// Asset Protection Technology Platform · 9 Proprietary Architectures
Nine proprietary
protection architectures.
One contamination strategy.
Each ELIMFILTERS technology targets a specific contamination domain — air intake, fuel cleanliness, lubrication, hydraulic, compressed air, cooling, or cabin. Every architecture is defined by its contamination target, the failure mechanism it prevents, and the ISO standard it addresses.
// Engineering Philosophy
Engineering Asset Protection Through Technology
Industrial asset protection requires more than replacement parts. Each contamination challenge demands a specific protection strategy, filtration mechanism, material architecture, and engineering approach.
Water contamination in fuel circuits requires turbine-stage coalescing architecture. Sub-micron hydraulic particle contamination requires Beta-rated multi-layer retention. Soot accumulation in lube oil requires synthetic high-capacity media. These are distinct engineering problems — not variations of the same replacement decision.
ELIMFILTERS organizes its technologies into a contamination control framework designed to support reliability, operational continuity, equipment protection, and lifecycle extension across critical industrial systems.
The technologies support the systems. The systems protect the assets. The objective is not filtration alone. The objective is asset protection.
ASSET PROTECTION FRAMEWORK — TECHNOLOGY POSITION
INTEKCORE™
Purpose
Engineered for stationary industrial engines, railway traction systems, and pre-cleaner housing assemblies operating under continuous vibration loading. Prevents bypass at seal interfaces where mechanical movement from vibration would compromise conventional intake element seating.
Contamination Target
Coarse and fine airborne particulate in high-vibration industrial, railway, and power generation environments
Asset Protection Outcome
- ›Zero-bypass air intake protection in high-vibration railway traction and industrial power environments
- ›Extended service life in stationary engine applications with continuous mechanical loading
- ›Reliable seal geometry performance where axial-seal designs are unsuitable
MACROCORE™
Purpose
Engineered to protect combustion engines, gas turbines, and industrial compressors from airborne particulate ingestion in high-dust environments. Controls silica, mineral, and organic particulate before it reaches intake valves, turbochargers, and compressor blades.
Contamination Target
Silica dust at 3,000–10,000 mg/m³ · Mineral particulate · Organic harvest dust · Coarse industrial airborne contamination
Asset Protection Outcome
- ›Extended cylinder liner and valve train service life in high-dust mining, construction, and harvest environments
- ›ISO 5011-compliant restriction maintained through extended service intervals at 10,000 mg/m³ dust concentration
- ›Reduced abrasive wear from silica ingestion in turbochargers and compressor stages
HYDROCORE/SERIES™
Purpose
Engineered for high-flow fuel delivery systems in power generation, mining, and heavy commercial transport where fuel volume and contamination load require higher capacity than standard fuel cleanliness modules.
Contamination Target
Free water, emulsified water, and particulate contamination in high-volume fuel delivery for stationary power systems and mining equipment
Asset Protection Outcome
- ›High-volume fuel cleanliness protection for power generation and mining fuel systems
- ›Maintained ASTM D6304 water content compliance at elevated fuel flow rates
- ›Extended service intervals in high-demand stationary fuel applications
HYDROCORE™
Purpose
Designed to separate free and emulsified water from diesel fuel before it damages high-pressure common-rail injection components. Protects HPCR injection systems at 1,800–2,500 bar — where free water above 200 ppm causes hydrogen embrittlement and corrosion of injector needle alloys at 1–3 µm clearances.
Contamination Target
Free water from tank condensation and bunkered fuel · Emulsified water at water-fuel interface · Particulate above 10 µm · Microbial contamination from water-fuel interface
Asset Protection Outcome
- ›Protected HPCR injection system precision at 1,800–2,500 bar
- ›Prevented hydrogen embrittlement and corrosion of injector needle alloys
- ›Extended injector service life in long-haul, marine, and standby generator applications
SYNTEPORE™
Purpose
Engineered for fuel filtration applications where all-synthetic construction provides chemical compatibility and structural stability across diesel, HVO, and biodiesel fuel types. Maintains filtration efficiency in fuel circuits where conventional cellulose media degrades under fuel chemistry exposure.
