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CXA2202N
EIAJ Sound Multiplexing Decoder
Description The CXA2202N, is a bipolar IC designed as EIAJ TV sound multiplexing decoder, provides various functions including sound multiplexing demodulation, broadcast mode identification (stereo/bilingual discrimination display), mode display, and muting. Features * Adjustment free of filter * High frequency stereo separation improved * An internal active filter greatly reduces the external parts * Use of the countdown method for broadcast mode identification eliminates the necessity of adjusting the identification system (Cue oscillator) * Internal filter eliminates interference from digital facsimile signals * The discrimination time needed to shift from multiplexing sound to monaural sound is reduced. * Output level: 520mVrms (1kHz, monaural, 100%) * Forced monaural mode can be set to operate only for stereo broadcasts or for stereo/bilingual broadcasts. Applications * Color TVs * Hi-Fi VCRs Pin Configuration
GND NC REFL Vcc NC MO MODE MPX IN NC CUBI
24 pin SSOP (Plastic)
Structure Bipolar silicon monolithic IC Absolute Maximum Ratings (Ta = 25C) * Supply voltage Vcc 10 V * Input signal (Pin 7) Vis 0.6 Vp-p * Control voltage (Pins 6, 13, 14, 15) Vic Vcc V * Operating temperature Topr -20 to +75 C * Storage temperature Tstg -65 to +150 C * Allowable power dissipation PD 520 mW * LED drive current ILED 10 mA Operating Supply Voltage Range 8.5 to 9.5 V
1 2 3 4 5 6 7 8 9
24 SUBI 23 NC 22 SC OUT 21 SC IN 20 MC OUT 19 MC IN 18 L OUT 17 R OUT 16 M OUT 15 FOMO 14 MUTE 13 MODE
LEDST 10 LEDSU 11 LEDM 12
Sony reserves the right to change products and specifications without prior notice. This information does not convey any license by any implication or otherwise under any patents or other right. Application circuits shown, if any, are typical examples illustrating the operation of the devices. Sony cannot assume responsibility for any problems arising out of the use of these circuits.
-1-
E02964
CXA2202N
Block Diagram
MC OUT SC OUT
M OUT
R OUT
FOMO
24
23
22
21
20
19
TEST
18
17
16
15
14
13
SUBDEEM
MAINDEEM
OUTPUT AMP & OUTPUT SW MAIN LR
MAIN OUT
SUB FM DEMOD MATRIX IIL LOGIC & CONT CUE CARRIER 3.5fH CLOCK 3.5fH VCO 952Hz BPF 952Hz CLOCK
SUB DET SUB BPF 4.5fH TRAP
IN AMP
BUFFER BIAS CURRENT BIAS VOLTAGE VOLTAGE REGULATOR
CUE BPF
AM DEMOD
COMP
LED DRIVE
IBIAS
MPX SIGNAL 7
MPX IN
1
GND
2
NC
3
REFL
4
Vcc
5
NC
6
MO MODE
8
NC
9
CUBI
10
LEDST
11
LEDSU
12
LEDM
-2-
MODE
L OUT
MC IN
MUTE
SC IN
SUBI
NC
CXA2202N
Pin Description Pin No. 1 2 5 8 23 Symbol GND NC Pin voltage 0 -- -- Equivalent circuit
(Ta = 25C, Vcc = 9V) Description GND. Keep these pins open. (They are not connected to the chip.)
Vcc
147
3
REFL
1.2V
3 3.3k 18k 24k 8k GND
The noise elimination filter connection of internal reference voltage.
4
Vcc
--
Power supply. Forced monaural mode selection. When Low or open, the forced monaural mode operates for stereo broadcasts only; if High, the forced monaural mode operates for both stereo and bilingual broadcasts.
