Javascript must be enabled to continue!
Deep Structure of the Noril’sk Region and Distribution of the Ore Formations
View through CrossRef
Abstract
The northern part of the Siberian platform and the Taimyr epi-platformal fold system, which are separated by the Yeneseisko-Khatangsky Rift, belong to the Precambrian North Asian superplatform [106]. The major metallogenic features are deposits of the North Siberian nickel-bearing area. The mineralization of the Noril’sk region, which is attributed to evolution of a mantle picritoidal melt, is a unique phenomenon, which has no analogues within the region. The ultramafic/mafic products of the nickel-bearing magmatism of the Noril’sk region are closely associated with trap and later magmatism which is spatially and genetically connected with various deposits that are associated with specific magmatic complexes.
The present interpretation of the deep structure, evolution of magmatism and endogenic ore formation of the region is based on results of recent complex geological and geophysical [1, 15, 22, 45, 109, 1l7, 128, 138] and metallogenic [20, 33, 37, 60, 85, 106, 135] studies.
The northern part of the Siberian platform, as well as the Southern Taimyr fold belt, being the relict constituent elements of the northern Asian craton, have developed as a result of multiple, but mainly late Hercynian, autonomous activity, as seen in the intense rifting. The North Asian craton extended from the Ural belt to Verkhoyanya, and from the Northzemelsky archipelago up to the Sayan (mountains). In Archean and Early Proterozoic times this vast terrain was a fold-belt which was later split by aulacogenes into huge blocks that developed during the Riphean and Paleozoic as a unique, gigantic structure. The trap field of
Society of Economic Geologists
Title: Deep Structure of the Noril’sk Region and Distribution of the Ore Formations
Description:
Abstract
The northern part of the Siberian platform and the Taimyr epi-platformal fold system, which are separated by the Yeneseisko-Khatangsky Rift, belong to the Precambrian North Asian superplatform [106].
The major metallogenic features are deposits of the North Siberian nickel-bearing area.
The mineralization of the Noril’sk region, which is attributed to evolution of a mantle picritoidal melt, is a unique phenomenon, which has no analogues within the region.
The ultramafic/mafic products of the nickel-bearing magmatism of the Noril’sk region are closely associated with trap and later magmatism which is spatially and genetically connected with various deposits that are associated with specific magmatic complexes.
The present interpretation of the deep structure, evolution of magmatism and endogenic ore formation of the region is based on results of recent complex geological and geophysical [1, 15, 22, 45, 109, 1l7, 128, 138] and metallogenic [20, 33, 37, 60, 85, 106, 135] studies.
The northern part of the Siberian platform, as well as the Southern Taimyr fold belt, being the relict constituent elements of the northern Asian craton, have developed as a result of multiple, but mainly late Hercynian, autonomous activity, as seen in the intense rifting.
The North Asian craton extended from the Ural belt to Verkhoyanya, and from the Northzemelsky archipelago up to the Sayan (mountains).
In Archean and Early Proterozoic times this vast terrain was a fold-belt which was later split by aulacogenes into huge blocks that developed during the Riphean and Paleozoic as a unique, gigantic structure.
The trap field of.
Related Results
Copper-Nickel Sulfide Ore-Bearing Formations
Copper-Nickel Sulfide Ore-Bearing Formations
Abstract
The sulfide copper-nickel deposits of the Noril’sk region (Noril’sk I, Talnakh, Octyabrskaya) were formed during the late Paleozoic to early Mesozoic episod...
Geological Outline of the Noril’sk Region
Geological Outline of the Noril’sk Region
Abstract
Present studies of the Noril’sk ore-bearing region permit one to re-evaluate its geological setting, the deep structure and the unique characteristics of th...
Magnesian-Magnetite Ore Formation
Magnesian-Magnetite Ore Formation
Abstract
Iron mineralization is widely developed within the Angaro-Vilujsky ore belt [2]. In the Noril’sk region, it is found along the western border of the Tunguss...
Porphyry Copper Ore Formation
Porphyry Copper Ore Formation
Abstract
Porphyry copper mineralization in the Noril’sk region is an unusual example of the occurrence of this ore type within an ancient platform. Such a spatial se...
Proizvodnja željeza u kasnoj antici i ranome srednjem vijeku u Podravini – tehnološki aspekti i društveni kontekst
Proizvodnja željeza u kasnoj antici i ranome srednjem vijeku u Podravini – tehnološki aspekti i društveni kontekst
Previous archaeological investigations in present-day Gornja Podravina have created prerequisites for the study of the wider context of iron production in the period of Late Antiqu...
Main Mineralization Mechanism of Magmatic Sulphide Deposits in China
Main Mineralization Mechanism of Magmatic Sulphide Deposits in China
AbstractBefore intruding, primary magmas have undergone liquation and partial crystallization at depth; as a result the magmas are partitioned into barren magma, ore–bearing magma,...
Ore‐Bearing Formations of the Precambrian in South China and Their Prospects
Ore‐Bearing Formations of the Precambrian in South China and Their Prospects
Abstract In the Precambrian System of the Yangtze and Cathaysian plates six ore‐bearing formations can be identified: the Cu‐Pb‐Zn‐bearing formations in volcanic rocks of marine f...
Geology and Metallogeny of Sulfide Deposits Noril’sk Region U.S.S.R.
Geology and Metallogeny of Sulfide Deposits Noril’sk Region U.S.S.R.
The Noril’sk volume is a valuable contribution to the economic geology profession. The translation which is a very literal one from the Russian original, has been ‘donated’ to the ...

