TRIQUINT TQ8101C

T
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U
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S E M I C O N D U C T O R, I N C .
TQ8101C
The TQ8101C meets ANSI, Bellcore, and ITU requirements for a SONET/
SDH device. With a 51.84-MHz reference clock, the phase-locked loop
(PLL) provides 77.76-MHz or 19.44-MHz output for the multiplexer and
77.76-MHz or 19.44-MHz and 51.84-MHz output for the demultiplexer.
Typical SONET/SDH system applications for the TQ8101C include:
•
•
•
•
•
•
Transmission system transport cards
Switch and cross-connect line cards
Repeaters
ATM physical layer interfaces
Test equipment
Add/drop multiplexers
TOUT(7:0)
8-bit data
VEE
DXDT(7:0)
OHFP
OOF
OOF fix*
OOF
TCLK
MXCK0
RIFP
DXSYNC
RICLK
600 Ω
0.68 µF
MXDT(7:0)
8-bit data
Driver
and
LASER OC-3 or OC-12
O/E Rx +
TQ8103
CDR OC-3 or OC-12
• Choice of STS-12/STM-4 or
STS-3/STM-1 transmission rates
• Configurable master or slave
reference clock generation and
PLL bypass for external clocking
• 77.76 MHz or 19.44 MHz output
for the multiplexer; 77.76 MHz or
19.44 MHz and 51.84 MHz
output for the demultiplexer
• Frame-synchronous and bytealigned demultiplexer output,
compliant with SONET and SDH
• Search, detect, and recovery of
framing on out-of-frame input
• Standard TTL and differential or
single-ended ECL I/O (except TXCK)
• Tristate TTL output for factory
circuit-board testability
• 68-pin TriQuint MLC controlled-Z
surface-mount package with
integral heat spreader
DXCK
CNTL(3:0)
51.84 MHz
CMOS OSC
*Contact PMC-Sierra for
application note.
• Byte-wide Multiplexing,
Demultiplexing, Framing, and
PLL (MDFP) in one device
• Pass-through mode and three
loopback modes for enhanced
filed diagnostics
TQ8101C
MDFP
RIN(7:0)
Features
• External RC loop filter
Figure 1. Logical Application
PM5312 or PM5355
STTX
S/UNI-622
622/155 Mb/s
SONET/SDH MDFP
TELECOM
PRODUCTS
The TQ8101C is a SONET/SDH transceiver that integrates Multiplexing,
Demultiplexing, SONET/SDH Framing, clock synthesis PLL (MDFP), and
loopback functions in a single monolithic integrated circuit. Implementation
with the TQ8101C requires only a simple external RC loop filter and standard
TTL and ECL power supplies. For optimal performance, the TQ8101C MDFP
is packaged in a 68-pin multilayer ceramic (MLC) surface-mount package
with an integral CuW heat spreader. The TQ8101C provides an integrated
solution for physical interfaces intended for use in STS-12/STM-4
(622.08-Mb/s) and STS-3/STM-1 (155.52-Mb/s) SONET/SDH systems.
• Dual-supply operation (+5V, –5.2V)
• Low power dissipation (2.3W nom.)
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1
TQ8101C
Figure 2. TQ8101C Block Diagram
MXDT(7:0)
Mux
2
TXDT
TXCK
CNTL(3:0)
MO
Control
Block
Loopback
Block
Serial-to-Parallel
Converter
TUNE
PLL Clock
Synthesizer
IOUT
RXDT
2
RXCK
Mux
MXCK(2:0)
MXHC
2
+5V
GND
–5.2V
Framer
2
MXLRC
DXSYNC
DXRCK
DXCK
DXDT(7:0)
Demux
OOF
Figure 3. TQ8101C Package—68-pin MLC
1.170 ± .006
.950 ± .010
.800
4 plcs
Pin 1 index
1
2
3
4
A
A
.950
Ceramic
or metal
lid
± .010
.050
n-4 plcs
.016
n plcs
Chip capacitor
CuW heat
spreader
4 plcs
TOP VIEW
BOTTOM VIEW
.060 ± .005
.650 ± .005
.125
.050
SECTION A
2
A
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TQ8101C
Multiplexing
Byte-wide input data on MXDT(7:0)1 is continuously
strobed into the multiplexer on the rising edge of the
multiplexer clock output, MXCK(2:0).2 Any of these
three MXCK pins may be used as a reference point for
relative timing. (See Table␣ 8 for setup, hold, and skew
times. See Table␣ 1 for clock selection options.)
