L 0.4 0.4 V IN= 1.8V VIN= 2.5V 0.35 V ON/OFF 1.5V -8V 0.35 VON/OFF 1.5V -8V PW = 300us, D < 2% 0.3 PW = 300us, D < 2% T = 125 C 0.3 J O )0.25 ) 0.25 TJ= 125 C ( ( O 0.2 TJ= 25 C ,O 0.2 D D V0.15 V 0.15 T = 25 C J 0.1
base scaling strange behavior. When you apply e.g. 1kHz signal, set time base to 80us/DIV and move the waveform to 500us/DIV (bug only in 4/40k memory depth, 512k/1M/2M works fine): When you now change time base to 40uS/DIV the falling edge (which should
B N B N BN B N B N B N B N BN B N B N B N B N BN 1 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 M2 1 N I 1 3 2 3 2 3 2 3 2 3 2 3 2 3 2 3 2 3 2 3 2 3 2 3 2 3 2 N D 2 G W W W W W W W W W W W W W K K / / / / / / / / / / / / / 1 1 5 5 5
Discharge Drain (mA) (alkaline shown for comparison) Discharge Profile Temperature Effects on Capacity Constant Current Discharge Constant Current Discharge 1 mA 10 mA 100 mA 25 mA 250 mA 1000 mA 1.8 3500 3000 ) 1.6 h
RIGOL T'D H 200us 1.00GSa/s T D -600.000000us T 1 840mV Horizontal Period Freq Rise Time Fall Time +Width -Width Utility IO Setting Sound Language English Pass/Fail Record System Rise<34.0us Fall=82.0us Freq=***** 1 = 2.00 V 2 = 1.00 V
reti ;6 TC1 Capture reti ;7 TC1 Compare Match A reti ;8 TC1 Compare Match B reti ;9 TC1 Overflow reti ;10 TC0 Overflow reti ;11 SPI Transfer Complete Handler reti ;12 UART RX Complete reti ;13 UART Data Empty reti
current I V =0V 1 uA SD EN VINV ENV, Reverse current IREV VOUT=5V, Current 1 uA flow to IN V =V =5V, Main-FET ON resistance (1) RON IN EN 80 mΩ OUT=500mA VEN0V, Auto-discharge FET ON resistance RDCHG 65 Ω VINV OUT=5V
low-impedance drive to match to the crystal. It is an emitter follower, which means no voltage gain (V/V = 1) but provides current amplification. The Butler emitter follower is a good performing circuit for a high-frequency overtone operation. 11.2 Butler’s Emitter Follower Oscillator Operation ward. Let us
endif // Parameter to controll the Pedelec #define TIMEOUT_CADENCE 1000 // after 1s no signal we are inactive #define TIMEOUT_MS 3000 // 8s = 2.2m * 60*60s/1000m) = 7.92 s #define DIAMETER 2.224 // distance a wheel makes with 1 turn #define SPEED_MIN 6 // 6km/h below no cadence required
this does nothing. */ static void set_rx_mode(void) { uint8_t config; get_register(CONFIG, &config, 1); if ((config & _BV(PRIM_RX)) == 0) { config |= _BV(PRIM_RX); set_register(CONFIG, &config, 1); // the radio takes 130 us to power up the receiver. _delay_us(65); _delay_us(65); } } /** * Switch the
下降 7.5 V VCC_OVP VCC过压保护阈值 19 V VCC_CLAMP VCC钳位电压 23 V VCC 上升, ICC_UVLO VCC关断电流 33 50 uA VCC V CC_ON1V FOP10kHz, I CC VCC作电流 Load=100pF 1 2 mA FB 反馈 VFB_FALL FB 下降阈值电压 FB 下降 0.1 V VFB_HYS FB 迟滞电压 FB 上升 0.08 V VFB_OVP FB 过压保护阈值 1.6 V TON_MAX 最大导通时间 25 us TOFF_MIN 最小关断时间 4.5 us TOFF_MAX 最大关断时间 100 us 电流采样
Supply Operation - 2.7 to 3.6 volt for read, erase, and program operations • Latch-up protected to 100mA from -1V to Vcc +1V PERFORMANCE • High Performance - Fast access time: 50MHz serial clock - Fast program time: 1.4ms/page (typical, 256-byte per page) and 9us/byte (typical) - Fast erase time: 60ms/
