D664-Z4306K/P05JXNF6VSX2-A
D662Z4341K/P02JXMF6VSX2-A
D662-4014/D01JABF6VSX2-A
D661-4651/1156-421 G35JOAA6VSX2HA
D661-4652/1156-421 G15JOAA6VSX2HA German made MOOG electro-hydraulic servo valve
| nominal diameter | 25cm | quantity | 88 of them |
| Does it support customized processing | yes | Whether it is imported | yes |
| Packing Specification | thirty-one | material | cast iron |
| Place of Origin | Germany | Functional purpose | Building materials industry |
| category | one | Scope of Application | |
| model | D664-Z4306K/P05JXNF6VSX2-A D662Z4341K/P02JXMF6VSX2-A D662-4014/D01JABF6VSX2-A D661-4651/1156-421 G35JOAA6VSX2HA D661-4652/1156-421 G15JOAA6VSX2HA | color | blue |
| packaging | boxed | Operating Temperature | thirty-six |
| 30*40*70 | type | valve | ingredient |
| steel structure | purpose |

| MOOG-6170 Controller G136-001-007 |
| MOOG-6171 D061-711C S.NO-D544 |
| MOOG-6172 D664Z760B TYP: D05FR3WBNOT |
| MOOG-6173 D136-001-007 D1794 |
| MOOG-6174 D633-7369/A08KA4M0HNJ |
| MOOG-6175 D661-4060/P60HABF6VSX2-B |
| MOOG-6176 14S-4S (quad core) |
| MOOG-6177 WB-10065 |
| MOOG-6178 D6615E-4506C/K60SF6V1D6BXAA |
| MOOG-6179 D661-4652C/G15J0AA6VSX2HA |
| MOOG-6180 D6615E-4652/K40SF6V1D6BXAA |
| MOOG-6181 14S-4S (four core) with servo valve J761-003 |
| MOOG-6182 JC-YL-AH1890 380V |
| MOOG-6183 ELK7-5/PUR/PB, |
| MOOG-6184 ELk7-2/PUR/PB |
| MOOG-6185 G7613004 S19J0GM |
| MOOG-6186 D630Z067AH20JOGAEVBL |
| MOOG-6187 D630-272DS10JOGAEVBL |
| MOOG-6188 ZDMEBV10PPA4MS7FA/CEE10C1A |
| MOOG-6189 EN175201-804 |
| MOOG-6190 MS3106F14S5S |
| MOOG-6191 G123-825-001 |
| MOOG-6192 X820-28PB-001N01 |
| MOOG-6193 J072-056 |
| MOOG-6194 760C928A |
| MOOG-6195 D661-6347C/G23JOAA4NSX2HA |
| MOOG-6196 Mod: D633-495B |
| MOOG-6197 E760-945 |
| MOOG-6198 D661G75HOAA4NSX2HA |
| MOOG-6199 D682-4056 |
| MOOG-6200 D791-4046/S25JOQA6VSX2-B |
| MOOG-6202 SCE98.04.0 |
| MOOG-6203 6502140095 0528821NT.16RELE& |
| MOOG-6204 D672-0006-0000 |
| MOOG-6205 D662-4106B D02HABF5VSD2-A |
| MOOG-6206 D691-2746G |
| MOOG-6207 D634-327C |
| MOOG-6208 D673-0001-0000 |
| MOOG-6209 D634K2000C TYP.R24KD2NONXU2 |
| MOOG-6210 D791-4020 |
| MOOG-6211 CONNECTOR 6+PE-B 97007-061 |
| MOOG-6212 HPR18A1RKP032SM28F2Y00 |
| MOOG-6213 C85150-003 |
| MOOG-6214 MOD 5761-003 SIN:12144ES63J |
| MOOG-6215 D661-4651G350AA6VSX2HA |
| MOOG-6216 HPR18A1RKP032SM28H1Z00 |
| MOOG-6217 PROP.VALVE D661-Z4146 |
| MOOG-6218 J072-187 |
| MOOG-6219 CZ1008EK DS2000 |
| MOOG-6220 312A6077P001 |
| MOOG-6221 D661-43ID |
| MOOG-6222 Typ:CA14865015K |
| MOOG-6223 ZU D662-4307 |
| MOOG-6224 ZUD662UNDD66 |
| MOOG-6225 Typ:CA14865015K |
| MOOG-6226 ZUD662UNDD661 |
| MOOG-6227 D633Z313B |
| MOOG-6228 D941-6733C-0001 |
| MOOG-6229 D661-4922 P80H0BD5NSD2-B |
| MOOG-6230 D633-195B A16KO5MOHMV |
| MOOG-6231 oil pump |
| MOOG-6232 D684-N05AUF4NSM2-A |
| MOOG-6233 VSE/R/2-150/NC/BSPP |
| MOOG-6234 D634-403C |
| MOOG-6235 ITT CA120001-97 |
| MOOG-6236 D661-4591 |
| MOOG-6237 MG761-001 |
| MOOG-6238 MG761-002 |
| MOOG-6239 J625-005 |
| MOOG-6240 D941-6723C-0001 directional valve |
| MOOG-6241 G4L10 S/N:N300 |
| MOOG-6242 MOD:D-765-1089-4 Pp:350bar/ |
| MOOG-6243 MOD:D-765-1100 Pp:350bar |
| MOOG-6244 760F911A-HP5 S10K0GM4VPL |
FAQ:
Frequently Asked Questions (FAQ): Moog Electrohydraulic Servo Valves
1. What is an Electrohydraulic Servo Valve?
An electrohydraulic servo valve is a precision component that acts as an interface between the electrical control system and the hydraulic power system. It receives a low-power electrical analog signal and converts it into a proportional, high-power hydraulic output (flow and pressure). This makes it a crucial control core in electrohydraulic servo systems, responsible for both electrical-to-hydraulic signal conversion and power amplification .
2. How does a Moog Servo Valve work?
A Moog servo valve typically consists of a polarized electrical torque motor and a two-stage hydraulic amplifier .
• First Stage: The torque motor deflects an armature and a flapper attached to it. This flapper moves between two nozzles, creating variable orifices that control the pressure on either end of the second-stage spool .
• Second Stage: The differential pressure moves the spool, which then controls the flow of hydraulic fluid to the actuator. A feedback spring, connected to the flapper and engaging the spool, creates a force that balances the input signal torque, ensuring precise spool positioning proportional to the electrical command .