Александров И.А. Метаморфические породы амфиболитовой фации Джугджуро-Становой складчатой области (условия образования и состав протолитов)
Подождите немного. Документ загружается.
70. Avchenko O.V., Lavrik S.N., Alexandrov I.A. & Velivetskaya T.A. The
isotopic heterogeneity of carbon in metamorphic complexes // Proceedings of the
Eleventh International Symposium on Water-Rock Interaction WRI-11, Saratoga
Springs, New York, USA, 27 June – 2 July 2004. P. 243-246.
71. Bhattacharya A., Krishnakumar K.R., Raith M. & Sen S.K. An Improved
Set of a-X Parameters for Fe-Mg-Ca Garnets and Refinements of the Orthopyrox-
ene-Garnet Thermometer and the Orthopyroxene–Garnet–Plagioclase–Quartz
Barometer // Journal of Petrology, 1991. V. 32. P. 629-656.
72. Bhattacharya A., Mohanty L., Maji A., Sen S.K., Raith M. Non-Ideal mix-
ing in the phlogopite-annite binary: constraints from experimental data on Mg-Fe
partioning and a reformulation of the biotite-garnet geothermometer // Contribution
to Mineralogy and Petrology, 1992. V. 111. P. 87-93.
73. Blundy J.D, Holland T.J.B. Calcic amphibole equilibria and a new amphi-
bole-plagioclase geothermometer // Contributions to Mineralogy and Petrology,
1990. V. 104. P. 208-224.
74. Condie K.C. Continental growth during a 1.9-Ga superplume event // Jour-
nal of Geodynamics, 2002. V. 34. P. 249-264.
75. Condie K.C. Episodic continental growth models: afterthoughts and ex-
tensions // Tectonophysics, 2000. V. 322. P. 153-162.
76. Corrigan D., Pehrsson S., Wodicka N. and de Kemp E. The Palaeoprotero-
zoic Trans-Hudson Orogen: a prototype of modern accretionary processes // Geo-
logical Society, London, Special Publications, 2009. V. 327. p. 457-479.
77. Crawford A.J., Falloon T.J., Green D.H. Classification, petrogenesis and
tectonic setting of boninites // A.J. Crawford (Ed.). Boninites and Related Rocks.
Unwyn Hyman. London, 1989. P. 1-49.
78. Danyushevsky L.V., Sobolev A.V., Falloon T.J. North Tongan high-Ca
boninite petrogenesis: the role of Samoan plume and subduction zone-transform
fault transition // Journal of Geodynamics, 1995. V. 20. P. 219–241.
79. Darken L.S. Thermodynamics of binary metallic solutions // Trans. M.
Metal. Soc. AIME, 1967. V. 239. №1. P. 90-96.
80. De La Roche H., Leterrier J., Grandclaude P. & Marchal M. A classification
of volcanic and plutonic rocks using R1R2-diagram and major element analyses –
its relationships with current nomenclature // Chemical Geology, 1980. V. 29.
P. 183-210.
81. Eckert J.O., Newton R.C. and Kleppa O.J. The ΔH of reaction and recali-
bration of garnet-pyroxene-plagioclase-quartz geobarometers in CMAS system by
solution calorimetry // American Mineralogist, 1991. V. 76. P. 148-160.
82. Eugster H.P., Albee A.L., Bence A.E., Thompson J.B., Waldbaum D.R. The
two-phase region and excess mixing properties of paragonite-muscovite crystalline
solutions // Journal of Petrology, 1972. V. 13. №1. P. 147-179.
83. Ferry J.M. P, T, f
CO
2
и f
H
2
O
during metamorphism of calcareous sediments
in the Waterville-Vasslboro area, southcentral Maine // Contributions to Mineralogy
and Petrology, 1976. V. 57. №2. P. 119-145.
168 Список литературы
84. Franz G. & Selverstone J. An empirical phase diagram for the clinozoisite–
zoisite transformation in the system Ca
2
Al
3
Si
2
O
12
(OH) – Ca
2
Al
2
Fe
3+
Si
3
O
12
(OH) //
American Mineralogist, 1992. V. 77. P. 631-642.
