board should have equal trace lengths, and
in most cases, be matched to that of the parallel output
clock RxPOCLKP/N. The similar lengths ensure that
these signals maintain the propagation delay time val-
ues.

It is not required to match the trace length of the
RxMCLKP/N. RxMCLKP/N is derived from the RxREF-
CLKP/N, i.e., from a VCO inside the deMUX. This
allows a clock signal to be delivered to the framer even
if the RxPOCLKP/N is not locked to any incoming opti-
cal signal.

Figure 6 shows the TB64LR r

eceiver

interface board

layout.

Note: RxMCLKP/N may not be required for all framers.

Figure 6. TB64LR-Type Receiver Interface Board Layout

DeMUX IC

RxDOUTP/N[15:0]

644 Mb/s/622 Mb/s

RxPOCLKP/N

RxMCLKP/N

644 MHz/622 MHz

TRACES MUST BE THE SAME LENGTH

OSCILLATOR

RxREFCLKP/N

161 MHz/155 MHz

644 MHz/622 MHz

100 ppm

CUSTOMER

BOARD

FRAMER IC

1-1136F

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

For additional information and latest specifications, see our website: www.triquint.com

Transponder Interfacing

(continued)

Transmitter Interface Board Layout

All the transmitter data inputs, (TxD

P/N[15:0]) should

have equal trace lengths on the customer board. There
should also be a certain phase relationship between
TxD

P/N[15:0] and the parallel input clock

(TxPICLKP/N) at the transponder electrical connector
input to allow proper MUX operation, as shown by the
setup and hold times (T

SETUP

and T

HOLD

) in Table 14,

page 28. This phase relationship can be ensured if the
trace length of the TxPICLKP/N is matched to the trace
length of the TxD

P/N data inputs. For TxREFCLKP/N

clock, a tolerance of ±20 ppm is required to meet Serial
WAN output frequency specifications. To ensure this,
using VCXO/PLL circuit is recommended.

The VCO/VCXO chosen should be of a Serial WAN
quality. The clock should have low phase noise and fre-
quency stability of better than ±20 ppm.

Figure 7 shows the TB64LR-type transmitter interface
board layout. Please contact TriQuint Optoelectronics
for more details.

Figure 7. TB64LR-Type Transmitter Interface Board Layout

TxDINP/N[15:0]

644 Mb/s/622 Mb/s

TxPICLKP/N

TxPCLKP/N

644 MHz/622 MHz

TRACES SHOULD BE THE SAME LENGTH

TxREFCLKP/N

644 MHz/622 MHz OR

CUSTOMER BOARD

SYSTEM

CLOCK

VCXO/PLL

FRAMER IC

MUX IC

1-1140F

161 MHz/155 MHz

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Transponder Grounding

Figure 8. Recommended Grounding Scheme

Qualification and Reliability

To help ensure high product reliability and customer satisfaction, TriQuint Optoelectronics is committed to an inten-
sive quality program that starts in the design phase and proceeds through the manufacturing process. Optoelec-
tronics modules are qualified to our internal standards using MIL-STD-883 test methods and procedures and using
sampling techniques consistent with Telcordia Technologies TM requirements. This qualification program fully
meets the intent of Telcordia Technologies reliability practices TR-NWT-000468 for optoelectronic parts, and the
transponder as a subsystem meets NEBS GR-63-CORE requirements. In addition, our design, development, and
manufacturing facility has been certified to be in full compliance with the latest
ISO

9001 quality system standards.

48 Vdc

dc-TO-dc

CONVERTER

FILTER

dc-TO-dc

CONVERTER

dc-TO-dc

CONVERTER

FILTER

DIGITAL

GROUND

ANALOG

GROUND

TRANSPONDER

5.2 V

ANALOG

5.2 V

DIGITAL

3.3 V

ANALOG

3.3 V

DIGITAL

5.0 V

ANALOG

50 mV PK-TO-PK NOISE MAX ON ALL POWER SUPPLY OUTPUTS

FRAME

GROUND

1-1317F

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Electrostatic Discharge

CAUTION: This device is susceptible to damage as a result of electrostatic discharge. Take proper precau-

tions during both handling and testing. Follow guidelines such as JEDEC Publication No. 108-A
(Dec. 1988).

