-
Datei
VS1011.c
(1); vs1011_write_register(VS_MODE, 0x08, 0x00); // VS1002 NATIVE SPI / DISABLE VS1011 TEST MODE delay_ms(1); // WAIT 1 MILLISECOND vs1011_write_register(VS_BASS, 0x00, 0x00); // DISABLE BASS AND TREBLE ENHANCEMENT
in „VS1011 an PIC18F252 Audio-Probleme“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
vs1011.pdf
VS1011 B VS1011b VS1011b - MP3 AUDIO CODEC Features Description † Decodes MPEG 1 & 2 audio layer 3 (ISO VS1011bisasingle-chipMP3audiodecoder. The 11172-3), WAV and PCM files chipcontainsahigh-performance
-
Datei
main.c
= data; while(!SSPSTATbits.BF); } void VS1011_SoftReset(void) { VS1011_Null(1024); VS1011_Write(0x00,0x08,0x04); Delay_ms(5); VS1011_Write(0x00,0x08,0x00); Delay_ms(5); VS1011_Write(0x00,0x08,0x20); Delay_ms(5); VS1011_Write(0x05,0xAC,0x45); Delay_ms(5); } /* void VS1011_HardReset(void) { uchar i=0; do { VS_R=1; VS_R_Out(); Delay_ms(1); VS_R=0; VS_R_In(); Delay_ms(1); VS_R=1; VS_R_Out(); Delay_ms(10); i=DREQ; } while(i==0); VS1011_SoftReset(); } */ void VS1011_HardReset
in „VS1011 an PIC18F252 Audio-Probleme“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
main.c
= data; while(!SSPSTATbits.BF); } void VS1011_SoftReset(void) { VS1011_Null(1024); VS1011_Write(0x00,0x08,0x04); Delay_ms(5); VS1011_Write(0x00,0x08,0x00); Delay_ms(5); VS1011_Write(0x00,0x08,0x20); Delay_ms(5); } void VS1011_HardReset(void)
in „VS1011 an PIC18F252 Audio-Probleme“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
main.c
define SD_CS_Out() TRISCbits.TRISC7=0 // 7 debug:2 void PortsSet(void); uchar ReadSPIf(void); void VS1011_Write(uchar address,uchar data_hi,uchar data_low); uint VS1011_Read(uchar address); void VS1011_Null(uchar bytes); void VS1011_MP3(uchar data); void VS1011_MP3Data(uchar data); void VS1011_SoftReset
in „VS1011 an PIC18F252 Audio-Probleme“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
vs1011.c
(0x00); SPI_MasterTransmit(0x04); VS1011_Chip_Deselect(); _delay_ms(100); while(!(VS1011_Chip_Busy())); Led_aus(); _delay_ms(1000); } unsigned char Hardware_Reset(void)//Funktioniert!!! { VS1011_Chip_Reset_Now(); VS1011_Chip_BSYNC_High(); VS1011_Chip_Deselect(); VS1011_Chip_Not_Reset(); _delay_ms(100); while(!(VS1011_Chip_Busy())); Led_an(); return 0; } void SPI_MasterRead(void) { unsigned char Byte; VS1011_Chip_Select(); SPI_MasterTransmit
in „VS1011 Register auslesen!“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
main.c
flash_byte -= 528; flash_page += 1024; if (flash_page == 0x800000) flash_page=0; } FLASH_NCS // feed VS1011 with 32 bytes vs1011_feed(mp3_data, 32); } } vs1011_write(0x0B, 0xFEFE); DEBUG_OFF _delay_ms(1000); for (i=0; i<31; i++) { mp3_data[i]=0; } for (i=0; i<100; i++) { while (!VS1011_DREQ); vs1011_feed
in „WAV mit VS1011 abspielen“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
vs10XXan.pdf
