29.11.2014 Views

Technical Services - Southwest Research Institute

Technical Services - Southwest Research Institute

Technical Services - Southwest Research Institute

SHOW MORE
SHOW LESS

You also want an ePaper? Increase the reach of your titles

YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.

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 />

19


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 />

20


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 />

21


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 />

22


• 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 />

23


• 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 />

24


<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 />

25<br />

Rev. Nov 2013

Hooray! Your file is uploaded and ready to be published.

Saved successfully!

Ooh no, something went wrong!