c ) TJ= 25°C t ( i t e e TJ= 150°C R 1.5 r n u O C c d c u e u 1 o l1.0 o - a - - o t i N n r ( a D r , 0.5 , n D ( I V = 10V D DS R 0.1 20µs PULSE WIDTH▯ 0.0 VGS = 10V▯ A 3.0 3.5 4.0 4.5 5.0 5.5 6.0 6.5A
to Figure 18-3 for load conditions. DS30487C-page 186 2005 Microchip Technology Inc. PIC16F87/88 2 TABLE 18-9: I C™ BUS START/STOP BITS REQUIREMENTS Param Symbol Characteristic Min Typ Max Units Conditions No. 90* TSUSTA Start Condition
to 3.0V Input Rise/Fall Time < 5 nS Input/Output Timing Level 1.5V/1.5V Output Load 1 TTL Gate and C = 100 pF for 120 nS; C = 30 pF for 70 nS /90 nS AC Test Load and Waveform +5V 1.ΩK DOUT 30 pF for 70nS / 90nS 100 pF for 120nS (Including Jig and Scope) 1.ΩK Input Output 3V 1.5V 1.5V 0V Test Point Test
Stück 44,00 621714 Andruckroller,für MicrosealA und B 1 Stück 74,00 621715 MicrosealA Film 50 Filme 90,00 621717 Microseal P Sealing Pad, für Power Bonnets (ALP-1296, ALP-1238) 10 Pads 114,00 621718 Microseal F Folie, Dichtfolie,Temperaturbereich -20 bis 100°C 100 Folien 102,00 621719 Microseal BAdhesive
0.537 72.2 2.573 –54.3 0.110 –40.1 0.343 95.9 18000.0000 0.546 64.7 2.400 –59.4 0.106 –41.6 0.347 90.6 Data Sheet P14067EJ2V0DS00 5 NE3210S01 AMPLIFIER PARAMETERS V DS= 2 V, I = 10 mA FREQUENCY GUmax GAmax S21| |S122 K Delay Mason’s U G1 G2 MHz dB dB dB dB nsec dB dB dB 2000.0000 27.26 12.97 –33.03
C ds SHORTED ) V DS =-10V 1000 C = C ( rss gd e 8 Coss = Cds Cgd a F Ciss o ( 800 V c e 6 n r i 600 o a - a t 4 C t C 400 a Coss , Crss S 200 G 2 - 0 0 1 10 100 0 4 8 12 16 V , Drain-to-Source Voltage
nA I V DS = 12 V, GS = 0 V 1 Zero Gate Voltage Drain Current DSS V = 12 V, V = 0 V, T = 70 °C 5 µA DS GS J On-State Drain Currenta ID(on) V DS≥ 5 V, VGS = 4.5 V 40 A V GS = 4.5 V,DI = 17 A 0.0045 0.0055 Drain-Source
Figure 18. TPS65130 TPS65130 EFFICIENCY EFFICIENCY vs vs INPUT VOLTAGE INPUT VOLTAGE 100 100 95 95 90 O = 100 mA 90 85 IO= 50 mA 85 I = 50 mA O = 100 mA % % O − 80 − 80 c c e 75 e 75 c c f 70 IO= 5 mA f 70 E E IO= 5 mA 65 65 60 60 55 VPOS = 12 V 55 V NEG= −4 V In Power−Save Mode In Power−Save Mode 50
D D D D D D D R R R N O H V D A D O O D D R R V V V V V A C C C C C C C C V V / W R R R R T T E E D D D T T C V V X C C C C E D A / / E E V X No.173 MARK-1 No.1 No.172 Bump Type PAD No. A-type 1-16, 20-46, 109-134, 138-152, 173-187, 485-499 B-type 17-19, 135-
Unimplemented bit, read as ‘0’ -n = Value at POR ‘1’ = Bit is set ‘0’ = Bit is cleared x = Bit is unknown DS39662A-page 72 Advance Information 2004 Microchip Technology Inc. ENC28J60 REGISTER 12-7: EWOLIR: ETHERNET WAKE-UP ON LAN INTERRUPT REQUEST (FLAG) REGISTER R/C-0 R/C-0 U-0 R/C-0 R/C-0 R/C-0 R/C-0 R/
Regulated Voltage Range: V = 3.0–3.6 V 70R Speed Option CC Standard Voltage Range: V CC = 2.7–3.6 V 90 120 Max Access Time (ns) 70 90 120 CE# Access (ns) 70 90 120 OE# Access (ns) 30 40 50 BLOCK DIAGRAM OE# BYTE# VCC VSS g L o A20–A0 Upper Bank Address e n o o e Upper Bank C - n Y s Q 0 h D – RY/BY# t
° to 85°C) 90 50 0.1 AT49F1024-90VC 40V Commercial (0° to 70°C) 50 0.3 AT49F1024-90VI 40V Industrial (-40° to 85°C) Note: 1. The AT49F1024 has as optional boot block feature. The part number shown in the Ordering
R [77:77] No 0b DSR implemented DSR_IMP 1 R [76:76] No 0b Reserved - 2 R [75:74] - 00b device size C_SIZE 12 R [73:62] SD128=3843 F03h SD064=3807 EDFh SD032=1867 74Bh SD016=899 383h SD008=831 33Fh max. read current @VDD min VDD_R_CURR_MIN 3 R [61:59] 75mA 100b max. read current @VDD max VDD_R_CURR_MAX
(); // i2c_write(0x90); // Screib Mode ist aktiv i2c_write(0x00); // Das Pointer register ist auf Temperatur register gerichtet i2c_start(); // i2c_write(0x91); // Lese Modus
