The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
The Chelyabinsk meteorite fell on February 15, 2013 in Russia.
With a diameter of around 17 metres, the bolide fragmented in the atmosphere. The energy released by this phenomenon is equivalent to 30 times the Hiroshima bomb, creating enormous damage.
More than 1,000 people were injured as a result. Indeed, since light travels much faster (300,000 km/s) than sound (340m/s), people stood behind their windows to observe the light phenomenon, only for the shockwave to arrive a minute later, shattering hundreds of panes of glass and partially damaging a factory, causing many injuries from broken glass.
NWA 14425is an enstatite chondrite meteorite, classified EH3.
This metal-rich meteorite is hard to find on the market.
Writeup from MB 111 :
Northwest Africa 14425 (NWA 14425)
(Northwest Africa)
Purchased: 2021 Feb
Classification: Enstatite chondrite (EH3)
History: Purchased by Jason Whitcomb in February 2021 from an Algerian dealer.
Petrography: (A. Irving, UWS and J. Boesenberg, BrownU) Mostly relatively small enstatite-forsterite-bearing chondrules (exhibiting a wide size variation, apparent diameter 380±410 µm, N = 24) are set in a fine grained matrix containing daubreelite, troilite, altered Si-bearing kamacite, perryite, schreibersite, oldhamite and albitic glass. Several chondrules contain relatively ferroan low-Ca pyroxene.
Geochemistry: Enstatite (Fs1.3±0.9Wo0.4±0.3, range Fs0.3-4.1Wo0.0-1.0, N = 19), forsterite (Fa0.3±0.1, range Fa0.3-0.4, N = 3), relatively ferroan low-Ca pyroxene (Fs13.4±3.8Wo3.0±1.1, range Fs11.4-19.1Wo4.2-1.9, N = 4).
Classification: Enstatite chondrite (EH3). The presence of relatively ferroan low-Ca pyroxene in addition to the dominant enstatite has been previously documented in EH3 chondrite Yamato 691.
Specimens: 24.83 g including one polished thin section at PSF; remainder with Mr. J. Whitcomb.
NWA 14425is an enstatite chondrite meteorite, classified EH3.
This metal-rich meteorite is hard to find on the market.
Writeup from MB 111 :
Northwest Africa 14425 (NWA 14425)
(Northwest Africa)
Purchased: 2021 Feb
Classification: Enstatite chondrite (EH3)
History: Purchased by Jason Whitcomb in February 2021 from an Algerian dealer.
Petrography: (A. Irving, UWS and J. Boesenberg, BrownU) Mostly relatively small enstatite-forsterite-bearing chondrules (exhibiting a wide size variation, apparent diameter 380±410 µm, N = 24) are set in a fine grained matrix containing daubreelite, troilite, altered Si-bearing kamacite, perryite, schreibersite, oldhamite and albitic glass. Several chondrules contain relatively ferroan low-Ca pyroxene.
Geochemistry: Enstatite (Fs1.3±0.9Wo0.4±0.3, range Fs0.3-4.1Wo0.0-1.0, N = 19), forsterite (Fa0.3±0.1, range Fa0.3-0.4, N = 3), relatively ferroan low-Ca pyroxene (Fs13.4±3.8Wo3.0±1.1, range Fs11.4-19.1Wo4.2-1.9, N = 4).
Classification: Enstatite chondrite (EH3). The presence of relatively ferroan low-Ca pyroxene in addition to the dominant enstatite has been previously documented in EH3 chondrite Yamato 691.
Specimens: 24.83 g including one polished thin section at PSF; remainder with Mr. J. Whitcomb.
NWA 14425is an enstatite chondrite meteorite, classified EH3.
This metal-rich meteorite is hard to find on the market.
Writeup from MB 111 :
Northwest Africa 14425 (NWA 14425)
(Northwest Africa)
Purchased: 2021 Feb
Classification: Enstatite chondrite (EH3)
History: Purchased by Jason Whitcomb in February 2021 from an Algerian dealer.
