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Schaltplan mit AT90CAN28 Mikrocontroller
T0 bis T3 ADC0 bis ADC7 PB0 bis PB5 R0 bis R7 REMOTELEITUNG Radio Amp 1 Amp 2 Q2 Q3 Q4 C13 C14 C15 AT90CAN28 U1 TJD CANH CANL RS VREF MCP2515 U2 C1+ C1- V+ C2+ C2- T1N T1OUT R1OUT R2IN MAX232 RS232
in „Hilfe bei Schaltung“ · Mikrocontroller und Digitale Elektronik · · Schaltpläne
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Schaltplan eines AT90CAN128-16AI Mikrocontrollers
U1 AT90CAN128-16AI, VCC_2, VCC, GND_2, GND, AVCC, AGND, AREF, RESET, XTAL2, XTAL1, PG0_(WR), PG1, PG2_(ALE), PG3, PG4, PF7_(ADC7_TDI), PF6_(ADC6_TDO), PF5_(ADC5_TMS), PF4_(ADC4_TCK), PF3_(ADC3), PF2_(ADC2)
in „SPI Kommunikation zwischen AT90CAN und ATmega16 (AVR)“ · Mikrocontroller und Digitale Elektronik · · Schaltpläne
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Datei
at90can.h
#ifndef __CAN_H__ #define __CAN_H__ #define ONLY_NON_RTR 2 #define ONLY_RTR 3 #define CAN_DDR DDRD #define CAN_RX 6 #define CAN_TX 5 typedef enum { BITRATE_10_KBPS = 0, // ungetestet BITRATE_20_KBPS = 1, // ungetestet BITRATE_50_KBPS = 2, // ungetestet BITRATE_100_KBPS = 3, // ungetestet BITRATE_125_KBPS = 4, BITRATE_250_KBPS = 5, // ungetestet BITRATE_500_KBPS = 6, // ungetestet BITRATE_1_MBPS = 7, // ungetestet } CanBitrate_t; typedef enum { LISTEN_ONLY_MODE, //!< der CAN Contoller empfängt nur und verhält sich völlig passiv LOOPBACK_MODE, //!< alle Nachrichten direkt auf die Empfangsregister
in „AT90CAN128 - nicht definiertes Verhalten“ · Mikrocontroller und Digitale Elektronik ·
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Datei
at90can.c
#include <avr/interrupt.h> #include <avr/pgmspace.h> #include <util/delay.h> #include "../Includes/at90can.h" #include "../Includes/RingBuffer.h" //CAN speed-settings for 16MHz const uint8_t at90can_cnf[8][3] = { // 10 kbps { 0x7E, 0x6E, 0x7F }, // 20 kbps { 0x62, 0x0C, 0x37 }, // 50 kbps { 0x26, 0x0C
in „AT90CAN128 - nicht definiertes Verhalten“ · Mikrocontroller und Digitale Elektronik ·
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Datei
AT90CAN64.c
#include <avr/io.h> #include <stdint.h> #include <avr/interrupt.h> #include "config.h" #include "can.h" void InitPort(void); void TogglePin(void); void Delay(uint16_t); int main(void) { InitPort(); // initialisieren can_init(BITRATE_500_KBPS); // sei(); // erzeuge eine Testnachricht can_t msg; msg.id = 0x10; msg.flags.rtr = 0; msg.flags.extended = 0; msg.length = 4; msg.data[0] = 0xde; msg.data[1] = 0xad; msg.data[2] = 0xbe; msg.data[3] = 0xef; // Nachricht verschicken can_send_message(&msg); while (1) { TogglePin(); Delay(65000); } } void InitPort(void) { // PORTB // PB sind Ausgang DDRB = 0xFF
in „STK600 + AT90CAN64 - Can Probleme“ · Mikrocontroller und Digitale Elektronik ·
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AT90CAN128.pdf
Voltages: 2.7 - 5.5V • Operating temperature: Industrial (-40°C to +85°C) • Maximum Frequency: 8 MHz at 2.7V, 16 MHz at 4.5V Rev. 7679D–CAN–02/07 Note: 1. Details on section 19.4.3 on page 253. 1 1. Description 1.1 Comparison Between AT90CAN32, AT90CAN64 and AT90CAN128 AT90CAN32, AT90CAN64 and AT90CAN128
in „Umrechnen von analog to digital“ · Mikrocontroller und Digitale Elektronik ·
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AT90CAN128.pdf
Voltages: 2.7 - 5.5V • Operating temperature: Industrial (-40°C to +85°C) • Maximum Frequency: 8 MHz at 2.7V, 16 MHz at 4.5V Rev. 7679H–CAN–08/08 Note: 1. Details on section 19.4.3 on page 242. 1. Description 1.1 Comparison Between AT90CAN32, AT90CAN64 and AT90CAN128 AT90CAN32, AT90CAN64 and AT90CAN128
in „uC + 3 Schieberegister + 7-Segmentanzeige“ · Mikrocontroller und Digitale Elektronik ·
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Datei
usart_at90can128.c
