LANSDALE ML145162-5P 60 mhz and 85 mhz universal programmable dual pll frequency synthesizer Datasheet

ML145162
60 MHz and 85 MHz Universal
Programmable Dual PLL Frequency
Synthesizers
CMOS
Legacy Device: Motorola MC145162
The ML145162 is a dual phase–locked loop (PLL) frequency synthesizer
especially designed for CT–1 cordless phone applications worldwide. This
frequency synthesizer is also for any product with a frequency operation at
60MHz or below.
The device features fully programmable receive, transmit, reference, and
auxiliary reference counters accessed through an MCU serial interface. This
feature allows this device to operate in any CT–1 cordless phone application.
The device consists of two independent phase detectors for transmit and
receive loops. A common reference oscillator, driving two independent reference frequency counters, provides independent reference frequencies for
transmit and receive loops. The auxiliary reference counter allows the user to
select an additional reference frequency for receive and transmit loops if
required.
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Operating Voltage Range: 2.5 to 5.5 V
Operating Temperature Range: TA = – 40 to +75°C
Operating Power Consumption: 3.0 mA @ 2.5 V
Maximum Operating Frequency: 60 MHz @ 200 mV p–p, VDD = 2.5 V
Three or Four Pins Used for Serial MCU Interface
Built–In MCU Clock Output with Frequency of Reference Oscillator ÷3/÷4
Power Saving Mode Controlled by MCU
Lock Detect Signal
On–Chip Reference Oscillator Supports External Crystals to 16.0 MHz
Reference Frequency Counter Division Range: 16 to 4095
Auxiliary Reference Frequency Counter Division Range: 16 to 16,383
Transmit Counter Division Range: 16 to 65,535
Receive Counter Division Range: 16 to 65,535
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P DIP 16 = EP
PLASTIC DIP
CASE 648
16
1
SOG 16 = -5P
SOG PACKAGE
CASE 751B
16
1
CROSS REFERENCE/ORDERING INFORMATION
PACKAGE
LANSDALE
MOTOROLA
P DIP 16
SOG 16
MC145162P
MC145162D
ML145162EP
ML145162-5P
Note: Lansdale lead free (Pb) product, as it
becomes available, will be identified by a part
number prefix change from ML to MLE.
PIN ASSIGNMENT
CLK
1
16
LD
ADin
2
15
TxPDout
Din
3
14
fin–T
ENB
4
13
TxPS/fTx
MCUCLK
5
12
VDD
VSS
6
11
RxPS/FRx
OSCin
7
10
RxPDout
OSCout
8
9
fin–R
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LANSDALE Semiconductor, Inc.
ML145162
BLOCK DIAGRAM
A
OSCin
7
12–BIT PROGRAMMABLE
REFERENCE COUNTER
4
25
OSCout
MCUCLK
ADin
CLK
Din
ENB
TxPS/fTx
RxPS/fRx
fin–T
14–BIT PROGRAMMABLE
AUXILIARY REFERENCE
COUNTER
8
5
3/
4
12–BIT SHIFT
REGISTER
14–BIT SHIFT
REGISTER
fR1
B
C
fR2
D
TRANSMIT
SELECT
Tx
PHASE
DETECTOR
15
TxPDout
2
1
3
4
MCU INTERFACE PROGRAMMING
MODE CONTROL
16
CONTROL REGISTER
LD
13
11
14
16–BIT SHIFT REGISTER
16–BIT Tx PROGRAMMABLE
COUNTER
RECEIVE
SELECT
Rx
PHASE
DETECTOR
10
RxPDout
16–BIT SHIFT REGISTER
fin–R
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9
16–BIT Rx PROGRAMMABLE
COUNTER
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VDD = PIN 12
VSS = PIN 6
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ML145162
MAXIMUM RATINGS* (Voltages Referenced to VSS)
Symbol
VDD
Vin
Iin, Iout
IDD, ISS
Tstg
Rating
Value
Unit
– 0.5 to + 6.0
V
– 0.5 to VDD + 0.5
V
DC Current Drain Per Pin
10
mA
DC Current Drain VDD or VSS Pins
30
mA
– 65 to + 150
°C
DC Supply Voltage
Input Voltage, All Inputs
Storage Temperature Range
* Maximum Ratings are those values beyond which damage to the device may occur.
Functional operation should be restricted to the limits in the Electrical Characteristics
tables or Pin Descriptions section.
This device contains protection circuitry to
guard against damage due to high static voltages or electric fields. However, precautions
must be taken to avoid application of any voltage
higher than maximum rated voltages to this
high–impedance circuit. For proper operation,
Vin and Vout should be constrained to the range
VSS ≤ (Vin or Vout) ≤ VDD.
Unused pins must always be tied to an
appropriate logic voltage level (e.g., either VSS
or VDD). Unused outputs must be left open.
