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Datei
AVRootloader.asm
include "4434def.inc" ; AT90S4434 ;.include "8515def.inc" ; AT90S8515 ;.include "8535def.inc" ; AT90S8535 ;.include "tn10def.inc" ; ATtiny10 ;.include "AT86RF401def.inc" ; AT86RF401 ;.include "ATxmega128A1def.inc" ; ATxmega128A1 ;.include "ATxmega128A3def.inc" ; ATxmega128A3 ;.include "ATxmega256A3Bdef.inc
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Datei
Unterprogramme.h
AVR_AT90S4414__) || defined(__AVR_AT90S4434__) \ || defined(__AVR_AT90S8515__) || defined(__AVR_AT90S8535__) \ || defined(__AVR_ATmega103__) /* old AVR classic or ATmega103 with one UART */ #define AT90_UART #define UART0_RECEIVE_INTERRUPT SIG_UART_RECV #define UART0_TRANSMIT_INTERRUPT SIG_UART_DATA
in „Roboter-Linienverfolgung mit P-Regler und Ausweichmodus“ · Mikrocontroller und Digitale Elektronik ·
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Datei
uart.c
AVR_AT90S4414__) || defined(__AVR_AT90S4434__) \ || defined(__AVR_AT90S8515__) || defined(__AVR_AT90S8535__) \ || defined(__AVR_ATmega103__) /* old AVR classic or ATmega103 with one UART */ #define AT90_UART #define UART0_RECEIVE_INTERRUPT UART_RX_vect #define UART0_TRANSMIT_INTERRUPT UART_UDRE_vect
in „AVR Bootloader in C, geht mit mega8 nicht“ · Mikrocontroller und Digitale Elektronik ·
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Datei
Analoge_Ein_Ausgabe.htm
einen AVR mit eingebautem(n) <b>ADC</b>-Wandler zurückgreifen. Wir wollen hier einmal den AT90S8535 besprechen, welcher über 8 <b>ADC</b>-Kanäle verfügt.</p> <p align="left">Die Umwandlung innerhalb des AVR basiert auf der Schrittweisen Näherung. Beim AVR müssen die Pins <b> AGND</b> und <b> AVCC
in „kurs in gcc“ · Mikrocontroller und Digitale Elektronik ·
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Datei
AVRootloader.asm
include "4434def.inc" ; AT90S4434 ;.include "8515def.inc" ; AT90S8515 ;.include "8535def.inc" ; AT90S8535 ;.include "AT86RF401def.inc" ; AT86RF401 ;.include "ATxmega128A1def.inc" ; ATxmega128A1 ;.include "ATxmega128A3def.inc" ; ATxmega128A3 ;.include "ATxmega256A3Bdef.inc" ; ATxmega256A3B ;.include "
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Datei
AVRootloader.asm
include "4434def.inc" ; AT90S4434 ;.include "8515def.inc" ; AT90S8515 ;.include "8535def.inc" ; AT90S8535 ;.include "AT86RF401def.inc" ; AT86RF401 ;.include "ATxmega128A1def.inc" ; ATxmega128A1 ;.include "ATxmega128A3def.inc" ; ATxmega128A3 ;.include "ATxmega256A3Bdef.inc" ; ATxmega256A3B ;.include "
in „Bootloader von Hagen - Port toggeln während des Flashens“ · Mikrocontroller und Digitale Elektronik ·
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Datei
AVRootloader.asm
include "4434def.inc" ; AT90S4434 ;.include "8515def.inc" ; AT90S8515 ;.include "8535def.inc" ; AT90S8535 ;.include "AT86RF401def.inc" ; AT86RF401 ;.include "ATxmega128A1def.inc" ; ATxmega128A1 ;.include "ATxmega64A1def.inc" ; ATxmega64A1 ;.include "m103def.inc" ; ATmega103 ;.include "tn11def.inc" ;
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Datei
uart.c
AVR_AT90S4414__) || defined(__AVR_AT90S8515__) || \ defined(__AVR_AT90S4434__) || defined(__AVR_AT90S8535__) || \ defined(__AVR_ATmega103__) /* old AVR classic or ATmega103 with one UART */ #define UART0_RECEIVE_INTERRUPT UART_RX_vect #define UART0_TRANSMIT_INTERRUPT UART_UDRE_vect #define UART0_STATUS
in „Timerberechnung die hunderste“ · Mikrocontroller und Digitale Elektronik ·
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Datei
uart.c
