) G = 100, 1k d120 1k ( G = 10 i 100 c G = 1k V100 j V R 80 G = 100 ( e a o 60 G 10 - n G = 10 m 40 m 1 o G = 1 C 20 0 10 100 1k 10k 100k 1M 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE VOLTAGE
) G = 100, 1k d120 1k ( G = 10 i 100 c G = 1k V100 j V R 80 G = 100 ( e a o 60 G 10 - n G = 10 m 40 m 1 o G = 1 C 20 0 10 100 1k 10k 100k 1M 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE VOLTAGE
zaehler; } //****************************************************************************** //Timer1 (langsamer) löst bei Überlauf folgenden Interrupt aus //wird zum softwaremäßigen Entprellen des Tasters benutzt #int_TIMER1 TIMER1_isr() { t1_flag++; if (t1_flag==5) { aktion_neu=1; } } //***********
Berechnung der Verzögerungszeiten: ; Takt= 16Mhz ; Pausendauer 16ms = 0,0016s ; T16ms= 0,0016s / ( 1/16Mhz) ; T16ms= 260000 takte ; Die Pausenzeiten wurde dann mit dem AVR delay loop programm erstellt ; So wurde bei allen Zeiten vorgegangen .include "m8def.inc" .def temp=r16 .def temp1=r20 .equ enable
), S(0,2), S(0,4), S(10,4), S(5,3), //g2 h i j k l m S(10,1), S(10,3), S(10,2), S(15,2), S(5,1), S(5,2), S(0,3), }, //middle right Digit { //a b c d e f g1 S(17,1), S(17,3), S(7,3), S(2,2), S(2,0), S(17,0), S(7,0), //g2 h i j k l m S(12,2), S(12,0), S(
B B 5 . . . . . 1 A A C1P M 0 9 G 0 M O G E S E O C5 C1N C S S S C VCI C C2P f2 VDD C2N C3 VDDA C C3AP f3 VDDIO C3AN VSS C3BP VSSA C3BN VSSC SSD1623 C C4P VBAT f5 C4N C C1 s1 VCP1 V0 VCP1 VCP2 P V1 A V1 C s3 _ S VCP3
RIGOL WAIT H 50.0us 1.00GSa/s 600k pts T 1 300mV D 0.00000000ps Period Freq Rise Time Fall Time +Width -Width Save New File NewFolder Delete Top 740mV Max 740mV 1 ~500mV 2 ~2.00V
reed contact Initial contact resistance <150mΩ Operate / release time max. 0.75/0.15ms 1.1/1.6ms Electrical endurance U II = at 12V/10mA 50x10 operations 6 at 24V/400mA 5x10 operations The operat temperatur Coil Data Magnetic system neutral U I
and Memory. Register 4.1. EFUSE_PGM_DATA0_REG (0x0000) 0 T_ _D PG S_ EF 31 0 0x000000 Reset EFUSE_PGM_DATA_0 The content of the 0th 32-bit data to be programmed. (R/W) Register 4.2. EFUSE_PGM_DATA1_REG (0x0004) _ AT M_D _G US
and Memory. Register 4.1. EFUSE_PGM_DATA0_REG (0x0000) 0 T_ _D PG S_ EF 31 0 0x000000 Reset EFUSE_PGM_DATA_0 The content of the 0th 32-bit data to be programmed. (R/W) Register 4.2. EFUSE_PGM_DATA1_REG (0x0004) _ AT M_D _G US
UL 94-V0 C 1) IC Current consumption (max) 55 mA • Fully potted construction V Rms voltage for AC isolation test, 50 Hz, 1 mn 2.2 kV • True Rms output. d Accuracy - Dynamic performance data Advantages 2) X Accuracy
V (1) Note (1) Within Ta (25 ± 2 °C ) (2) BACK-LIGHT UNIT Ta = 25 ± 2 °C Item Symbol Min. Max. Unit Note Lamp Current IL 2.0 7.0 mArms (1) Lamp frequency FL 45 80 kHz (1) Note 1) Permanent damage to the device
RIGOL TD H 5.000ms 100.0MSa/s D 0.00000000ps T 80.0mV 1 1.00 V 2 1.00 V 1N4007 @ 50Hz RIGOL TD H 10.00us 1.00GSa/s D 0.00000000ps T 80.0mV 1N4007 @ 10kHz RIGOL TD H 200.0ns 1.00GSa/s 2.00k pts D 0.00000000ps T 80.0mV 1N4007 @ 1MHz
Tektronix TBS 1052B-EDU Digital Oscilloscope 50 MHz 1 GS/s Auto M Pos: 0.000s Ch1 Coupling DC BW Limit On Off 50MHz Volts/Div Coarse Probe 10X Voltage Invert On Off 1 Peak-Peak ? 2 Peak-Peak 1 Frequency 1.116kHz 1 Peak-Peak 2.72V 1 1.00V M 50us Ch1 -48.0mV
error can be deduced via the sensitivity of the magnetic circuit, which is roughly on the order of 1mT/° for systems as the one depicted in Figure 2. A drift of 100µT then corresponds to only 0.1° angle error, which is even exceeded by the typical performance of the TLE4997. 1,4% ) a 1,2% s u 1,0% F
