Rapid coral death by a deadly chain reaction | Max-Planck-Gesellschaft https://www.mpg.de/5810970/coral_death_chain_reaction
Soil erosion in tropical coastal areas accelerates
Rapid coral death by a deadly chain reaction Soil erosion
Soil erosion in tropical coastal areas accelerates
Rapid coral death by a deadly chain reaction Soil erosion
Erosion in tropischen Küstenregionen führt zum schnellen
Kettenreaktion Korallensterben durch tödliche Kettenreaktion Erosion
change in the surface charge could be important for erosion
Max Planck researchers could be relevant for soil erosion
change in the surface charge could be important for erosion
Max Planck researchers could be relevant for soil erosion
The genome of symbiotic bacteria of beewolves is in the process of being reduced to their important protective function: the production of antibiotics
interest for understanding the process of genome erosion
The first review of the global impact of humans on tropical forests in the ancient past shows that humans have been altering these environments for at least 45,000 years. This counters the view that tropical forests were pristine natural environments prior to modern agriculture and industrialization.
central Africa about 2,400 years ago, significant soil erosion
Das Erbgut der Symbiose-Bakterien von Bienenwölfen ist dabei, sich auf die die Antibiotika-Produktion zu reduzieren
Gene sind sichere Hinweise auf eine beginnende Genom-Erosion
Das Erbgut der Symbiose-Bakterien von Bienenwölfen ist dabei, sich auf die die Antibiotika-Produktion zu reduzieren
Gene sind sichere Hinweise auf eine beginnende Genom-Erosion
Die elektrische Ladung mineralischer Oberflächen verändert sich in fließendem Wasser – die Erkenntnis ist auch für das Verständnis geologischer Prozesse relevant
Die Oberflächenladung könnte sich bei Erosion und Verwitterung
Danger looms from out of space: asteroids and comets are a threat to our planet. The history of Earth has always been punctuated by cosmic catastrophes. Several studies have claimed to have found periodic variations, with the probability of giant impacts increasing and decreasing in a regular pattern. Now a new analysis by Coryn Bailer-Jones from the Max Planck Institute for Astronomy (MPIA) shows those simple periodic patterns to be statistical artifacts. His results indicate either that the Earth is as likely to suffer a major impact now as it was in the past, or that there has been a slight increase impact rate events over the past 250 million years
than 400 million years, which are less affected by erosion