Jump to content
HybridZ

grumpy, help with finishing


Guest woodyhooten

Recommended Posts

Guest woodyhooten

I'm getting the engine in this week, I want to make sure I have everything installed and hooked up properly before I turn the thing over (I don't want it to explode, my cat scares easily...). Is there a checklist somewhere for all the parts and order they need to be installed in? I want to make sure this thing is done correctly because I can't really afford to screw up too much. BTW, it's for a 74 sbc setup. Any help would be appreciated. Thanks for all the help.

Link to comment
Share on other sites

I believe grumpy has posted this info before a couple of times. He doesn't post all that often, so I bet if you click on his profile and then click on all his posts, you will find all the SBC info you could ever want....

Tim

Link to comment
Share on other sites

heres a few things that should always be checked on an engine build

(is everything clean and degreased before you start?

Do you have all the tools youll need?)

this is a start.... there are other things to check., remember, if your not sure ask questions BEFRORE assembly NOT AFTER PART FAILURE, BELEIVE ME ITS CHEAPER THAT WAY

 

heads

are the pushrods perfectly strait?

do the pushrods flow oil?

rocker studs/guides torqued correctly?

do the head bolts have washers under the bolt heads? are they the correct length for the cylinder heads in use?

have the heads been pocket ported?

combustion chambers unshrouded?

intake ports gasket matched"

are the valve guides cut to the correct length?

are the heads pocket ported?

is the retainer to valve guide clearance correct?

are the valve guide oil seals installed?

is there valve spring seats installed?

inner damper springs installed?

spring bind height checked? (to exceed max valve lift by .050 min.)

oil return holes cleaned of casting flash?

were steam holes in heads necessary?

were the spark plug threads of a installed spark plug extending into the combustion chamber?

rocker slot to rocker stud clearances ?

retainer to valve guide clearances?

spring bind height checked for the correct spring pressure?

valve lash/preload ?

are the valve springs the correct tension,height?dia.

keeper the correct angle? style? size?

valve seats the correct angles?

valves back cut?

valves the correct length, stemsthe correct diam.

strait?

rockers the correct ratio?

were the valve to valve guide clearances checked?

were the heads milled?

did the head gasket overlap the bore?

what are your valve train clearances?

is the rocker arm geometry correct!

chambers CC,ed

port work..(some steps optional)

 

(1) open throat to 85%-90% of valve size

(2)cut a 4 angle seat with 45 degree angle .065-.075 wide where the valve seats and about .100 at 60 degrees below and a .030 wide 30 degree cut above and a 20 degree cut above that rolled and blended into the combustion chamber

(3)blend the spark plug boss slightly and lay back the combustion chamber walls near the valves

(4)narrow but dont shorten the valve guide

(5) open and straiten and blend the upper two port corner edges along the port roof

(6) gasket match to/with intake and raise the port roof slightly

(7) back cut valves at 30 degrees

(8) polish valve face and round outer edges slightly

(9)polish combustion chamber surface and blend edges slightly

(10) remove and smooth away all casting flash , keep the floor of the port slightly rough but the roof and walls smoothed but not polished.

(11) use a head gasket to see the max you can open the combustion chamber walls

(12) blend but don,t grind away the short side radias

 

 

block

is the oil pump pick-up mounted 3/8"-1/2" from the oil pan floor/

is the windage screen mounted about 1/8" from the rotateing assembly/

is the pick-up brazed to the pump body?

has the oil pump relief piston in the oil pump been checked for free ,easy movement? clearance? spring tension?

have you carefully checked the true compression?

have you carefully computed the true dynamic compression?

is the oil pump pick-up tube inserted too far into the oil pump body,(binding the gears)

has the block been clearanced for the rotating assembly?

has the block been aline honed?

is the crank strait?

are the damper install keyway and threads ok?

counter weights clearanced?

MAGNAFLUXED?

OIL PASSAGES CLEANED?

GALLERY PLUGS INSTALLED CORRECTLY?

has the cam to rod bolt clearance been checked?

piston to valve clearances checked?

piston to bore clearances?

TRUST BEARING CLEARANCE?

what were the piston ring to slot clearances?

RING GAPS?

were the rings all checked individually for end gap in the cylinders they were used/installed in?

were the rings checked to make sure the correct side faced up, and the correct ring was in each groove?

what were the back clearance on the rings?

were the oil ring expanders carefully fitted for correct drag?

were the oil ring scraper ring rails checked for end gap?

total cam lift and remaining clearanceS?