/***************************************************** Project : usart_at90can128 Comments: Versuch Chip type : AT90CAN128 Clock frequency : 16,000000 MHz *****************************************************/ #include <90can128.h> // Alphanumeric LCD Module functions #asm
in „USART0 - Programmierung bei AT90CAN128“ · Mikrocontroller und Digitale Elektronik ·
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Datei
AT90CAN128_Test.asm
;############################################################################# ;# # ;# Erstes Lebenszeichen des CAN Anwendung # ;# # ;# 2007-08-30 # ;# # ;############################################################################# ; ***AUTOR: Jörg Seemann*** ;///////////////////////// .include "can128def.inc";/ ;///////////////////////// ; Interupt-Sprungadressen: ;____________________________________________________________________________ .org 0x0000; Sprungadresse nach Reset-Interupt ] rjmp STACK; ] ; ] .org CANITaddr; Sprungadresse bei Timer0-Interupt ] rjmp CAN_RX; ] ;_____________________________
in „AT90CAN128 - CAN RX Interrupt?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
MigrationDiff.pdf
Migrating from Atmel C51/CAN: T89C51CC01, AT89C51CC03 To Atmel AVR/CAN: AT90CAN128, CAN, 80C51, AT90CAN64, AT90CAN32 AVR, Microcontroller Introduction This application note is a guide, on the CAN controller, to help current T89C51CC01, AT89C51CC03 users convert existing designs to AT90CAN128, AT90CAN64, AT90CAN32. The CAN controller used in T89C51CC01/AT89C51CC03 and the CAN ApplicationNote controller used in AT90CAN128 are almost identical
in „Migration von AT89C51CC03 nach AT90CAN128 - wie?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
fixSTK500.pdf
remove the AT90S1200 from the circuit. If you are able to get the AT90S1200 communicating, try loading the code called STK500_AT90S1200.hex into the AT90S1200, and see if you can get AVRProg to communicate with the
in „STK500 getötet?“ · Mikrocontroller und Digitale Elektronik ·
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mega128-can128.pdf
AVR096: Migrating from ATmega128 to AT90CAN128 This application note is a guide to help current ATmega128 users convert existing designs to AT90CAN128. The information given will also help users migrating from any ATmega microcontroller to AT90CAN128. Additionally, the electrical characteris- tics of the AT90CAN128 are different than those of ATmega128. Check the datasheets of both of these products for detailed information. 8-bit Features
in „AtMega128 - At90Can128“ · Mikrocontroller und Digitale Elektronik ·
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Datei
TimerPrescalersSorted.txt
AT86RF401.xml:16: <CORE_VERSION>V2</CORE_VERSION> AT90CAN128.xml:11754: <TIMER0> AT90CAN128.xml:11762: <Prescaler>1:8:64:256:1024</Prescaler> AT90CAN128.xml:11764: <TIMER1> AT90CAN128.xml:11782: <TIMER2
in „Timer Vorteiler Werte Definition“ · Mikrocontroller und Digitale Elektronik ·
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Telit_Easy_GPRS_User__Guide_r9.pdf
our system. With our microcontroller we can now issue to the Telit module the following AT commands: Reproduction forbidden without Telit Communications S.p.A. written authorization - Apage 64 of 90erved Easy GPRS User Guide 80000ST10028 r9,
in „Probleme mit AT-Befehlen für GPRS Datenübertragung TELIT 864“ · Mikrocontroller und Digitale Elektronik ·
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PDF
90s1200.pdf
Oscillator as the clock source when programmed (“0”). The AT90S1200 is normally shipped with this bit unprogrammed (“1”). Parts with this bit programmed can be ordered as AT90S1200A. The RCEN-bit can be changed by parallel programming only. When using the On-chip
in „Unterschied zwischen einzelnen avr´s“ · Mikrocontroller und Digitale Elektronik ·
