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Your brain doesn’t learn the way we thought, according to new neuroscience breakthrough

These electrical pulses are communicated with other neurons through connections between them called synapses. Individual neurons have branching extensions known as dendrites that can receive thousands of electrical inputs from other cells. Dendrites transmit these inputs to the main body of the neuron, where it then integrates all these signals to generate its own electrical pulses.

It is the collective activity of these electrical pulses across specific groups of neurons that form the representations of different information and experiences within the brain.

For decades, neuroscientists have thought that the brain learns by changing how neurons are connected to one another. As new information and experiences alter how neurons communicate with each other and change their collective activity patterns, some synaptic connections are made stronger while others are made weaker. This process of synaptic plasticity is what produces representations of new information and experiences within your brain.

A 124-year-old dream is about to come true : powering entire homes wirelessly through electromagnetism

For more than a century, electricity has flowed through wires, powering everything from the smallest gadgets to entire cities. However, what seemed like a distant dream—wireless energy transmission—may soon become a reality. This breakthrough technology, known as “power beaming”, promises to eliminate the need for physical infrastructure, delivering power directly from one point to another using electromagnetic waves.

How the brain learns: Study reveals an unexpected twist

Our brain’s ability to absorb fresh information — whether that means mastering a new task at work, memorizing the refrain of a song, or navigating unfamiliar streets — depends on a remarkable talent for neural self‑reinvention.

Every time we practice something novel, millions of tiny contacts between nerve cells subtly adjust their strength and neurons use multiple mechanisms to store knowledge.

Some connections, called synapses, amplify their signals to stamp in crucial details; others turn down the volume to clear away noise. Collectively these shifts are known as synaptic plasticity and for decades neuroscientists have cataloged dozens of molecular pathways that can nudge a synapse up or down.

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Laser-plasma accelerator achieves 100 electron bunches per second

Laser-plasma accelerators can accelerate particles over distances that are up to 1,000 times shorter than those required by conventional accelerators. The technology promises compact systems that have enormous potential to open up new applications for accelerators, for example in medicine or industry. However, the current prototypes have one drawback: most can only accelerate a few particle bunches per second—not enough for practical applications.

DESY’s new flagship laser, KALDERA, has now made a decisive step forward: Driving the compact accelerator MAGMA, the innovative laser has been shown to accelerate 100 particle bunches per second. This increased repetition rate opens the path to actively stabilize the plasma accelerator performance in the future, which will bring it a good deal closer to first applications.

In conventional accelerators, radio-frequency waves are fed into so-called resonators. These waves can give a push to particles passing through them—in most cases electrons—and transfer energy to them. In order to raise the particles to high energy levels, numerous resonators have to be connected in series. This makes the systems long and expensive.

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