ELECTRICAL CHARACTERISTICS (Voltages Referenced to VSS, TA = 25°C)
Guaranteed Limit
Symbol
Characteristic
VDD
Min
Max
Unit
—
2.5
5.5
V
0 Level
2.5
5.5
—
—
0.1
0.1
V
1 Level
2.5
5.5
2.45
5.45
—
—
0 Level
2.5
5.5
—
—
0.75
1.65
1 Level
2.5
5.5
1.75
3.85
—
—
(Vout = 2.2 V)
(Vout = 5.0 V)
Source
2.5
5.5
– 0.18
– 0.55
—
—
(Vout = 0.3 V)
(Vout = 0.5 V)
Sink
2.5
5.5
0.18
0.55
—
—
OSCin, fin–T, fin–R
2.5
5.5
—
—
– 30
– 66
ADin, CLK, Din, ENB
2.5
5.5
—
—
– 1.0
– 1.0
OSCin, fin–T, fin–R
2.5
5.5
—
—
30
66
ADin, CLK, Din, ENB
2.5
5.5
—
—
5.0
5.0
VDD
Power Supply Voltage Range
VOL
Output Voltage
(Iout = 0)
VOH
VIL
(Vin = VDD or 0)
Input Voltage
(Vout = 0.5 V or VDD – 0.5 V)
VIH
IOH
Output Current
IOL
IIL
IIH
Input Current
(Vin = 0)
(Vin = VDD – 0.5)
V
mA
µA
IOZ
Three–State Leakage Current (Vout = 0 V or 5.5 V)
5.5
—
± 100
nA
Cin
Input Capacitance
—
—
8.0
pF
Output Capacitance
—
—
8.0
pF
IDD(stdby)
Standby Current
(All Counters are in Power–Down Mode with Oscillator On)
2.5
5.5
—
—
0.3
1.5
mA
IDD
Operating Current
ML145162: 200 mV p–p input at f in–T and fin–R = 60 MHz
2.5
—
3.0
Cout
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SWITCHING CHARACTERISTICS (TA = 25°C, CL = 50 pF)
Symbol
Figure
No.
VDD
Min
Max
Unit
tTLH
Output Rise Time
1
2.5
5.5
—
—
200
100
ns
tTHL
Output Fall Time
1
2.5
5.5
—
—
200
100
ns
tr, tf
Input Rise and Fall Time
OSCin
2
2.5
5.5
—
—
5.0
4.0
µs
CLK and ENB
3
2.5
5.5
80
60
—
—
ns
2.5 – 5.5
2.5 – 5.5
—
—
16
60
MHz
10
ms
tw
fmax
Characteristic
Guaranteed Limit
Input Pulse Width
Input Frequency
Input = Sine Wave @ ≥ 200 mV p–p
OSCin
fin–R, fin–T
tst
Minimum Start–Up Time
tsu
Setup Time
DATA to CLK
ENB to CLK
5
2.5
5.5
100
200
—
—
ns
th
Hold Time
CLK to DATA
5
3.0
5.0
80
40
—
—
ns
trec
Recovery Time
ENB to CLK
5
3.0
5.0
80
40
—
—
ns
tsu1
Setup Time
ENB to CLK
4
2.5 – 5.5
80
—
ns
th1
Hold Time
CLK to ENB
4
2.5 – 5.5
600
—
ns
dc
12.5
kHz
dc
5.33
MHz
f
fMCUCLK
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Phase Detector Frequency
Output Clock Frequency
(OSCin
3)
MCUCLK
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ML145162
SWITCHING WAVEFORMS
tTHL
tTLH
ANY
OUTPUT
CLK, OSCin,
fin–T, fin–R
90%
10%
tr
tf
90%
10%
Figure 1.
Figure 2.
tw
ENB, CLK
50%
VDD
ADin,
Din
50%
VSS
Figure 3.
tsu
th
VDD
CLK
50%
VDD
CLK
FIRST
CLK
tsu1
LAST
CLK
tsu
VSS
th1
VDD
ENB
ENB
VSS
Figure 4. ENB High During Serial Transfer
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FIRST
CLK
LAST
CLK
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trec
VSS
VDD
50%
PREVIOUS
DATA
LATCHED
VSS
Figure 5. ENB Low During Serial Transfer
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ML145162
PIN DESCRIPTIONS
register. Details of the counter test mode are in the Tx/Rx
Channel Counter Test section of this data sheet.
INPUT PINS
OSCin/OSCout
Reference Oscillator Input/Output (Pins 7, 8) These pins
form a reference oscillator when connected to an external parallel–resonant crystal. Figure 6 shows the relationship of different crystal frequencies and reference frequencies for cordless phone applications in various countries. OSCin may also
serve as input for an externally generated reference signal
which is typically AC coupled.
MCUCLK
System Clock (Pin 5)
This output pin provides a signal of the crystal frequency
(OSCout) divided by 3 or 4 that is controlled by a bit in the
control register.
This signal can be a clock source for the MCU or other system clocks.
ADin, Din, CLK, ENB
Auxiliary Data In, Data In, Clock, Enable (Pins 2, 3, 1, 4)
These four pins provide an MCU serial interface for programming the reference counter, the transmit–channel counter, and the receive–channel counter. They also provide various
controls of the PLL including the power saving mode and the
programming format.
TxPS/fTx, RxPS/fRx
Transmit Power Save, Receive Power Save (Pins 13, 11)
For a normal application, these output pins provide the status
of the internal power saving mode operation. If the
transmit–channels counter circuitry is in power down mode,
TxPS/fTx outputs a high state. If the receive–channels counter
circuitry is in power down mode, RxPS/fRx is set high. These
outputs can be applied for controlling the external power
switch for the transmitter and the receiver to save MCU control
pins.