85. Frost B.R., Avchenko O. V., Chamberlain K.R., Frost C. D. Evidence for
Proterozoic remobilization of the Aldan shield and implications for Proterozoic
plate tectonic reconstructions of Siberia and Laurentia // Precambrian Research,
1998. V. 89. P. 1-23.
86. Graham C. M. & Powell R. A garnet-hornblende geothermometer: calibra-
tion, testing and application to the Pelona Schist, Southern California // Journal of
Metamorphic Geology, 1984. V. 2. P.13-31.
87. Greenwood H.J. Buffering of pore fluids by metamorphic reactions //
American Journal of Science, 1975. V. 275. P. 573-593.
88. Hackler R.T., Wood B.J. Experimental determination of Fe and Mg ex-
change between garnet and olivine and estimation of Fe-Mg mixing properties in
garnet // American Mineralogy, 1989. V. 74. P. 994-999.
89. Hartlaub R. P., Heaman L. M., Ashton K. E., Chacko T. The Archean Mur-
mac Bay Group: Evidence For A Giant Archean Rift In The Rae Province, Canada //
Precambrian Research, 2004. V. 131. P. 345-372.
90. Holdaway M.J. Application of new experimental and garnet Margules data
to the garnet-biotite geothermometer // American Mineralogist, 2000. V. 85.
P. 881-892.
91. Holdaway M. J. Recalibration of the GASP geobarometer in light of recent
garnet and plagioclase activity models and versions of the garnet–biotite geother-
mometer // American Mineralogist, 2001. V. 86. P. 1117-1129.
92. Holland T., Blundy J. Non-ideal interactions in calcic amphiboles and their
bearing on amphibole-plagioclase thermometry // Contributions to Mineralogy and
Petrology, 1994. V. 116. P. 433-447.
93. Holland T.J.B., Powell R. An internally consistent thermodynamic data set
for phases of petrological interest // Journal of Metamorphic Geology, 1998.V. 16.
P. 309-343.
94. Holland T.J.B., Powell R. Plagioclase feldspars: activity-composition re-
lations based upon Darken’s Quadratic Formalism and Landau theory // American
Mineralogist, 1992. V. 77. P. 53-61.
95. Hollings P. Archean Nb-enriched basalts in the northern Superior
Province // Lithos, 2002. V. 64. P. 1-14.
96. Hollings P., Wyman D.A., Kerrich R. Komatiite-basalt-rhyolite volcanic
associations in Northern Superior Province greenstone belts: significance of plume–
arc interaction in the generation of the proto-continental Superior Province //
Lithos, 1999. V. 46. P. 137-161.
97. Irvine T.N. & Baragar W.R.A. A guide to the chemical classification of the
common volcanic rocks // Canadian Journal of Earth Sciences, 1971. V. 8. P. 523-548.
169
98. Janoušek V., Farrow C. M. & Erban V. Interpretation of whole-rock geo-
chemical data in igneous geochemistry: introducing Geochemical Data Toolkit
(GCDkit) // Journal of Petrology, 2006. V 47. P. 1255-1259.
99. Jensen L.S. A new cation plot for classifying subalcalic volcanic rocks //
Ontario Div. Mines. Misc. Pap., 1976. 66 p.
100. Kerrich R., Polat A., Wyman D., Hollings P. Trace element systematics
of Mg-, to Fe-tholeiitic basalt suites of the Superior Province: implications for
Archean mantle reservoirs and greenstone belt genesis // Lithos, 1999a. V 46.
P. 163-187.
101. Kerrich R., Wyman D. A., Fan J., Bleeker W. Boninite series: low Ti-
tholeiite associations from the 2.7 Ga Abitibi greenstone belt // Earth Planetary Sci-
ence Letters, 1998. V. 164. P. 303-316.
102. Kerrich R., Wyman D., Hollings P., Polat A. Variability of Nb/U and
Th/La in 3.0 to 2.7 Ga Superior Province ocean plateau basalts: implications for
the timing of continental growth and lithosphere recycling // Earth Planetary Sci-
ence Letters, 1999b. V. 168. P. 101-115.