, VS1011and VS1002d. ⊇ MP3 Player ⊇ ESD Protection ⊇ Highest SPI Speed ⊇ ADPCM Recording ⊇ SPI Boot Format Version 0.73, 2005-11-25 1 VS1001 K , VS1011, VS1002 D VLSI VS10XX APPL. NOTES S o lu tio n y CONTENTS
in „VS1011e und MSP430FG4618“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
mp3.h
0x06 // VS1011 UPLOAD USER CODE TO VS1011 MEMORY #define VS_WRAMADDR 0x07 // VS1011 MEMORY ADDRESS SETTING #define VS_HDAT0 0x08 // VS1011 STREAM HEADER DATA 0 #define VS_HDAT1 0x09 // VS1011 STREAM HEADER DATA 1 #define VS_AIADDR 0x0A // VS1011 START ADDRESS OF APPLCIATIONS #define VS_VOL 0x0B // VS1011 VOLUME CONTROL REGISTER #define VS_AICTRL0 0x0C // VS1011 APPLICATION CONTROL REGISTER 0 #define VS_AICTRL1 0x0D // VS1011
in „VS1011e Klicken/Piepsen beim Abspielen von Mp3 Dateien“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
vs1011.h
SECONDS #define VS_AUDATA 0x05 // VS1011 TO GET AND SET THE SAMPLINGRATE ( I.E. 44100 HZ STERO READ AS 0xAC45 ) #define VS_WRAM 0x06 // VS1011 UPLOAD USER CODE TO VS1011 MEMORY #define VS_WRAMADDR 0x07 // VS1011 MEMORY ADDRESS SETTING #define VS_HDAT0 0x08 // VS1011 STREAM HEADER DATA 0 #define VS_HDAT1 0x09 // VS1011 STREAM HEADER DATA 1 #define VS_AIADDR 0x0A // VS1011 START ADDRESS OF APPLCIATIONS #define VS_VOL 0x0B // VS1011 VOLUME CONTROL
in „VS1011 an PIC18F252 Audio-Probleme“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
vs1011.h
/* * vs1011.h * * Created on: 15.08.2010 * Author: eugen */ #ifndef VS1011_H_ #define VS1011_H_ #define MP3_DDRA DDRA #define MP3_DDRB DDRB #define MP3_ReadA PINA #define MP3_ReadB PINB #define MP3_OutA PORTA
in „VS1011 Register auslesen!“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
totoal.c
(5); CS_VS = 1; } void vs1011_write_zeros(int16 num_zeros) { int16 i; DCS_VS = 0; delay_us(5); for(i = 0; i<num_zeros; i++) { mp3_send_byte(0x00); } DCS_VS = 1; } int8 vs1011_hard_reset() { int8 status = 0; CS_VS = 1; DCS_VS = 1; RESET_VS = 1; delay_ms(1); RESET_VS = 0; delay_ms(1); RESET_VS = 1; delay_ms(100); while (!DREQ) vs1011_write_zeros (1); delay_ms (1); vs1011_write_register(VS_MODE,0x00,0x04); delay_ms (1); while
in „VS1011 --> Reset“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
main_simple.c
abhängig #include "uart.h" // Hardware abhängig, es kann auch eine eigene eingebunden werden ! #include "vs1011.h" //***************************************************************************************************************** int main(void){ // Uart initialisierung zu Ausgabe von Daten uinit(); vs1011_init(); SPI_MasterInit(); Hardware_Reset(); _delay_ms(100); while(!(VS1011_Chip_Busy())); Led_an(); _delay_ms(5000); Led_aus(); VS1011_Chip_Select(); SPI_MasterTransmit(0x02); SPI_MasterTransmit(0x0B); SPI_MasterTransmit(0xA2); SPI_MasterTransmit(0xF5); VS1011_Chip_Deselect
in „VS1011 Register auslesen!“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
