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Waipapa Terrane

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Journal Article
Published: 16 July 2012
Geological Magazine (2013) 150 (1): 89–109.
...C. J. ADAMS; N. MORTIMER; H. J. CAMPBELL; W. L. GRIFFIN Abstract Detrital zircon U–Pb ages are reported for 14 sandstones of mainly Cretaceous age from the Northland Allochthon, Houhora Complex and Waipapa Terrane of northern North Island, New Zealand. Results from the Waipapa Terrane samples...
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First thumbnail for: Detrital zircon geochronology and sandstone proven...
Second thumbnail for: Detrital zircon geochronology and sandstone proven...
Third thumbnail for: Detrital zircon geochronology and sandstone proven...
Journal Article
Journal: Geology
Published: 01 August 1989
Geology (1989) 17 (8): 753–756.
.... The melanges mark fault zones along which the Waipapa terrane has been imbricated. Callovian-Oxfordian green argillites are also found in stratigraphic contact with overlying Kimmeridgian-Tithonian green argillites and gray terrigenous clastics. The Late Triassic and Early Jurassic radiolaria are Tethyan...
Series: Geological Society, London, Memoirs
Published: 08 May 2019
DOI: 10.1144/M49.4
...Discussion Eastern Marlborough coast: Cape Jackson–Fighting Bay As seen in Figure 14.4 , all the eastern Marlborough Sounds zircon datasets, from Cape Jackson to Fighting Bay, resemble typical Waipapa Terrane patterns: that is, having dominant single-age groups in the Late Triassic...
Journal Article
Published: 01 July 2007
Geological Magazine (2007) 144 (4): 701–729.
... or continuations in New Zealand and Antarctica. In the accretionary terranes, significant Palaeozoic (and Precambrian) zircon age populations are present in Torlesse and Waipapa terranes, and variably in Caples terrane. In the fore-arc and back-arc terranes, a unimodal character persists in Murihiku and Brook...
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First thumbnail for: Provenance comparisons of Permian to Jurassic tect...
Second thumbnail for: Provenance comparisons of Permian to Jurassic tect...
Third thumbnail for: Provenance comparisons of Permian to Jurassic tect...
Journal Article
Published: 21 November 2012
Geological Magazine (2013) 150 (3): 455–478.
... to passive-margin cover successions. Pahau Terrane deposition was mainly Barremian to Aptian but continued locally through to late Albian time, with major source areas in the adjacent Kaweka and Waipapa terranes and minor inputs from the inboard Median Batholith. Waioeka Terrane deposition was mainly Albian...
FIGURES
First thumbnail for: The mid-Cretaceous transition from basement to cov...
Second thumbnail for: The mid-Cretaceous transition from basement to cov...
Third thumbnail for: The mid-Cretaceous transition from basement to cov...
Journal Article
Journal: GSA Bulletin
Published: 01 March 1978
GSA Bulletin (1978) 89 (3): 415–425.
... by a narrow zone of serpentinite and ultramafic rock corresponding to the magnetic Junction anomaly. In the Waipapa and Torlesse terranes east of the Junction anomaly, three deformation phases can be recognized: (1) formation of mélange and imbrication of strata, with fold axes trending across the now...
Series: Geological Society, London, Memoirs
Published: 08 May 2019
DOI: 10.1144/M49.8
...–Maitai Terrane (Maitai basin) represent a distal segment of a continental margin forearc basin. The Caples Terrane is a mainly Triassic trench accretionary complex, dominantly sourced from a continental margin arc, similar to the Median Batholith. The outboard (older) Torlesse and Waipapa terranes...
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Figure 2.
Published: 16 July 2012
Figure 2. Stratigraphic columns illustrating the approximate ranges of the Hunua Facies and Morrinsville Facies of the Waipapa Terrane in North Island, New Zealand and their relationship to Cretaceous cover successions of the Northland Allochthon and Houhora
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Detrital zircon 238U–206Pb age components derived from cumulative probability diagrams of Torlesse and Waipapa terrane greywackes. In upper diagram, 19 Torlessse composite terrane greywackes (four from this study and 15 from previously published work) are shown subdivided into Pahau and Rakaia terranes. In the lower diagram, similar datasets for 12 Waipapa terrane greywackes are shown (two from this work and ten from previously published work). In each case, datasets (sample numbers in italics at right) are assembled in stratigraphic order. In some cases small adjustments have been made to avoid overlap of important data. The height of each data box indicates the component age proportion of total (see % scale bar) and the width the component age error (2 sigma). The diagonal lines show the theoretical younger limit for detrital mineral ages.