103. Kohn M.J. & Spear F.S. Two new geobarometers for garnet amphibolites,
with applications to southeastern Vermont // American Mineralogist, 1990. V. 75.
P. 89-96.
104. Laird J. & Albee A.L. Pressure, temperature, and time indicators in mafic
schist: their application to reconstructing the polymetamorphic history of Vermont //
American Journal of Science, 1981. V. 281. P. 127-175.
105. Lal R.K. Internally consistent recalibrations of mineral equilibria for ge-
othermobarometry involving garnet–orthopyroxene–plagioclase–quartz assem-
blages and their application to the South Indian granulites // Journal of
Metamorphic Geology, 1993. V. 11. P. 855-866.
106. Le Bas M.J. IUGS Reclassification of the High-Mg and Picritic Volcanic
Rocks // Journal Petrology, 2000. V. 41. P. 1467-1470.
107. Leake B.E., Woolley A.R., Arps C.E.S, et al. Nomenclature of Amphi-
boles: Report of the Subcommittee on Amphiboles of the International Mineralog-
ical Association, Commission on New Minerals and Mineral Names // The
Canadian Mineralogist, 1997. V. 35. P. 219-246.
108. Manikyamba C., Naqvi S.M., Subba Rao D.V., Mohan M.R.,
Khanna T.C., Rao T.G., Reddy G.L.N. Boninites from the Neoarchaean Gadwal
Greenstone belt, Eastern Dharwar Craton, India: implications for Archaean sub-
duction processes // Earth and Planetary Science Letters, 2005. V. 230. P. 65-83.
109. Massonne H.J. & Schreyer W. Phengite geobarometry based on the lim-
iting assemblage with K-feldspar, phlogopite, and quartz // Contributions to Min-
eralogy and Petrology, 1987. V. 96. P. 212-224.
110. McDonald G.A. & Katsura T. Chemical composition of Hawaiian lavas //
Journal of Petrology, 1964. V. 5. P. 83-133.
111. McDonough W.F. & Sun S.-S. The composition of the Earth // Chemical
geology, 1995. V. 120. P. 223-253.
170 Список литературы
112. Middlemost E.A.K. Naming materials in the magma/igneous rock sys-
tem // Earth Science Review? 1994. V. 37. P. 215-224.
113. Newton R.C. Fluids of Granulite Facies Metamorphism // Fluid-Rock In-
teraction during Metamorphism, 1986. Springer-Verlag. 218 p.
114. Nutman A.P., Chernyshev I.V., Baadsgaard H., Smelov A.P. The Aldan
Shield of Siberia, USSR: the age of its Archean components and evidence for wide-
spread reworking in the mid-Proterozoic // Precambrian Research, 1992. V. 54.
P. 195-210.
115. Polat A., Appel P.W.U., Frei R., Pan Y., Dilek Y., Ordonez-Calderon J.C.,
Fryer B., Hollis J.A., Raith J.G. Field and geochemical characteristics of the
Mesoarchean (~3075 Ma) Ivisaartoq greenstone belt, southern West Greenland:
Evidence for seafloor hydrothermal alteration in supra-subduction oceanic crust //
Gondwana Research, 2007. V. 11. P. 69-91.
116. Polat A., Hofmann A.W., Rosing M.T. Boninite-like volcanic rocks in the
3.7-3.8 Ga Isua greenstone belt, West Greenland: geochemical evidence for intra-
oceanic subduction zone processes in the early Earth // Chemical Geology, 2002.
V. 184. P. 231-254
117. Polat A., Kerrich R., Wyman D.A. The late Archean Schreiber-Hemlo and
White River–Dayohessarah greenstone belts, Superior Province: collages of
oceanic plateaus, oceanic arcs, and subduction–accretion complexes // Tectono-
physics, 1998. V. 289. P. 295-326.
118. Powell R. Regression diagnostics and robust regression in geothermome-
ter/geobarometer calibration: the garnet-clinopyroxene geothermometer revisited //
Journal of Metamorphic Geology, 1985. V. 3. P. 231-243.
