1/3N LITHIUM CELL + 10uF C1 L1 APPROX. 3uA CURRENT DRAW APPROX 5 YEARS OPERATION +3v +3v +3v C 4.7M R1 1M R7 OUTPUT SINKS B E CURRENT WHEN PUMP 22M IS RUNNING MOUSER 0.76V R3 OUT+ 434-03-104J 22K 470pF 0.1uF R2 C4 C C6 5 OUT- B 1 2N3904 100mA MAX 0.1uF E Q1 2 D 100mH 4 4148 G L1 C3 _ 1 ZXM61N02F 0.75V 3 + S Q2 LMC7215 D1 5 4.7M D U1 0.1uF R6 1.0uF 1.5M 0.1uF 220K C7 MUST USE C2 R4 C5 R5 UNSHIELDED INDUCTOR G S APPROX 0.10 AMPS PUMP MOTOR X100 10mV PEAK SENSITIVITY DRAWN BY: DAVE JOHNSON CURRENT NEEDED DAVID JOHNSON AND ASSOCIATES
PIIC2010 PIIC2011 PIP305 3 4 PIP306 PR02 PR11 41 IN OUT 3.3VV P I I C 2 0 2 GND PIIC2019 5VV 5 6 10 2.2M P0 D C+ C55 0 I0 I2 VCCA VCCB 12 Header 3X2 P0 C66 N C0 47u 0 C77 I0 C88 I0 C100 TXB0108PWR 10 C11 01 VR1R R0 100n G 100n 10n C A TL431 R13 1u 1u 1 C 10K Power output GND GND A P I V R 1REF3 G3 M N R2
Source Leak Current ISO VGS = –3 V – 0.5 10 A Saturated Drain Current ISS VDS = 2 V, VS = 0 V 15 40 70 mA Gate to Source Cut off Voltage V GS (off) VDS = 2 V, IS= 100 A –0.2 –0.7 –2.0 V Transconductance gm VDS = 2 V, IS= 10 mA 40 55 – mS Noise Figure NF VDS = 2 V, IS= 10 mA – 0.35 0.45 dB f = 12 GHz Associated
badly, first for some time PWM at $(ff) ; then Sine uncorrelated to frequency of Timer2 .include "m169def.inc" .def temp = r16 .def pow = r17 .def ACount = r18 .def BCount = r19 .def PCount = r20 .def state= r21 .def speed = r22 .def table = r0 ; Z points here, readout of table .org 0x0000 rjmp main
component from step 2 is: C T 1 nF R = 49.9 k: T (103) 3. AVERAGE LED CURRENT Solve for RSNS: V 100 mV R SNS= SNS = = 0.1: ILED 1A (104) Assume R CSH = 12.4 kΩ and solve for HSP: I x R xR 1A x2.4 k: 0x1: R HSP= LED CSH SNS= = 1.0 k: 1.24V 1.24V (105) The closest standard resistor forSNS is actually 0.1Ω
(VOS ) to 2mV and 10mV max. Intended for low voltage small signal applications, the ALD110800/ • Positive, zero, and negativGS(th)tempco ALD110900 features Zero-Threshold ™ voltage, which reduces or elimi- • Low
WARRANTY VOID IF SEAL REMOVED
DSE1700A
P/N 104-506929-301
S/N 6383049732
DATE 1998.09
FR 0 IMO A
3306 CYL, 16 HEADS, 63 SEC/T, 1706.2 MB
03D 71049732
WARNING
1. DELICATE EQUIPMENT. HANDLE WITH CARE.
2. WARRANTY VOID IF SEAL REMOVED.
12V 250mA/5V 480mA (IDLE)
12V 500mA/5V 480mA (SEEK)
NEC Corporation L2
NEC MADE IN THE PHILIPPINES
, Fig.1 V OH 2) tpi 5/0 <po< tpi 6/0 t 0.1 V OL 0 1) t 2) t 0.1 1 10 102 103 104 105 td po 21583 E - Irradiance (mW/m²) e Fig. 1 - Output Active Low Fig. 2 - Pulse Length and Sensitivity in Dark Ambient www.vishay.com Document Number: 81598 2 Rev. 1.3, 05-Jul-10 TSOP752..W, TSOP754
f) Silizium-Miniplast-Transistoren
Typ Maximale Verlustleistung P in mW Maximaler Kollektorstrom Ic in mA Maximale Kollektorspannung Ucem in V Verwendungszweck Bauform
SC 206 200 100 15 NF-Transistor 19
SC 207 200 100 15 NF-Transistor 19
SF 215 200 100 15 HF-Transistor
Analog output digital I/O Input 2 4-20 mA, 200 Ω single-end- 0 to 24 Vdc input, or 1 ed analog input 10 bit ±10 Vdc, 100 kΩ or 0-20/ 26 Digital I/O 3 to 24 Vdc, 240 mA max Analog 4-20 mA, 200 Ω single-end- output digital I/O 8 0 to 24 Vdc,
is correct t5 Janua1'Y1959 TM 9":"9505-2-35 TECHNICAL MANUAL} H E A D Q U A R T E R S, D E P A R T M E N T OF T H E A R M Y No. 9-9505-2-35 WASHINGTON 25, D. C.,26 January 1959 ORDNANCE MAINTENANCE: MEGACYCLE METER 8898466 Paragraphs Page CHAPTER 1. INTRODUCTION Section I. General ~ _ 1-4 2 II. General