WAS THE CAM DEGREED IN?

main bearing clearances?

what is the main bearing run-out clearance

piston to head clearance? (QUENCH?)

head gasket to coolent holes checked?

valve to piston clearance with the cam and heads installed?

magnets installed?

rod bolt to block clearances?

what tq reading is necessay to spin the crank with no rods attached?

are the rod bolts and main caps torqued correctly? (rod bolts checked with a bolt stretch gauge?)

did you check the block for a strait main cap alignment?

what size journals and what were the bearings edge to filet clearance??

are the journals checked for finish and run-out/tapper?

did you use moly lube to assemble?

correct bearing crush?

did you pre-lube before start-up?

did the distributor gear fit the cam gear precisely?

was the distributor oil flow mod done?

was the correct style distributor gear used?

did you check the piston to piston pin bores for fit and clearance?

did the piston pins to snap ring clearance seem overly tight?

if they are pressed pins were they correctly matched and checked for free movement in the pistons?

was the engine ballanced?

cam button installed?, and lock plate installed?

were the rods resized? checked for parrallel bores/were the rods strait?

piston valve clearance notchs correctly located on the pistons? edges smoothed?

were the rods checked for length?

is there a few thousands clearance on the oil pump drive shaft AFTER the distributors bolted down?

did you install a steel collar on the oil pump drive shaft?

was the rod to piston pin side clearance checked? (at 4 places seperated bye 90 degree spots)

does the oil pump drive shaft mid section clear the block with the pump installed?

whats the starter to flywheel gear clearance?

is the pilot bearing to trans imput shaft clearance ok?

is the front motor mount bolt to fuel pump pushrod clearance ok? did the fuel pump pushrod move easily/

are you possitive the pistons were installed with the correct valve relief in the correct location?(eiieeiie) were the pistons installed with the correct side facing forward/

what torque values were used on all fasteners/ were they the correct length and type bolts?

were the bores honed with a torque plate in place?

was the cylinder finish correct for the type rings used?

was the oil pump itself checked for free spin and clearance AFTER THE PICK-UP WAS INSTALLED?

was the cam drive checked for free rotation and drag/

were the oil passage plugs drilled for extra oil flow?

were the lifter bores checked?

cam to timing cover clearance?

cam journal to cam bearing clearances?

was the cam journal run-out checked?

was the cam degreed in or just lined up useing factiory index marks?

has the rod and windage screen to oilpan clearnce been checked?

does the dipstick & tube clear the windage screen?

was the cam lobes/LSA/LIFT CHECKED?

is the deck square/level?

whats the cross hatch hone angle?

what grit hone was used?

are all the threads clean/clear?

brass freeze plugs installed?

block painted?

do the oil return holes have screens epoxied in place if necessary

besides the normal checks for deck height, line hone,and splayed main caps, making sure all the threaded holes are correct, the cylinders honed lifter bores are correct, theres the little things, I paint the inside surfaces of my blocks with

http://www.glyptal.com/1209_black_enamel.htm

to lock in place any micro dust left after the last total cleaning before assembly, to speed the oil flow back to the oil pan and help prevent corrosion

BTW I bought 16 rubber corks to push into the lifter bores to prevent paint entering the lifter bores durring the painting, I placed 16 mini-screw eyes in the corks and strung them on a bead chain to keep from loseing them while in storage or in use!

rubber-corks.jpg

http://www.camtattoo.com/camshop/home.html?target=Piercing_SuppliesCorks_zg_Receiving_Tubes.html

 

keychain.gif

 

B00004Z0NK.01.MZZZZZZZ.jpg

 

Ive used BOTH RUSTOLEUM (BRITE YELLOW) and Glyptal but lately just several coats of BRITE YELLOW RUSTOLEUM ON OVER THE glyptal EPOXY BASE COAT,COVERED BYE BRITE YELLOW RUSTOLEUM APPLIED ON THE TOTALLY CLEANED AND DEGREASED AND DRIED BLOCK, (BTW A TOTAL DEGREASE OF THE BLOCK WITH ACETONE,and LINT FREE CLOTH, AND A heat gun or hair drier to totally dry the block just before cleaning helps the paint get a firm grip on the block surface) and dont forget you should remember the option to J&B EPOXY a MAGNET in the lifter gallery BEFORE painting the surfaces if you want to permenantly afix it on the block. (which do a great job at picking up micro metalic dust)

http://www.wondermagnet.com/dev/magnet1.html

magnet1.jpg

Link to comment
Share on other sites

heres a tool list that might come in handy. I have many but not all the tools listed (IM WORKING ON IT)and yeah I more than likely left a few important ones off the quick list

 

A set of quick release tools for late model gm fuel lines and a/c line disconnects.

