SERIES 1536 MINIATURE PROTECTION AMBIENT-TEMPERATURE COMPENSATED PER FO R M A N C E DATA Three-Pole High Performance Interrupting Capacity 1,000A at 205V, 400 Hz., three-phase symmetrical fault Three-Phase Protection 1,000A at 120V, 400 Hz., single-phase fault Common trip mechanism
calculate the minimum and maximum constant current values that can be programmed for the outputs for a chosen R ext 900 mV 1 IO_LED_MIN = --R------4-minimum constant current (4) ext I _LED_MAX = 255 I _LED_MIN = --------------- (5) O O R ext 4 For a given IREFx setting, I _LED = IREFx -
calculate the minimum and maximum constant current values that can be programmed for the outputs for a chosen R ext 900 mV 1 IO_LED_MIN = --R------4-minimum constant current (4) ext I _LED_MAX = 255 I _LED_MIN = --------------- (5) O O R ext 4 For a given IREFx setting, I _LED = IREFx -
2143 148 CQW14 95 DL 3400 141 HA 2144 148 8 Typ Seite Typ Seite Typ Seite HD 1075, 1076 144 MAN 81 A 150 TIL41 . . 50 98 HD 1077, 1078 144 MAN 82 A 150 TIL 78 92 HD 1105 145 MAN 83A 150 TIL 302 151 HD 1106 TIL 303 145 MAN 84A 150 151 HD 1107 145 MAN 3610 A 150 TIL 304 151 HD 1108 145 MAN 3620 A 150
LA R G EC A P A C IT A N C EA LU M IN U MELEC TR O LYTICC A P A C ITO R S Inverter-use screw terminal, 85C @Ideal for inverter smoothing capacitors such as Electric Vehicle, Hybrid Car, etc. @Endurance with ripple
) 900 a A n 90 t t n e r 800 e 80 C R t d e 700 o 70 s n u o Q m 60 600 o C 50 500 -50 -25 0 25 50 75 100 125 150 -50 -25 0 25 50 75 100 125 150 Temperature (°C) Temperature (°C) Figure 7. Figure 8. QUIESCENT
( T = 25 °C, Normlicht A, T = 2856 K) A Characteristics (T A= 25 °C, standard light AT = 2856 K) (contÕd) Bezeichnung Symbol Wert Einheit Description Symbol Value Unit Leerlaufspannung, EV = 1000 lx V O 360 (≥ 280) mV Open-circuit
CHARACTERISTICS (CFWC455CZ2) 0 120 0 0 4 10 10 8 20 20 95 12 30 30 ) . ) ) d 16 e d 40 d 40 ( µ ( ( i . i i a 20 70 . a 50 a 50 n . n n t 24 G t 60 t 60 A A A 70 28 70 45 32 80 80 90 36 90 100 40 20 100 200 300 400 500 600 700 800 900 1000 430 455 480 405 455 505 Frequency (kHz) Frequency (kHz) Frequency (kHz
noise by Com 10/1 (from 600 Vp-p to 60 Vp-p). 4 The conventional circuit, shown in Figure 1, uses a single- pole RC filter and a buffer amplifier. One problem with this 88 circuit is that leakage current through the filter capacitor, C FIGURE 2. Voltage Reference with Improved Filter. 1 flowsthroughR
Voltage vs LO Power –32 10 26 10 25 –33 IIP3 P 8 IIP3 24 8 22 ( –34 B –35 85°C ) 6 23 ) 6 25°C 18 A I B–36 –40°C ) –40°C D ) P ( d NF N d 4 85°C 22 ( G–37 C 4 14 S (C 25°C B K 25°C G E G 2 –40°C 21 ) E–38 G L 2 10 U G C –39 E 0 20 –40 G C d 0 6 ) –2 19 –41 85°C –42 –2 2 –4 18 850 900 950 1000 1050
Software /EMERGOFF controlled Serial interfaces ASC0 and ASC1 Undefined Inactive Active ca. 300ms ca. 900ms For details please see Chapter 3.3.1.2 Figure 3: Power-on by ignition signal In a battery operated MC55/56 application, the duration of the /IGT signal must be 1s minimum when the charger is connected
746 MHz 20.88 dB ] 15 B 15 2690 MHz 16.83 dB [ 824 MHz 22.85 dB n 20 n 20 960 MHz 43.72 dB t t u 25 a 25 e 30 n 30 A t 35 A 35 40 40 45 45 50 50 0 500 1000 1500 2000 2500 3000 0 500 1000 1500 2000 2500 3000 Frequency[MHz] Frequency[MHz] Lo-Band Port S21 Hi-Band Port S31 0 Insertion Loss 0 Insertion Loss
#include <stdint.h> #include "stm32f3xx.h" // delay loop without using a timer // for 48MHz, Latency 1, gcc optimizer enabled void delay_ms(uint32_t msec) { for (uint32_t j=0; j<6000UL*msec; j++) { __NOP(); } } // Change system clock to 48 MHz using 8 MHz crystal // Called
