R/W RSD 1 2 S 1 2 DRS R / E T B 1 2S D R L L L S R L L L DVSS R S DS S C V F MC C C V COM1 COM128 F MC C C V R 0C C B OPEN OPEN D C ~C C ~C 2 S1 2 L MPU 1 64 1 64 K FS S H DIO1 DIO2 C D D S CR NT7107 DIO2 DIO1 P R (Master) DS1 CL2 CL2 CLK2 OPEN E DS2 M M NT7107 CLK1 OPEN V MSLK2
G G G G G G G G PA6 45 U$1 GM862GND 23 XTAL2 PA7 44 1 VBATT GND 2 3 VBATT N N N N N N N N GND 4 24 10 5 G G G G G G G G 6 XTAL1 PB0(SS) 11 7 VBATT GND/ADC 8 1 3 1 20 33 PB1(SCK) 12 9 VBATT CHARGE 10 U$2 34 PG0 PB2(MOSI) 13 11 EAR_HF+ EAR_MT- 12 43 PG1 PB3(MISO) 14 13 EAR_HF- EAR_MT+ 14 6 I D D D 18 PG2
diode p01 PDTA143ET Phi N SOT23 pnp dtr 4k7+4k7 t01 PDTA143ET Phi N SOT23 pnp dtr 4k7+4k7 01 Gali-1 MC AZ SOT89 DC-8GHz MMIC amp 12dB gain 010 SSTPAD10 Sil J - PAD-10 10pA leakage diode 011 SO2369R SGS R SOT23R 2N2369 02 BST82 Phi M - n-ch mosfet 80V 175mA 02 MRF5711L Mot X SOT143 npn RF MRF571 02 DTCC114T Roh N - 50V 100mA npn sw + 10k base res 02 Gali-2 MC AZ SOT89 DC-8GHz MMIC amp 16dB gain p02 PDTC143ET Phi N SOT23 npn 4k7+4k7 bias res t02 PDTC143ET Phi N SOT23 npn 4k7+4k7 bias res 03 Gali-3 MC AZ SOT89 DC-3GHz MMIC amp 22dB gain
F 2 n 1 , R16 C 4 LED5 LED4 LED3 LED2 LED1 IC4 3 10 a 3 10 a 3 10 a 3 10a 3 10a 3 1 1,2 kΩ n 1 1 9 b COM 8 9 b COM 8 9 b COM 8 9b COM 8 9b COM 8 VCC 3 , C P 7 c 7 c 7 c 7c 7c VCC OUT 4 P GND 2 P 5 d 5 d 5 d 5d 5d S 4 e 4 e 4 e 4e 4e TLE4905 L 2 f 2 f
F 2 n 1 , R16 C 4 LED5 LED4 LED3 LED2 LED1 IC4 3 10 a 3 10 a 3 10 a 3 10a 3 10a 3 1 1,2 kΩ n 1 1 9 b COM 8 9 b COM 8 9 b COM 8 9b COM 8 9b COM 8 VCC 3 , C P 7 c 7 c 7 c 7c 7c VCC OUT 4 P GND 2 P 5 d 5 d 5 d 5d 5d S 4 e 4 e 4 e 4e 4e TLE4905 L 2 f 2 f
other signals when reading and writ- ing data. A15 CS2 A14 CS1 PA 2 RS A13 CS0 A1 RS1 PA 1 R/W A0 RS0 MC6800 MC6821 LCD UNIT R/W R/W PA 0 E VMA E 8 2 PB0- PB7 DB 0 DB7 8 DB 0 DB7 D0- 7 LCD27-28 Display Unit User’s Manual 21 Dot-Matrix LCD Units b. Direct Connection to 8-Bit Microprocessor VMA 2 E A 15 MC6800 LCD UNIT A0 RS R/W R/W 8 DB0- DB7 D0- D7 LCD27-29 c. Interface with MC6805 Microprocessor A - A 8 DB - DB 0 7 0 7 MC6805 LCD UNIT C E 0 C 1 RS C 2 R/W LCD27-30 d. Interface with Z-80 Microprocessor D0- D7 DB 0 DB7 A0 RS 1 K A A Y 4 1 E A5 B 200PF Z80 A6 C LS138 LCD A7 G