In the Tx/Rx channel counter test mode, the TxPS/fTx and
RxPS/fRx pins output the divided value of the transmit channel
counter (fTx) and the receive channel counter (fRx), respectively. This test mode operation is controlled by the control
f in–T/f in–R
Transmit/Receive Counter Inputs (Pins 14, 9)
f in–T and f in–R are inputs to the transmit and the receive
counters, respectively. These signals are typically driven from
the loop VCO and AC coupled. The minimum input signal
level is 200 mV p–p @ 60.0 MHz.
OUTPUT PINS
TxPDout/RxPDout
Transmit/Receive Phase Detector Outputs (Pins 15, 10)
These are three–state outputs of the transmit and receive
phase detectors for use as loop error signals (see Figure 7 for
phase detector output wave forms). Phase detector gain
isVDD/4 π volts per radian.
Frequency fV > fR or fV leading: output = negative pulse.
Frequency fV < fR or fV lagging: output = positive pulse.
Frequency fV = fR and phase coincidence: output = high–
impedance state.
NOTE: fR is the divided–down reference frequency at the
phase detector input and fV is the divided–down VCO frequency at the phase detector input.
LD
Lock Detect (Pin 16)
The lock detect signal is associated with the transmit loop.
The output at a high level indicates an out–of–lock condition
(see Figure 7 for the LD output wave form).
POWER SUPPLY
VDD
Positive Power Supply (Pin 12)
VDD is the most positive power supply potential ranging
from 2.5 to 5.5 V with respect to VSS.
VSS
Negative Power Supply (Pin 6)
VSS is the most negative supply potential and is usually connected to ground.
A
N (12 BITS)
OSCin
B
4
fR1
C
25
D
fR2
M (14 BITS)
OSCout
Crystal
N Value
fR1→B
fR2→C
1.0 kHz
11.150 MHz
446
6.25 kHz
11.150 MHz
223
12.5 kHz
10.240 MHz
512
5.0 kHz
12.000 MHz
600
5.0 kHz
Figure 6. Reference Frequencies for Cordless Phone Applications of Various Countries
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(OSCin
VH
fR, REFERENCE
REFERENCE COUNTER)
VL
VH
fV, FEEDBACK
(fin–T Tx COUNTER OR
fin–R Rx COUNTER)
VL
*
TxPDout
OR
RxPDout
VH
HIGH IMPEDANCE
LD
VH = High voltage level.
VL = Low voltage level.
*At this point, when both fR and fV are in phase, the output is forced to near mid supply.
NOTE: The TxPDout and RxPDout generate error pulses during out–of–lock conditions. When locked in phase and frequency, the output is high impedance and the voltage at that pin is determined by the low–pass filter capacitor.
Figure 7. Phase Detector/Lock Detector Output Waveforms
MCU PROGRAMMING SCHEME
The MCU programming scheme is defined in two formats
controlled by the ENB input. If the enable signal is high during
the serial data transfer, control register/reference frequency
programming is selected. If the ENB is low, programming of
the transmit and receive counters is selected. During programming of the transmit and receive counters, both ADin and Din
pins can input the data to the transmit and receive counters.
Both counters’ data is clocked into the PLL internal shift register at the leading edge of the CLK signal. It is not necessary to
reprogram the reference frequency counter/control register
when using the enable signal to program the transmit/receive
channels.
In programming the control register/reference frequency
scheme, the most significant bit (MSB) of the programming
word identifies whether the input data is the control word or
the reference frequency data word. If the MSB is 1, the input
data is the control word (Figure 8). Also see Figure 8 and Table
1 for control register and bit function. If the MSB is 0, the
input data is the reference frequency (Figure 9).
The reference frequency data word is a 32–bit word containing the 12–bit reference frequency data, the 14–bit auxiliary
reference frequency counter information, the reference frequency selection plus, the auxiliary reference frequency counter enable bit (Figure 9).
If the AUX REF ENB bit is high, the 14–bit auxiliary reference frequency counter provides an additional phase reference
frequency output for the loops. If AUX REF ENB bit is low,
the auxiliary reference frequency counter is forced into
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power–down mode for current saving. (Other power down
modes are also provided through the control register per Table
2 and Figure 8.) At the falling edge of the ENB signal, the data
is stored in the registers.
There are two interfacing schemes for the universal channel
mode: the three–pin and the four–pin interfacing schemes. The
three–pin interfacing scheme is suited for use with the MCU
SPI (serial peripheral interface) (Figure 10), while the four–pin
interfacing scheme is commonly used for general I/O port connection (Figure 11).
For the three–pin interfacing scheme, the auxiliary data
select bit is set to 0. All 32 bits of data, which define both
the16–bit transmit counter and the 16–bit receive counter, latch
into the PLL internal register through the data in pins at the
leading edge of CLK. See Figures 12 and 13.
For the four–pin interfacing scheme, the auxiliary data select
bit is set to 1. In this scheme, the 16–bit transmit counter’s data
enters into the ADin pin at the same time as the 16–bit receive
counter’s data enters into the Din pin. This simultaneous entry
of the transmit and receive counters causes the programming
period of the four–pin scheme to be half that of the three–pin
scheme (see Figures 14 and 15).
While programming Tx/Rx Channel Counter, the ENB pin
must be pulsed to provide falling edge to latch the shifted data
after the rising edge of the last clock. Maximum data transfer
rate is 500 kbps.
NOTE
10 ms should be allowed for initial start–up time for
the oscillator to allow all registers to clear and enable
programming of new register values.