AVR_AT90S4414__) || defined(__AVR_AT90S8515__) || \ defined(__AVR_AT90S4434__) || defined(__AVR_AT90S8535__) || \ defined(__AVR_ATmega103__) /* old AVR classic or ATmega103 with one UART */ #define UART0_RECEIVE_INTERRUPT UART_RX_vect #define UART0_TRANSMIT_INTERRUPT UART_UDRE_vect #define UART0_STATUS
in „Fehler beim kompilieren des Bootloadertoutorials in C“ · Mikrocontroller und Digitale Elektronik ·
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Datei
uart.c
AVR_AT90S4414__) || defined(__AVR_AT90S8515__) || \ defined(__AVR_AT90S4434__) || defined(__AVR_AT90S8535__) || \ defined(__AVR_ATmega103__) /* old AVR classic or ATmega103 with one UART */ #define UART0_RECEIVE_INTERRUPT UART_RX_vect #define UART0_TRANSMIT_INTERRUPT UART_UDRE_vect #define UART0_STATUS
in „Wie macht man solche Lichtmodes? Lauflicht, PWM und Co“ · Mikrocontroller und Digitale Elektronik ·
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Datei
AVR910JS_2313_v3_3.asm
ATmega163 .db 0x64,'P' ;ATmega83 .db 0x65,'P' ;ATmega163 BOOT .db 0x66,'P' ;ATmega83 BOOT .db 0x67,'P' ;AT90S8535 .db 0x68,0 ;ATmega8535 .db 0x69,'P' ;* v1.40 From 0x6a-0x6b unused yet ;***ATmega8535 BOOT?? ; .db 0x6a,'P' ; ;AT90S4434 .db 0x6C,0 ;From 0x6d-0x6f unused yet ;AT90C8534 .db 0x70,0 ;AT90C8544 .db
in „AVR - suche Datei avr910.asm von Atmel“ · Mikrocontroller und Digitale Elektronik ·
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Datei
dude511.txt
) avrdude: Recv: g [67] Device code: 0x67 = (unknown) avrdude: Recv: h [68] Device code: 0x68 = AT90S8535 avrdude: Recv: i [69] Device code: 0x69 = ATMEGA8535 avrdude: Recv: j [6a] Device code: 0x6a = (unknown) avrdude: Recv: k [6b] Device code: 0x6b = (unknown) avrdude: Recv: l [6c] Device code: 0x6c
in „avrdude - Probleme unter Mac OS X 10.7 (Lion)“ · Mikrocontroller und Digitale Elektronik ·
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Datei
dude511_mit_arduino_conf.txt
) avrdude: Recv: g [67] Device code: 0x67 = (unknown) avrdude: Recv: h [68] Device code: 0x68 = AT90S8535 avrdude: Recv: i [69] Device code: 0x69 = ATMEGA8535 avrdude: Recv: j [6a] Device code: 0x6a = (unknown) avrdude: Recv: k [6b] Device code: 0x6b = (unknown) avrdude: Recv: l [6c] Device code: 0x6c
in „avrdude - Probleme unter Mac OS X 10.7 (Lion)“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVR042.pdf
support 1.8-5.5V operating voltages do not have internal capacitors (except Atmega162). Note that AT90S8535, Atmega163 and Atmega103 does not have the CKOPT-fuse, instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „Beschaltung MEGA128 mit ISP und UARD0“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVR042.pdf
support 1.8-5.5V operating voltages do not have internal capacitors (except Atmega162). Note that AT90S8535, Atmega163 and Atmega103 does not have the CKOPT-fuse, instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „Widerstände an MISO und MOSI?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STK500_Schematics.pdf
PB7(SCK) ADC6/PA6 31 MCURST 4 30 XC200 5 RESET ADC7/PA7 29 CSTCC7.37MHz VCC 6 VCC AREF 28 7 GND AT90S8535-8AC AGND 27 XTAL2 AVCC 1 3 8 XTAL1 TOSC2/PC7 26 PCM7 RxDA 9 PD0/RXD TOSC1/PC6 25 PCM6 R216 C206 TxDA 10 PD1/TXD PC5 24 PCM5 0R B 12pF TRST 11 23 PCM4 B PD2/INT0 B A PC4 + C214 V12P7 T C C P C C211
in „Schema STK 500 ?!“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STK500_Schematics.pdf
PB7(SCK) ADC6/PA6 31 MCURST 4 30 XC200 5 RESET ADC7/PA7 29 CSTCC7.37MHz VCC 6 VCC AREF 28 7 GND AT90S8535-8AC AGND 27 XTAL2 AVCC 1 3 8 XTAL1 TOSC2/PC7 26 PCM7 RxDA 9 PD0/RXD TOSC1/PC6 25 PCM6 R216 C206 TxDA 10 PD1/TXD PC5 24 PCM5 0R B 12pF TRST 11 23 PCM4 B PD2/INT0 B A PC4 + C214 V12P7 T C C P C C211
