Everything posted by wildweaselmi
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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From the album: 2007 GMC Sierra 2500 (classic)
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2007 GMC Sierra 2500 LBZ
VIN: 1GTHK23D67F110033 Options and Standard Features Options Engine: Duramax Turbo Diesel 6.6L V8 Heavy-Duty Power Package Heavy-Duty Rear Automatic Locking Differential Heavy-Duty Trailering Equipment Manual Dual-Zone Air Conditioning Power Tilt-Sliding Sunroof W/Express-Open Rear Seat Entertainment System Transmission: Allison 1000 6-Speed Automatic Basic Information Stock Number: 2319 VIN Number: 1GTHK23D67F110033 Style Name: 4X4 Crew Cab 6.6 Ft. Box 153 In. WB SLT Make: GMC Model: Sierra 2500HD Classic Model Year: 2007 Type: Pickup Vehicle Trim: SLT Interior Color: Dark Pewter Exterior Color: Onyx Black Body Type: Crew Cab Engine Engine Description: 6.6L V8 32V Fuel Type: Diesel Fuel Induction: Direct Diesel Injection Valves Per Cylinder: 4 Aspiration: Turbocharged DriveTrain 4WD Type: Part-Time Driven Wheels: Four-Wheel Locking Hubs: Auto Transfer Case: Manual Transmission: 6-Speed Automatic Wheels Rims: Polished Forged Aluminum Wheels Spare Rim Type: Steel Drive Train Type: 4WD Suspension Independent Suspension: Front Stabilizer Bar: Front Instrumentation Clock Compass External Temp Low Fuel Level Tachometer Trip Computer Roof and Glass Front Wipers: Variable Intermittent Privacy Glass: Deep Rear Defogger In Car Entertainment Antenna Type: Fixed Audio System: AM/FM/Satellite-Prep Premium Speakers: Bose Rear Audio: Multi-Source Speakers: 6 Seats Drivers: Multi-Level Heating Drivers Height: Power Drivers Lumbar: Power 2-Way Drivers Power: 8 Passenger: Multi-Level Heating Passenger Height: Power Passenger Lumbar: Power 2-Way Passenger Power: 8 Seating Capacity: 5 Front Seat Type: Bucket Upholstery: Leather Center Armrest Folding: Flip Forward Cushion/Seatback Convenience Center Console: Full With Covered Storage Cruise Control Cupholders: Front And Rear Door Pockets: Driver And Passenger Overhead Console: Mini With Storage Power Outlets: 4 Seatback Storage: 2 Steering Adjustment: Tilt-Adjustable Steering Power: Power Steering Auto Dimming Mirrors: Electrochromatic, Driver Only Power Mirrors: Power Remote W/Tilt Down Power Retractable Mirrors Reverse Tilt Mirror: Dual Mirrors Power Door Locks Windows: Power Windows Memory Features Exterior Mirrors Memory Features Number Of Drivers: 2 Comfort Air Conditioning: Automatic Mats: Vinyl/Rubber Front And Rear Reading Lights: Front Shift Knob: Urethane Steering Wheel Trim: Leather Vanity Mirrors: Passenger Vanity Mirrors Features Bumpers: Chrome Door Reinforcement: Side-Impact Door Beam Engine Hour Meter Safety Turning Circle: 53.6 ABS: 4-Wheel Anti Theft System Safety Locks: Manual Daytime Running Light Engine Immobilizer Headlights Auto Delay: Auto Delay Off Headlights Dusksensor: Dusk Sensing Front Headrests: Manual Adjustable Rear Headrests: 2 Rear Center Seatbelt: 3-Point Belt Safety Signal Mirrors: Turn Signal In Mirrors Driver And Passenger Airbag Door Reinforcement: Side-Impact Door Beam Doors Rear Door Type: Tailgate Side Door Type: Conventional Dimensions Front Head Room: 41.0 Inches Front Hip Room: 61.4 Inches Front Shoulder Room: 65.2 Inches Front Leg Room: 41.3 Inches Rear Head Room: 39.0 Inches Rear Hip Room: 62.9 Inches Rear Leg Room: 39.1 Inches Rear Shoulder Room: 65.1 Inches Length: 239.7 Inches Width: 79.7 Inches Height: 77.0 Inches Wheelbase: 153.0 Inches Ground Clearance: 10.6 Inches Max Gross Vehicle Weight: 9,200 Lbs. Curb Weight: 5,883 Lbs. When the LBZ was introduced to replace the LB7, the LB7’s injector issues had long been solved and the overheating issues associated with the LLY were a thing of the past. This engine’s beefier block casting, stronger connecting rods, higher pressure common-rail fuel system and updated ECM arguably made it the most powerful, drivable, reliable and tunable Duramax to date. Right out of the box, the LBZ produced 360hp and 650 lb-ft of torque. During this time frame (’06-‘07), these numbers not only outperformed the 6.0L Power Stroke’s 325hp and 570 lb-ft, but they beat out the 325hp and 610 lb-ft figures put up by the 5.9L Cummins as well. The LBZ was also the first Duramax to be coupled to the six-speed Allison 1000 automatic, which proved capable of handling more power than the five-speed version that preceded it. Diesel enthusiasts longingly remember the LBZ as the last Duramax built before the modern day emissions crunch kicked in, which spawned pollution control technology that reduced fuel economy and greatly hampered long-term engine durability. Arguably the most highly sought after Duramax