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CONTROL REGISTER IDENTIFIER = 1
Din
1
CONTROL REGISTER DATA
TEST
BIT
0
AUX
DATA
SELECT
REF
OUT
3/ 4
TxPD
ENABLE
RxPD
ENABLE
MSB
REF PD
ENABLE
LSB
CLK
ENB
NOTE: ENB must be high during the serial transfer.
Figure 8. Programming Format of the Control Register
Table 1. Control Register Function Bits Description
Test Bit
Set to 1 for Tx/Rx channel counter test mode
Set to 0 for normal application
Aux Data Select
Set to 1 for both ADin and Din pins inputting the transmit 16–bits data and receive 16–bits data
respectively.
Set to 0 for normal application interfacing with MCU serial peripheral interface. Does not use ADin pin;
tie ADin to VSS.
REFout
3/
4
If set to 1, REFout output frequency is equal to OSCout
If set to 0, REFout output is OSCout 4.
3.
TxPD Enable
If set to 1, the transmit counter, transmit phase detector, and the associated circuitry is in power–
down mode.
Tx PS/fTx is set “High”.
RxPD Enable
If set to 1, the receive counter, receive phase detector, and the associated circuitry is in power–
down mode.
Rx PS/fRx is set “High”.
Ref PD Enable
If set to 1, both 12–bit and 14–bit reference frequency counters are in power–down mode.
Table 2. Control Register Power Down Bits Function
Page 8 of 24
TxPD
Enable
RxPD
Enable
REF PD
Enable
Tx–Channel Counter
Rx–Channel Counter
0
0
0
—
—
—
0
0
1
—
—
Power Down
0
1
0
—
Power Down
—
0
1
1
—
Power Down
Power Down
1
0
0
Power Down
—
—
1
0
1
Power Down
—
Power Down
1
1
0
Power Down
Power Down
—
1
1
1
Power Down
Power Down
Power Down
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Reference
Frequency Counter
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REFERENCE FREQUENCY COUNTER
IDENTIFIER = 0
Din
0
REFERENCE
FREQUENCY
SELECT
AUX
Tx–0
Rx–0
REF
ENABLE SELECT SELECT
REFERENCE
FREQUENCY
COUNTER
DIVIDE RATIO
12–BITS REF FREQ
DATA
REFERENCE
FREQUENCY
SELECT
AUX REFERENCE
FREQUENCY COUNTER
DIVIDE RATIO
fR1
S1
14–BITS AUX REF FREQ
DATA
fR1
S2
CLK
ENB
NOTE: ENB must be high during the serial transfer.
Figure 9. Programming Format of the Auxiliary/Reference Frequency Counters
Din
MCU
USING
SERIAL PERIPHERAL
INTERFACE PORT
CLK
UNIVERSAL PLL
AUX DATA BIT = 0
ENB
Figure 10. MCU Interface Using SPI
ADin
MCU
USING
NORMAL I/O PORT
Din
CLK
UNIVERSAL PLL
AUX DATA BIT = 1
ENB
Figure 11. MCU Interface Using Normal I/O Ports with
Both Din and ADin for Faster Programming Time
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CONTROL REGISTER IDENTIFIER = 1
Din
1
AUX DATA SELECT = 0
0
CONTROL REGISTER DATA
TEST
BIT
AUX
DATA
SELECT
REF
OUT
3/ 4
TxPD
ENABLE
RxPD
ENABLE
REF PD
ENABLE
MSB
LSB
CLK
ENB
NOTE: ENB must be high during the serial transfer.
Figure 12. Programming Format for Control Register (3–Pin Interfacing Scheme)
16–BIT Tx COUNTER
DIVIDE RATIO
Din
16–BIT Rx COUNTER
DIVIDE RATIO
LAST
CLOCK
CLK
ENB
NOTE: ENB must be low during the serial transfer.
Figure 13. Programming Format for Transmit and Receive Counters
(3–Pin Interfacing Scheme)
CONTROL REGISTER IDENTIFIER = 1
Din
AUX DATA SELECT = 1
1
0
CONTROL REGISTER DATA
TEST
BIT
AUX
DATA
SELECT
REF
OUT
3/ 4
MSB
TxPD
ENABLE
RxPD
ENABLE
REF PD
ENABLE
LSB
CLK
ENB
NOTE: ENB must be high during the serial transfer.
Figure 14. Programming Format for Control Register (4–Pin Interfacing Scheme)
Page 10 of 24
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ADin
16–BIT Tx COUNTER
DIVDE RATIO
Din
16–BIT Rx COUNTER
DIVIDE RATIO
LAST
CLOCK
CLK
ENB
NOTE: ENB must be low during the serial transfer.
Figure 15. Programming Format for Transmit and Receive Counters
(4–Pin Interfacing Scheme)
Table 3. Global CT–1 Reference Frequency Setting vs Channel Frequencies
Country
Channels Frequency
fR2
U.S.A.
46/49 MHz (10, 15, 25 Channels)
5.0 kHz
—
France
26/41 MHz
6.25 kHz/12.5 kHz
—
Spain
31/41 MHz
5.0 kHz
—
Australia
30/39 MHz
5.0 kHz
—
U.K.
