How Much Is A 1986 Toyota Pickup Worth

This truck was part of the first year that Toyota Pickups were supplied with independent front suspension in place of the live axle found on prior models. It is a 1986 model. This modification was made to enhance on-road handling, and it worked well enough to become a standard feature on four-wheel drive Toyota Pickups starting in 1986.

The fourth generation Pickup was available with a variety of engines, ranging from the 1.6 liter inline-four used in some rear-wheel drive variants to the 3.0 liter V6 utilized later in the model’s life.

The Toyota 22R-2.4-liter E’s gasoline engine, which has 105 horsepower, powers the vehicle.

The fuel-injected 22R-E, an inline-four cylinder engine with a chain-driven single overhead cam and two valves per cylinder, has always been one of the most well-liked models. With a sweeping volume of 2.4 liters (2,366cc), the 22R-E generates 136 lb ft of torque at 2,800 rpm and 105 horsepower at 4,800 rpm.

Rear wheels or front and rear wheels may receive power from an automatic transmission into a two speed transfer case.

This Pickup has attractive factory logos, a beige exterior, and a two-tone brown interior. The improvements include chromed Cragar wheels with BF Goodrich All Terrain tires, KC Daylighter lighting affixed to a chrome roll bar, and other period-appropriate additions.

It comes with a tool roll and instruction manuals and is sure to be popular at any Radwood event.

What Toyota pickup is the rarest?

Toyota Stout: The Firm’s Oldest Truck Was Only Offered in the United States for Five Years. In less than two minutes, find out if your auto insurance is being overcharged. Toyota Stout: The Firm’s Oldest Truck Was Only Offered in the United States for Five Years.

What’s a 1986 Toyota Supra worth?

The 1986 Toyota Supra is available in a variety of trim levels, with the base Hatchback Supra costing $2,400 and the top-of-the-line Hatchback Supra Sportsroof costing $5,390.

A Toyota 22R engine: what is it?

Aside from the pandemic, Toyota sold more than 9 million vehicles and trucks globally in 2017. The secret to this company’s success is its wide range of reasonably priced models and a list of qualities that, to use the industry abbreviation QRD, is headed by value and closely followed by quality, reliability, and durability. No other company has given QRD such a dazzling shine of polish. Tight panel gaps, no noise as the transmission shifts gears, and dependable service throughout many years of use are just a few of the seemingly little details that every owner notices when they take a closer look at a Toyota.

A book could be written to trace the history of Toyota’s perfect QRD, but the 20R four-cylinder engine, which debuted for the 1975 model year, is a well-known stopping point. Toyota manufactured 14 four-banger families in the 20th century, so the company is no stranger to inline-fours. Nine different displacements, ranging from 1.5 to 2.4 liters, were available for the R series, which was produced from 1953 until 1997.

Two significant improvements were added to Toyota’s 1858-cc 8R engine in 1968: a five-main-bearing crankshaft and a cam that was elevated from the block to the head. While three-main cranks save cost, weight, and friction, they lack the stiffness required for smooth operation in engines with more than 100 horsepower. With an overhead camshaft, the removal of pushrods reduces the mass of the valvetrain, allowing for higher rpm. It also makes room for straighter, more effective intake and exhaust ports. More torque and horsepower are produced by increasing the rpm and the flow-through.

The 1975 Toyota Corona, Celica, and Pickup vehicles were equipped with the 20R inline-four engine (the Hilux brand was replaced with Pickup for the ’75 model year). The displacement was increased to 2190 cc by a 9-millimeter stroke increase over the immediately preceding 18R’s 80-millimeter stroke. The distributor was moved, and other technological advances addressed the most pressing problems of the mid-1970s: reduced exhaust pollutants and better gas mileage.

The new cast-aluminum cylinder head had a crossflow arrangement, with fuel, air, and exhaust coming out of the opposite side. This allowed for effective airflow and ensured that the intake charge’s density wouldn’t be lowered by exhaust heat. Larger valve sizes could fit in the spherically domed combustion chambers, which also made it possible to place the spark plugs close to the center of the cylinder to reduce the length of the flame’s path during combustion.

The crankshaft and cylinder head were firmly supported by the deep skirts on the cast-iron cylinder block of the 20R. Extra-durable five main bearing caps were used, and a strong double-row timing chain powered the overhead cam. The crankshaft and connecting rods were fashioned of forged steel rather than the more usual cast iron in the interest of longevity. The head and cam drive covers were neat aluminum castings to reduce weight.

