Catalog

VAG 4E0616007D VALVE BLOCK

VAG 4E0616007D VALVE BLOCK

Product Specifications

Product quality
OEM Equivalent Grade
starstarstar
On request
bolt MOQ (Minimal order)
1 pcs
local_shipping Production time
35-45 days
package_2 Shipping Weight: —
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VAG 4E0616007D
VAG 4E0616007B
VAG 4E0616005D
VAG 4E0616005F
VAG 4F0616013
Overview & Operating Principle
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The VALVE BLOCK is the air suspension valve block — also called the solenoid valve manifold or air distribution unit — that controls the routing of compressed air between the compressor, the air reservoir, and the individual air spring bellows at each wheel corner of an electronically controlled air suspension system. The valve block is a manifold body containing between four and eight individual solenoid valves — one inlet valve and one exhaust valve per corner on four-corner systems, plus reservoir isolation and exhaust valves — whose opening and closing sequences are commanded by the suspension control module (ECM/ASCM) in response to ride height sensor data and driver mode selection to inflate or deflate individual air springs independently, maintaining the target ride height at each corner under varying load conditions, adjusting ground clearance for driving mode or off-road use, and levelling the vehicle when static load distribution changes. Each solenoid valve is a two-position normally-closed device — electrically energised to open, spring-returned to closed — that routes compressed air at 8–16 bar through precision-machined porting in the aluminium or glass-filled nylon manifold body; the solenoid coil operates at 12V from the suspension module and must switch reliably in under 50 milliseconds to achieve the module's height correction loop response time. The valve block typically mounts in the engine bay adjacent to the compressor or in the boot area near the air reservoir, connected to the individual corner air springs by nylon or rubber air lines with quick-connect push-fit fittings.

This unit — VAG 4E0616007D — is manufactured to OEM-equivalent specifications: solenoid coil resistance and switching current, valve orifice diameter and flow rate per corner, manifold port positions and air line connector dimensions, working pressure rating, manifold body dimensions for bracket or mounting position, connector pinout for the suspension module harness, and internal O-ring and valve seat material for compatibility with compressed air containing compressor oil vapour are matched to the original part. Supplied as a complete valve block assembly ready for installation. Available wholesale from 0.18 USD, MOQ 1 pcs, production lead time 35-45 days.

Air suspension valve blocks fail through solenoid coil open-circuit from thermal fatigue — a coil that has been operating at elevated duty cycles from a leaking air spring that requires continuous top-up eventually burns out; through internal O-ring and valve seat deterioration from compressor oil contamination in the air supply that swells the rubber seals and prevents valve closure, causing the corner air springs to deflate slowly when the system is parked; and through manifold body corrosion and cracking in harsh underbonnet environments on designs using aluminium manifolds without adequate surface protection. A valve block that cannot fully close any one of its solenoids produces a pressure bleed from that corner's air spring to the exhaust port whenever the suspension module deenergises that valve — the vehicle sags at the affected corner overnight and recovers when the compressor refills the spring on the next startup.