1.7/47 MHz
6.25 kHz
1.0 kHz
New Zealand
1.7/34/40 MHz
6.25 kHz
1.0 kHz
REFERENCE FREQUENCY SELECTION
AND PROGRAMMING
Figure 16 shows the bit function of the reference frequency
programming word. The user can either select the “fixed” reference frequency for all channels accordingly or provide a specific reference frequency for a particular channel by using two
reference frequency counters (e.g., for an application in
France, the base set transmit channel common fixed reference
frequency is 6.25 kHz or 12.5 kHz). (See Table 3 and Figure 6
for reference frequencies for various countries.) However,
transmit channels 6, 8, and 14 can be set to 25 kHz, and channel 8 reference frequency can be set to 50 kHz. But this reference frequency may not be applied to the receiving side; therefore, the receiving side reference frequency must be generated
by another reference frequency counter. The higher the reference frequency, the better the phase noise performance and
faster the lock time, but the PLL consumes more current if
both reference frequency counters are in operation.
In general, the 12–bit reference frequency counter plus the ÷ 4
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fR1
and ÷ 25 module can offer all the reference frequencies for
global CT–1 transmit and receive channel requirements. Users
can select their own reference frequency by introducing the
additional 14–bit auxiliary reference frequency counter.
Again, the 14–bit auxiliary reference frequency counter can
be shut down by the auxiliary reference enable bit in the reference counter programming word by setting the bit to 0. At this
state, the fR2 is automatically connected to point C (the ÷25
block output), and fR1 can be connected to point A or B by
setting the fR1–S1 and fR1–S2 bits in the reference counter
program word. The 14–bit auxiliary reference frequency counter data will be in “Don’t Care” state.
If the 14–bit auxiliary reference frequency counter is enabled
(auxiliary reference enable = 1), then fR2 is automatically connected to point D (14–bit counter output), and fR1 can be
selected to connect to point A, B, or C, depending on the bit
setting of fR1–S1 and fR1–S2. Table 4 and Figure 16 describe
the functions of the auxiliary reference enable bit and the
fR1–S1 and fR1–S2 bits selection.
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A
12–BIT PROGRAMMABLE
REFERENCE COUNTER
OSCin
4
C
25
14–BIT PROGRAMMABLE
AUXILIARY REFERENCE
COUNTER
OSCout
MAXIMUM
CRYSTAL FREQUENCY
16.0 MHz
fR1
B
fR2
D
Tx
PHASE
DETECTOR
1
Tx–0
SELECT
0
Din
0
REFERENCE
FREQUENCY
SELECT
AUX
Tx–0
Rx–0
REF
ENABLE SELECT SELECT
REFERENCE
FREQUENCY
COUNTER
12–BITS REF FREQ
DATA
REFERENCE
FREQUENCY
SELECT
AUXILIARY REFERENCE
FREQUENCY COUNTER
fR1
S1
14–BITS AUX REF FREQ
DATA
fR1
S2
RxPDout
Rx–0
SELECT
0
REF FREQUENCY
COUNTER IDENTIFIER = 0
LD
Rx
PHASE
DETECTOR
1
TxPDout
CLK
ENB
NOTE: ENB must be high during the serial transfer.
Figure 16. Reference Frequency Counter/Selection Programming Mode
Table 4. Bit Function and the Reference Frequency Selection Bit Setting of the
Reference Frequency Counter Programming Word
AUX REF
Enable
0
1
Auxiliary Reference Frequency
Counter Mode
Module
Select
fR1
S1
fR1
S2
fR1 Routing
14–Bit Auxiliary Reference Frequency
Counter Disable
fR2 → C
0
0
0
1
N/A
fR1 → A
1
0
fR1 → B
1
1
N/A
0
0
0
1
N/A
fR1 → A
1
0
fR1 → B
1
1
fR1 → C
14–Bit Auxiliary Reference Frequency
Counter Enable
fR2 → D
N/A = Not Applicable
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POWER SAVING OPERATION
This PLL has a programmable power–saving scheme. The
transmit and receive counters and the reference frequency
counter can be powered down individually by setting the TxPD
enable, RxPD enable, and Ref PD enable bits of the control
register. The functions of the power down control bits are
explained in Table 2 and the programming format is in Figure 8.
The output pins TxPS/fTx and RxPS/fRx output the status of
the internal power saving setting. If the bit TxPD enable is set
“high” (transmit counter is set to power–down mode), then the
TxPS/fTx pin will also output a “high” state. This TxPS/fTx
out-put can control an external power switch to switch off the
transmitter, as shown in Figure 17. This scheme can be applied
to the RxPS/fRx output to control the receiver power saving
operation as required.
UNIVERSAL DUAL PLL
POWER SUPPLY
VDD
TxPS/fTx
Q
Tx POWER–DOWN
ENABLE FLAG
POWER SWITCH FOR TRANSMITTER
Tx DIVIDER CHAIN COUNTER, PHASE DETECTOR
Tx
POWER
AMP
VDD
RxPS/fRx
Q
TO CONTROL THE RECEIVER
POWER SWITCH
Rx POWER–DOWN
ENABLE FLAG
Rx DIVIDER CHAIN COUNTER, PHASE DETECTOR
Figure 17. TxPS/fTx and RxPS/fRx Outputs to Control Power Switches
of the Transmitter and the Receiver
Page 13 of 24
www.lansdale.com
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Tx/Rx CHANNEL COUNTER TEST
In normal applications, the TxPS/fTx and the RxPS/fRx output pins indicate the power saving mode status. However, the
user can examine the Tx and Rx channel counter outputs by
setting the Test bit in the control register to 1. The final value
of the transmit–channel counter and the receive–channel counter multiplex out to TxPS/fTx and RxPS/fRx respectively. The
user can verify the divided–down output waveform associated
with the RF input level in the PLL circuitry implementation
(Figure 18).
