0 P P 0 0 P P P P M1B P0M104 gachette2 P0M103 B gachette1 B moteur_mig TORCHE1 51135 1 P -Moteur M1A moteur_mig M 0 0 +Moteur P C A N N A ME A AA SN E 0 0 T T SW1A P P P0SW1018 T1 20 1 1 2 P0SW1020 0 P0SW1022 P0SW1013 P P0SW1024 23211917 TH1 3 5 10 BLANC P0SW1010 1 1 P0SW1012 P P 14 P0SW107 P0SW1014
* '* * '* * '************************************ $regfile = "attiny85.dat" $crystal = 8000000 Dim A As Byte Dim B As Word Dim D As Word Dim E As Word Dim Drehzahl As Integer Dim Msb As Byte Dim Lsb As Byte Dim Timer_ovf As Byte Dim Slave_adress As Byte Dim Master_read As Byte Dim I2c_mode As Byte Dim
C and max. 0.015 °C in the range −40 °C to +25 °C . ∆T = -- = -- - = 1.167 °C ( ≈ 1.17 °C) TC 5.08 A NTC with a R -v25ue of 10 kΩ has a value of 32.56 kΩ between −1.17 and +1.17 °C. PARAMETERS FOR DETERMINING NOMINAL RESISTANCE VALUES B TOL.B B C D A B C D 25/85 NAME VALU A 5 2 −3 −4 −1 −6 −2 −7 −3
C and max. 0.015 °C in the range −40 °C to +25 °C . ∆T = -- = -- - = 1.167 °C ( ≈ 1.17 °C) TC 5.08 A NTC with a R -v25ue of 10 kΩ has a value of 32.56 kΩ between −1.17 and +1.17 °C. PARAMETERS FOR DETERMINING NOMINAL RESISTANCE VALUES B TOL.B B C D A B C D 25/85 NAME VALU A 5 2 −3 −4 −1 −6 −2 −7 −3
300°C * '* * '************************************ $regfile = "attiny85.dat" $crystal = 8000000 Dim A As Byte Dim B As Word Dim C As Single Dim Temperatur As Integer Dim Msb As Byte Dim Lsb As Byte Dim I2c_sensorinit(14) As Byte Dim Slave_adress As Byte Dim Data_register As Byte Slave_adress = &H28 '
S SM4007 IRLML6401 R406 Umin = 1.48V, Umax=3.56V schwarz +12V Vbat K108 vio T101 R404 R405 R407 6 K109 braun D101 +4V F 1 F 2 n 3 +/ K110 C101 R105 5k6 1k8 500 1k8 T401 6 n 6 n 6 0 6 µ T100 SH_ON/OFF C 1 C 1 C 1 C 0 1K +12V D403 +4V_SW 1 BCW66 100nF IC400 IRLML6401 R106 a IC600 Lüften/Heizen i uD d o
S SM4007 IRLML6401 R406 Umin = 1.48V, Umax=3.56V schwarz +12V Vbat K108 vio T101 R404 R405 R407 6 K109 braun D101 +4V F 1 F 2 n 3 +/ K110 C101 R105 5k6 1k8 500 1k8 T401 6 n 6 n 6 0 6 µ T100 SH_ON/OFF C 1 C 1 C 1 C 0 1K +12V D403 +4V_SW 1 BCW66 100nF IC400 IRLML6401 R106 a IC600 Lüften/Heizen i uD d o
fitted (R2) Note: voltages measured with respect to control board pin 7, unless otherwise shown, using a 20000 Ohm/V meter, at nominal input voltage, Output 30V 2A CONTROL BOARD No. 2SZ0345 SW203 CV Constant Voltage C1 (Channel 1??) On Base On the L30/2 the earth terminal is on the baseplate. I CONST OP
MEDER electronic DIP Series @A ,1,24=O I11,2I1 MH? DESCRIPTION The DIP series is a very compact design having a low profile package and a high profile package. This series is compatible with all DIP relays. CHARACTERISTICS • Low profile
MEDER electronic DIP Series @A ,1,24=O I11,2I1 MH? DESCRIPTION The DIP series is a very compact design having a low profile package and a high profile package. This series is compatible with all DIP relays. CHARACTERISTICS • Low profile
Option 6 Option 2 Frequency stability 4E-9 pp 1E-9 pp 6E-10 pp 2E-10 pp Valid for temperature range A / B / C A / B / C A / B / C A / B / C Warm-up time and Retrace Warm up time: Switch on +30 minutes @ +25°C: F 0* = ±1 × E-9 *F referring to the frequency measured before after 6 hours of being switched
Option 6 Option 2 Frequency stability 4E-9 pp 1E-9 pp 6E-10 pp 2E-10 pp Valid for temperature range A / B / C A / B / C A / B / C A / B / C Warm-up time and Retrace Warm up time: Switch on +30 minutes @ +25°C: F 0* = ±1 × E-9 *F referring to the frequency measured before after 6 hours of being switched
; Timer/Counter2 Overflow reti ; Timer/Counter1 Capture Event reti ; Timer/Counter1 Compare Match A reti ; Timer/Counter1 Compare Match B reti ; Timer/Counter1 Overflow rjmp Delay0 ; Timer/Counter0 Overflow reti ; Serial Transfer Complete reti ; UART, Rx Complete reti ; UART Data Register Empty reti
A = A + 3791 A = A / 16 P = P + A 'P = Druck in Pa Return Rs232_befehl: T = "" If C = 0 Then Gosub Readchr_rs232 End If Select Case C Case 83 'START / STOP Gosub Readchr_rs232 If C <> 84 Then Return End
end if; 108 Flanke_Push <= '0'; 109 when c => if Push='1' then Push_Folgezustand <=a; 110 else Push_Folgezustand <=b; 111 end if; 112 Flanke_Push <= '1'; 113 end case; 114 end process Flankenerkennung_Push; 115 116 117 Flankenerkennung_Takt_1HZ: Process (Takt_1_HZ, Takt_1HZ_Zustand) 118 begin 119 case Takt_1HZ_Zustand is 120 when a => if Takt_1_HZ='1' then Takt_1HZ_Folgezustand <=a; 121 else Takt_1HZ_Folgezustand <=b; Page 2 Sun Nov 04 19:59:05 2012 Blinker.vhd 122 end if; 123 Flanke_Takt_1HZ <= '0'; 124 when b => if Takt_1_HZ=
1 2 3 4 +3.3Vd +3.3Va 0 0 1 1 0 0 0 0 0 C 4 C C 0 P P P C1 A 0 P P P 1 C2 1 C3 A P C4 1 C6 1 C7 0 C5 C100nF C 100nF 1 10uF 0 10uF C C C 100nF P P 0 0 P 100nF P 100nF P P P GND GND U1 1 P0U10228 Data_RequestQUEST P0U10DREQ DVDD0 2 P0U102 P0U10227 2 GPIO2 / DCLK
25 hi~ebeim Bau und Kauf von Elektronik-Orgeln. Amateur-Funkfernschreibtechnik RTTV. Von lng. Alois A. Wuschek. - Dreifachband. Fernschreibeelektronik - Gerätebeschreibung - DM 9.80. Betriebstechnik.Von Hans-Joachim Pietsch.-2., ISBN 3-7723-0081-2 verbesserte Auflage. Dreilachband. DM 9.80. ISBN 3-7723
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