Either an on-chip synthesized clock (see “PLL Clock
Synthesis”) or an external high-speed multiplexer
Demultiplexing
As shown in Figure 4, The demultiplexer block converts
incoming serial data on DXDTIN3. Byte-wide output
data is presented on DXDT(7:0)4 slightly after the
falling edge of the output demultiplexer clock, DXCK.
(See Table␣ 8 for setup, hold, and skew times.)
The demultiplexer block also includes clock divider
circuitry, which is used by the demultiplexer to control
divide-by-8 output on DXCK. The MDFP provides a
divide-by-3 or divide-by-12 output, DXRCK.
(See Table 1 for mode selection options.)
Figure 4. Demultiplexer Functional Block
DXDTIN
DXHSCK
Shift
Register
XFD
Parallel
Register
Frame Detection
and Recovery
OOF
DXSYNC
1/8
1/2
1/3
DXDT(7:0)
DXCK
1/2
Mux
DXRCK
1/3
RT
Notes:
1. MXDT(0) is defined as the least significant bit.
2. MXCK(2:0) nominally runs at 77.76 MHz in STS-12/STM-4 mode,
and at 19.44 MHz in STS-3/STM-1 mode.
3. Internal signal. See Figure 5, "TQ8101C Loopback Modes."
4. DXDT (0) is defined as the least significant bit.
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3
PRODUCTS
Figure 2 shows a block diagram of the TQ8101C
multiplexer, demultiplexer, framer, and PLL clock
synthesizer (MDFP). The primary purpose of TQ8101C
is to integrate the conversion of serial and parallel
SONET/SDH data with bit alignment and clock
synthesis in a single device.
clock, MXHC, serializes the input data bytes. In the
normal mode of operation, the serial data is then
buffered as ECL-compatible output on TXDT. An ECL
output is provided for the transmit clock, TXCK.
SONET/SDH/ATM
TELECOM
Functional Description
TQ8101C
Framing
PLL Clock Synthesis
The demultiplexer block (see Figure 2) includes a
frame-detection and recovery block. Regardless of the
state of the OOF input signal, this block takes DXSYNC
high for one period of DXCK whenever it detects a
pattern of three “A1” bytes followed by three “A2”
bytes.
The PLL utilizes a monolithic voltage-controlled
oscillator with a typical tuning constant of 50 to 100
MHz per volt on the TUNE input. This configuration
provides jitter performance superior to other
technologies. In a typical SONET/SDH application the
TUNE input and charge pump output IOUT are
connected and tied to VEE through a 600-ohm resistor
and 0.68-µF capacitor.
Frame recovery is initiated by the rising edge of the
OOF input signal. The recovery process involves a
search for a bit rotation that satisfies the three-“A1”–
three-“A2” byte pattern specified for SONET/SDH. Once
the pattern is found, DXSYNC goes high and the bit
rotation is synchronized to the correct byte boundaries.
No further byte boundary adjustments are made,
regardless of “A1”-“A2” indication, unless they have
been preceded by an OOF rising edge.
Loopback
The TQ8101C features four loopback modes: normal
(pass-through), equipment loopback, split loopback,
and facility loopback. Loopback modes are controlled
by pins CNTL(3:0). Note␣ that the loopback mode does
not affect the latched selection of clock modes and
rates. Note that the RXCK input is␣ directly connected to
the TXCK output in most loopback modes (see below).
