ALBERT

All Library Books, journals and Electronic Records Telegrafenberg

feed icon rss

Your email was sent successfully. Check your inbox.

An error occurred while sending the email. Please try again.

Proceed reservation?

Export
Filter
  • Data  (437)
  • 2020-2023
  • 1990-1994  (323)
  • 1975-1979  (59)
  • 1970-1974  (55)
Collection
Keywords
Publisher
Years
Year
  • 1
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Bezrukov, Panteleimon L; Skornyakova, Nadezhda S; Murdmaa, Ivar O; Andrushchenko, Polina F; Zenkevich, Nikita L (1976): Ferromanganese Nodules of the Pacific Ocean. P.P. Shirshov Institute of Oceanology of the USSR Academy of Sciences, Transactions, vol. 109. Moscow, Nauka Publ. (P.L. Bezrukov, Ed.), 301 pp
    Publication Date: 2023-08-28
    Description: The monograph highlights extensive materials collected during expeditions of P.P. Shirshov Institute of Oceanology. We consider facial conditions of nodule formation, regularities of their distribution, stratigraphic position, petrography, mineral composition, textures, geochemistry of nodules and hosting sediments. Origin of iron-manganese nodules in the Pacific Ocean is considered as well.
    Keywords: AK4-225-TR; AK4-227-PH; AK4-230-GR; AK4-231-GR; AK4-232-GR; AK4-232-PH; AK4-233-GR; AK4-233-TR; AK4-259-GR; AK4-259-PH; AK4-260-GR; AK4-261-GR; Akademik Kurchatov; AKU4; Archive of Ocean Data; ARCOD; Central Basin, Pacific Ocean; Central Pacific Seamounts, Pacific Ocean; DM8; DM8-516-GR; DM8-518-GR; DM8-520-GR; DM8-521-TR; DM8-541-GR; DM8-554-GR; DM8-556-GR; DM8-568-GR; DM8-569-GR; DM8-598-GR; DM8-599-GR; DM8-600-GR; DM8-607-GR; DM8-608-GR; Dmitry Mendeleev; Dredge; DRG; Eastern Basin, Pacific Ocean; Eastern Mariana Basin, Pacific Ocean; Equatorial Pacific; GC; Grab; GRAB; Gravity corer; Manihiki Plateau, Pacific Ocean; Marcus-Necker Ridge; Mariana Basin, Pacific Ocean; MULT; Multiple investigations; Northwestern Basin, Pacific Ocean; OKEAN; Okean Grab; Photo/Video; PV; Southeast Pacific; Southern Basin, Pacific Ocean; TRAWL; Trawl net; VITYAZ; Vityaz (ex-Mars); Vityaz-20; Vityaz-25; Vityaz-29; VITYAZ3150-TR; VITYAZ3151-TR; VITYAZ3233-GC-2; Vityaz-34; VITYAZ3630-PH; VITYAZ3631-GR-1; VITYAZ3632-PH; VITYAZ3635-PH; VITYAZ3729-GC-1; VITYAZ3782-PH; VITYAZ3782-TR; VITYAZ3787-TR; VITYAZ3802-TR; VITYAZ3871-GR-1; VITYAZ3899-GR-1; VITYAZ3900-GR-1; VITYAZ3996-TR; VITYAZ4009-TR; VITYAZ4074-TR; VITYAZ4084-GR-1; VITYAZ4090-TR; VITYAZ4104-TR; VITYAZ4191-TR; VITYAZ4199-TR; VITYAZ4217-TR; VITYAZ4221-TR; VITYAZ4239-PH; VITYAZ4239-TR; VITYAZ4245-GR; VITYAZ4249-PH; VITYAZ4249-TR; VITYAZ4261-PH; VITYAZ4265-TR; VITYAZ4273-GR-1; VITYAZ4273-PH; VITYAZ4273-TR; VITYAZ4279-PH; VITYAZ4279-TR; VITYAZ4281-TR; VITYAZ4285-GR-1; VITYAZ4285-PH; VITYAZ4289-GR-1; VITYAZ4289