VDD1 = 2.4 - 3.5V,AT= +25°C) Symbol Parameter Min. Typ. Max. Unit Condition tCYC8 System cycle time 300 - - ns tAS8 Address setup time 0 - - ns tAH8 Address hold time 0 - - ns tDS8 Data setup time 40 - - ns tDH8 Data hold time 15 - - ns tCH8 Output disable time 10 - 70 ns CL = 100pF tACC8 RD access time
product is the BTS 734L1). For minimized R the two low-side switches are produced in S-FET logic level DS ON technology (the comparable standard product is the BUZ 100SL). Each drain of these three chips is mounted on separated leadframes (see Figure 1). The sources of all four power transistors are connected
JEDEC MS-012, 0.150 Narrow CD4528BCN N16E 16-Lead Plastic Dual-In-Line Package (PDIP), JEDEC MS-001, 0.300 Wide Devices also available in Tape and Reel. Specify by appending the suffix letter “X” to the ordering code. Connection Diagram Truth Table Inputs Outputs Clear A B Q Q L X X L H X H X L H X X L L
Mode Human Body Mode Pins V V V V DD SS DD SS LCD Driver 150V 150V 2000V 1500V LCM Digital Interface 300V 250V 3000V 3000V TST1/2/4 300V 300V 3000V 3000V LCM HV CBpins 300V 300V 3000V 3000V Interface VLCDIN 250V 300V 3000V 3000V V LCDOUT 300V 300V 3000V 3000V PWR/GND -- 300V -- 3000V According to UltraChip's
chipKIT, devices in life support and/or safety applications is entirely at chipKIT logo, CodeGuard, dsPICDEM, dsPICDEM.net, the buyer’s risk, and the buyer agrees to defend, indemnify and dsPICworks, dsSPEAK, ECAN, ECONOMONITOR, hold harmless Microchip from any and all damages, claims, FanSense, HI-TIDE
on and charges the external inversely proportional to the current voltage,V withathresholdvoltage. DS(ON), capacitance again. Charging current is flowing into the CONTROL pin. The High drain current causes V DS(ON)to shown with a negative polarity and error signal across E is filtered by an exceed the
Example: ADMUX = 0xED (ADC3 - ADC2, 10× gain, 2.56V reference, left adjusted result) Voltage on ADC3 is 300mV, voltage on ADC2 is 500mV. ADCR = 512 × 10 × (300 - 500) / 2560 = -400 = 0x270 ADCL will thus read 0x00, and ADCH will read 0x9C. Writing zero to ADLAR right adjusts the result: ADCL = 0x70, ADCH
von der Kennliniengleichung des J-FET’s aus, I ≈ β ⋅(V −V ) ⋅(1+λ ⋅V ) , V ≥ (V −V ) , (26) D GS T DS DS GS T die für den Strom-Sättigungsbereich gilt. Die Steilheit oder Transconductance erhält man durch Differentiati- on nach V GSDer Term (1 + λ⋅V ) DSll hierbei unberücksichtigt bleiben: ∂D S = g m
edge) 10 tSH Select hold time (SCK falling edge to nSEL rising edge) 10 tSHI Select high time 25 tDS Data setup time (SDI transition to SCK rising edge) 5 tDH Data hold time (SCK rising edge to SDI transition) 5 tOD Data delay time 10 Timing Diagram tSS tSHI nSEL ~ ~ CH tCL t OD tSH SCK ~ ~ DS tDH SDI
, 3.5 5 mA V STBY= V RFmin V DIS> 1.85 V or DELAY I q Residual consumption > 3.5 V or LINE< 1.25 V 300 400 µA or VLINE= Vclamp High-side floating gate-drive supply ILKBOOT VBOOT pin leakage V = 580 V 5 µA current BOOT ILKOUT OUT pin leakage current V = 562 V 5 µA OUT Synchronous bootstrap rDS(on) V LVG
Suitable for building applications compliant with the following radio frequency regulations: ETSI EN 300 328, EN 300 440, FCC CFR47 part 15, ARIB STD- T66 • Pre-programmed bootloader via UART • QFN32, QFN48 and WCSP34 package options Applications • Watches DS12166 - Rev 5 - June 2018 www .st.com For further
9 error fit polynominal ) 8 ( 7 i 5 i 4 n 3 o 2 s 1 r 0 a -1 c -2 e -4 s -5 o -6 r -7 e -8 -9 -10 300 400 500 600 700 800 900 1000 1100 1200 wavelength (nm) 30/08/2004 DS
data PTB 12 m fit polynomial (order : 9) / / 3.0x10-6 ( y v s -6 n 2.0x10 p e l -6 r 1.0x10 c p s 0.0 300 400 500 600 700 800 900 1000 1100 1200 wavelength (nm) 09/05/2001 DS
Industrial automation machinery Fanless and conduction-cooled design Industrial control system Withstand 300VAC surge input for 5 seconds Mechanical and electrical equipment Built-in active PFC function Electronic instruments, equipment -30~+70 ℃ working temperature or apparatus Output voltage and constant
Mainflinger DCF77-Senders herauszukitzeln, nutzt dieses Projekt DSP-Algorithmen in einem preiswerten dsPIC33- Controller. So wird das amplituden-und phasenmodulierte Signal gefiltert und demoduliert. Das Ergebnis ist ein sehr stabiles 10-Hz-Taktsignal. VonSteveMarchant(UK) DCF77-Empfänger stellen außerdem
RIGOL DS1102Z-E OSCILLOSCOPE 2 Channel 100MHz 1GSa/s
AUTO H 200us 1.000Sa/s D 0.0000000ps -21.8V
Horizontal
Period
Freq
Rise Time
Fall Time
Width
Width
Auto trigger mana!
