cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.17611/dp/18785368
title: Surface-Wave Radiation Patterns for February 16, 2021 MW 6.0 VANUATU ISLANDS
DOI: 10.17611/dp/18789466
title: Surface-Wave Radiation Patterns for February 17, 2021 MW 6.0 SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/18791195
title: Surface-Wave Radiation Patterns for February 18, 2021 MW 6.3 VANUATU ISLANDS
DOI: 10.17611/dp/18791847
title: Surface-Wave Radiation Patterns for February 18, 2021 MW 6.1 FIJI ISLANDS REGION
DOI: 10.17611/dp/18819874
title: Surface-Wave Radiation Patterns for March 03, 2021 MW 6.3 GREECE
DOI: 10.17611/dp/18821770
title: Surface-Wave Radiation Patterns for March 04, 2021 MW 7.2 OFF E. COAST OF N. ISLAND, N.Z.
DOI: 10.17611/dp/18822078
title: Surface-Wave Radiation Patterns for March 04, 2021 MW 6.2 VANUATU ISLANDS
DOI: 10.17611/dp/18822108
title: Surface-Wave Radiation Patterns for March 04, 2021 MW 7.4 KERMADEC ISLANDS, NEW ZEALAND
DOI: 10.17611/dp/18828968
title: Surface-Wave Radiation Patterns for March 05, 2021 MW 6.0 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18829004
title: Surface-Wave Radiation Patterns for March 05, 2021 MW 6.3 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18832028
title: Surface-Wave Radiation Patterns for March 04, 2021 MW 8.1 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18832099
title: Surface-Wave Radiation Patterns for March 04, 2021 MW 8.1 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18844641
title: Surface-Wave Radiation Patterns for March 06, 2021 MW 6.3 OFF E. COAST OF N. ISLAND, N.Z.
DOI: 10.17611/dp/18844671
title: Surface-Wave Radiation Patterns for March 06, 2021 MW 6.1 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18844796
title: Surface-Wave Radiation Patterns for March 06, 2021 MW 6.1 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18844826
title: Surface-Wave Radiation Patterns for March 06, 2021 MW 6.3 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18844856
title: Surface-Wave Radiation Patterns for March 06, 2021 MW 6.2 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18845003
title: Surface-Wave Radiation Patterns for March 04, 2021 MW 6.7 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18845033
title: Surface-Wave Radiation Patterns for March 05, 2021 MW 6.4 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18857237
title: Surface-Wave Radiation Patterns for March 12, 2021 MW 6.0 SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/18865647
title: Surface-Wave Radiation Patterns for March 13, 2021 MW 6.0 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/18865677
title: Surface-Wave Radiation Patterns for March 14, 2021 MW 6.0 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/18869511
title: Surface-Wave Radiation Patterns for March 16, 2021 MW 6.6 OFF EAST COAST OF KAMCHATKA
DOI: 10.17611/dp/18898514
title: Surface-Wave Radiation Patterns for March 18, 2021 MW 6.0 NORTHERN ALGERIA
DOI: 10.17611/dp/18904081
title: Surface-Wave Radiation Patterns for March 20, 2021 MW 6.0 WEST OF MACQUARIE ISLAND
DOI: 10.17611/dp/18904111
title: Surface-Wave Radiation Patterns for March 20, 2021 MW 7.1 NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/18929995
title: Surface-Wave Radiation Patterns for March 26, 2021 MW 6.0 NORTHEAST OF TAIWAN
DOI: 10.17611/dp/18937302
title: Surface-Wave Radiation Patterns for April 01, 2021 MW 6.4 KERMADEC ISLANDS, NEW ZEALAND
DOI: 10.17611/dp/18938444
title: Surface-Wave Radiation Patterns for April 01, 2021 MW 6.0 FIJI ISLANDS REGION
DOI: 10.1594/pangaea.895358
title: Stable hydrogen isotopes of sediment core MD96-2048
DOI: 10.1594/pangaea.982995
title: Light effects on the vertical positioning of the freshwater jellyfish (Craspedacusta sowerbii Lankester, 1880)