Published: 01 July 2007
Figure 7. Detrital zircon 238 U– 206 Pb age components derived from cumulative probability diagrams of Torlesse and Waipapa terrane greywackes. In upper diagram, 19 Torlessse composite terrane greywackes (four from this study and 15 from previously published work) are shown subdivided
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 Whole-rock compositions of schist. (a) SiO2 v. K2O/Na2O. Fields for Waipapa Terrane and Miocene sandstones, and for tectonic setting of greywackes, from Roser & Korsch (1986) and Korsch et al. (1993). Field for Whangai Formation from Moore (1988). Mudstone and siltstone compositions from all New Zealand basement and cover suites tend to converge on the area occupied by the Cavalli biotite schists. (b) Chondrite-normalized REE pattern for biotite schist P62662A and New Zealand basement and cover comparisons. Waipapa greywacke REE data from Reid (1983), sample VU15968; Miocene mudstone La, Ce and Y data from Korsch et al. (1993) with Y converted to Yb/10 concentration. (c) Sr isotope evolution diagram for Cavalli Seamount metamorphic rocks as compared with the trends of metasedimentary suites from New Zealand basement terranes (after Adams 1997). 87Sr/86Sri is initial ratio at the time of metamorphism and/or re-equilibration t (Ma). Arrows show evolution of bulk 87Sr/86Sr in terranes with time: Cavalli has the expected 87Sr/86Sr for a Waipapa Terrane protolith metamorphosed at c. 20 Ma. Comparative ϵNd data are tabulated in the inset.
Published: 01 December 2003
Fig. 5.  Whole-rock compositions of schist. ( a ) SiO 2 v. K 2 O/Na 2 O. Fields for Waipapa Terrane and Miocene sandstones, and for tectonic setting of greywackes, from Roser & Korsch (1986) and Korsch et al . (1993) . Field for Whangai Formation from Moore (1988) . Mudstone
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Histogram and cumulative probability diagrams of detrital zircon 238U–206Pb ages for dataset (10) QUOX1 (centre), a Late Triassic greywacke from East Otago, occurring within an extension of the Caples terrane, but which is geochemically and/or isotopically of Torlesse or Waipapa terrane affinity. This is compared with Late Triassic datasets from greywackes of true Waipapa (9) STEPH1 (above), and true Caples (11) VON2 (below), terrane affinities. Significant age components (Ma) are shown in bold italics; other, less significant components, in normal italics.
Published: 01 July 2007
Figure 12. Histogram and cumulative probability diagrams of detrital zircon 238 U– 206 Pb ages for dataset (10) QUOX1 (centre), a Late Triassic greywacke from East Otago, occurring within an extension of the Caples terrane, but which is geochemically and/or isotopically of Torlesse or Waipapa
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Map showing previously suggested locations of formation for the Murihiku and Waipapa terranes (now part of New Zealand) and New Caledonian terranes that include Jurassic sedimentary rock assemblages. Tectonic reconstructions that relate are questioned by the present study (see text discussion).
Published: 23 August 2022
Fig. 9. Map showing previously suggested locations of formation for the Murihiku and Waipapa terranes (now part of New Zealand) and New Caledonian terranes that include Jurassic sedimentary rock assemblages. Tectonic reconstructions that relate are questioned by the present study (see text
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Figure 4.
Published: 16 July 2012
Figure 4. Representative examples of combined probability density/histograms of detrital zircon 238 U– 206 Pb ages for Waipapa Terrane sandstones of Jurassic Morrinsville Facies (TWHX1), Jurassic Hunua Facies (TWX1), probable Triassic Hunua Facies (RWH1) and Caples
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Figure 1.
Published: 16 July 2012
dots ) are shown with locality number in italics. A probable boundary between the Torlesse Composite Terrane and Waipapa Terrane is indicated by a dashed line.
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An intra-terrane comparison of histogram/cumulative probability diagrams of detrital zircon 238U–206Pb age data for three greywackes of Late Jurassic (Kimmeridgian) age in the Waipapa terrane of the three North Island datasets: (7) TWX1 Tawharanui, (5) TWHX1 Tuwhare, (6) TPWX1 Tapuwae. Significant age components (Ma) are shown in bold italics; other, less significant components, in normal italics. Ages > 500 Ma are stacked at right.
Published: 01 July 2007
Figure 10. An intra-terrane comparison of histogram/cumulative probability diagrams of detrital zircon 238 U– 206 Pb age data for three greywackes of Late Jurassic (Kimmeridgian) age in the Waipapa terrane of the three North Island datasets: (7) TWX1 Tawharanui, (5) TWHX1 Tuwhare, (6) TPWX1
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 Models of the Junction Magnetic Anomaly source bodies along profiles 1–3 of Figure 2. (a) Observed and calculated magnetic field (A, C, D, G, H, I and J as in Fig. 4a); (b) corresponding magnetic cross-sectional model. (1a) Root mean square (r.m.s.) discrepancy between observed and calculated values is 5.8% of the profile anomaly maximum. The poor fit along the eastern portion of the 430 m elevation flight-line results from a slight spatial mismatch between surveys. Lineaments G and H consist of multiple short-wavelength, low-amplitude peaks. The short-wavelength anomaly (ACR) is associated with an isolated ridge of Albany Conglomerate (Waitemata Group, Edbrooke 2001). The 330 m and 2 km elevation observed data are from Woollaston (1996). (1b) Most bodies dip steeply to the east, except for those east of exposed Waipapa terrane, which dip slightly west, consistent with geological mapping of ocean-floor rocks within the Waipapa terrane (Spörli et al. 1989). (2a) The r.m.s. discrepancy between observed and calculated values is 3.3% of the maximum anomaly. (2b) The character of bodies A, C, D, G, H, I and J is similar to that in profile 1 with additional bodies required in the northeastern end of the profile. (3a) The r.m.s. discrepancy between observed and calculated values is 3.6% of the maximum anomaly. (3b) An additional body, F, is required to model the observed anomaly whereas the character of other bodies is similar to that modelled for the other profiles.