ever built is the LBZ Duramax. More meat exists in the lower section (big end) of the rod than what you’ll find on LB7 The beefier I-beam style rods bring more mass to the rotating assembly Connecting rods were the strongest found in any Duramax up to that time GM cast slightly more webbing into the main bearing regions of the LBZ’s gray-iron block for added horsepower and torque Unfortunately nothing is perfect and in this case the LBZ pistons weren’t up to the task of surviving in higher horsepower applications. The cast-aluminum pistons are highly susceptible to cracking. The LBZ piston’s use of wrist pin bushings is also believed by many to be a contributing factor in OEM piston failure, along with a thinner wrist pin being utilized. When a piston lets go, you definitely know it, as it’s accompanied by a nasty miss, excessive blow-by and smoke out the exhaust. CARFAX Vehicle History Report for this 2007 GMC SIERRA K2500 HD_ 1GTHK23D67F110033.pdf 6.6L DURAMAX MAINTENANCE SCHEDULE, SERVICE INTERVALS Replace engine oil & oil filter 10,000 miles or when "change engine oil" message is displayed by the oil life monitoring system Replace fuel filter 2001 - 2010 15,000 miles 2011 - 2016 22,500 miles or when "change fuel filter" message is displayed Replace engine air filter Check filter condition every oil change and replace as necessary; replace at 45,000 miles regardless Flush engine cooling system 150,000 miles Replace automatic transmission fluid & filters 2001 - 2011 50,000 miles (normal conditions) 25,000 miles (severe duty conditions) 2012 - 2016 Replace external filter at 45,000 mile intervals and full service at 97,500 miles under normal conditions Perform full service (new fluid, ext & int filter) every 45,000 miles under severe duty conditions Replace manual transmission fluid GM advises that the ZF S6-650 6 speed manual transmission does not require service. To maintain shift quality and promote transmission life, consider replacing fluid at 60,000 mile intervals, especially if usage meets any of the severe duty conditions. Replace transfer case fluid 2001 - 2011 50,000 miles 2012 - 2016 97,500 miles (normal conditions) 22,500 miles (severe duty conditions) Replace front differential fluid (4x4) Service interval not provided by GM, routine service may promote longevity. Fluid level should be checked periodically. Drain and replace differential fluid immediately if the axle is submerged in water. Replace rear differential fluid Service interval not provided by GM, routine service may promote longevity. Fluid level should be checked periodically. Drain and replace differential fluid immediately if the axle is submerged in water. 6.6L DURAMAX SERVICE PART NUMBERS Part numbers based on Silverado/Sierra trucks - some parts may not be compatible with Sierra/Express vans Engine air filter 2001 - 2005 ACDelco A1618C 2006 - 2010 ACDelco A3087C 2011 - 2016 ACDelco A3141C Engine oil filter ACDelco PF2232 Oil pan drain plug GM 11569943 Fuel filter ACDelco TP3018 Fuel pump 2001 - 2014 (inline pump) ACDelco EP1037, Delphi HFP955 2015 - 2016 (153.7", 144.2" wheelbase, in tank) ACDelco MU1977 (GM 19257327) 2015 - 2016 (133.6", 158.1" wheelbase, in tank) ACDelco MU1976 (GM 19257326) Serpentine belt 2001 (105 amp alt) ACDelco 6K1114, Gates K061114 2001 (130 amp alt) ACDelco 6K1123, Gates K061123 2002 - 2016 (single alt) ACDelco 6K1195, Gates K061195 Glow plug[1] 2001 - 2004 LBZ (VIN 1 only, NOT 2004 LLY) ACDelco 62G 2004 - 2005 LLY (VIN 2 only, NOT 2006 LLY) ACDelco 63G 2006 - 2016 (all engines) ACDelco 9G (replaces ACDelco 61G) Thermostat[2] 2001 - 2014 ACDelco 12T100D (front), ACDelco 12T99D (rear, alternative p/n 131131) 2015 - 2016 ACDelco 131-131 Thermostat housing gasket ACDelco 97223686 Coolant reservoir cap 2001 - 2010 ACDelco RC85 2011 - 2016 ACDelco RC115 Upper radiator hose 2001 - 2005 ACDelco 24485L, Gates 22698 2006 - 2008 ACDelco 24589L, Gates 23227 2009 - 2010 ACDelco 24655L, Gates 23499 2011 - 2014 ACDelco 27035X, Gates 23721 2015 -2016 GM 22884211, Dayco 72554 Lower radiator hose 2001 - 2005 ACDelco 26397X, Gates 22650 2006 - 2010 ACDelco 26570X, Gates 23260 2011 - 2014 ACDelco 27099X, Gates 23962 Camshaft position sensor (CPS) 2001 - 2004 (LBZ, VIN 1) GM 2134274 (alternative 2132485) 2004.5 - 2015 (2004 LLY only, VIN 2) GM 97365038 2016 GM 1267264 Crankshaft position sensor (CKP) 2001 - 2004 (LBZ, VIN 1) GM 2134277 (alternative 2132486) 2004.5 - 2015 (2004 LLY only, VIN 2) GM 9765037 2016 GM 12672641 Automatic transmission filter External filter, 2001 - 2016 ACDelco TF950, Allison 29539579 Internal filter, 2001 - 2005 GM 29537965 Internal filter, 2006 - 2010 ACDelco TF920 Internal filter, 2011 - 2016 GM 29542833 Transmission pan gasket ACDelco 29549684 [1]Model years with engine crossovers should have engine model verified by VIN number before ordering glow plugs. Glow plugs are not interchangeable with all model years. See: Duramax engine models by VIN number [2] 2001 to 2014 model year engines use a dual thermostat system, 1 front and 1 rear mounted thermostat. 