Please note: the results below are estimates based on current (limited) understanding of the impact process and come with large uncertainties; they should be used with caution, particularly in the case of peculiar input parameters. All values are given to three significant figures but this does not reflect the precision of the estimate. For more information about the uncertainty associated with our calculations and a full discussion of this program, please refer to this article

Your Inputs:
 Distance from Impact: 5.00 km ( = 3.11 miles )
 Projectile diameter: 2.00 km ( = 1.24 miles )
 Projectile Density: 1500 kg/m^{3}
 Impact Velocity: 17.00 km per second ( = 10.60 miles per second )
 Impact Angle: 45 degrees
 Target Density: 2500 kg/m^{3}
 Target Type: Sedimentary Rock

Energy:
 Energy before atmospheric entry: 9.08 x 10^{20} Joules = 2.17 x 10^{5} MegaTons TNT
 The average interval between impacts of this size somewhere on Earth during the last 4 billion years is 1.4 x 10^{6}years

Major Global Changes:
 The Earth is not strongly disturbed by the impact and loses negligible mass.
 The impact does not make a noticeable change in the tilt of Earth's axis (< 5 hundreths of a degree).
 The impact does not shift the Earth's orbit noticeably.

Crater Dimensions:
 What does this mean?
 Transient Crater Diameter:
14.4 km ( = 8.93 miles )
 Transient Crater Depth: 5.09 km ( = 3.16 miles )
 Final Crater Diameter:
20.5 km ( = 12.7 miles )
 Final Crater Depth: 734 meters ( = 2410 feet )
 The crater formed is a complex crater.
 The volume of the target melted or vaporized is 5.64 km^{3} = 1.35 miles^{3}
 Roughly half the melt remains in the crater, where its average thickness is 34.7 meters ( = 114 feet ).

Ejecta:
 What does this mean?
 Your position was inside the transient crater and ejected upon impact