SMC 4060-00949 VV5Q11-10-X3105V UT-CNN-01 H1001426001A 3620-

Product Details

4060-00949 VV5Q11-10-X3105V UT-CNN-01 H1001426001A 3620-00122 CDN127-1 Product Description

The SMC VV5Q11-10-X3105V is a high-efficiency, energy-saving pneumatic manifold from SMC's renowned VQ Series, engineered specifically for demanding industrial automation environments where air consumption control, cycle-time stability, and system-level energy optimization are mission-critical. Designed to integrate seamlessly into modern smart factory architectures, this manifold delivers precise airflow distribution across multi-station pneumatic circuits while minimizing pressure drop and reducing overall compressed air demand — one of the largest hidden energy costs in manufacturing operations.

Built to meet the rigorous requirements of automotive assembly, semiconductor fabrication, food processing, and general discrete manufacturing, the VV5Q11-10-X3105V supports centralized valve control with individual station flexibility. Its compact, modular design allows engineers to configure multi-valve manifold banks that align with PLC-driven sequencing logic, enabling synchronized actuation across multiple pneumatic axes without sacrificing energy efficiency or response accuracy.

In a fully integrated smart production line, the SMC VV5Q11-10-X3105V functions as the pneumatic execution layer within a broader energy-aware control architecture. When paired with a Mitsubishi MELSEC iQ-R Series PLC or an Omron NX1P2 CPU, the manifold receives discrete output signals from the controller's I/O modules — such as the Mitsubishi QX40 input module or Omron NX-OD5256 transistor output unit — to trigger individual solenoid valves with millisecond-level precision. This tight integration between the PLC scan cycle and valve actuation timing directly reduces dwell time and eliminates unnecessary valve energization, cutting solenoid heat buildup and extending coil service life.

For facilities deploying variable frequency drives (VFDs) such as the Mitsubishi FR-E800 Series or Siemens SINAMICS G120 to regulate compressor motor speed, the VV5Q11-10-X3105V complements the drive's load-following behavior by ensuring downstream pneumatic demand remains stable and predictable. When valve actuation patterns are consistent and well-sequenced, the compressor VFD can maintain a narrower pressure band, reducing energy consumption at the compressor motor — often the single largest electrical load in a pneumatic system.

Integration with SMC EX600 Series fieldbus manifold systems or SMC SI Unit EX260 communication modules allows the VV5Q11-10-X3105V bank to be addressed over EtherNet/IP, PROFINET, or CC-Link IE Field networks, enabling real-time valve status feedback to the SCADA layer. Operators monitoring the line through a Siemens SIMATIC HMI TP1200 Comfort or Mitsubishi GOT2000 Series panel can visualize individual valve states, cycle counts, and fault conditions without additional wiring — reducing diagnostic downtime and enabling predictive maintenance scheduling based on actuation frequency data.

Power monitoring modules such as the Omron KM50-E1 Power Monitor or Siemens SENTRON PAC3200 can be deployed upstream of the pneumatic control panel to track real-time energy consumption correlated with manifold actuation cycles. This data, fed into an energy management system (EMS) or MES platform, allows production engineers to identify inefficient valve sequences, detect leakage-induced pressure drops, and benchmark energy consumption per production unit — a key metric for ISO 50001 energy management compliance.

Compressed air is widely recognized as one of the most energy-intensive utilities in industrial manufacturing, with system-wide leakage and inefficient valve control accounting for up to 30% of total compressed air waste in typical facilities. The SMC VV5Q11-10-X3105V addresses this challenge at the valve manifold level through its X3105V energy-saving solenoid specification, which employs a high-inrush, low-holding-current coil design. This means the solenoid draws full current only during the switching event and immediately reduces to a lower holding current once the valve spool is seated — dramatically reducing resistive heat generation and lowering the thermal load on the control panel enclosure.

In high-density manifold configurations with 10 or more stations operating simultaneously, the cumulative thermal reduction from energy-saving coils can meaningfully lower enclosure cooling requirements, reducing or eliminating the need for panel air conditioners or heat exchangers — a secondary energy saving that compounds over continuous production shifts. For facilities running 24/7 operations in automotive body shops, battery module assembly lines, or PCB handling systems, this thermal management benefit translates directly into improved equipment uptime and reduced maintenance intervals for cooling components.

The manifold's modular station design also supports zone-based pneumatic control, where individual production cells can be isolated and de-energized during scheduled micro-stops, shift changes, or product changeovers. When integrated with the PLC's energy-saving mode logic — available on platforms such as the Mitsubishi MELSEC iQ-F FX5U — the manifold bank can be systematically powered down by zone, preventing unnecessary solenoid energization during idle periods and reducing standby air consumption across the line.

For predictive maintenance, cycle count data from the SCADA system can be used to establish valve replacement intervals based on actual actuation history rather than fixed time schedules. This condition-based maintenance approach reduces unplanned downtime, optimizes spare parts inventory, and ensures that the manifold continues to deliver consistent flow characteristics throughout its service life — maintaining production rhythm and preventing the gradual efficiency degradation that accompanies worn valve seals or sluggish spool response.

All units are sourced directly and undergo pre-shipment functional testing to verify solenoid response, pressure integrity, and electrical continuity before dispatch. Stock is maintained for rapid fulfillment, and each unit ships with a 12-month warranty covering manufacturing defects under normal operating conditions.

Q1: What energy savings can I expect from the X3105V energy-saving specification? The X3105V low-power coil reduces solenoid holding current by approximately 70–80% compared to standard coil designs. In a 10-station manifold operating continuously, this can reduce solenoid-related power consumption from roughly 5W to under 1W per bank, while also lowering panel thermal load — reducing or eliminating supplemental cooling requirements in high-density installations.

Q2: Is the VV5Q11-10-X3105V compatible with my existing PLC and fieldbus network? Yes. The VQ Series manifold is compatible with all major PLC platforms including Mitsubishi MELSEC, Siemens S7-300/400/1200/1500, Omron NJ/NX, and Allen-Bradley ControlLogix via standard discrete I/O wiring. For fieldbus connectivity (EtherNet/IP, PROFINET, CC-Link IE), the SMC EX600 or SI Unit EX260 communication modules can be added to the manifold assembly to enable network-based valve control and status feedback.

Q3: Can this manifold replace an existing non-energy-saving VQ Series manifold without mechanical changes? In most cases, yes. The VV5Q11-10-X3105V is dimensionally compatible with standard VQ11 Series manifold bases and uses the same port layout and valve mounting interface. The primary difference is the solenoid coil specification. Verify the supply voltage (24VDC is standard) and connector type match your existing wiring before installation. Contact our technical team for cross-reference confirmation if needed.

Q4: What does the 12-month warranty cover, and what is the typical lead time? The 12-month warranty covers manufacturing defects in materials and workmanship under normal operating conditions, including solenoid coil failure, spool seal leakage, and manifold body defects. It does not cover damage from contaminated air supply, incorrect operating pressure, or unauthorized modification. Units are in stock and typically ship within 1–3 business days. Pre-shipment testing is performed on all units to verify electrical and pneumatic performance before dispatch.