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avr-libc-user-manual-1.8.0.pdf
, AT90S4414, AT90S4433, A- T_vect CAPTURE1 Capture Event T90S4434, AT90S8515, AT90S8535, AT90- PWM216, AT90PWM2B, AT90PWM316, - AT90PWM3B, AT90PWM3, AT90PWM2, - AT90PWM1, AT90CAN128, AT90CAN32, - AT90CAN64
in „Interrupt Probleme beim Arduino“ · Mikrocontroller und Digitale Elektronik ·
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ATT5FCA9.pdf
STK501 ATmega325 STK502 ATmega8535 ATtiny2313 AT90S2343 ATmega1280 STK503 ATmega329 STK502 AT90CAN32 STK501 ATtiny2STK504 AT90S4414 ATmega1281 STK501 ATmega406 ATAVRSB10AT90CAN64 STK501 ATtiny25 AT90S4433 ATmega161 ATmega640 STK503 AT90CAN128 STK501
in „Angebot STK500+STK501+JTAGICE“ · Mikrocontroller und Digitale Elektronik ·
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Datei
x.txt
addressing mode for X. -mtiny-stack Change only the low 8 bits of the stack pointer Known MCU names: at43usb320 at43usb355 at76c711 at86rf401 at90c8534 at90can128 at90can32 at90can64 at90pwm1 at90pwm161 at90pwm2 at90pwm216 at90pwm2b at90pwm3 at90pwm316 at90pwm3b at90pwm81 at90s1200 at90s2313 at90s2323
in „Eclipse (mars) und AVR -- Fehlermeldungen“ · Mikrocontroller und Digitale Elektronik ·
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at90can-v1.1.pdf
OC3B/INT4 6 USBIF PA4/AD4 47 AD4 PD4/ICP1 29 UART1 PE3/OC3A/AIN1 5 PA5/AD5 46 AD5 PD5/TXCAN/XCK1 30 CAN0TX PE2/XCK0/AIN0 4 PA6/AD6 45 AD6 PD6/RXCAN/T1 31 CAN0RX PE1/TXD0/PDO 3 PA7/AD7 44 AD7 PD7/T0 32 SJA_RST PE0/RXD0/PDI 2 UART0 PC0/A8 35 A8 36 A9 AT90CAN128-TQFP IC2PE/UART0 PC1/A9 37 A10 PC2/A10 38
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doc7707.pdf
, and the system clock can be divided by set- ting the “Clock Prescale Register – CLKPR” on page 35. This feature can be used to decrease 34 AT90USB82/162 7707F–AVR–11/10 AT90USB82/162 the system clock frequency and the power
in „AVR (AT90USB162) - Sleep Mode und PCINT“ · Mikrocontroller und Digitale Elektronik ·
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avrdude.pdf
c32 AT90CAN32 c64 AT90CAN64 pwm2 AT90PWM2 pwm2b AT90PWM2B pwm3 AT90PWM3 pwm316 AT90PWM316 pwm3b AT90PWM3B 1200 AT90S1200 (****) 2313 AT90S2313 2333 AT90S2333 2343 AT90S2343 (*) 4414 AT90S4414 4433 AT90S4433
in „AVRDude als Tool in AVR Studio 4 einbinden“ · Mikrocontroller und Digitale Elektronik ·
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AT90PWM2_2B_3_3B__2_.pdf
compare match event will also set the Compare Match Flag (OCFnx) which can be used to generate an Output Compare interrupt request. 104 AT90PWM2/3/2B/3B 4317I–AVR–01/08 AT90PWM2/3/2B/3B The Input Capture Register can capture the Timer/Counter value at a given external (edge
in „Interrupt bem Flankenwechsel beim AVR“ · Mikrocontroller und Digitale Elektronik ·
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PDF
at90pwm3.pdf
compare match event will also set the Compare Match Flag (OCFnx) which can be used to generate an Output Compare interrupt request. 104 AT90PWM2/3/2B/3B 4317I–AVR–01/08 AT90PWM2/3/2B/3B The Input Capture Register can capture the Timer/Counter value at a given external (edge
in „Schrittmotorsteuerung mir 90atPWM3“ · Mikrocontroller und Digitale Elektronik ·
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PDF
at90s2313-datasheet-atmel.pdf
the T-bit as source and destination for the operated bit. A bit from a register in the Register File can be cop- ied into T by the BST instruction, and a bit in T can be copied into a bit in a register in the Register File by the BLD instruction. 16 AT90S2313 0839I–AVR–06/02 AT90S2313 Bit 5 – H: Half-carry
in „AVR Studio 4.19“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AT90S2313_Datasheet.pdf
