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| Abstract: And when DYN is digital "1" level, a 0.47 mF capacitor should be connected between them. 5/25 ¡ Semiconductor MSM7557 MSM7557 (Continued) Name CMPI Description Compressor circuit input. A 0.47 mF , "1" level, a 0.47 mF capacitor should be connected between them. Receive side amplifier input (RAI , 0.47 20 - - mF - C14 bit/sec pF 10/25 ¡ Semiconductor MSM7557 MSM7557 , dBV - TAT2 DYN = "1", C6 = 0.47 mF - 3.5 - TRE1 DYN = "0", C6 = 0.22 mF ... | Original |
25 pages, |
MSM7557GS-2K MSM7557 gt 2399 FR25 compandor .1 mF capacitor 0.47 MF CAPACITOR E2A0046-16-X1 E2A0046-16-X1 abstract |
| Abstract: detection time. When a 0.47 mF capacitor is connected between CT and GND Lockup detection time :approx. , DIAGRAM CT Thermal protection circuit 0.47 to 1F FG Discharge pulse Vcc HALL IN+ IN- , CIRCUIT C2 Vcc H IN - FG IN+ OUT1 HB OUT2 ST CT C1 0.47 to 1F GND , SYMBOL Current drain ICC Lockup detection Capacitor charge current Capacitor discharge current Capacitor charge/discharge current ratio CT charge voltage CT discharge voltage Output Low level voltage ... | Original |
8 pages, |
MSOP-10 LB1962 0.47 MF CAPACITOR LB1962 abstract |
| Abstract: capacitance alters the lockup detection time. When a 0.47 mF capacitor is connected between CT and GND , , VCC=5V) PARAMETER Current Drain SYMBOL ICC Lockup Detection Capacitor Charge Current Capacitor discharge current Capacitor Charge/Discharge Current Ratio CT Charge Voltage CT Discharge Voltage , This pin serves timing capacitor connecting pin between CT and GND. The capacitor determines timing of ... | Original |
9 pages, |
MSOP-10 0.47 MF CAPACITOR F1962 F1962 abstract |
| Abstract: Vitramon 8 1 C13 0.47 mF Capacitor 805 VJ0805474KXXAT VJ0805474KXXAT Vishay Vitramon 9 5 C17, C18, C19 2200 mF Capacitor, 2200 mF/10 V Radial-Lead EKE00FI422C00 EKE00FI422C00 Vishay , C1, C2, C3, C15, C16 1000 mF Capacitor, 1000 mF/10 V Radial-Lead EKE00DD410C00 EKE00DD410C00 Vishay , C5, C9, C11, C14, C22 0.1 mF Capacitor 805 VJ0805104KXXAT VJ0805104KXXAT Vishay Vitramon 4 3 C6, C12, C23 4.7 mF Capacitor 1206 GRM42-2X5R475K16 GRM42-2X5R475K16 Murata 5 1 C7 27 pF ... | Original |
6 pages, |
SUD50N03-10 2N7002 470 pf capacitor capacitor 1000 MF 0.47 MF CAPACITOR dale resistor code DIFS4 EKE00DD410C00 MF CAPACITOR Si9143 Si9143DB CRCW08053002FRT1 Dale Resistor Si9143DB abstract |
| Abstract: competition. Its patented design requires only a 0.47 mF output capacitor for stability. This device is , circuit to be stable with just a small 0.47 mF capacitor on the output. Additional advantages of the , (anyCAP). A capacitor as low as 0.47 mF is all that is needed for stability; larger capacitors can be , , respectively. The output capacitor can be adjusted to minimize the overshoot. Values in the 0.47 mF to 1.0 mF , FB 6 L9B IN ERR SD Output of the Regulator. Bypass to ground with a 0.47 mF or ... | Original |
12 pages, |