other signals when reading and writ- ing data. A15 CS2 A14 CS1 PA 2 RS A13 CS0 A1 RS1 PA 1 R/W A0 RS0 MC6800 MC6821 LCD UNIT R/W R/W PA 0 E VMA E 8 2 PB0- PB7 DB 0 DB7 8 DB 0 DB7 D0- 7 LCD27-28 Display Unit User’s Manual 21 Dot-Matrix LCD Units b. Direct Connection to 8-Bit Microprocessor VMA 2 E A 15 MC6800 LCD UNIT A0 RS R/W R/W 8 DB0- DB7 D0- D7 LCD27-29 c. Interface with MC6805 Microprocessor A - A 8 DB - DB 0 7 0 7 MC6805 LCD UNIT C E 0 C 1 RS C 2 R/W LCD27-30 d. Interface with Z-80 Microprocessor D0- D7 DB 0 DB7 A0 RS 1 K A A Y 4 1 E A5 B 200PF Z80 A6 C LS138 LCD A7 G
other signals when reading and writ- ing data. A15 CS2 A14 CS1 PA 2 RS A13 CS0 A1 RS1 PA 1 R/W A0 RS0 MC6800 MC6821 LCD UNIT R/W R/W PA 0 E VMA E 8 2 PB0- PB7 DB 0 DB7 8 DB 0 DB7 D0- 7 LCD27-28 Display Unit User’s Manual 21 Dot-Matrix LCD Units b. Direct Connection to 8-Bit Microprocessor VMA 2 E A 15 MC6800 LCD UNIT A0 RS R/W R/W 8 DB0- DB7 D0- D7 LCD27-29 c. Interface with MC6805 Microprocessor A - A 8 DB - DB 0 7 0 7 MC6805 LCD UNIT C E 0 C 1 RS C 2 R/W LCD27-30 d. Interface with Z-80 Microprocessor D0- D7 DB 0 DB7 A0 RS 1 K A A Y 4 1 E A5 B 200PF Z80 A6 C LS138 LCD A7 G
INCLUDE 80c31.mc ; vorläufige Speicherstellen frü zähler1 EQU 0Ah ; 1 Volt zähler01 EQU 0Bh ; 0,1 Volt zähler001 EQU 0ch ;0,01 Volt gerundet ;***************************************************************************** ; Zerlegen des 10 bit Binärwertes nach Dezimal ; Der Wert vom A/D wird erst in ganze und dann in 1/10 Volt aufgelöst ; Der Rest ( 1mV ) kommt aus der Tabelle als schon gerundeter Wert ; Damit spare ich die Mittelwertbildung
Gasturbinenprozess (Joule-Prozess): ⇨ Isobare Wärmezufuhr in der Brennkammer und –abfuhr an die . . Umgebung Q = mc ∆p oder Q = C ∆T p ⇨ Adiabate (isentrope) Kompression von Luft im Verdichter und Expansion der Rauchgase in einer Turbine . dq = 0 ▯ dU = -pdV = C dT oderv dU = mc ∆T V pdV V+p 1 ideales Gas : dT = =
Website-Screenshots als PDF? von ●DesIntegrator ●. (Firma: FULL PALATINSK) (desinfector) 20.06.2024 10:30 man kann die angezeigte Seite selbst als html speichern. Re: Website-Screenshots als PDF? von Rüdiger B. (rbruns) 20.06.2024 10:39 Das Drucken von Webseiten macht fast immer Probleme, die sind einfach
Website-Screenshots als PDF? von ●DesIntegrator ●. (Firma: FULL PALATINSK) (desinfector) 20.06.2024 10:30 man kann die angezeigte Seite selbst als html speichern. Re: Website-Screenshots als PDF? von Rüdiger B. (rbruns) 20.06.2024 10:39 Das Drucken von Webseiten macht fast immer Probleme, die sind einfach
these problems are issues of amplifier D D instability with a large capacitive load, as well as the 10 accuracy of the output voltage. VIN= 4P-P VIN= 6P-P 0 Detecting Sinewaves 10k 100k 1M 10M FREQUENCY (Hz) TheLT1190istheidealcandidateforthisapplication,with ahigh400V/ sslewrate,large50mAoutputcurrent