description: We experimentally manipulated the presence of light and light intensity (F = 36.7 μmol m⁻² s⁻¹; D = 0 μmol m⁻² s⁻¹; L = 4.8 μmol m⁻² s⁻¹; M = 21.4 μmol m⁻² s⁻¹) and tested their effects on the vertical positioning of the freshwater jellyfish (Craspedacusta sowerbii) medusae. For the experiments, approximately 100 C. sowerbii medusae were collected in August 2017 in two lakes (Haager Weiher and Leitner Weiher) in Bavaria, Germany. Testing was carried out at Seeon Limnological Station in close vicinity to the collection site. The experimental columns were 7.4 cm in diameter and 170 cm high and were marked with horizontal lines every 5 cm for visual position estimation. Four replicates run in parallel. One C. sowerbii medusa was used in each experimental column. Data cover three light treatments, each run twice: 1) 16:8 h full light (F)–dark (D) light intensity cycles (nF = 716, nD = 428), 2) 16:8 h full light (F)–full dark (D) light intensity cycles complemented with low (L) and medium (M) light intensities (nF = 96, nM = 96, nL = 48, nD = 288), and 3) altered light intensities in approximately 2-hour periods randomly among dark, low, medium, and full light intensities (nF = 96, nM = 76, nL = 72, nD = 336). Results show that light alone was sufficient to trigger a vertical position change of jellyfish towards the water surface, especially high light.
DOI: 10.17611/dp/18948853
title: Surface-Wave Radiation Patterns for April 03, 2021 MW 6.6 EAST OF SOUTH SANDWICH ISLANDS
DOI: 10.17611/dp/18948883
title: Surface-Wave Radiation Patterns for April 05, 2021 MW 6.1 OFF E. COAST OF N. ISLAND, N.Z.
DOI: 10.15468/dl.xj6gwh
title: Occurrence Download

description: A dataset containing 2401 species occurrences available in GBIF matching the query:
{
 "TaxonKey" : [
 "is Picea omorika"
 ]
}

 The dataset includes 2401 records from 168 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0027016-250811113504898/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.17611/dp/18952086
title: Surface-Wave Radiation Patterns for April 07, 2021 MW 6.1 KERMADEC ISLANDS REGION
DOI: 10.1594/pangaea.895357
title: Stable carbon isotopes of sediment core MD96-2048
DOI: 10.17611/dp/18956760
title: Surface-Wave Radiation Patterns for April 10, 2021 MW 6.0 JAVA, INDONESIA
DOI: 10.1594/pangaea.906317
title: Environmental indicators in surface sediments of Lake Bolshoe Toko, Yakutia, Russia

description: Here we present sedimentological, micro- and macropalaeontological, inorganic and organic geochemical, palaeomagnetic, and geochronological data as well as X-ray computer-tomography (CT) imagery obtained from successional drill cores 9R and 10R at MARUM-MeBo70 Site PS104_20-2 (73.57°S, 107.09°W; 946 m water depth). The site is located within the Pine Island cross-shelf trough in the Amundsen Sea Embayment (ASE), West Antarctica (Fig. 1a) and was part of RV Polarstern Expedition PS104 in 2017.
description: Supplement to: Biskaborn, Boris K; Nazarova, Larisa B; Pestryakova, Luidmila A; Syrykh, Luidmila S; Funck, Kim; Meyer, Hanno; Chapligin, Bernhard; Vyse, Stuart Andrew; Gorodnichev, Ruslan; Zakharov, Evgenii S; Wang, Rong; Schwamborn, Georg; Bailey, Hannah; Diekmann, Bernhard (2019): Spatial distribution of environmental indicators in surface sediments of Lake Bolshoe Toko, Yakutia, Russia. Biogeosciences, 16(20), 4023-4049
DOI: 10.17611/dp/18956790
title: Surface-Wave Radiation Patterns for April 10, 2021 MW 6.1 CELEBES SEA
DOI: 10.1594/pangaea.895364
title: Planulina wuellerstorfi δ¹⁸O analyses of sediment core MD96-2048
DOI: 10.17611/dp/18956820
title: Surface-Wave Radiation Patterns for April 10, 2021 MW 6.1 NEAR N COAST OF NEW GUINEA, PNG.
DOI: 10.1594/pangaea.937861
title: Offshore Mayotte Volcanic Plumbing Revealed by Local Passive Tomography: Seismic Data