119. Powell R. & Holland T. Course Notes for «THERMOCALC Workshop
2001: Calculating metamorphic Phase Equilibria» // 2001 (доступно в Интернет –
http://www.metamorph.geo.uni-mainz.de/thermocalc/)
120. Powell R. & Holland T.J.B. Optimal geothermometry and geobarometry //
American Mineralogist, 1994. V. 79. P. 120-134.
121. Powell R. & Holland T. Relating formulations of the thermodynamics of
mineral solid solutions: Activity modeling of pyroxenes, amphiboles, and micas //
American Mineralogist, 1999. V. 84. P. 1-14.
122. Ravna E.J.K. Distribution of Fe
2+
and Mg between coexisting garnet and
hornblende in synthetic and natural systems: an empirical calibration of the gar-
net-hornblende Fe-Mg geothermometer // Lithos, 2000a. V. 53. P. 265-277.
123. Ravna E.J.K. The garnet-clinopyroxene Fe
2+
–Mg geothermometer: an up-
dated calibration // Journal of Metamorphic Geology, 2000b. V. 18, p. 211-219.
124. Rieder M., Cavazzini G., D'yakonov Yu.S., et al. Nomenclature of micas //
Mineralogical Magazine, 1999. V. 63. P. 267-279.
125. Robinson P. The eye of the petrographer, the mind of the petrologist //
American Mineralogist, 1991. V. 76. P. 1781-1810.
126. Rock N.M.S. Summary Statistics in Geochemistry: A study of the Per-
formance of Robust Estimates // Mathematical Geology, 1988. V. 20. P. 243-275.
171
127. Rogers J.J.W. & Santosh M. Configuration of Columbia, a Mesoprotero-
zoic Supercontinent // Gondwana Research. 2002. V. 5. P. 5-22.
128. Rollinson H. R. Using Geochemical Data: Evaluation, Presentation, In-
terpretation. Essex: London Group UK Ltd., 1995. 352 p.
129. Sato M. An electrochemical measurement and control of oxygen fugacity
and other gaseous fugacities with solidelectrolite sensors // Research techniques
for high pressure and high temperature. Вerlin: Springer-Verlag, 1971. P. 43-101.
130. Smithies R.H., Champion, D.C. & Sun, S.-S. The case of Archaean
boninites // Contribution to Mineralogy and Petrology, 2004. V. 147. P. 705-721.
131. Smithies R.H., Van Kranendonk M.J., Champion D.C. The Mesoarchean
emergence of modern-style subduction // Gondwana Research, 2007. V. 11. P. 50-68.
132. Sobolev A.V., Danyushevsky L.V. Petrology and geochemistry of
boninites from the north termination of the Tonga trench: constraints on the gener-
ation conditions of primary high-Ca boninite magmas // Journal of Petrology, 1994.
V. 35. P. 1183-1211.
133. Srivastava R. K. Geochemistry and petrogenesis of Neoarchaean high-
Mg low-Ti mafic igneous rocks in an intracratonic setting, Central India craton:
Evidence for boninite magmatism // Geochemical Journal, 2006. V. 40. P. 15-31.
134. Stipska P. & Powell R. Constraining the P-T path of a MORB-type eclog-
ite using pseudosections, garnet zoning and garnet-clinopyroxene thermometry: an
example from the Bohemian Massif // Journal of Metamorphic Geology, 2005.
V. 23. P. 725-743.
135. Stowell H.H. & Stein E. The significance of plagioclase-dominant coro-
nas on garnet, Wenatchee block, Northern Cascades, Washington, U.S.A. // Cana-
dian Mineralogist, 2005. V. 43. P. 367-385.
136. Sun S.-S. & McDonough W.F. Chemical and isotopic systematics of
oceanic basalts: implications for mantle compositions and processes // Saunders
A.D., Norry M.J. (Eds.). Magmatism in Ocean Basins. Geological Society of Lon-
don Special Publications, 1989. V. 42. P. 313-345.
137. Thirlwall M.F., Smith T.E., Graham A.M, Theodorou N., Hollings P.,
Davidson J.P., Arculus R.J. High Field Strength Element Anomalies in Arc Lavas:
Source or Process? // Journal of Petrology, 1994. V. 35. P. 819-838.
