2200 J J J J J J M 3300 J J J J J J M 4700 J J J J J J M 6800 J J J J J J M Cap 0.010 J J J J J J M K K K K M M X X X X M P (µF 0.015 J J J J J J P K K K P M M X X X X M P 0.022 J J J J J J Q K K K P M M X X X X M P 0.033 J J J J J J K K K X M M X X X X M P 0.047 J J J J J J K K K Z M M X X X X M P 0.068 J J J J J M K K K M M X X X X M P 0.10 J J J J J M K K K M M X X X X M P 0.15 J J J J M K K P M M X X X X M P 0.22 J J J J P K K P M M X X X M P 0.33 J J J J Z K M M M X X X M P 0.47 M M M M Z K P M M X X X M P 0.68
1 2 3 4 X1 ROR1 LOL1 G1x G1x CR2R 4 X1 PIR101 PIR102 P I L 10 1 P I L 1 0 2 PI2401 PIR2402 5K1 ROR9 COL 10K R2R 5 COP COP X2 PIR9 01 PIR902 P I L 90 1 P IL 990 2 G2x G2x PIR501 PIR502 X2 P1 CDD1 P9 DOD9 X1 LV01x X9 LV03x ROR2 5K1 R1R 7 10K 2 P I P 1 0 2 PID 103 PID101 2 P I P 9 02 PID903 PI D901
. schematic position name specs part no. 1 AC power pack UK 240V E 958 093 2 AC power pack Europe 230V E 958 090 3 AC power pack USA/ CAN 117V E 958 091 4 AC power pack Japan 100V E 958 092 5 transformer 1 transformer EI 15V/ 250V/ 2VA E 958 049 6 P1 (CH1 vol) pot 250 KΩ log, mono E 914 044 7 P2 (CH2
table 1 exist between the electrical and thermal variables. Thermal Û Electrical Temperature T in K Voltage U in V Heat flow P in W Current I in A Thermal resistance Rth in K/W Resistance R in V/A Thermal capacitance C in Ws/K Capacitance C in As/V th Table 1: Corresponding physical variables Related
Toleranzen der horizontalen Bauteile des 3 Baugruppenträgers. .m m 1 2 3 4 5 6 6 1) 7 8 9 10 11 12 4k k .m 1m Abb. 2c Maßtabelle und Bezeichnung der 4k Frontplatten-Lochanordnung .m 4k Größe Form Höhe e1 e2 1 V 43,65 31,75 – 2 V 88,1 76,2 – 3 V 132,55 57,15 – 4 V 177,0 101,6 – 5 V 221,45 146,05 – 6 V
Toleranzen der horizontalen Bauteile des 3 Baugruppenträgers. .m m 1 2 3 4 5 6 6 1) 7 8 9 10 11 12 4k k .m 1m Abb. 2c Maßtabelle und Bezeichnung der 4k Frontplatten-Lochanordnung .m 4k Größe Form Höhe e1 e2 1 V 43,65 31,75 – 2 V 88,1 76,2 – 3 V 132,55 57,15 – 4 V 177,0 101,6 – 5 V 221,45 146,05 – 6 V
ASTERISK 074 0x4a J LATIN CAPITAL LETTER J 106 0x6a j LATIN SMALL LETTER J 043 0x2b + PLUS SIGN 075 0x4b K LATIN CAPITAL LETTER K 107 0x6b k LATIN SMALL LETTER K 044 0x2c , COMMA 076 0x4c L LATIN CAPITAL LETTER L 108 0x6c l LATIN SMALL LETTER L 045 0x2d - HYPHEN-MINUS 077 0x4d M LATIN CAPITAL LETTER M 109
Feedback OCP threshold. Otherwise OCP may not trigger in the event V OUT of a transient. SR10 OUT 400kΩ Rectification D6 The SR10 may configured with a full-wave rectifier or a half- wave rectifier. 50kΩ D12 Full-wave 25kΩ R D24 LIM C D RFB1 S 1-4 25kΩ DOUT VIN VOUT FB RFB2 SH OUT V V V x D6 1.20V 2 1 6 e
impedance) 4 Output Current at Receiver IOZR 0.4V ≤ O ≤ 2.4V ±1 µA X MAX487/MAX1487, all devices except 12 kΩ A Receiver Input Resistance RIN M -7V ≤ CM ≤ 12V, MAX487/MAX1487 48 kΩ 2 _______________________________________________________________________________________ Low-Power, Slew-Rate-Limited RS-485/RS