Symptoms & Diagnostics
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Vehicle sitting lower at one or more corners after overnight parking — the vehicle is at the correct height when the engine is running but sags progressively when parked for several hours — a valve block solenoid is not closing completely, allowing air to bleed from the affected corner's spring through the exhaust port; confirm by reading the ride height sensor values at each corner on scan tool live data immediately after parking and again after several hours — a corner whose sensor reading drops progressively confirms a valve leak at that corner's valve; distinguish from a leaking air spring by the rate — a valve leak is slow and pressure-equalised, a spring leak is typically faster.
Air suspension fault codes identifying a specific corner valve circuit — open circuit, short circuit, or valve driver fault — in the suspension module's DTC memory — read all suspension fault codes with a manufacturer-specific scan tool; a coil open-circuit code confirms the solenoid winding has failed; a valve driver fault code may indicate either coil failure or a module output driver fault; confirm which by measuring the coil resistance at the valve block connector — a serviceable coil reads 8–20 ohms depending on the application; infinite resistance confirms open-circuit coil failure.
Compressor that runs excessively frequently — audible compressor cycling more than once per minute during normal driving on a level road — a valve block leak is causing continuous pressure loss from one or more corners that the compressor must continuously replenish; this accelerates compressor motor wear and filter degradation; confirm by monitoring compressor run time on scan tool live data — normal systems compress for less than 30 seconds per correction cycle; continuous cycling confirms a pressure leak rather than normal height correction.
Vehicle that cannot inflate a specific corner despite compressor confirmed running and air line confirmed intact — that corner remains at minimum height regardless of compressor operation — the inlet solenoid for that corner has failed open or the manifold porting for that corner is blocked with compressor oil sludge; confirm by commanding that corner's inlet solenoid via the scan tool's actuator test function and listening for air flow to that corner's spring — no flow confirms valve or porting blockage.
Hissing sound from the valve block area — a continuous or intermittent air leak audible near the engine bay or boot-mounted valve block — a manifold O-ring at an air line push-fit connection has failed, or the exhaust port silencer has a failed check valve allowing continuous air bleed; confirm the leak location by applying soapy water solution around all air line connections and the exhaust silencer with the compressor pressurised — active leaks produce immediate bubbles.
Air suspension that inflates all corners correctly from flat but cannot maintain pressure overnight despite all air springs confirmed leak-free — the valve block's reservoir isolation valve is leaking, allowing the reservoir pressure to equalise with the corner springs and then bleed through a partially open exhaust valve; test by isolating the compressor electrically and monitoring reservoir pressure drop — a reservoir that loses more than 0.5 bar per hour with no corner valves commanded open confirms a reservoir isolation valve leak in the valve block.
Logistics & Customs
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International HS Code
8481.20
EAEU Customs Code (TN VED)
8481 20 000 0
Typical Net Weight
Country of Manufacture
China
Standard MOQ
1 pcs
Production Lead Time
35-45 days
Always verify the exact 8-digit or 10-digit subheading with your customs broker for the destination country, as tariff schedules and duty rates vary by jurisdiction.
Installation Tips
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  1. Depressurise the complete air suspension system before disconnecting any air line — the system operates at 8–16 bar; disconnecting an air line under pressure releases a jet of compressed air that can cause injury; use the manufacturer-specific scan tool to command the system to exhaust all corners to minimum pressure, or operate the suspension in service mode to vent the reservoir; confirm the system pressure has dropped to below 1 bar before disconnecting any air line fitting.
  2. Label all air line connections at the valve block before removal — each port on the valve block corresponds to a specific corner or function; the air lines connecting to the valve block are often identical in appearance but serve different corners; photograph the valve block with all lines connected from multiple angles before disconnecting any fitting; label each line with its port position (FL, FR, RL, RR, reservoir, compressor) using cable ties with written tags before removal to ensure correct reconnection.
  3. Inspect all air line push-fit connectors for O-ring condition before reconnecting — the push-fit connectors that engage the valve block ports seal on small rubber O-rings; O-rings that have been compressed at their previous connection point take a permanent set and may not seal correctly at a new connection position; if any connector shows a cracked or flat O-ring, replace the connector section before connecting to the new valve block.
  4. Flush the air lines with dry compressed air before connecting to the new valve block — compressor oil contamination and moisture that accumulated in the lines during the period of valve block failure will immediately contaminate the new valve block's internal O-rings and valve seats if not removed; blow through each line individually with dry compressed air from the corner end toward the valve block end before connecting to the new manifold.
  5. Perform the manufacturer-specific suspension calibration procedure after installation — replacing the valve block requires the suspension module to relearn the valve block's flow characteristics for each corner; on most systems this involves commanding each corner individually through its full inflation and deflation range via the scan tool's calibration function; without this procedure the module may command incorrect valve opening durations and produce height overshoot or undershoot on the new valve block.
