cometadata/datacite-titles-descriptions-related-identifiers huggingface dataset:
DOI: 10.6084/m9.figshare.30002785.v1
title: Single-cell VIPER activity matrix (internal signature)

description: Single-cell protein activity was computed on the SCTransform-scaled and Anchor-Integrated gene expression signatures across metaCells by the metaVIPER function in the VIPER package (Bioconductor). Briefly, metaVIPER was developed as an adaptation of VIPER to single-cell data. Protein activity is inferred for a given gene expression signature using multiple networks which are integrated on a protein-by-protein basis using the square of the NES generated by each individual network. Since a non-relevant network would generate a protein activity score close to zero under the null model, networks that generate more extreme NES can be interpreted to more accurately match the given biological context and are thus weighted more heavily for each protein. VIPER-inferred protein activity was computed on the gene expression signatures of all the single cells using the gene expression cluster-based single-cell ARACNe networks, and on the gene expression signatures of the tumor compartment single cells using the six patient-specific tumor single-cell ARACNe networks. The VIPER matrix includes all significant Master Regulators (MR).
DOI: 10.17611/dp/20313595
title: Moment Tensor for March 26, 2022 MW 5.1 (GCMT) PHILIPPINE ISLANDS REGION
DOI: 10.17611/dp/20313601
title: Moment Tensor for March 26, 2022 MW 5.4 (GCMT) RYUKYU ISLANDS, JAPAN
DOI: 10.17611/dp/20313607
title: Moment Tensor for March 26, 2022 MW 4.8 (GCMT) PACIFIC-ANTARCTIC RIDGE
DOI: 10.17611/dp/20313613
title: Moment Tensor for March 26, 2022 MW 5.1 (GCMT) HOKKAIDO, JAPAN REGION
DOI: 10.17611/dp/20313619
title: Moment Tensor for March 27, 2022 MW 5.7 (GCMT) MID-INDIAN RIDGE
DOI: 10.17611/dp/20313625
title: Moment Tensor for March 27, 2022 MW 5.2 (GCMT) OFF COAST OF OREGON
DOI: 10.17611/dp/20313631
title: Moment Tensor for March 27, 2022 MW 5.8 (GCMT) NEAR COAST OF ECUADOR
DOI: 10.17611/dp/20313637
title: Moment Tensor for March 27, 2022 MW 5.2 (GCMT) NEAR COAST OF ECUADOR
DOI: 10.17611/dp/20313643
title: Moment Tensor for March 27, 2022 MW 4.9 (GCMT) NORTH OF ASCENSION ISLAND
DOI: 10.17611/dp/20313649
title: Moment Tensor for March 27, 2022 MW 4.8 (GCMT) OFF COAST OF JALISCO, MEXICO
DOI: 10.17611/dp/20313655
title: Moment Tensor for March 27, 2022 MW 5.4 (GCMT) NEAR COAST OF ECUADOR
DOI: 10.17611/dp/20313661
title: Moment Tensor for March 27, 2022 MW 4.9 (GCMT) NEAR COAST OF ECUADOR
DOI: 10.17611/dp/20313667
title: Moment Tensor for March 28, 2022 MW 5.3 (GCMT) NORTH OF HONDURAS
DOI: 10.17611/dp/20313673
title: Moment Tensor for March 28, 2022 MW 5.3 (GCMT) KERMADEC ISLANDS, NEW ZEALAND
DOI: 10.17611/dp/20313679
title: Moment Tensor for March 29, 2022 MW 5.0 (GCMT) VANUATU ISLANDS
DOI: 10.5281/zenodo.13318231
title: Rotifer World Catalog: Type data & habitat info

description: This is where EOL hosts source datasets (archives, dumps, etc.) from EOL content partners (especially partners without a web presence of their own).

This organization will also include the content partner utility files EOL connectors use to generate a particular content partner__s resource EOL archive or XML.