Contamination Target
Particulate contamination in diesel, HVO, and biodiesel fuel circuits · Fuel-borne contaminants where chemical media resistance is required
Asset Protection Outcome
- ›Maintained fuel cleanliness in diesel, HVO, and biodiesel fuel circuits
- ›Chemical media stability across fuel chemistry variations including biodiesel blends and HVO
- ›Extended service life in fuel circuits where conventional cellulose media degrades
SYNTRAX™
Purpose
Engineered to maintain ISO 4406 oil cleanliness codes in diesel engine lubrication circuits through extended drain intervals, preventing abrasive bearing wear from soot accumulation and particle contamination at 15,000+ hour overhaul targets.
Contamination Target
Combustion soot above 2% by weight · Metal wear particles from ring and bearing contact · Fuel dilution byproducts · Acidic combustion residues · External particulate ingress
Asset Protection Outcome
- ›Extended bearing and drivetrain service life 3–5× versus uncontrolled contamination at ISO 19/17/14
- ›ISO 4406 16/14/11 cleanliness maintained through long-drain programs of 60,000–100,000 km
- ›Reduced soot-accelerated wear in high-cycle urban transit and long-haul commercial transport applications
NANOFORCE™
Purpose
Engineered to maintain ISO 4406 cleanliness at sub-micron levels in high-pressure hydraulic circuits, protecting proportional valve spool geometry and actuator precision from the particle size range that bypasses standard return-line protection.
Contamination Target
Sub-micron particulate at 1–10 µm bypassing standard 25 µm return-line filtration · Silica at Mohs hardness 7 · Metal wear particles from pump contact · Water ingress through cylinder seals
Asset Protection Outcome
- ›Maintained proportional valve spool precision and actuator response accuracy
- ›Eliminated sub-micron particle accumulation driving 40–60% of unplanned hydraulic maintenance costs
- ›Extended pump service life in construction, mining, and manufacturing high-pressure circuits
DRYCORE™
Purpose
Engineered to remove moisture from compressed air circuits to ISO 8573-1 Class 1–2 dew point targets, preventing valve icing and actuator seal degradation in pneumatic braking, suspension, and process control systems.
Contamination Target
Water vapor and moisture in compressed air for pneumatic braking, suspension, and process control instrumentation circuits
Asset Protection Outcome
- ›Eliminated pneumatic valve icing in safety-critical railway and transit braking systems
- ›Prevented actuator seal degradation and corrosion in process control pneumatic circuits
- ›ISO 8573-1 Class 1–2 dew point compliance for regulated compressed air applications
THERMACORE™
Purpose
Engineered to continuously replenish supplemental coolant additives throughout the service interval, preventing cavitation erosion on wet sleeve liner surfaces and corrosion scaling in industrial diesel engine cooling circuits.
Contamination Target
DCA depletion below cavitation-protection threshold · Corrosion products in cooling passages · Silicate scale on heat exchanger surfaces · Electrolytic degradation of coolant additive package
Asset Protection Outcome
- ›Prevented wet sleeve liner cavitation erosion — a failure mode that initiates within 500–1,000 hours below DCA threshold
- ›Maintained radiator thermal efficiency through scale and corrosion product control
- ›Extended engine overhaul intervals in wet-liner industrial diesel and commercial transport applications
MICROKAPPA™
Purpose
Engineered to reduce operator cabin PM2.5 and VOC concentrations in commercial vehicles and construction equipment, protecting professional driver health from diesel exhaust particulate exposure regulated under EU Directive 2019/130 and OSHA occupational health standards.
Contamination Target
PM2.5 at 30–80 µg/m³ at road level · Diesel exhaust soot (IARC Group 1 carcinogen) · NOx and VOC from urban traffic · Brake wear and road dust particulate
Asset Protection Outcome
- ›Reduced operator cabin PM2.5 by up to 85% versus standard OEM cabin elements
- ›Supported professional driver occupational health compliance under EU Directive 2019/130 and OSHA standards
- ›Reduced sustained exposure to IARC Group 1 carcinogen diesel exhaust particulate in 9–11 hour professional driving schedules
MARINECLEAN™
Purpose
Engineered for continuous fuel and lubrication protection aboard commercial vessels and offshore platforms where salt brine, humidity, and marine corrosion prevent the use of standard land-based filtration components.
Contamination Target
Salt brine and humidity on component surfaces · Marine fuel water contamination · Particulate in marine diesel and bunker fuel delivery circuits
Asset Protection Outcome
- ›Extended service life in permanent marine salt and humidity exposure environments
- ›IMO-compliant filtration for regulated commercial maritime operations
- ›Fuel and lubrication cleanliness protection aboard commercial vessels and offshore support platforms
DURATECH™
Purpose
Engineered to standardize contamination control programs across mixed-fleet operations by consolidating OEM-interchangeable filter specifications into coordinated service kits — reducing procurement complexity and ensuring coordinated protection across all five contamination domains.