6 70k
6
MO MODE
--
10.5k 50k GND
Vcc 138k 147
7
MPX IN
4.1V
7 25k 25 30k 4.2V GND
Sound multiplexing signal input. Typical input level = 70mVrms (monaural, 100%)
Vcc 147 9 40k
1k 40k 40k
Vcc
9
CUBI
4.1V
11k 2k 4.2V
Bias capacitor connection of Cue pulse generator.
-3-
CXA2202N
Pin No.
Symbol
Pin voltage
10
Equivalent circuit
Description
10
LEDST
11 10.5k 12 10.5k
10.5k
11
LEDSU
--
64k 16k 64k
64k 16k
Mode indicator LED connection. Pin 10: stereo Pin 11: sub Pin 12: main
12
LEDM
16k GND
Vcc 16k 20 4.2V 40k 10.5k GND
13
MODE
--
20k 13
DC voltage-based output mode switch for bilingual broadcasts.
14 70k
14
MUTE
--
10.5k GND 50k GND
Output muting. When High, only DC is output from Pins 16, 17 and 18.
15 70k
15
FOMO
--
10.5k GND 50k GND
Forced monaural. When High, forced monaural (main sound) mode is selected and the LED turns off.
Vcc
Vcc 147 17.2k
16
M OUT
4.1V
16 32k 1.5m 32k GND
Main signal output. Always outputs the main signal component, regardless of the broadcast mode.
-4-
CXA2202N
Pin No.
Symbol
Pin voltage
Equivalent circuit
Vcc Vcc 147 17.2k
Description
17
R OUT
4.1V
17 32k 1.5m 32k GND
Vcc Vcc 147 17.2k
R-ch output.
18
L OUT
4.1V
18 32k 1.5m 32k GND
Vcc Vcc 147 10k 10k Vcc
L-ch output. During "TEST", the Cue signal component passed through the Cue BPF is output.
19
MC IN
4.1V
20
147
3p 147 19 20k 14.4k 5.6k 160 40 150 GND
DC cut capacitor connection of main signal.
20
MC OUT
3.4V
4.2V
Vcc
Vcc 10k 10k
21
SC IN
4.1V
147 22 8k Vcc 40k 147 21 320 3p
DC cut capacitor connection of sub signal.
22
SC OUT
3.9V
17k 4.2V 4.2V 40
11.4k 5.6k 180 GND
Vcc 80 20
Vcc 16k
64k
24
SUBI
4.1V
16k 24 147 4.2V 2.4V 3k 1k 8k 8k
Bias capacitor connection of sub FM detector. "TEST" mode, used for filter adjustment, is activated by grounding this pin.
-5-
CXA2202N
Electrical Characteristics Measurement Circuit
SW1 ON OFF SW6 15kHz LPF SW2 SW3 CCIR FILTER MEASUREMENT SYSTEM RMS DISTORTION DCVOLT
TEST (ON) SW4
NORM (OFF) C9 1F C10 1F
MAIN OUT
R OUT
L OUT
C10 10F
E2
E3
E4
GND GND GND 24 23 22 21 20 19 18 17 16 15 14 13
CXA2202N
1
2
3
4
5
6 E5
7
8
9
10
11
12
A
C1 10F
STEREO
GND
C3 10F
C4 10F R2 910
R3 910
R4 910
C2 47F
E1 9V
SIGNAL GND
SIG
ATT
SW5
ATT is set to bring L R stereo separation to a minimum.