description: A new submarine volcano has been discovered offshore Mayotte, a part of the Comoros volcanic archipelago located between Africa and Madagascar. Regarding this seismo-volcanic activity, a 3-D passive tomography was conducted, in order to determine the structure of the volcanic plumbing system (Foix et al., 2021). Using &gt; 3,000 earthquakes from an ongoing monitoring effort, and a 1D velocity model determined onboard, we jointly inverted for velocity structures, earthquake locations, origin times, and station corrections using LOTOS software . We are sharing here the 3-D P and S velocity models and 3-D output earthquake locations.
DOI: 10.17611/dp/18963198
title: Surface-Wave Radiation Patterns for April 19, 2021 MW 6.0 OFF W COAST OF NORTHERN SUMATRA
DOI: 10.17611/dp/18968850
title: Surface-Wave Radiation Patterns for April 24, 2021 MW 6.5 FIJI ISLANDS REGION
DOI: 10.17611/dp/18968880
title: Surface-Wave Radiation Patterns for April 25, 2021 MW 6.5 FIJI ISLANDS REGION
DOI: 10.17611/dp/18970018
title: Surface-Wave Radiation Patterns for April 27, 2021 MW 6.1 NEAR N COAST OF NEW GUINEA, PNG.
DOI: 10.1594/pangaea.780527
title: Distributions of the relative abundances of diatoms in sediment core PG1972-1 (09-Tik-03)

description: Investigator: Boris K. Biskaborn
DOI: 10.17611/dp/18972314
title: Surface-Wave Radiation Patterns for April 27, 2021 MW 6.0 KERMADEC ISLANDS REGION
DOI: 10.1594/pangaea.920580
title: Diel cycling of Arsenic and Antimony in the Macleay River in October 2016