10kΩ ICL8052A/8068A + 3 19 24 25 26 27 -1.2V 20 B1 5 +INT IN 12 2 MSD LSD 1kΩ +BUF IN 13 21 B2 10µF COMP MULTIPLEXER 22 B 10µF (TYP) 1µF (TYP) OUT 3 23 B 4 REF REF CAP 1 CAP 2 AZ OUT AZ IN COMP IN 8 9 16
N7400AS 2 x 7 1 Signetics S7421 N74122A 2 x 7 1 Signetics S7430 N7420A 2 x 7 1 Sanyo 8E4 LC7120 2 x 10 1 Sanyo F4 LC7135 2 x 10 1 Bipolar IC SAS580 2 x 9 1 Bipolar IC SAS590 2 x 9 1 ITT S26 TBA950:1 2 x 7 1 ITT F16 TAA790:1 2 x 7 1 SFC2723EC 2 x 7 1 PRME 15005B 2 x 4 1 TCA 440 D723 2 x 8 1 SUWA SEIKO
fixed there #define _mosi 11 // not used for Arduino DUE, the hardware SPI is fixed there #define _cs 10 #define _dc 9 #define _rst 8 // Use hardware SPI Adafruit_ILI9340 tft = Adafruit_ILI9340(_cs, _dc, _rst); #define COUNTER_TEXT_SIZE 10 void setup() { tft.begin(); SPI.setClockDivider(5); // set SPI from
DC INPUTS 0 1 2 3 4 5 ANALOG INPUTS 0 1 CPU 1211C AC/DC/RLY 0 1 2 3 MC SIEMENS SIMATIC S7-1200 CPU 1211C AC/DC/RLY SUPPLY 85-240VAC 7.5A DC 24VDC 50/60Hz AI 2X10 BIT 0-10VDC S ZVXKY90000575 Patent Pending E-Stand 01 CLASS I DIV 2 GF A,B,C,D TA=-40°C CLASS I, DIV 2 T1 TA
IB= B B ) G ( 2 d I 20 N ( W VS= ±15V R A 80 VS= ±15V E U G A 15 C 4.0 O L I L V B N 70 V S ±5V T 10 U P P N 3.5 O U VS= ±5V I 60 O 5 0 3.0 50 10 100 1k 10k –15 –10 –5 0 5 10 15 10 100 1k 10k LOAD RESISTANCE ( ) INPUT COMMON-MODE VOLTAGE (V) LOAD RESISTANCE ( ) 1208/09 G04 1208/09 G05 1208/09 G06 Output
XMIF_HI-Z, 0=normal mode, 1=Hi-Z'd * bit 3 1: disable the boot ROM, enable the FLASH * bit 2 no change MP/MC* bit reflects the state of the MP/MC* pin * bit 1-0 11: 11 = SARAM mapped to prog and data (default) SACL SCSR2 ;store to SCSR2 register ;~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
1 2 3 4 D JP RXD1 DATA PA0 R RSSI A R1 NC NC C N GND1 GND 10k V C EN ENABLE AN AN 3 1 2 C VCC VCC GND1 GND P V J /RES IC1 4 30 PA7 C4 RESET (ADC7)PA7 31 PA6 CGND 22100n (ADC6)PA6 32 PA5 7 (ADC5)PA5 33 PA4 Q1 XTAL2 (ADC4)PA4 34 8 (ADC3)PA3 35 PA3 16MC3 XTAL1 (ADC2
can be set up for 3 different dynamic ranges (2g, 4g and 8g). With the 8g dynamic range 8- bit or 10-bit data is available. The 2g and 4g ranges are only 8-bit data. The 10-bit data is available by reading X: $00-01, Y$02- 03 and Z$04-05. In 2g mode and 4g mode the 10-bit data will match the 8-bit data
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