in „STK500 kein VTARGET mehr?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
doc2521.pdf
support 1.8-5.5V operating voltages do not have internal capacitors (except Atmega162). Note that AT90S8535, Atmega163 and Atmega103 does not have the CKOPT-fuse, instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „Quarz will nicht anschwingen Atmega8“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
AVR042.pdf
support 1.8-5.5V operating voltages do not have internal capacitors (except Atmega162). Note that AT90S8535, Atmega163 and Atmega103 does not have the CKOPT-fuse, instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „Mein erstes Projekt“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
AVR042.pdf
support 1.8-5.5V operating voltages do not have internal capacitors (except Atmega162). Note that AT90S8535, Atmega163 and Atmega103 does not have the CKOPT-fuse, instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „Programier leitungen doppelt nutzen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STK500_1_.pdf
PB7(SCK) ADC6/PA6 31 MCURST 4 30 XC200 5 RESET ADC7/PA7 29 CSTCC7.37MHz VCC 6 VCC AREF 28 7 GND AT90S8535-8AC AGND 27 XTAL2 AVCC 1 3 8 XTAL1 TOSC2/PC7 26 PCM7 RxDA 9 PD0/RXD TOSC1/PC6 25 PCM6 R216 C206 TxDA 10 PD1/TXD PC5 24 PCM5 0R B 12pF TRST 11 23 PCM4 B PD2/INT0 B A PC4 + C214 V12P7 T C C P C C211
in „STK500 - Analog-Setup für Line-In-Adapter“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STK500_Schematics.pdf
PB7(SCK) ADC6/PA6 31 MCURST 4 30 XC200 5 RESET ADC7/PA7 29 CSTCC7.37MHz VCC 6 VCC AREF 28 7 GND AT90S8535-8AC AGND 27 XTAL2 AVCC 1 3 8 XTAL1 TOSC2/PC7 26 PCM7 RxDA 9 PD0/RXD TOSC1/PC6 25 PCM6 R216 C206 TxDA 10 PD1/TXD PC5 24 PCM5 0R B 12pF TRST 11 23 PCM4 B PD2/INT0 B A PC4 + C214 V12P7 T C C P C C211
in „Roter Bereich auf STK500 defekt“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVR_8-bit_AppNote_HardwareDesignConsiderations_AVR042.pdf
support 1.8-5.5V operating voltages do not have internal capacitors (except Atmega162). Note that AT90S8535, Atmega163 and Atmega103 does not have the CKOPT-fuse, instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „RFM01 Problem“ · Mikrocontroller und Digitale Elektronik ·
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Datei
io.h
avr/iom8515.h> #elif defined (__AVR_ATmega8535__) # include <avr/iom8535.h> #elif defined (__AVR_AT90S8535__) # include <avr/io8535.h> #elif defined (__AVR_AT90C8534__) # include <avr/io8534.h> #elif defined (__AVR_AT90S8515__) # include <avr/io8515.h> #elif defined (__AVR_AT90S4434__) # include <avr/
in „direkt in ein Register des Tiny5 schreiben“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STK500.pdf
PB7(SCK) ADC6/PA6 31 MCURST 4 30 XC200 5 RESET ADC7/PA7 29 CSTCC7.37MHz VCC 6 VCC AREF 28 7 GND AT90S8535-8AC AGND 27 XTAL2 AVCC 1 3 8 XTAL1 TOSC2/PC7 26 PCM7 RxDA 9 PD0/RXD TOSC1/PC6 25 PCM6 R216 C206 TxDA 10 PD1/TXD PC5 24 PCM5 0R B 12pF TRST 11 23 PCM4 B PD2/INT0 B A PC4 + C214 V12P7 T C C P C C211
in „STK500 Transistoren defekt“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STK500_Schematics.pdf
PB7(SCK) ADC6/PA6 31 MCURST 4 30 XC200 5 RESET ADC7/PA7 29 CSTCC7.37MHz VCC 6 VCC AREF 28 7 GND AT90S8535-8AC AGND 27 XTAL2 AVCC 1 3 8 XTAL1 TOSC2/PC7 26 PCM7 RxDA 9 PD0/RXD TOSC1/PC6 25 PCM6 R216 C206 TxDA 10 PD1/TXD PC5 24 PCM5 0R B 12pF TRST 11 23 PCM4 B PD2/INT0 B A PC4 + C214 V12P7 T C C P C C211
in „STK500 getötet?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVR042-doc2521.pdf