ACETYLENE TORCH

ADJUSTABLE LENGTH PUSH ROD

ADJUSTABLE POINTER ,

Adjustable stand, for dial indicator

Assorted pliers/vise grips

Air compressor

Air ratchet

Allen wrenches

ASK QUESTIONS

ASSORTED FILES

ASSORTED SOCKETS,OPEN AND BOX WRENCHES 1/2",3/8".1/4" DRIVE

Ball joint press tools

Ball joint separator forks

Battery charger(full size shop type)

Bench grinder w/ wire wheel

Big huge screwdriver which doubles as a pry bar

BORE GAUGE

Brake spring pliers and retaining spring tool

CAM BEARING INSTALLER

CAM DEGREE WHEEL

CAM HANDLE

CARBIDE BURRS

CC Buret Kit/PLUS STAND

Checking springs

chisels (assorted sizes/types)

clamp for compressing calipers

CLUTCH PILOT

Coil spring compressors

Compression tester

COMMON SENSE

CRANK SOCKETS

Creeper

Crows feet

CYLINDER HONE

DENT PULLER

DEPTH GAUGE

Dial indicator,

Die grinder

Differential Set-up Kit

Distributor wrench

DRIFT PUNCHES (assorted sizes/types)

Drain pans all sizes

Dremel tool set to cut rivets etc.

DRILL PRESS

Drop light (florescent preferred)

Dwell meter for the older cars

EASY OUTS

ELECTRIC SOLDER GUN

Electrical tape

Engine hoist

ENGINE LEVELER

ENGINE STAND

Feeler Gages

FIRE EXTINGUISHER

Flexible dwell key for point distributors

FREEZE PLUG INSTALLER

FUEL PRESSURE GAUGE

Full set of assorted hammers all the way up to 5 lb hand held full set of tap and dies metric and standard

Full set of torqze tip screw drivers and sockets male and female all sizes

Full size vice

Gasket scraper

Gear Pullers

GM disk brake caliper Allen key 3/8 and 5/16

Grease gun

Harmonic balancer puller

HARMONIC BALLANCER INSTALLER

HONING STONE

Jack stands and a 2 1/2 -3 ton full size service floor jack

JEWELERS FILES

LAPTOP COMPUTER

Leakdown tester

LIFTER BORE HONE

LIFTER GROOVE TOOL

LUIS TOOL

Magnet

MAGNETIC PICK UP TOOL

MAGNIFYING GLASS

MANUAL LUBE PUMP

MICROMETERS

MIG WELDER

Mini Valve Spring Tester

MIRROR

Multimeter

Normal screwdrivers all sizes

NUT SPLITTER

OIL CAN

Oil filter and regular spin on filter wrenches.

Oil filter wrench

Oil Pump Primers

ONE NEW SOLID LIFTER

PB BLASTER OIL

Pipe cutter

PISTON RING COMPRESSOR

Piston stop,

Pitman arm puller

Plasma cutter

PLASTIC HAMMER

Pneumatic chisel

Pneumatic impact guns 3/8 and 1/2 drive

Pressure bleeder for brakes

PRY BAR

PUSHROD CHECKER

Putty knife

Ramps

Rear caliper piston turning tool

REFERENCE MANUALS

RIFLE CLEANING ROD AND BRUSHES FOR OIL PASSAGES

Ring expander pliers

RING GAP FILER

Rochester idle mixture adjusting tool

ROD BOLT GUIDES

ROD BOLT STRETCH GAUGE

SCAN SOFTWARE

Sledge or mall hammer

SMALL FLASH LIGHT

Snap ring pliers internal and external

SPRING COMPRESSOR

Standard set of drift pin punches,alignment punches,[censored] and centering punches.

