15 13 12:9 8 7 5 0 S R R X S S 1 R R X 2 R R X 3 S R R R X S S 4 S R R R X S S 6 S R R R X R S S X 7 S R R R X R S S 8 S R R R X R S S 9 S R R R X R S S 10 S R R R X R S S 11 R S R R X R X X R S S 12 S R R R X S S 13 S R
Register (EXT_CSD) Name Field Size Cell EXT_CSD Value [Bytes] Type slice [Byte] Supported command sets S_CMD_SET 1 R [504] 9 Power class for 26MHz @ 3.6V PWR_CL_26_360 1 R [203] - Power class for 52MHz @ 3.6V PWR_CL_52_360 1 R [202] - Power class for 26MHz @ 1.95V PWR_CL_26_195 1 R [201] - Power class for
(32MPixel/sec) - Support image sub-sampling after JPEG decompression - Support image rotation (by S/W) / Zoom In / Panning. z Audio/Video decoding accelerator - Full bit-rate support of MP3, WMA - Hardware Motion-JPEG up to VGA@30fps z Memory Interface - SDRAM support - Support 4Mx16 SDRAM for Pure
AS MAGNETICS INC. KOOL MSS 0 –10 –20INPUT VOLTAGE (V)70 –80–90 1082 TA01 OR MOLYPERMALLOY. 1082 TA02 sn1082 1082fas 1 LT1082 W W W U AB S O LU E T A XI U RA T I G S (Note 1) Supply Voltage ....................................................... 75V Operating Junction Temperature Range Switch Output
VSS 3pF 10M QUIESCENT CURRENT IS 90µA FOUT SUPPLY CURRENT IS 360µA AT 1MHz *1%FILM RESISTOR 2µF + – S1 S3 V IN2 IN3 IN1 IN4 GND V S4 S2 LTC201A/LTC202 0.022µF D1 D3 D4 D2 500pF POLYSTYRENE LTC201A/202/203•TA01 201a23fb 1 LTC201A/LTC202/LTC203 W W W U U W U ABSOLUTE AXI U RATI GS PACKAGE/ORDER I FOR ATIO
1.3 A A s 1.2 ( 1.2 I 1.1 I 1.1 n n e 1.0 e 1.0 u 0.9 u t t 0.9 e 0.8 n 0.8 s c i 0.7 i 0.7 u 0.6 u 0.6 Q Q 0.5 0.5 3 4 5 6 7 8 9 10 5 6 7 8 9 10 Input Voltage IN(V) Input Voltage IN(V) R 5RL50A Topt=25˚C 2.0 1.9 ) 1.8 µ s 1.7 I 1.6 n r 1.5 u 1.4 t e 1.3 s 1.2 i Q 1.1 1.0 4 5 6 7 8 9 10 Input Voltage VI(V) 6) Quiescent Current vs. Temperature R 5RL30A V I=5.0V R 5RL40A V I=6.0V 1.5 2.0 1.4 1.9 ) 1.3 1.8 A A s 1.2 ( 1.7
HF compensation trimmer(s) for optimum square wave response. I guess also with W202 Welec's probes is the same. I have to check. Unfortunately my oscilloscope analog probes are fixed at x10 and can not be switched to x1.
differences between the DSOs I understand is not so easy for He to release a firmware that will work on all W202XA and W201XA Welec's revisions, although he usually succeeds in this. @Hayo Hardware's menu settings are used to eliminate ringing problems plaguing some Welec's DSO, precisely the spikes's problems
Filter Schaltung? TD201 Der Impedanzfrequenz- gang in der Abbildung zeigt die Kennlinie Gegeben: C1= 0,02 µF; C2= 10 nF; C3= 10000 pF A eines Serienschwingkreises. B eines Parallelschwingkreises. A 10 nF C einer Induktivität. B 5 nF C 2,5 nF D einer Kapazität. D 40 nF TD202 Der im folgenden Bild TD107 Welche
N100 1 2 T ILIM VIN E SW1 3 O L = 180µH AA CELL* LT1073-5 U 8 U 10 SENSE T GND SW2 + 100µF C 5 4 0S-CON L = 82µH 1 OPERATES WITH CELL VOLTAGE 1V 1 10 100 ADD 10µF DECOUPLING CAPACITOR IF LOAD CURRENT (mA) BATTERY IS MORE THAN 2" AWAY FROM LT107373 TA01 LT1073 TA02 1 LT1073 W W W U U W U ABSOLUTE AXI
EF13 EF1212 P K4K 4 B SW-PB S SRotaryEncoder S SRotaryEncoder S SRotaryEncoder trigKF5Fu V0 LED DF2525 +3.3V P K5K 5 UF3PIKF501 PIKF502X0 PIDF2502 PIDF250PIRF7021 P K6K 6 A C B A C B A C B SW-PB CRF7 62R GND 1 2 3 1 2 3 1 2 3 P K10
Support The system software currently has support for the following Atmel devices. AVR Devices: ■ AT90S1200 ■ AT90S2313 ■ AT90S/LS2323 ■ AT90S/LS2343 ■ AT90S4414 ■ AT90S/LS4434 ■ AT90S8515 ■ AT90S/LS8535 Software upgrades for the AVR ISP software is posted to the AVR section of the Atmel website, which
cPath=174&zenid=4735ac2756733afa83929e1e041aa448 > > Gruß Das Ding ist und bleibt unbrauchbar. S. [[Oszilloskop#Spielzeuge_aller_Art]]
den Beitrag dort auch mal überflogen. Anscheinend geht nun auch der Downgrade von firmware ver. 00.02.05.02 Und der so genannte Trigger Bug sollte bei anschließender Nutzung der Firmware 00.02.04 auch behoben sein. Mal umschauen, wo man so ein "Geschenk" aus China günstig bekommt!