For questions or suggestions please visit the EOL Services forum at http://discuss.eol.org/c/eol-services
DOI: 10.5281/zenodo.16986787
title: Rotifer World Catalog: Type data & habitat info
DOI: 10.17611/dp/20313685
title: Moment Tensor for March 29, 2022 MW 5.2 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313691
title: Moment Tensor for March 29, 2022 MW 4.9 (GCMT) LUZON, PHILIPPINES
DOI: 10.17611/dp/20313697
title: Moment Tensor for March 29, 2022 MW 5.5 (GCMT) OFF COAST OF MICHOACAN, MEXICO
DOI: 10.17611/dp/20313703
title: Moment Tensor for March 29, 2022 MW 5.4 (GCMT) RYUKYU ISLANDS, JAPAN
DOI: 10.17611/dp/20313709
title: Moment Tensor for March 29, 2022 MW 5.0 (GCMT) RYUKYU ISLANDS, JAPAN
DOI: 10.17611/dp/20313715
title: Moment Tensor for March 13, 2022 MW 5.7 (GCMT) SOUTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/20313721
title: Moment Tensor for March 25, 2022 MW 5.0 (GCMT) QINGHAI, CHINA
DOI: 10.15468/dl.5ty4u8
title: Occurrence Download

description: A dataset containing 2502 species occurrences available in GBIF matching the query:
{
 "and" : [
 "TaxonKey is Vespula vulgaris",
 "Country is New Zealand",
 "HasCoordinate is true"
 ]
}

 The dataset includes 2502 records from 9 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0004464-250827131500795/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.17611/dp/20313727
title: Moment Tensor for March 29, 2022 MW 5.1 (GCMT) LUZON, PHILIPPINES
DOI: 10.17611/dp/20313733
title: Moment Tensor for March 30, 2022 MW 4.9 (GCMT) PACIFIC-ANTARCTIC RIDGE
DOI: 10.17611/dp/20313739
title: Moment Tensor for March 30, 2022 MW 4.9 (GCMT) SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/20313745
title: Moment Tensor for March 30, 2022 MW 5.1 (GCMT) SUNDA STRAIT, INDONESIA
DOI: 10.17611/dp/20313751
title: Moment Tensor for March 30, 2022 MW 5.4 (GCMT) OFF COAST OF CHIAPAS, MEXICO
DOI: 10.17611/dp/20313757
title: Moment Tensor for March 30, 2022 MW 6.8 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313763
title: Moment Tensor for March 30, 2022 MW 5.8 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313769
title: Moment Tensor for March 31, 2022 MW 6.0 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313775
title: Moment Tensor for March 31, 2022 MW 6.9 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313781
title: Moment Tensor for March 31, 2022 MW 5.9 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313787
title: Moment Tensor for March 31, 2022 MW 5.5 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313793
title: Moment Tensor for March 31, 2022 MW 5.3 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313799
title: Moment Tensor for March 31, 2022 MW 5.3 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313805
title: Moment Tensor for March 31, 2022 MW 5.2 (GCMT) WEST CHILE RISE
DOI: 10.17611/dp/20313811
title: Moment Tensor for March 31, 2022 MW 5.1 (GCMT) KURIL ISLANDS
DOI: 10.17611/dp/20313817
title: Moment Tensor for March 31, 2022 MW 6.5 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20313823
title: Moment Tensor for March 31, 2022 MW 5.5 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.5281/zenodo.16986694
title: CR-submanifolds of a nearly quasi-Sasakian manifold with a connection,

description: The present paper deals with different geometrical properties of the CR-submanifold of a nearly Quasi Sasakian manifold, generalizing the results of a nearly Quasi Sasakian manifold and thus those of Sasakian manifolds with the quarter-symmetric metric connection. In the end, we studied the properties of the parallel distribution relating to 𝜉-vertical CR-submanifold of a nearly Quasi Sasakian manifold with quarter-symmetric metric connection.
DOI: 10.17611/dp/20315005
title: Moment Tensor for July 12, 2022 MW 6.7 (GCMT) EASTER ISLAND REGION
DOI: 10.17611/dp/20315011
title: Moment Tensor for July 12, 2022 MW 5.7 (GCMT) EASTER ISLAND REGION
DOI: 10.5281/zenodo.16986693
title: CR-submanifolds of a nearly quasi-Sasakian manifold with a connection,