64 Das Giralgeld Das Giralgeld 65 Geldmenge M1 Geldmenge M3 Zur Geldmenge M1 zählen das außerhalb des Bankensektors zirkulie- Die Geldmenge M3 beinhaltet neben der Geldmenge M2 noch weitere rende uneingeschränkt liquide Bargeld sowie täglich fällige
SIGLENT Stop M 50.0us/ Delay:340us f < 10Hz Sa 500Msa/s Curr 7.00Mpts Edge CH2 DC 1 10X 2.00V/ 0.0V 2 DC1M 10X 100V/ 0.0V 50.0us/ TRIGGER Type Edge Source CH2 Slope Rising Holdoff Close Coupling DC Noise Reject Off
line nop ;Added by DC to bring up to 1 us for 4 mHz clock nop ;Added by DC to bring up to 1 us for 4 mHz clock cbi PORTB,3 ;OE low to clock in data swap temp1 ;get lower 4 bits andi temp1,0b11110000 ; mask off lower 4 bits, make OE and RS low sbr temp1,OE ;OE high out PORTB,temp1 ;write lower 4 bits to LCD ; nop ; nop nop ;Added by DC to bring up to 1 us for 4 mHz clock nop ;Added by DC to bring up to 1 us for 4 mHz clock ; cbi PORTB,3 ;OE low to clock
RIGOL DS1102Z-E OSCILLOSCOPE UltraVision 100MHz 1GSa/s MENU STOP H 1.000GSa/s 100us 6.00M pts D -1.2500000ms Auto 1 0 1 0 Period Freq Rise Time Fall Time Width Width LowPassCH1 5.000mV 1.00M Sa/s 100Hz Period=60.00us Freq=16.1Hz 100V 5.00mV CH1 CH2
Supply Voltage V - 4.75 5.0 5.25 V DD Input Voltage VIH - 0.7VDD - - V VIL - - - 0.3DD V Output Voltage 1 VOH1 IOH1=-2mA VDD0.5 - - V VOL1 ICL1=4mA - - 0.4 V Output Voltage 2 VOH2 ICH2=-4mA VDD0.5 - - V (CL, RG, SHP, SHD) VOL2 IOL2=3mA - - 0.4 V Output Voltage 3 VOH3 ICH3=-8mA VDD0.5 - - V (H1, H2, H3, H4
Load Transient V =12V , V =5V , Load=2.5A to 5A , V IN2V , V OUT=5V , Load=0A to 2.5A , IN OUT 150mA/us 150mA/us CH1: VOUT CH1: VOUT /AC /AC 200mV/div. 200mV/div. CH4: IUT CH4: IUT 2A/div. 2A/div. 1ms/div. 1ms/div. V IN2V , V OUT=20V , Load=0A to 2.5A, VIN12V , V OUT =20V , Load=2.5A to 5A, 150mA/us 150mA/us CH1: VOUT CH1: VOUT /AC /AC 500mV/div. 500mV/div. CH4: IUT CH4: IUT 2A/div. 2A/div. 1ms/div. 1ms/div. Input Voltage Transient, Input Voltage Transient, V INV to 20V , V OUT =15V , Load=0A V INV to
*************************/ unsigned char rf12_data(void){ unsigned char status; RFM12_CS(0); delay_us(1); //let it respond status=GPIO_ReadInputDataBit(GPIOB,GPIO_Pin_14); //Speichert den Zustand von Pin12 am GPIOA in die 8-bit-Variable Status RFM12_CS(1); if(status) return 1; else return 0; } /*****
1 7, M 32 ▯ 1 31, M 2 4 1 127, first multiplies both inputs andrthen reduces their …, M 2 697259▯ 1, etc. product modulo P. Thus GF 2 ’ GF 2 x =P x . 38 An irreducible polynomial P of degree r > 0 Since
;**** 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
Range °C Soldering Temperature, for 10 seconds 300 (1.6mm from case ) Mounting torque, 6-32 or M3 srew 10 lbf in (1.1N m) Thermal Resistance Parameter Typ. Max. Units RθJC Junction-to-Case ––– 0.75 RθCS Case-to-Sink, Flat, Greased Surface 0.50 ––– °C/W
Range °C Soldering Temperature, for 10 seconds 300 (1.6mm from case ) Mounting torque, 6-32 or M3 srew 10 lbf in (1.1N m) Thermal Resistance Parameter Typ. Max. Units RθJC Junction-to-Case ––– 0.75 RθCS Case-to-Sink, Flat, Greased Surface 0.50 ––– °C/W
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