Fabricant : Omron
N° de produit : E6H-CWZ6C 2000P/R 0.5M(SAME DAY DELIVERY)
Pays d'origine :Japon
Type de produit : Encodeur rotatif 0,5 m
Paiement : Virement bancaire, Western Union
Poids : 500g
Port d'expédition : Xiamen
Garantie : 12 mois
Engineered for precise rotational speed and angular displacement measurement, the Omron E6H-CWZ6C 2000P/R 0.5M serves as a high-resolution, hollow-shaft incremental rotary encoder designed for demanding industrial automation setups. This encoder provides exceptional signal clarity, utilizing an incremental design to deliver 2000 pulses per revolution across output phases A, B, and Z. Supported by a wide operating voltage range, it integrates seamlessly into high-speed control loops, motor feedback systems, and synchronized positioning networks.
| Parameter | Specification Value |
|---|---|
| Manufacturer | Omron |
| Model Code | E6H-CWZ6C 2000P/R 0.5M |
| Encoder Type | Incremental (Hollow Shaft) |
| Resolution | 2000 P/R (Pulses per Revolution) |
| Supply Voltage | 5 VDC -5% to 24 VDC +15% (Ripple p-p: 5% max) |
| Current Consumption | 100 mA DC max. |
| Inrush Current | Current: approx. 6 A (Duration: approx. 0.3 ms) |
| Output Phases | A, B, and Z |
| Control Output Type | NPN Open Collector Output |
| Load Current (Sink) | 35 mA max. |
| Residual Voltage | 0.7 V max. at 35 mA max. sink |
| Max. Response Frequency | 100 kHz |
| Phase Difference | 90 deg -45 to +45 deg |
| Mechanical Connection | Pre-wired Model (Cable length: 0.5 m) |
| Materials | Case: Iron Zinc Plating | Body: Aluminum | Shaft: SUS304 |
| Shipping Weight (Calculated) | 0.45 kg |
| Wire Color | Signal Function / Assignment |
|---|---|
| Brown | Power Supply (+Vcc) 5 to 24 VDC |
| Blue | Power Supply Ground (0V / COM) |
| Black | Output Phase A |
| White | Output Phase B |
| Orange | Output Phase Z (Origin / Index) |
| Shield | Frame Ground (F.G.) - Connect to protective earth to reduce EMI |
The E6H-CWZ6C model with a 2000 P/R configuration directly replaces lower-resolution variations within the E6H series, provided the high-speed counter on the controller side is re-parameterized to handle the higher pulse density. When replacing older hollow-shaft designs, verify the mounting leaf spring pattern matches precisely to avoid excessive stress on the internal optical components.
Because this is a hollow shaft encoder, dynamic misalignment between the motor shaft and the encoder casing can cause phase errors and premature bearing wear. Ensure that the shaft's radial runout is kept within the rated limits and that a flexible mounting bracket is used to isolate mounting vibration. The NPN open collector output is sensitive to voltage drops on long cable runs; if wiring beyond 5 meters is necessary, utilize pull-up resistors close to the controller card or convert the signal to differential line driver levels.
Always route the encoder signal cable through dedicated, grounded metallic conduits. Running the signal cable parallel to high-voltage, variable-frequency drive output lines can inject noise into Phase A or B, causing phantom counts. Ensure the shield wire is terminated on the control cabinet side only to avoid dangerous ground loops.
CRITICAL WARNING: ELECTRICAL SAFETY PROTOCOL
Ensure all power supply lines are completely de-energized before mounting or wiring the encoder. Connecting or disconnecting wiring while power is applied can cause terminal damage or internal circuit destruction due to inrush current or transient spikes.
Slide the hollow shaft of the encoder onto the drive shaft, making sure it is fully seated without forcing the internal bearing mechanism.
Secure the flexible leaf-spring mounting plate to the motor casing or machine frame, keeping alignment as close to 180 degrees coplanar as possible.
Tighten the hollow shaft clamping screws evenly to ensure uniform friction against the drive shaft.
Connect the color-coded wires strictly according to the schematic table above, isolating any unused signal lines.
Expédition express mondiale
Retours et garantie
Les commandes sont traitées et livrées du lundi au vendredi (hors jours fériés).
Pour connaître l'éligibilité complète, les frais de restockage et les détails des retours internationaux, veuillez consulter notre site officiel Politique de remboursement et de retour .
| Country of origin |
Japon
|
Cet article explique comment les actionneurs électriques intégrés, tels que la série e-Actuator de SMC, transforment le contrôle du mouvement industriel en remplaçant les systèmes pneumatiques et...
Cet article explique comment les systèmes PLC réalisent des opérations mathématiques de base telles que l'addition, la soustraction, la multiplication, la division, le modulo et l'exponentiation dans...
L'article explique plusieurs fonctions avancées de la logique booléenne utilisées en programmation d'automates programmables industriels (API) au-delà des opérations de base ET, OU et NON. Il aborde...
La logique booléenne est la base de tout programme PLC. Des commandes machines simples aux systèmes d'automatisation industrielle complexes, les portes logiques déterminent comment les contrôleurs...
Les pare-feux industriels jouent un rôle crucial dans la cybersécurité OT, protégeant les réseaux PLC, DCS et SCADA grâce à la segmentation, au contrôle des entrées/sorties et à l’intégration IDS/IPS...
Les pinces robotiques modernes évoluent au-delà des mâchoires mécaniques traditionnelles. Des systèmes adhésifs inspirés des geckos aux pinces souples de qualité alimentaire, en passant par des...