-TR; Vityaz-43; VITYAZ4309-TR; VITYAZ4320-TR; VITYAZ4331-GR-1; VITYAZ4343-GR-1; VITYAZ4347-GR-1; VITYAZ4347-PH; VITYAZ4351-GR; VITYAZ4355-GR; VITYAZ4359-GR-1; VITYAZ4359-PH; VITYAZ4362-GR-1; VITYAZ4370-PH; VITYAZ4370-TR; Vityaz-48; VITYAZ5066-GR; VITYAZ5066-TR; VITYAZ5074-PH; VITYAZ5074-TR; VITYAZ5096-PH; VITYAZ5100-GR-1; VITYAZ5110-GR-1; VITYAZ5112-GR; VITYAZ5114-GR; VITYAZ5124-TR; VITYAZ5126-GR-1; VITYAZ5128-TR; VITYAZ5129-GR-1; VITYAZ5133-TR; VITYAZ5139-GR-1; VITYAZ5159-TR; VITYAZ5163-GR-1; VITYAZ5398-GR-1; VITYAZ5408-GR-1; VITYAZ5409-GR-1; VITYAZ5410-GR-1; VITYAZ5411-GR-1; VITYAZ5412-DR; VITYAZ5414-GR-1; VITYAZ5420-GR-1; VITYAZ5421-GR-1; VITYAZ5422-GR-1; VITYAZ5423-GR-1; VITYAZ5424-GR; VITYAZ5429-GR-1; VITYAZ5432-GR-1; VITYAZ5437-GR; VITYAZ5505-GR; VITYAZ5937A-GR; VITYAZ5937-GR; VITYAZ5955; VITYAZ5958-GR; VITYAZ5959-GR; VITYAZ5960-GR; VITYAZ5960-PH; VITYAZ5962-GR; VITYAZ5962-PH; VITYAZ5963-GC; VITYAZ5964-GR; VITYAZ5965-0-GR; VITYAZ5965-10-GR-1; VITYAZ5965-1-GR; VITYAZ5965-2-GC; VITYAZ5965-3-GR; VITYAZ5965-3-TR; VITYAZ5965-5-GR; VITYAZ5965-6-GC; VITYAZ5966-GR; VITYAZ5966-PH; VITYAZ5968-14-DR; VITYAZ5968-15-DR; VITYAZ5968-18-GC; VITYAZ5968-1-GR; VITYAZ5968-2-GC; VITYAZ5968-3-GR; VITYAZ5968-4-GR; VITYAZ5968-7-TR; VITYAZ5968-9-GR; VITYAZ5970-GR; VITYAZ5971-GR; VITYAZ5972-TR; VITYAZ5975-GR; VITYAZ5975-PH; VITYAZ5977-PH; VITYAZ5982-GR; VITYAZ5982-PH; VITYAZ5983-GR; VITYAZ5983-PH; VITYAZ5984-GR; VITYAZ5984-PH; VITYAZ5987-GR; VITYAZ5988-11-GR; VITYAZ5988-12-GR; VITYAZ5988-13-GR; VITYAZ5988-14-GC; VITYAZ5988-16-GR; VITYAZ5988-19-TR; VITYAZ5988-20-GR; VITYAZ5988-21-GR; VITYAZ5988-22-GR; VITYAZ5988-24-GR; VITYAZ5988-25-GR; VITYAZ5988-2-GC; VITYAZ5988-4-TR; VITYAZ5988-5-GR; VITYAZ5988-7-GR; VITYAZ5988-9-GR; VITYAZ5993-GR; VITYAZ5995-GR; VITYAZ5996-10-GR; VITYAZ5996-11-TR; VITYAZ5996-13-GR; VITYAZ5996-15-GR; VITYAZ5996-17-GR; VITYAZ5996-18-GR; VITYAZ5996-1-GR; VITYAZ5996-20-GR; VITYAZ5996-22-GR; VITYAZ5996-24-GC; VITYAZ5996-25-GR; VITYAZ5996-2-TR; VITYAZ5996-4-GR; VITYAZ5996-6-GR; VITYAZ6000-GC; VITYAZ6002-11-GC; VITYAZ6002-12-DR; VITYAZ6002-17-GC; VITYAZ6002-20-GC; VITYAZ6002-21-DR; VITYAZ6002-24; VITYAZ6004-GC; VITYAZ6005-GC; VITYAZ6005-GR; VITYAZ6006-GR; VITYAZ6008; VITYAZ6009-GR; VITYAZ6011-GR; VITYAZ6012-GR; VITYAZ6013-GR; VITYAZ6014-GR; VITYAZ6015-GR; VITYAZ6015-PH; VITYAZ6015-TR; VITYAZ6016-GR; VITYAZ6017-DR; VITYAZ6165-GR-1; VITYAZ6167-GR; VITYAZ6168-GR; VITYAZ6172-GR; VITYAZ6174-GR; VITYAZ6177-GR; VITYAZ6243-GR; VITYAZ6255-GR; VITYAZ6256-GR; VITYAZ6257-GR; VITYAZ6264-GR; VITYAZ6265-DR; VITYAZ6267-GR; VITYAZ6270-DR; VITYAZ6272-GR; VITYAZ6273-GR; VITYAZ6275-11-GR; VITYAZ6275-15-TR; VITYAZ6275-2-TR; VITYAZ6275-3-GR; VITYAZ6275-5-GC; VITYAZ6275-8-TR; VITYAZ6277-3-GC; VITYAZ6277-4-TR; VITYAZ6297-TR; VITYAZ6298-10-GC; VITYAZ6298-12-GR; VITYAZ6298-13-TR; VITYAZ6298-14-GC; VITYAZ6298-18-GR; VITYAZ6298-19-GC; VITYAZ6298-1-GC; VITYAZ6298-20-TR; VITYAZ6298-24-TR; VITYAZ6298-26-GR; VITYAZ6298-28-GC; VITYAZ6298-2-GR; VITYAZ6298-30-TR; VITYAZ6298-31-GC; VITYAZ6298-33-GC; VITYAZ6298-34-GR; VITYAZ6298-35-TR; VITYAZ6298-36-GR; VITYAZ6298-37-TR; VITYAZ6298-40-TR; VITYAZ6298-42-GC; VITYAZ6298-43-GR; VITYAZ6298-45-GC; VITYAZ6298-46-GR; VITYAZ6298-47-GC; VITYAZ6298-48-GR; VITYAZ6298-49-GC; VITYAZ6298-50-GR; VITYAZ6298-51-GC; VITYAZ6298-52A-TR; VITYAZ6298-53-TR; VITYAZ6298-56-TR; VITYAZ6298-57-GC; VITYAZ6298-58; VITYAZ6298-62-TR; VITYAZ6298-7-TR; VITYAZ6298-8-GR; VITYAZ6298-9-GR; VITYAZ6299-TR; VITYAZ6300-TR; VITYAZ6307-TR; VITYAZ6331; VITYAZ6332-GR; VITYAZ6333-10-TR; VITYAZ6333-11-GR; VITYAZ6333-13-TR; VITYAZ6333-20; VITYAZ6333-22-GC; VITYAZ6333-23-TR; VITYAZ6333-26-GC; VITYAZ6333-2-TR; VITYAZ6333-3-GC; VITYAZ6333-5-GC; VITYAZ6333-7-GC; VITYAZ6333-8-GC; VITYAZ6334-GR; VITYAZ6335-GC; VITYAZ6339-GC; VITYAZ6343-TR; VITYAZ6344-TR; VITYAZ6348-TR; VITYAZ6352-TR; VITYAZ6356-TR; VITYAZ6358-TR; VITYAZ6359-TR; VITYAZ6360-TR; VITYAZ6364-TR; VITYAZ6365-TR; VITYAZ6366-DR; VITYAZ6367-DR; VITYAZ6368-DR; VITYAZ6369-DR; VITYAZ6405-PH; VITYAZ6408-PH; VITYAZ6704-GC; VITYAZ6706-DR; VITYAZ6817-GR; VITYAZ6818-TR; VITYAZ6819-TR; VITYAZ6821-GR; VITYAZ6822-DR; VITYAZ6824-GR; VITYAZ6825-GR; VITYAZ6826-GR; Vityaz Trench, Pacific Ocean
    Type: Dataset
    Format: application/zip, 14 datasets
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 2
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Winterer, Edward L; Riedel, William R; Moberly, Ralph; Resig, Johanna M; Kroenke, Loren W; Gealy, E L; Heath, G Ross; Bronnimann, P; Martini, E; Worsley, Thomas R (1971): Site 61. In: Winterer, E.L.; et al., Initial Reports of the Deep Sea Drilling Project, 7, Initial Reports of the Deep Sea Drilling Project, 7, U.S. Government Printing Office, VII, 27-47, https://doi.org/10.2973/dsdp.proc.7.103.1971
    Publication Date: 2023-08-28
    Description: The results at Site 59 suggested that Mesozoic sediments are present beneath a thin Tertiary cover in the region north of the Caroline Ridge near the Mariana Trench. Since one of the principal objectives of the drilling program was to find old Pacific crust, and since the section at Site 59 was not fully penetrated, it seemed worth a determined effort to go beyond the level reached at Site 59, somewhere in the same general area, in an attempt to reach basement. As the reflection profile taken by Argo (SCAN Leg V) through Site 59 shows the section above thesmooth basement reflector (Horizon B?) thinning northwestward from about 0.3 to 0.15 second, by loss of part of the lower "transparent" layer, this is were Site 61 was located.