138. Ulmer G.C., Rosenhauer M., Woermann E. Applicability of electrochem-
ical oxygen fugacity measurements to geothermometry // American Mineralogist,
1976. V. 61. P. 653-660.
139. Vernon R.H., White R.W. and Clarke G.L. False metamorphic events in-
ferred from misinterpretation of microstructural evidence and P-T data // Journal
of Metamorphic Geology, 2008. V. 26. P. 437-449.
140. Wilson M. Igneous petrogenesis. A global tectonic approach, 1991.
Harper Collins Academic. 466 p.
141. Wood B.J., Banno S. Garnet-orthopyroxene and orthopyroxene-clinopy-
roxene relationships in simple and complex systems // Contributions to Mineralogy
and Petrology, 1973. V. 42 . P. 109-124.
172 Список литературы
142. Wu С.-M, Zhang J. & Ren L.-D. Empirical Garnet–Biotite–Plagioclase–
Quartz (GBPQ) Geobarometry in Medium- to High-Grade Metapelites // Journal
of Petrology, 2004. V. 45. P. 1907-1921.
143. Yang T.N. Retrograded textures and associated mass transfer: evidence
for aqueous fluid action during exhumation of the Qinglongshan eclogite, Southern
Sulu ultrahigh pressure metamorphic terrane, eastern China // Journal of Metamor-
phic Geology, 2004. V. 22. P. 653-669.
144. Yoder H.S. & Tilley C.E. Origin of basalt magmas: an experimental study
of natural and synthetic rock systems // Journal of Petrology. 1962. V. 3. P. 342-532.
145. Zenk M. and Schulz B. Zoned Ca-amphiboles and related P-T evolution
in metabasites from the classical Barrovian metamorphic zones in Scotland // Min-
eralogical Magazine, 2004. V. 68. P. 769-786.
146. Zhao G., Cawood P.A., Wilde S.A., Sun M. Review of global 2.1-1.8 Ga
orogens: implications for a pre-Rodinia supercontinent // Earth-Science Reviews,
2002. V. 59. P. 125–162.
147. Zhao G., Sun M., Wilde S.A., Li S. A Paleo-Mesoproterozoic superconti-
nent: assembly, growth and breakup // Earth-Science Reviews, 2004. V. 67. P. 91-123.
173
Приложения
Обр. Порода Grt Hb Ep Bt Pl CpxOpx Q Ap Sf Zc Kfs ChlMu Рудный
Западный домен ДССО
Н-2-3 амфиболит + + + + + не опред.
Н-2-4 Grt-Bt гнейс ++ ++ ++ ++ ++ + + ++ + Mgt
Н-3-1 амфиболит + + + + + + не опред.
Н-3-3 Grt амфиболит ++ ++ ++ + ++ + ++
Ilm, Mgt, FeS
2
CuFeS
2
Н-3-4 Grt амфиболит ++ ++ ++ ++ ++ + + ++
Rt, FeS
2
Н-3-5 Grt амфиболит ++ ++ ++ ++ + + ++
Mgt, Ilm, FeS
2
Н-4-2 амфиболит + + + + + + не опред.
Н-5-1 амфиболит + + + + + + не опред.
Н-6 Bt-Hb гнейс ++ ++ ++ ++ ++ + + ++ + ++ Mgt
Н-9-2 амфиболит ++ ++ ++ ++ + Mgt, Ilm
Н-12 амфиболит + + + + + + не опред.
Н-13 амфиболит + + + + не опред.
Н-18-1 амфиболит + + + + + + не опред.
H-18-6 амфиболит + + + + + + не опред.
Н-18-7 Grt амфиболит ++ ++ ++ ++ + + ++ Ilm
Н-20-1 Grt-Mu-Bt гнейс ++ ++ ++ + ++ ++
Rt, FeS
2
Н-22-1 Gr-Px гнейс ++ ++ ++ ++ + + + Ilm
Н-26-2 амфиболит + + + + не опред.
Центральный домен ДССО
ОГ-3 Hb-Bt гнейс + + + + + + не опред.
ОГ-5 Hb гнейс + + + + не опред.
ОГ-5-1 амфиболит + + + + + не опред.