support 1.8-5.5V operating voltages do not have internal capacitors (except Atmega162). Note that AT90S8535, Atmega163 and Atmega103 does not have the CKOPT-fuse, instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „Anfänger: Atmel 8 beschaltung ?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
STK500_Schematics.pdf
PB7(SCK) ADC6/PA6 31 MCURST 4 30 XC200 5 RESET ADC7/PA7 29 CSTCC7.37MHz VCC 6 VCC AREF 28 7 GND AT90S8535-8AC AGND 27 XTAL2 AVCC 1 3 8 XTAL1 TOSC2/PC7 26 PCM7 RxDA 9 PD0/RXD TOSC1/PC6 25 PCM6 R216 C206 TxDA 10 PD1/TXD PC5 24 PCM5 0R B 12pF TRST 11 23 PCM4 B PD2/INT0 B A PC4 + C214 V12P7 T C C P C C211
in „STK500 reparieren“ · Mikrocontroller und Digitale Elektronik ·
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Datei
avr.h
at90s4414:crts4414.o%s} \ %{mmcu=at90s4434:crts4434.o%s} \ %{mmcu=at90c8534:crtc8534.o%s} \ %{mmcu=at90s8535:crts8535.o%s} \ %{mmcu=at86rf401:crt86401.o%s} \ %{mmcu=attiny13:crttn13.o%s} \ %{mmcu=attiny2313:crttn2313.o%s} \ %{mmcu=attiny24:crttn24.o%s} \ %{mmcu=attiny44:crttn44.o%s} \ %{mmcu=attiny84:crttn84
in „ATtiny24 - ISR wird nie gerufen __vectors> fehlt“ · Mikrocontroller und Digitale Elektronik ·
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PDF
doc2521.pdf
reefer to the datasheet to assure whether the device has internal capacitors or not. Note that AT90S8535, Atmega163 and Atmega103 do not have the CKOPT-fuse; instead they have dedicated pins (TOSC1-TOSC2), to connect the 32.768 kHz watch crystal to. Using the clock option that selects “ext. ceramic
in „ATmega8: Das Buch“ · Mikrocontroller und Digitale Elektronik ·
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PDF
avr-libc-user-manual-1.8.0.pdf
at90s2323 • at90s2333 • at90s2343 • at90s4414 • at90s4433 • at90s4434 • at90s8515 • at90c8534 • at90s8535 Note [1] Assembly only. There is no direct support for these devices to be programmed in C since they do not have a RAM based stack. Still, it could be possible to program them in C, see the FAQ
in „Interrupt Probleme beim Arduino“ · Mikrocontroller und Digitale Elektronik ·
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Datei
fcntl.lst
GAS LISTING c:\windows\TEMP\ccTDIigb.s page 1 1 .file "fcntl.c" 2 .arch at90s8535 3 __SREG__ = 0x3f 4 __SP_H__ = 0x3e 5 __SP_L__ = 0x3d 6 __tmp_reg__ = 0 7 __zero_reg__ = 1 8 _PC_ = 2 9 .stabs "D:\\Projects\\miconox/",100,0,0,.Ltext0 10 .stabs "fcntl.c",100,0,0,.Ltext0 11 .text
in „Compiler-Fehler?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVR911.pdf
ATtiny15, ATtiny26, ATtiny2313, AT90S1200, AT90S2313, AT90S2323/2343, AT90S4433, AT90S8515 and AT90S8535. The bootloader module of AVROSP supports all devices with bootloader capabilities. Note: ATtiny11 and ATtiny28 do not support ISP or bootloader programming, and are not supported by AVROSP. The
in „AVR911: Das Ende aller Leiden?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
top2008.pdf
AT89S58, AT89S64, AT90S1200, AT90S2313, AT90S4414, AT90LS4414, AT90S8515, AT90LS8515, AT90S4434, AT90S8535, AT90LS8535, AT90S4434, AT90LS4434, AT90S2333, AT90S4433, ATTINY11(Hi), ATTINY12(Hi), ATTINY13(Serial), ATTINY15L(Hi), ATTINY25, ATTINY26, ATTINY26L, ATTINY28L, ATTINY28V, ATTINY2313(DIP20), ATTINY2313V
in „[V] Top 853 Universal Programmer + 74er Tester“ · Markt ·
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PDF
AVR-C-Tutorial.pdf
beginnen mit einem Doppelkreuz ... # ATmega8 at work MCU = atmega8 # oder MCU = atmega16 # oder MCU = at90s8535 # oder ... ... Quellcode-Dateien einstellen Den Namen der Quellcodedatei welche die Funktion main enthält, wird hinter TARGET eingetragen. Dies jedoch ohne die Endung .c. ... TARGET = superprog .
