IAB iron with rounded inclusions | is a kind of type IAB iron meteorite |  |
type IAB iron meteorite | has formation cooling rate 25 degrees C per million years |  |
parent body radius 33 kilometers |  |
has shape of inclusion |  |
has texture |  |
has mafic minerals includes olivine, orthopyroxene and clinopyroxene in % by volume |  |
has plagioclase % by volume |  |
has troilite % by volume |  |
has metal % by volume |  |
has W.P. % by volume |  |
has chr % by volume |  |
has daubreelite % by volume |  |
has schreibersite % by volume |  |
has graphite % by volume |  |
has cohenite % by volume |  |
has nickel content 6.4 % by weight |  |
has gallium content 96 microgram/gram |  |
has germanium content 400 microgram/gram |  |
has iridium content 2.7 microgram/gram |  |
has phosphor content 2.1 milligram/gram |  |
has chromium content 16 microgram/gram |  |
has cobalt content 4.6 milligram/gram |  |
has copper content 132 microgram/gram |  |
has molydbenum content 8.2 microgram/gram |  |
has tungsten content 1.6 microgram/gram |  |
has palladium content 3.5 microgram/gram |  |
has gold content 1.5 microgram/gram |  |
has arsenic content 11 microgram/gram |  |
has antimony content 270 nanogram/gram |  |
type IAB/IIICD iron meteorite | has origin impact melting |  |
has origin asteroid wide partial melting |  |
iron meteorite | has relative abundance 5.7 % of meteorite falls |  |
has total mass of finds 454624 kg |  |
has number of finds 532 |  |
has weather resistance high |  |
has fragmentation probability low because it is tougher than stony meteorite |  |
has ablative mass loss low because it has higher tensile strength than stony meteorite |  |
metal-rich meteorite | has metal content higher than that of average solar system material |  |
meteorite | has fall date recorded by eyewitness or inferred from dating methods |  |
has fall location strewn fields, elongated footprints which depends on impact angle, airbursts, and impact velocity |  |
has fall coordinates in degrees, minutes and seconds of lattitude and longitude |  |
has fall map which appears as an elongated footprint which depends on impact angle, airbursts, and impact velocity |  |
can have crater image |  |
has original mass which can over an order of magnitude greater than total mass of fragment(s) collected at the impact site |  |
has composition often minerals not found on Earth |  |
has impact velocity when it hits the ground which is smaller than its velocity before it enters the atmosphere |  |
has impact angle |  |
has monetary value large if the fall was witnessed |  |
has name based on the locale, region, or nearby town in which the fall occurred |  |
often produce power outages and failures in electrical equipment due to EMP (electromagnetic pulse) |  |
can be associated with crater |  |
vaporizes completely if size is between 3 micrometers and 3 millimeters |  |
can survive fall if size is larger than 3 mm and velocity is less than 24 km per second |  |
can survive fall if it fragments because smaller pieces with less mass are more easily slowed by the atmosphere |  |
can shatter during impact phase |  |
can fragment during meteor phase |  |
igneous rock | has composition silicates (with very few exceptions) |  |
has solidification mechanism |  |
has solidification timescale |  |
rock | has part mineral |  |
has genesis |  |