-6-
MAIN
SUB
CXA2202N
Electrical Characteristics No. 1 Item Current consumption SW Bias Symbol condi- conditions tions Icc 1 1 Conditions Measure current input to Pin 4 Measurement point Pin 4 Min. 17
(Ta = 25C, Vcc = 9V) Typ. 25 Max. 36 Unit mA
2
Sub output level 400Hz
Vs1
4
2 and 3
Input signal: SIG1 Measure output amplitude (400Hz, sine Pins 17 wave) of Pins 17 and and 181 18: Vs1 (15kLPF) Input signal: SIG2 Measure output amplitude (1kHz, sine wave) of Pins 17 and 18: Vs2 Vs2 Fs1 = 20 log Vs1 (15kLPF) Input signal: SIG3 Measure output amplitude (10kHz, sine wave) of Pins 17 and 18: Vs3 Vs3 Fs2 = 20 log Vs1 (15kLPF) Input signal: SIG2 Measure distortion of output signal (1kHz, sine wave) of Pins 17 and 18 (15kLPF) Input signal: SIG2 Measure S/N ratio of output (1kHz) of Pins 17 and 18 (15kLPF. RMS) Input signal: SIG4 Measure distortion of output signal (1kHz, sine wave) of Pin 18 (15kLPF) Input signal: SIG5 Measure distortion of output signal (1kHz, sine wave) of Pin 17 (15kLPF)
480
580
690
mVrms
3
Sub frequency characteristics 1kHz
Fs1
4
2 and 3
Pins 17 and 181
-1.6
-0.6
0
dB
4
Sub frequency characteristics 10kHz
Fs2
4
2 and 3
Pins 17 -19.0 -16.5 -14.0 and 181
dB
5
Sub distortion
Ds
4
2 and 3
Pins 17 and 181
--
1
2
%
6
Sub S/N ratio
Ns
4
2 and 3
Pins 17 and 181
59
64
--
dB
7
Stereo distortion L-ch
Dstl
4
2
Pin 18
--
0.2
1.5
%
8
Stereo Dstr distortion R-ch
4
2
Pin 17
--
0.2
1.5
%
1 When bias condition is "3", measurement point is Pin 17 only.
-7-
CXA2202N
No.
Item
SW Bias Symbol condi- conditions tions
Conditions Input signal: SIG4 Measure output amplitude (1kHz, sine wave) of Pin 18 (15kLPF) Input signal: SIG5 Measure output amplitude (1kHz, sine wave) of Pin 17 (15kLPF) Input signal: SIG6 Measure output signal (400Hz, sine wave) of Pin 16 (15kLPF) Input signal: SIG6 Measure amplitude of output signal (400Hz, sine wave) of Pins 17 and 18 (15kLPF) Input signal: SIG7 Measure output amplitude (1kHz, sine wave) of Pins 17 and 18: Vm3 Vm3 Fm1 = 20 log Vm2 (15kLPF) Input signal: SIG8 Measure output amplitude (10kHz, sine wave) of Pins 17 and 18: Vm4 Vm4 Fm2 = 20 log Vm2 (15kLPF) Input signal: SIG7 Measure distortion of output signal (1kHz, sine wave) of Pin 16 (15kLPF) Input signal: SIG7 Measure distortion of output signal (1kHz, sine wave) of Pins 17 and 18 (15kLPF)
Measurement point
Min.
Typ.
Max.
Unit
9
Stereo output level L-ch 1kHz
Vstl
4
2
Pin 18
440
540
640
mVrms
10
Stereo output level R-ch 1kHz
Vstr
4
2
Pin 17
440
540
640
mVrms
11
Main output level MAIN OUT
Vm1
4
2
Pin 16
480
580
690
mVrms
12
Main output level
Vm2
4
2
Pins 17 and 18
480
580
690
mVrms
13
Main frequency characteristics Fm1 1kHz
4
2
Pins 17 and 18
-1.6
-0.6
0
dB
14
Main frequency characteristics Fm2 10kHz
4
2
Pins 17 and 18
-16.0 -14.0 -12.0
dB
15
Main distortion Dm1 MAIN OUT
4
2
Pin 16
--
0.2
1
%
16
Main distortion Dm2
4
2
Pins 17 and 18
--
0.2
1
%
-8-
CXA2202N
No.