Quick starts and longer miles between tune-ups were guaranteed by a new transistorized ignition system, which was then quickly becoming the norm in the industry. With an electric fuel pump, vapor lock in hot conditions was less likely to occur. By allowing the unburned gasoline that was leaving the cylinders to continue burning, adding more air to the exhaust manifold reduced pollutants. The air-injection plumbing was clean, to reduce weight and clutter. The 20R’s two-barrel carburetor’s choke mechanism was heated by engine coolant rather than exhaust gas for smoother functioning. After a cold start, heat from the exhaust manifold warmed the intake air. In traffic, a big seven-blade fan with a temperature-sensitive viscous drive pulled plenty of air through the radiator when travelling, reducing power loss. In 1975, these methods helped Toyota meet its high requirements for driving poise, even though they appear archaic in comparison to today’s era of electronic controls.

The development work Toyota put into the 20R engines using the tedious trial-and-error process required prior to the invention of computer-aided engine design is less obvious. On experimental engines, thousands of durability test miles were completed. All conceivable driving situations were tested in hot, cold, and high-altitude conditions. Hours of nonstop operation in dyno cells validated the theory, and fine-tuning reduced the requirement for oil additives and valve-lash adjustments in between changes. The four-vibrations cylinder’s were reduced by calibrating the engine mounts. The design was then given to Toyota’s renowned lean, just-in-time production system, which employed the Japanese idea of kaizen, or continuous improvement, to refine the manufacturing precision to a degree that has not yet been attained in the auto industry. Assembly workers in a Toyota facility could stop the line when a flaw was found, a signboard called a andon lighting up to warn the plant of the station having the problem, unlike in American plants where output rate was king. Thus, a quality-obsessed approach that would eventually be imitated globally enabled problems to be discovered and corrected considerably earlier.

Toyota’s 20R had a bore and stroke combination of 3.48 inches (88.5 millimeters) and 3.50 inches (89.0 millimeters), producing 133.6 cubic inches, or 2190 cc, in production form. In 49-state applications, peak output ranged from 97 horsepower at 4800 rpm to 90 horsepower with California pollution regulations, which included a catalytic converter. At 2400 to 2800 rpm, the maximum torque varied between 119 and 122 lb-ft. The 20R provided dependable service while powering American Coronas, Celicas, and Pickups for six model years. In comparison to a Dodge Colt GT and a Ford Capri II S, a 1976 Celica GT tested by Car and Driver ran the 060 in 9.6 seconds, completed the quarter-mile in 17.6 seconds at 77 mph, and had a top speed of 102 mph. The combined mpg for the city and highway was in the mid-20s. While critic Ted West bemoaned the sluggish throttle response and rubbery driveline of his test Celica, he was moved by the significance of Toyota’s loving homage to the Mustang.

The 20R’s renown for dependability and little maintenance needs helped Toyota surpass Datsun to overtake it as the leading importer in the United States. Many completed additional jobs after their original vehicles were declared totaled and sent to the salvage yard.

The 22R engine, which replaced the 20R, had a bigger 92-millimeter bore that increased displacement to 144 cubic inches, or 2366 cc, and increased output to a maximum 135 horsepower. During its 19811997 lifespan, this version had both turbocharging and electronic fuel injection. Generations of Toyota cars, especially Toyota trucks, gained greater resale values than their rivals thanks to the R series, which also gave Toyotas an unbeatable reputation for quality. Of all the vehicles tracked by Hagerty, first-generation Toyota 4Runners from the 1980s had some of the fastest increasing values.

A similar tale comes from George Nodarse of Escondido, California: In his 1985 Toyota 1-Ton Pickup, powered by a 22RE with fuel injection, he logged more than 370,000 kilometers, or approximately 15 Earth orbits. For use in his bespoke cabinet business, Nodarse purchased the vehicle in 1986. A dualie rear axle was fitted by a local upfitter, who also replaced the stock bed with a stake bed. Tanner, Nodarse’s son, recently started restoring nuts and bolts. After finishing, George and Tanner intend to exhibit their creations at the All Toyotafest show, which takes place yearly in Long Beach, California.

It was an unusual Toyota error to change the 20R’s double-row cam drive chain to a less robust single-row configuration. Nevertheless, the 22R was crucial to the outcome of the 19831987 war between Chad and Libya, also known as the Toyota War since both sides relied on Toyota Hiluxes for transportation. These trucks each had 400 anti-tank guided missiles mounted on them. The oft-quoted “bulletproof homage” is appropriate here.

Is the Toyota 22R a reliable motor?

I owned three trucks with both the 22R and RE engines, and I never had an issue. They are without a doubt the most dependable engines Toyota has ever produced. They were all well over 200,000 kilometers old. My 92 had more than 350,000 miles on it before I sold it. The only change I made was to the back end by adding 4.56 gears.

Toyota stopped utilizing the 22R engine when?

The initial output was 174 Nm (128 lbft) at 2,800 rpm and 72 kW (97 horsepower; 98 PS) at 4,800 rpm.

By 1990, the 22R was producing 187 Nm (138 lbft) at 3,400 rpm and 81 kW (109 horsepower; 110 PS) at 5,000 rpm.

