NET SRAM1_nWE LOC = U21; ##NET SRAM1_nOE LOC = L19; ##NET SRAM1_nLB LOC = M19; ##NET SRAM1_nUB LOC = L20; #################### # PC like peripherie #################### # # VGA # ##NET VGA_RED<2> LOC = D6; ##NET VGA_RED<1> LOC = D7; ##NET VGA_RED<0> LOC = D9; ##NET VGA_GREEN<2> LOC = E11; ##NET VGA_GREEN
0.5A VFat 1A PART NUMBER (V) (A) (mV) (mV) IOUT (VIN – VOUT ) On Semiconductor ID(AVG ) = V MBR0520L 20 0.5 385 IN MBR0540 40 0.5 510 620 The only reasontoconsider a diode witha larger current MBRM120E 20 1 530 rating than necessary for nominal operation is for the MBRM140 40 1 550 worst-caseconditionofshortedoutput.Thediodecurrent
S1 OUTPUT FREQUENCY SCALING (f ) o S2 S3 PHOTODIODE TYPE L L Power down L L Red L H 2% L H Blue H L 20% H L Clear (no filter) H H 100% H H Green Available Options DEVICE TA PACKAGE − LEADS PACKAGE DESIGNATOR ORDERING NUMBER TCS230 −40⋅C to 85⋅ C SOIC−8 D TCS230D Absolute Maximum Ratings over operating
AmbientTemperature Fig. 4 LED Current Required toTrigger vs. LED PulseWidth 1.4 25 ) D ) 1.3 Z D L 20 NORMALIZED TO: Z A PWin≥ 100 µs L 1.2 M A O R ( O 1.1 F15 ( - F T - N T 1.0 R 10 N R R U R 0.9 C C E R G 5 E I G 0.8 R I T T 0 0.7 1 2 5 10 20 50 100 NORMALIZED TO T A = 25∞C LED TRIGGER WIDTH - PW
－ VDD-10.0 V DD+0.3 V Input Voltage V IN － -0.3 V DD+0.3 V Operating Temperature T OP Excluded B/L -20 70 ℃ Storage Temperature T ST Excluded B/L -30 80 ℃ Storage Humidity HD Ta＜40 ℃ - 90 %RH PC2004LRU-CWA-HDHQ Rev.0 (DK) Page4 1.4 DC Electrical Characteristics V DD = 5.0 V ± 10%，V =SSV，Ta = 25℃ Item
flag while(!RFIDTimerFlag); // Wait for next edge if(RdTime > U2270_ShortL-20 && RdTime < U2270_ShortH+20){return 1;} else {return BitErr;} // Un-paired short time between two long times } else if(RdTime > U2270_LongL && RdTime < U2270_LongH+30)
/ off Time vs. Collector Current 110 100 0 A=0.25mm e 90 r C 80 o c 70 s l 60 C e 50 t 40 e R 30 l 20 C I 10 0 –0.5–0.4–0.3–0.2–0.1–0.0 0.1 0.2 0.3 0.4 0.5 96 12007 s – Displacement ( mm ) Figure 13. Relative Collector Current vs. Displacement TCST110. up to TCST230. Vishay Telefunken Dimensions of
output to external coupling 8 VOIF capacitor(high-pass) 16 TUNE Electrical tuning/AFC output L L L L L 20 V OAF (dB) 0 2 S+N 2 -20 1 1 Noise -40 -60 -80 106 105 10-4 103 102 1: Mute ON EMF (V) 2: Mute OFF Fig. 2 Input sensitivity L L L L L L HANGZHOU SILAN MICROELECTRONICS JOINT-STOCK CO.,LTD 4 Silan Semiconductors
V 2.0 GP2D120 −distance)on e e L=6cm t t o 1.6 o 1.6 L=8cm t L=10cm t t t L=10cm u 1.2 o 1.2 g g L=20cm l a n 0.8 L=20cm n 0.8 L=30cm A A 0.4 0.4 L=30cm 0 0 −20 −10 0 10 20 30 40 50 60 70 80 90 −5 −4 −3 −2 −1 0 1 2 3 4 5 Detection distance X (cm) Ambient temperature a (°C) Application Circuits NOTICE
= 〉 15 V R = 1 k 〉 13 〉 13.5 V V = 〉 5 V L 〉 3.5 〉 3.7 CC VCC = 〉 15 V 80 115 O Output current R L 20 mA VCC = 〉 5 V 50 75 SC Short-circuit current VCC = 〉 15 V 150 mA RO Output resistance Open loop 12 † Full range = 0⋅C to 70⋅C for C suffix and –40⋅C to 85⋅C for I suffix power supply THS4061C/I, PARAMETER
SRD Antenna ISM 868 MHz versions PART Nr. DESCRIPTION Turns D L mm. ENAM. WIRE D 190008 9,5 6 20 1 L 20 mm N° 190008 ANTENNA IN FREE SPACE ON GROUND PLANE. Fig. 1 PCB
Table 2-0006/2128 Data Retention SpecificationsI PARAMETER S MINIMUM MAXIMUM UNITS Data Retention L 20 – Years Erase/Reprogram Cyclps 10,000 – CyTable 2-0008/2128 is E S U 3 Specifications ispLSI 2128/A Switching Test Conditions Input Pulse Levels GND to 3.0V Figure 2. Test Load Input Rise and Fall Time
