Alinco DJ-V47 E, DJ-V47 T, DJ-V47, DJ-V17 R, DJ-V17 TFH Service Manual

...
DJ-V17 T/E/TFH/R DJ- V47 T/E/T1/T2
Service Manual
CONTENTS
SPECIFICATIONS (DJ-V17)
General (DJ-V17)......................................................2
Transmitter (DJ-V17)
General (DJ-V47)......................................................3
Transmitter (DJ-V47)...............................................3
CIRCUIT DESCRIPTION
1) Receiver System...................................................4
2) Transmitter System.............................................6
3) PLL Synthesizer Circuit...................................6,7
4) CPU & Peripheral Ciruits.................................7,8
5) M38268MCA-077GP(XA1121)
SEMICONDUCTOR DATA
1) NMJ2070MT1 (XA0210)
2) S24CS64A01-J8T1 G(XA1117)........................11
3) M62429FP/CF0J(XA1118)
4) LM2902PWR(XA1106)
5) TA31136FN (E L) (XA0404)
6) S80845CLNB-B66-T2G(XA1120)
7) MB15E07SR(XA1107)
8) XC6202P502MR(XA1119)
9) Transistor, Diode and LED Outline Drawing.....16
10) LCD Connection(EL0059)
EXPLODED VIEW
1) Front View.
2) Rear View........................................................... 18
..........................................................17
...............................................2
...................
....................................11
..............................
.....................................
...............................
...................
......................................
..............................
............................
8-10
12 12 13 13 14 15
16
PARTS LIST
MAIN Unit (DJ-V17) Mechanical Unit (DJ-V17)
Packing Unit (DJ-V17)...........................................25
MAIN Unit (DJ-V47) Mechanical Unit (DJ-V47)
Packing Unit (DJ-V47)...........................................32
ADJUSTMENT
1) Required Test Equipment .........................33,34
2) Preparation.........................................................34
3) Adjustment Mode
4) Re-assembly.......................................................42
PC BOARD VIEW
MAIN SIDE A(DJ-V17)..........................................43
MAIN SIDE B (DJ-V17)..........................................44
MAIN SIDE A (DJ-V47)..........................................45
MAIN SIDE B (DJ-V47)..........................................46
SCHEMATIC DIAGRAM (DJ-V17)
SCHEMATIC DIAGRAM (DJ-V47)
BLOCK DIAGRAM (DJ-V17)
BLOCK DIAGRAM (DJ-V47)
........................................
...............................
........................................
.....................................32
........................................
............
............
......................
......................
19-24
24,25
26-32
35-42
47
48
49
50
A L IN C O , in c
SPECIFICATIONS (DJ-V17)
General
Frequency range: T: TX144~147.995MHz
RX130-1 73.995MHz
E/EUK:TX144~145.995MHz
RX144-145.995MHZ
TFH/R: TX136-173.995MHz
RX130-1 73.995MHz
* Guaranteed range
*144-147.995MHz *144~147.995MHz *144~145.995MHz *144~145.995MHz *150-173.995MHz *150-173.995MHz
Modulation: Frequency step: Memory channel:
Ant. impedance:
Frequency stability: Mic impedance:
