Technical Services - Southwest Research Institute
Technical Services - Southwest Research Institute
Technical Services - Southwest Research Institute
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Fuels and Lubricants <strong>Research</strong> Division<br />
2014<br />
22
The Fuels and Lubricants <strong>Research</strong> Division of <strong>Southwest</strong> <strong>Research</strong><br />
<strong>Institute</strong> ® includes extensive engines, fuels and lubricants research,<br />
development and evaluation activities.<br />
Fuels and<br />
Lubricants<br />
<strong>Research</strong><br />
Division<br />
<strong>Technical</strong><br />
<strong>Services</strong><br />
The result is unequaled capabilities for automotive product research,<br />
development, testing and evaluation. A client-driven and technologyoriented<br />
staff of more than 400 provides a broad range of services<br />
for research, development, qualification, demonstration, certification,<br />
or evaluation of automotive components and petroleum products<br />
used in cars, trucks, buses, locomotives, tractors, motorcycles and<br />
outboard engines, or any other internal combustion engine<br />
application.<br />
Our services include bench, laboratory or field demonstrations and<br />
include worldwide specifications. We provide all relevant and<br />
applicable ASTM, OEM and other recognized procedures. An even<br />
greater variety and range of services is provided for specific<br />
applications and special needs. This publication contains a partial list<br />
of the services available, organized by department. We welcome<br />
your inquiries and will provide price quotes on request at no<br />
obligation. Key personnel are listed at the beginning of each section.<br />
Steven D. Marty, P.E., Vice President<br />
Fuels and Lubricants <strong>Research</strong> Division<br />
<strong>Southwest</strong> <strong>Research</strong> <strong>Institute</strong><br />
6220 Culebra Road<br />
P.O. Drawer 28510<br />
San Antonio, Texas USA 78228-0510<br />
(210) 522-5929<br />
smarty@swri.org<br />
www.flrd.swri.org<br />
www.swri.org<br />
The Fuels and Lubricants <strong>Research</strong> Division is:<br />
• Certified to ISO 9001:2008, “Quality Management Systems -<br />
Requirements”<br />
• Accredited to ISO/IEC 17025:2005, “General Requirements for the<br />
Competence of Testing and Calibration Laboratories”<br />
• Certified to ISO 14001:2004, “Environmental Management<br />
Systems”<br />
The Division also has achieved Ford Tier 1 status for providing<br />
engineering services and has received the Ford Q1 Quality Award.<br />
In conjunction with these Divisional quality system accomplishments:<br />
• The Petroleum Products <strong>Research</strong> Department is a Nuclear<br />
Procurement Issues Committee (NUPIC)-Approved Laboratory.<br />
• The Fuels and Lubricants <strong>Research</strong> Department has maintained its<br />
status as an American Chemistry Council (ACC)-Approved<br />
Laboratory.<br />
i
Table of Contents<br />
ENGINE LUBRICANTS RESEARCH DEPARTMENT ................................................... 1<br />
ENGINE LUBRICANTS RESEARCH DEPARTMENT ................................................... 2<br />
Gasoline Engine Lubricant Certification Testing ................................................................... 2<br />
Calibrated Sequence IIIF Lubricant Test .................................................................................................. 2<br />
Calibrated Sequence IIIFHD Lubricant Test ............................................................................................. 2<br />
Calibrated Sequence IIIG Lubricant Test .................................................................................................. 2<br />
Calibrated Sequence IIIGA Lubricant Test ............................................................................................... 2<br />
Calibrated Sequence IIIGB Lubricant Test ............................................................................................... 2<br />
Calibrated Sequence IVA Lubricant Test .................................................................................................. 2<br />
Calibrated Sequence VG Lubricant Test .................................................................................................. 2<br />
Calibrated Sequence VIB Lubricant Test .................................................................................................. 2<br />
Calibrated Sequence VID Lubricant Test .................................................................................................. 2<br />
Calibrated Sequence VIII Lubricant Test .................................................................................................. 2<br />
Calibrated Ball Rust Test .......................................................................................................................... 2<br />
Diesel Engine Lubricant Certification Testing ....................................................................... 2<br />
Caterpillar 1K Lubricant Test..................................................................................................................... 2<br />
Caterpillar 1M-PC Lubricant Test .............................................................................................................. 3<br />
Caterpillar 1N Lubricant Test .................................................................................................................... 3<br />
Caterpillar 1P Lubricant Test..................................................................................................................... 3<br />
Caterpillar 1R Lubricant Test .................................................................................................................... 3<br />
Caterpillar C13 Lubricant Test .................................................................................................................. 3<br />
Mack T8/T8A/T8E Lubricant Test ............................................................................................................. 3<br />
Mack T10A Lubricant Test ........................................................................................................................ 3<br />
Mack T11 Lubricant Test ........................................................................................................................... 3<br />
Mack T12 Lubricant Test ........................................................................................................................... 3<br />
Roller Follower Wear Test (RFWT) ........................................................................................................... 3<br />
Engine Oil Aeration Test (EOAT) .............................................................................................................. 3<br />
Cummins ISB Lubricant Test .................................................................................................................... 3<br />
Cummins ISM Lubricant Test .................................................................................................................... 4<br />
Specialized Diesel Engine Testing .......................................................................................... 4<br />
Railroad and Marine .................................................................................................................................. 4<br />
Fuel Additives ............................................................................................................................................ 4<br />
Fuel Consumption ..................................................................................................................................... 4<br />
Alternative Fuels ....................................................................................................................................... 4<br />
Fuel System Wear ..................................................................................................................................... 4<br />
Durability ................................................................................................................................................... 4<br />
Injector Deposit/Coking ............................................................................................................................. 4<br />
Engine Hardware ...................................................................................................................................... 4<br />
Oil Consumption ........................................................................................................................................ 4<br />
New Engine vs. Available Lubricants ........................................................................................................ 4<br />
Valve Guttering ......................................................................................................................................... 4<br />
Destructive Evaluations ............................................................................................................................. 4<br />
Oil Consumption Apparatus ...................................................................................................................... 4<br />
Parts Analysis ........................................................................................................................................... 4<br />
Ratings ...................................................................................................................................................... 5<br />
ii
Turbocharger Durability/Lubrication .......................................................................................................... 5<br />
Tribology and Advanced Lubricant Evaluations ................................................................... 5<br />
Plint TE-77 Reciprocating Test Rig ........................................................................................................... 5<br />
High-Pressure, -Temperature and -Frequency Reciprocating Rig ........................................................... 5<br />
Falex Block-on-Ring Test Rig ................................................................................................................... 5<br />
PCS Instruments Mini Traction Machine (MTM2) ..................................................................................... 5<br />
JASO Diesel Engine Lubricant Testing .................................................................................. 5<br />
Mitsubishi 4D34T4 Valve Train Wear JASO M354:1999 .......................................................................... 5<br />
ASTM-TC Procedures for Two-Stroke, Air-Cooled Engines .................................................. 5<br />
D4857-12 TC Seq. I (Y350M2 Detergency) .............................................................................................. 5<br />
D4863-13 TC Seq. II (CE50S Lubricity) .................................................................................................... 5<br />
D4858-13 TC Seq. III (CE50S Pre-Ignition) .............................................................................................. 5<br />
NMMA TC-W3 ® Procedures for Two-Cycle Outboard Engines ............................................. 6<br />
CE50S Lubricity ........................................................................................................................................ 6<br />
NMMA TC-W3 AF-27 Lubricity.................................................................................................................. 6<br />
OMC 40 HP General Performance ........................................................................................................... 6<br />
OMC 70 HP Detergency ........................................................................................................................... 6<br />
Mercury 15 HP Detergency ....................................................................................................................... 6<br />
Pre-Ignition ................................................................................................................................................ 6<br />
NMMA FC-W ® and FC-W Catalyst Compatible ® Procedures for Four-Cycle Outboard<br />
Engines ..................................................................................................................................... 6<br />
NMMA FC-W 115 HP General Performance Engine Test ........................................................................ 6<br />
JASO FB, FC, FD, EGB, EGC & EGD Procedures for Two-Stroke Lubricant Engine Testing<br />
.................................................................................................................................................. 6<br />
M 342-92 Smoke ....................................................................................................................................... 6<br />
M 343-92 Exhaust System Blocking ......................................................................................................... 6<br />
M 341-92 Detergency ................................................................................................................................ 6<br />
M 340-92 Lubricity ..................................................................................................................................... 6<br />
M 341-02 Three-Hour Detergency ............................................................................................................ 6<br />
Field Test Engine – Complete New Powerhead Inspection ...................................................................... 6<br />
Field Test Engine – Block and Piston Inspection ...................................................................................... 6<br />
Component, Product and Additive Testing ............................................................................ 7<br />
Engine Rating and Measurements ............................................................................................................ 7<br />