X_U9.C24 is undefined ERROR -- Model L used by X_U9.L10 is undefined ERROR -- Model L used by X_U9.L20 is undefined ERROR -- Model L used by X_U9.L30 is undefined ERROR -- Model L used by X_U9.L40 is undefined ERROR -- Model L used by X_U9.L11 is undefined ERROR -- Model L used by X_U9.L21 is undefined
i Operation r T 15 V S5V C 80 o R L100W o n c 70 s u l 60 / 10 C o e 50 r t 40 u ton e – R 30 f 5 l 20 to toff C /n I 10 to 0 0 0 2 4 6 8 10 –0.5–0.4–0.3–0.2–0.1–0.0 0.1 0.2 0.3 0.4 0.5 96 12006 s – Displacement ( mm ) 95 11086 IC– Collector Current ( mA ) Figure 10. Turn on / off Time vs. Collector
1 and 2) Normal operation L L L L H L H L H H H L H L H H H H H H Open load Channel 1 (3) L X Z X L20) H X H X H Channel 2 (4) X L X Z L15) X H X H H Overtemperature both channel L L L L H X H L L L H X L L L Channel 1 (3) L X L X H H X L X L Channel 2 (4) X L X L H X H X L L L = "Low" Level X = don
gehörigen Signallagen Z : Impedanzen der Einzelleiter N durch den Pressvorgang FH-Giessen/Thüringer IMP_L20Aund dazwischen liegende Prepregs bestimmt, was enge Toleranzen erschwert. Daher wird die edged-coupled Anordnung i.d.R. bevorzugt (Abb.). Für praktische Werte des Leiterbahnabstandes s sowie der Lagenabstände
onsemi.com 4 NCP1200 60 11.70 100 kHz 50 11.60 ) 60 kHz ▯ 40 )11.50 ( ( G F A 30 O11.40 A C 40 kHz E V L 20 11.30 10 11.20 −25 0 25 50 75 100 125 11.1−25 0 25 50 75 100 125 TEMPERATURE (⋅C) TEMPERATURE (⋅C) Figure 3. HV Pin Leakage Current vs. Figure 4. V OFF vs. Temperature CC Temperature 9.85 900 100 kHz
L L: 1:L 1:L 2:L : 8:L 21:L 1:L 2 1:L 2 1 2:L 10:L 1 : : : : 8:L 21:L 2:L : : 2:L : L X 1 2 2 1 9:L 20:L L 2 L 1 8 9 0 1 2 3 4 K A 1:L 1 2 4:L 2 4:L e 10:L 19:L A K K 1 1 1 1 1 1:L A i : : 9:L 20:L 2:L 1:L 1:L 1:L 1:L 1:L 1:L 11:L e 1:L 1:L 2 161L 11:L 18:L L : L : L L 1:L r 2:L : 15:L A K K 1 2 1 5:
OUTPUT SWING vs FREQUENCY 3 32 Both Inputs ) 28 ) 2 |b1| +b2I | ( G = 1, 10 A One Input e 24 ( u n 1 l 20 G = 100 r Over-Voltage m u A s 0 Over-Voltage Protection a 16 i Normal e G = 1000 t Protection Operation o 12 u –1 - I a 8 One Input P –2 4 Both Inputs 0 –3 –45 –30 –15 0 15 30 45 10 100 1k 10k 100k
OUTPUT SWING vs FREQUENCY 3 32 Both Inputs ) 28 ) 2 |b1| +b2I | ( G = 1, 10 A One Input e 24 ( u n 1 l 20 G = 100 r Over-Voltage m u A s 0 Over-Voltage Protection a 16 i Normal e G = 1000 t Protection Operation o 12 u –1 - I a 8 One Input P –2 4 Both Inputs 0 –3 –45 –30 –15 0 15 30 45 10 100 1k 10k 100k
IRL2203NS/L 600 15V J ID m TOP 24A ( g500 42A V L DRIVER e BOTTOM 60A DS E e400 h RG D.U.T + n I - DD A l 20V AS v300 GS p 0.01 A s u Fig 12a. Unclamped Inductive Test Circuit P200 l n S100 V(BR)DSS , S p E 0 25 50 75 100 125 150 175 StartingJT , Junction Temperature ( C) Fig 12c. Maximum Avalanche Energy
voltage range 4.75 9.0 4.75 9.0 V CC Supply current quiescent 6 8 7 10 mA Supply current—activated R L 20 k 11 13 12 15 mA PD Quiescent power dissipation 30 35 mW NOTES: 1. Frequency determining resist1r R should be between 2 and 20 k 2. Applicable over 4.75 V to 5.75 V. See graphs for more detailed information
CC m PHA,ENA=V CC A typ. – typ. m 40 B 4 O utu tON – N , C utputO n t O r e 30 c 3 r l c tO FF p l 20 O utu u 2 p e s g i s Ou tutO FF g 10 u 1 L t u O 0 0 0 1 2 3 4 5 6 7 0 10 20 30 40 50 60 Logic supply voltage,CC – mV Output stage supply current voltage,BB– V V o(sat) – I o Vo (sat)– I o 2.8 2.8