16–BIT Tx PROGRAMMABLE
CHANNELS COUNTER
fin–T
fTx
TxPS / fTx
TxPS
IF TEST BIT IS SET TO 1, THE fTx
AND fRx ARE MUXED OUT AT PINS
TxPS/fTx AND RxPS/fRx,
RESPECTIVELY, FOR Rx/Tx
CHANNEL COUNTER TEST.
CONTROL REGISTER IDENTIFIER = 1
Din
1
0
TEST
BIT
AUX
DATA
SELECT
REF
OUT
3/ 4
TxPD
ENABLE
RxPD
ENABLE
REF PD
ENABLE
16–BIT Rx PROGRAMMABLE
CHANNELS COUNTER
fin–R
RxPS / fRx
CONTROL REGISTER
fRx
RxPS
Figure 18. RF Buffer Sensitivity
Page 14 of 24
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Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 5. France CT–1 Base Set Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
6.25 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
6.25 kHz)
1
26.4875
4238
30.7875
4926
2
26.4750
4236
30.7750
4924
3
26.4625
4234
30.7625
4922
4
26.4500
4232
30.7500
4920
5
26.4375
4230
30.7375
4918
6
26.4250
4228
30.7250
4916
7
26.4125
4226
30.7125
4914
8
26.4000
4224
30.7000
4912
9
26.3875
4222
30.6875
4910
10
26.3750
4220
30.6750
4908
11
26.3625
4218
30.6625
4906
12
26.3500
4216
30.6500
4904
13
26.3375
4214
30.6375
4902
14
26.3250
4212
30.6250
4900
15
26.3125
4210
30.6125
4898
Table 6. France CT–1 Handset Frequency
Page 15 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
6.25 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
6.25 kHz)
1
41.4875
6638
37.1875
5950
2
41.4750
6636
37.1750
5948
3
41.4625
6634
37.1625
5946
4
41.4500
6632
37.1500
5944
5
41.4375
6630
37.1375
5942
6
41.4250
6628
37.1250
5940
7
41.4125
6626
37.1125
5938
8
41.4000
6624
37.1000
5936
9
41.3875
6622
37.0875
5934
10
41.3750
6620
37.0750
5932
11
41.3625
6618
37.0625
5930
12
41.3500
6616
37.0500
5928
13
41.3375
6614
37.0375
5926
14
41.3250
6612
37.0250
5924
15
41.3125
6610
37.0125
5922
www.lansdale.com
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 7. Spain CT–1 Base Set Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.695 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
31.0250
6205
29.2300
5846
2
31.0500
6210
29.2550
5851
3
31.0750
6215
29.2800
5856
4
31.1000
6220
29.3050
5861
5
31.1250
6225
29.3300
5866
6
31.1500
6230
29.3550
5871
7
31.1750
6235
29.3800
5876
8
31.2000
6240
29.4050
5881
9
31.2500
6250
29.4550
5891
10
31.2750
6255
29.4800
5896
11
31.3000
6260
29.5050
5901
12
31.3250
6265
29.5300
5906
Table 8. Spain CT–1 Handset Frequency
Page 16 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
39.9250
7985
20.3300
4066
2
39.9500
7990
20.3550
4071
3
39.9750
7995
20.3800
4076
4
40.0000
8000
20.4050
4081
5
40.0250
8005
20.4300
4086
6
40.0500
8010
20.4550
4091
7
40.0750
8015
20.4800
4096
8
40.1000
8020
20.5050
4101
9
40.1500
8030
20.5550
4111
10
40.1750
8035
20.5800
4116
11
40.2000
8040
20.6050
4121
12
40.2250
8045
20.6300
4126
www.lansdale.com
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 9. New Zealand CT–1 Base Set Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
6.25 kHz)
1
1.7820
1782
29.7625
4762
2
1.7620
1762
3
1.7420
1742
29.7500
4760
29.7375
4758
4
1.7220
1722
29.7250
4756
5
1.7020
6
34.3500
1702
29.7125
4754
5496
29.7000
4752
7
34.3625
5498
8
34.3750
5500
29.6875
4750
29.6750
4748
9
34.3875
5502
10
34.4000
5504
29.6625
4746
29.6500
4744
Tx Counter Value
Ref Freq
= 1.0 kHz
Ref Freq
= 6.25 kHz
Table 10. New Zealand CT–1 Handset Frequency
Page 17 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
6.25 kHz)
1
40.4625
6474
2.2370
2
40.4500
6472
2.2170
3
40.4375
6470
2.1970
4
40.4250
6468
2.1770
5
40.4125
6466
2.1570
2157
6
40.4000
6464
23.6500
3784
7
40.3875
6462
23.6625
8
40.3750
6460
23.6750
9
40.3625
6458
23.6875
10
40.3500
6456
23.7000
fin–R Input
Frequency (MHz)
www.lansdale.com
Rx Counter Value
2237
Ref Freq
= 455 kHz
Ref Freq
= 10.7 kHz
2217
2197
2177
3786
3788
3790
Ref Freq
= 1.0 kHz
Ref Freq
= 6.25 kHz
3792
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 11. Australia CT–1 Base Set Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.695 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
30.0750
6015
29.0800
5816
2
30.1250
6025
29.1300
5826
3
30.1750