Aircraft Product Testing ............................................................................................................................. 7<br />
Additive Testing ......................................................................................................................................... 7<br />
Sequence Test Development .................................................................................................................... 7<br />
Gaskets and Seals .................................................................................................................................... 7<br />
Two-Stroke Cycle Tests ............................................................................................................................ 7<br />
Test Equipment, Fabrication and Training Export <strong>Services</strong> ...................................................................... 7<br />
Natural Gas Lubricant Evaluations ........................................................................................................... 7<br />
FUELS AND DRIVELINE LUBRICANTS RESEARCH DEPARTMENT......................... 8<br />
FUELS AND DRIVELINE LUBRICANTS RESEARCH DEPARTMENT......................... 9<br />
Transmission Fluid Testing ..................................................................................................... 9<br />
General Motors Automatic Transmission Fluids Testing ...................................................... 9<br />
iii
DEXRON ® -VI Chemical and Bench Tests (DEXRON ® -VI Items A-M, and O-U) ...................................... 9<br />
DEXRON ® -VI Oxidation Test .................................................................................................................... 9<br />
DEXRON ® -VI Cycling Test ........................................................................................................................ 9<br />
DEXRON ® -VI Plate Clutch Friction Test ................................................................................................... 9<br />
DEXRON ® -VI Wear Test ........................................................................................................................... 9<br />
DEXRON ® -VI Aeration Test ...................................................................................................................... 9<br />
DEXRON ® -VI Low Speed Clutch Friction and Torque Capacity Test ....................................................... 9<br />
Ford Automatic Transmission Fluid Testing .......................................................................... 9<br />
MERCON ® V Chemical and Bench Tests (MERCON ® V items 3.1 thru 3.7, 3.9 and 3.10) ..................... 9<br />
MERCON ® V Wear Tests ........................................................................................................................ 10<br />
MERCON ® V Aluminum Beaker Oxidation Test (ABOT) ........................................................................ 10<br />
MERCON ® V Clutch Friction Durability Test ........................................................................................... 10<br />
MERCON ® V Anti-Shudder Durability ..................................................................................................... 10<br />
Ford Over-Running Clutch (AX4N OWC) Wear Test Procedure ............................................................ 10<br />
Allison Severe Duty, Extended Drain Interval Automatic Transmission Fluid Testing ......10<br />
Allison TES-295 Chemical and Bench Tests .......................................................................................... 10<br />
Allison TES-295 Oxidation Test .............................................................................................................. 10<br />
Allison TES-295 Wear Tests ................................................................................................................... 10<br />
Allison TES-295 Frictional Properties Tests ........................................................................................... 10<br />
Allison On-Highway Automatic Transmission Fluid Testing ...............................................10<br />
Allison TES-389 Chemical and Bench Tests .......................................................................................... 10<br />
Allison TES-389 Wear Test ..................................................................................................................... 10<br />
Allison TES-389 Oxidation Resistance Test ........................................................................................... 10<br />
Allison TES-389 Friction Tests ................................................................................................................ 11<br />
Allison Heavy-Duty Automatic Transmission Fluid Testing ................................................11<br />
Allison TES-439 Chemical and Bench Test ............................................................................................ 11<br />
Allison TES-439 Oxidation Test .............................................................................................................. 11<br />
Allison TES-439 Graphite High-Energy Friction Test ............................................................................. 11<br />
JASO SAE #2 Testing .............................................................................................................11<br />
JASO T903:2011 and M348:2002 Clutch Friction Test .......................................................................... 11<br />
Caterpillar Transmission and Drivetrain Fluid Testing ........................................................11<br />
TO-4 Physical Properties ........................................................................................................................ 11<br />
TO-4 Elastomer Compatibility ................................................................................................................. 11<br />
TO-4 Oxidation Stability .......................................................................................................................... 11<br />
TO-4 Gear Wear Test (ASTM D4998) .................................................................................................... 11<br />
TO-4 Pump Wear Test ............................................................................................................................ 11<br />
TO-4 Friction Properties .......................................................................................................................... 11<br />
Hydraulic Fluid Testing ..........................................................................................................12<br />
DIN 51389-2 Vane Pump Wear Test ...................................................................................................... 12<br />
Conestoga Pump Test (ASTM D7043) ................................................................................................... 12<br />
Eaton 35VQ25A Pump Test .................................................................................................................... 12<br />
Denison T6H20C Hybrid Pump - Phase I ............................................................................................... 12<br />
Manual Transmission and Rear Axle Gear Lubricant Performance Testing .......................12<br />
L-20 High-Torque Test ............................................................................................................................ 12<br />
L-33-1 Moisture Corrosion Test (ASTM D7038) ..................................................................................... 12<br />
iv
L-37 High-Torque Test (ASTM D6121) ................................................................................................... 12<br />
L-42 High-Speed Shock Axle Test (ASTM D7452) ................................................................................. 12<br />
L-60-1 Thermal and Oxidative Stability Test (ASTM D5704) .................................................................. 12<br />
FZG Gear Wear Test (ASTM D4998) ..................................................................................................... 13<br />
FZG Load Stage Test (ASTM D5182) .................................................................................................... 13<br />
Axle Efficiency Test ................................................................................................................................. 13<br />
FZG Pitting Test with Type C Gear ......................................................................................................... 13<br />
FZG Step Load (A10/16.6R/90:120) ....................................................................................................... 13<br />
Manual Transmission High-Temperature Cyclic Durability Test (ASTM D5579) .................................... 13<br />
SSP 180 Synchronizer ............................................................................................................................ 13<br />
Mack GO-J/J+ and Eaton PS-163 Test Procedures ............................................................................... 13<br />
Manual Transmission and Dry Clutch Transmission (dDCT) Fluid Testing ........................14<br />
General Motors Dry Dual Clutch Transmissions Fluids Testing .........................................14<br />
DEXRON ® -dDCT Chemical and Bench Tests ........................................................................................ 14<br />
DEXRON ® -dDCT Wear Test ................................................................................................................... 14<br />
DEXRON ® -dDCT Scuffing Protection Test ............................................................................................. 14<br />
DEXRON ® -dDCT Synchronizer Function Test ....................................................................................... 14<br />
Tractor Testing ........................................................................................................................14<br />
Tractor Field Tests .................................................................................................................................. 14<br />
Tractor Fluids Specification Testing......................................................................................14<br />
Tractor Hydraulic Fluid Testing ............................................................................................................... 14<br />
JDQ-84 Dynamic Corrosion Sauer-Danfoss Pump Test ........................................................................ 14<br />
JDQ-94 Powershift Transmission Clutch Friction Test ........................................................................... 14<br />
JDQ-102 Shear Stability .......................................................................................................................... 14<br />
JDQ-95 Spiral Bevel/Final Drive Wear Test ............................................................................................ 15<br />
JDQ-96B Torque Variation and Brake Friction Retention Test ............................................................... 15<br />
John Deere Hydraulic Pump Shear Stability ........................................................................................... 15<br />
JDQ-95A Spiral Bevel Gear Wear .......................................................................................................... 15<br />
John Deere High Energy Clutch ............................................................................................................. 15<br />
John Deere TZT Oxidation ...................................................................................................................... 15<br />
Automotive Fleet Testing .......................................................................................................15<br />
Axle and Axle Lubricant Evaluations, Heavy-Duty .................................................................................. 15<br />
Axle and Axle Lubricant Evaluations, Light-Duty .................................................................................... 15<br />
Truck Axle Lubricant Fuel Economy ....................................................................................................... 15<br />
Crankcase Engine Lubricant Fuel Economy ........................................................................................... 15<br />
Truck Fuel Economy Improvements ....................................................................................................... 16<br />
Durability and Reliability Evaluation of Engine/Vehicle Compatibility ..................................................... 16<br />
Road Simulators/Mileage Accumulation Dynamometers ........................................................................ 16<br />
Vehicle Test Tracks ................................................................................................................................. 16<br />
Off-Highway Evaluations ......................................................................................................................... 16<br />
John Deere Engine Coolant Cavitation Test ........................................................................................... 16<br />
Specialized Fuel Testing ........................................................................................................16<br />
Vehicle Evaluations for Fuel Injector Plugging........................................................................................ 16<br />
Intake System and Combustion Chamber Deposits ............................................................................... 16<br />
Intake Valve-Sticking Evaluations ........................................................................................................... 16<br />
Vehicle Driveability and Performance Testing ........................................................................................ 16<br />