ms 16.3 ms 0 0 1 32K cycles 34.3 ms 32.5 ms 0 1 0 64K cycles 68.5 ms 65 ms 0 1 1 32/64K cycles 0.14 s 0.13 s 1 0 0 256K cycles 0.27 s 0.26 s 1 0 1 512K cycles 0.55 s 0.52 s 1 1 0 1,024K cycles 1.1 s 1.0 s 1 1 1 2,048K cycles 2.2 s 2.1 s 58 AT90CAN32/64/128 7679H–CAN–08/08 AT90CAN32/64/128 The following
16.3 ms 0 0 1 32K (32,768) 34.3 ms 32.5 ms 0 1 0 64K (65,536) 68.5 ms 65 ms 0 1 1 128K (131,072) 0.14 s 0.13 s 1 0 0 256K (262,144) 0.27 s 0.26 s 1 0 1 512K (524,288) 0.55 s 0.52 s 1 1 0 1,024K (1,048,576) 1.1 s 1.0 s 1 1 1 2,048K (2,097,152) 2.2 s 2.1 s 43 2466T–AVR–07/10 ATmega16(L) The following code
16.3 ms 0 0 1 32K (32,768) 34.3 ms 32.5 ms 0 1 0 64K (65,536) 68.5 ms 65 ms 0 1 1 128K (131,072) 0.14 s 0.13 s 1 0 0 256K (262,144) 0.27 s 0.26 s 1 0 1 512K (524,288) 0.55 s 0.52 s 1 1 0 1,024K (1,048,576) 1.1 s 1.0 s 1 1 1 2,048K (2,097,152) 2.2 s 2.1 s 43 2466T–AVR–07/10 ATmega16(L) The following code
no maximum time is specified for the DRDY bit to set to one, a host is advised to allow at least 30 s for the DRDY bit to be equal to one. See Figure 7. BSY DRDY Max for device 0 Minimum time is is 6 s. 0s. Max for device 1 No maximum time is 5 s. is specified. Figure7 - BSY and DRDY timing for diagnostic
off • Cursor H Cursor on C L Cursor off • Blinking H Blinking on B L Blinking off SHIFT L L L L L H S/C R/L X X 42μs H Display shift S/C L Cursor move H Right shift R/L L Left shift SET FUNCTION L L L L H DL N F X X 42μs H 8 bits interface DL L 4 bits interface H 2 line display N L 1 line display H 5
FREQUENCY FREQUENCY % 10 % 10 − V DD= 5 V ) V DD= 5 V L 5 R = 8 Ω E 5 B L ( R L 32 Ω ( Gain = 20 dB s Gain = 14 dB i 2 BTL o 2 SE o N N + n 1 o 1 i r r 0.5 PO= 0.25 W t 0.5 s i D D i 0.2 P = 0.5 W n 0.2 n O o o r 0.1 r 0.1 H H l a 0.05 o 0.05 o T P O 75 mW T − − 0.02 P = 1 W + 0.02 + O D D T 0.01 T 0.01
R/W Frequency offset added to the base frequency before being used by the frequency synthesizer. (2s-complement). 14 Resolution isXTAL/2 (1.59kHz-1.65kHz); range is ±202 kHz to ±210 kHz, dependent of XTAL frequency. 0x0D: FREQ2 – Frequency Control Word, High Byte Bit Field Name Reset R/W Description
use the following information. Header ICE/ICD Device Board Assembly Number AC162061 PIC16F690-ICD 02-01835 Header Setup and Operation For the PIC16F690 20-pin header, you will need to set the S1 switches (Figure 6) to enable peripherals and choose devices (Table ). FIGURE 6: S1 SWITCH HARDWARE 1 ON
ms 0 0 1 32K (32,768) 29.6 ms 28.1 ms 0 1 0 64K (65,536) 59.1 ms 56.2 ms 0 1 1 128K (131,072) 0.12 s 0.11 s 1 0 0 256K (262,144) 0.24 s 0.22 s 1 0 1 512K (524,288) 0.47 s 0.45 s 1 1 0 1,024K (1,048,576) 0.95 s 0.9 s 1 1 1 2,048K (2,097,152) 1.9 s 1.8 s 57 2467R–AVR–06/08 The following code example shows
nimm doch ein Opto-Triac. z.B. der S202S02 von Sharp mit Null-Durchgangs-erkennung. Kannste direkt mitm µC ansteuern und du hast deine galvanische Trennung.