expose n2,5 con en s o wa er. u 4 Sys em Li/SOC 2 n2,0 56 Nennspannung 3,6 V p V 234 1: 330 Ω ~10 mA 0,75 Ah Nennkapazi ä 0,95 Ah Wei ere Sicherhei s- S1,5 3 1 2: 1,0 kΩ ~3 mA 0,90 Ah Nenns rom 1 mA hinweise siehe Sei e 4 in 3: 3,3 kΩ ~1 mA 0,95 Ah Maxima er Daueren ades rom 10 mA unserem Produk ka a og. 1,0 4: 10 kΩ ~0,3 mA 0,95 Ah 2 5: 33 kΩ ~0,1 mA 0,90 Ah Pu ss romfähigkei 20 mA 2 0,5 0 2 4 6 s 10 6:100 kΩ ~0,03 mA 0,85 Ah Anodenoberf äche 7,5 cm 0,0 Gewich 17 g 0,1 1 10 102 103 104 10 5 Vo umen 5 cm 3 Zei /S unden
9,36⋅10 cm 9,36⋅10 mm 9,36⋅10 µm 0,00936 km 9,36 m 936 cm 936⋅10 1mm 936⋅104 µm 81,40⋅10-5km 81,40⋅10 -2m 81,40⋅10 mm 4 -7 -4 -1 81,40⋅10 µm 8140⋅10 km 8140⋅10 m 81,40 cm 8140⋅10 mm 8140⋅10 µm 0,0008140 km 0,8140 m 814,0 mm 5⋅10-6km 5⋅10 -3m 5⋅10-1 cm
Tracker Datei Bearbeiten Video Track Koordinaten Fenster Hilfe Masse A m 1.000 kg Schritt 19: x -0,318 m y -1,305E-3 m r 0,318 m -179,8° 180 170 160 150 140 130 120 110 100 0 0,1 0,2 0,3 0,4 0,5 0,6 t (s) Masse A (t, θ) t=0,634 s θ=180,2° Daten t (s) θ Masse A Position ausgewählt
expose n2,5 con en s o wa er. u 4 Sys em Li/SOC 2 n2,0 67 Nennspannung 3,6 V p V 345 1: 33 Ω ~100 mA 3,7 Ah Nennkapazi ä 7,2 Ah Wei ere Sicherhei s- S1,5 3 2 3: 330 Ω ~10 mA 6,7 Ah Nenns rom 3 mA hinweise siehe Sei e 4 in 1 4: 1,0 kΩ ~3 mA 7,2 Ah Maxima er Daueren ades rom 100 mA unserem Produk ka a og. 1,0 5: 3,3 kΩ ~1 mA 7,1 Ah 2 6: 10 kΩ ~0,3 mA 6,9 Ah Pu ss romfähigkei 300 mA2 0,5 0 2 4 6 s 10 7: 33 kΩ ~0,1 mA 6,2 Ah Anodenoberf äche 30 cm 0,0 Gewich 50 g 0,1 1 10 102 103 104 105 Vo umen 26 cm 3 Zei /S unden Tempera
- Daten per USART (115kB) beim Master aufgezeichnet - M (= sen_byte[ARRAY_LEN])=> das was der Master an den Slave sendet - S (= rec_byte[ARRAY_LEN])=> das was der Master vom Slave empfaengt M 0;0;200;0;0;0;0;0;73;3;1;0;33;88;11;19;1;0;2;19;232;195; S 0;0;
Table 1. Current Consumption by the AVR Controller in Each Mode Mode Typical Max Active 4 MHz, 3.3CC 4 mA 6.0 mA Idle 4 MHz, 3.3CC 1.8 mA 2.0 mA Power-down 4 MHz, 3.3 V < 1.0 µA 2.0 µA CC Power-save 4 MHz, 3.3 V < 4.0 µA 6.0 µA CC Calculation Given the frequency of the watch crystal, the user can determine
500 80 0.20 @ 50 V 388X 3.8 2500 550 0.30 @ 50 V 389X 3.8 200* – 0.20 @ 5 V Test Conditions IF= 1 mA IF= 50 mA V R 10 V f = 100 MHz IR= 250 mA F = 20 mA IF= 10 mA* IF= 10 mA* 90% Recovery I = 6 mA* R Note: 1. Package marking code is white. 4 Typical Parameters at T = 25°C (unless otherwise noted),
Parameter Symbol Conditions Unit min typ max Input high-level current IH VIN=V DD : CP, RS/LS, DISP, M, DIO0, DIO160, 1 µA DMIN, MODE VIN=V SS : CP, RS/LS, DISP, M, DIO0, DIO160, Input low-level current IL DMIN, MODE –1 µA Output high-level voltage VOH IO=–0.4mA : DIO1, DIO160 0.8VDD V DD V Output low-level
AX read operation by applying mode bits during dummy period. Mode bits consist of 8 bits, such as M7 to M0. Four cycles after address input are reserved for Mode bits in FRDIO execution. M7 to M4 are important for enabling this mode. M3 to M0 become don’t care for future use. When M[7:4]=1010(Ah),
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