Figure 5. TQ8101C Loopback Modes
Normal
Equipment Loopback
RXDT
DXDTIN
DXDTIN
RXCK
DXHSCK
DXHSCK
TXDT
MXDTOUT
TXDT
MXDTOUT
TXCK
MXHSCK
TXCK
MXHSCK
Split Loopback
4
Facility Loopback
RXDT
DXDTIN
RXDT
DXDTIN
RXCK
DXHSCK
RXCK
DXHSCK
TXDT
MXDTOUT
TXDT
TXCK
MXHSCK
TXCK
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TQ8101C
At power-up or during initialization, CNTL(3) should
be set to logic 1. During reset, all internal counters,
dividers, and loopback states, and the phasefrequency detector, are reset or deactivated. Note that
frame search is initiated only by a rising edge on OOF.
SONET/SDH/ATM
TELECOM
The signals on pins CNTL(3:0) can be used to control
the clock rate, clock mode, loopback scheme, and
tristate pins. Also, the internal PLL high-speed clock
may be disabled, allowing an external clock source to
be used on the MXHCN and MXHCP pins.
Note that the NAND tree enable normally is used only
for device testing of the VIH and VIL parameters.
Table 1. Modes of Operation
CNTL(3:0)
Notes: •
•
•
•
Modes of operation
0h
1h
2h
3h
Reset
Tristate all TTL outputs except DXRCK and MO
NAND-tree test all TTL inputs except CNTL(3:0)
DXRCK tristate
4h
5h
6h
7h
8h
Frame recovery disable
Equipment loopback
Facility loopback
Split loopback
Bypass, slave, internal VCO disabled, STS-3 rate
9h
Ah
Bh
Ch
Dh
Eh
Fh
Bypass, master, internal VCO disabled, STS-3 rate
Bypass, slave, internal VCO disabled, STS-12 rate
Bypass, master, internal VCO disabled, STS-12 rate
Normal, slave, internal VCO enabled, STS-3 rate
Normal, master, internal VCO enabled, STS-3 rate
Normal, slave, internal VCO enabled, STS-12 rate
Normal, master, internal VCO enabled, STS-12 rate
“Bypass” indicates the use of the external high-speed clock in lieu of the internal transmit PLL.
“Normal” indicates use of the internal transmit PLL.
“Master” derives PLL timing from the reference 51.84-MHz oscillator input, MXLRC
“Slave” derives PLL timing from the demultiplexer clock input, RXCK.
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5
PRODUCTS
Control
TQ8101C
Table 2. Absolute Maximum Ratings
Parameter
Symbol
Level
Minimum
Maximum
Unit
Positive supply
VCC
Negative supply
Output voltage
VEE
VO
—
0
7
V
—
ECL
–7
VEE – 0.5
0
+0.5
V
V
Output current
IO
ECL
—
40
mA
Input voltage
Input current
VI
II
ECL
ECL
VEE – 0.5
–1
+0.5
1
V
mA
Output voltage
Output current
Input voltage
Input current
Junction temperature
VO
IO
VI
II
TJ
TTL
TTL
TTL
TTL
—
–0.5
—
–0.5
–1
–55
VCC + 0.5
20
VCC + 0.5
1
+150
V
mA
V
mA
˚C
Storage temperature
TS
—
–65
+175
˚C
Symbol
Minimum
Nominal
Maximum
Unit
VCC
VEE
TO
4.75
–5.5
0
5
–5.2
5.25
–4.75
70
V
V
˚C
Table 3. Recommended Operating Conditions
Parameter
Positive supply
Negative supply
Operating ambient temperature
Table 4. Power Consumption
Function
+5 V supply
–5.2 V supply
Unit
Nominal
Max
40
55
320
420
mA
mA
Parameter
Symbol
Thermal resistance, junction-case
6
Level
Minimum
θJC
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Maximum
Unit
4
˚C / W
TQ8101C
17 GND
36 GND
16 DXRC
37 MXDT7
15 OOF
38 MXDT6
14 GND
39 GND
13 MO
40 MXDT5
12 TXDTN
41 MXDT4
11 GND
TQ8101C
MDFP
42 GND
43 MXDT3
10 TXDTP
9 TXCK
68 GND
67 CNTL0
66 CNTL1
65 GND