ОГ-5-2 Hb-Bt гнейс ++ ++ ++ + + + ++ –
ОГ-6 Grt амфиболит ++ ++ ++ ++ + + + + + + Ilm
ОГ-6-1 Bt гнейс + + + + + не опред.
ОГ-6-2 амфиболит ++ ++ + + ++ + + + –
ОГ-6-3 Hb-Bt гнейс ++ ++ ++ ++ + + ++ + ++ –
ОГ-6-4 Hb-Bt гнейс + + + + не опред.
ОГ-6-5 Bt гнейс ++ ++ ++ ++ + + +
FeS
2
, CuFeS
2
ОГ-6-5-1 Grt-Bt гнейс ++ ++ ++ + + + +
FeS
2
ОГ-6-6 Grt-Bt гнейс ++ ++ ++ ++ + + + + ++ Ilm
ОГ-6-7 амфиболит ++ ++ ++ ++ + + +
Rt, FeS
2
ОГ-6-8т Grt амфиболит ++ ++ ++ ++ ++ + + + ++
Ilm, FeS
2
, CuFeS
2
ОГ-6-8с Grt-Bt плагиогнейс ++ ++ ++ + + + + Ilm
ОГ-6-9 Grt амфиболит ++ ++ ++ + + + + ++ Ilm, Rt
ОГ-6-10 амфиболит ++ ++ ++ ++ + + + ++
Ilm, FeS
2
ОГ-7 Hb гнейс + + + + + не опред.
ОГ-7-1 Hb-Bt гнейс + + + + + + не опред.
Приложение 1. Типы пород и их минеральные ассоциации.
176 Приложения
Обр. Порода Grt Hb Ep Bt Pl CpxOpx Q Ap Sf Zc Kfs ChlMu Рудный
ОГ-9 Hb гнейс ++ + ++ ++ + + ++ + –
ОГ-9-1 Hb-Bt сланец + + + + + не опред.
ОГ-9-2 Hb-Bt сланец + + + + + не опред.
ОГ-10 Hb гнейс + + + + + + не опред.
ОГ-10-1 Hb-Kfs гнейс + + + + + не опред.
ОГ-11-1 Hb сланец + + + + + + не опред.
ОГ-11-2 амфиболит + + + + не опред.
ОГ-11-10 амфиболит + + + + не опред.
ОГ-15 Grt амфиболит ++ ++ ++ + + + +
Ilm, Rt, FeS
2
ОГ-15-1 амфиболит + + + + не опред.
ОГ-15-2 амфиболит + + + + не опред.
ОГ-17 Hb-Bt гнейс + + + + + + не опред.
ОГ-18 Hb гнейс + + + + + не опред.
ОГ-18-1 Hb-Bt гнейс + + + + + + + не опред.
ОГ-19 Hb-Bt гнейс + + + + + + + + не опред.
Восточный домен ДССО
40 Grt-Bt гнейс ++ ++ ++ ++ ++ + + ++ + + Mgt
91в Grt-Bt гнейс ++ ++ ++ ++ ++ + + ++ + не опред.
501б Hb сланец + + + + + + + + + Rt
505 Bt гнейс ++ ++ ++ ++ ++ + + + Mgt
513а Bt-Hb сланец ++ ++ ++ ++ + + ++ + не опред.
518 Bt-Hb сланец ++ ++ ++ ++ ++ + + + Mgt
584 Bt-Hb гнейс ++ ++ ++ ++ + + + Rt
519в Grt-Hb гнейс ++ ++ ++ + ++ + + не опред.
562б Bt-Hb гнейс + + + + Rt
562в Grt-Bt гнейс + + + + + + Ti-Mgt, Ilm
592 Bt-Hb сланец + + + + + + не опред.
596 Grt-Hb гнейс + + + + + + + + Ilm
607а амфиболит + + + + + + не опред.
614а Grt-Bt гнейс + + + + + + Mgt, Ti-Mgt, Ilm
620 Hb-Bt гнейс ++ ++ ++ ++ + + ++ + + не опред.
628 Grt-Bt гнейс ++ ++ ++ ++ ++ + + + Mgt
653 Hb сланец + + + + не опред.
784 Grt-Bt гнейс ++ ++ ++ ++ + + + Ti-Mgt, Ilm
792б Grt амфиболит ++ ++ ++ + ++ + + + ++ Ilm
Приложение 1 (продолжение).