nur bestaetigen dass bei mir mit meinem PIC18F452 ein DS1307, LM75 oder TMP101, und eine 24ATC1024 EEPROM problemlos angesteuert werden koennen. Funktioniert 100%. Vielleicht sollte man das Datenblatt vom AVR in Bezug auf I2C noch einmal sorgfaeltig durchgehen
: Including file 'C:\avr\bootloader\checkcrc.inc' C:\avr\bootloader\fastload.inc(90): Including file 'C:\avr\bootloader\verify.inc' C:\avr\bootloader\fastload.inc(101): Including file 'C:\avr\bootloader\message.inc'
seconds [/code] Wenn ich jetzt den M8 wieder auslese erhalte ich folgendes: [code] :10000000F2C1F9C1F8C1F7C1F6C1F5C1F4C1F3C13C :1000100078828C96A00A141E28323C46505A646E90 :1000200078828C96A011241FBECFE5D4E0DEBFCD30 :10003000BF02D004C004CE80E090E00895F894FFA1 :10004000CF78828C96A00A141E28323C46505A64FF
DS(ON) D = 150 mA Tj= 100 °C 8.6 10.0 TOP225 Tj= 25 °C 3.9 4.5 I = 200 mA T = 100 °C D j 6.4 7.5 TOP226 T = 25 °C j 3.1 3.6 I = 250 mA T = 100 °C D j 5.2 6.0 TOP227 T = 25 °C j 2.6 3.0 I = 300 mA T = 100
Voltage (V) DS DS Fig 1. Typical Output Characteristics Fig 2. Typical Output Characteristics 100 2.0 I = 4.0A c D ) n ( s n s e R 1.5 u n C O d c e e u T = 25 C r zl o J o a 1.0 - - ro - - N i i ( r T J 150 C r D
-032-060C ( äAR x A9( /// 259R A2 l 05 360-081-032-013C ( äAR x A9( /// 259( A2 I u 05 360-081-032-059C ( A 4 7 AR NPUE /// 209R A(90 l 05 360-081-032-016C ( A R in3 7 SP3E /// AR9( A5l 360-00 81-032-026C
: BLOCKNR = (C_SIZE+1) * MULT MULT = 2C_SIZE_MULT+2 (C_SIZE_MULT < 8) BLOCK_LEN = 2 READ_BL_LEN (READ_BL_LEN < 12) Therefore, the maximum capacity that can be coded is 4096*512*2048=4 GB. For example, 4-MB card with
from the drain voltage Figure 17b. Waveforms of the circuit in Figure 23a.C1 = 100 pF, R3 = 5.6 k, f = 50 kHz 3 ) A (2 n C2 voltage: 5V/div. r u r n1 Z 0 20 30 40 50 60 70 80 90 100 Frequency (kHz) Horiz.: 500 s/div File: GPS-3.PLT Figure 18. Zener current (max output current
ENCODER LOGIC S RECEIVE RECEIVE N FIFO SHIFT RX L L REGISTERS REGISTER S A B G T DS E NL N AR O T A0–A2 C O FLOW IR REGISTER E C CONTROL DECODER CS0, CS1, CS2 SELECT T LOGIC AS, DDIS LOGIC I DTR RTS OUT1, OUT2 MODEM INT TXRDY CONTROL RXRDY LOGIC CTS INTERRUPT CLOCK AND RI CONTROL BAUD
DATA 1. Max. switching power 2. Life curve 3. Coil Temperature Rise ) ( ) e ( i d R A o e ( t u n c a e t e u o p C C m T i o C Contact voltage No. of operations Coil Temperature Rise (% of nominal) en_ds_61101_0000: 310105D 3 DE (ADE) 4-1. Operate/release time (1 Form A) 4-2. Operate/release time
only, not 100% tested. 3. In case of 45ns speed see High Speed AC measurement conditions. 5/13 M87C257 Table 8B. Read Mode AC Characteristics (1) (TA= 0 to 70°C, –40 to 85°C, –40 to 105°C or –40 to 125°C; V CC = 5V ± 5% or 5V ± 10%; V PP = V CC) M87C257 Symbol Alt Parameter Test Unit Condition -90
Drehimpulsgeber mit und ohne Taster - LDO Spannungsregler in SMD, hätte gerne die von Micrel (MIC2920A-x) - DS90LV019, DS26LS31, DS26LS32, DS90LV031, DS90LV032 - Optokoppler SMD - IR Decoder (wie TSOP17..) nur in SMD - gnerell mehr von TI, Maxim und AD Mehr fällt mich jetzt gerade nicht ein. Wenn die Mail
daß ich einige der gwünschten Bauteile lagernd im Sortiment habe. Um einmal ein paar zu nennen: DS1631 (12Bit I²C-Bus Temp.Sensor), MAX7311, MAX4572, IL300, TLP504, Digitaler Feuchtesensor Sensirion SHT15, Drehimpulsgeber Typ PEC12 und noch ein paar Kleinigkeiten. Vorbeischauen lohnt sich: http
Hallo, an einem AT90S8535 ist bei mir ein I2c-Bus (an Port D4/D5) angeschlossen,an dem unter anderem eine Uhr PCF8583 haengt. Diese Uhr soll beim Abschalten des Mikros natuerlich weiterlaufen. ( ueber Dioden an eine CA032 Batt. angeschlossen ). Die Versorgung der I2C Bausteine ist ueber eine Diode von +5V des Mikrosgetrennt. Wenn jetzt die Stromversorgung des AVR abgeschaltet wird, fliessen anscheinend ueber die
