0 1 2 3 4 5 6 7 8 A A R3 B B 100kΩ Vcc 20V 5 3 U1 R1 1 6 R7 C 101kΩ XMM1 C R2 2 1kΩ V1 100kΩ OPA548T -5V 4 7 Rlast VDD 0Ω -20V R6 D D 100kΩ E E F F G G 0 1 2 3 4 5 6 7 8
0 1 2 3 4 5 6 7 8 A A R3 B B 100kΩ Vcc 20V 5 3 U1 R1 1 6 R7 C 100kΩ XMM1 C R2 2 1kΩ V1 101kΩ OPA548T 5V 4 7 Rlast VDD 0Ω -20V R6 D D 100kΩ E E F F G G 0 1 2 3 4 5 6 7 8
,remove groundlead a. Rep'lacLogicBoard7001-105 ti. Repl ceCRTContro'lBoard7001-107 If no syeepappears, a. Replace f{orizontaDeflectionBoard70C9-1?A? b. Replace LogicBoardZOC1-tOS c. Replace TriggerEoard7009-961 D. l4easurvoltageat
,remove groundlead a. Rep'lacLogicBoard7001-105 ti. Repl ceCRTContro'lBoard7001-107 If no syeepappears, a. Replace f{orizontaDeflectionBoard70C9-1?A? b. Replace LogicBoardZOC1-tOS c. Replace TriggerEoard7009-961 D. l4easurvoltageat
with window without window 2 Size Color Body Blade Body Blade Expected voltage ISO cable s2ze I 2* [A] coding material coating material coating drop [mV] [mm ] [A s] 1 Black PBT-GF20 Raw < 250 0.35 TBD 2 Grey PBT-GF20 Raw or tin plated 142 0.35 157 3 Violet PBT-GF20 Raw PC Raw 135 0.35 200 4 Pink PBT-GF20
logic level FET 28 July 2016 Product data sheet 1. General description Logic level N-channel MOSFET in a SOT404 package using TrenchMOS technology. This product has been designed and qualified to AEC Q101 standard for use in high performance automotive applications. 2. Features and benefits • AEC Q101 compliant
N2 L 1 1 O I C S S 0 0 1 1 / / / / M / / / / / / T/ 2 1 1 1 1 1 1 1 1 1 1 A A A A A A A A A A A P P P P P P P P P P P 3 2 1 0 9 8 7 6 5 4 3 3 3 3 3 2 2 2 2 2 2 2 PA21/RTCO/T16N0_1/SEG7 4 2 PA9/TXD1/T16N1_1/AN15/CLKO0/COM4 3 2 PA22/RXD0/SEG8 3 2 PA8/RXD1/T16N1_0/AN14/COM5 PA23
1 C4 C2 5 0 0 1 0 K C 1 F Q20pF 20pF 10µ/35V_Cer L110µ/25V_Cer 10µ/25V_Cer C25 10MHz R1 K MEGA128-A K 100µH_SDR1005-101KL e 2 10µ/25V_Cer 8 7 6 5 4 3 2 1 c C V u C k 32K 2.2K 0R R9 1 R 10 9 u 5 AD7524AQ µ IC6 LCD16X2 C 1 I 1R4 R10 R8 8.2K 1 J1 O LM317R37 R36 u P 1 I A I 12V to 10V C 1 J K 100 700 2 P 3 I R21 R F 0 F 2 A 1 21 0 2 0 4 k 2 J - RC 1 C 1 R 10 V 2 2.03 2 1 T1 S 1 . 3 R 1 BC337 I D 5 m Z , 5 2 A17,5mm A17,5mm 13 k 1 Q U 1 1 2 LM307N I2 0 4 F A B Q3 R R 1 2 n 1nF L 0 MBR750 BUZ11 C 1 A17,5mm S1 1 1 3 A17,5mm
1 C4 C2 5 0 0 1 0 K C 1 F Q20pF 20pF 10µ/35V_Cer L110µ/25V_Cer 10µ/25V_Cer C25 10MHz R1 K MEGA128-A K 100µH_SDR1005-101KL e 2 10µ/25V_Cer 8 7 6 5 4 3 2 1 c C V u C k 32K 2.2K 0R R9 1 R 10 9 u 5 AD7524AQ µ IC6 LCD16X2 C 1 I 1R4 R10 R8 8.2K 1 J1 O LM317R37 R36 u P 1 I A I 12V to 10V C 1 J K 100 700 2 P 3 I R21 R F 0 F 2 A 1 21 0 2 0 4 k 2 J - RC 1 C 1 R 10 V 2 2.03 2 1 T1 S 1 . 3 R 1 BC337 I D 5 m Z , 5 2 A17,5mm A17,5mm 13 k 1 Q U 1 1 2 LM307N I2 0 4 F A B Q3 R R 1 2 n 1nF L 0 MBR750 BUZ11 C 1 A17,5mm S1 1 1 3 A17,5mm