TriQuint employs a human-body model (HBM) for ESD-susceptibility testing and protection-design evaluation. ESD

voltage thresholds are dependent on the critical parameters used to define the model. A standard HBM (resistance

= 1.5 k

, capacitance = 100 pF) is widely used and can be used for comparison purposes.

Regulatory and Voluntary Compliance

*Complies with applicable Telcordia NEBS Level 1--3 EMC requirements for components in a standalone configuration.

CAUTION: Use of controls, adjustments, and procedures other than those specified herein may result in

hazardous laser radiation exposure.

NOTICE

Unterminated optical connectors can emit laser radiation.

Do not view with optical instruments.

Table 15. Regulatory and Voluntary Compliance

Feature

Standard

Test Parameters/Performance

Electrostatic Discharge (ESD) to

the Electrical Pins

Sensitivity Classification:

MIL-STD-883E, Method 3015.7

Class 1 (0 V to 1,999 V)

Electrostatic Discharge (ESD) to

Housing and Optical Connector

EN 61000-4-2, IEC

61000-4-2

Full recovery following ±8 kV contact

discharge and ±15 kV air discharge

Electromagnetic Compatibility:

Radiated Emissions

Immunity

FCC Part 15, Class B

EN55022, Class B

GR-1089_CORE*

EN 61000-4-3

GR-1089_CORE*

Full compliance within the frequency

range of 10 KHz--20 GHz

Full compliance within the frequency

range of 10 KHz--10 GHz at a field

strength of 8.5 V/m

Safety of Information Technology

Equipment

IEC 60950

EN 60950

60950

CAN/CSA

-C22.2 No. 60950

CB Scheme:
Test Report Reference

No. 01RT14477-02252002,

Reference Certificate

No. US/5754/UL,

UL/CSA Recognition File

No. E225949

Laser Safety

21 CFR 1040.10 and 1040.11,

includes Laser Notice No. 50,

IEC 60825-1:1993,

A1:1997, and A2:2001

CDRH Accession No. (8720009-59)

AEL Class 1

CE Mark

LVD 73/23/EEC

EMC 89/336/EEC

EC Declaration of Conformity

Component Recognition

UL and CSA Joint Component Rec-

ognition for Information Technology

Equipment

UL File Number:

E225949

Compositional Analysis

Standard ICPS, GC/MS, FTIR

Analytical Processes

Analytical test results:

elements, organic compounds

For additional information and latest specifications, see our website: www.triquint.com

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Outline Diagram

Dimensions are in inches and (millimeters).

Notes:
Compact size of 3.6 in. x 2.6 in. x 0.53 in.

Package properties:
-- Material: aluminum alloy 6061-T6 per QQ-A-250/11.
-- Finish: clear chromate (conductive) per MIL-C-5541, Class 3.

Four M2.5 threaded holes are to mount the transponder on the customer board:
--Transponder mounting holes (bottom cover): maximum screw depth = 0.080 in. (2.00 mm) (thread 0.080 in. [2 mm] deep).

Four M2.5 threaded holes are for possible mounting of an external heat sink:
-- External heat sink mounting holes (top cover): maximum screw depth = 0.100 in. (2.54 mm) (thread 0.100 in. [2.54 mm] deep).

TriQuint Optoelectronics recommends that customers use a 300-pin plug FCI Berg #84500-102 (30 min gold plated) that meets Telcordia
Technologies' 100 insertions criterion.

TriQuint Optoelectronics also recommends that the distance between the Berg connector center-line and the nearest customer compo-
nents behind the transponder be 0.8 in. minimum to ensure that future transponders are accommodated without any board layout change.