impedance) 4 Output Current at Receiver IOZR 0.4V ≤ O ≤ 2.4V ±1 µA X MAX487/MAX1487, all devices except 12 kΩ A Receiver Input Resistance RIN M -7V ≤ CM ≤ 12V, MAX487/MAX1487 48 kΩ 2 _______________________________________________________________________________________ Low-Power, Slew-Rate-Limited RS-485/RS
2 4 6 8 0 V (V) 6-8 Figure 7-12. Power Dissipation of R 1 10 8 ) ( 6 V P 4 2 0 0 10 20 30 40 50 R 1kΩ) 13 4766B–INDCO–10/05 Figure 7-13. Power Dissipation of R According to Current Consumption 1 10 8 V M 230 V ~ ) W 6 V P 4 2 0 0 3 6 9 12 15 I (mA) S Figure 7-14. Maximum Resistance of R 1 100 80 Ω ( 60 a V = 230 V ~ 1 M R 40 20 0 0 2 4 6 8 10 I (mA) S 14 U2010B 4766B–INDCO–10/05 U2010B Figure 7-15. Application Circuit F C1 2 2 1 Ω F R k C 1 B 2 1 A C 2 T 1 Ω S1 D2 8 R k 1 0 D N 1 1 N 9 1 G B 1 y e A a B o t
Änderungen: o Befestigungslöcher, aber weiter Hutschienenbreite 72mm, Ziel für Länge: 98mm o Kein 230V-Netzteil, sondern Schaltregler 8-30V auf 5V o Keine Netzspannungsfestigkeit, aber Vorbereitung für externe Relais als Ausgang o Und was sonst auf der Liste steht • Je Kanal o 4pol Stecker Wago/Schraubklemme
will not saturate under VOUT = R2 the maximum inductor peak current. The peak R2 can be as high as 100kΩ, but a typical value inductor current can be calculated by: is 10kΩ. Using that value, R1 is determined by: I = I + V OUT ×⎛1− VOUT ⎞ LP LOAD 2 fS ×L ⎝ VIN ⎠ R1= 8.18× V( OUT −1.23 kΩ ) For example,
CFF R1 C OUT 22µF x 2 6, 9 (Exposed PGND FB 4 R2 Table 1. Recommended Component Selection V (V) R1 (k ) R2 (k ) C (pF) L ( H) C ( F) OUT FF OUT 2.5 100 100 82 6.8 22 x 2 3.3 100 58.6 82 10 22 x 2 5 100 31.6 82 15 22 x 2 8 100 18 82 22 22 x 2 Functional Pin Description Pin No. Pin Name Pin Function High
EARU ELECTRIC Wiring Diagram OUT N L (1) (4) (20) (21) DDS661 kWh 000000 Forward and Reverse Measurement Function 230V 5 (60)A 50Hz 1000 imp/kWh RS485 + (24) (23) RS485 - (3) (6) N L IN EARU ELECTRIC
Write Enable Signal 7 DB0 8 DB1 9 DB2 10 DB3 Display Data Signal 11 DB4 12 DB5 13 DB6 14 DB7 15 LED-(K) Not Used (Prepared for version with backlight) 16 LED+(A) Not Used (Prepared for version with backlight) Version:5 3 DEM 16101 H Product Specification 6.1 PCB DRAWING AND DESCRIPTION J6R7 R8 R5 J3 R4
Write Enable Signal 7 DB0 8 DB1 9 DB2 10 DB3 Display Data Signal 11 DB4 12 DB5 13 DB6 14 DB7 15 LED-(K) Not Used (Prepared for version with backlight) 16 LED+(A) Not Used (Prepared for version with backlight) Version:5 3 DEM 16101 SYH Product Specification 6.1 PCB DRAWING AND DESCRIPTION J6R7 R8 R5 J3
Write Enable Signal 7 DB0 8 DB1 9 DB2 10 DB3 Display Data Signal 11 DB4 12 DB5 13 DB6 14 DB7 15 LED-(K) Not Used (Prepared for version with backlight) 16 LED+(A) Not Used (Prepared for version with backlight) Version:5 3 DEM 16101 H Product Specification 6.1 PCB DRAWING AND DESCRIPTION J6R7 R8 R5 J3 R4
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