daisy1.3.1.c
#inline int mmc_read_block_to_serial(int32 block_number,int1 mode); #inline int mmc_read_block_to_vs1011(int32 block_number); int16 vs_command(char inout,address,a,b); #inline void resetvs1011_hard(void); void resetvs1011_soft(void); void morezeroes(int1 halted); char vs_spi_write(char aa); void analogvolumeload
in „@ SD & MMC Spezialisten“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
vs1011test.asm
.include <m32def.inc> .equ dreq = pind7 .equ reset = pd6 .equ cs = pd5 .equ dcs = pd4 .equ F_CPU = 14745600 ; Systemtakt in Hz ; 04000000 .equ BAUD = 9600 ; Baudrate ; Berechnungen .equ UBRR_VAL = ((F_CPU+BAUD*8)/(BAUD*16)-1) ; clever runden .equ BAUD_REAL = (F_CPU/(16*(UBRR_VAL+1))) ; Reale Baudrate .equ BAUD_ERROR = ((BAUD_REAL*1000)/BAUD-1000) ; Fehler in Promille .if ((BAUD_ERROR>10) || (BAUD_ERROR<-10)) ; max. +/-10 Promille Fehler .error "Systematischer Fehler der Baudrate grösser 1 Prozent und damit zu hoch!" .endif .cseg ldi r16, low(RAMEND) ldi r17, high(RAMEND) out spl, r16 out sph, r17
in „vs1011e volume register“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
vs1011_1.c
DREQ. DREQ will stay down for at least 6000 clock cycles, which means an approximate 250 ¹s delay if VS1011b is run at 24.576 MHz. After DREQ is up, you may continue playback as usual. VS1011b is hardware reset, SM TESTS is set, and then a test command is sent to the SDI bus. Each test is started by sending
in „Sinustest des vs1011“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
vs1011_1.c
DREQ. DREQ will stay down for at least 6000 clock cycles, which means an approximate 250 ¹s delay if VS1011b is run at 24.576 MHz. After DREQ is up, you may continue playback as usual. VS1011b is hardware reset, SM TESTS is set, and then a test command is sent to the SDI bus. Each test is started by sending
in „Sinustest des vs1011“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
vs1011_1.c
DREQ. DREQ will stay down for at least 6000 clock cycles, which means an approximate 250 ¹s delay if VS1011b is run at 24.576 MHz. After DREQ is up, you may continue playback as usual. VS1011b is hardware reset, SM TESTS is set, and then a test command is sent to the SDI bus. Each test is started by sending
in „Sinustest des vs1011“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
Mp3_schrittmotor.C
false ) { // Programm beenden, da keine SD-Karte vorhanden return; } //MP3-Decoder initialisieren VS1011.begin(); // Schrittmotorkram pinMode(6,OUTPUT); // Enable pinMode(5,OUTPUT); // Step pinMode(4,OUTPUT); // Dir digitalWrite(6,LOW); // Set Enable low } void loop() { //Puffer für MP3-Decoder anlegen
in „Schrittmotor mit Ton“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
PIO_Schnittstellenspezifikation__1_.pdf