64 CNTL2
63 TUNE
62 GND
61 IOUT
1 VEE
60 CNTL3
2 GND
51 GND
59 GND
3 RXCKP
50 MXCK1
58 MXHCP
4 RXCKN
49 MXCK2
57 MXHCN
5 GND
48 GND
56 GND
47 MXDT0
55 MXLRC
6 RXDTN
54 MXCK0
7 RXDTP
46 MXDT1
53 GND
8 GND
45 GND
52 VCC
44 MXDT2
Figure 7. Recommended Package Footprint
.026
.096
1.150
1.150
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7
PRODUCTS
35 VEE
SONET/SDH/ATM
TELECOM
18 VCC
19 GND
20 DXDT7
21 DXDT6
22 GND
23 DXDT5
24 DXDT4
25 GND
26 DXDT3
27 DXDT2
28 GND
29 DXDT1
30 DXDT0
31 GND
32 DXCK
34 GND
33 DXSYN
Figure 6. Pinout Diagram
(heat spreader side—top view)
TQ8101C
Table 5. Signal Descriptions
Pin
Signal
Type
Description
1
VEE
2
3
GND
RXCKP
Negative power supply input (–5.2V)
In
Ground
Receive bit-serial clock; differential ECL, positive
4
RXCKN
In
Receive bit-serial clock; differential ECL, negative
5
6
GND
RXDTN
In
Ground
Receive bit-serial data (MSB first); differential ECL, negative
7
8
9
10
11
RXDTP
GND
TXCK
TXDTP
GND
12
13
14
15
16
TXDTN
MO
GND
OOF
DXRCK
17
18
19
20
21
GND
VCC
GND
DXDT7
DXDT6
22
23
24
25
26
27
28
29
30
31
32
33
34
GND
DXDT5
DXDT4
GND
DXDT3
DXDT2
GND
DXDT1
DXDT0
GND
DXCK
DXSYNC
GND
In
Out
Out
Out
Out
Receive bit-serial data (MSB first); differential ECL, positive
Ground
Transmit bit-serial clock; single-ended ECL level
Transmit bit-serial data (MSB first); differential ECL, positive
Ground
In
Tri Out
Transmit bit-serial data (MSB first); differential ECL, negative
NAND tree monitor output; TTL level
Ground
Out of frame; TTL level; rising-edge initiated frame search
Demultiplexer reference clock; TTL level; 50-pF backplane driving capacity
Tri Out
Tri Out
Ground
Positive power supply input (+5.0V)
Ground
Demultiplexer byte-serial data (bit 7); TTL level
Demultiplexer byte-serial data (bit 6); TTL level
Tri Out
Tri Out
Tri Out
Tri Out
Tri Out
Tri Out
Tri Out
Tri Out
Ground
Demultiplexer byte-serial data (bit 5); TTL level
Demultiplexer byte-serial data (bit 4); TTL level
Ground
Demultiplexer byte-serial data (bit 3); TTL level
Demultiplexer byte-serial data (bit 2); TTL level
Ground
Demultiplexer byte-serial data (bit 1); TTL level
Demultiplexer byte-serial date (bit 0); TTL level
Ground
Demultiplexer byte-serial clock; TTL level
Demultiplexer synchronization; TTL level
Ground
(Continues on next page)
8
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TQ8101C
Table 5. Signal Descriptions (continued)
Type
Description
35
VEE
36
GND
Negative power supply input (–5.2V)
37
MXDT7
In
Multiplexer byte-serial data (bit 7); TTL level
38
MXDT6
In
Multiplexer byte-serial data (bit 6); TTL level
39
GND
40
MXDT5
In
Multiplexer byte-serial data (bit 5); TTL level
41
MXDT4
In
Multiplexer byte-serial data (bit 4); TTL level
42
GND
43
44
MXDT3
MXDT2
In
In
Multiplexer byte-serial data (bit 3); TTL level
Multiplexer byte-serial data (bit 2); TTL level
45
46
47
48
49
GND
MXDT1
MXDT0
GND
MXCK2
50
51
52
53
54
MXCK1
GND
VCC
GND
MXCK0
Tri Out
55
56
57
58
59
MXLRC
GND
MXHCN
MXHCP
GND
In
60
61
62
63
64
65
66
67
68
CNTL3
IOUT
GND
TUNE
CNTL2
GND
CNTL1
CNTL0
GND
Ground
Ground
Ground
In
In
Tri Out
Tri Out
In
Out
In
In
Multiplexer byte-serial clock (bit 1); TTL level. See Table 1 for output rate.