description: Diel sampling was conducted in a small pool in Bakers Creek (Macleay River), immediately upstream from the confluence with the main Macleay River trunk channel during October 2016. At the time of sampling, the pool was shallow (&lt;0.7 m) and contained low-turbidity surface water overlying sandy-textured benthic sediments with abundant filamentous green algae (Spirogyra sp.) and a uniformly low flow (~0.01 m³/s). Water temperature, dissolved oxygen (DO), pH and redox potential were measured in situ at 5 minute intervals using a freshly calibrated EXO-2 multi-parameter sonde (YSI instruments). At each sampling interval (every 1.5-2 hrs), a 60 mL water sample was collected via a clean enclosed syringe and pre-cleaned PTFE tubing connected to a sampling port situated 0.1 m below the water surface and filtered immediately on-site (0.45 µm; enclosed syringe filter). Both syringe and tubing were pre-flushed (5x) prior to sample collection. Filtered aliquots were added to a 1,10-phenanthroline solution for subsequent photometric determination of Fe2+. Additional filtered sub-samples were collected and preserved for subsequent analysis of As3+ [via high performance liquid chromatography (HPLC; Perkin-Elmer Flexar) coupled with inductively coupled plasma mass spectrometry (ICP-MS; Perkin Elmer Nexion 350D), using a C18 (5 µm) column and mobile phase of 1 mM tetra-butyl ammonium hydroxide, 0.5 mM EDTA and 5% ethanol in de-ionized water (flow rate 1 mL min-1; 20 µL injection)] and Mn, Fe and Sb via ICP-MS.
DOI: 10.17611/dp/18972344
title: Surface-Wave Radiation Patterns for April 28, 2021 MW 6.0 NORTHEASTERN INDIA
DOI: 10.1594/pangaea.895360
title: Cyperaceae pollen percentages of sediment core MD96-2048
DOI: 10.17611/dp/18973502
title: Surface-Wave Radiation Patterns for April 29, 2021 MW 6.0 KERMADEC ISLANDS REGION
DOI: 10.1594/pangaea.776487
title: (Fig. 7) First and second axes of the principle component analysis, Hill's N2 diversity index, chrysophyte cysts to diatoms ratios, diatom valve concentrations and total planktonic diatoms in the PG1984 sediment core
DOI: 10.17611/dp/18976320
title: Surface-Wave Radiation Patterns for May 01, 2021 MW 6.9 NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/18987297
title: Surface-Wave Radiation Patterns for May 07, 2021 MW 6.0 WEST OF MACQUARIE ISLAND
DOI: 10.1594/pangaea.895361
title: XRF ln(Fe/Ca) record of sediment core MD96-2048
DOI: 10.1594/pangaea.895362
title: SST first principal component of sediment core MD96-2048
DOI: 10.17611/dp/18990478
title: Surface-Wave Radiation Patterns for May 07, 2021 MW 6.1 FIJI ISLANDS REGION
DOI: 10.17611/dp/18993510
title: Surface-Wave Radiation Patterns for May 12, 2021 MW 6.0 NEAR COAST OF GUATEMALA
DOI: 10.1594/pangaea.972905
title: Processed physical properties measured on sediment core MSM31_585-4_GKG

description: Sound knowledge about the petrophysical characteristics of a sediment core is a prerequisite for any subsequent paleoenvironmental study relying on sediment proxies. Physical properties of whole-round sediment cores are acquired as a first step of sediment core description, prior to slicing of sediment cores into two halves. Here, we present processed physical-properties data of core MSM31_585-4_GKG acquired with a Geotek MSCL-S system on the unsplit core, retrieved during RV Maria S. Merian expedition MSM31 to the northern Svalbard margin in summer 2013. Cores were processed according to the standard protocol given by the manufacturer Geotek Ltd.
DOI: 10.17611/dp/18993540
title: Surface-Wave Radiation Patterns for May 12, 2021 MW 6.6 MAURITIUS - REUNION REGION
DOI: 10.15468/dl.6q9uds
title: Occurrence Download

description: A dataset containing 0 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Cladonema uchidai",
 "Country is United States of America",
 "HasCoordinate is true"
 ]
}

 The dataset includes 0 records from 0 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0027017-250811113504898/datasets/export for details.
DOI: 10.17611/dp/18994783
title: Surface-Wave Radiation Patterns for May 13, 2021 MW 6.0 SOUTH OF PANAMA
DOI: 10.17611/dp/18996327
title: Surface-Wave Radiation Patterns for May 13, 2021 MW 6.0 NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.1594/pangaea.972907
title: Processed physical properties measured on sediment core MSM31_587-1_SL

