Add BrightSurf on Google Email

New geological archive discovered: Fossilised wood reveals 300 million years of Earth’s history

Researchers found five stages of silicic acid formation in fossilised wood, spanning 200 million years and documenting temperature, pressure, and composition conditions. The study uses quartz cathodoluminescence, fluid inclusions, and other techniques to reconstruct the geological history of the Saale Basin in central Germany.

SourceUniversity of Münster·JournalScientific Reports·DateJul 24, 2026

Where was your back yard millions of years ago?

Researchers developed an online tool to reconstruct ancient Earth locations, enabling a more detailed understanding of biodiversity and climate evolution. The tool allows for the study of complex mountain ranges and vanished tectonic plates, providing new insights into mass extinctions and species migration.

SourceUtrecht University·JournalPLOS One·TypeData/statistical analysis·DateApr 29, 2026

Better understanding on the way to a carbon-neutral economy

A team of researchers has identified the importance of rifted margins in the transition to a green economy. These continental margins harbor vast accumulations of rocks and hydrocarbon reserves, making them a potential location for new resources needed for a carbon-neutral economy. The study provides an overview of the processes that s...

SourceMARUM - Center for Marine Environmental Sciences, University of Bremen·JournalNature Reviews Earth & Environment·TypeMeta-analysis·DateFeb 14, 2023

Cockroach ancient geographic and genomic history traced back to last supercontinent

Researchers have used genomic data to gain the most detailed information yet of cockroach evolution. The study suggests that extant families evolved during the breakup of Pangaea and prior to continental separation within Gondwana, with divergence times dating back up to 180 million years.

The missing link

A new species of lizard, Gueragama sulamericana, has been found in Southern Brazil, pushing back the known origin of acrodontan lizards to 80 million years ago. This discovery sheds light on the migration patterns of ancient species and challenges existing hypotheses on lizard evolution.

SourceUniversity of Alberta·JournalNature Communications·DateAug 26, 2015

Bumpy beast was a desert dweller

A new study reveals that a Pangean desert supported a unique fauna, including the giant pareiasaur Bunostegos, which sported large, bulbous skulls resembling modern giraffe horns. The discovery supports the theory of central Pangea being climatically isolated, allowing this relict fauna to evolve distinct anatomical features.

SourceSociety of Vertebrate Paleontology·JournalJournal of Vertebrate Paleontology·DateJun 24, 2013

Earth history and evolution

A new study uses molecular clock methods to reconstruct the cypress family tree, revealing that their evolution reflects the break-up of Pangea. The research confirms that cypresses are a very old plant family with origins tracing back to 153 million years ago.

SourceLudwig-Maximilians-Universität München·JournalProceedings of the National Academy of Sciences·DateMay 3, 2012

Latitude and rain dictated where species lived

A team of scientists found that reptiles and mammals lived in separate areas due to differences in water availability, with reptiles thriving in drier temperate zones and mammals in water-rich tropical regions. This study helps predict the impact of climate change on mammal species distribution.

SourceBrown University·JournalProceedings of the National Academy of Sciences·DateMay 12, 2011

Early carnivorous dinosaurs crossed continents

The discovery of Tawa hallae, a 213-million-year-old carnivorous dinosaur from New Mexico, reveals that early dinosaurs originated in South America and dispersed across Pangea before splitting into separate continents. Fossil analysis suggests that climate, possibly related to latitude, controlled the distribution of some reptile species.

SourceUniversity of Utah·JournalScience·DateDec 10, 2009

U-M study solves Pangea puzzle

Researchers at U-M and Norway have found a way to reconcile paleomagnetic data with the classical Pangea A model. The key lies in assumptions about Earth's magnetic field, which revealed long-term non-dipole fields that produce a near-perfect continental fit.