v
Vehicle Octane Requirement and ORI Evaluations ................................................................................ 17<br />
Alternative Fuels Testing (Methanol, Ethanol, Natural Gas and others) ................................................ 17<br />
Octane Requirement Increase (ORI) ...................................................................................................... 17<br />
Gasoline Direct Injection GDI) Fuel Injector Deposits ............................................................................ 17<br />
Sequential Central Port Injection Fouling Test........................................................................................ 17<br />
PETROLEUM PRODUCTS RESEARCH DEPARTMENT ............................................ 18<br />
PETROLEUM PRODUCTS RESEARCH DEPARTMENT ............................................ 19<br />
Fuel, Lubricant and Fluid Inspection ....................................................................................................... 19<br />
Metals Analyses ...................................................................................................................................... 19<br />
Fuel Conformance/Fuel Surveys/Field Studies....................................................................................... 19<br />
Trace Organic Analysis ........................................................................................................................... 19<br />
Laboratory Engine Technology ............................................................................................................... 19<br />
SwRI-developed Instruments .................................................................................................................. 19<br />
Petroleum Products <strong>Research</strong> ................................................................................................................ 20<br />
Used Lubricant Field Studies .................................................................................................................. 20<br />
Procedural Development ......................................................................................................................... 20<br />
Trend Analysis ........................................................................................................................................ 20<br />
Lubricants and Fluid Evaluations ............................................................................................................ 20<br />
Engine Lubricants ................................................................................................................................... 20<br />
Gear Lubricants ....................................................................................................................................... 20<br />
Transmission Fluids ................................................................................................................................ 20<br />
Industrial Lubricants ................................................................................................................................ 20<br />
Engine Coolants ...................................................................................................................................... 20<br />
FUELS AND LUBRICANTS TECHNOLOGY DEPARTMENT ..................................... 21<br />
FUELS AND LUBRICANTS TECHNOLOGY DEPARTMENT ..................................... 22<br />
Automotive Filtration Performance Testing ............................................................................................. 22<br />
Fluids Filtration and Handling <strong>Research</strong> ................................................................................................. 22<br />
Fuels, Lubricants, and Fluids Applications .............................................................................................. 22<br />
Fuel Systems and Contamination <strong>Research</strong> ........................................................................................... 23<br />
Filtration and Fine Particle Technology ................................................................................................... 23<br />
vi
Engine Lubricants <strong>Research</strong> Department<br />
Ben Weber, Executive Director ................................................................... (210) 522-5911<br />
William A. Buscher III, Manager, Gasoline Lubricant Evaluations ...............................(210) 522-6802<br />
Jim McCord, Manager, Diesel Engine Lubricants ........................................................(210) 522-3439<br />
Dr. Peter Lee, Principal Engineer, Tribology ................................................................(210) 522-5545<br />
Dr. Sylvain Kouame, <strong>Research</strong> Engineer, Advanced Lubricant Evaluations ...............(210) 522-5271<br />
1
Engine Lubricants<br />
<strong>Research</strong> Department<br />
Ben Weber, Executive Director<br />
(210) 522-5911<br />
William A. Buscher III, Manager<br />
Gasoline Lubricant Evaluations<br />
(210) 522-6802<br />
Jim McCord, Manager<br />
Diesel Engine Lubricants<br />
(210) 522-3439<br />
Dr. Peter Lee, Principal Engineer<br />
Tribology<br />
(210) 522-5545<br />
Dr. Sylvain Kouame, <strong>Research</strong> Engineer<br />
Advanced Lubricant Evaluations<br />
(210) 522-5271<br />
Gasoline Engine Lubricant<br />
Certification Testing<br />
Calibrated Sequence IIIF Lubricant Test<br />
This 80-hour engine dynamometer lubricant test<br />
evaluates a lubricant’s ability to prevent<br />
camshaft lobe wear, valve lifter wear, and hightemperature<br />
oxidation. In addition, varnish and<br />
piston deposits are evaluated.<br />
Calibrated Sequence IIIFHD Lubricant Test<br />
This 60-hour test measures high temperature<br />
oxidation performance of a lubricant. Test<br />
conditions are identical to the Sequence IIIF test<br />
with the exception of test length.<br />
Calibrated Sequence IIIG Lubricant Test<br />
This 100-hour test evaluates a lubricant’s ability<br />
to prevent camshaft lobe wear, valve lifter wear<br />
and high temperature oxidation. In addition,<br />
varnish and piston deposits are evaluated.<br />
Operational conditions are similar to the<br />
Sequence IIIF but at a more severe level.<br />
Calibrated Sequence IIIGA Lubricant Test<br />
This 100-hour test evaluates the cold<br />
temperature viscosity of a lubricant after<br />
operation at high temperature test conditions.<br />
Test conditions are identical to the Sequence<br />
IIIG test.<br />
Calibrated Sequence IIIGB Lubricant Test<br />
This 100-hour test evaluates phosphorus<br />
retention of a lubricant after operation at high<br />
temperature test conditions. Test conditions are<br />
identical to the Sequence IIIG test.<br />
Calibrated Sequence IVA Lubricant Test<br />
This 100-hour engine dynamometer lubricant<br />
test is designed to evaluate low temperature<br />
camshaft lobe wear. It evaluates the VE wear<br />
aspect that has been eliminated from the VG<br />
test.<br />
Calibrated Sequence VG Lubricant Test<br />
This 216-hour engine dynamometer lubricant<br />
test is designed to evaluate a lubricant’s<br />
performance in combating low temperature<br />
sludge and varnish formation.<br />
Calibrated Sequence VIB Lubricant Test<br />
This 133-hour engine dynamometer lubricant<br />
test measures the effects of lubricants on fuel<br />
economy of gasoline engine passenger cars and<br />
light-duty trucks.<br />
Calibrated Sequence VID Lubricant Test<br />
This 153-hour engine dynamometer lubricant<br />
test measures the effects of lubricants on fuel<br />
economy of gasoline engine passenger cars and<br />
light-duty trucks equipped with a “low-friction”<br />
engine.<br />
Calibrated Sequence VIII Lubricant Test<br />
This 40-hour test measures lubricant shear<br />
stability and evaluates a lubricant’s ability to<br />
inhibit bearing corrosion.<br />
Calibrated Ball Rust Test<br />
This 18-hour bench test is designed to simulate<br />
the Sequence IID test. This test evaluates a<br />
lubricant’s ability to prevent rust formation on<br />
critical engine components.<br />
Diesel Engine Lubricant Certification<br />
Testing<br />
Caterpillar 1K Lubricant Test<br />
This test evaluates the piston deposits, liner<br />
wear, and oil consumption associated with test<br />
lubricants using 0.4 percent sulfur fuel. Run on a<br />
Caterpillar 1Y540 single-cylinder direct injection<br />
engine, the procedure is steady state at 2,100<br />
rpm and 8,000 BTU per minute fuel rate for 252<br />
2
hours. This test is required by CI-4, CH-4 and<br />
MIL-L-2104F.<br />
Caterpillar 1M-PC Lubricant Test<br />
This 120-hour lubricant test is conducted on a<br />
1Y73 indirect injection single-cylinder engine at<br />
1,800 rpm and 42 hp. The test evaluates piston<br />
deposits, ring sticking, ring and cylinder liner<br />
wear, and piston, ring, and liner scuffing.<br />
Caterpillar 1N Lubricant Test<br />
This 252-hour lubricant test is conducted on a<br />
calibrated 1Y540 engine, exactly like the 1K test<br />
except 0.05 percent sulfur fuel is used. This test<br />
is required for the CJ-4 category.<br />
Caterpillar 1P Lubricant Test<br />
This test evaluates piston deposits, ring sticking,<br />
ring and cylinder liner wear, and piston, ring and<br />
liner scuffing, as well as lubricant consumption.<br />
The test is required for the CH-4 API category.<br />
This 360-hour lubricant test is conducted on a<br />
calibrated 1Y3700 single-cylinder overhead<br />
cam, electronically-controlled, direct injection<br />
engine using 0.05 percent sulfur fuel and a twopiece<br />
piston with a steel crown and aluminum<br />
skirt.<br />
Caterpillar 1R Lubricant Test<br />
The purpose of this 504-hour test is to evaluate<br />
the performance of crankcase lubricants with<br />
respect to piston deposits, ring sticking, ring and<br />
cylinder wear, piston, ring and liner scuffing, as<br />
well as lubricant consumption. This test is<br />
required for the CI-4 category and uses a<br />
calibrated 1Y3700 engine with 0.05 percent<br />
sulfur fuel.<br />
Caterpillar C13 Lubricant Test<br />
This 500-hour test uses a Caterpillar C13 engine<br />
with all steel pistons operated at 1,800 rpm and<br />
1,200 grams per minute fuel rate to evaluate the<br />
performance of crankcase lubricants with regard<br />
to piston deposits and lubricant consumption.<br />
The test is required for the CJ-4 category.<br />
Mack T8/T8A/T8E Lubricant Test<br />
Test lubricants are evaluated for their ability to<br />
minimize viscosity increase and oil filter plugging<br />
associated with soot loading. The test, required<br />
for API classifications CH-4, CI-4, and Mack<br />
EOL/M specifications, uses a 1991 in-line, sixcylinder,<br />
Mack E7-350, turbocharged, charge<br />
air-cooled, direct-injection diesel engine at 1,800<br />
rpm. The engine is operated at rated load for<br />
250 hours for the T8, 150 hours for the T8A, and<br />
300 hours for the T8E.<br />
Mack T10A Lubricant Test<br />
This 75-hour test evaluates the ability of an<br />
engine lubricant to control its low temperature<br />
viscometrics. A prototype E-Tech engine is<br />
used. This test is required for the CI-4 category.<br />
Mack T11 Lubricant Test<br />
This 252-hour test uses a Mack prototype E-<br />
Tech engine operating at 1,800 rpm with noncondensing<br />
cooled EGR and production 2002<br />
heads, injectors and pistons, to evaluate a<br />
lubricant’s ability to limit viscosity increase with<br />
high soot loading. This test is part of Mack<br />
engine lubricant specifications EON+ 03, CI-4+<br />
and CJ-4.<br />
Mack T12 Lubricant Test<br />
This 300-hour test uses much the same<br />
hardware as the T10 test, but now has a<br />
variable geometry turbocharger and production<br />
EGR cooling heat exchangers. To simulate 2007<br />
engine operation, EGR rates are increased<br />
significantly from the T10 levels. Test objectives<br />
are the same; to minimize cylinder liner, ring and<br />
bearing wear. This test is required for the CJ-4<br />
category.<br />
Roller Follower Wear Test (RFWT)<br />
This high-soot engine test is used to evaluate<br />
how well test lubricants limit axle wear in the<br />
roller cam lifter. For the test, a 6.5-liter, eightcylinder,<br />
naturally aspirated, indirect-injection<br />
diesel engine is operated at 1,000 rpm with a<br />
high load for 50 hours. The test is required for<br />
CH-4, CI-4, and CJ-4 qualifications.<br />
Engine Oil Aeration Test (EOAT)<br />
This 20-hour test, using an International truck,<br />
7.3-liter engine running at 3,000 rpm and wideopen<br />
throttle, evaluates an engine lubricant’s<br />
resistance to aeration. This test is required for<br />
CH-4, CI-4, and CJ-4 qualifications.<br />
Cummins ISB Lubricant Test<br />
This 350-hour test uses a Cummins ISB engine<br />
and is used to evaluate a crankcase lubricant’s<br />
ability to reduce camshaft lobe and sliding cam<br />
follower wear. After an initial 100 hours of steady<br />
state operation at 1,600 rpm to accumulate 3.25<br />
percent soot in the oil, the engine is operated for<br />
250 hours on a 28-second cycle simulating front-<br />
3
end loader operation. This test is required for<br />
CJ-4 qualifications.<br />
Cummins ISM Lubricant Test<br />
This 200-hour test uses a Cummins ISM engine<br />
and is intended as a replacement test for the<br />
M11 EGR, using newer hardware. The engine<br />
has variable geometry turbo-charging,<br />
production EGR coolers and EGR valve. It<br />
evaluates a lubricant’s effectiveness at reducing<br />
soot related overhead wear, sludge and filter<br />
plugging. This test is required for CJ-4, as well<br />
as being an alternative to the M-11 EGR for the<br />
CI-4 category.<br />
Specialized Diesel Engine Testing<br />
SwRI uses many single- and multi-cylinder<br />
engines to improve the understanding of fuel,<br />
lubricant and special hardware behavior.<br />
Standard, experimental and modified test<br />
procedures are employed. The <strong>Institute</strong> offers an<br />