Item
SW Bias Symbol condi- conditions tions
Conditions Input signal: SIG9 Measure distortion of output signal (1kHz, sine wave) of Pins 17 and 18 (15kLPF) Input signal: SIG7 Measure S/N ratio of output signal (1kHz) of Pins 17 and 18 (15kLPF. RMS) Input signal: SIG4 Sstr = Output amplitude Pin 18 20 log Output amplitude Pin 17 (dB) (15kLPF) Input signal: SIG5 Sstl = Output amplitude Pin 17 20 log Output amplitude Pin 18 (dB) (15kLPF)
Measurement point
Min.
Typ.
Max.
Unit
17
Main distortion at maximum Dm3 input
4
2
Pins 17 and 18
--
0.3
2
%
18
Main S/N ratio
Nm
4
2
Pins 17 and 18
65
73
--
dB
19
Stereo separation LR
Sstr
4
2
Pins 17 and 18
35
45
--
dB
20
Stereo separation RL
Sstl
4
2
Pins 17 and 18
35
45
--
dB
21
Cross talk Cms1 MAIN SUB
2
2
Input signal: SIG15 Calculate the level difference between the output amplitude of Pins 17 and 18 (Vms1) and the measured Pins 17 value (Vm3) in and 18 measurement No. 13 Vm3 Cms1 = 20 log Vms1 (dB) (15kLPF, 1kBPF) Input signal: SIG2 Calculate the level difference between the output amplitude of Pins 17 and 18 (Vsm1) and the measured Pins 17 value (Vs2) in and 18 measurement No. 3. Vs2 Csm1 = 20 log Vsm1 (dB) (15kLPF, 1kBPF)
55
58
--
dB
22
Cross talk SUB MAIN
Csm1
2
1
60
70
--
dB
-9-
CXA2202N
No.
Item
SW Bias Symbol condi- conditions tions
Conditions Input signal: SIG15 Calculate the level difference between the output amplitude of Pin 17 (Vms2) and the output amplitude of Pin 18 (Vms3). Vms3 Cms2 = 20 log Vms2 (dB) (15kLPF, 1kBPF) Input signal: SIG2 Calculate the level difference between the output amplitude of Pin 18 (Vsm2) and the output amplitude of Pin 17 (Vsm3). Vsm3 Csm2 = 20 log Vsm2 (dB) (15kLPF, 1kBPF)
Measurement point
Min.
Typ.
Max.
Unit
23
Cross talk MAIN SUB Cms2 BOTH mode
2
3
Pins 17 and 18
55
58
--
dB
24
Cross talk SUB MAIN BOTH mode
Csm2
2
3
Pins 17 and 18
60
70
--
dB
25
Residual carrier SUB
Lcs
3
2
Input signal: SIG11 Measure subcarrier Pins 17 component amplitude and 18 of the output of Pins 17 and 18. Input signal: SIG11 Measure the subcarrier Pins 17 component amplitude and 18 of the output of Pins 17 and 18. Input signal: SIG7 Calculate the level difference between the output amplitude of Pins 17 and 18 (VMm) and the measured value (Vm3) in measurement No. 13. Vm3 Mm = 20 log VMm (dB) (15kLPF, 1kBPF)
--
10
30
mVrms
26
Residual carrier MAIN
Lcm
3
1
--
12
20
mVrms
27
Mute volume MAIN
Mm
4
4
Pins 17 and 18
70
80
--
dB
- 10 -
CXA2202N
No.
Item
SW Bias Symbol condi- conditions tions
Conditions Input signal: SIG2 Calculate the level difference between the output amplitude of Pins 17 and 18 (VMs) and the measured value (Vs2) in measurement No. 3. Ms = 20 log Vs2 VMs (dB) (15kLPF, 1kBPF)
Measurement point
Min.
Typ.
Max.