    Keywords: 7-61; Comment; Deposit type; DEPTH, sediment/rock; Description; DRILL; Drilling/drill rig; Glomar Challenger; Identification; Leg7; NOAA and MMS Marine Minerals Geochemical Database; NOAA-MMS; North Pacific; Position; Quantity of deposit; Sample code/label; Sediment type; Substrate type; Visual description
    Type: Dataset
    Format: text/tab-separated-values, 9 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 3
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Winterer, Edward L; Riedel, William R; Moberly, Ralph; Resig, Johanna M; Kroenke, Loren W; Gealy, E L; Heath, G Ross; Bronnimann, P; Martini, E; Worsley, Thomas R (1971): Site 63. In: Winterer, E.L.; et al., Initial Reports of the Deep Sea Drilling Project, 7, Initial Reports of the Deep Sea Drilling Project, 7, U.S. Government Printing Office, VII, 323-472, https://doi.org/10.2973/dsdp.proc.7.105.1971
    Publication Date: 2023-08-28
    Description: The sedimentary section at Site 62 on Eauripik Ridge can be traced eastward into the East Caroline Basin. It was decided to drill a hole to basement in the eastern part of East Caroline Basin to determine the age of the upper strong reflectors and to test the hypothesis that sediments older than any at Site 62 are present. A nearly complete section was obtained from middle Oligocene to Quaternary, unconformably overlying basalt containing middle Oligocene chalk xenoliths. The sediments consist of chalk and chalk ooze in the Oligocene and Miocene, and of marl ooze and calcareous clay in the Pliocene and Quaternary.
    Keywords: 7-63; 7-63A; 7-63B; Comment; Deep Sea Drilling Project; Deposit type; DEPTH, sediment/rock; Description; DRILL; Drilling/drill rig; DSDP; Event label; Glomar Challenger; Identification; Leg7; NOAA and MMS Marine Minerals Geochemical Database; NOAA-MMS; North Pacific/BASIN; Position; Quantity of deposit; Sample code/label; Sediment type; Substrate type; Visual description
    Type: Dataset
    Format: text/tab-separated-values, 33 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 4
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Winterer, Edward L; Riedel, William R; Moberly, Ralph; Resig, Johanna M; Kroenke, Loren W; Gealy, E L; Heath, G Ross; Bronnimann, P; Martini, E; Worsley, Thomas R (1971): Site 67. In: Winterer, E.L.; et al., Initial Reports of the Deep Sea Drilling Project, 7, Initial Reports of the Deep Sea Drilling Project, 7, U.S. Government Printing Office, VII, 821-841, https://doi.org/10.2973/dsdp.proc.7.109.1971
    Publication Date: 2023-08-28
    Description: Site 67 is on the Hawaiian Arch, in the general region selected for one of the Mohole Project sites. Therefore, intensive geophysical surveys have been made in the area. The objectives were to penetrate the entire sedimentary sequence to basement in order to learn the petrology and ages of the sediments and of the seismic reflectors, and to obtain samples of the underlying basement rocks. Well consolidated and bedded volcanic sandstone and mudstone, and claystone were found to extend from the sea floor to a depth of 60 meters, where a layer of hard brown porcelanite stopped the bit. Displaced radiolarians in mud from a core at 60 meters indicate sediments of early Eocene or late Paleocene age are present somewhere above that depth.
    Keywords: 7-67; 7-67A; Comment; Deep Sea Drilling Project; Deposit type; DEPTH, sediment/rock; Description; DRILL; Drilling/drill rig; DSDP; Event label; Glomar Challenger; Identification; Leg7; NOAA and MMS Marine Minerals Geochemical Database; NOAA-MMS; North Pacific; Position; Quantity of deposit; Sample code/label; Sediment type; Visual description
    Type: Dataset
    Format: text/tab-separated-values, 15 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 5
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Winterer, Edward L; Riedel, William R; Moberly, Ralph; Resig, Johanna M; Kroenke, Loren W; Gealy, E L; Heath, G Ross; Bronnimann, P; Martini, E; Worsley, Thomas R (1971): Site 65. In: Winterer, E.L.; et al., Initial Reports of the Deep Sea Drilling Project, 7, Initial Reports of the Deep Sea Drilling Project, 7, U.S. Government Printing Office, VII, 607-723, https://doi.org/10.2973/dsdp.proc.7.107.1971
    Publication Date: 2023-08-28
    Description: An acoustically very transparent layer is present over much of the deep basin—here termed the Central Basin—between the Gilbert and Marshall Islands on the west and the Line Islands on the east. The Pacific Panel recommended drilling in this region to sample at least the upper transparent layer, and the first opaque layer beneath. Several possible sites were considered by the panel and by the shipboard party. Of paramount importance in choosing a particular site was a concern that sufficient sediments be present to bury the bottom-hole assembly (the drill collars and bumper subs) before the bit struck hard rock. A set of nearly continuous cores of an apparently uninterrupted section of radiolarian ooze ranging in age from middle Eocene to Recent was obtained, but the bit did not reach the deepest seismic reflector. Below depths of 127 meters, in the Oligocene and Eocene, thin chert and turbidite beds are sparsely interbedded with ooze.