Contamination Target
Multi-domain contamination across intake, fuel, lube, hydraulic, and cooling circuits in mixed-fleet operating environments
Asset Protection Outcome
- ›Reduced fleet procurement complexity through consolidated kit specifications
- ›Synchronized multi-domain service intervals across mixed-equipment platforms
- ›Consistent contamination control standards across heterogeneous fleet operations
Quick reference
Technology platform — architecture comparison
| Technology | Domain | Key metric | System Application |
|---|---|---|---|
| HYDROCORE/SERIES™ | Fuel Cleanliness | 99.8% free water removal · High-flow power systems | Fuel Cleanliness Protection |
| HYDROCORE™ | Fuel Cleanliness | 99.8% water removal · ASTM D6304 · 1,800–2,500 bar | Fuel Cleanliness Protection |
| THERMACORE™ | Cooling System | SCA dosing · DCA concentration maintenance · Liner protection | Cooling System & Environmental Protection |
| DRYCORE™ | Compressed Air | ISO 8573-1 Class 1–2 · −20°C dew point | Air Intake & Airflow Protection |
| DURATECH™ | Fleet Maintenance | OEM-interchangeable · Mixed-fleet standardisation | Air Intake & Airflow Protection · Fuel Cleanliness Protection · Lubrication Reliability Protection |
| INTEKCORE™ | Air Intake | Zero-bypass · Radial seal · High-vibration rated | Air Intake & Airflow Protection |
| MACROCORE™ | Air Intake | 99.9–99.98% · ISO 5011 · 10,000 mg/m³ | Air Intake & Airflow Protection |
| MARINECLEAN™ | Marine & Offshore | IMO certified · ASTM B117 · Salt-resistant | Fuel Cleanliness Protection · Lubrication Reliability Protection |
| MICROKAPPA™ | Cabin Protection | Up to 85% PM2.5 reduction · IARC Group 1 · EU 2019/130 | Cooling System & Environmental Protection |
| NANOFORCE™ | Hydraulic | ISO 4406 16/14/11 · 1–10 µm · 200–450 bar | Hydraulic Contamination Control |
| SYNTEPORE™ | Fuel Filtration | All-synthetic · Chemical resistance · Diesel / HVO / Biodiesel | Fuel Cleanliness Protection |
| SYNTRAX™ | Lubrication | ISO 4406 16/14/11 · Soot >2% · 60,000–100,000 km | Lubrication Reliability Protection |
// Reliability Engineering Context
Why Technology Matters In Asset Protection
Industrial reliability depends on the effectiveness of the technologies used to control contamination. A bearing does not fail because maintenance was delayed by a week. It fails because particle contamination in the lubrication circuit accumulated above the ISO 4406 cleanliness threshold at which abrasive wear rate exceeds the design tolerance for that bearing geometry. Technology determines whether that threshold is maintained.
Different contamination threats require different engineering approaches. Water contamination, airborne particulate, hydraulic wear particles, soot, oxidation, and fluid degradation each require unique protection mechanisms. HYDROCORE™ addresses water in fuel through turbine-stage coalescing — a fundamentally different mechanism than NANOFORCE™ sub-micron particle retention in hydraulic circuits. Specifying the wrong technology for a contamination challenge leaves the failure mechanism unaddressed regardless of replacement frequency.
ELIMFILTERS technologies are designed to address specific contamination challenges through specialized protection architectures aligned with industrial systems. The framework is: identify the contamination type and entry pathway → determine the measurable threshold standard (ISO 4406, ASTM D6304, ISO 8573-1) → select the technology engineered to meet that threshold → implement through the correct product specification. Technology selection is a reliability engineering decision, not a procurement decision.
When technologies are matched to contamination challenges, assets operate longer, fail less, and cost less to maintain. When technology selection is replaced by commodity substitution, the contamination mechanism continues regardless of service frequency. The difference between a 15,000-hour engine overhaul interval and a 3,000-hour failure event is not which brand of filter was installed — it is whether the correct contamination control technology was specified for the operating environment.
// Technical Reference
Technology Platform — Technical Questions
What is HYDROCORE™ by ELIMFILTERS?