6.6L DURAMAX FLUID SPECIFICATIONS & CAPACITIES Note - fluid capacities are nominal; always fill to proper level as indicated by dipstick, to the bottom of the fill plug, etc. The fluid capacities listed herein are measured in U.S. quarts ("qts") and/or pints ("pts"), NOT Imperial units. Always verify fluid specifications and capacities in your owners manual, if applicable. Engine oil 15W-40 Preferred viscosity, ambient temp > 0° F 10 qts w/ filter change 5W-40 Preferred viscosity, ambient temp < 0° F, acceptable in all temps 10W-30 Listed as acceptable for certain model years - not advised Engine coolant 50/50 DEX-COOL 12346290 engine coolant , distilled water 22.0 - 31.4 quarts (5.5 - 7.85 gallons) Refer to owners manual for application specific coolant capacity Automatic transmission fluid 2001 - 2005 (5 spd) DEXRON III automatic transmission fluid (replaced by ACDelco 10-9243) 7.4 qts service refill 12.7 qts total capacity 2006 - 2016 (6 spd) DEXRON VI automatic transmission fluid (ACDelco 10-9243) Manual transmission fluid ZF S6-650 (6 spd) GM TranSynd full synthetic transmission fluid (GM 12378515) 5.8 qts Transfer case fluid 2001-2007 manual shift DEXRON III automatic transmission fluid (replaced by ACDelco 10-9243) 2.0 qts 2001 - 2007 auto shift AUTO-TRAK II (GM 12378508) 2.0 qts 2008 - 2016 DEXRON VI automatic transmission fluid (ACDelco 10-9243) 1.6 qts Front differential fluid 2001 - 2010 SAE 80W-90 synthetic gear oil 1.8 qts 2011 - 2016 SAE 75W-90 synthetic gear oil 1.8 qts Rear differential fluid SAE 75W-90 synthetic gear oil 3.2 - 4.3 qts (varies by MY) DEF tank capacity 5.3 gallons 2006_chevrolet_silverado_owners.pdf
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2003 Suburban 2500 4x4
This is my new daily driver which is a 3/4 ton 4x4 Suburban LT with the 8.1L but its so clean. VIN: 3GNGK26G33G178131 Color: Charcoal Mileage: 129222 Rear Axle: 14 bolt (1999 - 2015 GM 10.5" 14 Bolt ) Trans: 4L80-E Engine: 8.1L (The 8.1L Vortec was the final big block gas engine from GM to date) The highest power rating was 340 horsepower, reached at 4200 RPM, while the highest peak torque ever reached was 455 lb-ft, achieved at 3200 RPM. Cargo Area Dimensions Cargo Volume to Seat 4 (ft³) Cargo Volume to Seat 3 (ft³) 45.7 Cargo Volume to Seat 2 (ft³) 90.0 Cargo Volume to Seat 1 (ft³) 131.6 Cargo Box (Area) Height (in) 40.5 Cargo Box Width @ Wheelhousings (in) 49.1 Cargo Area Width @ Beltline (in) 49.2 Cargo Area Length @ Floor to Seat 4 (in) Cargo Area Length @ Floor to Seat 3 (in) 36.1 Cargo Area Length @ Floor to Seat 2 (in) 69.6 Cargo Area Length @ Floor to Seat 1 (in) 104.6 Cargo Area Length @ Floor to Console (in) - TBD - Exterior Dimensions Wheelbase (in) 130.0 Length, Overall w/rear bumper (in) 219.3 Width, Max w/o mirrors (in) 79.8 Height, Overall (in) 76.4 Overhang, Front (in) 37.0 Overhang, Rear w/bumper (in) 52.3 Ground to Top of Load Floor (in) 32.5 Ground Clearance, Front (in) 8.1 Ground Clearance, Rear (in) 7.1 Rear Door Opening Height (in) - TBD - Rear Door Opening Width (in) - TBD - Side Door Opening Height (in) Side Door Opening Width (in) Step Up Height - Front (in) Step Up Height - Side (in) Interior Dimensions Passenger Capacity 7 Passenger Capacity 8 Front Head Room (in) 40.7 Front Leg Room (in) 41.3 Front Shoulder Room (in) 65.2 Front Hip Room (in) 61.4 Second Head Room (in) 39.0 Second Leg Room (in) 39.1 Second Shoulder Room (in) 65.1 Second Hip Room (in) 61.3 Third Head Room (in) 38.6 Third Leg Room (in) 36.1 Third Shoulder Room (in) 64.4 Third Hip Room (in) 49.2
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From the album: 2003 Suburban 2500 4x4
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2019 Can Am Maverick Trail 1000 DPS Camo
Here is a very exciting, fully loaded Maverick Trail.
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2019 CanAm Maverick Trail DPS 2000 OVERVIEW
From the album: 2019 Can Am Maverick Trail 1000 DPS Camo
Quick Video of overview of CanAm -
1963-64 Chevy Custom 4x4 Truck
Got the body today, Looks pretty good but saw that MMC didn’t patch the gas filler like they were suppose to. Guess if you need something done right you gotta do it yourself. At least they got me most of the way. Just paid MMC for metal work, it’s all I could afford. They wanted, just for the cab, another $2000 for body work and $4000 and up for paint. I am going to learn to do it myself with the help of Eastwood.
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Learning Bodywork
PREP, PRIME AND PAINT YOUR RIDE LIKE A PRO! After you’ve sprayed your primer you might wonder what exactly to do next. Prep for paint can seem tricky at first but it’s not tough once you’ve got the proper steps down. First you’ll need to prep your primer. How exactly you prep your project depends on which primer you’ve used, which products you’re using next, and your overall project goals. It’s important to note that paint prep is a widely debated topic and there are many ways to arrive at the same high quality result. The methods I’ll detail here are simply what I would consider the best balance between speed or effectiveness and high quality results. Block Sanding Sanding scratches will be either straight or circular. Straight scratches don’t hide as well and may be seen in the final product if you don’t use the proper grit. Straight scratches come from block sanding and hand sanding in a back and forth motion. In my experience the best blocks to use for this process are Durablocks. They’re rigid enough to not bend when you’re trying to block a flat surface but they have some ‘give’ to them so that If you don’t have access to a DA (dual action) sander and you’ll be finishing your project with straight sanding scratches you’ll need to use a higher grit so that your color covers them better. Using a DA sander creates random circular scratches that are effectively finer than the same grit paper when used to block sand. A DA sander is a very important tool to use in the prepping process because it allows you to create a surface that is rough enough to allow for proper mechanical adhesion yet hide those sanding scratches in a way that they won’t be able to be seen through the paint when you’re all finished. Wet sanding offers a unique way to prep a panel that some people prefer over dry sanding. First, there is no dust to breathe in and we all understand the benefits of that. Wet sanding also allows you to work with finer grits more easily because the paper won’t clog with dust. The benefit there is that you can use those finer grits on a block and make straight scratches that will be easily covered by your sealer and color. So what grit sand paper should you use? This is where each primer will be slightly different. Prepping primer like our Contour Polyester Primer could go one of two ways. You could “finish” prep it in order to paint directly over it or you could treat it like body filler and simply block sand it flat and then prime over it with another material. If you’re going to be finishing it in order to paint directly over it you should use a combination of block sanding and DA sanding. You can rough out your work with 80, move to 180, 220, and then finish blocking with 320 grit. To get rid of those straight scratches you should DA sand with 400 grit. You could add another finer grit like 600 but in my experience 400 has proven itself to be fine enough to paint over with most materials. You should never wet sand polyester primer; it will absorb the moisture and could potentially cause issues down the road if it doesn’t completely evaporate before painting. If you want to prep polyester primer in order to prime over it with another material, start block sanding with 80 to break it open and roughly knock the panel down flat and then do the majority of your blocking with 180 grit and finish with either 180 or 220 grit on a DA sander. This will give you the flat surface you need and avoid the extra work and time spent finishing with the finer grits. 2k Urethane Primer would be the next step from here. When prepping 2K Urethane Primer it’s very similar to prepping polyester primer for paint except that you’ll skip the rougher grit steps. 320 grit is the best to use for dry block sanding 2K Urethane primer, it’s both rough enough to be able to sand quickly and fine enough to not need much more after you’re done. Once you’ve blocked your panels with 320 grit you should go over your work with 400 grit on a DA sander. Wet sanding 2K Urethane primer is best done with 400 to 600 grit wet/dry paper on a Durablock. Under most circumstances you will not need to DA sand over your work after wet sanding because wet sanding creates much finer scratches. Wet sanding epoxy primer is usually the best way to prep it because epoxy has a tendency to clog paper when sanded dry. You would sand the same way as 2K Urethane Primer—400 to 600 grit wet. Regardless of whether you’ve wet or dry sanded it’s always a good idea to go over your work with a gray or red scuff pad. This will ensure that you don’t have any areas left that are shiny. Everything must be scuffed or sanded in some way. The scuff pad makes it much easier to get into smaller areas where it might be difficult with a block or your DA sander. After you’ve done your sanding and scuffing work, thoroughly blow off your entire project. You want to keep going over the entire thing with your blow gun until you see no more dust or debris. Pay close attention to corners, crevices, gaps in panels, door jambs, etc. Dirt and debris from prepping likes to hide everywhere. Even after taping everything up dust will always find a way to get into your paint work. After you’ve blown off all of the loose dust and dirt thoroughly wipe down all of your panels with PRE cleaner. Let’s start mixing it up! At this point you’ll be ready to start thinking about mixing your paint. There are three components that come into play with nearly all top coats – the “solids” (color pigment or clear solids), activator, and reducer. It’s easiest to think about the solids and the activator as the main ingredients and the product instructions as the recipe. The instructions for each material will tell you exactly how much of each ingredient to add. The solids and activator are required items and the ratio is absolute. If you deviate from the instructions here your paint will not harden or dry correctly. The reducer would be most like salt or spices. Most recipes give a recommendation but how much you use is up to you, it’s all personal preference. Some people prefer to use reducer and some prefer to spray without it, the choice is yours. Mixing ratios are easy to decode, take our Single Stage Urethane for example – the mixing ratio is 3:1. The first number in a mixing ratio always refers to the solids, in this case the color. The second number is the activator. Here we’ll have three parts paint to one part activator. Bring reducer into the picture (15% reduction for example) and the ratio would be written like this: 3:1:15%. That means that you’ll use three parts color, one part activator and then add reducer to equal 15% of the total volume of the first two components. 