Petrography: (A. Irving, UWS and J. Boesenberg, BrownU) Mostly relatively small enstatite-forsterite-bearing chondrules (exhibiting a wide size variation, apparent diameter 380±410 µm, N = 24) are set in a fine grained matrix containing daubreelite, troilite, altered Si-bearing kamacite, perryite, schreibersite, oldhamite and albitic glass. Several chondrules contain relatively ferroan low-Ca pyroxene.
Geochemistry: Enstatite (Fs1.3±0.9Wo0.4±0.3, range Fs0.3-4.1Wo0.0-1.0, N = 19), forsterite (Fa0.3±0.1, range Fa0.3-0.4, N = 3), relatively ferroan low-Ca pyroxene (Fs13.4±3.8Wo3.0±1.1, range Fs11.4-19.1Wo4.2-1.9, N = 4).
Classification: Enstatite chondrite (EH3). The presence of relatively ferroan low-Ca pyroxene in addition to the dominant enstatite has been previously documented in EH3 chondrite Yamato 691.
Specimens: 24.83 g including one polished thin section at PSF; remainder with Mr. J. Whitcomb.
NWA 14425is an enstatite chondrite meteorite, classified EH3.
This metal-rich meteorite is hard to find on the market.
Writeup from MB 111 :
Northwest Africa 14425 (NWA 14425)
(Northwest Africa)
Purchased: 2021 Feb
Classification: Enstatite chondrite (EH3)
History: Purchased by Jason Whitcomb in February 2021 from an Algerian dealer.
Petrography: (A. Irving, UWS and J. Boesenberg, BrownU) Mostly relatively small enstatite-forsterite-bearing chondrules (exhibiting a wide size variation, apparent diameter 380±410 µm, N = 24) are set in a fine grained matrix containing daubreelite, troilite, altered Si-bearing kamacite, perryite, schreibersite, oldhamite and albitic glass. Several chondrules contain relatively ferroan low-Ca pyroxene.
Geochemistry: Enstatite (Fs1.3±0.9Wo0.4±0.3, range Fs0.3-4.1Wo0.0-1.0, N = 19), forsterite (Fa0.3±0.1, range Fa0.3-0.4, N = 3), relatively ferroan low-Ca pyroxene (Fs13.4±3.8Wo3.0±1.1, range Fs11.4-19.1Wo4.2-1.9, N = 4).
Classification: Enstatite chondrite (EH3). The presence of relatively ferroan low-Ca pyroxene in addition to the dominant enstatite has been previously documented in EH3 chondrite Yamato 691.
Specimens: 24.83 g including one polished thin section at PSF; remainder with Mr. J. Whitcomb.
NWA 14425is an enstatite chondrite meteorite, classified EH3.
This metal-rich meteorite is hard to find on the market.
Writeup from MB 111 :
Northwest Africa 14425 (NWA 14425)
(Northwest Africa)
Purchased: 2021 Feb
Classification: Enstatite chondrite (EH3)
History: Purchased by Jason Whitcomb in February 2021 from an Algerian dealer.
Petrography: (A. Irving, UWS and J. Boesenberg, BrownU) Mostly relatively small enstatite-forsterite-bearing chondrules (exhibiting a wide size variation, apparent diameter 380±410 µm, N = 24) are set in a fine grained matrix containing daubreelite, troilite, altered Si-bearing kamacite, perryite, schreibersite, oldhamite and albitic glass. Several chondrules contain relatively ferroan low-Ca pyroxene.
Geochemistry: Enstatite (Fs1.3±0.9Wo0.4±0.3, range Fs0.3-4.1Wo0.0-1.0, N = 19), forsterite (Fa0.3±0.1, range Fa0.3-0.4, N = 3), relatively ferroan low-Ca pyroxene (Fs13.4±3.8Wo3.0±1.1, range Fs11.4-19.1Wo4.2-1.9, N = 4).
Classification: Enstatite chondrite (EH3). The presence of relatively ferroan low-Ca pyroxene in addition to the dominant enstatite has been previously documented in EH3 chondrite Yamato 691.
Specimens: 24.83 g including one polished thin section at PSF; remainder with Mr. J. Whitcomb.