generated on data lines are mainly ESD surges which are low energy but very high dv/dt and can generate a very strong electromagnetic field. These mainly concern AEC-Q101 and ISO10605 standards. The data lines concerned are communication lines like media transfer lines, data buses, sensor data lines and
1 2 3 4 A A GND 2 2 0 2 7 U 8 P P0U104 P P C7 D C8 7 N 8 0 10uF 3 P0U103 G P0U101 0 47n B P V-OUT V-IN P B VC3 U1 3.3VOLTREG VCC MMC1 2 2 2 GND R R R P P P R7 R8 R9 03k3 3k3 0k3 0 R R R P P P P0MM1101 CS P0MMC102
6601JIP 0402 16V PI 6 5 0402 HDR-2.54 Male 1x6 CAD Note: E 8 8 1uF cap place close to MICBIAS pin ) _ A P/ / N R B B Y X X Test Points _ I P I M ME _ _ GND 6 A T S D R 1 2 R R MFB POWER BUTTON 2 D A Y D WK K A A AUDIO TEST CONFIG 1 2 3 4 5 6 7 8 9 0 U COPT CO2 SYS_PWR 2 2 2 2 2 2 2 2 2 3 PB CO3 PI1 AOHPR
Measuring Methods Using a PC DJ8ES Dipl Ing A Gerstlauer, Fundamentals PUFF 2.1 - Improved and Expanded Version 1998/2 97 - 101 DG5SEB Antenna Technology Computer Assisted Design of High Gain Yagi Aerials Leif Asbrink, SM5BSZ
TIMECON DATA 0A1H ;TIC CONTROL HTHSEC DATA 0A2H ;TIC - HTHSEC DATA SEC DATA 0A3H ;TIC - SEC DATA MIN DATA 0A4H ;TIC - MIN DATA HOUR DATA 0A5H ;TIC - HOUR DATA INTVAL DATA 0A6H ;TIC INTERVAL REGISTER IEIP2 DATA 0A9H
-02/-03/-05/-06, I = 150mA 4 6 mA L 8 mA MIC2951-3.3 (±1%), I = 100µA 100 180 µA L 300 µA MIC2951-3.3 (±1%), I = 100mA 1.7 2.5 mA L MIC2951-3.3 (±1%),LI = 150mA 4 6 mA 10 mA MIC2951-4.8 (±1%),LI = 100µA 120 180 µA 300 µA MIC2951
TIMECON DATA 0A1H ;TIC CONTROL HTHSEC DATA 0A2H ;TIC - HTHSEC DATA SEC DATA 0A3H ;TIC - SEC DATA MIN DATA 0A4H ;TIC - MIN DATA HOUR DATA 0A5H ;TIC - HOUR DATA INTVAL DATA 0A6H ;TIC INTERVAL REGISTER IEIP2 DATA 0A9H
Made in Germany
Patent Pending
Kbaud
115.2 110
57.6 111
38.4 000
19.2 001
9.6 010
4.8 011
2.4 100
1.2 101
Spare
1=10 Bit
0=11 Bit
1=Remote / DTE
0=Local / DCE
PPI (M Master)
PPI / Freeport
Spare
FM
APPROVED
CLASS I, DIV 2
GP, A, B, C, D
T4A Ta<40°C
CLASS I, ZONE 2, IIC
T4 Ta<40°C
CE
LISTED 866Y
IND. CONT
Assigned IP Leased Time 1 DESKTOP-D1QMQ4U 14-F6-D8-D9-44-6E 192.168.1.102 23:31:08 2 fritlz.box 2C-3A-FD-56-2A-81 192.168.1.101 23:34:15 Address Reservation MAC Address Reserved IP Address Group Status Modify Condition Pool Vendor ID Starting IP Address/Ending IP Address Device Name Group Status Modify