array of services and will prepare proposals and<br />
facilities for experimental work. Examples of<br />
developmental activities include:<br />
Railroad and Marine<br />
SwRI helps develop and conduct screening tests<br />
and procedures that correlate with large-scale<br />
tests to save time and money.<br />
Fuel Additives<br />
Using a variety of test engines, SwRI evaluates<br />
how fuel additives affect combustion deposits,<br />
fuel consumption, power loss and gain, lubricant<br />
additive reactions, etc. Fuel additive clean-up<br />
and keep-clean tests are performed on the GM<br />
6.5-liter engines.<br />
Fuel Consumption<br />
Special testing techniques are used to evaluate<br />
how lubricants or fuel property changes affect<br />
engine fuel consumption.<br />
Alternative Fuels<br />
Evaluations include optional fuels in a diesel<br />
engine and extended fuel evaluations. For<br />
example, appropriate engine and power<br />
analyses are conducted for diesel fuels mixed<br />
with alcohols or with esters of cottonseed or<br />
sunflower oil.<br />
Fuel System Wear<br />
New techniques are used to rapidly access the<br />
wear of fuel-lubricated fuel system components,<br />
especially pumps.<br />
Durability<br />
Durability evaluations are conducted around the<br />
clock under steady-state or cyclic conditions.<br />
Injector Deposit/Coking<br />
Evaluation and product experiments are<br />
developed to meet specific requirements using a<br />
range of engines and coking/deposit<br />
mechanisms.<br />
Engine Hardware<br />
Evaluations of engine hardware (pistons, rings,<br />
cylinder liners, bearings, injectors, etc.) can be<br />
tailored to meet specific requirements. Tests can<br />
include special durability procedures and<br />
evaluation of how metallurgy, surface finish, etc.<br />
affect part performance.<br />
Oil Consumption<br />
SwRI has designed specific programs to<br />
correlate oil consumption to cylinder liner finish,<br />
piston ring design, piston design, turbocharger<br />
effects or other engine parameters in any diesel<br />
engine.<br />
New Engine vs. Available Lubricants<br />
The <strong>Institute</strong> develops and conducts procedures<br />
to evaluate the compatibility of available<br />
lubricants to newly designed engines.<br />
Valve Guttering<br />
Evaluations related to this aspect of lubricant<br />
performance are available on a selection of twocycle<br />
engines. SwRI is experienced in the<br />
experimental procedures that enhance valve<br />
guttering.<br />
Destructive Evaluations<br />
Tests to find the “weakest link” are performed<br />
under maximum power or over-fuel conditions.<br />
Oil Consumption Apparatus<br />
SwRI fabricates and evaluates various oil<br />
consumption measurement devices for diesel<br />
engines.<br />
Parts Analysis<br />
Specialized equipment is used to evaluate and<br />
screen parts to understand how they can affect<br />
4
lubricant testing and to determine parts durability<br />
and predicted service life. SwRI offers<br />
metallurgical analysis, including electron<br />
microscopic analysis.<br />
Ratings<br />
<strong>Institute</strong> staff members rate pistons, rings, liners<br />
and other engine parts to industry standards.<br />
Specialized ratings, including rating procedure<br />
development, are available to meet specific or<br />
unique applications.<br />
Turbocharger Durability/Lubrication<br />
Turbocharger durability or engine lubricant<br />
suitability tests are performed for turbocharged<br />
engines.<br />
Tribology and Advanced Lubricant<br />
Evaluations<br />
Plint TE-77 Reciprocating Test Rig<br />
Standard ASTM D5706, D5707, D6079 and<br />
ISO/DIN 12156-2 procedures as well as customdesigned<br />
test services are performed using a<br />
Plint TE-77 test rig to investigate the frictional<br />
response and wear properties of materials and<br />
lubricants. Test components can be<br />
manufactured from specific materials of interest<br />
and surface finished or textured as desired.<br />
Post-test wear scar analysis and component<br />
surface film analysis provide in-depth<br />
understanding of wear.<br />
High-Pressure, -Temperature and -Frequency<br />
Reciprocating Rig<br />
A modified High-Frequency Reciprocating Rig<br />
that also provides high pressure and high<br />
temperature is used to measure the lubricity, or<br />
ability of a fluid to affect friction and wear,<br />
between surfaces in relative motion under load.<br />
The system uses an electromagnetic vibrator to<br />
oscillate a moving steel ball specimen over a<br />
small amplitude while pressing it against a<br />
stationary steel disk. This rig is capable of<br />
operating up to 300°C and high pressure,<br />
enabling testing of highly volatile fuels. ASTM<br />
D6079 and D7688 tests can also be performed.<br />
Falex Block-on-Ring Test Rig<br />
Several ASTM standard tests including D2509,<br />
D2714, D2782, D2981, D3704 and G77 as well<br />
as customized investigations are conducted<br />
using the Falex Block-on-Ring device to quantify<br />
frictional response and wear properties of<br />
materials and lubricants. Test components can<br />
be manufactured from specific materials of<br />
interest and surface finished or textured as<br />
desired. Post-test wear scar analysis and<br />
component surface film analysis provide indepth<br />
understanding of wear mechanisms.<br />
PCS Instruments Mini Traction Machine<br />
(MTM2)<br />
A PCS Instruments Mini Traction Machine is yet<br />
another method used to investigate the frictional<br />
response and wear properties of materials and<br />
lubricants. This machine utilizes a disk and<br />
ball/barrel that can be rotated at different<br />
speeds, giving slide roll rations from 0 to 100<br />
percent. The SwRI rig has been modified to<br />
allow extended temperature and load ranges.<br />
There is also a pin-on-disk attachment, disc<br />
reciprocating mode and real-time wear<br />
measurement capability.<br />
JASO Diesel Engine Lubricant<br />
Testing<br />
Mitsubishi 4D34T4 Valve Train Wear<br />
JASO M354:1999<br />
This 160-hour test evaluates wear resistance on<br />
valve operating systems for automotive diesel<br />
engine lubricants using the Mitsubishi 4D34T4<br />
engine.<br />
ASTM-TC Procedures for Two-Stroke,<br />
Air-Cooled Engines<br />
D4857-12 TC Seq. I (Y350M2 Detergency)<br />
This 20-hour test primarily evaluates a<br />
lubricant’s ability to inhibit piston ring sticking<br />
and piston deposit formation. The fuel to<br />
lubricant ratio is 50:1. The reference lubricant is<br />
run in one cylinder, and the candidate lubricant<br />
is run in the other.<br />
D4863-13 TC Seq. II (CE50S Lubricity)<br />
This test evaluates a lubricant’s ability to prevent<br />
scuffing. The fuel to lubricant ratio is 150:1.<br />
D4858-13 TC Seq. III (CE50S Pre-Ignition)<br />
This 50-hour test evaluates a lubricant’s ability<br />
to prevent damage from deposit-induced preignition.<br />
The fuel to lubricant ratio is 20:1.<br />
5
NMMA TC-W3 ®<br />
Procedures for Two-Cycle<br />
Outboard Engines<br />
CE50S Lubricity<br />
This test evaluates how effectively a lubricant<br />
prevents scuffing. The fuel to lubricant ratio is<br />
150:1.<br />
NMMA TC-W3 AF-27 Lubricity<br />
This test enhances the ability to evaluate the<br />
lubricity of lubricating oils in two-stroke cycle<br />
gasoline engines using a refinement of the<br />
JASO M340-92 and TC-W3 CE-50S lubricity<br />
tests.<br />
OMC 40 HP General Performance<br />
This 98-hour test evaluates how well lubricants<br />
inhibit piston deposits, ring sticking and general<br />
engine deposits. The fuel to lubricant ratio is<br />
100:1.<br />
OMC 70 HP Detergency<br />
This 100-hour test evaluates piston ring sticking<br />
and piston deposits associated with a special<br />
ring sticking fuel. The fuel to lubricant ratio is<br />
50:1.<br />
Mercury 15 HP Detergency<br />
This 100-hour test evaluates how well lubricants<br />
inhibit scuffing, ring sticking and wrist pin needle<br />
bearing gum. The fuel to lubricant ratio is 100:1.<br />
Pre-Ignition<br />
This 100-hour test evaluates a lubricant’s ability<br />
to prevent damage from combustion chamber<br />
deposit-induced pre-ignition. The fuel to<br />
lubricant ratio is 20:1.<br />
NMMA FC-W ® and FC-W Catalyst<br />
Compatible ® Procedures for Four-<br />
Cycle Outboard Engines<br />
NMMA FC-W 115 HP General Performance<br />
Engine Test<br />
This procedure evaluates the general<br />
performance of a four-stroke cycle water-cooled<br />
marine engine lubricant when subjected to fuel<br />
dilution levels above 7 percent during the course<br />
of operation.<br />
JASO FB, FC, FD, EGB, EGC & EGD<br />
Procedures for Two-Stroke Lubricant<br />
Engine Testing<br />
M 342-92 Smoke<br />
This eight-hour test evaluates the visible smoke<br />
level emitted from an engine exhaust system<br />
operating at 10:1 fuel to lubricant ratio.<br />
Candidate performance is evaluated against a<br />
known quality reference lubricant.<br />
M 343-92 Exhaust System Blocking<br />
This test, which is run until the exhaust system<br />
deposit formation causes a specified decrease<br />
in intake vacuum, is run at a fuel to lubricant<br />
ratio of 5:1. Typical reference test length is 8 to<br />
12 hours. Candidate performance is evaluated<br />
against a known quality reference lubricant.<br />
M 341-92 Detergency<br />
This test evaluates a lubricant for piston deposit<br />
formation and ring sticking resistance. The fuel<br />
to lubricant ratio is 100:1. Candidate<br />
performance is evaluated against a known<br />
quality reference lubricant.<br />
M 340-92 Lubricity<br />
This eight-hour test measures engine lubricant<br />
performance with minimal cooling. Candidate<br />
performance is evaluated against a known<br />
quality reference lubricant. The fuel to lubricant<br />
ratio is 50:1.<br />
M 341-02 Three-Hour Detergency<br />
This test is based on the one-hour JASO<br />
detergency test. The engine is operated at a<br />
higher temperature for the increased duration of<br />
three hours. The results are more severe than<br />
those collected during the one-hour test. The<br />
fuel to lubricant ratio is 50:1.<br />
Field Test Engine – Complete New<br />
Powerhead Inspection<br />
Post-test service is available and can include<br />
teardown, rating, photos and/or measurement if<br />
required.<br />
Field Test Engine – Block and Piston<br />
Inspection<br />
Post-test service is available and can include<br />
teardown, rating, photos and/or measurement if<br />
required.<br />
6
Component, Product and Additive<br />
Testing<br />
Engine Rating and Measurements<br />
SwRI offers a wide and varying range of engine<br />
parts rating, blueprinting and/or measurements<br />
to meet customer requirements. Engines can be<br />
removed from vehicles at the test sponsor’s site,<br />
where work is performed, and then replaced in<br />
the vehicle, or the engine can be crated and<br />
shipped to SwRI. The engines can be<br />
disassembled and the required parts rated,<br />
measured and weighed. Engines can then be<br />
reassembled and reinstalled in the vehicle or<br />
shipped to the sponsor. Any combination of<br />
parts rating/measurements and the frequency of<br />
these inspections can be arranged.<br />
Aircraft Product Testing<br />
<strong>Services</strong> include lubricant testing according to<br />
Federal Test Method 3407 “Navy Hot” and<br />
materials certification according to FAA 150-<br />
hour flight simulation test.<br />
Additive Testing<br />
The performance of fuel and lubricant additives<br />
is evaluated for improvements and/or<br />
detrimental effects. Additives with a base<br />
reference fluid can be tested per military<br />
guidelines or other <strong>Institute</strong>/client-developed<br />
techniques.<br />
Sequence Test Development<br />
When current sequence tests are inappropriate,<br />
SwRI can develop proprietary or industry-shared<br />
lubricant test techniques.<br />
Gaskets and Seals<br />
Using engine dynamometer test stands, SwRI<br />
assesses the durability of engine sealing<br />
components. These materials are analyzed for<br />
size change, deformation, leakage, corrosion,<br />
etc.<br />
Two-Stroke Cycle Tests<br />
Engine and component durability, power<br />
determination, fuel and lubricant investigation,<br />
and other specialized tests are conducted on<br />
engine dynamometer test stands.<br />
Test Equipment, Fabrication and Training<br />
Export <strong>Services</strong><br />
SwRI’s charter encourages the worldwide<br />
exchange of technology. One of the many<br />
services provided by the <strong>Institute</strong> is the design<br />
and fabrication of custom test equipment and<br />
engine dynamometer apparatus used to<br />
evaluate fuels and lubricants. This equipment is<br />
tailored for the end user’s laboratory facilities<br />
and uses state-of-the-art computer controls and<br />
electronic data acquisition. An important feature<br />
of this service is the training of the end user’s<br />
personnel in ASTM test procedures, test engine<br />
rebuild, test equipment operations and<br />
evaluation of test results. Through technology<br />
transfer, SwRI helps domestic and foreign<br />
clients meet the ever-increasing demands on<br />
petroleum and related products. With complex,<br />
fired-engine, microprocessor-controlled<br />
evaluation equipment, the <strong>Institute</strong> assists<br />
clients in new lubricant formulation. Such<br />
technology transfer requires appropriate training<br />
in the safe and proper operation of all<br />
equipment, bench tests, instruments, bench<br />
apparatus, and ancillary laboratory equipment.<br />
Natural Gas Lubricant Evaluations<br />
SwRI has utilized various engine platforms for<br />
the evaluation and study of crankcase lubricants<br />
utilizing natural gas. The evaluations include<br />
chemical analysis to measure the lubricant<br />
degradation throughout the duration of the<br />
engine test, as well as a measurement of the<br />
piston deposit formations, engine lubricant<br />