9 oz. of color : 3 oz. of activator : 1.8 oz reducer (which could be rounded to 2 oz. for easy mixing). Once your paint is mixed you’ll need to strain it and pour it into your paint gun. Straining the material is a very important step If you don’t strain the paint there’s a good chance you could end up either clogging the gun with stray particles or metallic chunks that might not have broken up properly. If it doesn’t clog the gun it only has one other place to go – onto your fresh paint work. That means you’ll end up with unsightly chunks in your final product, some which can’t easily be sanded out. At very least you’ll create more work for yourself when you’re sanding and buffing later on. Applying your color will be about the same whether you’re spraying basecoat or single stage. Remember that it’s always best to apply lighter coats of color and build up the coating gradually rather than load on heavy coats. You’ll need to focus on consistency and make sure that you have even color coverage. Making passes with a 75% overlap while holding the gun about 8” away from the surface is a good place to start. It will take some experience to learn just how fast you’ll want to go. There are very few absolutes when it comes to applying automotive paint, most of it comes down to personal preference and you’ll learn a lot as you go. Make sure to adhere to the recommended flash times between coats to avoid any issues. Your final coats of single stage will go on the same way you’d apply every coat of clear – medium to wet, watching for the material to flow out smoothly. If you plan on doing wet sanding and buffing to finish your project, spray three full coats of clear. Fixing imperfections in your paint When you’ve sprayed your final coats of single stage paint or clear coat you’ll probably see quite a few areas you’re not so happy with – runs, sags, drips, or most common – dirt nibs and orange peel. Don’t worry! It’s possible to correct most of these problems with sanding and buffing, no matter how bad they seem. First you’ll need to knock down the dirt and any runs or sags. Most of the time you’ll stick with 1500 grit paper for the dirt nibs and the larger orange peel. This will allow you to work quickly but without making scratches that are too deep. Once you’ve knocked down most of the dirt or peel, do the majority of your sanding with 2000 grit. To take care of the runs you could use one of our nib files or even a single edge razor blade. Carefully scrape the high spots on the runs or sags. It’s important to be patient with this step. Be sure to avoid cutting into the paint with the edges, just gently scrape away layers of the built up clear coat. When you’ve knocked down the run and brought it back down to the level of the surrounding clear, finish it up by wet sanding with 2000 grit. If this is your first time painting a vehicle, then this is a must see, two-part video series on painting basics by Kevin Tetz: When you’ve sanded out all of the imperfections you’ve found it’s time to buff. Use a rotary buffer like one from 3M or Dewalt with compound on a wool or foam compounding pad to do the majority of the work. It’s easiest to work on one small section at a time and do two or three passes with the buffer until you’ve removed all of the sanding scratches. Move on to polishing after you’ve made two or three passes with the compound. For the polishing steps you’ll use a clean foam polishing pad and machine polish. Make sure to set the buffer speed slower and keep the pad as flat to the panel as possible to avoid swirl marks.
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GM Vortec 8100 (8.1L) Specs
Previous Page Next Page 2001 Vortec 8100 Big Block V8 Outpowers Competitor’s V10s The Vortec 8100 (L18) is essentially a new engine. Nearly 80 percent of its parts have been redesigned. Yet, its foundation is one of the most celebrated engine components in automotive history, GM’s Big Block V8. The Big Block even competes against diesels in highly demanding marine and industrial applications – in essence giving Silverado and Sierra HD customers a lot more truck engine for the money than they realize. The new Vortec 8100 shares its predecessor Vortec 7400’s valve and bore centers and bore diameter. But its stroke has been increased by 9.4 mm (.37 in.) for a higher displacement and more power. The result is awesome: the Vortec 8100 out-muscles even Ford and Dodge’s V10s! If there is heavy towing or hauling to be done, this is the perfect powerhouse for the job. An impressive 90 percent of its peak torque is available from 1700 rpm to 4300 rpm. And when it comes to acceleration, this engine leaves its competitors in the dust, as the following comparison of comparably loaded, automatic transmission-equipped models shows. Even with the Vortec 8100’s awesome power and performance, its specific fuel economy (per liter of displacement) is four percent better (than the 6.5 liter). And the Vortec 8100 operates more cleanly; it already complies with 2002 "clean-fuel-fleet" requirements. Its new design also permits running on alternative fuels, including liquid propane gas (LPG) or compressed natural gas (CNG), without requiring any special valves and seats. California versions of the engine are equipped with Air Injection Reaction (AIR) and pup catalytic converters to meet that state’s more stringent emissions requirements. The Vortec 8100’s 200,000-mile (322,000-km) durability testing includes rigors that no other gasoline engine in its class have been put through; they include running at wide-open throttle for 300 straight hours! Its low maintenance design requires only normal oil and filter changes during the first 100,000 miles (160,000 kms). Oil changes are based on actual need. The Powertrain Control Module records engine temperature and length of operation at a given temperature, then indicates the need for an oil change with an easy-to-read "Change Engine Oil" LCD message in the Driver Message Center. The driver is also alerted to "Check Engine Oil Level," when necessary. Long-life engine coolant is good for five years or 150,000 miles (240,000 kms). A standard coolant level sensor warns the driver