Примечание: + – минерал присутствует, ++ – есть анализ минерала (Приложение 4).
177Результаты силикатных анализов метаморфических пород ДССО
Приложение 2. результаты силикатных анализов метаморфиче-
ских пород ДССо.
обр.
SiO
2
TiO
2
Al
2
O
3
FeO Fe
2
O
3
MnO MgO CaO Na
2
O K
2
O P
2
O
5
H
2
O
-
п.п.п. Сумма Mg#
Западный домен ДССО
Н-2-3 49.70 1.06 12.42 7.57 3.52 0.13 9.12 9.78 2.53 1.48 0.24 0.12 1.91 99.58 60.22
Н-2-4 50.41 1.63 16.34 6.29 6.90 0.27 4.15 6.84 2.59 2.59 0.87 0.03 1.35 100.26 37.18
Н-3-1 49.96 1.30 13.91 8.52 3.46 0.13 5.75 10.96 2.41 1.64 0.22 – 1.54 99.80 46.84
Н-3-3 42.11 1.64 12.63 12.02 5.26 0.19 9.25 12.53 1.33 0.55 0.30 0.04 1.88 99.73 49.60
Н-3-4 45.71 1.03 13.20 9.80 4.47 0.21 8.76 12.62 1.82 0.48 0.10 – 1.44 99.64 53.05
Н-3-5 58.14 0.50 9.86 12.04 9.34 0.08 2.05 4.55 0.82 1.18 – 1.42 0.32 100.30 15.16
Н-4-2 47.93 0.80 9.27 8.60 3.87 0.14 13.14 11.67 1.40 1.05 0.19 0.16 1.56 99.78 65.97
Н-5-1 44.97 1.08 18.16 8.41 3.90 0.14 5.61 13.15 2.36 0.55 0.21 0.06 1.13 99.73 45.62
Н-6 60.43 0.52 16.56 3.13 3.60 0.13 2.87 4.63 4.65 2.22 0.16 0.02 0.65 99.57 44.54
Н-9-2 43.01 1.81 13.63 12.21 4.79 0.16 7.71 11.79 1.83 0.96 0.25 0.04 1.70 99.89 45.41
Н-12 49.40 0.90 14.46 7.21 4.15 0.14 7.73 10.64 2.83 1.34 0.18 – 1.06 100.04 55.73
Н-13 49.90 0.70 7.24 6.82 3.04 0.15 11.68 16.02 1.84 0.64 0.42 0.06 1.19 99.70 68.54
H-18-6 43.92 1.00 15.86 7.42 3.90 0.14 10.91 10.09 1.77 2.85 0.18 – 1.91 99.95 64.02
H-27-3 48.23 0.92 13.98 8.21 5.12 0.22 7.44 8.74 2.94 0.95 0.20 0.03 3.09 100.07 50.85
Н-18-1 51.13 0.74 12.63 6.58 4.22 0.13 10.22 9.88 2.02 1.01 0.29 0.04 1.23 100.12 63.71
Н-18-7 49.21 0.76 13.64 10.04 3.50 0.16 8.30 9.80 1.97 0.68 0.06 0.02 1.62 99.76 52.87
Н-20-1 60.98 0.79 16.85 6.35 2.20 0.11 4.30 2.25 2.40 2.41 0.06 0.03 1.65 100.38 47.92
Н-22-1 56.36 1.25 14.12 13.27 2.00 0.20 4.42 5.09 0.55 0.50 0.15 – 1.68 99.59 34.33
Н-26-2 52.61 0.68 18.16 5.08 2.41 0.12 6.61 7.25 3.00 0.92 0.40 0.06 2.44 99.74 61.91
Н-28-5 49.62 0.94 18.23 5.96 4.30 0.13 4.67 8.40 3.44 1.68 0.35 0.06 2.08 99.86 45.86
Центральный домен ДССО
