2013 GT500 Engine Article in 5.0 Magazine

Stinger1982

Stinger1982 is the Stig
Is now online!

A great read. This engine will seriously go down in history. I have never driven a street car with this much low end torque, and the pull never stops all the way to 7,000rpm. The acceleration is simply ferocious.

http://www.mustang50magazine.com/te...ord_shelby_gt500_trinity_5_8l_v8/viewall.html

Trinity Engine Specs

General
First Model Year 2013
Engine Family Modular
Code Name Trinity Engine
Displacement 5,811cc (355ci)
Bore x Stroke 93.5x105.8mm (3.68x4.165-in)
Horsepower Est. 650 hp @ 6,500 rpm, 91 octane
Torque Est. 600 lb-ft @ 3,750 rpm, 91 octane
Note: Ford SVT has announced targets of 650 hp and 600 lb-ft of torque at unspecified rpm. The figures above are our estimates.
Shipping Weight 623 pounds, includes water pump

Short-Block
Block Low-pressure cast aluminum w/PTWA spray-bore iron linings
Bore Spacing 100mm (3.937-in)
Deck Height 255.71mm (10.067-in)
Deck Thickness 13mm (0.510-in)
Cylinder Head Retention 12mm bolts, four per cylinder, 10 bolts total per bank
Oil 5W-50 synthetic
Oil Pan Cast aluminum, 8.5 quarts
Windage Tray Integral w/oil pan gasket
Oil Pump Gerotor w/billet steel backing plate
Pistons Forged, short-skirt; moly friction-reducing coating; oil-jet cooled
Piston Weight 403 grams
Piston Pin Full-floating (5.4 co)
Piston Pin Retention Wire lock (5.4 co)
Piston Rings Lightweight, reduced tension steel, chrome top and second; iron oil control
Connecting Rod Forged steel, I-beam, no balance pad, angle ground small end
Connecting Rod Length 169.1mm (6.658-in) (5.4 co)
Rod/Stroke Ratio 1.60 (5.4 co)
Crankshaft Forged, air-cooled, medium carbon steel; tungsten mass balance; extended damper threads
Main Journal 67.5mm (2.652-in) diameter (5.4 co)
Rod Journal 53.0mm (2.082-in) diameter (5.4 co)
Flywheel Retention Eight-bolt (5.4 co)

Cylinder Heads
Heads Aluminum, four-valve per cylinder, inter exhaust seat cooling
CAM Covers Cast aluminum (5.4 co)
Compression ratio 9.0:1
Valves 37x32mm (1.454x1.257-in), four per cylinder; intake (5.4 co), exhaust Nimonic w/Stellite face insert
Camshafts DOHC, four camshafts (carried over from Ford GT)
Camshaft Timing Fixed (5.4 co)
Duration 242 degrees intake, 247 degrees exhaust
Lift 11.18mm (0.439-in) intake, 11.48mm (0.451-in) exhaust
Valve Followers Roller finger follower (5.4 co)
Lash Adjusters Hydraulic (5.4 co)
Coolant Organic (red) (5.4 co)

Manifolds
Exhaust Manifold Cast-iron log-type (5.4 co)
Intake Manifold Cast aluminum adapter-plate-type w/integral charge cooler core mounting (5.4 co)
Throttle Body 2x60mm, twin-blade, electronic throttle (5.4 co)

Electronics
Powertrain Control Module Copperhead
Mass Air Meter 105mm, digital (5.4 co)
Oxygen Sensors Wideband Universal Exhaust Gas, sensor pre-cat
Knock Sensors Two in block valley (5.4 co)
Ignition Timing Crank trigger, front of crankshaft
Ignition Coil-on-plug
Sparkplug Iridium
Firing Order 1-3-7-2-6-5-4-8
Cylinder Numbering Right bank: 1, 2, 3, 4; left bank 5, 6, 7, 8 (5.4 co)
Fuel System Electronic returnless fuel system
Fuel Injectors 54.8-lb/hr
Fuel Pressure 39-psi
Fuel Requirement 91-octane minimum, 93-octane recommended



Read more: http://www.mustang50magazine.com/te...00_trinity_5_8l_v8/viewall.html#ixzz1lLwQRZ8T
 
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in all seriousness this thing is insane, all aluminum, 9:1 CR, TVS blower, 5.8L, AWESOME! I will love to see what these things do with more boost.
 
"
...what is essentially a rotating arc welder is inserted into the cylinder. It uses a wire feed, an electric arc, and compressed air to blast a stream of 35,000-degree iron plasma onto the cylinder walls. The molten iron droplets are tiny, just 20 to 30 microns (0.0008 to 0.0011 inch) in diameter, and they dry in 10 to the -6 seconds. The wire-fed plasma jet is maneuvered to form a lattice pattern; later the cylinder is diamond-honed for final crosshatching..."

When did Ford start building space shuttles? That's some crazy technology!
 
"cast iron manifolds" for exhaust.... I understand its got to be cost effective for production but come on! Put some decent tubular headers on it! none the less its totally baddass
 
"cast iron manifolds" for exhaust.... I understand its got to be cost effective for production but come on! Put some decent tubular headers on it! none the less its totally baddass

They wont meet durability or emission on this application. Its not a cost decision.
 
They wont meet durability or emission on this application. Its not a cost decision.
i can understand the emissions part but durability i strongly disagree with as would any person to own a ford 4.6 or 5.4 with cast manifolds that will certainly crack and deteriorate. Like I said, its not a huge downer because 99% of people whom buy the car will swap them out pretty quick, I just hate ford for there crap manifold designs on some of there engines
 
i can understand the emissions part but durability i strongly disagree with as would any person to own a ford 4.6 or 5.4 with cast manifolds that will certainly crack and deteriorate. Like I said, its not a huge downer because 99% of people whom buy the car will swap them out pretty quick, I just hate ford for there crap manifold designs on some of there engines

these manifolds are SVT specific. These are the only option that passed OEM durability.

I heard a *rumor* that a 30-40hp bump from long tubes and no cats wouldn't be and un reasonable estimate
 
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It was a joke..... lol

me =

Overyourhead.jpg
 
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