/L Wert für Compare Match A // OCR1AH/L Wert für Compare Match B //OC1A/B Pins als Ausgang setzten //------------------------------- sbi DDRB, PB1 ;OC1A als Ausgang definieren sbi DDRB, PB2 ;OC1B als Ausgang definieren //TCCR1A Register: //---------------- //COM1A1 (Bit7); COM1A0(6); COM1B1(5);COM1B0(4) //FOC1A(3); FOC1B(2); WGM11(1); WGM10(0) //Einstellungen: //1010=lösche OC1A/B bei match, setzen bei TOP (0101=Toggel on Compare Match) //00=müssen auf 0 geschrieben
Parameter Device Typ. Max. Units Test Conditions λpeak Peak Wavelength Super Bright Red 660 nm F=20mA λD [1] Dominant Wavelength Super Bright Red 640 nm F=20mA Δλ1/2 Spectral Line Half-width Super Bright Red 20 nm F=20mA C Capacitance Super Bright Red 45 pF VF=0V;f=1MHz Forward Voltage 7.4 10.0 VF [2] Per Segment Or (DP) Super Bright Red (3.7) (5.0) V I=20mA Reverse Current 20 VR=5V R Per Segment Or (DP) Super Bright Red (10) uA (VR =5V) Notes: 1.Wavelength: +/-1nm. 2. Forward Voltage: +/-0.1V. Absolute Maximum Ratings at TA=25°C Parameter Super Bright Red
Spannung 7-12V (DC IN)
Alternativ 5V (USB)
Digital IO 54 davon 14 PWM
Analog IO 16
DC current IO 20 mA
DC current 3.3.V 50 mA
Speicher 256 KB (8KB bootl.)
RAM 8 KB
EEPROM 4 KB
Clock Speed 16 MHz
Abmessungen 101,5 x 53,4 mm
Lieferumfang:
- JOY-IT® MEGA 2560 Mikrocontroller
- USB Daten & Stromkabel
- Anleitung
********************************** ' BME280 Beispiel Code ' (c) 2015 by Michael Lehmann ' mlehmann(a)mgkulm.ch '****************************************** '**** Beschreibung 'Der BME280 Sensor von Bosch kann Temperatur, Luftdruck und Luftfeuchtigkeit messen. 'Er ist günstig und sehr gut geeignet für
********************************** ' BME280 Beispiel Code ' (c) 2015 by Michael Lehmann ' mlehmann(a)mgkulm.ch '****************************************** '*** Änderungen *************************** 'Aktuelle Version Const Test_version = "V1.2" 'V1.2 19-03-16 '-Fehler in der SUB Setup_bme280() behoben
lines Reverse stand-off voltage Max. reverse working voltage V - - 4 V RWM Reverse voltage at R = 20 μA VR 4 - - V Reverse current at VR= 4 V IR - - 20 μA Reverse breakdown voltage atRI = 1 mA V BR 5 6.1 7 V at PP= 1 A - 7.5 9 V Reverse clamping voltage VC at PP = PPM = 30 A - 11.2 14.3 V at PP= 1 A -
3 nicht abwählbar! Der Ausgangsstrom IM beträgt maximal 12 mA. Für welche Leistung muss der Widerstand -R8 mindestens ausgelegt sein? 1 Pmin = 25 mW 2 Pmin = 60 mW 3 Pmin = 100 mW 4 Pmin = 144 mW 5 Pmin = 625 mW 4 nicht abwählbar! Zwischen der Eingangsspannung U2 (f2 = 1 kHz) und dem Ausgangsstrom der Schaltung besteht der Zusammenhang: IM = UE/R2a. Welchen Wert hat die Induktivität L_R100, wenn der ohmsche Widerstand R_R101 mit 0 Ohm angenommen wird und die Spannung mit UM = 0,2 V gemessen wurde? 1 L_R100 = 2,65 mH 2 L_R100 = 6,37 mH 3 L_R100
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