    Keywords: 7-65; 7-65A; Comment; Deep Sea Drilling Project; Deposit type; DEPTH, sediment/rock; Description; DRILL; Drilling/drill rig; DSDP; Event label; Glomar Challenger; Identification; Leg7; NOAA and MMS Marine Minerals Geochemical Database; NOAA-MMS; North Pacific/BASIN; Position; Quantity of deposit; Sample code/label; Sediment type; Substrate type; Visual description
    Type: Dataset
    Format: text/tab-separated-values, 41 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 6
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Winterer, Edward L; Riedel, William R; Moberly, Ralph; Resig, Johanna M; Kroenke, Loren W; Gealy, E L; Heath, G Ross; Bronnimann, P; Martini, E; Worsley, Thomas R (1971): Site 66. In: Winterer, E.L.; et al., Initial Reports of the Deep Sea Drilling Project, Initial Reports of the Deep Sea Drilling Project, U.S. Government Printing Office, VII, 725-819, https://doi.org/10.2973/dsdp.proc.7.108.1971
    Publication Date: 2023-08-28
    Description: One of the principal objectives in the Central Pacific Basin was to elucidate the Paleobathymetric history of the region, which is located amidst groups of atolls and guyots that have subsided as much as 2 kilometers since mid-Cretaceous times. After failure to penetrate the entire sedimentary section and to sample basement at Site 65, on the west side of the Central Basin another site in the Basin where basement rocks might be sampled was searched. Likely places were known from unpublished reflection profiles on the east side of the Basin near the Line Islands by the Hawaii Institute of Geophysics. Finally it was decided to drill a transparent section once again in this area acoiding turbidites formations.
    Keywords: 7-66; 7-66A; Comment; Deep Sea Drilling Project; Deposit type; DEPTH, sediment/rock; Description; DRILL; Drilling/drill rig; DSDP; Event label; Glomar Challenger; Identification; Leg7; NOAA and MMS Marine Minerals Geochemical Database; NOAA-MMS; North Pacific/BASIN; Position; Quantity of deposit; Sample code/label; Sediment type; Substrate type; Visual description
    Type: Dataset
    Format: text/tab-separated-values, 67 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 7
    Publication Date: 2023-08-28
    Keywords: AK4-225-TR; AK4-230-GR; AK4-231-GR; AK4-232-GR; AK4-233-TR; AK4-259-GR; AK4-261-GR; Akademik Kurchatov; AKU4; Archive of Ocean Data; ARCOD; Atomic absorption spectrometry (AAS); Calculated; Central Basin, Pacific Ocean; Central Pacific Seamounts, Pacific Ocean; Cobalt; Comment; Copper; DM8; DM8-516-GR; DM8-520-GR; DM8-521-TR; DM8-554-GR; DM8-556-GR; DM8-568-GR; DM8-599-GR; DM8-607-GR; DM8-608-GR; Dmitry Mendeleev; Dredge; DRG; Eastern Basin, Pacific Ocean; Elevation of event; Elevation of event 2; Equatorial Pacific; Event label; GC; Grab; GRAB; Gravity corer; Iron; Latitude of event; Lead; Longitude of event; Manganese; Manganese/Iron ratio; Manihiki Plateau, Pacific Ocean; Marcus-Necker Ridge; Mariana Basin, Pacific Ocean; MULT; Multiple investigations; Nickel; NOAA and MMS Marine Minerals Geochemical Database; NOAA-MMS; Northwestern Basin, Pacific