Supply voltage: Current consumption:
Temperature range:
Ground:
Dimension:
Weight:
DTMF:
Sub audible Tone (CTCSS): Sub audible Tone (CTS):
F3E (FM) 5, 10, 12.5, 15, 20, 25, 30kHz step 200 channels + 1 call channel + 1 Repeater-Access function memory 50 Q unbalanced ±5ppm 2k Q DC 7.0-16.0V (EXT DC-IN)
1.4A (typical) Transmit high at 5W 250mA (typical) Receive at 500mW 70mA (typical) Standby 25mA (typical) Battery save on External DC: -10°C~+60°C (+14°F~+140°F) Battery packs: -10°C~+45°C (+14°F~+113°F) Negative ground 58(W )x 110(H) x36.4(D)mm (2.28"(W) x 4.33"(H) x 1,43"(D)) (with EBP-65) Approx. 280g (9.9oz) (with EBP-65) 16 Buttons Keypad encoder/decoder installed (39 tones) encoder/decoder installed (104codes)
Transmitter
Power output:
Modulation:
Spurious emission:
Max. deviation: Mic. impedance:
Receiver
System: Sensitivity:
Intermediate frequency:
Selectivity:
AF output:
2
Approx. 5W (with EBP-65) Approx. 5W (with DC 13.8V) Approx. 0.8W (LOW output) Variable reactance
-60dB or less ±5kHz 2k Q
Double-conversion super heterodyne
-14.0dB/z(0.2/zV)or less
1st IF 21.7MHz 2nd IF 450kHz
-6dB: 12kHz or more
-60dB: 26kHz or less 500mW (MAX) 400mW (8 Q, 10% distortion)
SPECIFICATIONS (DJ-V47)
General
Frequency range:
T: TX420~449.995MHz *420~449.995MHz
RX400~479.995MHz *420~449.995MHz
E: TX430~439.995MHz *430~439.995MHz
RX430~439.995MHz *430~439.995MHz
T1 : TX400~459.995MHz *400~429.995MHz
RX400~459.995MHz *400~429.995MHz
T2: TX440~479.995MHz *450~469.995MHz
RX440~479.995MHz *450~469.995MHz
* Guaranteed range
Modulation: Frequency step: Memory channel:
Ant. impedance:
Frequency stability: Mic impedance:
Supply voltage: Current consumption:
Temperature range:
Ground:
Dimension:
Weight:
DTMF:
Sub audible Tone (CTCSS): Sub audible Tone (CTS):
F3E (FM) 5, 10, 12.5, 15, 20, 25, 30kHz step 200 channels + 1 call channel + 1 Repeater-Access function memory 50 Q unbalanced ±2.5ppm 2k Q
DC 7.0-16.0V (EXT DC-IN)
1,7A (typical) Transmit high at 5W 250mA (typical) Receive at 500mW 80mA (typical) Standby 27mA (typical) Battery save on
External DC: -10°C~+60°C (+14°F~+140°F)
Battery packs: -10°C~+45°C (+14°F~+113°F)
Negative ground 58(W )x 110(H) x36.4(D)mm
(2.28"(W) x 4.33"(H) x 1.43"(D))
(with EBP-65) Approx. 280g (9.9oz)
(with EBP-65)
16 Buttons Keypad encoder/decoder installed (39 tones) encoder/decoder installed (104codes)
Transmitter
Power output:
Modulation:
Spurious emission:
Max deviation: Mic. impedance:
Receiver
System: Sensitivity:
Intermediate frequency:
Selectivity:
AF output:
Approx. 4.5W (with EBP-65) Approx. 5W (with DC 13.8V) Approx. 0.8W (LOW output) Variable reactance
-60dB or less ±5kHz 2k Q
Double-conversion super heterodyne
-12.0dB /i (0.25 /i V)or less
1st IF 38.85MHz 2nd IF 450kHz
-6dB: 12kHz or more
-60dB: 26kHz or less 500mW (MAX) 400mW (8 Q, 10% distortion)
3
CIRCUIT DESCRIPTION
1) Receiver System
DJ-V17 :The receiver system is a double superheterodyne system with a 21.7 MHz first IF and a 450 kHz
second IF.
DJ-V47 The receiver system is a double superheterodyne system with a 38.85 MHz first IF and a 450 kHz
second IF.