of a drop in coolant level. If a catastrophic event causes a total coolant loss, the engine protects itself against damage by running on alternate banks of four cylinders and using cool air to cool itself, enabling the driver to reach a service station. Advanced Design Features The Vortec 8100’s rigid cylinder block uses four-bolt main bearings to optimize crankshaft rigidity. The nodular iron crank is internally balanced and counterweighted to minimize internal stresses and bearing loads. The bearings are produced with a new alloy (A260) that increases their life and eliminates the use of environmentally hazardous cadmium. An elastic material called Vamac is used in place of rubber to support the crankshaft’s torsional rigidity: it increases both damping capability and durability. A change in the firing order (to 1-8-7-2-6-5-4-3) reduces main bearing wear and stress on the crank by seven percent. A coil-near-plug ignition system increases ignition energy by 50 percent, reduces emissions and improves idle quality. New pistons have a shorter deck height and skirt length; they permit the longer (0.37 inch/9.4 mm) engine stroke, without any significant increase in engine deck height and minimal heat build-up. A Teflon™ coating reduces friction. An especially short (5 mm) top ring land and new full-radius top ring design improve combustion efficiency and reduce exhaust emissions. New cylinder heads feature replicated intake ports (each precisely equal in diameter and length) for improved fuel-air distribution and a reduction cylinder-to-cylinder variations in torque output, improving operating smoothness and efficiency. Powdered-metal exhaust valve seats and cast-iron guides enhance durability. Five head bolts circle each cylinder to assure reliable lifetime sealing, which is further enhanced by (1.3 mm) thicker, more durable head gaskets. Hydraulic roller lifters ride on a durable steel camshaft. Stiffer ball-pivot studs support more robust rocker arms. A cast-iron cam-drive cover adds to the valvetrain’s quiet operation. The aluminum intake manifold’s long, even-length runners yield a broad, flat torque curve plus excellent volumetric efficiency (breathing) at high rpm. The manifold is more precisely made, using a "lost foam" casting technology. It involves making a styrofoam assembly; pouring sand around it and shaking the sand into voids. Molten aluminum is then poured through the sand. It melts that foam, displaces it and cools in the shape of the part. The process permits more intricate internal crankcase ventilation passages that eliminate the need for an external crankcase valve and plumbing. This cuts maintenance costs and eliminates potential leak sources. Fuel is delivered by a high-pressure (400 kPa) sequential port fuel injection, providing quick starts and smooth operation in cold and hot weather. An Electronic Throttle Control (ETC) meters intake air more precisely. It also reduces weight and enhances reliability/durability by replacing the 7.4 liter’s mechanical hardware with electronic sensors, wires and actuators and integrating functions such as cruise control, brake torque management and traction control into a single controller. The Vortec 8100’s new mass airflow sensor also has an integral temperature sensor to facilitate fine mixture adjustments.Stainless steel exhaust manifolds (replacing the Vortec 7400’s cast iron) are significantly more heat resistant and durable. Manifold shields keep heat out of the engine bay and muffle the sound of high velocity exhaust flow. The improved (over the Vortec 7400) cooling system is fully pressurized, it includes a surge tank and a single, aluminum-body double-volute pump. The pump has a durable, cast-iron case, and longer-life silicon-carbide shaft seal. Its redesigned water jackets provide more flow, and it distributes equal amounts to both banks of the cylinder case for greater efficiency. A 100 mm wider radiator provides two more liters of capacity. The transmission cooler has been relocated to boost airflow. A modulating fan clutch provides quieter operation. To prevent any potential leaks, fitting beads and hose ends were designed for tighter, more reliable fit; clamps are specified for optimum pressure and glued in place on hoses to assure proper alignment and secure sealing. Previous Page Next Page Previous Page Next Page A dual belt accessory drive de-couples the engine’s alternator and accessories from the air conditioning compressor . This reduces loads on the accessory pulleys by up to 50 percent (over the Vortec 7400), improving efficiency and belt life. It also reduces accessory drive noise by nearly 50 percent (7 dBA) at 1000 rpm and further increases interior comfort by permitting the A.C. compressor to be located as far as possible from the passenger compartment. Stiff cast-iron accessory mounting brackets also help reduced noise and vibration. The drive belts are constructed of a new, non-neoprene compound that extends their life to 150,000 miles (240,000 km) Controlled compression gaskets are used in the oil pan, rocker covers and intake manifold to eliminate leaks. Rocker rails have also been raised to prevent oil from puddling against the rocker cover gaskets. A three-piece, thermoplastic sight shield adds to the advanced look of this superlative engine. 2002 Silverado provides the most powerful line of three-quarter and one-ton pickups and chassis cabs in the heavy-duty pickup segment Silverado HD dominates competitors in engine power, payload and pulling 2003 CHEVROLET EXPRESS AND GMC SAVANA APPLICATION ELIMINATED The Vortec 8100 is no longer an option in the Express and Savana. The Vortec 6000 6.0L (LQ4) will be the most powerful engine offered in the redesigned 2003 models (see Product Specifications). POWERTRAIN CONTROL MODULE AND SOFTWARE WITH ADDITIONAL MONITORING FUNCTIONS A new Powertrain Control Module (PCM), called P59, manages the 8.1L. With this new PCM, processor clock speed increases from 21 to 24 mHz and memory capacity doubles to 1.1 megabytes. The PCM also manages the 4.3L V6 (LU3) and all gasoline-powered Vortec V8 truck engines, and provides one of the most sophisticated engine control systems in the industry. Commonality offers the advantage of reducing inventory complexity and increasing efficiency at various assembly plants. More important, P59 offers the most precise engine management possible, optimizing performance according to temperature or operating conditions