<SHIFT> F1 F1/F4 1000 <SHIFT> A3 A2/A3 1001 <SHIFT> F6 F6 I 1r <SHIFT> co 1010 <SHIFT> F6 F611 1011 <SHIFT> S3 SUCHEN 1100 <SHIFT> S1 USB 1101 <SHIFT> S2 OSB 0100 <SHIFT> F3 F3 IDatum: 22.07.98 Kapitel-Seite: Stand: 03 4--2 + DaimJer-BenzAcrospace VS - Nur für den Dienstgebrauch JLDj JLJ DDSSP Bereich
in „AEG - Telefunken E1800 mit PIO 1200 Schnittstelle.“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
PIO_Schnittstellenspezifikation__2_.pdf
<SHIFT> F1 F1/F4 1000 <SHIFT> A3 A2/A3 1001 <SHIFT> F6 F6 I 1r <SHIFT> co 1010 <SHIFT> F6 F611 1011 <SHIFT> S3 SUCHEN 1100 <SHIFT> S1 USB 1101 <SHIFT> S2 OSB 0100 <SHIFT> F3 F3 IDatum: 22.07.98 Kapitel-Seite: Stand: 03 4--2 + DaimJer-BenzAcrospace VS - Nur für den Dienstgebrauch JLDj JLJ DDSSP Bereich
in „AEG - Telefunken E1800 mit PIO 1200 Schnittstelle.“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
VS1011_Atmega128.pdf
AGND0 100nF P0UGPIO0 AGND2 P0U1021 2 C6 3 GND P0UGPIO1 AGND3 P0U1025 P P0C601 P0C602 C3 C1 3 Cap R1 VS1011 0 Cap P0C101 P0C102 P0R101 P0R102 2 2 P 100nF 10uF Res2 R R Cap Q P P P4 1M 3V3 R3 R4 33pF 0Res2 0 Res2 2 R R 100k 3V3 C2 2XTAL P P P 100k P0C201 P0C202 GND Q Cap GND 33pF GND Title D D Atmega128_SD-Karte_VS1011 GND Size Number Revision A4 Date: 23.06.2008 Sheet of File: Sheet1.SchDoc Drawn By: Markus Franke 1 2 3 4
in „VS1011+Atmega128 = Probleme“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
main.c
lcd_writebyte(TextStart); lcd_writecom(36); lcd_string_P ("mp3 Dekoder bereit...") ; uart_puts_P("Initialising VS1011...."); initVS1011(); uart_puts_P("successfull !\n"); Filesys(); LBA.lb=64; Lbuffer=0; Wbuffer=(char *)BuffOffs; Rbuffer=(char *)BuffOffs; for (;;) { if (Lbuffer<=(BufferSize-1024)) {SetLBA (LBA); Readsector(); LBA.lb++;} while (!(PINB&(1<<DREQ))); //Warten bis VS1011 Daten aufnehmen kann for (i=0; i<32; i++) SendDat(*Rbuffer++); Lbuffer-=32; if ((int)Rbuffer>=(BufferSize+BuffOffs)) //Buffer am oberen Ende des Ringpuffers ? Rbuffer=(char *)BuffOffs; //Buffer wieder
in „Seltsame Probleme mit VS1011 mp3 Dekoder“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
OPA128KM.pdf
Temperature (°C) Supply Voltage (CC) SUPPLY CURRENT vs TEMPERATURE OPEN-LOOP GAIN, PSR, AND CMR vs TEMPERATURE 2 140 B ( A 1.5 i 130 A m a OL t e e a u 1 l 120 C V l R CMR p M S C 0.5 R 110 S P PSR 0 100 –75 –50 –25 0 25 50 75 100 125 –75 –50 –25 0 25 50
in „OPA 128 KM - veraltet?“ · Mikrocontroller und Digitale Elektronik ·
-
Datei
test.c
global variables here void SPIWait() { while (!(SPSR.7)); } void InitSinusTest() { do{ XRESET=0; //VS 1011 Reset Lo delay_ms(100); spi(0xFF); XCS = 1; //xCS auf Hi XDCS = 1; //xDCS auf Hi XRESET=1; //VS 1011 Reset Hi delay_ms(100); XCS=0; //XCS low (am eingang) //schreiben ins Register } while(!DREQ)
in „SPI zwischen atmega32 und vs1011“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
INA125.pdf
V vs Temperature ±0.25 ±2 ±5 V/°C vs Power Supply VS= ±1.35V to ±18V, G = 4 ±3 ±20 ±50 V/V Long-Term Stability ±0.2 V/mo Impedance, Differential 1011 || 2 || pF Common-Mode 1011 || 9 || pF Safe Input Voltage