description: The present paper deals with different geometrical properties of the CR-submanifold of a nearly Quasi Sasakian manifold, generalizing the results of a nearly Quasi Sasakian manifold and thus those of Sasakian manifolds with the quarter-symmetric metric connection. In the end, we studied the properties of the parallel distribution relating to 𝜉-vertical CR-submanifold of a nearly Quasi Sasakian manifold with quarter-symmetric metric connection.
DOI: 10.17611/dp/20315017
title: Moment Tensor for July 12, 2022 MW 5.5 (GCMT) SOUTHERN PERU
DOI: 10.17611/dp/20316758
title: Moment Tensor for July 14, 2022 MW 5.9 (GCMT) VANUATU ISLANDS
DOI: 10.17611/dp/20316764
title: Moment Tensor for July 14, 2022 MW 5.3 (GCMT) NEAR COAST OF VENEZUELA
DOI: 10.17611/dp/20316770
title: Moment Tensor for July 14, 2022 MW 5.7 (GCMT) NEAR COAST OF ECUADOR
DOI: 10.17611/dp/20317917
title: Moment Tensor for July 15, 2022 MW 6.4 (GCMT) OFF COAST OF SOUTHERN CHILE
DOI: 10.17611/dp/20317923
title: Moment Tensor for July 15, 2022 MW 5.6 (GCMT) SOUTH OF FIJI ISLANDS
DOI: 10.17611/dp/20319475
title: Moment Tensor for July 17, 2022 MW 5.6 (GCMT) EASTER ISLAND REGION
DOI: 10.17611/dp/20319481
title: Moment Tensor for July 18, 2022 MW 6.0 (GCMT) SVALBARD REGION
DOI: 10.17611/dp/20320269
title: Moment Tensor for July 19, 2022 MW 5.5 (GCMT) SOUTHERN SUMATRA, INDONESIA
DOI: 10.17611/dp/20321027
title: Moment Tensor for July 21, 2022 MW 5.9 (GCMT) MYANMAR-CHINA BORDER REGION
DOI: 10.17611/dp/20321781
title: Moment Tensor for July 22, 2022 MW 5.5 (GCMT) VANUATU ISLANDS
DOI: 10.17611/dp/20324023
title: Moment Tensor for July 23, 2022 MW 5.5 (GCMT) FLORES SEA
DOI: 10.17611/dp/20324029
title: Moment Tensor for July 23, 2022 MW 5.6 (GCMT) SOUTHERN IRAN
DOI: 10.17611/dp/20324035
title: Moment Tensor for July 25, 2022 MW 5.6 (GCMT) COLOMBIA-ECUADOR BORDER REGION
DOI: 10.17611/dp/20326172
title: Moment Tensor for July 27, 2022 MW 7.1 (GCMT) LUZON, PHILIPPINES
DOI: 10.6084/m9.figshare.29954564
title: Supplementary Data: On the mechanics of inhaled bronchial transmission of pathogenic microdroplets generated from the upper respiratory tract, with implications for downwind infection onset