and virtually eliminating unintended variation in every function it controls, from ignition timing to fuel delivery to transmission shift points. It also allows GM Powertrain engineers to monitor more engine operations and improves the accuracy and robustness of the OBDII (On-Board Diagnostics) system. For example, the PCM now measures electrical current flowing to the oxygen or 02 sensors (crucial components of the emissions-control system) on vehicles equipped with the Vortec 8100. Previously, the O2 sensors were monitored with a time-to-activity algorithm, which required more measurement latitude to ensure proper operation. The new PCM more quickly reports a malfunction in an O2 sensor with virtually no margin for misreporting. It also allows a new Engine Off Natural Vacuum (EONV) diagnostic for the Onboard Refueling Vapor Recovery system (ORVR), which reduces evaporative emissions by preventing gasoline vapor from escaping the vehicle into the atmosphere. With EONV, the PCM continues to operate when the engine is turned off, monitoring pressure in the fuel tank and ORVR system. If pressure bleeds off more quickly than ambient temperature and other conditions indicate, the PCM can determine whether the system has a leak, even when the vehicle is parked. The new PCM ensures that the engine operates according government emissions regulations. And thanks to its precision, it will also reduce the number of false alarms— OBDII “service engine” warning lights—that require dealer intervention. The new PCM is roughly the same size as the PCM it replaces and is installed in the same place as the previous PCM in various applications—in all applications on the firewall or inner fender, depending on the vehicle. There is no visible difference in the engine bay. IMPROVED DENSO OXYGEN (O2) SENSORS The Vortec 8100 has new oxygen (O2) sensors. These O2 sensors have the same 6.6-volt heat rating as the parts they replace, allowing them to achieve closed loop operation—and maximum exhaust emissions reduction--in minimum time. The new sensors allowed engineers to implement the current monitoring function provided by the new PCM, and they are common to other truck gasoline V8s. SOLID STATE OIL-PRESSURE SENSOR The 8.1L now has a fully electronic, solid-state oil pressure sensor, replacing an analog/mechanical sensor. The solid-state sensor is installed in the same location in the engine block, but it has no mechanical parts, increasing reliability. Its introduction coincides with a new electronic instrument package in some applications. REVISED ELECTRONIC THROTTLE BODY The Electronic Throttle Control (ETC) system on the 8.1L uses a new throttle body and Throttle Actuator Control (TAC) module. The throttle body’s diameter (75 millimeter) has not changed, but the new part features a ``wrap around’’ throttle motor. The electric motor that operates the throttle plate is literally built around the throttle body and responds more quickly to commands from the TAC. The new throttle body is now common to all gasoline-powered GM truck V8s. Before the Vortec 8100, ETC was largely reserved for premium passenger car engines and some heavy duty trucks. There is no mechanical link between the accelerator pedal and the throttle. Besides throttle pedal angle, the PCM measures other data, including the transmission's shift points, in determining how far to open the throttle. ETC delivers outstanding throttle response and can be calibrated to match demands in different applications. COOLANT FLOW FROM HEATER CORE REVISED ON SILVERADO AND SIERRA In the 8.1L applications, the flow pattern for engine coolant has been revised to heat the cab more quickly during cold temperature operation. The heater core is a small radiator inside the vehicle’s instrument panel, behind the engine firewall. Hot coolant from the engine flows through the heater core, where the ventilation fan forces heat through ductwork to the dash vents and into the cab. In extremely cold temperatures, large displacement engines such as the 8.1L can take some time to reach a temperature sufficient to heat the cab. GM engineers have developed a simple, effective method to increase customer comfort by shortening the time it takes to heat the cab. On Silverados and Sierras, the heater return hose is now routed into the radiator return hose rather than the radiator itself. That means the coolant flowing in and out of the heater core bypasses the radiator, where coolant is at its coldest temperature anywhere in the cooling system. Coolant flowing to the heater core stays out of the radiator until the engine reaches full operating temperature and the thermostat opens. This allows the cab to heat more quickly, meeting GM’s stringent time standard, without reducing cooling capacity during high-temperature operation. 2004 LOW PERMEABILITY INTAKE MANIFOLD AND THROTTLE BODY GASKETS The Vortec 8100 has new intake manifold sealing gaskets manufactured from a fluorocarbon material. These fluorocarbon gaskets represent the best sealing technology available. The gaskets are resistant to most chemicals, for maximum durability, and particularly impermeable to small hydrocarbon molecules. Gasoline vapor cannot penetrate the fluorocarbon. Moreover, the gaskets are designed to improve sealing for the life of the engine. They are molded with slight protrusions, or ``snouts,’’ that fit into counter-bores milled in the cylinder heads. The snouts more positively locate the gaskets and virtually eliminate the possibility of movement during assembly or after repeated thermal cycling over the life of the engine. IMPROVED ONBOARD REFUELING VAPOR RECOVERY (ORVR) SYSTEM FOR CHEVROLET AVALANCHE AND SILVERADO, GMC SIERRA AND YUKON XL The ORVR system on these Vortec 8100-equipped vehicles uses a new evaporative emissions canister and purge-control solenoid. ORVR reduces evaporative emissions by preventing gasoline vapor from escaping into the atmosphere during refueling. These new ORVR components take full advantage of advanced technology built into the Vortec 8100's P59 Powertrain Control Module (PCM). The PCM and new components more efficiently manage ORVR, and improve the accuracy and robustness of the OBDII (On-Board Diagnostics) system. This precision will reduce the number of false alarms – OBDII ``service engine’’ warning lights – that require dealer intervention. With improvements to ORVR, the returnless fuel injection and low-permeability gaskets, the Vortec 8100 