Unit
28
Mute volume SUB
Ms
4
4
Pins 17 and 18
70
80
--
dB
29
Mute volume stereo
Mst
4
2 and 4
Input signals: SIG4, 5 Measure the level difference between the output signals of Pins 17 and 18 under bias conditions 2 and 4. Mst = Pins 17 Measured value and 182 under bias condition 2 (mVrms) 20 log Measured value under bias condition 4 (mVrms) (15kLPF, 1kBPF) Input signal: SIG18 Measure the fluctuation Pin 18 in the output DC level of Pin 18 under bias conditions 2 and 4. Input signal: SIG18 Measure the fluctuation Pin 17 in the output DC level of Pin 17 under bias conditions 2 and 4. Input signal: No signal Measure the fluctuation Pin 16 in the output DC level of Pin 16 under bias conditions 2 and 4. Input signal: SIG12 Change SIG12 and measure amount of attenuation at the point "monaural" switches to "Sound multiplex".
70
80
--
dB
30
DC offset stereo L-ch
Ostl
3
2 and 4
--
20
100
mV
31
DC offset stereo R-ch
Ostr
3
2 and 4
--
20
100
mV
32
DC offset MAIN OUT
Om
3
2 and 4
--
20
100
mV
33
Cue detection sensitivity
CD
4
2
--
9
14
17
dB
2 Measure Pin 18 for SIG4 input; Pin 17 for SIG5 input.
- 11 -
CXA2202N
No.
Item
SW Bias Symbol condi- conditions tions
Conditions Input signal: SIG13 Change SIG13 and measure amount of attenuation at the point "monaural" switches to "Sound multiplex". Input signal: SIG14 Measure the output amplitude of Pin 18.
Measurement point
Min.
Typ.
Max.
Unit
34
SUB detection sensitivity
SD
4
2
--
10
13
18
dB
35
Cue BPF gain
CG
5
2
Pin 18
410
600
760
mVrms
36
4.5fH trap attenuation level
TG
6
2
Input signal: SIG16, 17 Measure output amplitude of Pin 24 and then measure the level difference in the output signal for SIG16 input and SIG17 input. TG = Pin 24 Measured value for SIG16 (mVrms) 20 log Measured value for SIG17 (mVrms)
20
38
--
dB
SW Condition Table SW No. 1 2 3 4 5 6 1 off off off on off off 2 off on off off off off 3 off off on off on on 4 off off off off on off 5 off off off off on on 6 off off off off off on
BIAS Condition Table BIAS No. 1 2 3 4 E1 9V 9V 9V 9V E2 E3 E4 E5
0.5V 0.5V 0.5V 0.5V 4.5V 0.5V 0.5V 0.5V 2.5V 0.5V 0.5V 0.5V 4.5V 4.5V 0.5V 0.5V
- 12 -
CXA2202N
Input Signal Definition SIG1: Sound MPX signal Main: 0% Sub: 400Hz, 100% MOD Cue: Bilingual Sound MPX signal Main: 0% Sub: 1kHz, 100% MOD Cue: Bilingual Sound MPX signal Main: 0% Sub: 10kHz, 100% MOD Cue: Bilingual Sound MPX signal L-ch: 1kHz, 100% R-ch: 0% Cue: Stereo Sound MPX signal L-ch: 0% R-ch: 1kHz, 100% Cue: Stereo Sound MPX signal Main: 400Hz, 100% Sub: Carrier off Cue: Cue signal off Sound MPX signal Main: 1kHz, 100% Sub: Carrier off Cue: Cue signal off Sound MPX signal Main: 10kHz, 100% Sub: Carrier off Cue: Cue signal off Sound MPX signal Main: 1kHz, 300% Sub: Carrier off Cue: Cue signal off SIG10: Sound MPX signal L-ch: 1kHz, 100% R-ch: 0% Cue: Cue signal off SIG11: Sound MPX signal Main: 0% Sub: 0% (Carrier only) Cue: Bilingual SIG12: Sound MPX signal Main: 0% Sub: 0% (Carrier only) Cue: Bilingual (level adjusted to minimum) SIG13: Sound MPX signal Main: 0% Sub: 0% (level adjusted to minimum) Cue: Bilingual SIG14: 55.069kHz 5.6mVrms sine wave
