Acceleration metrics for the 2016 Ford Explorer provide a window into the vehicle’s dynamic capabilities, particularly the 0 to 60 mph sprint, which is a standard benchmark for performance in the three-row SUV segment. This specific measurement reveals how the available powertrains translate engineering specifications into real-world driving experiences, impacting everything from highway merging to overall confidence behind the wheel.
Available Powertrains and Engine Options
The 2016 model year offered a range of engines to suit different needs, directly influencing the 0 to 60 time. Buyers could choose between a capable V6 and a more fuel-efficient four-cylinder, each paired with either a traditional automatic transmission or a six-speed automatic with paddle shifters. Understanding the specific configuration is essential, as the 3.5-liter EcoBoost V6 delivered significantly different performance figures compared to the base 2.3-liter inline-four.
3.5-Liter EcoBoost V6 Performance
For those prioritizing responsiveness, the 3.5-liter EcoBoost V6 was the top-tier option, producing 365 horsepower and 350 lb-ft of torque. This powerplant enabled the 2016 Ford Explorer to achieve a 0 to 60 mph time in the low 6-second range, making it one of the quicker SUVs available. The combination of the twin-turbocharged engine and advanced all-wheel-drive system provided robust acceleration and confident handling under various conditions.
2.3-Liter EcoBoost I4 Efficiency
Drivers who prioritized fuel economy and daily usability often opted for the 2.3-liter EcoBoost four-cylinder, which produced 270 horsepower. While the focus here was efficiency and practicality, the 0 to 60 time for this configuration typically landed in the mid to upper 7-second range. This performance level was considered adequate for merging and passing, aligning with the expectations of the average family driver.
Real-World Factors Affecting Acceleration
While manufacturer specifications offer a baseline, the real-world 0 to 60 performance of the 2016 Explorer could vary based on several conditions. Factors such as tire pressure, road surface texture, ambient temperature, and battery health all play a role in the final measurement. A test conducted on a warm day with new tires would likely yield different results than the same test in winter conditions.
Weight Distribution and Drivetrain Impact
The Explorer's substantial curb weight, largely due to its steel construction and three-row seating, inevitably affects acceleration. The additional mass requires more power to overcome inertia, which is why the V6 model performs noticeably better than the four-cylinder variant. Furthermore, the system of power distribution between the front and rear wheels, particularly in AWD models, influences traction and, consequently, the efficiency of the power delivery during a hard launch.
