beryllium copper with [1.32]yp. 8 5 tin or gold plating (see table) .015 .210 Max. ) [.381]yp. [5.33] 0 A 8 : e .128±.007 A [3.25±.178] l .150±.004 .150±.004 c [3.81±.102] [3.81±.102] L C e [0.58±.051]p. i u .048 O .100±.008 [1.22] Sockets with Straight Solder Tails [2.54±.203]yp. 0 2 - 8 5 0 6 : c
Less than 1 sec. 4-12 Braking Time Less than 1 sec. 4-13 Time for Speed Change Less than 1 sec. from 33 to 45 rpm. Less than 1 sec. from 45 to 33 rpm. Less than 1 sec. from 33 to 78 rpm 5. TONEARM SECTION: 5-1 Type Static balanced S-shaped tonearm with detachable headshell 5-2 EffectiveArm Length 230mm
TP814 1 33 NC DBG_UART_RXD 0 S 56 55 1 0 TPS62065DSGR 0 I2S Output from WN9711 to PLD R9659 BLM15BA220SN1D WN_AUP_MCK DGND 8 G 4 6 33 L9652 L9653 54 53 DGND L P G 8 G I2S Output from WN9711 to PLD R9657 WN_AUP_BCK WN_RXD WN_MOSI 2 EN 9 FB L 1 33 BLM15BA220SN1D R9660 52 51 IC964 R9680 M 5 4 2 I2S Output from WN9711 to PLD WN_PLD_WCK 50 49 WN_TXD 6 2 WN_MISO B MODE 5 AGND L 33 DGND DGND R9735 33 t ) 6 9 3 VDE4740 B 48 47 10K TC7WH34FK h M
T 44 108 L700 T 169 15 R128 T 122 31 R607 T 48 12 C207 T 87 59 C617 T 43 13 C817 T 50 62 C928 T 143 33 C1424 T 42 105 L701 T 170 15 R129 T 18 78 R608 T 38 28 C208 T 85 58 C618 T 43 25 C818 T 16 65 C929 T 93 97
1 2 3 4 5 6 7 8 p v h A A + V2 .param rlim=6 .param rs=10 150 .param rgate=33 + V3 150 v h p v h B k B 0 0 Q29 5 0 R 1 7 IXTH24N50L = r={rgate} 0 r={rgate} r={rgate} r={rgate} r={rgate} r 0 Q31 Q33 Q35 Q37 4 N R60 17 R61 7 IXTH24N50L R62 9 IXTH24N50L R66 1 IXTH24N50L R70 3 IXTH24N50L
edge of E signal. Table 6-2: Control pins of 6800 interface Function E R/W# CS# D/C# Write command ↓ L L L Read status ↓ H L L Write data ↓ L L H Read data ↓ H L H Note (1↓ stands for falling edge of signal H stands for HIGH in signal L stands for LOW in signal In order to match the operating frequency
edge of E signal. Table 6-2: Control pins of 6800 interface Function E R/W# CS# D/C# Write command ↓ L L L Read status ↓ H L L Write data ↓ L L H Read data ↓ H L H Note (1↓ stands for falling edge of signal H stands for HIGH in signal L stands for LOW in signal In order to match the operating frequency
(11 x 2° + 4 x 2°), which is equivalent to an 11.73:1 storage reduction. 1” MSB N v Phase m/2 sine L v2 lookup accumulator Figure 7.33 Exploitation of sin(0) symmetries about 7/2 and m for table storage compression. (<< 1988 JEEE,; reprinted with permission). After: [11). Figure 6. 330 Coarse ROM 0
29 EL CS - O O/L O/L O/L O/L O/L EL Chip Select (L : I/F communication) 30 D7 - O O/L O/L I O O Data Bus for OLED 31 D6 - O O/L O/L I O O Data Bus for OLED 32 D5 - O O/L O/L I O O Data Bus for OLED 33 D4 - O O/L O/L
: √ √ L1 k· L1·L 2 L 1 k · L1·L 2 VL1,n+1 = + R1 ·IL1,n+1+ ·IL2,n+1− + R 1 ·IL1,n− ·IL2,n hn h n h n hn req11 req12 V eq1 (6.78) The voltage across the secondary coL2,n+1 goes likewise by just changing the indices