1. Front End DJ-V17 The received signal at any frequency in the 130.000- to 173.995-MHz
(E version : 144.000- to 145.995-MHz) range is passed through the low-pass filter (L101, L102, L103, L113, C108, C120, C121, C124, C125, C126, C127 and C176) and ATT (Attenuator) circuit (Q120, R161, R187 and D112), and tuning circuit (C192, C193, C215, C216, D115, D116, L125 and L126), then amplified by the RF amplifier (Q114). The signal from Q114 is then passed through the tuning circuit (C200, C201, C219, C220, D117, D118, L128 and L129) and
converted into 21.7 MHz by the mixer (Q116). The tuning circuit, which consists of C192, C193, C215, C216, L125, L126, variable capacitance diodes D115 and D116 and C200, C201, C219, C220,
L128, L129, variable capacitance diodes D117 and D118, is controlled by the tracking voltage from the CPU so that it is optimized for the reception frequency. The local signal from the VCO is passed through the buffer (Q113), and supplied to the source of the mixer
(Q116). The radio uses the lower side of the superheterodyne system.
DJ-V47 The received signal at any frequency in the covering range (T version
: 400.000- to 479.995-MHz, E version : 430.000- to 439.995-MHz, T1 version : 400.000- to 459.995MHz, T2 version : 440.000- to
479.995MHz) is passed through the low-pass filter (L101, L102,
L103, L113, C108, C120, C121, C124, C125, C126, C127 and C176) and ATT (Attenuator) circuit (Q120, R161, R187 and D112), and tuning circuit (C192, C193, C215, C216, D115, D116, L125 and
L126), then amplified by the RF amplifier (Q114). The signal from Q114 is then passed through the tuning circuit (C200, C201, C219, C220, D117, D118, L128 and L129) and converted into 38.85 MHz
by the mixer (Q116). The tuning circuit, which consists of C192, C193, C215, C216, L125, L126, variable capacitance diodes D115 and D116 and C200, C201, C219, C220, L128, L129, variable capacitance diodes D117 and D118, is controlled by the tracking voltage from the CPU so that it is optimized for the reception frequency. The local signal from the VCO is passed through the buffer
(Q113), and supplied to the source of the mixer (Q116). The T1/T2 versions use the lower side of the superheterodyne system while TIE versions switshes the lower and upper system at 420.000MHz; the
lower side foe the frequency up to 419.995MHz and upper side for
420.000MHz and up.
4
2. ATT (Attenuator) Circuit
3. IF Circuit
DJ-V17 The mixer(Q116) mixes the received signal with the local signal to
This circuit is used in case the receiving signal is disturbed by
interfering signal(s), attenuating the receiving signal(s) to reduce the
interference. CPU (IC109)s pin 10 outputs a DC current to drive Q120, controlling D112s resistance to adjust the attenuation value.
obtain the sum of and difference between them. The crystal filter (FL101 , FL102) selects 21.7 MHz frequency from the results and eliminates the signals of the unwanted frequencies. The first IF amplifier (Q119) then amplifies the signal of the selected frequency. After the signal is amplified by the first IF amplifier (Q119), it is input to pin 16 of the demodulator IC (IC103). The second local signal of
21.25 MHz (shared with PLL IC reference oscillation), which is oscillated by the internal oscillation circuit in IC103 and crystal (X101), is input through pin 1 of IC103. Then these two signals are
mixed by the internal mixer in IC103 and the result is converted into the second IF signal with a frequency of 450kHz. The second IF signal is output from pin 3 of IC103 tothe ceramic filter (FL103), where the unwanted frequency band of that signal is eliminated, and the resulting signal is sent back to the IC103 through 5 pins.
4. Demodulator Circuit
5. Audio Circuit
DJ-V47 The mixer(Q116) mixes the received signal with the local signal to
obtain the sum of and difference between them. The crystal filter
(FL101) selects 38.85 MHz frequency from the results and eliminates the signals of the unwanted frequencies. The first IF amplifier (Q119) then amplifies the signal of the selected frequency. After the signal is amplified by the first IF amplifier (Q119), it is input to pin 16 of the demodulator IC (IC103). The second local signal of 38.4 MHz, which
is oscillated by the internal oscillation circuit in IC103 and output of tripler circuit (L123, C202, C191, L122, Q115), is input through pin 1 of IC103. Then these two signals are mixed by the internal mixer in
IC103 and the result is converted into the second IF signal with a frequency of 450kHz. The second IF signal is output from pin 3 of
IC103 tothe ceramic filter (FL103), where the unwanted frequency
band of that signal is eliminated, and the resulting signal is sent back to the IC103 through 5 pins.