Steering column lock plate compressor

Steering wheel puller

Stethoscope

STUD INSTALLER

TAPE MEASURE

Test light

Three or four of every size socket and wrenches

Timing light

Tire Pressure Gauges

TORQUE WRENCH

Transmission jack

Tubing cutter

Tubing flare tool

Tubing bender

Utility knife

VACUUM GAUGE

Wire crimper

Wheel chocks (keep cars from rolling)

 

GOOD KNOWLEDGEABLE FRIENDS, especially ones with time, spare parts and skill [/b]

 

Additional items that may come in handy -

--------------------------------------------------------------------------------

Gasket scraper

Plasma cutter

Drill press

Allen wrenches

12pt sockets

Deep sockets

Impact sockets

Compressor

Retracting extension cord

Safety glasses

Bench grinder w/ wire wheel

Die grinder

Wire crimper

Valve spring compressor

Breaker bar

Distributor wrench

Taps & dies

Oil filter wrench

Line wrenches

Crows feet

Shorty wrenches

Tire iron

Cutting torch

FIRE EXTINGUISHER

Throw-away vinyl gloves

Plastic zip-lock bags

Permanent marker

Duct tape

Electrical tape

Torque wrench

Oil pump primer

Speed wrench

Carburetor stand

Tire pressure gauge

Compression gauge

Sandblaster

Paint gun

Utility knife

Transmission jack

Mallet

Stethoscope

Link to comment
Share on other sites

Guest woodyhooten

thanks for the advice Tim, I'm sure grumpy has posted this before... I couldn't get the search right and he has so many posts, it's overwhelming...

thanks grumpy, as always, you're amazing... I hope this will see me through :D

Link to comment
Share on other sites

Guest woodyhooten

After reading the post all the way through, I realize that I'm well beyond this point. My block and heads have been finished for some time and I'm just finishing up with the last few hoses and whatnot... maybe someone else can help me out with a list of things, grumpy can move on to much more difficult problems, I hate to waste his time.

 

I'm looking for a checklist of the rest of the parts that I need to finish the install (theromstats, hoses, plugs, etc.). I realize this is all very beginner stuff, but if someone could nudge me in the right direction (maybe Chevy has a parts list that I coudl use) I would greatly appreciate it. Again, thanks for the amazing post, grumpy!

Link to comment
Share on other sites

BREAK-IN" PROCEDURES FOR REMANUFACTURED ENGINES

perhaps this will help

I normally pour it in just before starting the engines cam break in,procedure. because I want to make sure that nothing in the oil/E.O.S. mix can settle out from sitting over a long period of time. now if your running a flat tappet cam you should have also used a moly cam lube on the lobes and be useing a mineral base oil for the break-in procedure, and youll need to do an oil and filter change after about the first 3-4 hours running time to remove that moly cam lube from the engine after its served its purpose of protecting the cams lobes and lifters at start up, aND AS THE LOBES/LIFTERS LAPPED IN. MOSTLY to prevent that moly grease and E.O.S from potentially partially clogging the filter after that mix cools down,but also because both those lubes might leave deposites in the combustion chamber ,over time that might aggravate detonation.

even G.M. suggests that E.O.S. is not a great long term oil suppliment, and that its main function is to add extra oil film strength durring new engine break in.

 

1052367

ENGOILSUP

EOS - Engine Assembly Prelube<BR>Specifically formulated as an engine assembly lubricant. E.O.S. provides outstanding protection against run-in wear and piston scuffing as well as run-in camshaft lobe and lifter scuffing resulting from insufficient lubrication 1052367.jpg

don,t forget a few magnets in the oil pan goes a long way towards trapping unwanted metalic dust formed from the cam and rings lapping in durring break-in that might otherwise get imbedded in your bearings or cause other problems

heres the magnets I use in every engine

 

http://www.wondermagnets.com/cgi-bin/edatcat/WMSstore.pl?user_action=detail&catalogno=0035

 

This engine has been rebuilt to give long, satisfactory service. Protect your investment by following these instructions before installing or starting the engine.

 

Suggested PreCAUTIONs for Remanufactured Engines

 

This engine has been carefully remanufactured to precision standards, and will perform properly if certain steps are taken by the mechanic making the installation. Following is a list of causes for a remanufactured engine to fail early in service, and suggested procedures to prevent failure. When a properly remanufactured engine fails to give satisfactory service, it is usually due to: burning piston heads caused by detonation, pre-ignition or "lugging"; piston scuffing or seizing usually caused by overheating or excess fuel; bearing and crankshaft wear caused by under-lubrication, dirt or coolant seepage; excessive piston and cylinder wear caused by dirt, ineffective air filtering, coolant seepage or excessively rich, air-fuel ratio.

 

The customer and the remanufacturer

have a mutual interest in this engine.