MJE253 ADP3331ART ADP3331 0.47 MF CAPACITOR MO178AB ADP3331 abstract |
| Abstract: AD input Notes ¾ Connect 0.47-mF capacitor and 20-W resistor. ¾ ¾ Analog power supply AD input Connect 0.47-mF capacitor and 20-W resistor. ¾ Ground to AVSS (pin 14) via 0.1-mF , 0.47-mF capacitor and 20-W resistor. ¾ Ground to AVSS (pin 69) via 0.1-mF capacitor. AD reference , AD) Ground to AVSS (pin 6) via 0.1-mF capacitor. 2 VRM_I O AD reference voltage , AD reference voltage (top) Ground to AVSS (pin 6) via 0.1-mF capacitor. 8 DACOUT O ... | Original |
36 pages, |
TC90A58F MF CAPACITOR ITU-R601 CR232 Cr03-2 TC90A58F abstract |
| Abstract: 0.47 mF capacitor if unused 1.65 V reference voltage; connect a 1 mF capacitor to ground Left speaker , through 0.47 mF capacitor if unused Charge pump flying capacitor positive terminal; connect positive side , supply Channel 1 right input (SE-In mode); Left input (Diff-In mode); connect to ground through 0.47 mF , Channel 2 left input (SE-In mode); Right+ input (Diff-In mode); connect to ground through 0.47 mF , ) 1-mF ceramic capacitor (typically) placed as close as possible to the device PVDD (L, R) lead works ... | Original |
30 pages, |
TPA2054D4A SLOS666 TPA2054D4A abstract |
| Abstract: detection time. When a 0.47 mF capacitor is connected between CT and GND Lockup detection time : approx. , circuit 0.47 to 1uF RD (LB1862M LB1862M) FG (LB1962M LB1962M) Discharge pulse VCC HALL IN+ Delay , 5.0 6.0 7.0 ICT1 capacitor charge current Capacitor discharge current ICT2 Capacitor charge/discharge RCT RCT = ICT1/ICT2 current ratio CT charge voltage VCT1 2.55 , capacitor between CT and GND. The capacitor determines the characteristics of the built-in lockup ... | Original |
8 pages, |
MFP10S LB1962M LB1862M EN5657C EN5657C abstract |
| Abstract: capacitance alters the lockup detection time. When a 0.47 mF capacitor is connected between CT and GND , / Discharge circuit 0.47 to 1uF RD Discharge pulse VCC HALL IN+ Delay circuit IN- , 7.0 ICT1 capacitor charge current Capacitor discharge current ICT2 Capacitor charge , serves for connecting a capacitor between CT and GND. The capacitor determines the characteristics of , RD 10 2 IN+ OUT1 4 9 HB LB1862 LB1862 OUT2 6 8 ST 3 CT C1=0.47 to 1uF GND 5 (1) D1 ... | Original |
6 pages, |
LB1862 EN6208B EN6208B abstract |
| Abstract: detection time. When a 0.47 mF capacitor is connected between CT and GND Lockup detection time : approx. , circuit 0.47 to 1F RD (LB1862M LB1862M) FG (LB1962M LB1962M) Discharge pulse VCC HALL IN+ Delay , 5.0 6.0 7.0 ICT1 capacitor charge current Capacitor discharge current ICT2 Capacitor charge/discharge RCT RCT = ICT1/ICT2 current ratio CT charge voltage VCT1 2.55 , capacitor between CT and GND. The capacitor determines the characteristics of the built-in lockup ... | Original |
7 pages, |
MFP10S MFP10 LB1962M LB1862M EN5657D EN5657D abstract |