the T-bit as source and destination for the operated bit. A bit from a register in the Register File can be cop- ied into T by the BST instruction, and a bit in T can be copied into a bit in a register in the Register File by the BLD instruction. 16 AT90S2313 0839I–AVR–06/02 AT90S2313 Bit 5 – H: Half-carry
in „Fragen zum Sleep Mode“ · Mikrocontroller und Digitale Elektronik ·
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ISP_DOC0943.pdf
devices Table 5. Part Number Identification Examples Part Family and Flash Size Part Number Part $90 $01 AT90S1200 $91 $01 AT90S2313 $92 $01 AT90S4414 $93 $01 AT90S8515 $FF $FF Device Code Erased (or Target Missing) $01 $02 Device Locked Table 6. Example, Reading the Device Code from an AT90S1200, code
in „ISP Adapter für Atmel über RS232“ · Mikrocontroller und Digitale Elektronik ·
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AVR_ISP.pdf
devices Table 5. Part Number Identification Examples Part Family and Flash Size Part Number Part $90 $01 AT90S1200 $91 $01 AT90S2313 $92 $01 AT90S4414 $93 $01 AT90S8515 $FF $FF Device Code Erased (or Target Missing) $01 $02 Device Locked Table 6. Example, Reading the Device Code from an AT90S1200, code
in „ATMEGA 2560“ · Mikrocontroller und Digitale Elektronik ·
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PDF
ISP_Programmerdoc0943.pdf
devices Table 5. Part Number Identification Examples Part Family and Flash Size Part Number Part $90 $01 AT90S1200 $91 $01 AT90S2313 $92 $01 AT90S4414 $93 $01 AT90S8515 $FF $FF Device Code Erased (or Target Missing) $01 $02 Device Locked Table 6. Example, Reading the Device Code from an AT90S1200, code
in „RS232 <--> RS485“ · Mikrocontroller und Digitale Elektronik ·
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ISP-adapter.pdf
devices Table 5. Part Number Identification Examples Part Family and Flash Size Part Number Part $90 $01 AT90S1200 $91 $01 AT90S2313 $92 $01 AT90S4414 $93 $01 AT90S8515 $FF $FF Device Code Erased (or Target Missing) $01 $02 Device Locked Table 6. Example, Reading the Device Code from an AT90S1200, code
in „ISP Programmer mit max232“ · Mikrocontroller und Digitale Elektronik ·
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doc1925.pdf
the following devices in all speed grades: n ATtiny11 n AT90S4433 n ATtiny12 n AT90S4434 n ATtiny15 n AT90S8515 n ATtiny22 n AT90S8535 n ATtiny28 n ATmega8 n AT90S1200 n ATmega16 n AT90S2313 n ATmega161 n AT90S2323 n ATmega163 n AT90S2333 n ATmega323 (1) n AT90S2343
in „STK500 als ISP“ · Mikrocontroller und Digitale Elektronik ·
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stk500.pdf
the following devices in all speed grades: n ATtiny11 n AT90S4433 n ATtiny12 n AT90S4434 n ATtiny15 n AT90S8515 n ATtiny22 n AT90S8535 n ATtiny28 n ATmega8 n AT90S1200 n ATmega16 n AT90S2313 n ATmega161 n AT90S2323 n ATmega163 n AT90S2333 n ATmega323 (1) n AT90S2343
in „STK500 mit Breadboard“ · Mikrocontroller und Digitale Elektronik ·
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avr8-gnu-toolchain-3.4.0.663-readme.pdf
atmega6490 atmega6490a atmega6490a atmega64a atmega64c1 atmega64m1 atmega64hve atmega32hvb atmega32hvbrevb at90can64 at90pwm216 at90pwm316 atmega16c1 atmega32c1 atmega16m1 atmega32m1 6 AVR 8-bit GNU Toolchain AVR 8-bit GNU Toolchain atmega16u4 atmega32u4 at90scr100 at90usb646 at90usb647 at94k m3000 atmega128a atmega1280 atmega1281 atmega1284 atmega1284p atmega128rfa1 at90can128 at90usb1287 atmega2560 atmega2561 atxmega16a4 atxmega16a4u atxmega16d4 atxmega32a4 atxmega32a4u atxmega32d4 atxmega32x1 atxmega64a3 atxmega64a3u atxmega64d3 atxmega64a1u atxmega64a4u atxmega64b1
in „ATtiny10 ISR TIM0_COMPB_vect“ · Mikrocontroller und Digitale Elektronik ·
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STK200.pdf
Board with AVR device ATtiny26 NAVRISP Parallel Port Programmer Programming lead, LED and Socket leads AT90S1200 On CD: Programming software AT90S2313 Application Builder AT90S2323 AT90S2343 User Manual Code Examples AT90S2333 Board schematics AT90S4414 Device datasheets AT90S4433 Atmel AVR Studio3 and 4