The second IF signal input via pin 5 is demodulated by the internal
limiter amplifier and Quadrature detection circuit in IC103, and output as an audio signal through pin 9.
The audio signal from pin 9 of IC103 is compensated to the audio frequency characteristics in the de-emphasis circuit (R223, R224, C241, C242) and amplified by the AF amplifier (Q196). The signal is then input to pin 1 of the electronic volume (IC107) for volume adjustment, and output from pin 2. The adjusted signal is sent to the audio power amplifier (IC106) through pin 2 to drive the speaker.
5
6. Squelch Circuit
2) Transmitter System
1. Modulator Circuit
2. Power Amplifier Circuit
3. APC Circuit
Part of the audio signal from pin 9 of IC103 is amplified by the noise filter amplifier and the internal noise amplifier in IC103. The desired
noise of the signal is output through pin 14 of IC103 and input to pin 2 of CPU (IC109).
The audio signal is converted to an electric signal in either the
internal or external microphone, and input to the microphone
amplifier (IC102).
IC102 consists of four operational amplifiers; 1st amplifier (pins 1, 2,
and 3) is composed of high-pass filter, 2nd amplifier (pins 12, 13, and
14) is composed of pre-emphasis and IDC circuits, 3rd amplifier (pins 8, 9, and 10) is composed of a splatter filter and 4th amplifier (pins 7, 6, and 5) is composed of a splatter filter. The maximum frequency deviation is determined to its optimal value by VR104 and input to the cathode of the variable capacitance diode of the VCO, to change the electric capacity in the oscillation circuit.
The transmitted signal is oscillated by the VCO, amplified by the pre
drive amplifier (Q104) and drive amplifier (Q103), and input to the power amplifier (Q102). The signal is then amplified by the power amplifier (Q102) and led to the antenna switch (D101 and D103) and low-pass filter (L104, L103, L102, L101, C107, C108, C109, C110, C111, C120, C121, C124, C125, C126, and C127 ), where unwanted high harmonic signals are reduced as needed, and the resulting
signal is supplied to the antenna.
Part of the transmission power from the low-pass filter is detected by D105, converted to DC, and then amplified by a differential amplifier ( Q111 ). The output voltage controls the bias voltage from the gate of Q102 and Q103 to maintain the transmission power constant.
3) PLL Synthesizer Circuit
1 .CPU control
2. Reference Frequency Circuit
DJ-V17 The reference frequency appropriate for the channel steps is obtained
The dividing ratio is obtained by sending data from the CPU (IC109) to pin 10, and sending clock pulses to pin 9 of the PLL IC (IC101). The oscillated signal from the VCO is amplified by the buffer (Q118), then input to pin 8 of IC101. Each programmable divider in IC101
divides the frequency of the input signal by N-value according to the
frequency data, to generate a comparison frequency of 5 or 6.25
kHz.
by dividing the 21.25MHz reference oscillation (X101) by 4250 or 3400, according to the data from the CPU (IC109). When the resulting frequency is 5 kHz, channel steps of 5, 10, 15, 20, and 30 kHz are used. When it is 6.25 kHz, steps of 12.5, 25, and 50 kHz are used.
DJ-V47 :The reference frequency appropriate for the channel steps is obtained
3. Phase Comparator Circuit
4. PLL Loop Fitter Circuit
5. VCO Circuit
DJ-V17 :A Colpitts oscillation circuit driven by Q108 directly oscillates the
by dividing the 12.8MHz reference oscillation (X102) by 2048 or
2560, according to the data from the CPU (IC109). When the
resulting frequency is 5 kHz, channel steps of 5, 10, 15, 20, and 30 kHz are used. When it is 6.25 kHz, steps of 12.5, 25, and 50 kHz are used.
