Sending atomic and nuclear clocks into the inner reaches of our solar system could help scientists find proof of elusive dark matter.
Delving into the structures of protons using heavy quarks
Experiments performed using CERN’s the Large Hadron Collider provide insights into the particles that make up protons and their interactions.
How accurate are our models of rotating neutron stars?
Comparing algorithms used to model spinning neutron stars, scientists hope to better understand the physics of the elementary particles that make them up.
Detecting ultralight dark matter particles using supermassive black holes
Is it time to start looking for alternatives to WIMPs?
Explaining the Universe’s accelerated expansion without dark energy
A modification to the theory of general relativity makes it consistent with observable astronomical data without the need for dark energy.
New type of black hole merger may have just been observed
Merging pairs of black holes are thought to have originated from binary stars, but new observations indicate this might not always be true.
A breakthrough in nuclear fusion announced
After decades of experimentation, US scientists achieve ignition in a controlled fusion experiment for the first time.
Building ultra-precise clocks thanks to quantum entanglement
Scientists use quantum entanglement to compare two atomic clocks achieving what might be the ultimate precision possible.
Automation enables modular synthesis of new molecules for lasers
An automated synthesis platform called Chemspeed reduces time and labor when searching for organic molecules as gain mediums in lasers.
Evolution of the Universe simulated in a lab
Using the motion of sound waves through a superfluid liquid, scientists can model the Universe’s evolution on a reasonable time scale.