description: Sound knowledge about the petrophysical characteristics of a sediment core is a prerequisite for any subsequent paleoenvironmental study relying on sediment proxies. Physical properties of whole-round sediment cores are acquired as a first step of sediment core description, prior to slicing of sediment cores into two halves. Here, we present processed physical-properties data of core MSM31_587-1_SL acquired with a Geotek MSCL-S system on the unsplit core, retrieved during RV Maria S. Merian expedition MSM31 to the northern Svalbard margin in summer 2013. Cores were processed according to the standard protocol given by the manufacturer Geotek Ltd.
DOI: 10.17611/dp/18996357
title: Surface-Wave Radiation Patterns for May 14, 2021 MW 6.7 OFF W COAST OF NORTHERN SUMATRA
DOI: 10.17611/dp/19001130
title: Surface-Wave Radiation Patterns for May 19, 2021 MW 6.7 SOUTHERN EAST PACIFIC RISE
DOI: 10.17611/dp/19004464
title: Surface-Wave Radiation Patterns for May 21, 2021 MW 7.4 QINGHAI, CHINA
DOI: 10.17611/dp/19004494
title: Surface-Wave Radiation Patterns for May 21, 2021 MW 6.4 FIJI ISLANDS REGION
DOI: 10.17611/dp/19067916
title: Surface-Wave Radiation Patterns for May 31, 2021 MW 6.1 CENTRAL ALASKA
DOI: 10.17611/dp/19081160
title: Surface-Wave Radiation Patterns for June 03, 2021 MW 6.2 NORTHERN MOLUCCA SEA
DOI: 10.17611/dp/19081190
title: Surface-Wave Radiation Patterns for June 04, 2021 MW 6.0 OFF COAST OF OREGON
DOI: 10.17611/dp/19099996
title: Surface-Wave Radiation Patterns for June 20, 2021 MW 6.5 KERMADEC ISLANDS, NEW ZEALAND
DOI: 10.17611/dp/19112232
title: Surface-Wave Radiation Patterns for July 02, 2021 MW 6.1 FIJI ISLANDS REGION
DOI: 10.17611/dp/19112262
title: Surface-Wave Radiation Patterns for July 04, 2021 MW 6.1 NEAR COAST OF CENTRAL CHILE
DOI: 10.17611/dp/19119726
title: Surface-Wave Radiation Patterns for July 08, 2021 MW 6.0 CALIFORNIA-NEVADA BORDER REGION
DOI: 10.17611/dp/19119756
title: Surface-Wave Radiation Patterns for July 10, 2021 MW 6.2 TALAUD ISLANDS, INDONESIA
DOI: 10.17611/dp/19126331
title: Surface-Wave Radiation Patterns for July 17, 2021 MW 6.2 SOUTH OF PANAMA
DOI: 10.17611/dp/19128993
title: Surface-Wave Radiation Patterns for July 21, 2021 MW 6.1 BISMARCK SEA
DOI: 10.17611/dp/19129023
title: Surface-Wave Radiation Patterns for July 21, 2021 MW 6.7 SOUTH OF PANAMA
DOI: 10.17611/dp/19191621
title: Surface-Wave Radiation Patterns for July 23, 2021 MW 6.6 MINDORO, PHILIPPINES
DOI: 10.17611/dp/19191651
title: Surface-Wave Radiation Patterns for July 24, 2021 MW 6.1 KERMADEC ISLANDS REGION
DOI: 10.17611/dp/19191681
title: Surface-Wave Radiation Patterns for July 26, 2021 MW 6.2 MINAHASSA PENINSULA, SULAWESI
DOI: 10.17611/dp/19194420
title: Surface-Wave Radiation Patterns for July 29, 2021 MW 8.2 ALASKA PENINSULA
DOI: 10.17611/dp/19210668
title: Surface-Wave Radiation Patterns for July 30, 2021 MW 6.2 NEAR COAST OF NORTHERN PERU
DOI: 10.17611/dp/19210698
title: Surface-Wave Radiation Patterns for August 02, 2021 MW 6.0 IRIAN JAYA REGION, INDONESIA
DOI: 10.17611/dp/19213633
title: Surface-Wave Radiation Patterns for August 02, 2021 MW 6.1 SOUTHERN SUMATRA, INDONESIA
DOI: 10.1594/pangaea.983709
title: Project Deep OCean Test ARray DOCTAR (OBS part): DEPAS ocean-bottom seismometer operations near the Gloria Fault in 2011-2012