Ocean; OKEAN; Okean Grab; Sample type; Southeast Pacific; Southern Basin, Pacific Ocean; Titanium; TRAWL; Trawl net; VITYAZ; Vityaz (ex-Mars); Vityaz-20; Vityaz-25; Vityaz-29; VITYAZ3150-TR; VITYAZ3151-TR; VITYAZ3233-GC-2; Vityaz-34; VITYAZ3631-GR-1; VITYAZ3729-GC-1; VITYAZ3782-TR; VITYAZ3787-TR; VITYAZ3802-TR; VITYAZ3871-GR-1; VITYAZ3899-GR-1; VITYAZ3996-TR; VITYAZ4009-TR; VITYAZ4074-TR; VITYAZ4084-GR-1; VITYAZ4090-TR; VITYAZ4104-TR; VITYAZ4191-TR; VITYAZ4199-TR; VITYAZ4217-TR; VITYAZ4221-TR; VITYAZ4239-TR; VITYAZ4245-GR; VITYAZ4249-TR; VITYAZ4265-TR; VITYAZ4273-TR; VITYAZ4279-TR; VITYAZ4281-TR; VITYAZ4289-TR; Vityaz-43; VITYAZ4309-TR; VITYAZ4320-TR; VITYAZ4331-GR-1; VITYAZ4347-GR-1; VITYAZ4351-GR; VITYAZ4359-GR-1; VITYAZ4362-GR-1; VITYAZ4370-TR; Vityaz-48; VITYAZ5066-TR; VITYAZ5074-TR; VITYAZ5100-GR-1; VITYAZ5110-GR-1; VITYAZ5112-GR; VITYAZ5114-GR; VITYAZ5124-TR; VITYAZ5126-GR-1; VITYAZ5128-TR; VITYAZ5133-TR; VITYAZ5139-GR-1; VITYAZ5159-TR; VITYAZ5163-GR-1; VITYAZ5398-GR-1; VITYAZ5408-GR-1; VITYAZ5409-GR-1; VITYAZ5410-GR-1; VITYAZ5411-GR-1; VITYAZ5412-DR; VITYAZ5414-GR-1; VITYAZ5420-GR-1; VITYAZ5422-GR-1; VITYAZ5423-GR-1; VITYAZ5429-GR-1; VITYAZ5432-GR-1; VITYAZ5437-GR; VITYAZ5937A-GR; VITYAZ5937-GR; VITYAZ5955; VITYAZ5958-GR; VITYAZ5959-GR; VITYAZ5960-GR; VITYAZ5962-GR; VITYAZ5963-GC; VITYAZ5965-10-GR-1; VITYAZ5965-1-GR; VITYAZ5965-2-GC; VITYAZ5965-3-TR; VITYAZ5965-5-GR; VITYAZ5965-6-GC; VITYAZ5966-GR; VITYAZ5968-14-DR; VITYAZ5968-15-DR; VITYAZ5968-18-GC; VITYAZ5968-1-GR; VITYAZ5968-2-GC; VITYAZ5968-3-GR; VITYAZ5968-4-GR; VITYAZ5968-7-TR; VITYAZ5968-9-GR; VITYAZ5970-GR; VITYAZ5971-GR; VITYAZ5972-TR; VITYAZ5975-GR; VITYAZ5982-GR; VITYAZ5987-GR; VITYAZ5988-11-GR; VITYAZ5988-12-GR; VITYAZ5988-13-GR; VITYAZ5988-14-GC; VITYAZ5988-16-GR; VITYAZ5988-19-TR; VITYAZ5988-20-GR; VITYAZ5988-21-GR; VITYAZ5988-22-GR; VITYAZ5988-24-GR; VITYAZ5988-25-GR; VITYAZ5988-2-GC; VITYAZ5988-4-TR; VITYAZ5988-5-GR; VITYAZ5988-7-GR; VITYAZ5988-9-GR; VITYAZ5993-GR; VITYAZ5996-10-GR; VITYAZ5996-11-TR; VITYAZ5996-13-GR; VITYAZ5996-15-GR; VITYAZ5996-17-GR; VITYAZ5996-18-GR; VITYAZ5996-1-GR; VITYAZ5996-20-GR; VITYAZ5996-22-GR; VITYAZ5996-24-GC; VITYAZ5996-25-GR; VITYAZ5996-2-TR; VITYAZ5996-4-GR; VITYAZ6000-GC; VITYAZ6002-11-GC; VITYAZ6002-12-DR; VITYAZ6002-17-GC; VITYAZ6002-20-GC; VITYAZ6002-21-DR; VITYAZ6002-24; VITYAZ6004-GC; VITYAZ6005-GC; VITYAZ6006-GR; VITYAZ6009-GR; VITYAZ6011-GR; VITYAZ6012-GR; VITYAZ6013-GR; VITYAZ6014-GR; VITYAZ6015-TR; VITYAZ6016-GR; VITYAZ6017-DR; VITYAZ6255-GR; VITYAZ6256-GR; VITYAZ6257-GR; VITYAZ6264-GR; VITYAZ6265-DR; VITYAZ6267-GR; VITYAZ6270-DR; VITYAZ6272-GR; VITYAZ6273-GR; VITYAZ6275-11-GR; VITYAZ6275-15-TR; VITYAZ6275-2-TR; VITYAZ6275-3-GR; VITYAZ6275-5-GC; VITYAZ6275-8-TR; VITYAZ6277-3-GC; VITYAZ6277-4-TR; VITYAZ6297-TR; VITYAZ6298-10-GC; VITYAZ6298-12-GR; VITYAZ6298-13-TR; VITYAZ6298-14-GC; VITYAZ6298-18-GR; VITYAZ6298-19-GC; VITYAZ6298-1-GC; VITYAZ6298-20-TR; VITYAZ6298-24-TR; VITYAZ6298-26-GR; VITYAZ6298-28-GC; VITYAZ6298-31-GC; VITYAZ6298-33-GC; VITYAZ6298-34-GR; VITYAZ6298-35-TR; VITYAZ6298-36-GR; VITYAZ6298-37-TR; VITYAZ6298-40-TR; VITYAZ6298-42