The PLL (IC101) uses the reference frequency, 5 or 6.25 kHz. The
phase comparator in the IC101 compares the phase of the frequency
from the VCO with that of the comparison frequency, 5 or 6.25 kHz, which is obtained by the internal divider in IC101.
If a phase difference is found in the phase comparison between the reference frequency and VCO output frequency, the charge pump
output (pin 5) of IC101 generates a pulse signal, which is converted to DC voltage by the PLL loop filter and input to the variable capacitance diode of the VCO unit for oscillation frequency control.
desired frequency. The frequency control voltage determined in the CPU (IC109) and PLL circuit is input to the variable capacitance diodes (D107 and D109). This changes the oscillation frequency, which is amplified by the VCO buffer (Q110) and output from the VCO
unit.
DJ-V47 :A Colpitts oscillation circuit driven by Q108 directly oscillates the
desired frequency. The frequency control voltage determined in the CPU (IC109) and PLL circuit is input to the variable capacitance diodes (D109 and D110). This changes the oscillation frequency, which is amplified by the VCO buffer (Q110) and output from the VCO
unit.
4) CPU and Peripheral Circuits
1. LCD Display Circuit
The CPU turns ON the LCD via segment and common terminals with
1/3 the duty and 1/3
the bias, at the frame frequency of 112.5Hz.
2. Display Lamp Circuit
When the LAMP key is pressed, "L" is output from pin 42 of CPU
(IC109) to the bases of Q152 then turns to ON and "H" is output from
emitter of Q152 to the bases of Q146 to light LEDs (D131, D132).
3. Reset and Backup Circuits
TWhen the Output Voltage from pin 3 of IC110 drops to 4.5 V or
below, the output signal from the reset IC (IC104), which has been input to pin 33 of the CPU (IC109), changes from "H" to "L" level. The
CPU will then be in the backup state.
4. S(Signal)Meter Circuit
The DC potential of pin 12 of IC103 is input to pin 1 of the CPU
(IC109), converted from an analog to a digital signal, and displayed
as the S-meter signal on the LCD.
7
5. Tone Encoder
6. DCS Encoder
7. CTCSS, DCS Decoder
8.Clock Shift
The CPU (IC109) is equipped with an internal tone encoder. The tone signal (67.0 to 250.3Hz) is output from pin 9 of the CPU to the variable capacitance diode of the VCO and 21.25MHz reference oscillation (X101) of the PLL IC (IC101) for modulation.
DJ-V17 :The CPU (IC109) is equipped with an internal DCS code encoder.
The DCS code ( 023 to 754 ) is output from pin 7 of the CPU to 21.25
MHz reference oscillation (X101) of the PLL IC (IC101) for modulation.
DJ-V47 :The CPU (IC109) is equipped with an internal DCS code encoder.
The DCS code ( 023 to 754 ) is output from pin 7 of the CPU to 12.8
MHz reference oscillation (X102) of the PLL IC (IC101) for modulation.
The AF signal from the pin 9 of IC103 is filtered by an active filter
(IC108) to eliminate the voice range of the signal then amplified and input to the pin 4 of the CPU (IC109). The signal is compared in the
CPU with the pre-selected CTCSS and DCS values and the squelch opens in case the value matches.
In case the selected frequency is disturbed by a CPU clock-noise, it may be eliminated by changing the CPU clock frequency. When the
clock-shift is set, the pin 31 of the CPU (IC109) becomes Low turning ON the Q124. When Q124 becomes ON, X104s oscillation frequency shifts approximately by 200ppm.