4 1–1 1 1⁄2 170 320 375 — — — -5 1–2 2 — 525 600 — 600 — -6 1–2 2 240 520 480 — — — -7 1–4 3 — 950 900 — 600 — -8 1–4 3 400 800 550 — — — *Complete part # must include series # PLUS the dash # Physical Parameters Inches Millimeters Length 0.374 to 0.414 9.50 to 10.51 Diameter 0.216 to 0.256 5.48 to 6.35 Lead Size AWG #24 TCW 0.0185 to 0.0215 0.47 to 0.55 A 0.12 Max. 3.05 Max. B 1.10 Min. 28.0 Min. Impedances measured on HP 4191A Impedance Analyzer. High resistivity ferrite material eliminates the need to insulate windings. LeadWire Plated copper Actual
A 1 VCCA VCCB 16 12 CBUS0 USB_DEBUG_DP 1 4 USB_DEBUG_DP_C 4 ID 2 15 11 L104 5 3 1DIR 1OE# 14 5 CBUS1 D D D 3V3OUT MCZ1210AH900L2T GND 4 2DIR 2OE# 13 14 CBUS2 P N N 9 4 3 J102 S S 3 UART1_RX 5 1A1 '0'-
Unit SFH 229 SFH 229 FA Fotoempfindlichkeit Spectral sensitivity VR = 5 V, Normlicht/standard light A, S 28 (≥ 18) — nA/Ix T = 2856 K, VR = 5 V,λ = 950 nm, Ee= 1 mW/cm 2 S — 20 (≥ 10.8) A Wellenlänge der max. Fotoempfindlichkeit λS max 860 900 nm Wavelength of max. sensitivity Spektraler Bereich der
characteristics PARAMETER SYMBOL CONDITION MIN. TYP. MAX. UNIT REMARK Input low current IL No pull up or 1 1 A pull down No pull up or Input high current IIH pull down 1 1 A Tri state leakage current IOZ 10 10 A Logic input low voltage VIL CMOS 0.3VDD V Note 1 Schmitt input low voltage VSIL CMOS 0.3VDD V Note
following table. (It is usually required to measure under the following condition. condition:If=130mA,Ta=25ˆʶ2ˆ) Parameter Symbol Min. Typ. Max. Unit Remark LED voltage V L ʵ (22) ʵ V LEDcurrent range V L ʵ (130) ʵ mA Value for one channel Number ofcircuit channel ʵ (2) ʵ [Note 1] Lamp powerconsumption
Abgleichschritt eine einfache 5-W-Kfz-Glühlampe gut geeignet. M MitdemDrehimpulsgeberistderAusgangsstromauf0,300 A 3 x1 (±0,5 mA) einzustellen. M3 6 ZumAbspeichern des eingestellten Wertes wird die „Enter“- x5 Taste kurz betätigt, sobald im Display „Memory“ angezeigt wird. Abgleichschritt4 IndermittlerenDisplayzeileerscheintnun1,900Aundrechts
To 47 Z = I - 40 Sb_a.z = Sb(i + 1) Next Shiftout Dat , Clk , Sb_a , 1 , 8 End If If P(3) > 32 Then For I = 32 To 39 Z = I - 32 Sb_a.z = Sb(i + 1) Next Shiftout Dat , Clk , Sb_a , 1 , 8 End If If P(3) > 24 Then For I = 24
Lastabwurf beim Betreib einer HV-Batterie HV+ ~900A Gleichstrom Batterieprüfstand ~400V Gleichspannung 15V 0V Funktionsgenerator C 5V di/dt G IGBT Treiber E 0V IC GND HV-
SKT 100 I = 175 A (maximum value for continuous operation) VRSM V RRM,V DRM TRMS V V TAV= 100 A (sin. 180;cT = 85 °C) 500 400 SKT 100/04 D 900 800 SKT 100/08 D 1300 1200 SKT 100/12 E 1500 1400 SKT 100/14 E 1700 1600 SKT
CHR$(32) 109 REM - MOVEMENT 110 LOCATE B,C:PRINT CHR$(138) 120 LOCATE X,Y:PRINT CHR$(128) 150 GET A 155 REM 158 IF A<>0 THEN @ X,Y:? CHR$(32) 160 IF A=54 THEN X=X+1 161 IF A=51 THEN X=X+1:Y=Y+1 162 IF A=56 THEN Y=Y-1 163 IF A=11 THEN Y=Y-1 164 IF A=57 THEN X=X+1:Y=Y-1 165 IF A=55 THEN X=X-1:Y=Y-1 166 IF A=52 THEN X=X-1 167 IF A=49 THEN X=X-1:Y=Y+1 168 IF A=50 THEN Y=Y+1 170 IF A=27 THEN END 172 IF A=0 THEN GOTO 150 173 @ 0,4: ? " " 174 REM 175 LIMIT X,14,22 176 LIMIT Y,10,20 177 F=A((Y-10)*9+(X-14)) 178
V/m
1000
900
800
700
600
500
400
300
200
100
0
e-field (f=3700) [1]
Component Abs
Frequency 3700 MHz
Phase 0°
Cross section A
Cutplane at Y 0.000 mm
Maximum on Plane (Plot) 20489.1 V/m
Maximum (Solver) 28803.4 V
DC CURRENT GAIN vs.
COLLECTOR CURRENT
900
800
VCE=6.0 V
700
Pulsed
600
hFE-DC Current Gain
500
400
300
200
100
0
0.01 0.02 0.05 0.1 0.2 0.5 1 2 10 20 50 100
IC-Collector Current-mA
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