|
Contact EESIFLO (http://www.eesiflo.com/products/easz1_03.html)
for more information
If you are involved in the business of lubrication, the EESIFLO
EASZ-1 water in oil sensor is a product you may want to look
at for online measurement or control of moisture or water
content in oils. The EASZ-1 uses a well known principle of
capacitance in a cell in which water and oil will pass through.
The ratios of the two will affect the picofarad resistance
and these values (related to temperature) can be delivered
in either a ppm or percentage readout of water content in
oil.
The capacitance probe has been widely accepted in the oil
and gas industry in such devices as BS and W monitors for
many years. EESIFLO has taken the same principles and developed
a lower cost water in oil sensor which has temperature compensation
and uses lower amounts of energy.
Whether you are involved with engine lubricants , industrial
oils or hydraulic fluids, the same principal can be used to
cover all measurements by either calibrating to the actual
oil in question or from our own database. The electronic circuits
on the EASZ-1 PCB have been developed using modern techniques
and are less prone to drift and errors due to modern manufacturing
techniques.
LUBRICATING OIL SENSOR
HYDRAULICS, DIESEL, FUEL OIL, SYNTHETIC OILS AND MORE

EESIFLO's EASZ-1 determines the feasibility of extending
the life of hydraulic oils by monitoring them for water content
using an online water-in-oil sensor. Online measurement of
many types of oils including transmission oils by the EESIFLO
EASZ-1 water in hydraulic oil analyzer reduces the need for
a laboratory to analyze the water content of oil samples.

In addition, the EESIFLO water-in-oil analyzer can be tested
onsite or in a laboratory setting for further accuracy and
verification against a Karl Fischer coulometric or volumetric
titrator in determining water content in hydraulic oils
Spot sampling , although sometimes unavoidable can result
in extra costs and the generation of lab-related work over
time. The EASZ-1 is an online instrument that continually
reports the amount of water in oil. Such a device can assist
operators by eliminating the cost and time involved in excessive
spot sampling.
Water in oil has become a serious problem and many studies
have shown that the contamination can have devastating effects
in medium or large systems .When introduced into aircraft
and SE transmission and hydraulic systems, water breaks down
the protective properties of the oils. Water entry can occur
through physical intrusion as well as through condensation
of atmospheric humidity. When aircraft and vessels are operating
over water or at sea, water intrusion more specifically, saltwater
intrusion can occur unnoticed. Paper mills , power plants
and other industries using high performance bearings and mechanical
devices are responsible for monitoring water in oil content
both offline and online since this information assists the
user in knowing what appropriate action to take in the event
of a possible problem.
If you have not found what you are looking for in this article
, try the DMOZ search engine www.dmoz.org and consider the
following search terms.
Types of Lubrication
Boundary Lubrication
Hydrodynamic Lubrication
Elastohydrodynamic Lubrication
SAE Oil Viscosity Classifications
Multi-Viscosity or Multi-Grade Oil
SAE Crankcase Oil Viscosity Classification System
API Quality Service Classifications
The API Engine Service Classifications
"S"-Service Classifications for Gasoline Engines
"C"-Commercial Classifications for Diesel Engines
Combined API Service Classifications
Oil Consumption
Fuel Economy
Engine Oils and Additives
Detergents/Dispersants
Anti-Wear Agents
Anti-Oxidants
Viscosity Index Improvers
Rust Inhibitors
Anti-Foaming Agents
Friction Modifiers
Pour Point Depressants
Corrosion Inhibitors
Natural Gas Engine Lubrication
Valve recession
Ash deposits
Nitration
Air/Fuel Ratios
Timely Oil Drains Provide a Long-Term Solution
Rail Road and Marine Engines
Automatic Transmission and Tractor Fluids
Hydraulic Mineral Oils and Additives
Compatibility of Hydraulic Oils
Industrial Oils and Additives
Physical Characteristics
Viscosity
Viscosity Index
Pour Point
Flash Point
Neutralization Number
Chemical Characteristics and Additives
Detergents
Dispersants
Rust/Corrosion Inhibitors
Oxidation Inhibitors
Anti-Foaming Agents
Viscosity index Improvers
Pour Point Depressants
Demulsifiers
Anti-Wear Additives
Quality Indicators and Laboratory Tests
Oxidation Stability
Foam Test
Copper Corrosion
Demulsibility
Wear Test
EP Test
Biodegradable Hydraulic Fluids, Application and Maintenance
Cleaning and Flushing Techniques for Conversion
Monitoring the Condition of Biodegradable Fluids in Service
General Maintenance Practices for Hydraulic Systems
Automotive Gear Oils, ISO Viscosity Classifications and Additives
Compounded Gear Oils
Gear Types
Fire Resistant Fluids, Types, Application and Maintenance
Considerations
Oil-in-water Emulsions (ISO HFA)
Water-in-Oil Emulsions (ISO HFB)
Water-Glycol Fluids (ISO HFX)
Synthetic Fire Resistant Fluids (ISO HFD)
Broaching
Cold Heading
Drilling
Extruding
Grinding
Honing
Punching
Roll Forming
Stamping
Tapping
Threading
Turning
Lubricant Types
Straight Oils
Soluble Oils
Semi-Synthetics
Synthetics
Way Lubrication
Metal Working Lubricant Additives
Base Oil Refining and Re-Refining of Used Oils
Atmospheric Distillation
Refining
Sulfuric Acid/clay refining
Solvent Extraction
Blending
Synthetic Lubricants, Mineral/Synthetic Oil Comparisons
Alkylated Aromatics
Polyalphaolefins
Dibasic Acid Esters
Selection of Lubricant
Application of Solid Lubricants
Binder Selection
Methods of Application
contamination and Water
Turbines and Turbine Oils
Turbine Lubrication Systems
Resistance to Oxidation
Protection Against Rusting
Water-Separating Ability
Resistance to Foaming
After Market Additives and Oil Conditioners
Oil Filters, Filtration and Oil Re-Conditioning
Filter Types
Surface type elements
Depth type elements
Filtration systems
Full flow system
By-pass filtration systems
Combination full flow and parallel circuit systems
Micron rating of filters
Nominal Rating of filters
Absolute filter ratings
Factors that affect filtration
Pressure drop
Cold oil and high viscosity startups
Changes in flow rates
Pump pulsations and mechanical vibrations
High combustion soot
The Importance of Oil Change
Oxidation degradation of the oil
Water contamination
Additive depletion
Incorrect of poor quality fuels
Operating Temperatures and Lubricant Selection
Boundary lubrication conditions
Hydrodynamic lubrication conditions
Elastohydrodynamic lubrication conditions
Anti-wear additives
Viscosity index improvers
Oil Seal Selection, Maintenance and Fluid Compatibility
Causes of Seal Failure
Bearings and Their Lubrication
Lubricant Analysis
|