We both want it to perform and

give long and satisfactory life.

 

We recommend these precautions:

 

Be sure to prime the oil pump, oil lines and fill the oil filters with oil using an auxiliary pump, operating the internal oil pump with a hand drill, or an external pressure tank connected to the oil pressure gauge or sending unit fitting before starting the engine. It is desirable to fill the crankcase in this manner. If using an air pressure tank be sure it does not run out of oil and blow air through the lines.

Proper air-fuel ratio is vital in today's engines. Be sure the carburetor or fuel injection system has been remanufactured to manufacturer's specifications. Manifold and cylinder head surfaces should be checked and in good condition (resurface if necessary). Be sure the cylinder heads and manifolds are torqued and retorqued in proper sequence if required. Air seepage can cause lean air-fuel ratio which causes detonation. Check fuel pump for proper pressure.

Ignition or diesel fuel injection system should be properly serviced or calibrated, and engine timing corrected. Proper valve lash or clearance is very important.

Be sure to use spark plugs of the correct heat range and gap as specified by the engine manufacturer. Check electronic sensors and sending units for proper operation. Vacuum lines must be properly routed and connected to the appropriate fittings to ensure operation of emission control devices and related engine controls.

Check the exhaust thermostat control (commonly called the heat riser) to be certain it is free and operating properly. Check the exhaust gas recirculation valve (EGR valve) for proper operation. Clean the intake manifold to remove deposits from the various passages.

Rebuild or replace the radiator and hose lines to ensure they are free from deposits so that the cooling system can function properly. Restrictions can cause overheating. Thermostats should be checked or replaced with one of the correct temperature. Use the proper pressure cap as specified by the engine manufacturer, and make sure it is properly seated.

Important - replace filter elements. Thoroughly check engine accessories which are to be reused. Clean them internally and externally before installing.

The coolant used should be compatible with aluminum engine components and blended to a mixture of no more than 60% antifreeze and 40% water. We recommend that a good sealer with rust inhibitors be added to the cooling system. This will tend to prevent rust and scale deposits and guard against coolant seepage.

Before releasing the engine for regular service, check the air-fuel ratio. Caution the driver against "lugging."

RECOMMENDED "BREAK-IN" PROCEDURES FOR REMANUFACTURED ENGINES

 

Protect the investment you have in

your engine. Take the time to read

and follow these recommendations.

 

CAUTION

 

Before starting the engine for the first time, be sure it has been properly pre-lubricated.

Never add cold water to the cooling system while the engine is running. The engine should be allowed to run at normal operating temperature.

Start engine and run at fast idle, approximately 1500 RPM, and check the oil pressure. Run the engine for 30 minutes even though coolant may rise to operating temperature in a few minutes. Adjust tappets, if required, carburetor and ignition timing. If the coolant should "boil over," stop engine and allow to cool. Then start again and proceed as above.

When required retorque cylinder heads and manifolds to engine manufacturer's specifications in proper sequence. Readjust tappets if necessary.

Start engine again and make a test run on the road at 30 MPH in "drive" range or select the proper gears for standard transmission. Periodically accelerate to 50 MPH and decelerate rapidly. Repeat this procedure at least 10 times. For a large truck or industrial engine, accelerate in intermediate gears as above.

NOTE: Applying loads to the engine for short periods of time causes increased ring pressure against the cylinder walls and helps to seat the rings. This is especially important because you are "breaking-in" the engine with heavy duty oils. The rapid deceleration increases vacuum and gives extra lubrication to the piston and ring assemblies.

 

 

Engine or Vehicle Service Recommendations

 

Passenger Cars

Drive normally but not at continuous high speeds or under heavy loads for the first 500 miles. Change oil and filters after 500 miles.

 

Trucks

Operate the vehicle with light loads up to 500 miles and avoid "lugging." Occasional acceleration and deceleration in proper gear during this period is advisable. Change oil and filters after 500 miles of service.

 

Industrial Engines

Follow the above instructions and operate under partial loads for several hours. Change oil and filters after approximately 20 hours of operation.

 

As required by the engine or gasket manufacturer, after 1000 miles of service, retorque cylinder heads and manifolds to proper specifications. Readjust tappets when required. We suggest this be done again after 5000 miles. We know that this means extra work, but it assures long and satisfactory engine performance.