2s complement format is: 1 X = –0.12345 = .111000000111 b M = 0.14325 = 0.001001001010 b ~ where 1 is the sign bit representing –1. The design equations for this numerical example are shown. –2 X 1 X × 2 + X = 1.111110000001 +
Current IB - 15 - mA (1) Power Consumption PBL 120 150 180 mW (2) Note (1) Three LEDs serial type. (2) Where I = 15mA, V = P / I B B BL B ʲʴ Doc . No LTS220Q1-HEx Rev.No 05-001-G-020615 Page /40 4. Block Diagram 4.1 TFT-LCD
cache: 1: clear cache Us Location URL Port 2 00 00 Not enable,reserve the protocol Us HTTP Server Port 2 50 00 HTTP server port Uc User Flag 1 00 Not enable,reserve the protocol Ul Static IP 4 07 00 A8 C0 Static
hp running
CHANNEL 1 2 3 4
off on
200 mV/div
offset -37.500 mV
dc ac
BW lim
-1.00000 ms 0.00000 s 1.00000 ms
200 us/div
Vp-p(1) 781.250mV frequency(1) 1.50904kHz
more preset
probe
a b m e h e c e S R 8 0 5 0 . e V . . 2 I l 1 n a A d l , K B g n 0 r m 8 r a N H r o B y K – L y a a g u i a D o t G a b m e h e c e S R 8 0 5 0 . e V . . 2 I l 1 n a A d l , K B g n 0 r m 8 r a N H r o B
- IOVCC V Input low -level voltage VIL -0.3 -- 0.3 x IOVCC V Output high -level voltage VOH IOH=-0.1mA 0.7 x IOVCC -- -- V Output low -level voltage VOL IOH=0.1mA -- -- 0.3 x IOVCC V I/O leakage current ILI Vin=0~VDDA -1 -- 1 μA Current consumption VDDA = 3.3V （Normal operation mode） Iopr Ta=25℃ MCLK=24MHz -- 2.1 -- mA Current consumption Imon VDDA = 3.3V -- TBD -- mA （Monitor mode） Ta=25℃ MCLK=24MHz THIS DOCUMENT CONTAINS INFORMATION PROPRIETARY TO FOCALTECH SYSTEMS CO.,LTD., AND MAY NOT BE REPRODUCED, DISCLOSED
industrial floating-point processors, the cRIO-910x family of 4 and 8-slot reconfigurable chassis featuring 1 million or 3 million gate FPGAs, and a wide variety of I/O types, from ±80 mV thermocouple inputs to 250 VAC/VDC universal digital inputs. CompactRIO embedded systems are developed using LabVIEW, the
, V S ±15V, unless otherwise noted. GAIN vs FREQUENCY COMMON-MODEREJECTIONvs FREQUENCY 10k 120 G = 1k 1k B 100 ( o G = 100 c 80 V 100 j G=1k V R ( e 60 i G = 10 o G 10 - G=100 o 40 m G=10 G = 1 o 1 C 20 G=1 0.1 0 1k 10k 100k 1M 10M 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE
, V S ±15V, unless otherwise noted. GAIN vs FREQUENCY COMMON-MODEREJECTIONvs FREQUENCY 10k 120 G = 1k 1k B 100 ( o G = 100 c 80 V 100 j G=1k V R ( e 60 i G = 10 o G 10 - G=100 o 40 m G=10 G = 1 o 1 C 20 G=1 0.1 0 1k 10k 100k 1M 10M 10 100 1k 10k 100k 1M Frequency (Hz) Frequency (Hz) INPUT COMMON-MODE
S I a B i B i a l B E e H B H B r S B n t U I I 0 1 2 3 4 5 CPU Data 0 CPU Instruction 1 S E S CPU SAB 2 A M I T PDCA 3 A M H MACB 4 USBB DMA 5 23 AT32UC3A 10. Peripherals 10.1 Peripheral address map Table 10-1. Peripheral Address Mapping Address Peripheral
Temperature 102 OperationinThisArea 10 OperationinThisArea isLimitedbyR isLimitedbyDS(on) DS(on) 100us 1 101 10 100us ] 1ms ] 1ms [ 10ms [ n n 10ms r 0 DC r 0 100ms C 10 C 10 i i DC r r , *Notes: , ID10-1 1.T=25 C ID -1 *Notes: o C o 10 1.TC=25 o 3.SinglePulse 2.TJ=150 C 3.SinglePulse 10-2 10-2 10 101
SIGLENT Trig'd M 2.00ms/ Delay:80.0us f = 97.4625Hz Sa 1.00GSa/s Curr 28.0Mpts Edge CH1 DC 1X 1.00V/ -480mV 1 CH1 Unit V Deskew 0.00s Invert Off Offset -480mV Trace Visible Next Page Page 2/2
2002 TDA 16831-4 Package Outlines 5 Package Outlines P-DIP-8-6 (Plastic Dual In-line Package) X A 1.7MAX. . M 7.87±0.38 I . M 4 . 0 2.54 N 0.25+0.1 M 0.46±0.1 8x 5 6.35±0.25 0.35 . 3 8.9±1 8 5 1 4 9.52±0.25) Index Marking 1) Does not includeplastic or metal protrusionof 0.25max.per side 3 5 0 D G Version
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