Die Awake-Kooperation, an der das Max-Planck-Institut für Physik beteiligt ist, zeigt, wie Teilchenbeschleuniger Elektronen künftig im Kielfeld einer Plasmawelle beschleunigen könnten.
Protonen beschleunigen Elektronen Ein Gang zu neuen Teilchenbeschleunigern: Im Tunnel
Activity in specific areas in the olfactory center of female Manduca sexta correlates directly with different behaviors
Wind tunnel experiments Next, the researchers tested the 80 odors in behavioral experiments
There is a good chance that soon a new door will open to physicists, offering them new insights into the mysteries of the universe. The international AWAKE collaboration has made a breakthrough in its efforts to build a new type of particle accelerator. The experiment, in which electrons surf on a plasma wave, accelerates particles with far less effort than is required with the LHC, for example, or with other particle accelerators used to date. Thus, physicists could bring about particle collisions with significantly more energy than has been possible so far. Studying the traces of these collisions may help scientists to gain new insights into the Big Bang and the structure of matter.
Protons accelerate electrons The pathway to new particle accelerators: In the tunnel
There is a good chance that soon a new door will open to physicists, offering them new insights into the mysteries of the universe. The international AWAKE collaboration has made a breakthrough in its efforts to build a new type of particle accelerator. The experiment, in which electrons surf on a plasma wave, accelerates particles with far less effort than is required with the LHC, for example, or with other particle accelerators used to date. Thus, physicists could bring about particle collisions with significantly more energy than has been possible so far. Studying the traces of these collisions may help scientists to gain new insights into the Big Bang and the structure of matter.
Protons accelerate electrons The pathway to new particle accelerators: In the tunnel
Die Arbeitsgruppe von Caren Norden arbeitet daran, die zellbiologischen Mechanismen zu verstehen, die in der Entwicklung des Auges eine Rolle spielen. Die Gruppe nutzt den Zebrafisch als Modellorganismus, da dieser klein, transparent und genetisch manipulierbar ist.
Die roten und grünen Zellen sind Neuronen und der „Tunnel“ in der Mitte ist der
Die Arbeitsgruppe von Caren Norden arbeitet daran, die zellbiologischen Mechanismen zu verstehen, die in der Entwicklung des Auges eine Rolle spielen. Die Gruppe nutzt den Zebrafisch als Modellorganismus, da dieser klein, transparent und genetisch manipulierbar ist.
Die roten und grünen Zellen sind Neuronen und der „Tunnel“ in der Mitte ist der
A material cannot get any thinner. Graphene consists of just one layer of carbon atoms. However, that’s not the only reason materials scientists are interested in this material: they’re primarily fascinated by its extraordinary properties. Linjie Zhi and his Partner Group at the Max Planck Institute for Polymer Research are using chemistry to optimize graphene for various applications.
Zhi and his team are placing the chemically modified building blocks in a kind of tunnel
Die Arbeitsgruppe von Caren Norden arbeitet daran, die zellbiologischen Mechanismen zu verstehen, die in der Entwicklung des Auges eine Rolle spielen. Die Gruppe nutzt den Zebrafisch als Modellorganismus, da dieser klein, transparent und genetisch manipulierbar ist.
Die roten und grünen Zellen sind Neuronen und der „Tunnel“ in der Mitte ist der
Aerosols are the salt in our climate soup. Step by step climate researchers find out the manyfold ways, in which the tiny particles in the atmosphere affect the formation of clouds and precipitation.
His group has the world’s only wind tunnel in which scientists can study the behavior
quantum electronics: Close to absolute zero, the particles exhibit their quantum nature
tiny current flows nevertheless, as there is a slight probability that electrons “tunnel