-GC; VITYAZ6298-43-GR; VITYAZ6298-45-GC; VITYAZ6298-46-GR; VITYAZ6298-47-GC; VITYAZ6298-48-GR; VITYAZ6298-49-GC; VITYAZ6298-51-GC; VITYAZ6298-52A-TR; VITYAZ6298-53-TR; VITYAZ6298-56-TR; VITYAZ6298-57-GC; VITYAZ6298-58; VITYAZ6298-7-TR; VITYAZ6298-9-GR; VITYAZ6299-TR; VITYAZ6300-TR; VITYAZ6307-TR; VITYAZ6331; VITYAZ6332-GR; VITYAZ6333-10-TR; VITYAZ6333-11-GR; VITYAZ6333-13-TR; VITYAZ6333-20; VITYAZ6333-22-GC; VITYAZ6333-23-TR; VITYAZ6333-26-GC; VITYAZ6333-2-TR; VITYAZ6333-3-GC; VITYAZ6333-5-GC; VITYAZ6333-7-GC; VITYAZ6333-8-GC; VITYAZ6334-GR; VITYAZ6335-GC; VITYAZ6339-GC; VITYAZ6343-TR; VITYAZ6344-TR; VITYAZ6348-TR; VITYAZ6352-TR; VITYAZ6356-TR; VITYAZ6358-TR; VITYAZ6359-TR; VITYAZ6360-TR; VITYAZ6364-TR; VITYAZ6365-TR; VITYAZ6366-DR; VITYAZ6367-DR; VITYAZ6368-DR; VITYAZ6369-DR; VITYAZ6704-GC; VITYAZ6706-DR; VITYAZ6817-GR; VITYAZ6818-TR; VITYAZ6819-TR; VITYAZ6821-GR; VITYAZ6822-DR; VITYAZ6824-GR; VITYAZ6825-GR; VITYAZ6826-GR; Zinc
    Type: Dataset
    Format: text/tab-separated-values, 2676 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 8
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Stokking, Laura B; Merrill, Dean L; Haston, Roger B; Ali, Jason Richard; Saboda, Kristine L (1992): Rock magnetic studies of serpentinite seamounts in the Mariana and Izu-Bonin regions. In: Fryer, P; Pearce, JA; Stokking, LB; et al. (eds.), Proceedings of the Ocean Drilling Program, Scientific Results, College Station, TX (Ocean Drilling Program), 125, 561-579, https://doi.org/10.2973/odp.proc.sr.125.158.1992
    Publication Date: 2024-01-09
    Description: During Leg 125, scientists drilled two serpentinite seamounts: Conical Seamount in the Mariana forearc and Torishima Forearc Seamount in the Izu-Bonin forearc. Grain densities of the serpentinized peridotites range from 2.44 to 3.02 g/cm**3. The NRM intensity of the serpentinized peridotites ranges from 0.01 to 0.59 A/m and that of serpentine sediments ranges from 0.01 to 0.43 A/m. Volume susceptibilities of serpentinized peridotites range from 0.05 * 10**-3 SI to 9.78 * 10**-3 SI and from 0.12 * 10**-3 to 4.34 * 10**-3 SI in the sediments. Koenigsberger ratios, a measure of the relative contributions of remanent vs. induced magnetization to the magnetic anomaly, vary from 0.09 to 80.93 in the serpentinites and from 0.06 to 4.74 in the sediments. The AF demagnetization behavior of the serpentinized peridotites shows that a single component of remanence (probably a chemical remanence carried by secondary magnetite) can be isolated in many samples that have a median destructive field less than 9.5 mT. Multiple remanence components are observed in other samples. Serpentine sediments exhibit similar behavior. Comparison of the AF demagnetization of saturation isothermal remanence and NRM suggests that the serpentinized peridotites contain both single-domain and multidomain magnetite particles. The variability of the magnetic properties of serpentinized peridotites reflects the complexity of magnetization acquired during serpentinization. Serpentinized peridotites may contribute to magnetic anomalies in forearc regions.