in „Signal einer Wägezelle auswerten“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
INA125.pdf
V vs Temperature ±0.25 ±2 ±5 V/°C vs Power Supply VS= ±1.35V to ±18V, G = 4 ±3 ±20 ±50 V/V Long-Term Stability ±0.2 V/mo Impedance, Differential 1011 || 2 || pF Common-Mode 1011 || 9 || pF Safe Input Voltage
in „Verstärker für Messbrücke“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
ADS8327IPW.pdf
kHz for AC cuives (unless otherwise noted) CROSSTALK DIFFERENTIAL NONLINEARITY INTEGRAL NONLINEARITY vs vs vs FREQUENCY FREE-AIR TEMPERATURE FREE-AIR TEMPERATURE 110 0.9 1.8 105 0.8 1.7 +VA = 5 V B100 - B B l L L t 95 +VA = 5 V - 0.7 -1.6 +VA = 5 V s N N r D +VA = 2.7 I C 90 0.6 1.5 85 +VA = 2.7 V +VA
in „Kennt jemand ADS8327? Ist er wirklich SPI-kompatibel?“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
pc814.pdf
50 75 100 125 Ambient temperature T(˚C) Ambient temperature T(˚C) a a Fig. 3 Peak Forward Current vs. Duty Ratio Fig. 4 Forward Current vs. Forward Voltage 10 000 500 Pulsewidth<=100 s 5 000 Ta= 25˚C T = 75˚C - 25˚C 200 a ) 2 000 ) 50˚C 0˚C m m 100 25˚C ( 1 000 ( F IF 50 I 500 n e r r 200 c 20 c r r
in „Optokoppler Problem“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
LC-Display-Bausatz_V2.pdf
LC-Display-Modul-Bausatz Montageanleitung Montage der Bauelemente Komplettbausatz mit LC-Display-Modul ALPS LSU7S1011A Um den Anschluss des LC-Display-Moduls zu vereinfachen, wurde ein Platinenlayout entwickelt, das nicht nur die Montage des LC-Display-Moduls erleichtert, sondern auch Platz für die für den einwandfreien
in „Anschlussplatine für LC-Display ALPS LSU7S1011A, mit Display funktioniert nicht“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
opa128lm.pdf
Temperature (°C) Common-Mode Voltage (V) GAIN-BANDWIDTH AND SLEW RATE GAIN-BANDWIDTH AND SLEW RATE vs TEMPERATURE vs SUPPLY VOLTAGE 4 4 3 6 z z H 3 3 ) H ) ( µ ( 2 4 µ t V t V i e i + Slew e d 2 2 a d a n R n – Slew R B w B e i S i 1 2 S a a G 1 1 G 0 0 0 0 –75 –50 –25 0 25 50 75 100 125 0 5 10 15 20 Ambient Temperature (°C) Supply Voltage (CC) SUPPLY CURRENT vs TEMPERATURE OPEN-LOOP GAIN, PSR, AND CMR vs TEMPERATURE 2 140 B ( A 1.5 i 130 A m G OL t e e a u 1 o 120 C V l R CMR p M S , 0.5 R 110 P PSR 0 100 –75 –50 –25 0 25 50 75 100 125 –75 –50 –25 0 25 50 75
in „Verkaufe 15 x OPA128LM“ · Markt ·
-
PDF
pc817.pdf
125 Ambient temperature T˚C ) : 1 or 2 or 3 or 4 a PC817 Series Fig. 2 Collector Power Dissipation vs. Fig. 3 Peak Forward Current vs. Duty Ratio Ambient Temperature 200 10 000 Pulsewidth<=100 s ) 5 000 T = 25˚C W a m ) ( 150 A 2 000 P (m 1 000 n M t I i n 500 i 100 e r u 200 e d o a 100 r r c f 50 l
in „Optokoppler schaltet nicht“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
P_100_LTV-354T.pdf