description: Could the microdroplets formed by viscoelastic fragmentation of mucosal liquids within the upper respiratory tract (URT) explain the brisk onset of deep lung infection following initial URT infections? Generally, particulates, inhaled through the nostrils and therefore navigating the intricate topography of the anterior nasal cavity, can efficiently reach the lower airway only if they are small enough, typically &lt; 5 microns. However, the fate of larger particulates, many exceeding 5-micron in diameter, that are sheared from the initial infection sites along the intra-URT mucosa during inhalation remains unresolved. These particulates originate primarily from the nasopharynx, oropharynx, and the laryngeal chamber containing the vocal folds. To investigate, this study employs a computed tomography-based three-dimensional anatomical airway reconstruction, isolating the tract from the larynx and mapping the tracheal cavity through to the third generation of the tracheobronchial tree; constituent transport across the distal bronchial outlets is also recorded to assess deep lung penetration. Within the defined geometry, airflow simulations are conducted with the Large Eddy Simulation scheme to replicate relaxed inhalation at 15 L/min flow rate. Against the ambient air flux, numerical experiments are performed to monitor the transport of particulates (aerosols/droplets) with diameters 1-30 microns, bearing physical properties akin to aerosolized mucus with embedded virions. The full-scale numerical transmission trends, representatively validated against a small set of published experimental data, are consistent with findings from our reduced-order mathematical model that conceptualizes the influence of intra-airway vortex instabilities on local particle transport through point vortex idealization in an anatomy-guided two-dimensional potential flow domain. The results collectively demonstrate a markedly elevated lower airway penetration by URT-derived particulates, even by those as large as 10 and 15 microns. The high viral load, often exceeding the pathogen-specific infectious dose, carried by such droplets into the bronchial spaces of the sample airway, provides a plausible mechanistic explanation for the accelerated seeding of secondary lung infection.Uploaded by: Dr. Saikat Basu (Contact: Saikat.Basu@sdstate.edu)<br>Dated: August 28, 2025
DOI: 10.6084/m9.figshare.29954564.v3
title: Supplementary Data: On the mechanics of inhaled bronchial transmission of pathogenic microdroplets generated from the upper respiratory tract, with implications for downwind infection onset

description: Could the microdroplets formed by viscoelastic fragmentation of mucosal liquids within the upper respiratory tract (URT) explain the brisk onset of deep lung infection following initial URT infections? Generally, particulates, inhaled through the nostrils and therefore navigating the intricate topography of the anterior nasal cavity, can efficiently reach the lower airway only if they are small enough, typically &lt; 5 microns. However, the fate of larger particulates, many exceeding 5-micron in diameter, that are sheared from the initial infection sites along the intra-URT mucosa during inhalation remains unresolved. These particulates originate primarily from the nasopharynx, oropharynx, and the laryngeal chamber containing the vocal folds. To investigate, this study employs a computed tomography-based three-dimensional anatomical airway reconstruction, isolating the tract from the larynx and mapping the tracheal cavity through to the third generation of the tracheobronchial tree; constituent transport across the distal bronchial outlets is also recorded to assess deep lung penetration. Within the defined geometry, airflow simulations are conducted with the Large Eddy Simulation scheme to replicate relaxed inhalation at 15 L/min flow rate. Against the ambient air flux, numerical experiments are performed to monitor the transport of particulates (aerosols/droplets) with diameters 1-30 microns, bearing physical properties akin to aerosolized mucus with embedded virions. The full-scale numerical transmission trends are consistent with findings from our reduced-order mathematical model that conceptualizes the influence of intra-airway vortex instabilities on local particle transport through point vortex idealization in an anatomy-guided two-dimensional potential flow domain. The results collectively demonstrate a markedly elevated lower airway penetration by URT-derived particulates, even by those as large as 10 and 15 microns. The high viral load, often exceeding the pathogen-specific infectious dose, carried by such droplets into the bronchial spaces of the sample airway, provides a plausible mechanistic explanation for the accelerated seeding of secondary lung infection.Uploaded by: Dr. Saikat Basu (Contact: Saikat.Basu@sdstate.edu)<br>Dated: August 21, 2025
DOI: 10.6084/m9.figshare.29954564.v4
title: Supplementary Data: On the mechanics of inhaled bronchial transmission of pathogenic microdroplets generated from the upper respiratory tract, with implications for downwind infection onset