Trig Level: -21.6 V
1 5.00 V 2 1.00 V
All Inputs 1MΩ 10pF 300V RMS CAT II
warning
Velocity Servomechanisms • Low R (ON) Typically 0.33Ω per Switch at 3A • Factory Automation Robots DS • TTL and CMOS Compatible Inputs • Numerically Controlled Machinery • No “Shoot-Through” Current • Computer Printers and Plotters • Thermal Warning Flag Output at 145°C • Thermal Shutdown (Outputs Off
C3906KT146(R,S) Q1065 RY107 P P POLYPROPYLENE FILM CAPACITOR -56.0 1 D 0 K 0 K 0 K - 2 0 2 0 2 0 981-2A-5DS-SP7 6 S SEMICONDUCTIVE CERAMIC CAPACITOR R 1 R 1 R 1 RY107 0 5 Y - 981-2A-5DS-SP7 R 2 0 0 K 3 K 7 K 8 K 9 K 0 - 1 2 0 0 0 2 0 2 0 2 0 2 8 R 1 1 1 1 1 1 1 1 1 1 9 TE101 K 0 R R R R R FR RY102 0 . 2 3
RIGOL DS1102Z-E OSCILLOSCOPE UltraVision 100MHz 1GSa/s MENU Horizontal Period Freq Rise Time Fall Time Width 2.00ms 6.00M pts D 0.00000000ps -21.8V Quelle CH1 Zähler AUS Clear Alle Messu AUS Vermessen Quelle Statistik AUS Period=20.08ms Freq=49.8Hz 1 5.00V 2 1.00V All Inputs 1MΩ//13pF 300V RMS CATII
RIGOL DS1102Z-E OSCILLOSCOPE UltraVision 100MHz 1GSa/s MENU Horizontal Period Freq Rise Time Fall Time Width 2.00ms 6.00M pts D 0.00000000ps -21.8V Quelle CH1 Zähler AUS Clear Alle Messu AUS Vermessen Quelle Statistik AUS Period=20.08ms Freq=49.8Hz 1 5.00V 2 1.00V All Inputs 1MΩ//13pF 300V RMS CATII
RIGOL DS1052E 2 Channel 50MHz 1GSa/s MENU RUN CONTROL Acquire Storage AUTO RUN STOP Measure Cursor Display Utility VERTICAL HORIZONTAL CH1 POSITION CH2 LEVEL MATH REF SCALE MENU MENU OFF 50% Vmax(1)= 2.68V Time 20.00ns 0.0000s CH1 1.00V X CH1 CH2 EXT TRIG 1M/215pF 300V RMS CAT I
RIGOL DS2072 DIGITAL OSCILLOSCOPE UltraVision 70 MHz 2 GSa/s
MENU
RIGOL STOP H 50.00us 1.000 GSa/s 700k pts D 327.40000us T 3.12 V
HORIZONTAL UTILITY
Freq=62.50kHz Vpp=14.40 V Freq=4.762kHz Period=16.00us Period=210.0us
1 = 10.0 V 2 = 20.0 V
23:54
All Inputs 1 MΩ // 300 V
://www.microchip.com/packaging 2012-2023 Microchip Technology Inc. anditssubsidiaries DS20002300E-page 51 MCP7951X/MCP7952X Note: For the most current package drawings, please see the Microchip Packaging Specification located at http://www.microchip.com/packaging DS20002300E-page 52 2012
specified: V = 5 IN SHDN pin is tied to V . IN Figure 7. Feedback Voltage vs Temperature Figure 8. R DS(ON) vs Temperature Figure 9. Current Limit vs Temperature Figure 10. R DS(ON) vs V IN 100 90 V = 10V 80 V = 5V IN ) IN ( 70 Y 60 C V IN3.3V E 50 I F 40 E 30 20 10 0 0 200 400 600 800 1000 LOAD CURRENT
RIGOL DS1104Z Plus OSCILLOSCOPE UltraVision 4 Channel 100 MHz 1GSa/s MENU WAIT H 500MSa/s D 3.8400000ms 6.00M pts Horizontal Period Freq Rise Time Fall Time +Width -Width Tx[HEX] 80 20 12 00 01 24 0F Polarity
RIGOL DS1104Z OSCILLOSCOPE UltraVision 100MHz 1GSa/s MENU Horizontal Period Freq Riss Time Fall Time Width -Width Kurve Rampe Ausgang EIN Frequenz 100kHz Amplitude 499.5mV Offset 0.000uV StartPhase 0.0° Period
RIGOL DS1054Z OSCILLOSCOPE UltraVision 50MHz 1GSa/s
T'D 20.0us 500MSa/s 120k pts D 54.800000us T 1.56V
Horizontal
Period
Freq
Rise Time
Fall Time
+Width
-Width
Coupling DC
BW Limit OFF
Probe 1X
Invert OFF
Volts
RIGOL DS1054Z OSCILLOSCOPE UltraVision 50MHz 1GSa/s
T'D 20.0us 500MSa/s 120k pts D 54.800000us T 1.56V
Horizontal
Period
Freq
Rise Time
Fall Time
+Width
-Width
Coupling DC
BW Limit OFF
Probe 1X
Invert OFF
Volts
product is the BTS 734L1). For minimized R the two low-side switches are produced in S-FET logic level DS ON technology (the comparable standard product is the BUZ 100SL). Each drain of these three chips is mounted on separated leadframes (see Figure 1). The sources of all four power transistors are connected
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