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| Capacitor Voltage Converter SOIC NARROW 8 Full production 1K+ $0.47 3-4 weeks 10000 MAX660MX MAX660MX MAX660MX MAX660MX Switched Capacitor Voltage Converter SOIC NARROW 8 Full production 1K+ $0.47 LMH LMS LMV LMX LP MA MC MF MM NS PC www.datasheetarchive.com/files/national/master_ma.html |
National | 25/09/2003 | 6.77 Kb | HTML | master_ma.html |
| -2, B2-2, A3-2, B3-2 0.31 0.39 0.47 V B1-2 DC applied 1B O O Pin 3 - 0.47 - 0.39 - 0.31 V A2-2 DC applied 2A O O Pin 16 0.31 0.39 0.47 V B2-2 DC applied 2B O O Pin 20 - 0.47 - 0.39 - 0.31 V A3-2 DC applied 3A O O Pin 23 0.31 0.39 0.47 V B3-2 DC applied 3B O O Pin 27 - 0.47 - 0.39 - 0.31 V V1-1 Amplitude GND2 GND3 1B GND GND GND INY Co-axial cable -5V 0.1 mF 150 W 75 W 1.6Vp-p 0.6Vp-p 0.6Vp-p 0.1 mF 0.1 mF distortion at the input pins is directly trans- ferred to the output waveform. BIAS GEN 0.1 mF 150 W 75 W 0 www.datasheetarchive.com/files/stmicroelectronics/books/ascii/docs/1154.htm |
STMicroelectronics | 25/05/2000 | 12.66 Kb | HTM | 1154.htm |
| -2, B3-2 0.31 0.39 0.47 V B1-2 DC applied 1B O O Pin 3 - 0.47 - 0.39 - 0.31 V A2-2 DC applied 2A O O Pin 16 0.31 0.39 0.47 V B2-2 DC applied 2B O O Pin 20 - 0.47 - 0.39 - 0.31 V A3-2 DC applied 3A O O Pin 23 0.31 0.39 0.47 V B3-2 DC applied 3B O O Pin 27 - 0.47 - 0.39 - 0.31 V V1-1 Amplitude 1A + 1B Calculation (V1-1) = (A1-2) - (B1 GND GND INY Co-axial cable -5V 0.1 mF 150 W 75 W 1.6Vp-p 0.6Vp-p 0.6Vp-p 0.1 mF www.datasheetarchive.com/files/stmicroelectronics/stonline/books/ascii/docs/1154-v1.htm |
STMicroelectronics | 25/05/2000 | 11.8 Kb | HTM | 1154-v1.htm |
| -2, B2-2, A3-2, B3-2 0.31 0.39 0.47 V B1-2 DC applied 1B O O Pin 3 - 0.47 - 0.39 - 0.31 V A2-2 DC applied 2A O O Pin 16 0.31 0.39 0.47 V B2-2 DC applied 2B O O Pin 20 - 0.47 - 0.39 - 0.31 V A3-2 DC applied 3A O O Pin 23 0.31 0.39 0.47 V B3-2 DC applied 3B O O Pin 27 - 0.47 - 0.39 - 0.31 V V1-1 Amplitude GND3 1B GND GND GND INY Co-axial cable -5V 0.1 mF 150 W 75 W 1.6Vp-p 0.6Vp-p 0.6Vp-p 0.1 mF 0.1 mF N distortion at the input pins is directly trans- ferred to the output waveform. BIAS GEN 0.1 mF 150 W 75 W 0 www.datasheetarchive.com/files/stmicroelectronics/stonline/books/ascii/docs/1154-v2.htm |
STMicroelectronics | 14/06/1999 | 9.99 Kb | HTM | 1154-v2.htm |
| -2, B2-2, A3-2, B3-2 0.31 0.39 0.47 V B1-2 DC applied 1B O O Pin 3 - 0.47 - 0.39 - 0.31 V A2-2 DC applied 2A O O Pin 16 0.31 0.39 0.47 V B2-2 DC applied 2B O O Pin 20 - 0.47 - 0.39 - 0.31 V A3-2 DC applied 3A O O Pin 23 0.31 0.39 0.47 V B3-2 DC applied 3B O O Pin 27 - 0.47 - 0.39 - 0.31 V V1-1 Amplitude GND3 1B GND GND GND INY Co-axial cable -5V 0.1 mF 150 W 75 W 1.6Vp-p 0.6Vp-p 0.6Vp-p 0.1 mF 0.1 mF N distortion at the input pins is directly trans- ferred to the output waveform. BIAS GEN 0.1 mF 150 W 75 W 0 www.datasheetarchive.com/files/stmicroelectronics/stonline/books/ascii/docs/1154.htm |
STMicroelectronics | 02/04/1999 | 10.03 Kb | HTM | 1154.htm |
