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Java Formation

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Journal Article
Journal: AAPG Bulletin
Published: 01 December 1960
AAPG Bulletin (1960) 44 (12): 1933–1936.
.... , and Colton , G. W. , 1956 , “ Stratigraphy of the West Falls Formation of Late Devonian Age in Western and West-Central New York ,” ibid. , Chart OC 55. The name Java formation is here proposed for the cyclically deposited Upper Devonian rocks in western and central New York that have been...
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First thumbnail for: <span class="search-highlight">Java</span> <span c...
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—Sketch map showing location of type section of Java formation, Java Township, Wyoming County, New York
Published: 01 December 1960
Fig. 1. —Sketch map showing location of type section of Java formation, Java Township, Wyoming County, New York
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—Columnar section of Java formation at Java Village.
Published: 01 December 1960
Fig. 2. —Columnar section of Java formation at Java Village.
Journal Article
Published: 21 August 2020
Journal of Sedimentary Research (2020) 90 (8): 796–820.
... utilized data from nineteen wells and 1,300 km 2 of 3D seismic data from offshore East Java to study the Oligocene–Miocene Kujung Formation. An average of 700 m stratigraphic sections from this formation were analyzed. This interval spans 13.5 million years (My) from the Rupelian, Chattian, through...
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First thumbnail for: Carbonate-shelf evolution during the Oligocene to ...
Second thumbnail for: Carbonate-shelf evolution during the Oligocene to ...
Third thumbnail for: Carbonate-shelf evolution during the Oligocene to ...
Series: AAPG Memoir
Published: 01 January 1997
DOI: 10.1306/M67611C6
EISBN: 9781629810775
... Abstract The seal potential of various lithologies in the Upper Oligocene Talang Akar Formation (TAF) is evaluated in the BZZ area of offshore northwest Java. Seal potential comprises (1) seal capacity (the calculated amount of hydrocarbon column height a lithology can support); (2) seal...
Journal Article
Published: 01 January 1975
Journal of Foraminiferal Research (1975) 5 (1): 1–20.
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FIGURE 3—Map of southern New York, showing Java Formation. localities from this study. Localities form a line roughly perpendicular to the paleoshoreline, and are progressively closer to the paleoshore from 1 to 6. Localities: 1, Narrows Rd.; 2, Big Creek; 3, Purdy Rd.; 4, Baker Creek; 5, S. Canisteo; 6, Borden
Published: 01 June 2000
FIGURE 3 —Map of southern New York, showing Java Formation. localities from this study. Localities form a line roughly perpendicular to the paleoshoreline, and are progressively closer to the paleoshore from 1 to 6. Localities: 1, Narrows Rd.; 2, Big Creek; 3, Purdy Rd.; 4, Baker Creek; 5, S
Journal Article
Journal: PALAIOS
Published: 01 June 2000
PALAIOS (2000) 15 (3): 184–193.
...FIGURE 3 —Map of southern New York, showing Java Formation. localities from this study. Localities form a line roughly perpendicular to the paleoshoreline, and are progressively closer to the paleoshore from 1 to 6. Localities: 1, Narrows Rd.; 2, Big Creek; 3, Purdy Rd.; 4, Baker Creek; 5, S...
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First thumbnail for: Environmental Distribution of Spinose Brachiopods ...
Second thumbnail for: Environmental Distribution of Spinose Brachiopods ...
Third thumbnail for: Environmental Distribution of Spinose Brachiopods ...
Journal Article
Journal: AAPG Bulletin
Published: 01 September 1979
AAPG Bulletin (1979) 63 (9): 1580.
... emphasis on five stratigraphic units: Chagrin Shale, Huron Member of the Ohio Shale, White Slate (correlates with Java Formation and Angola Shale Member of the West Falls Formation), Rhinestreet Shale Member of the West Falls Formation, and the Marcellus Shale. After calculating mean percentages within...