consumption and engine component durability.<br />
7
Fuels and Driveline Lubricants<br />
<strong>Research</strong> Department<br />
Mike Lochte, Director .................................................................................. (210) 522-5430<br />
Brent Shoffner, Manager, Fuels Performance Evaluations .......................................... (210) 522-6986<br />
Larry Eckhard, Manager, Fleet and Field Evaluations ................................................. (210) 522-2980<br />
Matt Jackson, Manager, Specialty and Driveline Fluid Evaluations ............................. (210) 522-6981<br />
8
Fuels and Driveline<br />
Lubricants <strong>Research</strong><br />
Department<br />
Mike Lochte, Director<br />
(210) 522-5430<br />
Brent Shoffner, Manager<br />
Fuels Performance Evaluations<br />
(210) 522-6986<br />
Larry Eckhard, Manager<br />
Fleet and Field Evaluations<br />
(210) 522-2980<br />
Matt Jackson, Manager<br />
Specialty and Driveline Fluid Evaluations<br />
(210) 522-6981<br />
Transmission Fluid Testing<br />
General Motors Automatic<br />
Transmission Fluids Testing<br />
SwRI conducts the following procedures<br />
associated with the General Motors automatic<br />
transmission service fill fluid specification,<br />
DEXRON ® -VI.<br />
DEXRON ® -VI Chemical and Bench Tests<br />
(DEXRON ® -VI Items A-M, and O-U)<br />
These procedures include tests to evaluate<br />
automatic transmission fluids for color,<br />
elemental content, fluid profile, miscibility,<br />
density, high- and low-temperature viscosity,<br />
flash and fire points, copper strip corrosion, antifoaming<br />
properties, corrosion and rust<br />
protection, film thickness, and effects on seals.<br />
DEXRON ® -VI Oxidation Test<br />
This test is run with an electric motor-driven<br />
General Motors Powertrain 4L60-E automatic<br />
transmission. The 450-hour test is used to<br />
determine the oxidation resistance, thermal<br />
stability, and corrosion protection characteristics<br />
of a fluid.<br />
DEXRON ® -VI Cycling Test<br />
This procedure determines the performance of<br />
an automatic transmission fluid with respect to<br />
frictional stability, viscosity stability, lubricating<br />
properties, oxidation resistance, and corrosion<br />
protection. The test is run for 42,000 cycles in a<br />
V-8 engine-driven General Motors 4L60E<br />
automatic transmission.<br />
DEXRON ® -VI Plate Clutch Friction Test<br />
Using the SAE No. 2 Friction Test Machine, this<br />
test determines the friction characteristics and<br />
durability of an automatic transmission fluid with<br />
plate clutch operation. Fluids must provide<br />
satisfactory performance for 200 hours (36,000<br />
cycles) of continuous operation.<br />
DEXRON ® -VI Wear Test<br />
This test determines the anti-wear properties of<br />
automatic transmission fluids using an electric<br />
motor-driven model 104C hydraulic pump. Antiwear<br />
performance is determined by measuring<br />
the weight loss of the pump’s vanes and cam<br />
ring after 100 hours of continuous operation.<br />
DEXRON ® -VI Aeration Test<br />
The DEXRON ® -VI Aeration Test Rig utilizes a<br />
VTi pump, operated under load, to determine the<br />
air entrainment and density properties of<br />
automatic transmission fluid as a function of<br />
temperature.<br />
DEXRON ® -VI Low Speed Clutch Friction and<br />
Torque Capacity Test<br />
The DEXRON ® -VI Low Speed Clutch and<br />
Torque Capacity Test Rig utilizes a 30 hp<br />
variable speed electric drive that provides input<br />
power to a Greening SAE No. 2 Universal Wet<br />
Friction Material Test Machine through a speedreducing<br />
gearbox. The purpose of the test is to<br />
determine the torque capacity and shudder<br />
tendency of automatic transmission fluid on<br />
torque converter carbon fiber friction material at<br />
low rotational speeds.<br />
Ford Automatic Transmission Fluid<br />
Testing<br />
SwRI conducts the following Ford Motor<br />
Company automatic transmission service fill fluid<br />
MERCON ® V specification procedures:<br />
MERCON ® V Chemical and Bench Tests<br />
(MERCON ® V items 3.1 thru 3.7, 3.9 and 3.10)<br />
These procedures evaluate automatic<br />
transmission fluids for miscibility, high- and lowtemperature<br />
viscosity, color, flash point, copper<br />
strip corrosion, corrosion and rust protection,<br />
cleanliness level, anti-foaming properties and<br />
elastomer compatibility.<br />
9
MERCON ® V Wear Tests<br />
The anti-wear properties of an automatic<br />
transmission fluid are determined by the Vickers<br />
Vane Pump Wear Test, FZG Wear Test, Four-<br />
Ball Wear Test, Falex EP Test, and Timken<br />
Wear Test.<br />
MERCON ® V Aluminum Beaker Oxidation<br />
Test (ABOT)<br />
This bench test determines the oxidation stability<br />
of automatic transmission fluids in the presence<br />
of materials used in automatic transmissions.<br />
The 300-hour test is conducted in an aluminum<br />
beaker heated by an aluminum block test fixture.<br />
MERCON ® V Clutch Friction Durability Test<br />
This test determines the static and dynamic<br />
torque capacity of an automatic transmission<br />
fluid when new and after 30,000 cycles of<br />
continuous operation. The test uses the SAE<br />
No. 2 Friction Test Machine.<br />
MERCON ® V Anti-Shudder Durability<br />
The MERCON ® SP Anti-Shudder Durability<br />
(ASD) Test Rig utilizes a Greening SAE No. 2<br />
Universal Wet Friction Test Machine test head,<br />
operated to determine the frictional<br />
characteristics of a fluid through high-speed<br />
clutch engagements, low-speed aging and<br />
torque sweeps, as well as static breakaway<br />
measurements. A copper coupon is immersed in<br />
the test fluid, which is pumped into the test head<br />
along with instrument air.<br />
Ford Over-Running Clutch (AX4N OWC)<br />
Wear Test Procedure<br />
The goal of this test is to determine the ability of<br />
a fluid to protect the inner race of the<br />
overrunning clutch in a free-wheeling situation.<br />
The test result will be “no trenching” (inner race<br />
intact) or “trenching” (rollers have worn a visible<br />
grove in the inner race).<br />
Allison Severe Duty, Extended Drain<br />
Interval Automatic Transmission<br />
Fluid Testing<br />
SwRI evaluates automatic transmissions for<br />
severe duty and extended drain interval use<br />
according to the Allison Transmission TES-295<br />
specification.<br />
Allison TES-295 Chemical and Bench Tests<br />
These tests evaluate fluids for elemental<br />
content, infrared spectrum, viscosity, flash point,<br />
fire point, foam resistance, copper strip<br />
corrosion, corrosion and rust protection, and<br />
elastomer compatibility.<br />
Allison TES-295 Oxidation Test<br />
This test is conducted using an electric motordriven<br />
GM 4L60-E transmission. The 600-hour<br />
test is used to determine the oxidation<br />
resistance, thermal stability and corrosion<br />
protection characteristics of a fluid.<br />
Allison TES-295 Wear Tests<br />
These tests asses the antiwear performance of<br />
a fluid utilizing the ASTM D5182 gear scuffing<br />
wear test and a modified version of the ASTM<br />
D7043 vane pump wear test.<br />
Allison TES-295 Frictional Properties Tests<br />
Utilizing the SAE No. 2 Friction Test Machine,<br />
these tests assess the friction and durability<br />
characteristics of a fluid utilizing two friction<br />
materials. The graphitic material is evaluated for<br />
5,500 continuous test cycles. The paper<br />
material is evaluated for 30,000 continuous<br />
cycles.<br />
Allison On-Highway Automatic<br />
Transmission Fluid Testing<br />
SwRI evaluates automatic transmissions for onhighway<br />
use according to the Allison<br />
Transmission TES-389 specification.<br />
Allison TES-389 Chemical and Bench Tests<br />
These tests evaluate fluids for color, elemental<br />
content, flash point, cleanliness, miscibility,<br />
water content, viscosity, shear stability, copper<br />
strip corrosion, corrosion and rust protection,<br />
foam resistance and elastomer compatibility.<br />
Allison TES-389 Wear Test<br />
This test determines the anti-wear properties of<br />
a fluid using an electric motor-driven model<br />
104C hydraulic pump. Antiwear performance is<br />
determined by measuring the weight loss of the<br />
pump’s vanes and cam ring after 100 hours of<br />
continuous operation.<br />
Allison TES-389 Oxidation Resistance Test<br />
This 300-hour test determines the oxidation<br />
resistance, thermal stability and corrosion<br />
10
protection characteristics of a fluid through a<br />
modified aluminum beaker oxidation test<br />
procedure.<br />
Allison TES-389 Friction Tests<br />
These tests utilize the SAE No. 2 Friction Test<br />
Machine to assess the friction characteristics<br />
and durability of a fluid. Fluids are evaluated<br />
using two different friction materials, each for<br />
150 hours.<br />
Allison Heavy-Duty Automatic<br />
Transmission Fluid Testing<br />
SwRI evaluates heavy-duty diesel engine<br />
lubricants and higher viscosity automatic<br />
transmission fluids according to the Allison<br />
Transmission TES-439 Off-Highway<br />
Transmission Fluid Specification.<br />
Allison TES-439 Chemical and Bench Test<br />
These tests evaluate fluids for elemental<br />
content, total acid number, flash point, high- and<br />
low-temperature viscosity, antifoaming<br />
properties, copper strip corrosion, corrosion and<br />
rust protection, glycol response and elastomeric<br />
compatibility.<br />
Allison TES-439 Oxidation Test<br />
This 300-hour test determines the oxidation<br />
resistance, thermal stability and corrosion<br />
protection characteristics of fluids. This test is<br />
conducted as a modified aluminum beaker<br />
oxidation test.<br />
Allison TES-439 Graphite High-Energy<br />
Friction Test<br />
Using the SAE No. 2 Friction Test Machine, the<br />
friction characteristics and durability of fluids are<br />
determined on heavy-duty graphite clutch plates.<br />
Fluids must provide satisfactory performance for<br />
5,500 cycles of continuous operation.<br />
JASO SAE #2 Testing<br />
JASO T903:2011 and M348:2002 Clutch<br />
Friction Test<br />
These tests determine a fluid’s friction<br />
characteristics and durability. The procedures<br />
simulate satisfactory performance in a normally<br />
functioning transmission under service<br />
conditions. Performance of these tests requires<br />
the SAE No. 2 Friction Test Machine. Test<br />
duration is 1,000 cycles for T903:2011 and<br />
5,000 cycles for M348:2002. Clutches are<br />
engaged once each cycle and absorb 24,500<br />
joules of total energy. Fluid temperature is<br />
maintained at 100°C. The steel and composition<br />
plates are evaluated. Both test procedures are<br />
considered “modified,” as they are conducted<br />
using a sump size of 750 ml.<br />
Caterpillar Transmission and<br />
Drivetrain Fluid Testing<br />
SwRI conducts the following Caterpillar, Inc.,<br />
powershift transmission and drivetrain fluid test<br />
procedures:<br />
TO-4 Physical Properties<br />
These tests evaluate fluids for homogeneity,<br />
fluid compatibility, foaming characteristics,<br />
humidity, corrosion, copper corrosion, lowtemperature<br />
storage, flash and fire points, pour<br />
point and water content.<br />
TO-4 Elastomer Compatibility<br />
These tests evaluate compatibility with<br />
fluoroelastomer compounds, seals, O-rings and<br />
other elastomeric materials.<br />
TO-4 Oxidation Stability<br />
This 300-hour test determines the oxidation<br />
resistance, thermal stability, and corrosion<br />
protection characteristics of fluids. This test,<br />
conducted with an electric motor-driven 4L60-E<br />
automatic transmission, is similar to the test<br />
specified by DEXRON ® -II(E).<br />
TO-4 Gear Wear Test (ASTM D4998)<br />
Using the FZG rig, the gear-wear protection<br />
provided by lubricants is evaluated according to<br />
ASTM D4998.<br />
TO-4 Pump Wear Test<br />
This test evaluates the anti-wear characteristics<br />
of hydraulic fluids by measuring cam ring and<br />
vane weight loss for a 35VQ25A pump. The<br />
pump operates for 50 hours at an outlet<br />
pressure of 3,000 psi and an inlet fluid<br />
temperature of 203°F. This test is the same as<br />
the Vickers (Eaton) 35VQ25A wear test. The<br />
first three or four of five tests must pass.<br />
TO-4 Friction Properties<br />
Using six different materials and seven total<br />
tests, the frictional characteristics of lubricating<br />
fluids are evaluated using the Link Engineering<br />
Model M1158 Test Machine.<br />
11
Hydraulic Fluid Testing<br />
DIN 51389-2 Vane Pump Wear Test<br />
The purpose of this test is to determine the antiwear<br />
properties of hydraulic fluids. The fluid is<br />
run through an electric-driven vane pump for<br />
250 hours at an inlet temperature selected to<br />
maintain a kinematic viscosity of 13 mm 2 /sec.<br />
The pump components are weighed before and<br />
after the test. Weight loss determines the fluid<br />
performance.<br />
Conestoga Pump Test (ASTM D7043)<br />
The purpose of this test is to determine the antiwear<br />
properties of hydraulic fluids. The fluid is<br />
run through an electric-driven Model 104C<br />
hydraulic pump for 100 hours. The pump’s<br />
vanes and cam ring are weighed before and<br />
after the test. Weight loss determines the fluid<br />
performance.<br />
Eaton 35VQ25A Pump Test<br />
This test evaluates the anti-wear characteristics<br />
of hydraulic fluids by measuring cam ring and<br />
vane weight loss for a 35VQ25A pump. The<br />
pump operates for 50 hours at an outlet<br />
pressure of 3,000 psi and an inlet fluid<br />
temperature of 203°F. This test is the same as<br />
the Vickers 35VQ25A wear test. The first three<br />
or four of five tests must pass.<br />
Denison T6H20C Hybrid Pump - Phase I<br />
Denison T6H20C Hybrid Pump - Phase II<br />
These tests sponsored by Denison evaluate the<br />
effect of hydraulic fluid on flow, pressure loss<br />
and wear using a hybrid T6H style piston and<br />
