, NOV. 08, 2004 35 M X 2 6 L V 4 0 0 TABLE 12. AC CHARACTERISTICS ParameterStd Description TestSetup All Speed Options Unit tREADY1 RESET# PIN Low (During Automatic Algorithms) MAX 20 us to Read orWrite (See Note) tREADY2
F A S E R =1A (S : M Irr=0.2R*I IF 8.3ms 8.3ms E T 100 8.3ms T 2 E T G E Y n=10pcs G N 1cyc R R E R R S R V1.5 S R 50 K C O K C A D E A D P R R AVE:1.597us P R A 50 E 1 A R AVE:64.0A R R O E O F E0.5 F R 0 0 0 1
0.59 mA (max) IA Supply Current VA= 4.5V to 5.5V 0.78 1.2 mA (max) P Power Consumption VA= 3.0V 1.35 mW A V = 5.0V 3.91 mW A Power Down Mode (PD ) 1- 2-wire interface stopped and quiet. (SCL = SDA = A ). IPD1
Forward Current Relative Luminous Intensity IF = f(V F);T A = 25 °C IV V(2 mA) = f (IF);T A= 25 °C 102 OHL00838 10 2 OHL00839 mA I I V F IV(2mA) 1 green orange 10 green orange 1 10 0 10 10 -1 0 10 10 -2 -3 -1 10 10 0 1 2 1.4 1.6 1.8 2.0 V 2.2 10 10 mA 10 VF IF 6) Seite 15 Relative
wenn über die gesamte Systemlebensdauermitnichtmehrals10.000 Abschaltungen gerechnet werden muss. 9.1 NOT-HALT Der Hybrid-Motorstarter kann in eine NOT-HALT-Kette inte- griert werden. 1 24 V DC GND L1 L2 L3 N PE F1 2 L1L2 L3 US E R L ELR H5-.../500AC-... 2/4/ 6/ A S T S2 T1T2 T3 97 6 /9895 M R A S2 A1
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
TSicTMwill be transmitting temperature information and another IC in the system TM (most likely a mController) will be reading the temperature data over the ZACwire . 1.1 Temperature Transmission Packet from a TSic TM The TSic TM transmits 1-byte packets. These packets consist of a start bit, 8 data
Reading | ################################################## | 100% 0.02s avrdude: Device signature = 0x1e950f (probably m328p) avrdude: NOTE: "flash" memory has been specified, an erase cycle will be performed To disable this feature, specify the -D option. avrdude: erasing chip avrdude: set SCK frequency
X X V M M M M M M V M M M A R R A R R A R R A R R A R R A R R A R R A 1 2 3 4 5 6 7 8 9 1 1 1 1 1 1 1 1 18 1 2 2 2 2 2 2 2 2 2 2 3 3 3 HDMI IN Port1 RX21P 8 RX21M 8 HDMI_VCC H_MAIN_SCL H_MAIN_SCL 9 H_MAIN_SDA
information on the background of Federico and Shima- San, so we’ll start, Ralph, with you. Could you give us a brief summary of your background, your education, and what sort of jobs you had before coming to this project? Ralph Ungermann: Certainly. I grew up in Southern California. I’m a Berkeley graduate
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/Div Coarse
Unit [V]
1 2.00 V 2 200mV 3 100mV 4 100mV
Rise<800.0ns Fall<400.0ns Period=11.60us Freq=86.2kHz Duty=31.03%
All Inputs 1MΩ//13pF 300V RMS
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/Div Coarse
Unit [V]
1 2.00 V 2 200mV 3 100mV 4 100mV
Rise<800.0ns Fall<400.0ns Period=11.60us Freq=86.2kHz Duty=31.03%
All Inputs 1MΩ//13pF 300V RMS
owon Ready T:6.480us a b 193000 1 2 Δx: 5.180us 1/x: 193.1KHz x1: -5.160us x2: -10.340us 1 F: 96.71kHz 2 F: ? 1 Vpp: 5.313V M: 1.0us (500MS/s) Depth:10k 1 2.00V- 1.00div 5.58794Hz CH1:DC- 1.60V 2 2.00V- -2.00div Cursor Type Time Linie Typ None Window Main Line a b ab Source CH1 CH2
in options) it. 10. Display / Time base scaling strange behavior with 512k memory depth. Apply e.g. 1kHz signal, chose 512k memory depth, set time base to 80us/DIV and move the waveform to 500us/DIV: When you now change time base to 40uS/DIV the falling edge (which should be still in the middle of the
Berlin 9 Verstärkung +U B U A +U nutzbarer Bereich S UA V U e zur Verstärkung = ⋅ V =100000 Ue -0,15mV +0,15mV -US U B Betriebsspannung (5-20V) U S Sättigungsspannung (UB-0,7V) -UB Sättigung Liers - PEG-Vorlesung WS2000/2001 - Institut für Informatik - FU Berlin 10 5 Ableitung der Verstärkung R 2 U AV ⋅U e U AV ⋅ (U EU T) UT= R +R U A 1 2 U e R R R 2 1 U AV ⋅ U −E 2 U A B =R + R U E U R1+ R2 1 2 A U R U =V ⋅U −V ⋅B⋅U U = U ⋅(1+V ⋅B ) T 2 A E A E A V U A U A V 1 R1+ R2 VU= U = (1+V ⋅B )= (1+ ⋅B )= B = R E U A 2 V U ≈ 0Volt V
owon Ready T:9.480us a b 145000 1 2 Δx: 6.880us 1/x: 145.3KHz x1: -6.840us x2: -13.720us 1 F : 73.10kHz 2 F : ? 1 Vpp: 5.391V M: 2.0us (250MS/s) Depth:10k 1 2.00V- 1.00div 5.58794Hz CH1:DC- 1.60V 2 2.00V- -2.00div Cursor Type Time Linie Typ None Window Main a b ab Line Source CH1 CH2
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