in „Wer kennt dieses AVR-Board?“ · Mikrocontroller und Digitale Elektronik ·
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doc7593.pdf
Extended I/O memory and the next 4,096/8,192 locations address the internal data SRAM. 20 ATmega32U6/AT90USB64/128 7593J–AVR–03/09 ATmega32U6/AT90USB64/128 An optional external data SRAM can be used with the ATmega32U6/AT90USB64/128. This SRAM will occupy an area in the remaining address locations in the
in „Problem mit dem TC4469“ · Mikrocontroller und Digitale Elektronik ·
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PhaseShift_AD8302.pdf
both produce an output of 1.5. So if all you know is that the output is 1.5, you know the phase is at point A or B, but you can’t tell which. Resolving the Sign of the Angle by Making a Shift Now suppose you shift the reference phase by -90 degrees, which has the effect of increasing the measured phase
in „Endstufe für schwankende Lastimpedanz“ · Analoge Elektronik und Schaltungstechnik ·
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doc7627.pdf
AT90USBKey The NTC thermistor used in AT90USBKey has a resistance of 100 KΩ ±5% at 25°C (T 0) and a beta-value of 4250 ±3%. By the use of the following equation, the temperature (T) can be calculated: β
in „Problem mit dem TC4469“ · Mikrocontroller und Digitale Elektronik ·
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applsci-08-01825-v2.pdf
, 2 30 30 S2 10 0.5, 1, 2 30 50 S3 10 0.5, 1, 2 30 90 S4 20 1 30 30 S5 20 1 30 50 S6 20 1 30 90 S7 50 1 30 50 S8 50 1 30 90 The benefit of using the synthetic drive cases is that they can provide very distinct and clear results. However, they are of course
in „Pedelec: Akku und Controller verklebt - ist das rechtens ?“ · Fahrzeugelektronik ·
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AN-1148.pdf
below the pole (or zero) frequency. 10123911 NOTE: a single pole can add only −90˚ of total phase shift, FIGURE 11. BODE PLOT WITH PHASE INFO so at least two poles are needed to reach −180˚ (which is where instability can occur). The zero at 1 kHz changes the slope back
in „PIC, Platine, geht das so?“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AN-1148.pdf
below the pole (or zero) frequency. 10123911 NOTE: a single pole can add only −90˚ of total phase shift, FIGURE 11. BODE PLOT WITH PHASE INFO so at least two poles are needed to reach −180˚ (which is where instability can occur). The zero at 1 kHz changes the slope back
in „AC-Störung auf +15Vdc“ · Mikrocontroller und Digitale Elektronik ·
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PDF
at49f1024.pdf
V VOH2 Output High Voltage CMOS OH = -100 A; V CC= 4.5V 4.2 V Note: 1. In the erase mode, I CC is 90 mA. 5 AC Read Characteristics AT49F1024-45 AT49F1024-55 AT49F1024-70 AT49F1024-90 AT49F1025-45 AT49F1025-55 AT49F1025-70 AT49F1025-90 Symbol Parameter Min Max Min Max Min Max Min Max Units tACC Address
in „Atmel Programmiersoftware“ · Mikrocontroller und Digitale Elektronik ·
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atmel-flash-speicher.pdf
V V OH2 Output High Voltage CMOS IOH = -100 µA; VCC= 4.5V 4.2 V Note: 1. In the erase mode, CC is 90 mA. 4 AT49F512 AT49F512 AC Read Characteristics AT49F512-50 AT49F512-70 AT49F512-90 Symbol Parameter Min Max Min Max Min Max Units tACC Address to Output Delay 50 70 90 ns tCE(1) CE to Output Delay 50
in „Speicher für Messwerte“ · Mikrocontroller und Digitale Elektronik ·
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doc4298.pdf
control bits have changed names, but have the same functionality and placement when accessed as in AT90S2313. These AT90S1200 bit definitions can therefore be added to the ATtiny2313 definitions file, so no rewriting of the application code is necessary. Table 1. Changed Bit Names Bit Name in AT90S2313