vane pump run near rated conditions. The tests<br />
are made up of a break-in phase, a dry fluid<br />
testing phase (no water added), and a wet fluid<br />
(water added) testing phase. The dry and wet<br />
phases are a little over 300 hours long each and<br />
are priced separately. These are cyclic tests with<br />
the outlet pressures for both pumps changing<br />
every two seconds. The same test pump is used<br />
for both wet and dry phases.<br />
Manual Transmission and Rear Axle<br />
Gear Lubricant Performance Testing<br />
Required bench and performance tests are<br />
conducted to qualify automotive gear lubricants<br />
under various specifications. Numerous other<br />
test procedures for the lubricant and additive<br />
industries may be conducted, as well as custom<br />
programs tailored to clients’ individual needs.<br />
L-20 High-Torque Test<br />
This test determines the load-carrying, wear,<br />
and extreme pressure characteristics of gear<br />
lubricants under low-speed, high-torque<br />
operating conditions. A test axle is operated for<br />
30 hours at 32,311 lb.-in. of ring gear torque<br />
while the axle lubricant is cycled between 93°C<br />
(200°F) and 121°C (250°F). No longer part of<br />
U.S. requirements, this procedure has been<br />
replaced by L-37, although L-20 is used for<br />
some international clients and for screening and<br />
research in the United States.<br />
L-33-1 Moisture Corrosion Test (ASTM<br />
D7038)<br />
To determine the corrosion prevention<br />
properties of gear lubricants, an axle is filled with<br />
40 ounces of test lubricant and one ounce of<br />
distilled water and operated for four hours at<br />
2,500 rpm and 180°F. After being soaked for<br />
162 hours at 51°C (125°F), the axle is<br />
disassembled and rated for rust. This test is<br />
referred to in FTMS No. 791, MIL-PRF-2105E,<br />
SAE J2360, API GL-5 and Federal Test Method<br />
5326.1.<br />
L-37 High-Torque Test (ASTM D6121)<br />
To determine the load-carrying, wear, and<br />
extreme pressure characteristics of gear<br />
lubricants, a test axle is operated under highspeed,<br />
low-torque and low-speed, high-torque<br />
conditions. A test axle is first operated for 100<br />
minutes at 440 axle rpm, 147.2°C (297°F)<br />
lubricant temperature, and 9,460 lb.-in. of ring<br />
gear torque and then operated for 24 hours at<br />
80 axle rpm, 135°C (275°F) lubricant<br />
temperature and a higher ring gear torque. This<br />
method is referred to in FTMS No. 791, MIL-<br />
PRF-2105E, SAE J2360, API GL-5 and Federal<br />
Test Method 6507.1.<br />
L-42 High-Speed Shock Axle Test<br />
(ASTM D7452)<br />
This high-speed shock test determines a<br />
lubricant’s ability to prevent coast-side pinion<br />
and ring gear scoring. The axle torque and coast<br />
down rates are measured and recorded. This<br />
method is referred to in FTMS No. 791, MIL-<br />
PRF-2105E, SAE J2360, API GL-5 and Federal<br />
Test Method 6507.1.<br />
L-60-1 Thermal and Oxidative Stability Test<br />
(ASTM D5704)<br />
This method determines lubricant deterioration<br />
under severe thermal and oxidative conditions.<br />
12
A set of spur gears is rotated at 1,750 rpm for 50<br />
hours. The lubricant is maintained at 163°C<br />
(325°F) with controlled airflow in the presence of<br />
a copper catalyst. The physical and chemical<br />
properties of the lubricant and deposits on the<br />
test gears are evaluated at the end of the test.<br />
This method is referred to in FTMS No. 791,<br />
MIL-PRF-2105E, SAE J2360, API GL-5, Federal<br />
Test Method 2504 and API MT-1 (ASTM D<br />
5760).<br />
FZG Gear Wear Test (ASTM D4998)<br />
To evaluate the anti-wear properties of<br />
lubricants, particularly hydraulic fluids for<br />
tractors, test gears on the FZG rig are operated<br />
at 100 rpm for 20 hours at 121°C (250°F) and<br />
load stage 10. The gears are weighed before<br />
and after the test and the weight loss associated<br />
with wear indicates lubricant anti-wear<br />
performance.<br />
FZG Load Stage Test (ASTM D5182)<br />
Various speeds, temperatures, etc. are available<br />
to evaluate the load-carrying capacity of<br />
lubricants. The variable speed FZG test rig runs<br />
through a dozen 15-minute stages with<br />
incremental increases in load until failure or until<br />
the test sequence is complete. Twenty<br />
millimeters of tooth scuffing indicate test failure.<br />
This test method is referenced in API MT-1<br />
(ASTM D 5760) and other OEM specifications.<br />
Axle Efficiency Test<br />
SwRI has a stand designed and constructed at<br />
SwRI to accept various types of rear-wheel drive<br />
axle assemblies. This stand is equipped with a<br />
Prism data acquisition system and is computer<br />
controlled. It has the capability of running the<br />
torque sweep method, simulating the Federal<br />
Test Procedure (FTP) light-duty truck highway<br />
fuel economy test cycle using a dynamic<br />
procedure and the heavy-duty SAE J1321, also<br />
using a dynamic procedure. In addition, the<br />
stand has the capability of programming test<br />
procedures/profiles specifically designed by<br />
customers.<br />
FZG Pitting Test with Type C Gear<br />
This test procedure is used to discriminate<br />
different lubricants based upon their ability to<br />
prevent pitting, a fatigue failure due to rolling<br />
contact. The test consists of a break-in phase<br />
and a durability phase. Depending on lubricant<br />
viscosity, the durability phase loading will vary.<br />
The test normally runs 300 hours and is usually<br />
carried out in triplicate to cover outliers.<br />
FZG Step Load (A10/16.6R/90:120)<br />
This test procedure is for industrial or<br />
automotive gear lubricants that exceed the loadcarrying<br />
capacity of the standard FZG load<br />
stage test (A/8.3/90). The smaller 10 mm wide<br />
gears are run in the reverse direction at 2910<br />
rpm through a dozen 7.5-minute stages with<br />
incremental increases in load until failure or until<br />
the test sequence is complete. The test can run<br />
at either 90°C or 120°C (194°F or 248°F). Ten<br />
millimeters of tooth scuffing indicates test failure.<br />
A pass in load stage nine at 90°C (194°F)<br />
indicates GL-5 or better performance.<br />
Manual Transmission High-Temperature<br />
Cyclic Durability Test (ASTM D5579)<br />
The high-low range synchronizer of a Mack<br />
T2180 transmission is cycled with lubricant<br />
temperatures at 121°C (250°F). The shift time is<br />
monitored continuously during the test. As the<br />
lubricant degrades, the shift time increases. The<br />
test continues until two “missed shifts” are<br />
reached. This test is part of Mack Trucks, Inc.,<br />
Gear Oil Specifications GO-H and GO-H/S,<br />
Eaton PS-164 rev. 7, as well as the industry<br />
specification API MT-1 (ASTM D5760) and MIL-<br />
PRF-2105E (ASTM D5760).<br />
SSP 180 Synchronizer<br />
The purpose of this test is to evaluate the<br />
frictional performance of a lubricant in a<br />
synchronizer assembly. The test is conducted in<br />
an SSP-180 test machine. The synchronizer is<br />
loaded by a flywheel that is accelerated and<br />
decelerated between rest and top speed. Test<br />
conditions are dependent upon the type of<br />
synchronizer tested.<br />
Mack GO-J/J+ and Eaton PS-163 Test<br />
Procedures<br />
Mack and Eaton call for modified versions of<br />
some of the axle tests listed above. SwRI can<br />
perform the modified tests for these procedures<br />
and act as an intermediary for OEM contact<br />
when requested.<br />
13
Manual Transmission and Dry Clutch<br />
Transmission (dDCT) Fluid Testing<br />
General Motors Dry Dual Clutch<br />
Transmissions Fluids Testing<br />
SwRI conducts the following procedures<br />
associated with the General Motors DEXRON ® -<br />
Dry Dual Clutch Transmission (dDCT) Gear Box<br />
and Manual Transmission Fluid Specification.<br />
DEXRON ® -dDCT Chemical and Bench Tests<br />
These procedures include tests to evaluate dry<br />
dual clutch and manual transmission fluids for<br />
appearance, elemental content, water content,<br />
fluid profile, miscibility, density, storage and<br />
compatibility characteristics, high- and lowtemperature<br />
viscosity, pour point, flash point,<br />
total acid and base number, copper corrosion,<br />
oxidation stability, shear stability, volatility, antifoaming<br />
properties, film thickness, and effects<br />
on seals.<br />
DEXRON ® -dDCT Wear Test<br />
This test determines the anti-wear properties of<br />
dry dual clutch and manual transmission fluids<br />
using electric motor driven model 104C<br />
hydraulic pump. Anti-wear performance is<br />
determined by measuring the weight loss of the<br />
pump’s vanes and cam ring after 100 hours of<br />
continuous operation.<br />
DEXRON ® -dDCT Scuffing Protection Test<br />
The FZG Step Load (A10/16.6R/90) test<br />
procedure is used for fluids that exceed the<br />
extreme pressure characteristics of the standard<br />
FZG load stage test. The smaller 10 mm wide<br />
gears are run in the reverse direction through 12<br />
7.5 minute stages with incremental increases in<br />
load until failure or until the test sequence is<br />
complete. The test is run at 90°C.<br />
DEXRON ® -dDCT Synchronizer Function Test<br />
The purpose of this test is to evaluate the<br />
frictional performance of a dry dual clutch or<br />
manual transmission fluid in a synchronizer<br />
assembly. The test is conducted in the SSP-180<br />
test machine. The test lubricant temperature is<br />
controlled while the synchronizer is shifted. The<br />
synchronizer is loaded by a flywheel that is<br />
accelerated and decelerated between rest and<br />
top speed. The test conditions are dependent<br />
upon the type of synchronizer tested.<br />
Tractor Testing<br />
Tractor Field Tests<br />
Tractors across the country operate with test<br />
fluids monitored by SwRI personnel. Lubricantrelated<br />
testing has been conducted on John<br />
Deere, New Holland and CASE tractors.<br />
Tractor Fluids Specification Testing<br />
New Holland specifications for tractor hydraulic<br />
fluids require satisfactory performance in gear<br />
wear protection, independent power take off<br />
(IPTO) and powershift clutch capacity, and<br />
brake chatter protection.<br />
Tractor Hydraulic Fluid Testing<br />
John Deere J20 specifications for tractor<br />
hydraulic fluid require satisfactory performance<br />
of test lubricants in tests that simulate severe<br />
duty of farm tractor and industrial equipment<br />
components.<br />
JDQ-84 Dynamic Corrosion Sauer-Danfoss<br />
Pump Test<br />
This test screens fluids that cause corrosion of<br />
copper-containing metals in high-pressure<br />
pumps. A Sauer-Danfoss 90 Series axial piston<br />
pump is operated for 25 hours at 3,000 psi.<br />
Water is then added to the test fluid. The output<br />
pressure of the pump is increased to 5,500 psi<br />
and maintained at that pressure for another 200<br />
hours.<br />
JDQ-94 Powershift Transmission Clutch<br />
Friction Test<br />
This test assesses the effects of tractor<br />
hydraulic fluids on wet clutch capacity, dynamic<br />
friction coefficient, and clutch disc wear. A 200<br />
hp John Deere engine drives a modified John<br />
Deere 4850 15-speed, powershift transmission,<br />
loaded by an eddy current dynamometer. A<br />
typical test cycle consists of eight seconds of<br />
slipping the clutch at high dynamometer load<br />
and engine power.<br />
JDQ-102 Shear Stability<br />
This test determines the shear stable viscosity of<br />
a tractor hydraulic fluid. Using a diesel injection<br />
pump and 6 fuel injectors for a John Deere 6466<br />
engine, the fluid is circulated under high<br />
pressure through the fine orifices of the<br />
injectors. This test is also used to prepare a<br />
fluid for the JDQ-95 spiral bevel/final drive wear<br />
test.<br />
14
JDQ-95 Spiral Bevel/Final Drive Wear Test<br />
This 50-hour test evaluates how effectively<br />
tractor hydraulic fluids protect the spiral bevel<br />
gears from scoring and the final drive planetary<br />
reduction gears from surface distress and wear.<br />
A John Deere engine and powershift<br />
transmission drive an industrial axle housing the<br />
test gears. A pair of high torque dynamometers<br />
provide load.<br />
JDQ-96B Torque Variation and Brake Friction<br />
Retention Test<br />
A John Deere 1400 series industrial axle<br />
equipped with annular wet disk brakes is used<br />
for the test axle. The brake chatter test consists<br />
of 30,000 brake engagements. After 1,000,<br />
10,000, 20,000 and 30,000 brake engagements,<br />
a series of brake chatter tests are performed at<br />
different wheel speeds, brake pressures and<br />
temperatures.<br />
John Deere Hydraulic Pump Shear Stability<br />
This 48-hour test uses a Sauer-Danfoss 90<br />
series axial piston pump to circulate fluid across<br />
a hydraulic relief valve to determine the shear<br />
stable viscosity of a tractor hydraulic fluid. This<br />
test is also used to prepare a fluid for the JDQ-<br />
95 spiral bevel/final drive wear test.<br />
JDQ-95A Spiral Bevel Gear Wear<br />
This 50-hour test evaluates how effectively a<br />
tractor hydraulic fluid protects the spiral bevel<br />
gear set from distress. An electric motor drives<br />
the front axle center section from a John Deere<br />
8000 series tractor with independent link<br />
suspension, and a pair of high torque dry brake<br />
dynamometers provides the load.<br />
John Deere High Energy Clutch<br />
This test assesses the effects of tractor<br />
hydraulic fluids on the degradation of dynamic<br />
friction coefficient and clutch disk wear. The test<br />
uses a modified driveline from a John Deere<br />
7000 series tractor with a “PowrReverser”<br />
transmission. A typical test cycle consists of<br />
fixing the driveline output and slipping the clutch<br />
for several seconds before releasing the output<br />
to spin freely and cool the transmission. This<br />
cycle is repeated 2,000 times using the forward<br />