SIG2:
SIG3:
SIG4:
SIG5:
SIG6:
SIG15: Sound MPX signal Main: 1kHz, 100% Sub: 0% (Carrier only) Cue: Bilingual SIG16: 31.47kHz 42mVrms SIG17: 70.80kHz 42mVrms sine wave
SIG7:
sine wave
SIG8:
SIG18: Sound MPX signal L-ch: 0% R-ch: 0% Cue: Stereo
SIG9:
Sound MPX signal level is defined as 100% MONO at 1Vp-p. - 13 -
CXA2202N
Output and LED On/Off Table Forced Forced monaural MUTE Broadcast monaural SUB BOTH MAIN MODE condition x Stereo x x ON ON ON Bilingual ON ON ON x x Monaural x x x x x x x x x x x x x x x x x x x F.MONO F.MONO F.MONO F.MAIN F.MAIN F.MAIN F.MAIN x x x OFF ON x x x x OFF OFF OFF ON x x x OFF OFF ON OFF OFF OFF OFF OFF OFF OFF ON ON MODE SW Output condition L L L+ R DC SUB MAIN MAIN SUB MAIN MAIN MAIN DC DC R R L+ R DC SUB SUB MAIN SUB SUB MAIN MAIN DC DC LED On/Off condition SUB OFF OFF OFF ON ON OFF ON ON OFF OFF OFF OFF OFF MAIN OFF OFF OFF OFF ON ON OFF ON ON OFF OFF OFF OFF
MAIN STEREO L+R L+ R DC MAIN MAIN MAIN MAIN MAIN MAIN MAIN DC DC ON OFF OFF OFF OFF OFF OFF OFF OFF OFF OFF OFF OFF
OFF MONO MONO MONO
x: No response Control Voltage Range Voltage range SUB MODE SW Pin 13 Forced monaural Pin 15 MUTE Pin 14 Forced monaural mode Pin 6 BOTH MAIN on off on off F.MAIN F.MONO 4.5V to Vcc 2V to 3V (or open) 0V to 0.5V 3V to Vcc 0V to 0.5V (or open) 3V to Vcc 0V to 0.5V (or open) 3V to Vcc 0V to 0.5V (or open)
- 14 -
CXA2202N
Description of Operation The sound mutiplexing signal input from Pin 7 is passed through IN AMP and is applied to the Cue BPF, Sub BPF, and Main de-emphasis circuit. 1. Discrimination circuits Cue BPF passes only the Cue signal component from the multiplex signal. In the AM demodulator, the signal (AM wave) is AM detected and one of two sine waves is generated, either a 922.5Hz signal for bilingual broadcasts or a 982.5Hz signal for stereo broadcasts. In the 952Hz BPF, the 3.5fH carrier component is eliminated from the Cue signal after AM wave detection. The Cue signal, from which the carrier component has been eliminated, is waveform shaped by COMP, with the resulting 922.5Hz or 982.5Hz pulse being applied to the Logic section. In the 3.5fH VCO, a 3.5fH pulse locked onto the Cue signal carrier (3.5fH) is created and sent to the Logic section. In the Logic section, the broadcast mode is identified using the countdown method. Depending on this result as well as the presence of a SUB signal from SUB detector and the MUTE ON/OFF, MODE switching, and FOMO ON/OFF instructions from CONT, the output switching control signal is created. This signal is used to control the output condition of OUTPUT SW and MAIN OUT. 2. Main circuits In MAIN DEEM, de-emphasis is applied to the Main signal component and the Sub and Cue components are removed. After passing through the MAIN DEEM, the Main signal is applied to MATRIX, OUTPUT AMP, and MAINOUT. 