( C) Ambient temperature Ta ( C) Fig.3 Collector-emitter Saturation Voltage Fig.4 Forward Current vs. vs. Forward Current Forward Voltage 6 e Ic= 0.5mA O 500 a Ta= 25 C Ta= 75 C o 5 1mA )200 o 25 C v 3mA A 50 C 0 C i 5mA (100 o r 4 7mA I -25 C t n 50 s r e 3 c 20 i d m ) 2 a 10 r ) r c a F 5 l ( 1 o
in „AC Optokoppler mit integrierter Schmitttrigger Schaltstufe“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
ina125.pdf
V vs Temperature ±0.25 ±2 ±5 V/°C vs Power Supply VS= ±1.35V to ±18V, G = 4 ±3 ±20 ±50 V/V Long-Term Stability ±0.2 V/mo Impedance, Differential 1011 || 2 || pF Common-Mode 1011 || 9 || pF Safe Input Voltage
in „Kraftsensor PSD-S1 in Verbindung mit INA125“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
ina125.pdf
V vs Temperature ±0.25 ±2 ±5 V/°C vs Power Supply VS= ±1.35V to ±18V, G = 4 ±3 ±20 ±50 V/V Long-Term Stability ±0.2 V/mo Impedance, Differential 1011 || 2 || pF Common-Mode 1011 || 9 || pF Safe Input Voltage
-
PDF
MP3_Schematic_neu.pdf
R4 10 P0U1010 P0U10119 C10 1 C9 P0R402 P0R401 DGND2 AVDD0 P0U1018 100uF C 100nF GND 1M CSCS 11 P0U1011XCS AGND0 18 P 12 P0U1012 P0U10177 2 B SCLKCLK SCLK GPIO1 5 B GND 1P0U1013 P0U1016 16 0 P Y1 P0Y102 SISI SI GPIO0 / SPIBOOT P0U1015 R P1Y101 2 SOSO 14P0U1014 SO TEST 1 P R5 GND +3.3Vd R6 100K GND 0 0 VS1011 5 1 12.288MHz 1 0100K 0 +3.3V 0 0 R P 1 C11 1 C12 P 1 1 2 R 033pF 0 33pF P P P R8 01M GND R J1 P GND RIGHTRIGHT P0J105 1 P0J103 1 P LEFTLEFT P0J101 Phonejack3 D1 2 1 LED2 GND P +5V P2 +3.3V P1 P0P101
-
PDF
LTV815.pdf
LITE-ON TECHNOLOGY CORPORATION Property of LITE-ON Only CHARACTERISTICS CURVES Fig.1 Forward Current vs. Ambient Fig.2 Collector Power Dissipation vs. Temperature Ambient Temperature 60 200 ) m ) 50 c A P150 ( o I 40 a n i r 30 i100 c d d e a 20 o r r 50 F t 10 e o 0 C 0 -30 0 25 50 75 100 125 -30 0 25
in „Mit Optokoppler niederohmig schalten“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
MP3_Schematic.pdf
P0C1002 P0RIGHT P R4 10 P0U1010D2 RIGHT P0U10119 C10 RIGHT 1 C9 P0R402 P0R401 DGND2 AVDD0 9 GND 11 P0U1011 P0U10118 100uF 0 100nF 1M CSCS XCS AGND0 P0U1017 P B SCLKCLK 12 P0U101SCLK GPIO1 7 0 B GND 1P0U1013 P0U1016 16 2 0 Y1 SISI SI GPIO0 / SPIBOOT 6 P P1Y101 P2Y102 14P0U1014 P0U1015 P R5 GND SOSO SO TEST 100K GND 2 2 VS1011 +3.3V R6 0 1 12.288MHz 2 1100K 0 +3.3V C C 2 R P P P 7 P 0 C11 0 C12 0 8 C33pF C 33pF P 0 P P R7 P 100K R8 7 0 81M P GND J1 0 RIGHTRIGHT P0J105 P GND 0 P0J103 D P0LEFT P0J101 P LEFT Phonejack3 D1
-
PDF
SHA_S26M_D02.pdf
trigger current IFT V D 6V, R L= 100 - - 10 mA Isolation resistance R ISO DC500V, 40 to 60%RH 5 10 10 1011 - Transfer charac- S16MD01 - - 100 s teristics S26MD01 V D 6V, R L= 100 Turn-on time ton S16MD02 IF= 20mA - - 50 s S26MD02 Fig. 1 RMS ON-state Current vs. Fig. 2 Forward Current vs. Ambient Temperature
in „Frage zum Anschluss von Solid-State-Relais“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