description: This is the first deployment of a teleseismic broadband array consisting of 12 three-component broadband ocean-bottom seismometer (OBS) from the German Instrument Pool of Amphibian Seismology (DEPAS) with an aperture of about 50 km in the deep ocean in about 5000 m water depth. The data can be compared with two other deployments on Madeira and in western Portugal mainland which had similar array layouts and recording time spans (network Y7). The broadband data enable furthermore analysis of the crust and upper mantle beneath the array near to the Gloria fault, a major transform fault in the North Atlantic. Recordings of numerous local and regional earthquakes make a precise location of active structures possible. Waveform data is available from the GEOFON data centre, under network code 3J.
DOI: 10.17611/dp/19213663
title: Surface-Wave Radiation Patterns for August 03, 2021 MW 6.1 NICOBAR ISLANDS, INDIA REGION
DOI: 10.17611/dp/19238156
title: Surface-Wave Radiation Patterns for August 11, 2021 MW 7.1 PHILIPPINE ISLANDS REGION
DOI: 10.1594/pangaea.983719
title: Project NEAREST: DEPAS ocean-bottom seismometer operations in the Gulf of Cadiz in 2007-2008

description: The NEARESTproject (Integrated observations from NEAR shore sourcES of Tsunamis: towards an early warning system) aimed at the identification and characterization of potential near-shore sources of tsunamis in the Gulf of Cadiz. This area is well known from the catastrophic earthquake and tsunami that destroyed Lisbon and several other places mainly along the EastAtlantic coast on November 1st, 1755. One of the project's work packages dealed with monitoring of recent seismic activity in the Gulf of Cadiz area. For this purpose 24 broadband ocean-bottom seismometers (OBS) from the German DEPAS instrument pool were deployed for 11 months in addition to the GEOSTAR multi-parameter deep-sea observatory and temporary land stations in Portugal. The GEOSTAR observatory and the 24 OBS were deployed and recovered during two expeditions with RV Urania in 2007 and 2008. The OBSs consist of three‐component Guralp CMG‐40T‐OBS seismometers and HighTech HTI‐04‐PCA/ULF hydrophones. A wide range of signals was recorded, including teleseismic, regional and local earthquakes, and low‐frequency (∼20 Hz) vocalization of fin whales. The GEOSTAR observatory was again deployed between 2009 and 2011. The Portuguese temporary land station PDRG was additionally recording during the NEAREST project. Originally, the position of recovery on deck was taken to calculate the mean coordinate of the OBS at depth from deployment and recovery coordinates. In most cases the difference in coordinates between deployment and recovery is very small (table 3 and 4 in Carrara et al., 2008). For two stations, the location at the seafloor could be measured by triangulation (Carrara et al., 2008). Due to experience of other experiments over the years, we finally suggest to use the deployment coordinates as the station coordinates for all stations that could not be tri-angulated. The clocks were synchronized with GPS time before the deployment and if possible again after the recovery. Unfortunately, most of the batteries were empty at the end of the recording period. That either made it impossible to realize the second synchronisation (skew time measurement) or in some case also caused erroneous synchronisations. Therefore, the internal clock drift was estimated by ambient noise analysis (Corela, 2014). The internal clock drifts were corrected using a linear interpolation method. Generally, the data quality is very good, especially for the intended study of local and regional earthquakes. Studies relying on wideband seismological recordings can also be carried out. The sensor package and noise conditions hamper the use for broadband and very broadband applications. Unfortunately, also not all channels operated properly, therefore hampering the use of multi-component methods for the relevant stations. We thank the captain E. Gentile, crew, G. Carrara, and all participants of the R/V URANIA expeditions in 2007 and 2008. We are grateful to all people and institutions involved in the NEAREST project.