These engines typically have output ratings of 185 Nm (136 lbft) at 2,800 rpm and 78 kW (105 horsepower; 106 PS) at 4,800 rpm.

After undergoing considerable reworking in 1985, the engine’s power reached 84 kW (113 hp; 114 PS) at 4,800 rpm and 190 Nm (140 lbft) at 3,600 rpm. Many components from the more recent 22R/R-E engine are incompatible with the older pre-1985 engine. The cylinder head, block, pistons, and numerous more components including the timing chain and cover, as well as water and oil pumps, are examples of the parts that are incompatible (although the oil pump internals are the same).

Since the 22R was likewise impacted by these changes, one might think of the 8595 22R-E as a fuel-injected variant of the 8590 22R with few, if any, significant variations.

Toyota switched to a single-row timing chain with plastic guides in 1983, replacing the dual-row timing chain used in previous engines. The new technique decreased engine drag but created a new upkeep issue. The chain may extend to the point that the hydraulically powered chain tensioner can no longer pick up the slack after operating for approximately 100,000 miles (160,934 km) of chain. When the timing chain strikes the plastic driver’s side chain guide, it quickly breaks and emits an audible chattering sound from the front of the engine, especially when the engine is cold. The chain will shake significantly on the driver’s side and quickly extend if the engine is run without the guiding restraint. Any of various failure mechanisms can be the outcome.

First, a slack chain will lessen ignition timing precision, which typically results in performance that is notably harsh. Second, it can completely break or leap a tooth on the drive sprocket, which almost always causes major harm to an interference engine. Third, severe harm to the cooling and oil systems may result from the stretched chain slapping against the timing cover’s side and wearing through the metal into the coolant tube beneath the water pump (sometimes mis-diagnosed as a head gasket failure). After such an incident, the damaged aluminum timing cover is usually replaced because it is difficult to repair properly. Once the first chain stretching has taken place, aftermarket timing-chain kits for the 22R/R-E often incorporate steel-backed guides that do not easily break, allowing the chain to operate safely past the 100,000 mile (160,934 km) barrier. Nevertheless, some Toyota specialists would advise against using plastic guides since they will crack when the timing chain is stretched. When the guides crack, the timing chain makes a perceptible chattering noise as it slaps against the cover, alerting the driver to a worn timing chain.

The 22R-TE turbocharged (sold from late 1985 to 1988) produced 234 Nm (173 lbft) at 2,800 rpm and 101 kW (135 horsepower; 137 PS) at 4,800 rpm.

These engines are renowned for their long lifespans, respectable fuel efficiency, and strong low to midrange torque.

High-end power is its weakness, though. The 22R features a sizable displacement and a sturdy block, but its employment in high revving applications is constrained by its relatively lengthy stroke and constrictive head. Toyota’s 4-cylinder 18R-G, 2T-G, 4A-GE, and 3S-GE engines are therefore better suited for performance applications.

Using a 20R head on an early 22R is a common alteration. The 20R head does not, contrary to popular belief, have smaller combustion chambers. The error started when the 22R was released; one of its benefits was a better compression ratio, therefore when a 20R block was replaced with a 22R, the compression level increased. Since the 20R head’s ports are straight, it can flow more effectively than the 22R head, enhancing high RPM power. The 20R head is a straightforward bolt-on upgrade for pre-1985 blocks, but it also needs the 20R intake manifold, making it nearly hard to use with the 22R-E EFI system (a lot of matching is required). [21] It is necessary to make additional adjustments for blocks 1985 and later. [22]

The Toyota truck in Back to the Future is from what year?

The overpowering sensation of longing that seized them when they first saw the gloss black 1985 Toyota SR5 Pickup Truck appear on television is something that every child (and I’m sure many adults) who watched Back To The Future in the 1980s remembers.

This 1985 Toyota SR5 was constructed to look exactly like the one used in the second and third movies, down to the license plate.

There is no ignoring the fact that the truck’s inclusion in the BTTF movies contributed to its transformation from a workhorse for craftsmen to an object of desire, not just in the US but all around the world.

Sadly, it is thought that the raffle winner of the truck used in the first movie crashed it after the movie was finished. The vehicle featured in the following two movies was then acquired and built to practically exact specifications as the first one.

Nobody could have imagined that the second Marty McFly truck would eventually be painted bright orange and sold for close to nothing on Craigslist in California, or that it would eventually be used by smugglers to transport drugs between the United States and Mexico.

Fortunately, the truck was found together with its original paperwork and was meticulously repaired to match how it appeared on screen.

You can start the 30 minute documentary below if you’re interested in learning more about its fascinating history.

Above Video: In this 30-minute documentary, the repair of the actual Toyota SR5 from “Back to the Future” that was utilized onscreen is covered.