lpc2468_evb.PDF
81S REF_CLK REF_CLK RXER RXER CRSDV CRSDV PRESETT RESETNT SW0 SW1 SW2 MP3-Decoder SW3 p3.SchDoc SW4 VS_MISO VS_MISO SW5 VS_MOSI VS_MOSI SW6 VS_SCK VS_SCK SW7 VS_DREQ VS_DREQ 12MHz 12MHz 2 3 4 5 6 7 8 9 RESET R0 0 I4 05 6 07 8 29 R23AR R23B R23C R23D R23E R23F R23G R23H 2110k 10k 10k 10k 10k 10k 10k 10k
in „Kann sich jemand mein Schema anschauen?“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
PA94U_M.pdf
Parameter Test Conditions 1 Min Typ Max Units INPUT OFFSET VOLTAGE, initial 0.5 5 mV OFFSET VOLTAGE vs. temperature Full temperature range 15 50 µV/°C OFFSET VOLTAGE vs. supply 10 25 µV/V OFFSET VOLTAGE vs. time 75 µV/kHz BIAS CURRENT, initial 200 2000 pA BIAS CURRENT vs. supply 4 pA/V OFFSET CURRENT,
in „Netzstrom-Verzerrungen sichtbar machen“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
StepUpConverter_ce830.pdf
PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series ■ Characteristics 1. CE8301A30P： a、V OUT vs. OUT : b. Efficiency vs. IOUT: SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series 2. CE8301A33P： a、V OUT vs. OUT : b、Efficiency vs. IOUT : SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series 3. CE8301A50P： a. VOUT vs. IOUT : b. Efficiency vs. IOUT : SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series Package information ● SOT-23 ● SOT-89 Symbols Dimensions in millimeters Min Nom Max A 1.40 1.50 1.60 b
in „Aufwärtswandler 5V gesucht“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
StepUpConverter_ce830.pdf
PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series ■ Characteristics 1. CE8301A30P： a、V OUT vs. OUT : b. Efficiency vs. IOUT: SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series 2. CE8301A33P： a、V OUT vs. OUT : b、Efficiency vs. IOUT : SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series 3. CE8301A50P： a. VOUT vs. IOUT : b. Efficiency vs. IOUT : SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series Package information ● SOT-23 ● SOT-89 Symbols Dimensions in millimeters Min Nom Max A 1.40 1.50 1.60 b
in „DC-DC-Wandler(chen) - StepUpConverter“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
StepUpConverter_ce830.pdf
PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series ■ Characteristics 1. CE8301A30P： a、V OUT vs. OUT : b. Efficiency vs. IOUT: SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series 2. CE8301A33P： a、V OUT vs. OUT : b、Efficiency vs. IOUT : SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series 3. CE8301A50P： a. VOUT vs. IOUT : b. Efficiency vs. IOUT : SMALL PACKAGE PFM CONTROL STEP-UP DC/DC CONVERTER CE8301 Series Package information ● SOT-23 ● SOT-89 Symbols Dimensions in millimeters Min Nom Max A 1.40 1.50 1.60 b
in „Spannugnsversorgung PIC16f887“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
pc715v0nszx_e.pdf