  6. Install the new VALVE BLOCK (VAG 4E0616007D), reconnect all air lines to their labelled positions, reconnect the electrical connector, perform the suspension calibration procedure via scan tool, inflate all four corners to the target ride height, confirm each corner inflates and deflates correctly via individual corner commands, apply soapy water to all air line connections and confirm zero bubbles under pressure, and road test over a range of surfaces confirming correct height maintenance before returning the vehicle to service.
Tools: manufacturer-specific scan tool with air suspension calibration and actuator test functions, labelling tags for air line identification, dry compressed air source for line flushing, soapy water for leak detection after installation, torque wrench for valve block mounting bracket bolts.
Frequently Asked Questions
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How can a leaking valve block be confirmed as the source of overnight height loss rather than a leaking air spring or air line?
The isolation test is the definitive diagnostic method. With the vehicle at normal ride height, use the scan tool to command the system into a diagnostic mode that closes all solenoid valves and isolates the corner springs from the valve block — on most systems this is achieved by switching the ignition off after reaching target height, which deenergises all valves to their normally-closed position. Monitor the ride height sensors over 30–60 minutes. If the height drops with all valves commanded closed, the leak is in the air spring or air line — the valve block is not involved. If the height holds with the valves commanded closed and drops only when the system is in normal operating mode with valves periodically energised, the valve block's solenoids are leaking when energised or the normally-closed seating is leaking — confirming valve block fault. For a definitive valve-by-valve test, soapy water applied to the valve block exhaust silencer port while each solenoid is individually commanded via the scan tool's actuator test will show bubbles at the exhaust for any valve that is not closing fully. ok.parts supplies air suspension valve blocks at wholesale MOQ from 0.18 USD per unit.
Does the air suspension compressor need to be replaced simultaneously with the valve block?
The compressor requires replacement simultaneously with the valve block only when it has been damaged by the valve block failure — specifically when a failed valve caused the compressor to run continuously for extended periods, which overheats the motor windings and depletes the intake air dryer. Test the compressor after valve block replacement by commanding a full system inflate from minimum pressure and timing how long the compressor runs to reach the target pressure — a serviceable compressor achieves the target within the manufacturer's specification time; a compressor with worn motor brushes from overuse takes significantly longer and may produce a burning smell. If the compressor shows any sign of overheating damage, replace it simultaneously with the valve block. The intake air dryer filter should always be replaced simultaneously with any valve block service as the drier's silica gel may have been saturated by moisture ingress during the period of valve block fault.
How does the OEM-equivalent aftermarket unit compare to the genuine OEM part?
OEM-equivalent units in this catalogue replicate the current OEM design geometry and material specification. Quality is verified against OEM cross-reference data. When ordering in bulk, confirm with our team that the specification matches the latest OEM revision for your application.
Is white-label or custom packaging available for wholesale orders?
Yes. ok.parts works directly with the manufacturing facility and can accommodate neutral white-label packaging or fully branded packaging with your company logo, part numbers, and barcode. Minimum order quantities and lead times for custom packaging may differ from standard stock. Contact the team via the inquiry form to discuss your specific requirements.
Frequently Replaced Together
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PartReason for Combined Replacement
Air Suspension Compressor
OEM ref. varies by platform		A valve block that has been leaking forces the compressor to run continuously to replenish lost pressure, significantly overloading the motor beyond its designed duty cycle. A compressor motor that has been cycling continuously from a valve leak will have reduced remaining brush life and may have overheated the intake dryer's desiccant beyond its moisture capacity. Test the compressor fill time after valve block replacement and replace the compressor if fill time exceeds the OEM specification — a slow compressor paired with a new valve block will produce the same excessive cycling pattern as the failed valve block and the fault will appear to have recurred.
Air Spring Bellows Set
All four corners — OEM ref. varies by vehicle		A valve block fault that caused one or more corners to run at reduced pressure for an extended period subjects the rubber air spring bellows to sustained operation at below their designed pressure, causing the bellows to buckle and fold repeatedly rather than compressing evenly — this accelerates fatigue cracking of the bellows at the fold lines. With the valve block removed for replacement, inspect all four air spring bellows for surface cracking and replace any spring showing crack initiation at the fold zones to prevent a spring failure within a short period of the valve block service.
Air Suspension Intake Dryer Filter
Compressor intake desiccant — application-specific		The intake air dryer removes moisture from the atmospheric air drawn into the compressor before it enters the suspension circuit; a desiccant that is saturated with moisture allows wet air into the system, which corrodes the valve block's internal O-rings and valve seats from within and accelerates valve seat deterioration. The dryer's desiccant life is finite and is significantly shortened when the compressor has been running excessively from a valve block leak. Always replace the dryer filter simultaneously with the valve block to protect the new valve block's O-rings from immediate moisture attack.