in „AVR-C-Tutorial“ · Mikrocontroller und Digitale Elektronik ·
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PDF
DOC1619.PDF
drop. Generally, the AVR devices where power and ground lines are placed close together (like the AT90S8535) will get better decoupling than devices with industry standard pinout (like the AT90S8515), where the power and ground pins are placed in opposite corners of the DIP package. This disadvantage can
in „Spannungsstabilisierung/Entstörung“ · Analoge Elektronik und Schaltungstechnik ·
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PDF
DOC1619_EMC_Design_Considerations.PDF
drop. Generally, the AVR devices where power and ground lines are placed close together (like the AT90S8535) will get better decoupling than devices with industry standard pinout (like the AT90S8515), where the power and ground pins are placed in opposite corners of the DIP package. This disadvantage can
in „[Atmega8] Überempfindliche störanfälle Schaltung“ · Mikrocontroller und Digitale Elektronik ·
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PDF
DOC1619.PDF
drop. Generally, the AVR devices where power and ground lines are placed close together (like the AT90S8535) will get better decoupling than devices with industry standard pinout (like the AT90S8515), where the power and ground pins are placed in opposite corners of the DIP package. This disadvantage can
in „Attiny im Dauerbetrieb“ · Mikrocontroller und Digitale Elektronik ·
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PDF
DOC1619.PDF
drop. Generally, the AVR devices where power and ground lines are placed close together (like the AT90S8535) will get better decoupling than devices with industry standard pinout (like the AT90S8515), where the power and ground pins are placed in opposite corners of the DIP package. This disadvantage can
in „ATtiny 13 und 45 habens Programm vergessen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVR040_EMC_Design_Considerations.pdf
drop. Generally, the AVR devices where power and ground lines are placed close together (like the AT90S8535) will get better decoupling than devices with industry standard pinout (like the AT90S8515), where the power and ground pins are placed in opposite corners of the DIP package. This disadvantage can
in „Anfängerfrage: Wofür Kondensatoren“ · Mikrocontroller und Digitale Elektronik ·
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PDF
EMC_Design_Consideration_AVR_doc1619.pdf
drop. Generally, the AVR devices where power and ground lines are placed close together (like the AT90S8535) will get better decoupling than devices with industry standard pinout (like the AT90S8515), where the power and ground pins are placed in opposite corners of the DIP package. This disadvantage can
in „Servo Ansteuerung mit ATMega128“ · Mikrocontroller und Digitale Elektronik ·
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Datei
avr_sim_deviceu.pas
{36 } '*PA3 ADC3'+ {37 } '*PA2 ADC2'+ {38 } '*PA1 ADC1'+ {39 } '*PA0 ADC0'+ {40 } '*VCC', {46}'AT90S8535'+ { 1 } '*PB0 T0'+ { 2 } '*PB1 T1'+ { 3 } '*PB2 AIN0'+ { 4 } '*PB3 AIN1'+ { 5 } '*PB4 SS'+ { 6 } '*PB5 MOSI'+ { 7 } '*PB6 MISO'+ { 8 } '*PB7 USCK'+ { 9 } '*RESET'+ {10 } '*VCC'+ {11 } '*GND'+ {12
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Datei
device2007.txt