inquire about production status. Sheet No.: D2-A04402FEN 5 PC715V0NSZXF Series Fig.1 Forward Current vs. Ambient Fig.2 Diode Power Dissipation vs. Ambient Temperature Temperature 60 100 50 ) ) m A ( 80 ( 40 n 70 IF t n p 60 r 30 s c d r e w o 40 o 20 p F d i 10 D 20 0 0 −25 0 25 5055 75 100 125 −25 0 25
in „Optokoppler bei geringen Strömen“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
tcmt1100.pdf
25 °C, unless otherwise specified) PARAMETER TEST CONDITION SYMBOL MIN. TYP. MAX. UNIT Delay time VS= 5 V, IC= 2 mA, R =L100 Ω, (see figure 1) td - 4.0 - μs Rise time VS= 5 V, IC= 2 mA, R =L100 Ω, (see figure 1) tr - 5.5 - μs Fall time VS= 5 V, IC= 2 mA, R =L100 Ω, (see figure 1) tf - 7.0 - μs Storage time V = 5 V, I = 2 mA, R = 100 Ω, (see figure 1) t - 1.5 - μs S C L s Turn-on time VS= 5 V, IC= 2 mA, R =L100 Ω, (see figure 1) on - 9.5 - μs Turn-off time VS= 5 V, IC= 2 mA, R =L100 Ω, (see figure 1) off - 8.5 - μs Turn-on time VS= 5 V, IF= 10 mA, R =L1 kΩ, (see figure 2) on - 3.0 -
in „ULN2803 mit 24V ansteuern“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
HX5116_4.3inch.pdf
0110 01 Input sequence 0111 10 is fixed 1000 11 Odd/Even Cb,Y,Cr,Y… 1001 1010 Odd/Even Cb,Y,Cr,Y… 1011 Table 5. 4 Input data sequence vs. InterfacFormat 5.4 Display function 5.4.1 Resolution setting HX5116-Asupports QVGA、QVGA+、WQVGA、WQVGA- resolutions. Each resolution can be supported by different interface
in „OLED CMEL SPI Ansteuerung“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
andilcd_conoled_sheet_de_hx5116.pdf
0110 01 Input sequence 0111 10 is fixed 1000 11 Odd/Even Cb,Y,Cr,Y… 1001 1010 Odd/Even Cb,Y,Cr,Y… 1011 Table 5. 4 Input data sequence vs. InterfacFormat 5.4 Display function 5.4.1 Resolution setting HX5116-Asupports QVGA、QVGA+、WQVGA、WQVGA- resolutions. Each resolution can be supported by different interface
in „HX 5116 Anschlussbelegung an einem Atmega 644“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
Apex_PA03.pdf
MAX MIN TYP MAX UNITS INPUT OFFSET VOLTAGE, initial TC= 25°C ± .5 ± 2 ± .25 ± .5 mV OFFSET VOLTAGE, vs. temperature Full temperature range 10 30 5 10 µV/°C OFFSET VOLTAGE, vs. supply TC= 25°C 8 * µV/V OFFSET VOLTAGE, vs. power Full temperature range 20 10 µV/W BIAS CURRENT, initial TC= 25°C 5 50 3 10 pA BIAS CURRENT, vs. supply TC= 25°C .01 * pA/V OFFSET CURRENT, initial TC= 25°C 2.5 50 1.5 10 pA INPUT IMPEDANCE, DC T = 25°C 1011 * Ω INPUT CAPACITANCE T = 25°C 6 * pF COMMON MODE VOLTAGE RANGE 3 Full temperature range
in „Hochleistungs-Operationsverstärker“ · Analoge Elektronik und Schaltungstechnik ·
-
PDF
vergleichstabelle.pdf
k P L7 Ø 2,3 mm Ø 7,3 mm Ø 8,1 mm Ø 10,3 mm 1250W 400W a u d ir RG 214 6 GHz Cu vs PE 2x CuG vs PVC -20...+70 °C >80 dB 0,07 dB 0,3 dB 0,5 dB 0,9 dB a k L7 Ø 2,3 mm Ø 7,3 mm Ø 8,7 mm Ø 10,8 mm 1000W 320W 180W 130W - le G i RG 214 Hiflex 6 GHz Cu vs TPO 2x CuG vs PVC -25...+85 °C >70