clutches and 2,000 times using the reverse<br />
clutches.<br />
John Deere TZT Oxidation<br />
This 400-hour test determines the oxidation<br />
resistance, thermal stability and corrosion<br />
protection characteristics of fluids. The test is<br />
conducted with an electric motor-driven<br />
hydrostatic transmission from a John Deere<br />
zero-turn mower.<br />
Automotive Fleet Testing<br />
To assist new product development, SwRI<br />
applies a variety of fleet and laboratory<br />
procedures that can be adapted to a variety of<br />
research requirements. <strong>Services</strong> include gear<br />
and gear lubricant evaluations, fleet evaluation<br />
of experimental engines and components and<br />
examination of fuel deposit tendencies in<br />
vehicles.<br />
Axle and Axle Lubricant Evaluations, Heavy-<br />
Duty<br />
The <strong>Institute</strong> conducts in-service evaluations of<br />
heavy-duty axles; frequently for MIL-PRF-2105E<br />
and/or standard SAE J2360 gear lubricant<br />
qualification programs. Three or four trucks are<br />
operated for 200,000 miles on test lubricants.<br />
Performance of a lubricant is judged from the<br />
appearance of gears, bearings and carrier.<br />
Periodic lubricant samples are analyzed for wear<br />
metals, additives and contaminants.<br />
Axle and Axle Lubricant Evaluations,<br />
Light-Duty<br />
SwRI conducts 100,000-mile in-service<br />
evaluations of gear lubricants in light-duty<br />
vehicles such as pickups and cargo vans. These<br />
evaluations are frequently related to MIL-PRF-<br />
2105E and/or standard SAE J2360 qualification<br />
programs.<br />
Truck Axle Lubricant Fuel Economy<br />
The fuel economy benefits of axle lubricants in<br />
light- and heavy-duty trucks are evaluated using<br />
SAE procedures. Heavy-duty trucks outfitted<br />
with precision fuel consumption measurement<br />
equipment are operated on road routes with<br />
precise control of speed, time and distance.<br />
Light-duty trucks operate similarly but on a<br />
chassis dynamometer following a prescribed<br />
cycle.<br />
Crankcase Engine Lubricant Fuel Economy<br />
The fuel economy benefits associated with<br />
engine lubricants in heavy-duty vehicles are<br />
evaluated by SAE procedures that involve<br />
operation on road routes with precision fuel<br />
consumption measuring equipment and precise<br />
control of speed, time and distance.<br />
15
Truck Fuel Economy Improvements<br />
The fuel economy benefits associated with<br />
various fuel additives, wheels, tires,<br />
aerodynamic devices, etc., in heavy-duty trucks<br />
are evaluated by SAE and TMC procedures.<br />
Trucks operate on road routes with precision<br />
fuel consumption measuring equipment and<br />
precise control of speed, time and distance.<br />
Durability and Reliability Evaluation of<br />
Engine/Vehicle Compatibility<br />
Durability and reliability of medium- and heavyduty<br />
diesel- and alternative-fueled engines are<br />
evaluated in Class 7 and 8 trucks and buses on<br />
city and highway routes. Engine performance,<br />
reliability and maintainability are determined by<br />
this 100,000-mile test.<br />
Road Simulators/Mileage Accumulation<br />
Dynamometers<br />
Rapid vehicle mileage accumulation programs<br />
are performed on 24 road simulators capable of<br />
speeds up to 100 miles per hour on vehicles up<br />
to 7,000 pounds at steady-state conditions or<br />
programmed transient driving cycles. The road<br />
simulators support two- and four-wheel drive<br />
vehicles with up to 400 horsepower.<br />
Temperature and humidity controlled engine<br />
inlet air can be provided on four of the 24 units.<br />
Vehicle Test Tracks<br />
SwRI performs vehicle testing on a variety of<br />
test tracks including a one-mile track located on<br />
the SwRI grounds. High-speed vehicle testing is<br />
performed on an eight-mile track including fuel<br />
economy measurement, driveability, endurance<br />
and component evaluations.<br />
Off-Highway Evaluations<br />
The <strong>Institute</strong> provides multiple courses with<br />
varying configurations on its grounds for offhighway<br />
evaluations of vehicles such as<br />
agricultural machinery, recreational and<br />
sport/utility vehicles, and industrial equipment.<br />
Vehicle operation parameters can be monitored<br />
on a real-time basis.<br />
John Deere Engine Coolant Cavitation Test<br />
A 250-hour test on a Deere 6101H engine is<br />
used to evaluate a coolant’s ability to suppress<br />
cavitation and corrosion damage to power<br />
cylinder liners.<br />
Specialized Fuel Testing<br />
Vehicle Evaluations for Fuel Injector<br />
Plugging<br />
Vehicles equipped with multi-port fuel injection<br />
systems encounter injector-plugging problems<br />
associated with gasolines with inadequate<br />
amounts of detergents. In severe cases, this<br />
problem can render a vehicle inoperative. This<br />
test reproduces fuel injector plugging under<br />
controlled conditions to assess the effect of fuel<br />
additives as they relate to injector “clean-up” and<br />
“keep-clean.” The keep-clean test is conducted<br />
according to ASTM D 5598 protocol. During the<br />
test, injector flows and spray patterns are<br />
evaluated. Fuel injector spray patterns can be<br />
photo-documented to provide a visual record of<br />
test results.<br />
Intake System and Combustion Chamber<br />
Deposits<br />
The <strong>Institute</strong> evaluates fuels and fuel additives<br />
for intake system cleanliness. The BMW 10,000-<br />
Mile (ASTM D5500 protocol) and Ford 2.3 Liter<br />
Intake Valve Deposit Tests (ASTM D6201<br />
protocol) qualify fuels and fuel additives for the<br />
Environmental Protection Agency, the California<br />
Air Resources Board and Top Tier gasoline<br />
specifications. Specialized fuel evaluation<br />
programs focus on current vehicles, both foreign<br />
and domestic. The relationship between engine<br />
design, fuel properties and additive performance<br />
is investigated. Evaluation techniques include<br />
deposit analysis, combustion chamber deposit<br />
thickness measurements and deposit weight<br />
measurements.<br />
Intake Valve-Sticking Evaluations<br />
Vehicle test programs are conducted to assess<br />
the effect of fuels and fuel additives on intake<br />
valve sticking. The ability of fuels to prevent<br />
intake valve stem deposits from causing the<br />
intake valves to stick at cold temperatures -20°C<br />
(-4°F) can be evaluated.<br />
Vehicle Driveability and Performance Testing<br />
SwRI conducts CRC-type vehicle driveability<br />
and performance tests to evaluate vehicle<br />
operation as it relates to test fuels, additives and<br />
vehicle components. Onsite track facilities, as<br />
well as the trained personnel and specialized<br />
equipment necessary for these tests, are<br />
available. Cold chambers allow vehicle soak<br />
temperatures as low as -20°C (-4°F).<br />
16
Vehicle Octane Requirement and ORI<br />
Evaluations<br />
Fleet programs for octane requirement and<br />
octane requirement increase (ORI) assess<br />
engine-operating parameters as related to fuel<br />
octane number and combustion requirements.<br />
The CRC-E-15 Road Test method is used for<br />
these evaluations, and the prescribed reference<br />
fuels are in inventory.<br />
Alternative Fuels Testing (Methanol, Ethanol,<br />
Natural Gas and others)<br />
For spark-ignition and compression-ignition<br />
engines, the tests evaluate how test fuels affect<br />
engine durability or lubricant suitability.<br />
Octane Requirement Increase (ORI)<br />
While determining how well various<br />
gasolines/additives prevent combustion<br />
chamber deposits, this test also measures the<br />
resulting octane requirement increase.<br />
Gasoline Direct Injection GDI) Fuel Injector<br />
Deposits<br />
A variety of specialized test methods are<br />
available to characterize fuel deposits in GDI<br />
injectors. These include both vehicle and engine<br />
dynamometer-based procedures and may<br />
include injector flow measurements, high speed<br />
video for visualization of spray patterns and<br />
changes in exhaust particulate matter (PM)<br />
emissions.<br />
Sequential Central Port Injection Fouling<br />
Test<br />
The effects of fuel additives related to fuel<br />
injector poppet nozzle sticking are assessed<br />
during an eight-day test procedure using a<br />
General Motors vehicle equipped with the<br />
Sequential Central Port Injection (SCPI) system.<br />
The SCPI fuel system is susceptible to fuelderived<br />
deposits that can cause poppet sticking,<br />
which can render the injector inoperable.<br />
17
Petroleum Products <strong>Research</strong> Department<br />
Gerry Estrada, Director ................................................................................ (210) 522-3006<br />
Robert Legg, Manager, Fuels Analysis Laboratory...................................................... (210) 522-2701<br />
Michelle Ratchford, Manager, Fuels Surveys/Fuels Conformance .............................. (210) 522-2986<br />
Ken Jacks, Manager, Lubricant Analysis Laboratory ................................................... (210) 522-2989<br />
18
Petroleum Products<br />
<strong>Research</strong> Department<br />
Gerry Estrada, Director<br />
(210) 522-3006<br />
Robert Legg, Manager<br />
Fuels Analysis Laboratory<br />
(210) 522-2071<br />
Michelle Ratchford, Manager<br />
Fuel Surveys/Fuels Conformance<br />
(210) 522-2986<br />
Ken Jacks, Manager<br />
Lubricant Analysis Laboratory<br />
(210) 522-2989<br />
The Petroleum Products <strong>Research</strong> Department<br />
provides analytical and physical testing required<br />
by clients and other SwRI departments to<br />
evaluate and qualify all fuels, lubricants and<br />
functional fluids. Specification tests are<br />
performed on gasolines, diesel fuels, synthetic<br />
or exotic fuels, crankcase lubricants, automatic<br />
transmission fluids, coolants and greases,<br />
among others. In addition to standard tests such<br />
as ASTM, UOP, SAE and others, a number of<br />
independent programs support clients’ efforts to<br />
characterize or evaluate a broad range of<br />
petroleum and automotive products. Programs<br />
specifically designed by clients to satisfy their<br />
needs or requirements are provided in a timely,<br />
professional manner. In addition, SwRI offers<br />
innovative approaches or tailored research<br />
programs to solve unique or unusual problems.<br />
The department welcomes confidential inquiries<br />
and discussions with clients who want to<br />
address specific problems, to evaluate products<br />
or to improve product performance. Among the<br />
many services provided by the department are<br />
the following:<br />
Fuel, Lubricant and Fluid Inspection<br />
ASTM procedures determine the chemical and<br />
physical properties of gasoline, aviation,<br />
biodiesel and middle distillate fuels; engine<br />
crankcase lubricants, hydraulic fluids, automatic<br />
transmission fluids, gear lubricants, greases and<br />
coolants.<br />
Metals Analyses<br />
ICP, energy- and wave-length dispersive X-ray,<br />
and other techniques are used to determine<br />
wear metals in used lubricants, transmission<br />
fluids and turbine lubricants; additive metals in<br />
new lubricants, including transmission fluids,<br />
gear lubricants, turbine fluids, coolants and<br />
greases; metals in gasoline, diesel fuel<br />
lubricants and jet fuel, including phosphorus;<br />
military certification for additives in engine<br />
lubricants; metals in captured exhaust<br />
particulate samples and engine deposits; metals<br />
in crude oils; and sulfur, carbon, hydrogen and<br />
nitrogen in gasoline, diesel fuel, crude oil, etc.<br />
Fuel Conformance/Fuel Surveys/Field<br />
Studies<br />
The <strong>Institute</strong> performs national fuel and lubricant<br />
quality assurance surveys to: determine the<br />
variation in physical and chemical properties of<br />
gasoline and diesel fuels at terminals, refineries<br />
and retail outlets of major petroleum marketers<br />
throughout the United States; and surveys to<br />
procure and analyze the quality of engine<br />
lubricants and transmission fluids as blended,<br />
branded and marketed. Field sampling services<br />
include sample acquisition at automotive<br />
dealerships.<br />
Trace Organic Analysis<br />
PPRD performs analysis for polycyclic aromatic<br />
hydrocarbons, (PAH), nitro-PAH and other<br />
organic species in fuels, lubricants or emission<br />
samples.<br />
Laboratory Engine Technology<br />
SwRI uses various evaluations and studies<br />
utilizing special engine and bench protocols to<br />
evaluate carburetor, fuel injector and intakevalve<br />
deposit-forming tendencies of gasolines;<br />
to determine <strong>Research</strong> Octane Number (RON),<br />
Motor Octane Number (MON) and Cetane<br />
Number (CN); and to train research specialists<br />
in research, motor and cetane engine use,<br />
covering fundamental fuel testing concepts and<br />
detailed engine component coverage with<br />
reference to function, service requirements and<br />
overhauls.<br />
SwRI-developed Instruments<br />
The <strong>Institute</strong> has developed specialized test<br />
procedures and instruments for fuel and<br />
lubricant research, such as an Intake Valve<br />
Deposit Apparatus (IVDA) to predict the depositforming<br />
characteristics of a gasoline or gasoline<br />
and detergent additive blend, if it were evaluated<br />
in a full-scale engine; a CRC Port Fuel Injector<br />
(PFI) Test Apparatus to evaluate the fouling<br />
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tendencies of gasolines and the effectiveness of<br />
additives; a Gear Oil Scuff Test (GOST)<br />
Apparatus, which accurately predicts the loadcarrying<br />
characteristics of a test lubricant as<br />
measured by either the Ryder of FZG load stage<br />
gear tests; and an Induction System Deposit<br />
(ISD) apparatus to measure intake valve<br />
deposits associated with gasolines.<br />
Petroleum Products <strong>Research</strong><br />