Published: 01 July 2005
) is associated with an isolated ridge of Albany Conglomerate (Waitemata Group, Edbrooke 2001 ). The 330 m and 2 km elevation observed data are from Woollaston (1996) . ( 1b ) Most bodies dip steeply to the east, except for those east of exposed Waipapa terrane, which dip slightly west, consistent
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Location of the Taupo Volcanic Zone (TVZ) and associated features within the North Island of New Zealand. TVZ basement rock outcrops for the Torlesse and Waipapa terranes have been modified from Price et al. (2015). Locations for features referred to in the text are shown for White Island (WI), Kakuki basalt (K), Taupo volcano (TV), Waimarino basalt (W), Pukeonake (P), Tongariro (T), Hauhangatahi (H), Ruapehu (R), and Ohakune craters (O). (Color online.)
Published: 01 April 2018
Figure 1. Location of the Taupo Volcanic Zone (TVZ) and associated features within the North Island of New Zealand. TVZ basement rock outcrops for the Torlesse and Waipapa terranes have been modified from Price et al. (2015) . Locations for features referred to in the text are shown for White
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Figure 3.
Published: 16 July 2012
Figure 3. Percentage proportions of detrital zircon 238 U– 206 Pb ages (as % of total) occurring within selected geological periods in Cretaceous cover rocks and Waipapa Terrane basement. In each group, datasets are stacked from top to bottom
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Outcropping basement strata in onshore New Zealand with declination anomalies plotted for various paleomagnetism study sites. Paleomagnetism data sourced are from Lamb (2011), Lamb et al. (2016), Sherwood (1988), Hunt and Smith (1982), Dallanave et al. (2014, 2016), Briggs et al. (1994), Grindley et al. (1994), Tanaka et al. (1996), Grindley et al. (1977), Oliver et al. (1979), Haston and Luyendyk (1991), Cassidy (1993), Haston et al. (1989), Fujii and Niitsuma (1994), and Ohneiser et al. (2008). Key to acronyms: NO—Northland Ophiolite; WT—Waipapa Terrane; CF—Cape Foulwind; DM—Dun Mountain; MV—Matakaoa Volcanics; RN—Rangitato; CC—Cape Campbell; LYF—Leslie Hills; MW—Mid-Waipara River.
Published: 17 August 2022
et al. (1994) , Grindley et al. (1994) , Tanaka et al. (1996) , Grindley et al. (1977) , Oliver et al. (1979) , Haston and Luyendyk (1991) , Cassidy (1993) , Haston et al. (1989) , Fujii and Niitsuma (1994) , and Ohneiser et al. (2008) . Key to acronyms: NO—Northland Ophiolite; WT—Waipapa
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Thin sections of Kaweka, Waipapa, Rakaia, and Pahau terrane sediment from modern drainages. (A) Plane-polar and (B) cross-polar light image of Kaweka terrane low-grade metasedimentary clasts composed of fine- to very fine–grained quartz (Qtz), plagioclase (Plag), and lithic fragments (Lith) and silt-sized quartz. (C) Plane-polar and (D) cross-polar light image of Waipapa Group greenschist-grade metamorphic grains and polycrystalline quartz. (E) Plane-polar and (F) cross-polar light image of Rakaia terrane fine-grained Lith and smaller amounts of monocrystalline quartz and plagioclase. (G) Plane-polar and (H) cross-polar light image of Pahau terrane coarse-grained metasedimentary lithic clast composed of fine- to very fine– grained quartz, plagioclase, and Lith. Epidote (Ep) is the dominant high-relief, high-birefringence mineral. Disaggregation and comminution of these clasts would produce similar lithic-rich sands to those within the Mount Messenger Formation. Schist = lithic grains exhibiting schistose fabrics; Volc = volcanic lithic grain.
Published: 01 September 2018
Figure 9. Thin sections of Kaweka, Waipapa, Rakaia, and Pahau terrane sediment from modern drainages. (A) Plane-polar and (B) cross-polar light image of Kaweka terrane low-grade metasedimentary clasts composed of fine- to very fine–grained quartz (Qtz), plagioclase (Plag), and lithic fragments