5) M38268MCA-077GP ( XA1121 )
CPU Terminal Connection (TOP VIEW )
SEGa 180 SEG z - « [8 1 SEG6
------ SEG s [W SEG4 184 SE G 3 [jjjF SE G 2 186 S E G i [87 SEGo 188
Vcc [89
VREF
----
AVss - [9T
COM 3 [92
COMi [94
182
- [90
35~1
----
- XCOUT
34]
-----
XciN
33] RESET 32] P7o/INTo
8
No. Terminal Signal I/O
Description
1 P67/AN7 SMT I S-meter input
2
P66/AN6 3 P65/AN5 4 P64/AN4 TIN I 5 P63/SCLK22/AN3
P62/SCLK21/AN2 BP2 I Band plan 2
6 7 P61/SOUT2/AN1 DCSW 8 P60/SIN2/AN0
P57/ADT/DA2 CTOUT
9
10
P56/DA1 DTOUT
11 P55/CNTR1 SCL 12 13 14
P54/CNTR0
P53/RTP1 BP4 I Band plan 4 P52/RTP0
15 P51/PWM3
SQL I
Noise level input for squelch
BAT I Low battery detection input
CTCSS tone input / DCS code input
BP1 I Band plan 1
O DCS signal mute
FKEY I Function / Monitor Key input
O CTCSS tone output / DCS tone output O DTMF output
Serial clock for EEPROM
O
TBST
MUTE CLK
I/O Tone burst output
I/O Microphone mute / Bank change input while trunking
Serial clock output for PLL, and trunking board
0
Serial data output for PLL, CTCSS / PLL unlock signal input /
16 P50/PWM0
DATA
I/O
EVR control output Trunking board detection ( when the unit is turned ON ) /
17 P47/SROY1 TRST 18
19 20 21
P46/SCLK1 STBP
P45/TXD UTX P44/RXD URX I UART data reception input
P43/<DTOUT
BEEP 22 P42/INT2 RE2 I 23
P41/INT1 RE1 I
I/O
Strobe signal to trunking board
0 Strobe for PLL IC
UART data transmission output
0
I/O Beep tone/Band plan 3 ( when the unit is turned on )
Rotary encoder input
24 P40 CLO 0 CLONE ON/OFF output 25 26 P76 CHG
P77 PTTK I
PTT input
I Battery charge ON/OFF output 27 P75 P5C 0 PLL power ON/OFF output 28 P74 T5C 0 TX power ON/OFF output 29 P73 R5C 0 30
P72 AFP
RX power ON/OFF output
AF AMP power ON/OFF output
0 31 P71 CLSFT 0 CLOCK frequency shift 32 P70/INTO BU I Backup signal detection input 33 RESET RESET I Reset input 34 Xcin 35 Xcout 36 Xin XIN 37 Xout XOUT 38 Vss GND
- -
- -
-
Main clock input
-
Main clock output
-
CPU GND 39 P27 PSW I Power switch input 40 P26 SDA 0 Serial data for EEPROM 41 P25 C5C 0 C5V power ON/OFF output 42 P24 LAMP 0 Lamp ON/OFF 43 P23 KI0 I 44 P22 KI1 I 45 P21 KI2 I
Key matrix input 46 P20 KI3 I
47 P17 K03 0 48 P16 K02 0 49 P15/SEG39 KOI 0
Key matrix output 50 P14/SEG38 KOO 0
