;**** T I T L E R C 5 T I N Y L A M P *************************************** ;* ;* Title :RC5TinyLamp ;* Version :1.0 ;* Date :00.05.31 ;* Last updated :00.08.19 ;* Target :ATTiny22 ;* Crystal frequency :1Mhz intern oscillator ;* ;* Support
;**** T I T L E R C 5 T I N Y L A M P *************************************** ;* ;* Title :RC5TinyLamp ;* Version :1.0 ;* Date :00.05.31 ;* Last updated :00.08.19 ;* Target :ATTiny22 ;* Crystal frequency :1Mhz intern oscillator ;* ;* Support
;**** T I T L E R C 5 T I N Y L A M P *************************************** ;* ;* Title :RC5TinyLamp ;* Version :1.0 ;* Date :00.05.31 ;* Last updated :00.08.19 ;* Target :ATTiny45 ;* Crystal frequency :1Mhz intern oscillator ;* ;* Support
;**** T I T L E R C 5 T I N Y L A M P *************************************** ;* ;* Title :RC5TinyLamp ;* Version :1.0 ;* Date :00.05.31 ;* Last updated :00.08.19 ;* Target :ATTiny45 ;* Crystal frequency :1Mhz intern oscillator ;* ;* Support
2000kbps 11 11.5 mA I Supply current one channel 1000kbps 11.8 mA VDD 11 VDD_LC Supply current one channel 1000kbps 11.1 mA Max input Receiving at <0.1% BER 0 dBm RX Sensitivity at 0.1%BER (@2000kbps) -82 dBm SENS RX SENS
zum Hauptprogramm ; sendet einen Befehl an das LCD lcd_command: ; wie lcd_data, nur RS=0 push temp1 push temp2 mov temp2, temp1 swap temp1 andi temp1, 0b00001111 out PORTD, temp1 rcall lcd_enable andi temp2, 0b00001111 out PORTD, temp2 rcall lcd_enable rcall delay50us pop temp2 pop temp1 ret ; erzeugt
current value is 4A in the example. The instantaneous power is calculated by the oscilloscope on Channel M2. The area under M2 represents the switching energy which in this case is 32.6 uJ (noting that 1W = 1J/s). The maximum value of the current, minus the steady state current is equal to the reverse recovery
3 2 9 1 5 O C J 1 2 3 4 5 4 4 0 1 2 3 4 5 6 7 5 1 7 1 7 A A A A A A A A + I I M A I A 1 2 9 0 D D 1 V 1 F + 0 4 V C 2 2 + I 1 1 2 I _ + K M L D 4 0 C V C 1 1 1 2 + 1 0 C 1 5 1 2 0 1 2 3 4 5 6 7 0 1 2 3 4 5 6
KM416V1204C KM416C1004C KM416C1204C -45 100 150 100 150 mA CC1 Don′t care -5 90 140 90 140 mA -6 80 130 80 130 mA Normal 1 1 2 2 mA CC2 L Don′t care 1 1 1 1 mA -45 100 150 100 150 mA CC3 Don′t care -5 90 140 90 140 mA -6 80 130 80 130 mA -45 110 110 110 110 mA CC4 Don′t care -5 100 100 100 100 mA -6 90 90 90 90 mA CC5 Normal Don′t care 0.5 0.5 1 1 mA L 200 200 200 200 uA -45 100 150 110 150 mA CC6 Don′t care -5 90 140 90 140 mA -6 80 130 80 130 mA CC7 L Don
and this process must beyond at least 1~10ms to ensure RHT03 could detect MCU's signal, then MCU will pulls up and wait 20-40us for RHT03's response. When RHT03 detect the start signal, RHT03 will pull low the bus 80us as response signal,
communication between MCU and AM2302 begins, MCU will pull low data-bus and this process must beyond at least 1~10ms to ensure AM2302 could detect MCU's signal, then MCU will pulls up and wait 20-40us forAM2302's response. When AM2302 detect the start signal, AM2302 will pull low the bus 80us as response signal
Voltage 1000 10000 OPERATION IN THIS AREA LIMITED BY R DS(on) ) ( n100 ) r ° ( u TJ= 175 C n000 10us C e a u r 10 C e i 100us r ° r v TJ= 25 C , e D100 , 1 I 1ms D IS TC= 25 C 10ms TJ= 175 C V GS = 0 V Single Pulse 0.1 10 1 10 100 0.0 0.4 0.8 1.2 1.6 2.0 2.4 VSD ,Source-to-Drain Voltage (V) VDS , Drain-to-Source
uS +/-.15 uS 1. Set 8020 as follows: 5.00E 3 50.0E-6 50.0 uSec +/-1.5 uS 500E 0 500E-6 500 uS +/-15 uS CONTROL POSITION 50.0E 0 5.00E-3 5.00 mS +/-.15 mS Frequency 2.000MHz 5.00E 0 50.0E-3 50.0 mS +/-1.5
Model No. EC11E15244B2 Structure Vertical Actuator configuration Flat Actuator length 20mm Torque 10±7mN·m Number of detent 30 Number of pulse 15 Operating direction Vertical Push-on switch With Travel of push-on switch 1.5mm Operating life 15,000 cycles Minimum packing unit (pcs.) 1,200 Operating temperature
Model No. EC11E15244B2 Structure Vertical Actuator configuration Flat Actuator length 20mm Torque 10±7mN·m Number of detent 30 Number of pulse 15 Operating direction Vertical Push-on switch With Travel of push-on switch 1.5mm Operating life 15,000 cycles Minimum packing unit (pcs.) 1,200 Operating temperature
modules includes ultrasonic transmitters, receiver and control circuit. The basic principle of work: (1) Using IO trigger for at least 10us high level signal, (2) The Module automatically sends eight 40 kHz and detect whether there is a pulse signal back. (3) IF the signal back, through high level , time
input voltage Feedback -15 ～+15 Test -1.0 ～Vdd+0.25 IIN DC input current ±10 mA IOUT DC output current ±25 mA IDD Supply current +25/-150 mA Power dissipation in still air, 5Sec 1200 PD Continuous 350 mW TSTG Storage temperature -55 ～125 ℃
0.1 10 Tj = 25 C 0.01 Tj = 100C 1 10 100 1 1.0 10 100 -dIF/dt (A/us) -dIF/dt (A/us) Fig.6. Maximum I at T = 25˚C and 100˚C. Fig.8. Maximum Q at T = 25˚C rrm j s j Transient thermal impedance, Zth j-mb (K/W) 10 1 0.1 t 0.01 PD t D = T T t 0.001 1us 10us 100us 1ms 10ms 100ms 1s 10s pulse width, tp (s) BYV29 Fig.9. Transient thermal impedance Z th j-mbf(tp) September 1998 3 Rev 1.300 Philips Semiconductors Product
for it directly, Ollendorf produced an expression for finding the sequence of overtone resonances. (1) 2πf J0(jx) H (0x) 2mπ p c = (1) 2ℓ 2πr , m = 1, 2, 3, . . . . . (1.4) √ J1(jx) H (1x) π D where x = m 2 ℓ , and m is the overtone number (putting m=1 corresponds to the first SRF). The quantities within
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