Ground
Positive power supply input (+5.0V)
Ground
Multiplexer byte-serial clock (bit 0); TTL level. See Table 1 for output rate.
Multiplexer low-speed reference clock (51.84 MHz); TTL level
Ground
Multiplexer high-speed reference clock (max. 640 MHz); differential ECL, negative
Multiplexer high-speed reference clock (max. 640 MHz); differential ECL, positive
Ground
In
In
In
In
Ground
Multiplexer byte-serial data (bit 1); TTL level
Multiplexer byte-serial data (bit 0); TTL level
Ground
Multiplexer byte-serial clock (bit 2); TTL level. See Table 1 for output rate.
Control (bit 3); TTL level
Tristate charge pump output (analog); connect to pin 63
Ground
VCO tune (analog); connect to external loop filter and pin 61
Control (bit 2); TTL level
Ground
Control (bit 1); TTL level
Control (bit 0); TTL level
Ground
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9
PRODUCTS
Signal
SONET/SDH/ATM
TELECOM
Pin
TQ8101C
Table 6. DC Characteristics—ECL I/O (1)
Parameter
Condition
Symbol
Minimum
Nominal
Maximum
Unit
Internal ECL reference
(2)
VREF
—
0.26 VEE
Common mode voltage
Differential voltage
(3)
(3)
VCOM
VDIFF
–1500
200
—
—
–1100
1200
mV
mV
Input HIGH voltage
(4)
VIH
–1100
—
–400
mV
Input LOW voltage
Output HIGH voltage
(5)
VIL
VOH
VEE
–1000
—
0
–1500
–500
mV
mV
VIH (MAX)
VIL (MIN)
(6)
(6)
VOL
IIH
IIL
IOH
IOL
VTT – 100
—
—
20
–2
—
—
—
23
5
–1600
30
–30
30
8
mV
mA
mA
mA
mA
(1)
CIN
COUT
VESD
—
—
500
3
3
—
—
—
—
pF
pF
V
Condition
Symbol
Minimum
Nominal
Maximum
Unit
VIH (MAX)
VIH
VIL
IIH
2.0
0
—
—
—
—
VCC
0.8
100
V
V
mA
IIL
VOH
VOL
IOZ
CIN
COUT
VESD
–100
2.4
0
–100
—
—
1000
—
—
—
—
8
10
—
—
VCC
0.4
100
—
—
—
mA
V
V
mA
pF
pF
V
Output LOW voltage
Input HIGH current
Input LOW current
Output HIGH current
Output LOW current
Input capacitance
Output capacitance
ESD breakdown
(5)
mV
Table 7. DC Characteristics—TTL I/O (1)
Parameter
Input HIGH voltage
Input LOW voltage
Input HIGH current
Input LOW current
Output HIGH voltage
Output LOW voltage
Tristate current
Input capacitance
Output capacitance
ESD breakdown
VIL (MIN)
IOH = 3 mA
IOL = –1 mA
(1)
Notes (tables 6 and 7):