51 P13/SEG37 DA3 0 DA converter for Tx output power 52 P12/SEG36 DA2 0 DA converter for Tx output power 53 P11/SEG35 DA1 0 DA converter for Tx output power 54 P10/SEG34 AFC/DA0 0 DA converter for Tx output power
Trunking TXDT control / Voice Scrambler Board detection
55 P07/SEG33 EXP I/O
(when the unit is turned on ) 56 P06/SEG32 SD/PO 0 Signal detection output / Tx power Hight or Low
9
No. Terminal Signal I/O
57
P05/SEG31 SEG31 0
Description
58 P04/SEG30 SEG30 0 59 P03/SEG29 SEG29 0 60 P02/SEG28 SEG28 0 61 62
P01/SEG27 SEG27 P00/SEG26 SEG26 0
0
63 P37/SEG25 SEG25 0 64 P36/SEG24 SEG24
0 65 P35/SEG23 SEG23 0 66 67 P33/SEG21 SEG21
P34/SEG22 SEG22
0
0 68 P32/SEG20 SEG20 0 69 P31/SEG19 SEG19 0 70 P30/SEG18 SEG18 0 71 SEG17 SEG17 72
SEG16 SEG16 0 73 SEG15 SEG15 0 74 SEG14 SEG14
0
LCD segment signal
0 75 SEG13 SEG13 0 76 77
SEG12 SEG12 SEG11 SEG11 0
0
78 SEG10 SEG10 0 79 SEG9 SEG9 0 80 SEG8 SEG8 0 81 82
SEG7 SEG7 SEG6 SEG6 0
0
83 SEG5 SEG5 0 84 SEG4 SEG4
0 85 SEG3 SEG3 0 86 87
SEG2 SEG2 SEG1 SEG1 0
0
88 SEGO SEGO 0 89 Vcc
VDD 90 Vref Vref 91 Avss Avss 92 93
COM3 COM3 0 LCD COM3 output COM2 COM2
94 COM1 COM1
-
CPU power terminal
-
AD converter power supply
-
AD converter GND
LCD COM2 output
0
LCD COM1 output
0 95 COMO COMO 0 LCD COMO output 96 VL3 VL3 97 VL2 VL2 98
C2 C2
99 C1 C1
-
LCD power supply
-
- -
- -
100 VL1 VL1 I LCD power supply
1 0
SEMICONDUCTOR DATA
1) NMJ2070MT1 ( XA0210 )
Low Voltage Power Amplifier Equivalent Circuit
Parameter Condition Symbol Min. Typ.
Supply voltage Idle current RL= Output voltage Vo Input bias current IB
Output power
Distortion Voltage gain Input impedance
Equivalent input noise voltage
Power supply voltage rejection ratio
Power gain band width (3dB)
THD=10%, f=1kHz
THD=10%, f=1kHz
Po=0.4W, RL=4 , f=1kHz f=1kHz f=1kHz
Rs=10k
f= 100Hz, Cx=100/<F SVR 24 30
RL=8 , Po=250mW P.B
V+=6V, RL=4 V+=4.5V, RL=4 V+=3V, RL=4 V+=2V, RL=4 V+=6V, RL=4 V+=4.5V, RL=4
A curve
B=22Hz to 22kHz Vn2
v+
IQ
Po
THD -
Av
ZlN
Vn1
1.8
-
2.7
-
200
-
0.5 0.6
0.32
-
120
-
- 500
- 250
-
0.25
41 44
100
-
2.5
-
200
-
30
Max.
-
4
-
3
15
7
-
-
-
-
-
-
-
-
- %
47
-
-
-
-
-
Unit
V
mA
V
nA
W
W mW mW mW mW
dB
k
M V
M V
dB
kHz
2) S24CS64A01-J8T1G ( XA1117 )
16K bits CMOS Serial EEPROM
Pin
AO Œ A1 Œ A2 Œ
GND Œ
1o
8 2 7 3 6
4 5
ZD VCC ZD WP
= SCL ZD SDA
Number
Remark See Dimensions for details of the package drawings.