The pigtails are 100cm ± 10 cm in length (39.4 in. ± 3.9 in.) as specified by dimension X in Figure 9. A yellow sleeve UL

-approved

(TBD, 94V-2) jacket is placed at the receiver end of the pigtail.

The minimum recommended operational fiber bend radius is 1.25 in. (3.18 cm).

Figure 9. Mechanical Dimensions

1-1142 (F)c2

UNSPECIFIED TOLERANCES:

ONE PLACE, ±0.1
TWO PLACES, ±0.01
THREE PLACES, ±0.003
FOUR PLACES, ±0.0005
ANGULAR, ±1.0

3.600

(91.44)

2.600

(66.04)

0.530

(13.46)

0.015

(0.38)

PIN A30

PIN A1

1.800

(45.72)

1.840

(46.74)

(6X) M2.5 MOUNTING HOLES

0.370

(9.40)

0.934

(23.72)

1.000

(25.42)

PIN K30

PIN K1

0.305

(7.75)

0.213

(5.41)

RECEIVER

1.975

(50.17)

0.312

(7.92)

0.140

(3.56)

0.240

(6.10)

(4X) M2.5 THREADED

0.768

(19.51)

1.705

(43.31)

0.448

(11.37)

HEAT SINK MOUNTING HOLES

1.170

(29.72)

0.662

(16.81)

1.530

(38.86)

SERIAL NUMBER
LABEL

DIM "X"

0.380

(9.65)

0.662

(16.81)

0.768

(19.51)

TRANSMITTER

CODE LABEL

Ø 0.260

(6.60)

3.320

(84.33)

0.130

(3.30)

Additional Information

For the latest specifications, additional product information, worldwide sales and distribution locations, and information about TriQuint:

Web: www.triquint.com

Tel: (503) 615-9000

E-mail: info_opto@tqs.com

Fax: (503) 615-8902

For technical questions and additional information on specific applications:

E-mail: info_opto@tqs.com

The information provided herein is believed to be reliable; TriQuint assumes no liability for inaccuracies or omissions. TriQuint assumes no responsibility for the use of this information, and all
such information shall be entirely at the user's own risk. Prices and specifications are subject to change without notice. No patent rights or licenses to any of the circuits described herein are
implied or granted to any third party.
TriQuint does not authorize or warranty any TriQuint product for use in life-support devices and/or systems.

DS03-013

(Replaces DS02-233), March, 2003

Data Sheet

March 2003

TB64LR-Type 10.3 Gb/s Lightwave 300-Pin Transponder

with 16-Ch. 644 Mb/s Multiplexer/Demultiplexer

Ordering Information

Table 16. Ordering Information

Device Code

Comcode

Connector

Type

Device Description

TB64LRCAA

700013079

10.3125 Gb/s (LR)/9.9532 Gb/s (LW) Ethernet 1310 nm transponder,
SFI-4 interface, with pigtailed SC connector, 300-pin connector,
10 km reach, standard configuration

TB64LRWAA

700017638

10.3125 Gb/s (LR)/9.9532 Gb/s (LW) Ethernet 1310 nm transponder,
SFI-4 interface, with pigtailed LC connector, 300-pin connector,
10 km reach, standard configuration

IEEE is a registered trademark of The Institute of Electrical and Electronics Engineers, Inc.
Telcordia Technologies is a trademark of Telcordia Technologies, Inc.
ISO is a registered trademark of The International Organization for Standardization.
IEC is a registered trademark of The International Electrotechnical Commission.
UL is a registered trademark of Underwriters Laboratories, Inc.

Document Outline

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Document Outline

ÐÐ»ÐµÐºÑ‚Ñ€Ð¾Ð½Ð½Ñ‹Ð¹ ÐºÐ¾Ð¼Ð¿Ð¾Ð½ÐµÐ½Ñ‚: TB64LRWAA