in „tiny2313-90S2313“ · Mikrocontroller und Digitale Elektronik ·
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AVR450_BattCharger.pdf
at the testpoint marked “V ” The LED marked “5V OK” indicates power on. CC PC Interface Connected to the UART interface on the AT90S4433. Can be used to interface PC for logging battery data during charging
in „Pb-Akku Ladegerät mit µP Selbstgemacht“ · Mikrocontroller und Digitale Elektronik ·
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Datei
AVRootloader.asm
; copyright HR .nolist ; supported devices ;.include "can128def.inc" ; AT90CAN128 ;.include "can32def.inc" ; AT90CAN32 ;.include "can64def.inc" ; AT90CAN64 ;.include "m1280def.inc" ; ATmega1280 ;.include "m1281def.inc" ; ATmega1281 ;.include "m1284Pdef.inc
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Datei
dumpspecs1.txt
-m avr2}%{mmcu=atmega103|mmcu=atmega603|mmcu=at43*|mmcu=at76*:-m avr3}%{mmcu=atmega8*|mmcu=atmega48:-m avr4}%{mmcu=atmega16*|mmcu=atmega32*|mmcu=atmega64*|mmcu=atmega128|mmcu=at90can128|mmcu=at94k:-m avr5}%{mmcu=atmega325|mmcu=atmega3250|mmcu=atmega48|mmcu=atmega88|mmcu=atmega64|mmcu=atmega645|mmcu=atmega6450|mmcu=atmega128|mmcu=at90can128|mmcu=at90can128|mmcu=atmega162|mmcu=atmega165|mmcu=atmega168|mmcu=atmega169: -Tdata 0x800100} *lib: %{!mmcu=at90s1*:%{!mmcu=attiny11:%{!mmcu=attiny12:%{!mmcu=attiny15:%{!mmcu=attiny28: -lc }}
in „ATtiny24 - ISR wird nie gerufen __vectors> fehlt“ · Mikrocontroller und Digitale Elektronik ·
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PDF
AVR042_Hardware_Design_Considerations_doc2521.pdf
GND Ground Plane The AVR devices which have power and ground lines placed close together (like the AT90S8535) can be better decoupled 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 „Atmega 8A PU“ · Mikrocontroller und Digitale Elektronik ·
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Datei
AVRootloader.asm
; copyright HR .nolist ; supported devices ;.include "can128def.inc" ; AT90CAN128 ;.include "can32def.inc" ; AT90CAN32 ;.include "can64def.inc" ; AT90CAN64 ;.include "m1280def.inc" ; ATmega1280 ;.include "m1281def.inc" ; ATmega1281 ;.include "m1284Pdef.inc
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Datei
AVRootloader.asm
; copyright HR .nolist ; supported devices ;.include "can128def.inc" ; AT90CAN128 ;.include "can32def.inc" ; AT90CAN32 ;.include "can64def.inc" ; AT90CAN64 ;.include "m1280def.inc" ; ATmega1280 ;.include "m1281def.inc" ; ATmega1281 ;.include "m1284Pdef.inc
in „Bootloader von Hagen - Port toggeln während des Flashens“ · Mikrocontroller und Digitale Elektronik ·
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PDF
7790-Manual-Rev05.pdf
FREQ or PERIOD . The start MODIFY, the RANGE ▲ / keys and the phase is fixed at 0° if thPHASE key is inactive. CURSOR ◄ key after pressing the corresponding The start phase can be varied between −90° and key STOP , START , MODE or PERIOD . It is addi- +90° using the START PHASE
in „[V] Toellner TOE7711A Synthesizer Funktionsgenerator“ · Markt ·
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at29c010.pdf
Ordering Information t ICC(mA) ACC (ns) Active Standby Ordering Code Package Operation Range 70 50 0.1 AT29C010A-70JC 32J Commercial AT29C010A-70PC 32P6 (0° to 70°C) AT29C010A-70TC 32T 90 50 0.1 AT29C010A-90JC 32J Commercial AT29C010A-90PC 32P6 (0° to 70°C) AT29C010A-90TC 32T 50 0.3 AT29C010A-90JI 32J Industrial AT29C010A-90PI 32P6 (-40° to 85°C) AT29C010A-90TI 32T 120 50 0.1 AT29C010A-12JC 32J Commercial AT29C010A-12PC 32P6 (0° to 70°C) AT29C010A-12TC 32T 50 0.3 AT29C010A-12JI 32J Industrial AT29C010A-12PI 32P6
in „Beschaltung AT29C010 /Pulldowns?“ · Mikrocontroller und Digitale Elektronik ·