Pin
Name
1 2 A1 3 A2 Slave address input 4 GND Groudd 5 6 SCL Serial clock input
7 WP
8
A0 Slave address input
Slave address Input
SDA Serial data input / output
Write protection input
Connected to Vcc: Protection valid Connected to GND: Protection invalid
VCC
Power supply
Function
1 1
3) M62429FP/CF0J ( XA1118 )
Electronic Volume
Vin1 [T 3
V outI [2
GND[3
DATA [4
0>
ro
IV
(0
3
T1 "0
I T] Vin2
7 ] V out2 1 ] V cc1
5] CLOCK
V in2 V oltt2 Vcc
CLOCK
® ------
LOGIC
CONTROL
4) LM2902PWR ( XA1106 )
Quad Operational Amplifiers
14 13 12 11 10 9 8
L2902
* * *
* ** *
O
1 2 3 4 5 6 7
DATA
1. Output A
2. Inverting Input A
3. Non-inverting Input A
4. Vcc
5. Non-inverting Input B
5. Inverting Input B
7. Output B
8. Output C
9. Inverting Input C
10. Non-inverting Input C
11.GND
12. Non-inverting Input D
13. Inverting Input D
14. Output D
1 2
5) TA31136FN(EL) ( XA0404 )
Low Power FM IC
16 15 14 13 12 11 10 9
31136
* **
o
1 2 3 4 5 6 7 8
1.0S C IN
2. OSC OUT
3. MIX OUT
4. Vcc
5. IF IN
6. DEC
7. FIL OUT
8. FILIN
9. AF OUT
10. QUAD
11. IF OUT
12. RSSI
13. N-DET
14. N-REC
15.GND
16. MIC IN
6) S80845CLNB-B66-T2G ( XA1120 )
C-MOS Voltage Detector
4 3
e
__
1 2
a
Pin No.
1 OUT Voltage detection output pin 2 VDD 3 NC*1
4 VSS GND pin
*1. The NC pin is electrically open.
The NC pin can be connected to VDD or VSS.
Pin name
Pin description
Voltage input pin
No connection
1 3
7) MB15E07SR ( XA1107 )
PLL Synthesizer
OSC IN
PS
LE
Data
Clock
16 15 14 13 12 11 10 9
E07SR
* ** *
* **
o
1 2 3 4 5 6 7 8
Reference
Oscillator
Intermittent
mode control (power save)
1-bit
control latch
reference counter
Binary 14-bit
14-blt latch
19-bit shift register
7-bit latch 14-bit latch
Blnaly 7-blt
swallow counter
1.0S C IN
2. N.C.
3. Vp
4. Vcc
5. Do
6. GND
7. Xfin
8. fin
SW
FC LDS CS
4-bit latch
Blnaly 11-blt
programmable
counter
9. CLOCK
10. Data
11.LE
12. PS
13. N.C.
14. LD/fout
15. N.C.
16. N.C.
Phase
comparator
Lock
detector
LD/fr/fp
selector
Charge pump
LD/fout
Vp
Xfin
fin
VC C
GND
Prescaler
32/33 64/65
SW
Parameter Symbol Condition Min. Typ. Max. Unit
Power supply voltage Vcc
Power supply current
LPF supply voltage
Icc
Vp
Local oscillator input level Vfin
Local oscillator input frequency
fin -
2500M Hz
Vcc=Vp=3.75V
100MH z to 300M Hz
300M Hz to 2500M Hz
Xin input level Vxin - Xin input frequency Fxin
Do
(Vcc=2.7 to 5.0V, Ta=-40°C to +85oC)
-
-
-
2.7
3.75 5.0
8.0
Vcc
-6
-15
-
5.5 +2 +2
100 2500
0.5
Vcc
3 40
V
mA
V
dBm
MHz Vp-p MHz
14
8) XC6202P502MR ( XA1119 )
Voltage Regulator
Pin No.
1 2 VIN Supply Voltage Input 3
Pin name
VOU T Regulated Voltage Output
VSS Ground
1 2
Absolute Maximum Ratings
Parameter Symbol Rating Units
Input Voltage VIN 22 V
Output Current
Output Voltage
Power Dissipation Pd
Operating Ambient Temperature Topr -40~+85 °C
Storage Temperature Tstg -5 5-+ 1 25 °C
IOUT
VOU T
500 mA
VS S -0.3-V IN+0 .3
150
Function
V
mW
15
9) Transistor, Diode and LED outline Drawings
Top View
10) LCD Connection ( EL0059 )
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SEGMENT COMMON
16
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