A variety of performance and research services<br />
are available to help develop automotive<br />
chemicals, such as hydraulic fluids, synthetic<br />
lubricants and fluids, coolants and cleaners,<br />
greases and grease additives, fuel additives,<br />
lubricant additives, gear lubricant additives and<br />
low-friction lubricants.<br />
Used Lubricant Field Studies<br />
A full complement of ASTM procedures is<br />
available to evaluate lubricant and coolant<br />
performance for in-service engines and vehicles,<br />
and maintenance programs to prevent<br />
catastrophic engine failure.<br />
Transmission Fluids<br />
Oxidation, rust, copper corrosion, shear stability,<br />
seal degradation, coefficient of friction, foam,<br />
miscibility and compatibility, and lowtemperature<br />
viscosities.<br />
Industrial Lubricants<br />
Thermal stability, rust, extreme pressure, wear,<br />
foam, miscibility and compatibility, and<br />
evaporation losses.<br />
Engine Coolants<br />
Antifreeze glassware corrosion, aluminum<br />
corrosion, antifreeze effect on automotive<br />
finishes, boiling point of antifreeze, foaming<br />
tendency of antifreeze, freezing point of<br />
antifreeze, pH of antifreeze, reserve alkalinity of<br />
antifreeze, water content of antifreeze, simulated<br />
service test, cavitation test, ash content and<br />
specific gravity.<br />
Procedural Development<br />
New or novel analytical procedures or in-service<br />
performance simulations can be arranged using<br />
analytical methods, bench testing, and lubricity,<br />
friction and wear testing.<br />
Trend Analysis<br />
SwRI evaluates fleet and motor pool lubricants<br />
to assure timely lubricant changes and to<br />
determine the performance of new formulations,<br />
as well as evaluation of industrial lubricants for<br />
changes in condition for maintenance purposes.<br />
Lubricants and Fluid Evaluations<br />
Laboratory ASTM, FTM, UOP and other tests for<br />
lubricants and functional fluids include:<br />
Engine Lubricants<br />
Oxidation, varnish formation, dispersancy,<br />
detergency, thermal stability, rust, corrosion,<br />
shear stability, foam, seal degradation, and<br />
miscibility and compatibility.<br />
Gear Lubricants<br />
Oxidation, thermal stability, rust, copper<br />
corrosion, seal degradation, extreme pressure<br />
and wear, coefficient of friction, foam and<br />
miscibility and compatibility.<br />
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Fuels and Lubricants Technology Department<br />
Gary Bessee, Director ................................................................................... (210) 522-6941<br />
Scott Hutzler, Manager, Fluids Filtration and Handling <strong>Research</strong> ...............................(210) 522-6978<br />
Ed Frame, Manager, Fuels, Lubricants and Fluids Applications .................................(210) 522-2515<br />
Larry Hollingsworth, Group Leader, Fuel Systems and Contamination <strong>Research</strong> ......(210) 522-5711<br />
Martin Treuhaft, Manager, Filtration and Fine Particle Technology .............................(210) 522-2626<br />
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Fuels and Lubricants<br />
Technology Department<br />
Gary Bessee, Director<br />
(210) 522-6941<br />
Scott Hutzler, Manager<br />
Fluids Filtration and Handling <strong>Research</strong><br />
(210) 522-6978<br />
Ed Frame, Manager<br />
Fuels, Lubricants and Fluids Applications<br />
(210) 522-2515<br />
Larry Hollingsworth, Group Leader<br />
Fuel Systems and Contamination <strong>Research</strong><br />
(210) 522-5711<br />
Martin Treuhaft, Manager<br />
Filtration and Fine Particle Technology<br />
(210) 522-2626<br />
The Fuels and Lubricants Technology<br />
Department provides a range of non-routine<br />
testing and evaluation services focused on the<br />
performance of transportation-related fluids.<br />
Projects typically examine the characteristics<br />
and performance of the fuels, engine, power<br />
transmission and gear lubricants, and hydraulic<br />
fluids used in land-based vehicles. A major<br />
facility within the department is devoted to gas<br />
turbine engine fuels and combustion. Programs<br />
conducted for both commercial and government<br />
clients include product development support,<br />
problem investigation services and field troubleshooting.<br />
The Fuels and Lubricants Technology<br />
Department also operates the U.S. Army<br />
TARDEC Fuels and Lubricants <strong>Research</strong><br />
Facility, an extension of the U.S. Army Tank<br />
Automotive <strong>Research</strong>, Development and<br />
Engineering Center in Warren, Michigan. Since<br />
1957, this government-owned, contractoroperated<br />
facility physically located on the<br />
grounds of <strong>Southwest</strong> <strong>Research</strong> <strong>Institute</strong>, has<br />
provided fuel and lubricant research services to<br />
the Army, Department of Defense, Department<br />
of Energy and other government agencies.<br />
Automotive Filtration Performance Testing<br />
Oil filters are evaluated using SAE and ISO test<br />
procedures, which involves systems tests for<br />
resistance to flow, filter capacity, contaminant<br />
removal characteristics and single-pass particle<br />
retention; and associated test sequences for<br />
media migration, collapse test and hydrostatic<br />
burst.<br />
Fluids Filtration and Handling <strong>Research</strong><br />
The Fluids Filtration and Handling <strong>Research</strong><br />
Section perform a wide variety of research in the<br />
Fuels and Lubricants Technology Department.<br />
The technical strengths of the group include<br />
sensor development, liquid filtration,<br />
contamination control and identification, fuel and<br />
water logistics, and test method development.<br />
<strong>Technical</strong> strengths and contracts include:<br />
• Material Compatibility<br />
• Aviation filtration qualification<br />
• Fluid filtration and cleanliness<br />
• Fuel logistics<br />
• Advanced methods of fuel property<br />
measurement<br />
• Sensors and instrumentation development<br />
• Chromatography<br />
• Coolant testing<br />
• Analysis of LPG<br />
• Particle counting<br />
• Fuels filtration<br />
• Lubrication filtration<br />
• Soot contamination<br />
• Debris analysis<br />
• Test method development<br />
• Field service<br />
• Aviation fuel fit-for-purpose testing<br />
Fuels, Lubricants, and Fluids Applications<br />
The Fuels, Lubricants, and Fluids Applications<br />
Group in the Fuels and Lubricants Technology<br />
Department performs a wide variety of fuel,<br />
lubricant, and engine and fuel system<br />
investigations for the Department of Defense,<br />
government agencies and commercial clients.<br />
<strong>Technical</strong> strengths and contracts include:<br />
• Investigations of fuel/lubricant/engine<br />
interactions<br />
• Fuel and fluid flammability hazard<br />
assessments<br />
• Alternative fuels development and utilization<br />
• Fuel injection system wear and performance<br />
• Jet fuel use in diesel equipment<br />
• Engine dynamometer evaluations<br />
• Bench test development, fuel system materials<br />
compatibility<br />
• Field evaluations<br />
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• Fuels/hardware interactions and test rig design<br />
• Aviation fuel research<br />
• Aviation fuel stability and contamination effects<br />
• Aviation fuel-derived deposition<br />
• Customized test fuel blends<br />
• Gas turbine combustor test facility<br />
• Optical and laser combustion diagnostics<br />
Fuel Systems and Contamination <strong>Research</strong><br />
The Fuel Systems and Contamination <strong>Research</strong><br />
Section in the Fuels and Lubricants Technology<br />
Department operates a 5,000-square-foot<br />
laboratory dedicated to fuel contamination<br />
research and testing. The facility consists of<br />
more than 4,200 square feet of laboratory<br />
space, containing 12 automated test cells. Of<br />
these cells, nine are dedicated to<br />
gasoline/flexible fuel testing, two to diesel testing<br />
and one to hybrid fuel cell testing. Using an<br />
automated fluid heating and cooling system, test<br />
temperatures can be varied from -40° to 80°C<br />
(-40° to 170°F).<br />
<strong>Technical</strong> strengths include:<br />
• Contaminant characterization<br />
• Accelerated life testing or key-life testing<br />
• Material compatibility<br />
• Modeling and simulation<br />
• Test procedure development<br />
• Lubricity, friction and wear<br />
• Environmental evaluation<br />
• Filtration<br />
• Emissions and safety issues<br />
• Component and systems development<br />
• Contamination research and advanced fuel<br />
delivery<br />
Filtration and Fine Particle Technology<br />
The Filtration and Fine Particle Technology<br />
Section in the Fuels and Lubricants <strong>Research</strong><br />
Division provides research, development and<br />
testing services in many areas of air filtration;<br />
contamination sensitivity assessment; particle<br />
mechanics, transport and aerosol science; and<br />
real-time engine and component wear as a<br />
function of dust ingestion and exposure. The<br />
section also performs evaluations of automotive<br />
and heavy-duty engine and vehicle components<br />
and systems, including testing, analysis and<br />
design, with emphasis on real-world operation<br />
and real-life laboratory simulation. In addition to<br />
qualification and third-party comparative testing,<br />
laboratory and field evaluation programs are<br />
implemented to support component and systems<br />
research and development. These programs aid<br />
in developing strategies to solve specific<br />
filtration problems. Theoretical and experimental<br />
laboratory and field programs are also<br />
conducted to support the development and<br />
testing of novel filtration and particle<br />
technologies.<br />
The Section provides research, development,<br />
testing and evaluation services in:<br />
• Air filters and filtration systems<br />
• Automotive air induction systems and<br />
components<br />
• Filter qualification to industry, military and<br />
government specifications<br />
• Mechanical pre-cleaners and inertial<br />
separators<br />
• Engine intake air/water separation testing<br />
• Failure analysis of air filters, systems and<br />
components<br />
• Smaller-scale wind tunnel testing using blowing<br />
dust and water sprays<br />
• Contamination sensitivity assessment of<br />
mechanical and electrical systems and<br />
components<br />
• Structural integrity of filtrations systems and<br />
components (combined vibration and thermal<br />
cycling)<br />
• Field testing to develop vibration spectra for<br />
laboratory filter testing<br />
• Air filter test stand development and fabrication<br />
• Air filter laboratory design, layout and<br />
equipment specification<br />
• Evaluation of equipment protection from<br />
blowing and settling dust and blowing sand<br />
• Novel filtration technologies<br />
• Filtration specification development<br />
• Filtration sensor system development<br />
• Aerosol technology and mechanics<br />
• Aerosol sampler development and testing<br />
• Particle transport and multi-phase flows<br />
• Small particle interactions and mass transfer<br />
• Low and zero gravity separation studies and<br />
technology investigations<br />
• Dispersion studies using bioaerosol simulants<br />
and tracers<br />
• Near field particle transport and dispersion<br />
• Real-time wear measurement in operating<br />
engines and mechanical systems<br />
• Thermal efficiency and heat rejection<br />
evaluation of air and liquid-side heat exchangers<br />
and radiators<br />
Laboratory and field test programs support<br />
includes:<br />
• Qualification and third-party comparative<br />
testing<br />
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• Component and systems research and<br />
development<br />
• Aid in developing strategies for demonstrating<br />
specific levels of performance<br />
• Solving specific problems<br />
• Performing standardized test to manufacturer,<br />
industry, government and military specifications<br />
• Developing and implementing specialized test<br />
plans<br />
• Advancing knowledge and understanding<br />
• Filtration efficiency, dust capacity and life<br />
measurement<br />
Air Filter Test Stand Design, Development<br />
and Fabrication<br />
The Section develops designs and fabricates air<br />
filter test stands for industry and government<br />
clients worldwide. These stands include:<br />
• Semi-automatic operation with real-time<br />
display<br />
• Closed loop control of dust feeding and airflow<br />
management<br />
• Post-test report generation<br />
In addition, laboratory design, layout and<br />
equipment specification services are also<br />
provided.<br />
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<strong>Southwest</strong> <strong>Research</strong> <strong>Institute</strong> is an independent, nonprofit, applied engineering and physical<br />
sciences research and development organization with 11 technical divisions using<br />
multidisciplinary approaches to problem solving. The <strong>Institute</strong> occupies more than 1,200 acres<br />
in San Antonio, Texas, and provides more than 2 million square feet of laboratories, test<br />
facilities, workshops and offices for 3,000 employees who perform contract work for industry<br />
and government.<br />
We welcome your inquiries.<br />
For more information, please contact:<br />
Steven D. Marty, P.E., Vice President<br />
Fuels and Lubricants <strong>Research</strong> Division<br />
(210) 522-5929<br />
smarty.swri.org<br />
Benefiting government, industry<br />
and the public through innovative<br />
science and technology<br />
<strong>Southwest</strong> <strong>Research</strong> <strong>Institute</strong><br />
6220 Culebra Road • P.O. Drawer 28510<br />
San Antonio, Texas 78228-0510<br />
www.flrd.swri.org<br />
www.swri.org<br />
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Rev. Nov 2013