Unterschätz Epoxydharz von der Temperatur beim Aushärten nicht!!! Hab selber mal mit L20/H91 gearbeitet (Tropfzeit ~10min). Und der kocht regelrecht wenn man zu viel anrührt, und es nicht schnell genug verarbeitet. Das waren garantiert mehr als 40°C. Selbst bei "normalen" Harzsystemen mit
# Interface M68/i80 CONTACT When jumper link JP2 is Noritake Sales Office Tel Nos Function Set L L 20H-3FH 11 DB4 12 DB5 soldered, these inputs Nagoya Japan: +81 (0)52-561-9867 Brightness Set L H 00H-03H 13 DB6 14 DB7 change to i80 series CPU Canada: +1-416-291-2946 Set CG RAM Addr. L L 40H-7FH control
current without pulse shown) is identical except that the oscillator frequency is 2.4MHz. V 5V/DIV L 20mA/DIV VOUT 10mV/DIV VIN 4.2V 0.2µs/DIV 3465A F03a LED= 1.5mA 3 LEDs Figure 3a. Switching Waveforms (LT3465) V 5V/DIV L 20mA/DIV 10mV/DIV VIN 4.2V 0.1µs/DIV 3465A F03b 3 LEDs.2mA Figure 3b. Switching
VS= 12V E m 0.4 R50 – VA= GND U N 0.2 VINH = 2.4V C40 E E V = 0.8V R 0 A30 IL U K C E L –0.2 ISY– L20 P H U –0.4 IGND T10 V = 2.4V S I IH –0.6 S 0 –10 –0.8 –20 –1.0 –15 –10 –5 0 5 10 15 –40 –20 0 20 40 60 80 100 ANALOG INPUT VOLTAGE – Volts TEMPERATURE – °C Figure 13. Overvoltage Characteristics Figure
AmbientTemperature Fig. 4 LED Current Required toTrigger vs. LED PulseWidth 1.4 25 ) D ) 1.3 Z D L 20 NORMALIZED TO: Z A PWin≥ 100 µs L 1.2 M A O R ( O 1.1 F15 ( - F T - N T 1.0 R 10 N R R U R 0.9 C C E R G 5 E I G 0.8 R I T T 0 0.7 1 2 5 10 20 50 100 NORMALIZED TO T A = 25∞C LED TRIGGER WIDTH - PW
T A = 25°C, Unless Otherwise Specified (Continued) 1000 500 ) µ ( N E 200 R U C 100 F H - 50 E V L 20 10 10 20 50 100 200 500 1000 SWITCHING FREQUENCY (kHz) FIGURE 28. HIGH VOLTAGE LEVEL-SHIFT CURRENT vs FREQUENCY AND BUS VOLTAGE 9.0 150 UV+ V (D 120 D 8.8 , E ) A s L ( 90 O 8.6 E V T L D P A 60 U E
einer Energiesparlampe ist mir aufgefallen, daß die Induktivität stark temperaturabhängig ist. T L 20°C 178µH 23°C 190µH 50°C 300µH Wie es aussieht könnte man damit einen tollen Thermometer bauen... Ist das normal? Liegt es am Kernmaterial? Gruß
hallo ihr, ich habe eine einfache frage: mit welchem programmiergerät läst sich ein Atmega168L-20dip am einfachsten auslesen und kopieren und in einen neuen brennen ? danke für eure mühe
aber da ich kein elektroniker bin habe ich noch die frage KANN der galep 4 diesen baustein "Atmega168L-20dip" ? ich kenne mich mit den spezifischen ausdrücken zu wenig aus ! schöne weihnachten
L20/H91 Harz im Verhältnis 100:28 zieht sich beim Aushärten kaum zusammen. Härtet aber recht schnell aus (ca. 15min), weshalb er auch ziemlich warm wird
through an external resistor MBI5016CNS l Serial data in/parallel data out l Output current: 5-90 mA l 20MHz clock frequency SDIP24-P-300-1.78 Weight: 1.11g(typ) MBI5016CF MBI5016CF Product Description MBI5016, utilizing the most advanced silicon technology, is targeted for LED panel display. MBI5016 contains
voltage range 4.75 9.0 4.75 9.0 V CC Supply current quiescent 6 8 7 10 mA Supply current—activated R L 20 k 11 13 12 15 mA PD Quiescent power dissipation 30 35 mW NOTES: 1. Frequency determining resist1r R should be between 2 and 20 k 2. Applicable over 4.75 V to 5.75 V. See graphs for more detailed information