 

DESIGNATION, IDENTIFICATION AND DESCRIPTIONS OF OIL CATEGORIES

API Engine Service Description

 

Letter Designations: SA, SB, SC, CA, CB

 

Oils with this designation are considered obsolete and should not be used unless specifically authorized by the engine manufacturer.

 

Letter Designation: SD

 

1968 Gasoline Engine Warranty Maintenance Service ...typical of gasoline engines in 1968 - 1970 models of passenger cars and some trucks operating under engine manufacturer's warranties in effect during those model years. Oils designed for this service provide more protection against high - and low-temperature engine deposits, wear, rust, and corrosion in gasoline engines than oils which are satisfactory for API Engine Service Categories SC and may be used when category SC is recommended.

 

Letter Designation: SE

 

1972 Gasoline Engine Warranty Maintenance Service ...typical of gasoline engines in passenger cars and some trucks beginning with 1972 and certain 1971 models operating under engine manufacturer's warranties. Oils designed for this service provide more protection against oil oxidation, high temperature engine deposits, rust and corrosion in gasoline engines than oils which are satisfactory for API Engine Service Categories SD or SC and may be used when either of these categories is recommended.

 

Letter Designation: SF

 

1980 Gasoline Engine Warranty Maintenance Service ...typical of gasoline engines in passenger cars and some trucks beginning with 1980 - 1988 model years operating under engine manufacturer's recommended maintenance procedures. Oils developed for this service provide increased oxidation stability and improved anti-wear performance relative to oils that meet the minimum requirements for API Service Category SE. These oils provide protection against engine deposits, rust and corrosion. Oils meeting API Service Category SF may be used where categories SE, SD or SC are recommended.

 

Letter Designation: SG

 

1989 Gasoline Engine Service - Service typical of gasoline engines in present passenger cars, vans and light trucks operating under manufacturer's recommended maintenance procedures. Category SG quality oils include the performance properties of API Service Category CC. (Certain manufacturers of gasoline engines require oils also meeting API Service Category CD). Oils developed for this service provide improved control of engine deposits, oil oxidation and engine wear relative to oils developed for previous categories. These oils also provide protection against rust and corrosion. Oils meeting API Service Category SG may be used where categories SF, SE, SF/CC or SE/CC are recommended.

 

SH

 

This oil classification came to the industry in 1992 to replace the SG oil and provide better protection against rust, oxidation, sludge, varnish as well as providing extended component life expectancy. It is currently still available, however it is obsolete for PCMO licensing. It can be used only with API CF, CF-2, DF-4 and CG-4 when displayed in the API service symbol and the C category appears first.

 

SJ

 

This oil classification came to the industry in 1996 to replace the SH oil with continued refinements to the SH oil. It is currently available and acceptable for use in engines manufactured previous to the year 2,000.

 

ILSAC GF-3

 

(ILSAC, International Lubrication Standardization & Approval Committee)

 

This oil meets the current automotive manufacturer requirements for their newest lines of engines and will be used in 2,000 automotive engines. There were earlier versions used before the year 2000. The ISLAC grades are described as SAE 0W-20, 0W-30, 5W-20, 5W-30, 10W-30. These oils have improved overall oil performance while increasing fuel economy while providing emission systems protection.

 

Letter Designation: CC

 

Moderate Duty Diesel and Gasoline Engine Service - Service typical of certain naturally aspirated, turbocharged, or supercharged diesel engines operated in moderate to server-duty service and certain heavy-duty gasoline engine. Oils designed for this service provide protection from high-temperature deposits and bearing corrosion in these diesels and also from rust corrosion, and low-temperature deposits in gasoline engines. These oils were introduced in 1961.

 

Letter Designation: CD

 

Severe Duty Diesel Engine Service - Service typical of certain naturally aspirated turbocharged or supercharged diesel engines where highly effective control of wear and deposits is vital or when using fuels of wide quality range including high sulfur fuels. Oils designed for this service were introduced in 1955 and provide protection from bearing corrosion and from high-temperature deposits in these diesel engines.

 

Letter Designation: CD-II

 

Severe Duty Two-Stroke Cyclic Diesel Engine Service - Service typical of two-stroke cycle diesel engines requiring highly-effective control over wear and deposits. Oils designed for this service also meet all performance requirements of API Service Category CD.

 

Letter Designation: CE

 

Severe Duty Diesel Engine Service - Service typical of certain naturally aspirated, turbocharged or supercharged heavy duty diesel engines manufactured since 1983 and operated under both low speed - high load and high speed - high load conditions. Oils designed for this service must meet the requirements of API Engine Service Category CC and CD.