ОГ-2-10 46.05 1.31 16.3 7.18 5.63 0.39 8.08 11.00 2.23 1.09 0.31 – 0.19 99.76 54.05
ОГ-3 51.53 0.96 13.61 5.52 5.07 0.22 10.05 9.09 2.47 0.98 0.25 – 0.28 100.03 63.99
ОГ-5 52.73 0.46 12.86 7.79 2.71 0.15 9.10 10.10 2.41 0.75 0.24 – 0.18 99.50 61.33
ОГ-5-1 52.45 0.64 11.24 7.50 3.32 0.36 10.49 9.17 2.15 1.24 0.26 0.48 0.60 99.90 64.07
ОГ-5-2 56.44 0.99 15.86 4.46 2.86 0.16 4.43 7.02 5.00 1.80 0.37 – 0.44 99.83 52.89
ОГ-6 51.81 0.67 15.00 9.08 2.10 – 8.48 8.99 1.72 0.61 0.19 0.88 0.35 99.88 57.95
ОГ-6-1 61.67 0.67 16.79 6.73 – 0.18 3.16 3.54 3.00 2.60 1.91 – 0.11 100.36 45.56
ОГ-6-2 50.14 0.84 13.98 10.11 3.06 0.45 6.65 10.21 1.98 0.99 0.19 0.04 1.00 99.64 47.96
ОГ-6-3 62.90 0.80 16.72 3.58 1.06 0.10 2.52 6.07 2.95 1.24 0.29 0.24 1.25 99.72 49.77
ОГ-6-4 51.95 1.20 19.90 4.68 1.55 0.10 5.44 8.10 4.18 0.88 0.10 0.78 0.90 99.76 61.48
ОГ-6-5 61.08 0.91 17.25 6.25 0.57 0.10 2.85 2.82 3.33 2.53 1.33 – 0.77 99.79 42.90
ОГ-6-5-1 63.82 0.62 16.11 6.05 0.70 0.04 3.06 3.08 2.76 2.10 1.38 – 0.07 99.79 44.95
ОГ-6-6 65.09 0.42 15.52 3.76 – 0.04 2.52 6.09 4.02 0.73 1.08 – 0.14 99.41 54.44
ОГ-6-7 51.22 0.68 15.21 7.08 1.76 0.10 8.81 10.25 2.26 0.80 0.15 0.60 0.60 99.53 64.45
ОГ-6-8т 50.69 0.89 15.62 10.17 2.37 0.16 6.88 9.03 1.91 0.54 1.57 – 0.15 99.98 49.92
ОГ-6-8с 59.41 0.63 18.39 5.05 0.65 0.04 3.04 7.22 3.67 0.64 1.06 – 0.22 100.02 49.02
ОГ-6-9 51.52 0.9 14.52 8.74 1.23 0.34 8.39 9.93 1.91 0.81 0.31 0.23 0.80 99.63 60.30
ОГ-6-10 47.76 1.26 15.93 9.88 2.50 0.16 7.46 10.15 1.94 0.81 1.59 – 0.22 99.66 52.30
ОГ-7 52.05 0.85 14.36 6.36 3.38 0.28 7.71 8.95 3.08 1.13 0.36 0.35 0.63 99.49 59.38
ОГ-7-1 52.60 0.52 14.88 5.29 3.82 0.28 7.17 9.47 2.69 1.27 0.20 0.75 0.75 99.69 59.42
ОГ-9 50.50 0.42 14.77 7.60 3.66 – 7.33 10.41 2.76 0.98 0.18 0.45 0.64 99.70 54.53
ОГ-9-1 54.56 1.05 14.45 6.41 3.61 0.17 5.60 10.84 1.95 0.93 0.22 – 0.20 99.99 50.83
ОГ-9-2 65.82 0.05 15.58 2.86 1.87 0.06 2.01 6.06 3.09 2.10 0.15 0.17 0.11 99.93 44.10
ОГ-10 63.42 0.54 15.67 2.67 2.45 0.06 2.46 5.70 3.58 2.73 0.26 0.05 0.13 99.74 47.36
ОГ-10-1 49.40 2.86 14.15 7.25 2.86 0.26 4.66 9.30 2.05 4.30 0.89 0.38 1.30 99.66 45.82