6035
29.1800
5836
4
30.2250
6045
29.2300
5846
5
30.2750
6055
29.2800
5856
6
30.1000
6020
29.1050
5821
7
30.1500
6030
29.1550
5831
8
30.2000
6040
29.2050
5841
9
30.2500
6050
29.2550
5851
10
30.3000
6060
29.3050
5861
Table 12. Australia CT–1 Handset Frequency
Page 18 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
39.7750
7955
19.3800
3876
2
39.8250
7965
19.4300
3886
3
39.8750
7975
19.4800
3896
4
39.9250
7985
19.5300
3906
5
39.9750
7995
19.5800
3916
6
39.8000
7960
19.4050
3881
7
39.8500
7970
19.4550
3891
8
39.9000
7980
19.5050
3901
9
39.9500
7990
19.5550
3911
10
40.0000
8000
19.6050
3921
www.lansdale.com
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 13. U.K. CT–1 Base Set Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
1.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
6.25 kHz)
1
1.6420
1642
36.75625
5881
2
1.6620
1662
36.76875
5883
3
1.6820
1682
36.78125
5885
4
1.7020
1702
36.79375
5887
5
1.7220
1722
36.80625
5889
6
1.7420
1742
36.81875
5891
7
1.7620
1762
36.83125
5893
8
1.7820
1782
36.84375
5895
Table 14. U.K. CT–1 Handset Frequency
Page 19 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
6.25 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 455 kHz]
Rx Counter Value
(Ref. Freq. =
1.00 kHz)
1
47.45625
7593
2.097
2097
2
47.46875
7595
2.117
2117
3
47.48125
7597
2.137
2137
4
47.49375
7599
2.157
2157
5
47.50625
7601
2.177
2177
6
47.51875
7603
2.197
2197
7
47.53125
7605
2.217
2217
8
47.54375
7607
2.237
2237
www.lansdale.com
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 15. U.S.A. (10 Channels) CT–1 Base Set Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.695 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
46.610
9322
38.975
7795
2
46.630
9326
38.150
7830
3
46.670
9334
38.165
7833
4
46.710
9342
39.075
7815
5
46.730
9346
39.180
7836
6
46.770
9354
39.135
7827
7
46.830
9366
39.195
7839
8
46.870
9374
39.235
7847
9
46.930
9386
39.295
7859
10
46.970
9394
39.275
7855
Table 16. U.S.A. (10 Channels) CT–1 Handset Frequency
Page 20 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
49.670
9934
35.915
7183
2
49.845
9969
35.935
7187
3
49.860
9972
35.975
7195
4
49.770
9954
36.015
7203
5
49.875
9975
36.035
7207
6
49.830
9966
36.075
7215
7
49.890
9978
36.135
7227
8
49.930
9986
36.175
7235
9
49.990
9998
36.235
7247
10
49.970
9994
36.275
7255
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Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 17. U.S.A. (25 Channels) CT–1 Base Set Frequency
Page 21 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
43.72
8744
38.06
7612
2
43.74
8748
38.14
7628
3
43.82
8764
38.16
7632
4
43.84
8768
38.22
7644
5
43.92
8784
38.32
7664
6
43.96
8788
38.38
7676
7
44.12
8824
38.40
7680
8
44.16
8832
38.46
7692
9
44.18
8836
38.50
7700
10
44.20
8840
38.54
7708
11
44.32
8864
38.58
7716
12
44.36
8872
38.66
7732
13
44.40
8880
38.70
7740
14
44.46
8892
38.76
7752
15
44.48
8896
38.80
7760
16
46.61
9322
38.97
7794
17
46.63
9326
39.145
7829
18
46.67
9334
39.16
7832
19
46.71
9342
39.07
7814
20
46.73
9346
39.175
7835
21
46.77
9354
39.13
7826
22
46.83
9366
39.19
7838
23
46.87
9374
39.23
7846
24
46.93
9386
39.29
7858
25
46.97
9394
39.27
7854
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Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 18. U.S.A. (25 Channels) CT–1 Handset Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
48.76
9752
33.02
6604
2
48.84
9768
33.04
6608
3
48.86
9772
33.12
6624
4
48.92
9748
33.14
6628
5
49.02
9804
33.22
6644
6
49.08
9816
33.26
6652
7
49.10
9820
33.42
6684
8
49.16
9832
33.46
6692
9
49.20
9840
33.48
6696
10
49.24
9848
33.50
6700
11
49.28
9856
33.62
6724
12
49.36
9872
33.66
6732
13
49.40
9880
33.70
6740
14
49.46
9892
33.76
6752
15
49.50
9900
33.78
6756
16
49.67
9934
33.91
7182
17
49.845
9969
33.93
7186
18
49.86
9972
33.97
7194
19
49.77
9954
36.01
7202
20
49.875
9975
36.03
7206
21
49.83
9966
36.07
7214
22
49.89
9978
36.13
7226
23
49.93
9986
36.17
7234
24
49.99
9998
36.23
7246
25
49.97
9994
36.27
7254