description: Could the microdroplets formed by viscoelastic fragmentation of mucosal liquids within the upper respiratory tract (URT) explain the brisk onset of deep lung infection following initial URT infections? Generally, particulates, inhaled through the nostrils and therefore navigating the intricate topography of the anterior nasal cavity, can efficiently reach the lower airway only if they are small enough, typically &lt; 5 microns. However, the fate of larger particulates, many exceeding 5-micron in diameter, that are sheared from the initial infection sites along the intra-URT mucosa during inhalation remains unresolved. These particulates originate primarily from the nasopharynx, oropharynx, and the laryngeal chamber containing the vocal folds. To investigate, this study employs a computed tomography-based three-dimensional anatomical airway reconstruction, isolating the tract from the larynx and mapping the tracheal cavity through to the third generation of the tracheobronchial tree; constituent transport across the distal bronchial outlets is also recorded to assess deep lung penetration. Within the defined geometry, airflow simulations are conducted with the Large Eddy Simulation scheme to replicate relaxed inhalation at 15 L/min flow rate. Against the ambient air flux, numerical experiments are performed to monitor the transport of particulates (aerosols/droplets) with diameters 1-30 microns, bearing physical properties akin to aerosolized mucus with embedded virions. The full-scale numerical transmission trends, representatively validated against a small set of published experimental data, are consistent with findings from our reduced-order mathematical model that conceptualizes the influence of intra-airway vortex instabilities on local particle transport through point vortex idealization in an anatomy-guided two-dimensional potential flow domain. The results collectively demonstrate a markedly elevated lower airway penetration by URT-derived particulates, even by those as large as 10 and 15 microns. The high viral load, often exceeding the pathogen-specific infectious dose, carried by such droplets into the bronchial spaces of the sample airway, provides a plausible mechanistic explanation for the accelerated seeding of secondary lung infection.Uploaded by: Dr. Saikat Basu (Contact: Saikat.Basu@sdstate.edu)<br>Dated: August 28, 2025
DOI: 10.17611/dp/20326430
title: Moment Tensor for July 27, 2022 MW 5.5 (GCMT) TONGA ISLANDS
DOI: 10.17611/dp/20327467
title: Moment Tensor for July 27, 2022 MW 5.8 (GCMT) SOUTH OF FIJI ISLANDS
DOI: 10.17611/dp/20356105
title: Moment Tensor for July 27, 2022 MW 5.6 (GCMT) KERMADEC ISLANDS REGION
DOI: 10.17611/dp/20356111
title: Moment Tensor for July 27, 2022 MW 6.2 (GCMT) NORTHERN CHILE
DOI: 10.15468/dl.7dey4p
title: Occurrence Download

description: A dataset containing 31631 species occurrences available in GBIF matching the query:
{
 "TaxonKey" : [
 "is Opuntia stricta"
 ]
}

 The dataset includes 31631 records from 204 constituent datasets; see https://api.gbif.org/v1/occurrence/download/0004465-250827131500795/datasets/export for details.
 
