What is NANOFORCE™?

A hydraulic filtration architecture for high-pressure circuits and precision fluid-power components.

How does NANOFORCE™ work?

Beta-rated media and collapse-resistant construction are matched to flow, pressure, particle size, temperature, and duty cycle.

What does NANOFORCE™ protect?

Controlled fluid cleanliness helps reduce valve stiction, pump wear, leakage, and loss of hydraulic precision.

What is NANOFORCE™?

A hydraulic filtration architecture for high-pressure circuits and precision fluid-power components.

How does NANOFORCE™ work?

Beta-rated media and collapse-resistant construction are matched to flow, pressure, particle size, temperature, and duty cycle.

What does NANOFORCE™ protect?

Controlled fluid cleanliness helps reduce valve stiction, pump wear, leakage, and loss of hydraulic precision.

How should hydraulic cleanliness targets be selected?

Targets should be selected around the most contamination-sensitive component, then verified against flow, pressure, temperature, duty cycle, and the applicable ISO cleanliness and filter-performance standards.

Which failure modes are connected to NANOFORCE™?

Hydraulic System Contamination, Particle Wear

NANOFORCE™ Proprietary Technology

Multi-layer protection architecture engineered for high-pressure hydraulic asset defense. Vapor control and structural integrity systems that maintain protection performance under sustained high-pressure pulsation cycles.

ARCHITECTURE

MULTI-LAYER

VAPOR CONTROL

ACTIVE

STRUCTURAL

HIGH-PRESSURE

HIGH-PRESSURE HYDRAULIC CIRCUIT PROTECTION.

Hydraulic systems are the most contamination-sensitive circuits in any mobile or stationary machine. Hydraulic control valves, pumps and actuators operate on tolerances measured in single-digit microns - any contamination that bypasses filtration accelerates wear exponentially, not linearly.

NANOFORCE™ multi-layer protection architecture is engineered specifically for the hydraulic circuit operating environment: high and variable pressure, temperature cycling from ambient to 85 deg C operating, and continuous flow pulsation from pump cycles that mechanically stress filter elements in ways that static test conditions do not capture.

Vapor control technology embedded in the NANOFORCE™ protection matrix addresses the hydraulic contamination source that conventional filters ignore - the vapor phase water and dissolved gas that forms free-phase contamination when hydraulic fluid temperature changes under load.

NANOFORCE™ - HYDRAULIC PRECISION GUARD ELEMENT

THREE LAYERS FOR HIGH-PRESSURE HYDRAULIC INTEGRITY.

The outer protection layer intercepts large metallic particles, rubber degradation products from hydraulic seals, and polymer contamination from hose liner breakdown. These contamination types are characteristic of hydraulic circuit aging and are the primary cause of valve spool scoring and pump gear wear. The guard layer capacity is sized for extended operation between hydraulic fluid service intervals.

100%

Macro-contamination interception at entry zone

PROTECTION LAYERS

Guard - Vapor control - Structural core

3 micron

PRECISION BARRIER

Structural core intercept rating

ACTIVE

VAPOR CONTROL

Dissolved water phase-transition capture

HIGH

OPERATING PRESSURE

Rated for continuous pulsation cycles

ALL

FLUID COMPATIBILITY

Mineral - Synthetic - Bio-hydraulic fluids

100%

ANTI-COLLAPSE

Cold-start viscosity surge rated structure

“Our excavators were experiencing control valve wear every 2,000 hours. After switching to NANOFORCE™ hydraulic protection, the last fleet inspection showed zero scoring at 4,500 hours. The vapor control layer is what our previous filters were missing.”
Equipment Superintendent · Open-Pit Mining Operation - 48 machines

WHERE NANOFORCE™ PROTECTS

NANOFORCE™ hydraulic asset defense covers every hydraulic circuit type from mobile equipment to industrial fixed installations.

CONSTRUCTION

A single proportional valve replacement in an excavator costs $800-$3,000 and requires partial hydraulic circuit disassembly. Contamination-induced valve spool scoring typically affects multiple valves simultaneously. In high-humidity outdoor environments, dissolved water in hydraulic fluid accelerates this wear - but does not show up in particle count analysis because water is not counted as a particle.

AGRICULTURE

Modern combine harvesters use electronically controlled hydraulic circuits for header height, reel speed and unloading auger positioning. Each function depends on valve spool clearances of 2-8 microns. A valve stuck mid-position during unloading does not just create a maintenance event - it stops harvest operations at the moment when every working hour is critical.

MINING

Hydraulic excavator pump and valve assemblies represent 30-40% of total machine value. In open-pit operations, equipment runs on two-shift cycles with no hydraulic fluid recovery time between shifts. Contamination-induced pump wear creates internal bypass that reduces machine productivity before any external failure symptom appears.

MANUFACTURING

CNC machining center hydraulic clamping and axis control systems require positioning repeatability within Â±0.01mm. Contamination-induced valve spool clearance growth creates hysteresis - the valve does not return to exactly the same position on repeated cycles. This shows first in part dimensional variance, not in any hydraulic system alarm.

MARINE

Shipboard hydraulic reservoir breathers draw in salt-laden air with every temperature cycle as warm fluid contracts on cooling. Dissolved salt water in hydraulic fluid is not visible and does not alter fluid color or viscosity - it circulates undetected until it causes valve seat corrosion or pump internal surface pitting during a sea passage with no repair capability available.

POWER GENERATION

Diesel engine governor hydraulic systems control fuel injection rack position. A governor valve that develops stiction from contamination does not fail catastrophically - it causes hunting, speed instability and load rejection. On grid-connected generators, a load rejection event has consequences beyond the generator itself.

IDENTIFY YOUR NANOFORCE™ ELEMENT