Dein Suchergebnis zum Thema: Film

Medizin
mehr Film: Verjüngungskur für Zellen Video 15.

Medizin
mehr Film: Verjüngungskur für Zellen Video 15.

Medizin
mehr Film: Verjüngungskur für Zellen Video 15.

Scientists from the Forschungszentrum Jülich and the Max Planck Institute of Microstructure Physics in Halle have discovered the basis for the next generation of memory devices. In a ferroelectric material, they have, for the first time, been able to observe directly how dipoles, which store the information in this material, continuously rotate and therefore may be organised in circular structures. The report was published in the journal Science. The findings were obtained using a type of high-resolution transmission electron microscopy with especially sharp contrast, developed by the Jülich scientists. Arranging the dipoles in a circular structure could allow for significantly denser data storage than previously possible, while still ensuring fast writing and reading processes.
ruthenium oxide, in order to better distinguish the interface between the ferroelectric film

Am 14. September 2015 wiesen die Advanced-LIGO-Detektoren erstmals direkt Gravitationswellen nach. Die ersten Stunden dieser Jahrhundert-Entdeckung spielten sich am Max-Planck-Institut für Gravitationsphysik in Hannover ab.
Der Film zur Entdeckung © © Max-Planck-Institut für Gravitationsphysik, Hannover

Auf der Suche nach molekularen Lernspuren zeigen wir, wie die Logistik lokaler Protein-Produktionsorte, Verfügbarkeit von Bauplänen für Proteine und die lokale Energievesorgung Lernen auf Zellebene beeinflussen.
(C) Ausschnitte aus einem Film mit gentechnisch markierten Mitochondrien zeigen,

With Video Inference for Body Pose and Shape Estimation (VIBE), scientists at the Max Planck Institute for Intelligent Systems have developed a neural network that makes video-based 3D motion capture more accurate, faster, and less expensive.
While high-quality virtual movement has long been a fixture of animated film and

Stammzellen
Entstehung von Gefäßen und Blutzellen im Embryo kontrolliert mehr Mehr anzeigen Film

Knots can now be tied systematically in the microscopic world. A team of scientists led by Uroš Tkalec from the Jožef Stefan Institute in Ljubljana (Slovenia), who has been working at the Max Planck Institute for Dynamics and Self-Organization in Göttingen (Germany) since September 2010, has now found a way to create every imaginable knot inside a liquid crystal. Starting points of the new method are tiny silica microspheres confined in thin liquid crystal layers.
systematically: silica microspheres within an only slightly thicker nematic liquid crystal film

The causative agent of African sleeping sickness, annually responsible for several thousands of deaths in Africa and South America, is a motile cell: it propels itself through its host’s bloodstream until – in the last stage of the disease – it overcomes the blood-brain-barrier and penetrates its victim’s brain. In order to fight this deadly disease, scientists are trying to understand the parasite’s exact patterns of movement. Researchers from the Max Planck Institute for Dynamics and Self-Organization (MPIDS) in Germany as well as from the Universities of Würzburg, Göttingen and Basel have now succeeded in identifying three different swimming modes. In addition, they were able to show for the first time, that these swimming modes correspond to the shape and stiffness of the parasite.
Film Trypanosomen .mov file (0.2 MB) more Original publication Sravanti Uppaluri