Data from some individual datasets included in this download may be licensed under less restrictive terms.
DOI: 10.17611/dp/20356117
title: Moment Tensor for July 28, 2022 MW 6.1 (GCMT) NEAR COAST OF NORTHERN CHILE
DOI: 10.17611/dp/20358880
title: Moment Tensor for July 28, 2022 MW 5.9 (GCMT) EASTERN NEW GUINEA REG., P.N.G.
DOI: 10.17611/dp/20366151
title: Moment Tensor for July 29, 2022 MW 5.5 (GCMT) RUSSIA-MONGOLIA BORDER REGION
DOI: 10.17611/dp/20366157
title: Moment Tensor for July 29, 2022 MW 5.6 (GCMT) OFF EAST COAST OF KAMCHATKA
DOI: 10.17611/dp/20369021
title: Moment Tensor for August 02, 2022 MW 5.4 (GCMT) MINDANAO, PHILIPPINES
DOI: 10.17611/dp/20369027
title: Moment Tensor for August 02, 2022 MW 5.7 (GCMT) FIJI ISLANDS REGION
DOI: 10.17611/dp/20371115
title: Moment Tensor for August 04, 2022 MW 5.8 (GCMT) SOUTHEAST OF HONSHU, JAPAN
DOI: 10.17611/dp/20373645
title: Moment Tensor for August 05, 2022 MW 5.8 (GCMT) KERMADEC ISLANDS, NEW ZEALAND
DOI: 10.17611/dp/20373686
title: Moment Tensor for April 01, 2022 MW 5.0 (GCMT) SOUTHEAST OF HONSHU, JAPAN
DOI: 10.17611/dp/20373692
title: Moment Tensor for April 01, 2022 MW 5.0 (GCMT) MINDANAO, PHILIPPINES
DOI: 10.17611/dp/20373698
title: Moment Tensor for April 01, 2022 MW 4.9 (GCMT) JAVA, INDONESIA
DOI: 10.17611/dp/20373704
title: Moment Tensor for April 01, 2022 MW 5.2 (GCMT) JAVA, INDONESIA
DOI: 10.17611/dp/20373710
title: Moment Tensor for April 01, 2022 MW 4.9 (GCMT) SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/20373716
title: Moment Tensor for April 01, 2022 MW 5.2 (GCMT) SAN JUAN PROVINCE, ARGENTINA
DOI: 10.17611/dp/20373722
title: Moment Tensor for April 01, 2022 MW 4.8 (GCMT) GREENLAND SEA
DOI: 10.17611/dp/20373728
title: Moment Tensor for April 01, 2022 MW 5.6 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20373734
title: Moment Tensor for April 01, 2022 MW 5.7 (GCMT) PACIFIC-ANTARCTIC RIDGE
DOI: 10.17611/dp/20373740
title: Moment Tensor for April 01, 2022 MW 4.8 (GCMT) CENTRAL MID-ATLANTIC RIDGE
DOI: 10.17611/dp/20373746
title: Moment Tensor for April 02, 2022 MW 4.8 (GCMT) BISMARCK SEA
DOI: 10.17611/dp/20373752
title: Moment Tensor for April 02, 2022 MW 5.6 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20373758
title: Moment Tensor for April 02, 2022 MW 5.5 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20373764
title: Moment Tensor for April 02, 2022 MW 5.0 (GCMT) KERMADEC ISLANDS REGION
DOI: 10.17611/dp/20373770
title: Moment Tensor for April 02, 2022 MW 5.6 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20373776
title: Moment Tensor for April 02, 2022 MW 5.1 (GCMT) TONGA ISLANDS
DOI: 10.17611/dp/20373782
title: Moment Tensor for April 02, 2022 MW 5.0 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20373788
title: Moment Tensor for April 03, 2022 MW 4.9 (GCMT) MINDANAO, PHILIPPINES
DOI: 10.17611/dp/20373794
title: Moment Tensor for April 03, 2022 MW 5.1 (GCMT) SAN JUAN PROVINCE, ARGENTINA
DOI: 10.17611/dp/20373800
title: Moment Tensor for April 03, 2022 MW 4.8 (GCMT) RYUKYU ISLANDS, JAPAN
DOI: 10.17611/dp/20373806
title: Moment Tensor for April 03, 2022 MW 5.7 (GCMT) MINDANAO, PHILIPPINES
DOI: 10.17611/dp/20373812
title: Moment Tensor for April 03, 2022 MW 5.4 (GCMT) MINDANAO, PHILIPPINES
DOI: 10.17611/dp/20373818