HYDROCORE™ is a proprietary ELIMFILTERS water separation and fuel cleanliness technology using three-stage turbine-coalescing-precision architecture. It achieves 99.8% free water removal and 95% emulsified water reduction per ASTM D6304, protecting HPCR injection systems at 1,800–2,500 bar from water-driven injector corrosion, hydrogen embrittlement, and stiction failure. Applies to mobile diesel, marine, standby generator, and offshore fuel systems.
What is MACROCORE™ by ELIMFILTERS?
MACROCORE™ is a proprietary ELIMFILTERS Progressive Density Gradient air intake technology using multi-layer cellulose-synthetic composite media. It achieves 99.9–99.98% ISO 5011 efficiency at dust concentrations up to 10,000 mg/m³ — 10–30× the ISO 5011 test threshold. MACROCORE™ protects combustion engines, gas turbines, and industrial compressors in mining, construction, and agriculture environments from silica and mineral dust abrasive intake wear.
What is NANOFORCE™ by ELIMFILTERS?
NANOFORCE™ is a proprietary ELIMFILTERS sub-micron hydraulic contamination control technology. It uses ISO 16889 Beta-rated multi-layer media to capture particles at 1–10 µm in high-pressure circuits at 200–450 bar — the contamination range that bypasses standard 25 µm return-line protection and drives progressive proportional valve spool wear. Maintains ISO 4406 16/14/11 in construction, mining, and manufacturing hydraulic circuits.
How do contamination control technologies improve industrial reliability?
Contamination control technologies maintain fluid and system cleanliness within the thresholds that determine component wear rates. When lube oil cleanliness is maintained at ISO 4406 16/14/11 via SYNTRAX™, bearing service life extends 3–5×. When fuel water content is maintained below 200 ppm via HYDROCORE™, HPCR injector service life extends from under 2,000 hours to 10,000+. The technology determines whether the contamination threshold is maintained — and whether the failure mechanism remains active or controlled.
Why does ELIMFILTERS use multiple technologies rather than a single filtration solution?
Different contamination threats require fundamentally different engineering approaches. Silica dust in air intake requires Progressive Density Gradient media (MACROCORE™). Water in fuel requires turbine-stage coalescing (HYDROCORE™). Sub-micron hydraulic particles require Beta-rated retention (NANOFORCE™). Soot in lube oil requires high-capacity synthetic media (SYNTRAX™). A single technology cannot address these distinct failure mechanisms, measurement standards, and operating conditions. Each ELIMFILTERS technology is engineered for a specific contamination domain.
How are ELIMFILTERS technologies connected to industrial protection systems?
ELIMFILTERS technologies are organized within five protection systems: Air Intake & Airflow (MACROCORE™, INTEKCORE™, DRYCORE™), Fuel Cleanliness (SYNTEPORE™, HYDROCORE™, HYDROCORE™/SERIES), Lubrication Reliability (SYNTRAX™), Hydraulic Contamination Control (NANOFORCE™), and Cooling System & Environmental Protection (THERMACORE™, MICROKAPPA™). Technologies are selected based on the contamination challenge within each system, not as standalone product replacements.
What is the difference between a technology and a product in the ELIMFILTERS framework?
A technology is a contamination control architecture — an engineered approach for a specific failure mechanism (e.g., HYDROCORE™ for water separation in fuel systems). A product is the implementation of that technology in a specific housing, size, and configuration for a particular equipment platform. Multiple products implement the same technology. The technology defines contamination control capability; the product deploys it in a specific application. Technology-first selection ensures the contamination challenge is addressed, not just the part number matched.
How does contamination type influence technology selection?
Contamination type determines which failure mechanism is active and which engineering approach addresses it. Particle contamination in hydraulic circuits → NANOFORCE™ sub-micron Beta-rated capture → ISO 16889 / ISO 4406 measurement. Water in fuel systems → HYDROCORE™ turbine-stage coalescing → ASTM D6304 compliance. Soot and wear particles in lube oil → SYNTRAX™ synthetic media → ISO 4406 cleanliness codes. Moisture in compressed air → DRYCORE™ molecular sieve → ISO 8573-1 dew point class. Technology selection begins with contamination identification.
// Explore the Platform
Technologies support systems.
Systems protect assets.
See how ELIMFILTERS protection architectures are organized within the five industrial asset protection systems — and which industries they serve.