DOI: 10.17611/dp/19242852
title: Surface-Wave Radiation Patterns for August 13, 2021 MW 6.1 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/19248103
title: Surface-Wave Radiation Patterns for August 14, 2021 MW 7.2 HAITI REGION
DOI: 10.17611/dp/19248307
title: Surface-Wave Radiation Patterns for August 14, 2021 MW 7.0 ALASKA PENINSULA
DOI: 10.17611/dp/19257237
title: Surface-Wave Radiation Patterns for August 16, 2021 MW 6.8 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/19260109
title: Surface-Wave Radiation Patterns for August 12, 2021 MW 8.3 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/19263649
title: Surface-Wave Radiation Patterns for August 17, 2021 MW 6.1 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/19263679
title: Surface-Wave Radiation Patterns for August 18, 2021 MW 6.9 VANUATU ISLANDS
DOI: 10.17611/dp/19276479
title: Surface-Wave Radiation Patterns for August 22, 2021 MW 6.7 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/19276509
title: Surface-Wave Radiation Patterns for August 22, 2021 MW 7.0 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/19280177
title: Surface-Wave Radiation Patterns for August 24, 2021 MW 6.0 KURIL ISLANDS
DOI: 10.17611/dp/19301214
title: Surface-Wave Radiation Patterns for August 31, 2021 MW 6.4 KERMADEC ISLANDS, NEW ZEALAND
DOI: 10.17611/dp/19317486
title: Surface-Wave Radiation Patterns for September 05, 2021 MW 6.0 TONGA ISLANDS REGION
DOI: 10.17611/dp/19317516
title: Surface-Wave Radiation Patterns for September 07, 2021 MW 6.0 FIJI ISLANDS REGION
DOI: 10.17611/dp/19317807
title: Surface-Wave Radiation Patterns for September 08, 2021 MW 7.0 GUERRERO, MEXICO
DOI: 10.17611/dp/19341442
title: Surface-Wave Radiation Patterns for September 13, 2021 MW 6.2 CHILE-ARGENTINA BORDER REGION
DOI: 10.17611/dp/19359940
title: Surface-Wave Radiation Patterns for September 20, 2021 MW 6.2 KURIL ISLANDS
DOI: 10.17611/dp/19361968
title: Surface-Wave Radiation Patterns for September 21, 2021 MW 6.4 OFF COAST OF CENTRAL CHILE
DOI: 10.17611/dp/19364755
title: Surface-Wave Radiation Patterns for September 22, 2021 MW 6.5 NEAR COAST OF NICARAGUA
DOI: 10.17611/dp/19394673
title: Surface-Wave Radiation Patterns for September 24, 2021 MW 6.2 ANDREANOF ISLANDS, ALEUTIAN IS.
DOI: 10.17611/dp/19424046
title: Surface-Wave Radiation Patterns for September 29, 2021 MW 6.2 SEA OF JAPAN
DOI: 10.17611/dp/19428378
title: Surface-Wave Radiation Patterns for October 02, 2021 MW 7.3 VANUATU ISLANDS REGION
DOI: 10.17611/dp/19428408
title: Surface-Wave Radiation Patterns for October 02, 2021 MW 6.0 MID-INDIAN RIDGE
DOI: 10.17611/dp/19435433
title: Surface-Wave Radiation Patterns for October 04, 2021 MW 6.2 SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/19445550
title: Surface-Wave Radiation Patterns for October 06, 2021 MW 6.0 PAKISTAN
DOI: 10.17611/dp/19452239
title: Surface-Wave Radiation Patterns for October 07, 2021 MW 6.0 NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/19452269
title: Surface-Wave Radiation Patterns for October 07, 2021 MW 6.0 MACQUARIE ISLAND REGION
DOI: 10.17611/dp/19458532
title: Surface-Wave Radiation Patterns for October 09, 2021 MW 6.9 VANUATU ISLANDS REGION
DOI: 10.17611/dp/19464970
title: Surface-Wave Radiation Patterns for October 11, 2021 MW 6.9 ALASKA PENINSULA
DOI: 10.17611/dp/19468193
title: Surface-Wave Radiation Patterns for October 12, 2021 MW 6.5 CRETE, GREECE
DOI: 10.34740/kaggle/dsv/12821861
title: Artist Datasets