title: Moment Tensor for April 03, 2022 MW 5.0 (GCMT) PRINCE EDWARD ISLANDS REGION
DOI: 10.17611/dp/20373824
title: Moment Tensor for April 03, 2022 MW 5.6 (GCMT) MINDANAO, PHILIPPINES
DOI: 10.17611/dp/20373830
title: Moment Tensor for April 03, 2022 MW 5.0 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20373836
title: Moment Tensor for April 03, 2022 MW 5.0 (GCMT) SOUTHEAST OF EASTER ISLAND
DOI: 10.17611/dp/20373842
title: Moment Tensor for April 03, 2022 MW 5.2 (GCMT) SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/20373848
title: Moment Tensor for April 04, 2022 MW 5.5 (GCMT) NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/20373854
title: Moment Tensor for April 04, 2022 MW 4.8 (GCMT) NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/20373860
title: Moment Tensor for April 04, 2022 MW 5.4 (GCMT) KURIL ISLANDS
DOI: 10.17611/dp/20373866
title: Moment Tensor for April 04, 2022 MW 6.0 (GCMT) VANUATU ISLANDS
DOI: 10.17611/dp/20373872
title: Moment Tensor for April 04, 2022 MW 4.9 (GCMT) KERMADEC ISLANDS REGION
DOI: 10.17611/dp/20373878
title: Moment Tensor for April 09, 2022 MW 5.4 (GCMT) FIJI ISLANDS REGION
DOI: 10.17611/dp/20373919
title: Moment Tensor for April 05, 2022 MW 5.0 (GCMT) KERMADEC ISLANDS REGION
DOI: 10.17611/dp/20373925
title: Moment Tensor for April 05, 2022 MW 5.0 (GCMT) SOUTHEAST OF LOYALTY ISLANDS
DOI: 10.17611/dp/20373931
title: Moment Tensor for April 05, 2022 MW 6.0 (GCMT) NORTHERN MOLUCCA SEA
DOI: 10.17611/dp/20373937
title: Moment Tensor for April 05, 2022 MW 5.0 (GCMT) NEAR EAST COAST OF HONSHU, JAPAN
DOI: 10.17611/dp/20373943
title: Moment Tensor for April 05, 2022 MW 5.1 (GCMT) SOUTH OF FIJI ISLANDS
DOI: 10.17611/dp/20373949
title: Moment Tensor for April 05, 2022 MW 5.7 (GCMT) SOUTH SANDWICH ISLANDS REGION
DOI: 10.17611/dp/20373955
title: Moment Tensor for April 06, 2022 MW 5.5 (GCMT) NICOBAR ISLANDS, INDIA REGION
DOI: 10.17611/dp/20373961
title: Moment Tensor for April 06, 2022 MW 5.5 (GCMT) SOUTH OF FIJI ISLANDS
DOI: 10.17611/dp/20373967
title: Moment Tensor for April 06, 2022 MW 5.0 (GCMT) EL SALVADOR
DOI: 10.17611/dp/20373973
title: Moment Tensor for April 07, 2022 MW 5.2 (GCMT) CENTRAL PERU
DOI: 10.17611/dp/20373979
title: Moment Tensor for April 07, 2022 MW 4.8 (GCMT) RYUKYU ISLANDS, JAPAN
DOI: 10.17611/dp/20373985
title: Moment Tensor for April 07, 2022 MW 5.0 (GCMT) CENTRAL MID-ATLANTIC RIDGE
DOI: 10.17611/dp/20373991
title: Moment Tensor for April 07, 2022 MW 5.1 (GCMT) MALAWI
DOI: 10.17611/dp/20373997
title: Moment Tensor for April 07, 2022 MW 5.8 (GCMT) TAIWAN REGION
DOI: 10.17611/dp/20374003
title: Moment Tensor for April 08, 2022 MW 4.8 (GCMT) IRIAN JAYA, INDONESIA
DOI: 10.17611/dp/20374009
title: Moment Tensor for April 08, 2022 MW 5.0 (GCMT) SOUTHERN EAST PACIFIC RISE
DOI: 10.17611/dp/20374015
title: Moment Tensor for April 08, 2022 MW 5.0 (GCMT) SOUTHERN EAST PACIFIC RISE
DOI: 10.17611/dp/20374021
title: Moment Tensor for April 08, 2022 MW 4.8 (GCMT) HAITI REGION
DOI: 10.17611/dp/20374027
title: Moment Tensor for April 08, 2022 MW 5.3 (GCMT) TAIWAN REGION
DOI: 10.17611/dp/20374033
title: Moment Tensor for April 08, 2022 MW 4.9 (GCMT) CARLSBERG RIDGE
DOI: 10.17611/dp/20374039
title: Moment Tensor for April 09, 2022 MW 5.1 (GCMT) LUZON, PHILIPPINES