| decoupling . 3a. Increase the bootstrap capacitor (Cb) value to above 0.47mF using at least one low-ESR capacitor. This will reduce overcharging from severe V S undershoot. 3b. Use a second low-ESR capacitor from V CC to COM. As this capacitor supports both the low-side output buffer and bootstrap recharge, we recommend a value at least ten times higher than Cb. 3c. Connect decoupling capacitors www.datasheetarchive.com/files/international-rectifier/docs/wcd00009/wcd00999.htm |
International Rectifier | 06/10/1998 | 8.06 Kb | HTM | wcd00999.htm |
| .35 DTMF A -0.47 DTMF 1 -0.3 DTMF B -0.47 DTMF 2 -0.35 DTMF C -0.47 DTMF 3 -0.4 DTMF D -0.47 DTMF 4 -0 ) power supplies are connected together. The capacitors used for the power supply ( DV DD , AV DD ) decoupling are installed as close as possible to the power pins. The capacitors used for the voltage refence RESET +5V +5V R8 470 W R7 10k W +5V * * * C20 10mF C12 10nF C13 10nF C14 10nF +5V INTEL mode MOTOROLA 232 * C8 100nF * C9 100nF C11 10mF C10 10mF VCM RXA1 TXA2 TXA1 C4 100nF * C5 10mF +5VA +5V C3 10nF C1 www.datasheetarchive.com/files/stmicroelectronics/stonline/books/ascii/docs/1782-v2.htm |
STMicroelectronics | 14/06/1999 | 14.39 Kb | HTM | 1782-v2.htm |
| (dBm on 600 W ) Tones Level (dBm on 600 W ) DTMF 0 -0.35 DTMF A -0.47 DTMF 1 -0.3 DTMF B -0.47 DTMF 2 -0.35 DTMF C -0.47 DTMF 3 -0.4 DTMF D -0.47 DTMF 4 -0.35 DTMF * -0.3 DTMF 5 -0.35 DTMF # -0 supplies are connected together. The capacitors used for the power supply ( DV DD , AV DD ) decoupling are installed as close as possible to the power pins. The capacitors used for the voltage * * * C20 10mF C12 10nF C13 10nF C14 10nF +5V INTEL mode MOTOROLA mode (select one of the www.datasheetarchive.com/files/stmicroelectronics/stonline/books/ascii/docs/1782.htm |
STMicroelectronics | 20/10/2000 | 17.05 Kb | HTM | 1782.htm |
| .35 DTMF A -0.47 DTMF 1 -0.3 DTMF B -0.47 DTMF 2 -0.35 DTMF C -0.47 DTMF 3 -0.4 DTMF D -0.47 DTMF 4 -0 ) power supplies are connected together. The capacitors used for the power supply ( DV DD , AV DD ) decoupling are installed as close as possible to the power pins. The capacitors used for the voltage refence RESET +5V +5V R8 470 W R7 10k W +5V * * * C20 10mF C12 10nF C13 10nF C14 10nF +5V INTEL mode MOTOROLA 232 * C8 100nF * C9 100nF C11 10mF C10 10mF VCM RXA1 TXA2 TXA1 C4 100nF * C5 10mF +5VA +5V C3 10nF C1 www.datasheetarchive.com/files/stmicroelectronics/stonline/books/ascii/docs/1782-v1.htm |
STMicroelectronics | 02/04/1999 | 14.43 Kb | HTM | 1782-v1.htm |
| 600 W ) Tones Level (dBm on 600 W ) DTMF 0 -0.35 DTMF A -0.47 DTMF 1 -0.3 DTMF B -0.47 DTMF 2 -0.35 DTMF C -0.47 DTMF 3 -0.4 DTMF D -0.47 DTMF 4 -0.35 DTMF * -0.3 DTMF 5 -0.35 DTMF ( AV DD ) and digital ( DV DD ) power supplies are connected together. The capacitors used to the power pins. The capacitors used for the voltage refence (be- tween V REFP /VCM and V W R7 10k W +5V * * * C20 10mF C12 10nF C13 10nF C14 10nF +5V INTEL www.datasheetarchive.com/files/stmicroelectronics/stonline/books/ascii/docs/1782-v3.htm |
STMicroelectronics | 25/05/2000 | 16.24 Kb | HTM | 1782-v3.htm |