Nature Search

Deep-sea gas hydrate mounds and chemosynthetic fauna discovered at 3640 m on the Molloy Ridge, Greenland Sea

This study reveals dissociating methane hydrate mounds on the seafloor at more than 3600 m deep in the Greenland Sea. This gas hydrate cold seep supports chemosynthetic fauna similar to Arctic hydrothermal vents at similar depth, consistent with an overlap between vent and seep fauna in the region.

Giuliana Panieri
Jonathan T. Copley
Alex D. Rogers
ResearchOpen Access17 Dec 2025
Nature Communications

Volume: 16, P: 1-13
Erratum: Seepage from an arctic shallow marine gas hydrate reservoir is insensitive to momentary ocean warming

Wei-Li Hong
Marta E Torres
Pavel Serov
Amendments and CorrectionsOpen Access30 Jun 2017
Nature Communications

Volume: 8, P: 1
PPFIA1 drives active α5β1 integrin recycling and controls fibronectin fibrillogenesis and vascular morphogenesis

During vascular development, fibronectin (FN) is polymerized at the basolateral side of endothelial cells. Here Mana et al. propose a model where PPFIA1 drives recycling of the FN receptor, a5β1 integrin, to the cell surface and enables polar secretion and fibrillogenesis of newly synthesized FN.

Giulia Mana
Fabiana Clapero
Donatella Valdembri
ResearchOpen Access23 Nov 2016
Nature Communications

Volume: 7, P: 1-20
Seepage from an arctic shallow marine gas hydrate reservoir is insensitive to momentary ocean warming

The degree to which warming bottom waters will destabilize shallow gas hydrate reservoirs in the Arctic remains unclear. Here, Honget al. observe and model porewater profiles from a gas-hydrate-bearing system south of Spitsbergen, and conclude episodic emissions are not warming induced.

Wei-Li Hong
Marta E. Torres
Pavel Serov
ResearchOpen Access07 Jun 2017
Nature Communications

Volume: 8, P: 1-14
Nordic Seas polynyas and their role in preconditioning marine productivity during the Last Glacial Maximum

Polynyas potentially played a role in sustaining marine life during the last glacial, yet their presence and importance remains equivocal. This multi-proxy study reconstructs a corridor of polynyas in the Nordic Seas during the last glacial maximum, and reveals a strong association with biological productivity.

Jochen Knies
Denizcan Köseoğlu
Simon T. Belt
ResearchOpen Access27 Sept 2018
Nature Communications

Volume: 9, P: 1-10
Mud extrusion and ring-fault gas seepage – upward branching fluid discharge at a deep-sea mud volcano

M. Loher
T. Pape
G. Bohrmann
ResearchOpen Access19 Apr 2018
Scientific Reports

Volume: 8, P: 1-11
Mediterranean megaturbidite triggered by the AD 365 Crete earthquake and tsunami

Alina Polonia
Enrico Bonatti
Luca Gasperini
ResearchOpen Access15 Feb 2013
Scientific Reports

Volume: 3, P: 1-12
The birth of death, 30 years ago

Gerry Melino
Richard A. Knight
Yufang Shi
Editorial10 Apr 2024
Cell Death & Differentiation

Volume: 31, P: 379-386
Pro-metastatic signaling by c-Met through RAC-1 and reactive oxygen species (ROS)

D Ferraro
S Corso
T Galeotti
Research06 Feb 2006
Oncogene

Volume: 25, P: 3689-3698
ROS homeostasis and metabolism: a dangerous liason in cancer cells

E Panieri
M M Santoro
ReviewsOpen Access09 Jun 2016
Cell Death & Disease

Volume: 7, P: e2253

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Deep-sea gas hydrate mounds and chemosynthetic fauna discovered at 3640 m on the Molloy Ridge, Greenland Sea

Erratum: Seepage from an arctic shallow marine gas hydrate reservoir is insensitive to momentary ocean warming

PPFIA1 drives active α5β1 integrin recycling and controls fibronectin fibrillogenesis and vascular morphogenesis

Seepage from an arctic shallow marine gas hydrate reservoir is insensitive to momentary ocean warming

Nordic Seas polynyas and their role in preconditioning marine productivity during the Last Glacial Maximum

Mud extrusion and ring-fault gas seepage – upward branching fluid discharge at a deep-sea mud volcano

Mediterranean megaturbidite triggered by the AD 365 Crete earthquake and tsunami

The birth of death, 30 years ago

Pro-metastatic signaling by c-Met through RAC-1 and reactive oxygen species (ROS)

ROS homeostasis and metabolism: a dangerous liason in cancer cells

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