3. Sub circuits In SUB BPF, only the SUB signal component out of multiplex signals is passed through. In the 4.5fH trap, the digital facsimile signal component is removed. In FM Demod, the SUB signal is FM demodulated. In SUB DEEM, the FM demodulated Sub signal is de-emphasized and the carrier component is removed. After passing through SUB DEEM, the Sub signal is applied to MATRIX and OUTPUT AMP. 4. MATRIX and output circuits In MATRIX, the L and R signals are created by adding and subtracting the Main signal from MAIN DEEM and the Sub signal from SUB DEEM in stereo broadcast. In OUTPUT AMP and OUTPUT SW, the output signal is switched under the control of Logic. In addition, MAIN OUT always outputs the MAIN signal component, regardless of the broadcast mode. Adjustment Separation adjustment
EIAJ sound multiplexing encoder Application circuit MPX IN RL Oscilloscope AC Voltmeter
VR2 L. OUT R. OUT
CH1 CH2 1kHz BPF
Switch Procedure 1) Connect components as shown in figure above. (Set SW4 to NORM.) 2) Set the encoder to stereo mode, and input a 100% modulated 1kHz signal; also set the encoder so that only the L-ch is output. 3) Monitor the oscilloscope and AC voltmeter and adjust VR2 so that the R-ch is at a minimum. (Separation standard: 35dB or more) - 15 -
CXA2202N
Application Circuit
MAIN OUT
R OUT
L OUT
C10 10F TEST (ON) SW4 24 NORM (OFF) C9 1F C8 1F 21 20 C7 10F
R6 2.4k ON ON MAIN OFF OFF
R5 2.4k BOTH SUB SW1
C6 10F
C5 10F
SW3 19 18 17 16 15
SW2 14 13
R7 3.6k
23
22
CXA2202M
1
2
3
4
5
6 F. MONO
7
8
9
10
11
12
STEREO
C1 10F
F. MAIN
C4 10F R2 910
SW5
R3 910
R4 910 Vcc 9V
C2 47F
VR2 1k
70mVrms (MONO 100%)
MPX IN
GND
SW5: F.MONO- Forced monaural mode operates only for stereo. F.MAIN- Forced monaural mode operates for both stereo and bilingual.
Application circuits shown are typical examples illustrating the operation of the devices. Sony cannot assume responsibility for any problems arising out of the use of these circuits or for any infringement of third party patent and other right due to same.
- 16 -
MAIN
SUB
C3 10F
CXA2202N
Example of Representative Characteristics
De-emphasis characteristics
SUB BPF frequency characteristics
Output level [dB]
Output level [dB]
Main Sub 100 1k Frequency [Hz] 10k
0 -20 -40 -60 10 20 30 40 50 60 70 80 90 100
0 -5
-10 -15
Frequency [kHz]
Cue BPF frequency characteristics
MAIN distortion characteristics
3
Attenuation level [dB]
2 0 -20 -40 -60
Distortion [%]
1
3.5fH -40k
3.5fH -20k
3.5fH
3.5fH +20k
3.5fH +40k
100
200
300
400
500
MAIN modulation factor [%]
Frequency [Hz]
- 17 -
CXA2202N
Package Outline
Unit: mm
24PIN SSOP (PLASTIC)
+ 0.2 1.25 - 0.1 7.8 0.1 0.1 13
24
A
1 b
12
0.13 M B 0.65
5.6 0.1
b=0.22 0.03 0.1 0.1
0.5 0.2
DETAIL B : PALLADIUM
0 to 10 NOTE: Dimension "" does not include mold protrusion. DETAIL A
PACKAGE STRUCTURE
PACKAGE MATERIAL EPOXY RESIN PALLADIUM PLATING COPPER ALLOY 0.1g LEAD TREATMENT LEAD MATERIAL PACKAGE MASS
SONY CODE EIAJ CODE JEDEC CODE
SSOP-24P-L01 P-SSOP24-7.8x5.6-0.65
+ 0.03 0.15 - 0.01
7.6 0.2
- 18 -
Sony Corporation

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