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FIGURE 7—Actual vs. predicted densities of spinose brachiopods, relative to lithology, in the Java Formation. Predicted abundance is based upon the proportions of all articulates within each lithology. The actual distribution and the predicted distribution are statistically dissimilar (χ2 test, p &lt; 0.0001), which also indicates that the distributions of spinose and non-spinose individuals are dissimilar
Published: 01 June 2000
FIGURE 7 —Actual vs. predicted densities of spinose brachiopods, relative to lithology, in the Java Formation. Predicted abundance is based upon the proportions of all articulates within each lithology. The actual distribution and the predicted distribution are statistically dissimilar (χ 2 test
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FIGURE 8—Actual vs. predicted densities of spinose brachiopods, relative to facies, in the Java Formation. Predicted abundance is based upon the proportions of all articulates within each facies. The actual distribution and the predicted distribution are statistically dissimilar (χ2 test, p &lt; 0.0001), which also indicates that the distributions of spinose and non-spinose individuals are dissimilar
Published: 01 June 2000
FIGURE 8 —Actual vs. predicted densities of spinose brachiopods, relative to facies, in the Java Formation. Predicted abundance is based upon the proportions of all articulates within each facies. The actual distribution and the predicted distribution are statistically dissimilar (χ 2 test, p
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Published: 01 June 2000
Abundance (individuals per m 2 ) of the eleven most common articulate brachopod genera in the Java Formation. Facies range from 1 (offshore) to 6 (nearshore). Lithological categories range from 1 (fine mudstone) to 5 (coarse sandstone). Both Facies and Lithology are described more fully in the text
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Time-step model for the formation of the Ontong Java Plateau (OJP) as a result of large-bolide impact on thin lithosphere (modified from Ingle and Coffin, 2004). Time 1—At the moment of impact, the uppermost asthenosphere is penetrated, the water column is vaporized, 20-m.y.-old oceanic lithosphere at the impact site is obliterated, and the surrounding lithosphere fractures. Time 2—During the moment of maximum penetration, the crater is completely formed, and the region of decompression melting is focused. Time 3—The void becomes in-filled from the bottom and sides; melt migrates along fractures in the lithosphere; refractory surrounding mantle fills space vacated by outflowing magma. Time 4—In the final stage of plateau formation, the ∼35-km-thick crust lies above the deep, dry, refractory mantle root, representing the melt residue. Time 5—Later tectonism might result in localized volcanism.
Published: 01 October 2015
Figure 3. Time-step model for the formation of the Ontong Java Plateau (OJP) as a result of large-bolide impact on thin lithosphere (modified from Ingle and Coffin, 2004 ). Time 1—At the moment of impact, the uppermost asthenosphere is penetrated, the water column is vaporized, 20-m.y.-old
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West Java, Ciletuh region. (A) Interpretation of the Ciletuh Formation of Schiller et al. (1991) compared to (B) the new interpretation of the Ciemas and Ciletuh formations discussed in this paper.
Published: 01 May 2009
Fig. 3 West Java, Ciletuh region. ( A ) Interpretation of the Ciletuh Formation of Schiller et al . (1991) compared to ( B ) the new interpretation of the Ciemas and Ciletuh formations discussed in this paper.
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Published: 01 June 2000
TABLE 1 —Environmental distribution of the eleven most abundant articulate brachiopods in the Java Formation. Plicae are prominent, radially arranged ridges that deflect the commissure. Costae are radially arranged ridges that do not deflect the commissure. Lamellae are prominent, concentrically
Journal Article
Journal: AAPG Bulletin
Published: 01 August 1982
AAPG Bulletin (1982) 66 (8): 1167.
... of outcropping Upper Devonian black shales (the Rhinestreet Shale Member of the West Falls Formation, the Pipe Creek Shale Member of the Java Formation, and the Dunkirk Shale Member of the Perrysburg Formation) southward in the subsurface beneath the Appalachian Plateau about 500 mi (800 km) to wells...
Journal Article
Journal: GSA Bulletin
Published: 29 August 2023
GSA Bulletin (2024) 136 (5-6): 1846–1862.
...., 2017 ). Our finding of two Cretaceous juvenile magmatic events in Central Java highlights its role in the juvenile crust formation in SE Asia, thus providing new insights into the study of magmatic evolution and the larger-scale reconstruction of the now-disrupted easternmost Neo-Tethys...
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First thumbnail for: Petrogenesis of two Cretaceous granitoid episodes ...
Second thumbnail for: Petrogenesis of two Cretaceous granitoid episodes ...
Third thumbnail for: Petrogenesis of two Cretaceous granitoid episodes ...
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Stratigraphy of Northwest Java Basin. The studied reservoirs were Talang Akar Formation and Batu Raja Formation (BRF).
Published: 01 May 2006
Figure 3. Stratigraphy of Northwest Java Basin. The studied reservoirs were Talang Akar Formation and Batu Raja Formation (BRF).
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Sketch of the Cretaceous geologic evolution of the Hikurangi Plateau, modeled after Taylor (2006) and van de Lagemaat et al. (2023). (A) Formation of the Greater Ontong Java Event (ca. 125–120 Ma). (B) Ontong Java Plateau (OJP), Manihiki Plateau (MP), and Hikurangi Plateau (HP) rift (ca. 120–110 Ma). (C) Hikurangi Plateau approaches the Gondwana Margin (ca. 110–90 Ma). (D) Hikurangi Plateau collides with the Gondwana margin (ca. 90–79 Ma). Additional acronyms are ANT—Antarctica, AUS—Australia, ZEA—Zealandia, CR—Chatham Rise, and OT—Osbourn Trough.
Published: 25 April 2024
Figure 2. Sketch of the Cretaceous geologic evolution of the Hikurangi Plateau, modeled after Taylor (2006) and van de Lagemaat et al. (2023) . (A) Formation of the Greater Ontong Java Event (ca. 125–120 Ma). (B) Ontong Java Plateau (OJP), Manihiki Plateau (MP), and Hikurangi Plateau (HP) rift