    Keywords: 125-778A; 125-779A; 125-780C; 125-784A; DRILL; Drilling/drill rig; Joides Resolution; Leg125; North Pacific Ocean; Ocean Drilling Program; ODP
    Type: Dataset
    Format: application/zip, 2 datasets
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 9
    facet.materialart.
    Unknown
    PANGAEA
    In:  Supplement to: Watts, Keith F; Varga, L L; Feary, David A (1993): Origins, timing, and implications of Miocene to Pleistocene turbidites, debris flows, and slump deposits of the Queensland Trough, northeastern Australia (Site 823). In: McKenzie, JA; Davies, PJ; Palmer-Julson, A; et al. (eds.), Proceedings of the Ocean Drilling Program, Scientific Results, College Station, TX (Ocean Drilling Program), 133, 379-445, https://doi.org/10.2973/odp.proc.sr.133.248.1993
    Publication Date: 2024-01-09
    Description: More than 2000 turbidite, debris-flow, and slump deposits recovered at Site 823 record the history of the Queensland Trough since the middle Miocene and provide new insights about turbidites, debris flow, and slump deposits (herein termed gravity deposits). Changes in the composition and nature of gravity deposits through time can be related to tectonic movements, fluctuations in eustatic sea level, and sedimentological factors. The Queensland Trough is a long, relatively narrow, structural depression that formed as a result of Cretaceous to Tertiary rifting of the northeastern Australia continental margin. Thus, tectonics established the geometry of this marginal basin, and its steep slopes set the stage for repeated slope failures. Seismic data indicate that renewed faulting, subsidence, and associated tectonic tilting occurred during the early late Miocene (continuing into the early Pliocene), resulting in unstable slopes that were prone to slope failures and to generation of gravity deposits. Tectonic subsidence, together with a second-order eustatic highstand, resulted in platform drowning during the late Miocene. The composition of turbidites reflects their origin and provides insights about the nature of sedimentation on adjacent shelf areas. During relative highstands and times of platform drowning, planktonic foraminifers were reworked from slopes and/or drowned shelves and were redeposited in turbidites. During relative lowstands, quartz and other terrigenous sediment was shed into the basin. Quartzose turbidites and clay-rich hemipelagic muds also can record increased supply of terrigenous sediment from mainland Australia. Limestone fragments were eroded from carbonate platforms until the drowned platforms were buried under hemipelagic sediments following the late Miocene drowning event. Bioclastic grains and neritic foraminifers were reworked from neritic shelves during relative lowstands. During the late Pliocene (2.6 Ma), the increased abundance of bioclasts and quartz in turbidites signaled the shallowing and rejuvenation of the northeastern Australia continental shelf. However, a one-for-one relationship cannot be recognized between eustatic sea-level fluctuations and any single sedimentologic parameter. Perhaps, tectonism and sedimentological factors along the Queensland Trough played an equally important role in generating gravity deposits. Turbidites and other gravity deposits (such as those at Site 823) do not necessarily represent submarine fan deposits, particularly if they are composed of hemipelagic sediments reworked from drowned platforms and slopes. When shelves are drowned and terrigenous sediment is not directly supplied by nearby rivers/point sources, muddy terrigenous sediments blanket the entire slope and basin, rather than forming localized fans. Slope failures affect the entire slope, rather than localized submarine canyons. Slopes may become destabilized as a result of tectonic activity, inherent sediment weaknesses, and/or during relative sea-level lowstands. For this reason, sediment deposits in this setting reflect tectonic and eustatic events that caused slope instabilities, rather than migration of different submarine fan facies.
    Keywords: Ocean Drilling Program; ODP
    Type: Dataset
    Format: application/zip, 4 datasets
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
  • 10
    Publication Date: 2024-01-09
    Keywords: 124-768C; 124-769B; 124-771A; Aluminium oxide; Calcium oxide; DRILL; Drilling/drill rig; DSDP/ODP/IODP sample designation; Electron microprobe (EMP); Elements, total; Event label; Iron oxide, Fe2O3; Joides Resolution; Laboratory; Leg124; Lithologic unit/sequence; Loss on ignition; Magnesium number; Magnesium oxide; Manganese oxide; Ocean Drilling Program; ODP; Phosphorus pentoxide; Potassium oxide; Rock type; Sample code/label; Silicon dioxide; Sodium oxide; Sulu Sea; Titanium dioxide
    Type: Dataset
    Format: text/tab-separated-values, 528 data points
    Location Call Number Expected Availability
    BibTip Others were also interested in ...
Close ⊗
This website uses cookies and the analysis tool Matomo. More information can be found here...