Type numbering system (Example : 200V 680µF) Polarity bar Sleeve P.E.T. 1 2 3 4 5 6 7 8 9 10 11 12 . L G U 2 D 6 8 1 M E L A A + Case dia. code φ Configuration φD Code 10 Capacitancetolerance(±20%) 20 Y L±2 22 Z Rated capacitance (680µF) Pressure relief vent 4.0±0.5 Rated voltage (200V) 25 A 30 B Series
Waveform/Th ≤ 70°C) Lead Spacing 10 mm Lead Spacing 15 mm 1,000 1,000 100 100 ) ) r r ( ( g g 0.01 µF l 0.01 µF l 0.047µF V 0.047µF V 0.1 µF 10 0.068µF 10 0.15 µF 0.1 µF 0.22 µF 0.33 µF 0.47 µF 1 1 0.1 1.0 10.0 100.0 0.1 1.0 10.0 100.0 Frequency(kHz) Frequency(kHz) Lead Spacing 22.5 mm Lead Spacing 27.5 mm 1,000 1,000 100 100 s )s r r ( ( g g l 0.15 µF l V 0.33 µF V 0.47 µF 10 0.47 µF 10 1 µF 0.68 µF 1.5 µF 1 µF 2.2 µF 4.7 µF 1 1 0.1 1.0 10.0 100.0 0.1 1.0 10.0 100.0 Frequency(kHz) Frequency(kHz) Lead Spacing 37.5 mm 1,000 100 m ( e a o V 10
35 18 x 40 - - - - 8200 - 18 x 40 - - - - - DIMENSIONS in millimeters AND AVAILABLE FORMS Ø D Ø D L L + - F 15 min. 4 1 Ø d 0 Ø d min. F Fig. 2 - Form CA: Long leads Fig. 3 - Form CB: Cut leads Formed leads for Ø D = 8 mm with pitch F = 5 mm Fig. 4 - Form TFA: Taped in box (ammopack) Revision: 11-Oct
DB 0xF5 ;F5 -- '' DB 0x35 ;35 -- '5' DB 0x22 ;22 -- '"' DB 0x79 ;79 -- 'y' DB 0x04 ;04 -- '' DB 0x78 ;78 -- 'x' DB 0x04 ;04 -- '' DB 0x76 ;76 -- 'v' DB 0x00 ;00 -- '' DB 0x08 ;08 -- '' DB 0xD9 ;D9 -- '' DB 0xFB ;FB -- '' DB 0x7A ;7A -- 'z' DB 0x10 ;10 -- '' DB 0xC3 ;C3 -- '' DB 0xE5 ;E5 -- '' DB 0x33
) ICL7106, ICL7107 (MQFP) TOP VIEW TOP VIEW V+ 1 40 OSC 1 O H LO + - M F D1 2 39 OSC 2 F F E E M H L Z F 3 38 OSC 3 E E R R O N N - U N - C1 R R C C C I I A B I V B1 4 37 TEST (1’s) A1 5 36 REF HI F1 6 35 REF LO NC 144 43 42 41 40 39 38 37 36 35 34 NC G1 7 34 C REF+ 33 NC 2 32 G2 E1 8 33 C REF- D2 9
FILES ConfidAlesis S8-31-0127-Aal A B C D J J c c c c 11 1 1 h h h h 76 3 2 I I I I n n n n E E E E l l l l IL I L 4 3 2 1 e e e e NN N N 4 3 2 1 EE E E M M M M // / / C C C C A 86 8 6 J J J 4 3 2 1 c U 1 1 9 8 h X 1 0 n A l / J E C J I I 5 T 1 O L e C 2 U H 1 N N - E - N R 2 H R E E ) E ) O 8 N R L
comparator A4. The non-inverting input of A4 receives a Parts list for Resistors: 2 and 4 R3 = 470 k l R4 = 33 k R6 = 270 fl R7 = 2M2 R8 = 1 k Capacitors: Cl ,C2 = 470 n C4.C5 = 2n25 V C7 = 47 p/25 V Semiconductors: IC1 = TL 084 D3 = zener 2V7 Miscellaneous: PI = 47 k preset LI ,L2 =10 mH choke which
P / R39 R47 500 R57 500 F 500 1.0k l 1.0k A T39 R40 R41 t R50 R61 R62 R65 P 2.0k 2.0K u 220 2.0k 2.0k 220 Y B R – T43 T44 B l t T60 T61 B–YClamp r 11 B T62 T63 T64 T65 T45 T46 R60 R47 4.7k 4.7k T47 T59 T58 T48 T66 R38 R43 R44 R45 R49 R52
. LoadResistance Figure7: Distortion & Noise vs. Frequency 6/14 TDA7313 Figure9: ChannelSeparation(L ⊄ R) vs. Figure 10: Input Separation(L1 ⊄ L2, L3,L4) vs. Frequency Frequency Figure11: SupplyVoltage Rejection vs. Figure 12: Output Clipping Level vs. Supply Frequency Voltage Figure13: QuiescentCurrent
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