 

LUBRICANT RECOMMENDATIONS FOR "BREAKING-IN" REMANUFACTURED ENGINES

 

Follow the recommendations of the engine manufacturer for the proper viscosity and type of oil to be used during and after the "break-in" period.

 

It is important to use heavy-duty detergent oils which contain an EP (extreme pressure) additive right from the start. Special "break-in" oils should not be used unless specified by the manufacturer. Older engines without oil filters may require special considerations, such as the use of non-detergent oils unless otherwise specified by the manufacturer.

 

Consult the owner's or service manual for the latest manufacturer's recommendation on oil selection.

 

See the accompanying chart for additional information on the type of engine oils currently in production and available for use with today's engines

 

SAE Motor Oil Viscosity Classifications

 

Since 1911, the petroleum industry has used the SAE Crankcase Oil Viscosity Classification System to describe and classify motor oils according to their ability to flow at various temperatures. The grades in common used today are: 5W, 10W, 15W, 20, 30, 40 and 50. The "W" indicates the oil is suitable for use during low ambient temperatures such as during the winter months. For instance, oils designated at 5W-30 provide adequate lubrications at -13°F (-25°C). Multigrade oils are able to maintain their viscosity over a wide range of temperatures. An oil designated as 10W-40 performs as well as a 10W designated oil at low temperatures, and as well as a single grade 40 designated oil at high temperatures.

 

Synthetic Motor Oils

 

The introduction of synthetic motor oils dates back to World War II and they are often described as the "oil of the future." Synthetic oils are man made, manufactured in a laboratory rather than pumped out of the ground and refined. They offer a variety of advantages over natural oils from better fuel economy, stability over a wide range of temperatures and operating conditions and longevity.

 

However, the use of synthetic engine oils is not recommended for the "break-in" period. Its outstanding ability to reduce wear by virtually eliminating friction between moving components is not desirable for a "break-in" oil. Certain predictable amounts of friction are required for proper "break-in" of piston and piston rings. AERA does not recommend the use of synthetic engine oils for the first 5,000 miles of service. Thereafter it is up to the vehicle owner to weight the cost of more expensive synthetic motor oils, manufacturer's oil classification recommendations and drain intervals.

 

http://www.aera.org/consumer/breakin.htm

 

Abbreviations and Symbols

 

API - American Petroleum Institute

 

SAE - The Society of Automotive Engineers

 

 

 

Step Box

1) Safety first! If the car is on the ground, be sure the emergency brake is set, the wheels are chocked, and the transmission cannot fall out of gear.

2) Be sure to check the oil level in the engine and prime the oil system.

3) Run the engine between 2,000 and 2,500 RPM’s, with no-load on the engine for the first 30 min.

4) Adjust the distributor timing roughly by hand for a quick start up and smoothest idle possible.

5) Adjust the carburetor settings, if necessary.

 

6) After the first 30 minutes of the engine running, set the ignition timing according to the timing specifications.

 

7) Drive the vehicle with varying speeds and loads on the engine for the first 30 miles. Be sure not to use a lot of throttle of high RPM.

8) Run five or six medium-throttle accelerations to about 5,000 RPM (55 to 60 MPH), then letting off in gear and coasting back down to 20 MPH.

9) Run a couple hard-throttle accelerations up to about 5000 RPM (55 to 60 MPH), then letting off in gear and coasting back down to 20 MPH.

10) Change the oil and filter with recommended oil (10w30SG in most cases) and filter.

11) Drive the next 500 miles normally, without high RPM’s (below 5,000 RPM), hard use, or extended periods of high loading.

12) Change oil and filter again.

 

13) Your engine is now ready for many happy cruising miles!

Link to comment
Share on other sites

Guest kc6wfs

After you check all that... Double check it.... :oops:

 

Thanks Grump.. I printed it and saved it.......

That is AGAIN a fantastic list from you.... :2thumbs:

 

Dave

:cheers:

Link to comment
Share on other sites

Join the conversation

You can post now and register later. If you have an account, sign in now to post with your account.

Guest
Reply to this topic...

×   Pasted as rich text.   Paste as plain text instead

  Only 75 emoji are allowed.

×   Your link has been automatically embedded.   Display as a link instead

×   Your previous content has been restored.   Clear editor

×   You cannot paste images directly. Upload or insert images from URL.

×
×
  • Create New...