AT89S58, AT89S64, AT90S1200, AT90S2313, AT90S4414, AT90LS4414, AT90S8515, AT90LS8515, AT90S4434, AT90S8535, AT90LS8535, AT90S4434, AT90LS4434, AT90S2333, AT90S4433, ATTINY11, ATTINY12, ATTINY15L, ATTINY26, ATTINY26L, ATTINY28L, ATTINY28V, ATTINY2313, ATTINY2313V, ATMEGA8, ATMEGA8L, ATMEGA16, ATMEGA16L
in „24C04 beschreiben und auslesen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVRDUDE-doc-5.5.pdf
2333 AT90S2333 2343 AT90S2343 (*) 4414 AT90S4414 4433 AT90S4433 4434 AT90S4434 8515 AT90S8515 8535 AT90S8535 m103 ATmega103 m128 ATmega128 m1280 ATmega1280 m1281 ATmega1281 m16 ATmega16 m161 ATmega161 m162 ATmega162 m163 ATmega163 m164 ATmega164 m169 ATmega169 m2560 ATmega2560 (**) m2561 ATmega2561 (**)
in „USB-ISP PRogrammer unter Ubuntu“ · PC Hard- und Software ·
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Datei
avr910.asm
0xFF ;AT90S2343A .db 0x51 ,0xFF ;tn10 .db 0x55 ,0xFF ;tn12 .db 0x56 ,0xFF ;tn15 .db 0x68 ,0xFF ;AT90S8535 .db 0x6c ,0xFF ;AT90S4434 .db 0x86 ,0xFF ;AT89S8252 bug in avrprog in Block write Mode!(See Note 18 for Workaround) .db 0x87 ,0xFF ;AT89S53 bug in avrprog .dw 0 ;End of table Dev_M: ; Devices which
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PDF
AtmelCprogramming.pdf
müssen wir auf einen AVR mit eingebautem(n) ADC-Wandler zurückgreifen. Wir wollen hier einmal den AT90S8535 besprechen, welcher über 8 ADC-Kanäle verfügt. Die Umwandlung innerhalb des AVR basiert auf der Schrittweisen Näherung. Beim AVR müssen die Pins AGND und AVCC beschaltet werden mit 0V bzw. Vcc. Warum
in „ATmega 8 und ohmisch messen“ · Mikrocontroller und Digitale Elektronik ·
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PDF
Atmel.pdf
müssen wir auf einen AVR mit eingebautem(n) ADC-Wandler zurückgreifen. Wir wollen hier einmal den AT90S8535 besprechen, welcher über 8 ADC-Kanäle verfügt. Die Umwandlung innerhalb des AVR basiert auf der Schrittweisen Näherung. Beim AVR müssen die Pins AGND und AVCC beschaltet werden mit 0V bzw. Vcc. Warum
in „RS232 direkt Anbindung“ · Mikrocontroller und Digitale Elektronik ·
-
PDF
AtmelCprogramming.pdf
müssen wir auf einen AVR mit eingebautem(n) ADC-Wandler zurückgreifen. Wir wollen hier einmal den AT90S8535 besprechen, welcher über 8 ADC-Kanäle verfügt. Die Umwandlung innerhalb des AVR basiert auf der Schrittweisen Näherung. Beim AVR müssen die Pins AGND und AVCC beschaltet werden mit 0V bzw. Vcc. Warum
in „Suche gute möglichst Deutsche Doku zum C für AVR zu lernen“ · Mikrocontroller und Digitale Elektronik ·
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Datei
avr910.asm
0xFF ;AT90S2343A .db 0x51 ,0xFF ;tn10 .db 0x55 ,0xFF ;tn12 .db 0x56 ,0xFF ;tn15 .db 0x68 ,0xFF ;AT90S8535 .db 0x6c ,0xFF ;AT90S4434 .db 0x86 ,0xFF ;AT89S8252 bug in avrprog in Block write Mode!(See Note 18 for Workaround) .db 0x87 ,0xFF ;AT89S53 bug in avrprog .dw 0 ;End of table Dev_M: ; Devices which
-
PDF
AtmelCprogramming.pdf
müssen wir auf einen AVR mit eingebautem(n) ADC-Wandler zurückgreifen. Wir wollen hier einmal den AT90S8535 besprechen, welcher über 8 ADC-Kanäle verfügt. Die Umwandlung innerhalb des AVR basiert auf der Schrittweisen Näherung. Beim AVR müssen die Pins AGND und AVCC beschaltet werden mit 0V bzw. Vcc. Warum
in „Tutorial mit sämtlichen Registererklärungen“ · Mikrocontroller und Digitale Elektronik ·