1. Specifications apply over recommended operating ranges.
2. Single-ended inputs
3. Differential inputs
4. VREF = –1300 mV
5. RLOAD = 50 ohms to VTT = –2.0V
6. Not tested; consistent with VOH and VOL tests
10
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TQ8101C
Symbol
Minimum
Nominal
Maximum
Unit
RXCK clock period
TC(RXCK)
1.6
—
—
ns
MXHC clock period
TXCK clock period
TC(MXHC)
TC(TXCK)
1.6
1.6
—
—
—
—
ns
ns
MXCK clock period
TC(MXCK)
12.8
—
—
ns
DXCK clock period
MXLRC clock period
TC(DXCK)
TC(MXTRC)
12.8
18.87
—
19.29
—
19.61
ns
ns
DXRCK clock period
RXCK clock duty cycle
MXHC clock duty cycle
TXCK clock duty cycle
MXCK clock duty cycle
TC(DXRCK)
TDC(RXCK)
TDC(MXHC)
TDC(TXCK)
TDC(MXCK)
4.80
30
30
40
40
19.29
50
50
50
50
—
70
70
60
60
ns
%
%
%
%
DXCK clock duty cycle
MXLRC clock duty cycle
DXRCK clock duty cycle
High-speed rise/fall time1 (more than 79 MHz)
Low-speed rise/fall time1 (less than 79 MHz)
TDC(DXCK)
TDC(MXIRC)
TDC(DXRCK)
TH(R/F)
TL(R/F)
40
30
40
—
—
50
50
50
—
—
60
70
60
320
2.56
%
%
%
ps
ns
CNTL(2:0) Setup Time to CNTL(3)
CNTL(2:0) Hold Time to CNTL(3)
RXDT setup time to RXCK
RXDT hold time to RXCK
OOF rising edge before A1 changes to A2
TS(CNTL)
TH(CNTL)
TS(RXDT)
TH(RXDT)
T(OOFH)
5500
2000
225
125
51.44
—
—
—
—
—
—
—
—
—
—
ps
ps
ps
ps
ns
OOF pulse width
DXSYNC rising edge from parallel
data output change from A1 to A2
DXSYNC pulse width
DXCK falling edge to valid parallel data output
MXDT(0:7) setup time to MXCK
MXDT(0:7) hold time to MXCK
TXCK falling edge to TXDT
T(OOFPW)
T(DSYNC)
12.86
—
—
25.72
—
—
ns
ns
12.86
TC(RXCK)
4500
–2000
—
—
TC(RXCK) + 0.5
—
—
—
—
TC(RSCK) + 1.5
—
—
500
ns
ns
ps
ps
ps
Notes:
T(DXSYNCPW)
TP(DXDT)
TS(MXDT)
TH(MXDT)
TP(TXDT)
SONET/SDH/ATM
TELECOM
Parameter
1. 20% to 80% of min VOH and max VOL levels.
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11
PRODUCTS
Table 8. AC Characteristics
TQ8101C
Figure 8. Input Timing
RXCKP
TS(RXDT)
TH(RXDT)
TS(MXDT)
TH(MXDT)
RXDT
MXCK(2:0)
MXDT(7:0)
Figure 9. Output Timing
TXCK
TP(TXDT)
TXDT
DXCK
TP(DXDT)
DXDT(7:0)
TP(DXSYNC)
DXSYNC
12
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TQ8101C
Figure 10. Multiplexer Timing
MXDT(7:0)
TXCK
TXDT
Figure 11. Demultiplexer Timing
RXCK
RXDT
A1
#1
A1
#2
A1
#n
A2
#1
A2
#2
A2
#3
OOF
T(OOFPW)
T(DXSYNC)
T(OOFH)
DXSYNC
T(DXSYNCPW)
DXCK
DXCK Resync
DXDT(7:0)
A1
#1
A1
#2
A1
#n
A2
#1
A2
#2
A2
#3
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13
PRODUCTS
SONET/SDH/ATM
TELECOM
MXCK(2:0)
TQ8101C
SONET/SDH Considerations
Jitter Tolerance
Jitter Generation
This measurement does not apply to the TQ8101C,
since data is transmitted from the input parallel bus
relative to a TQ8101C-generated clock output
(MXCK[2:0]). The user must meet setup and hold time
requirements in order to ensure that data tracking is
maintained.
By exploiting material characteristics, fully differential
SCFL logic, and on-chip reactive elements, the
TQ8101C typically has a jitter generation of 0.008 UI
RMS (where 1 UI is 1/622.08E06) using recommended
loop filter component values.
Ordering Information
TQ8101-M
SONET/SDH MDFP
Evaluation Board Please contact a TriQuint representative or the factory
for availability and pricing.
Additional Information
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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 warrant any TriQuint product for use in life-support devices and/or systems.
Copyright © 1997 TriQuint Semiconductor, Inc. All rights reserved.
Revision 1.1.A
November 1997
14
For additional information and latest specifications, see our website: www.triquint.com