meets new, near-zero evaporative emissions standards mandated for 2004. EXHAUST GAS RECIRCULATION (EGR) ELIMINATED The EGR control valve and plumbing have been removed from all Vortec 8100s. The EGR system was used to recycle some exhaust gas back into the intake stream to cool combustion and reduce oxides of nitrogen (NOx) emissions. Data from development and durability test vehicles indicates that software refinements in the P59 PCM, and the engine’s overall efficiency, allow the Vortec 8100 to meet all 2004 North American exhaust emissions standards without EGR. Removing EGR reduces cost, complexity and potential warranty claims, improving both assembly efficiency and reliability. IMPROVED CRANK AND CAM TIMING SENSORS Vortec 8100s are equipped with new crankshaft and camshaft timing sensors. The sensors continue to operate on the Magnetic Reluctance (MR) or “mirror image” ignition timing principle, ensuring precise measurement over the life of the engine without adjustment. These sensors are now common with those used on other Vortec V-8s, helping streamline purchasing requirements, reducing inventory requirements and increasing efficiency at engine assembly plants. IMPROVED CRANKSHAFT SEAL The Vortec 8100 has a new front engine cover with a redesigned crankshaft seal. The seal requires no particular orientation during installation. It reduces engine assembly time and virtually eliminates the possibility of misalignment. ADJUSTABLE THROTTLE PEDAL FOR WORKHORSE CUSTOM CHASSIS WCC commercial vehicles will be offered with a throttle pedal that can be moved to accommodate different drivers. Vortec 8100s built for this application require PCM software recalibration to manage the electronic throttle control. There are no hardware changes. REVISED CYLINDER HEADS FOR INDUSTRIAL APPLICATIONS Vortec 8100s built for industrial use have new valve and valve seat material and new springs. Industrial engines typically operate at relatively low, steady rpm (1800-2000), creating different demands than the typical truck duty cycle. The valve seats in industrial Vortec 8100s have been metallurgically improved with induction hardening, and valve-spring tension has been reduced to soften valve interaction with the seats during low speed operation. Finally, industrial engines are now equipped with the same Silcrome 1 valves used in Vortec 8100s built for trucks. This material includes tungsten, vanadium, manganese and silicone, with higher chromium content than conventional iron valve alloy. The Silicrome 1 valves ensure long-term durability in industrial engines and increase efficiency at the engine plant by reducing inventory.
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2003 Suburban 2500 4x4
attempt at fixing the oil consumption issue with the 8.1L in the suburban the following three items have been completed today intake gasket (known issue GM used a crappy defective intake gasket) intake bolts (original bolts are known to bottom out and not allow to tighten all the way, I don't feel that is the case this time but its possible. Best to replace) oil cooler lines replaced (small minor leak but every and any leak is addressed) We'll have to see... GM says that its acceptable to burn 1qt of oil for every 1000 miles. Not sure why any oil consumption is acceptable. The only thing I haven't focused on that might need it is a sticking piston ring maybe.
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1963-64 Chevy Custom 4x4 Truck
Got the transfer case in and found the 2nd to last bolt won’t tighten because it looks like a JB weld repair was done probably because they put too long of a bolt in. also verified the old driveshaft works
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1963-64 Chevy Custom 4x4 Truck
GGot the transfer case / transmission adapter today from eBay and installed the new O-Ring rubber in the rear of the trans and slide the adapter on and tightened the four bolts holding it on the trans. the Transmission Cross Member I just paid too much money for, doesn’t work. Talking to Transtar Mike he mentioned the 700R4/NP241C is longer then the stock 350 or 400 trans with similar transfer case so the cross member won’t work. Sooo, going to Plan B which is attempt to use the newer cross member for the suburbans and trucks that had the 700R4 trans. looks good, just need to drill out a hole on either side. The rear hole on both sides lines up with existing holes but the front hole in the frame is too far away so I need to drill a hole closer to put the required 4 bolts in to hold the crossmember but as you see from the photo. It looks lined up. Truth will be when I tighten the trans mount and install transfer case and install driveshafts. i did have to cut the drivers side exhaust pipe to fit the support but it didn’t line up with the engine anyhow.
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1963-64 Chevy Custom 4x4 Truck
Got the transfer case / transmission adapter today from eBay and installed the new O-Ring rubber in the rear of the trans and slide the adapter on and tightened the four bolts holding it on the trans. the Transmission Cross Member I just paid too much money for, doesn’t work. Talking to Transtar Mike he mentioned the 700R4/NP241C is longer then the stock 350 or 400 trans with similar transfer case so the cross member won’t work. Sooo, going to Plan B which is attempt to use the newer cross member for the suburbans and trucks that had the 700R4 trans. looks good, just need to drill out a hole on either side. The rear hole on both sides lines up with existing holes but the front hole in the frame is too far away so I need to drill a hole closer to put the required 4 bolts in to hold the crossmember but as you see from the photo. It looks lined up. Truth will be when I tighten the trans mount and install transfer case and install driveshafts. i did have to cut the drivers side exhaust pipe to fit the support but it didn’t line up with the engine anyhow.
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1964 Chevy Truck (Light Olive Green)
Beautiful truck that I had to capture the photos for reference when I build my 1964
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From the album: 1964 Chevy Truck (Light Olive Green)
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From the album: 1964 Chevy Truck (Light Olive Green)
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From the album: 1964 Chevy Truck (Light Olive Green)