Table 19. Korea CT–1 Base Set Frequency
Page 22 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.695 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
46.610
9322
38.975
7795
2
46.630
9326
38.150
7830
3
46.670
9334
38.165
7833
4
46.710
9342
39.075
7815
5
46.730
9346
39.180
7836
6
46.770
9354
39.135
7827
7
46.830
9366
39.195
7839
8
46.870
9374
39.235
7847
9
46.930
9386
39.295
7859
10
46.970
9394
39.275
7855
11
46.510
9302
39.000
7800
12
46.530
9306
39.015
7803
13
46.550
9310
39.030
7806
14
46.570
9314
39.045
7809
15
46.590
9318
39.060
7812
www.lansdale.com
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
Table 20. Korea CT–1 Handset Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
49.670
9934
35.915
7183
2
49.845
9969
35.935
7187
3
49.860
9972
35.975
7195
4
49.770
9954
36.015
7203
5
49.875
9975
36.035
7207
6
49.830
9966
36.075
7215
7
49.890
9978
36.135
7227
8
49.930
9986
36.175
7235
9
49.990
9998
36.235
7247
10
49.970
9994
36.275
7255
11
49.695
9939
35.815
7163
12
49.710
9942
35.835
7167
13
49.725
9945
35.855
7171
14
49.740
9948
35.875
7175
15
49.755
9951
35.895
7179
Table 21. China CT–1 Base Set Frequency
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
45.250
9050
37.550
7510
2
45.275
9055
37.575
7515
3
45.300
9060
37.600
7520
4
45.325
9065
37.625
7525
5
45.350
9070
37.650
7530
6
45.375
9075
37.675
7535
7
45.400
9080
37.700
7540
8
45.425
9085
37.725
7545
9
45.450
9090
37.750
7550
10
45.475
9095
37.775
7555
Table 22. China CT–1 Handset Frequency
Page 23 of 24
Channel
Number
Tx Channel
Frequency
(MHz)
Tx Counter Value
(Ref. Freq. =
5.00 kHz)
fin–R Input
Frequency (MHz)
[1st IF = 10.7 MHz]
Rx Counter Value
(Ref. Freq. =
5.00 kHz)
1
48.250
9650
34.550
6910
2
48.275
9655
34.575
6915
3
48.300
9660
34.600
6920
4
48.325
9665
34.625
6925
5
48.350
9670
34.650
6930
6
48.375
9675
34.675
6935
7
48.400
9680
34.700
6940
8
48.425
9685
34.725
6945
9
48.450
9690
34.750
6950
10
48.475
9695
34.775
6955
www.lansdale.com
Issue 0
LANSDALE Semiconductor, Inc.
ML145162
OUTLINE DIMENSIONS
P DIP 16 = EP
(ML145162EP)
PLASTIC DIP
CASE 648–08
NOTES:
1. DIMENSIONING AND TOLERANCING PER ANSI
Y14.5M, 1982.
2. CONTROLLING DIMENSION: INCH.
3. DIMENSION L TO CENTER OF LEADS WHEN
FORMED PARALLEL.
4. DIMENSION B DOES NOT INCLUDE MOLD FLASH.
5. ROUNDED CORNERS OPTIONAL.
–A–
16
9
1
8
B
F
C
DIM
A
B
C
D
F
G
H
J
K
L
M
S
L
S
SEATING
PLANE
–T–
K
H
G
D
M
J
16 PL
0.25 (0.010)
M
T A
M
SOG 16 = -5P
(ML145162-5P)
SOG PACKAGE
CASE 751B–05
–A–
16
1
P
8 PL
0.25 (0.010)
8
M
B
S
G
R
K
F
X 45
C
–T–
SEATING
PLANE
M
D
16 PL
0.25 (0.010)
M
T B
S
A
S
MILLIMETERS
MIN
MAX
18.80
19.55
6.35
6.85
3.69
4.44
0.39
0.53
1.02
1.77
2.54 BSC
1.27 BSC
0.21
0.38
2.80
3.30
7.50
7.74
0
10
0.51
1.01
NOTES:
1. DIMENSIONING AND TOLERANCING PER ANSI
Y14.5M, 1982.
2. CONTROLLING DIMENSION: MILLIMETER.
3. DIMENSIONS A AND B DO NOT INCLUDE
MOLD PROTRUSION.
4. MAXIMUM MOLD PROTRUSION 0.15 (0.006)
PER SIDE.
5. DIMENSION D DOES NOT INCLUDE DAMBAR
PROTRUSION. ALLOWABLE DAMBAR
PROTRUSION SHALL BE 0.127 (0.005) TOTAL
IN EXCESS OF THE D DIMENSION AT
MAXIMUM MATERIAL CONDITION.
9
–B–
INCHES
MIN
MAX
0.740
0.770
0.250
0.270
0.145
0.175
0.015
0.021
0.040
0.70
0.100 BSC
0.050 BSC
0.008
0.015
0.110
0.130
0.295
0.305
0
10
0.020
0.040
J
DIM
A
B
C
D
F
G
J
K
M
P
R
MILLIMETERS
MIN
MAX
9.80
10.00
3.80
4.00
1.35
1.75
0.35
0.49
0.40
1.25
1.27 BSC
0.19
0.25
0.10
0.25
0
7
5.80
6.20
0.25
0.50
INCHES
MIN
MAX
0.386
0.393
0.150
0.157
0.054
0.068
0.014
0.019
0.016
0.049
0.050 BSC
0.008
0.009
0.004
0.009
0
7
0.229
0.244
0.010
0.019
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described herein; neither does it convey any license under its patent rights nor the rights of others. “Typical” parameters which
may be provided in Lansdale data sheets and/or specifications can vary in different applications, and actual performance may
vary over time. All operating parameters, including “Typicals” must be validated for each customer application by the customer’s
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