sinnvoller, mit ein paar mehr LEDs und Widerständen und ggf. noch einem USB-Seriell-Wandler oder MAX232/202 kann man sich erstmal austoben bis Sachen wie Lauflicht, PWM, UART u.s.w. verünftig sitzen. Zum Programmer wurde ja schon genügend geschrieben, bei 120€ Budget darf es gleich ein Dragon sein womit
G G G G G G G E E E E E E E E E E E E E E E E S S S S S S S S S S S S S S S S 8 7 7 7 7 7 7 7 7 7 7 6 6 6 6 6 SEG22 1 64 SEG39 SEG21 2 63 SEG40 SEG20 3 62 COM16 SEG19 4 61 COM15 SEG18 5 60 COM14 SEG17 6 59 COM13 SEG16 7 58 COM12 SEG15 8 57 COM11 SEG14
Logical Logical Flags Signal Operation Type Min Max Linear –1 1 Relative, Edge 1 increments the control’s value. Control Preferred –1 decrements the control’s value. (LC) State –Min Max Relative, Level n increments the control’s value. –n Preferred decrements the control’s value. State Min Max Absolute,
or system reset will be issued. Figure 8-7. Watchdog Timer 128 kHz OSCILLATOR / / / 6 2 4 8 6 2 4 S S S C C C / / / 1 O O O S S S S S S C O O O O O O O WDP0 WDP1 WATCHDOG WDP2 RESET WDP3 WDE MCU RESET WDIF INTERRUPT WDIE In Interrupt mode, the WDT gives an interrupt when the timer expires. This interrupt
at 9600 baud serial communication rate, a single byte is received or transmitted in approximately 1mS (104 S per bit). If no commands follow then the polling rate reverts back to the stored parameter value as in (1). Command byte received + 6mS CTS timeout Not to scale TTL levels CTS 5v 0v Polling cycle
HVDD2 197 VSS FPDAT8 64 198 63 AB9 FPDAT9 199 AB8 FPDAT10 62 200 61 201 AB7 FPDAT11 60 AB6 FPDAT12 202 59 203 AB5 FPDAT13 58 AB4 VSS 204 HVDD2 57 205 AB3 56 AB2 FPDAT14 206 AB1 FPDAT15 55 207 54 AB0 FPDAT16 208 COREVDD FPDAT17 53 O R O S O O S P P P P H H U D R W E e U R C O O C C O O C L L L L D D D
State Relays (SSRs) 8-9 PR29MF12NSZF PR29MF12NSZF Chapter 8 – Use of Solid State Relays (SSRs) 8-10 S102S01F PR29MF12NSZF S102S02F Chapter 8 – Use of Solid State Relays (SSRs) 8-11 S102S01F S102S11F Chapter 8 – Use of Solid State Relays (SSRs) 8-12 PR29MF12NSZF S102S02F Chapter 8 – Use of Solid State Relays (SSRs) 8-13 S102S11F S102S02F Chapter 8 – Use of Solid State Relays (SSRs) 8-14 S202S02F S202S02F Chapter 8 – Use of Solid State Relays (SSRs) 8-15 S101S06VF Chapter 8 – Use of Solid State Relays (SSRs) 8-16 PR31MA11NZF
Hallo das Datenblatt de S202S02 zB. bei Reichelt ==> http://www.reichelt.de/?ACTION=3;ARTICLE=15439;GROUPID=;SID=27vlIA76wQARsAAAzsGYkdddb0e616d47071d9ca72bc9aedac31d ==> http://www.reichelt.de/?;ACTION=7;LA=28;OPEN=0;INDEX=0;FILENAME=C300%252Fs216s02.pdf;SID=27vlIA76wQARsAAAzsGYkdddb0e616d47071d9ca72bc9aedac31d MfG Achim
Wertkontinuierliche Korrelation 161 6000 6000 Analoge Korrel. Analoge Korr. 5500 4000 t t5000 e2000 e s s4500 n n t 0 t4000 e e r r3500 K2000 K 3000 -4000 2500 -6000 2000 19 19.5 20 20.5 21 19.96 19.97 19.98 19.99 20 20.01 20.02 20.03 20.04 Entfernung in Meter Entfernung in Meter Abb. F.2: Vergroßert˜
