Unmasking the Secrets of Superconductor Phase III
Researchers at JILA simulated superconductivity in strontium atoms within an optical cavity to observe rare dynamic phases, including the elusive Phase III, which has implications…
Researchers at JILA simulated superconductivity in strontium atoms within an optical cavity to observe rare dynamic phases, including the elusive Phase III, which has implications…
Researchers have advanced the understanding of membrane protein dynamics by studying bacteriorhodopsin (bR) with innovative methods combining atomic force microscopy and light triggers. When it…
Researchers have developed methods to entangle large numbers of particles, improving the precision and speed of quantum measurements. These advancements could revolutionize quantum sensors and…
Innovative use of timed laser pulses by JILA and CU Boulder researchers provides new insights into quantum material behavior, aiding in the exploration of superconductivity…
The James Webb Space Telescope’s discovery of early galaxies with massive black holes challenges traditional galaxy formation theories, proposing a synchronous development of black holes…
Researchers have revolutionized quantum sensing with an algorithm that simplifies the assessment of Quantum Fisher Information, thereby enhancing the precision and utility of quantum sensors…
JILA’s breakthrough in optical atomic clocks uses quantum entanglement to surpass fundamental precision limits, setting a new standard in timekeeping and opening avenues for scientific…
To study nanoscale patterns in tiny electronic or photonic components, a new method based on lensless imaging allows for near-perfect high-resolution microscopy. Ptychography, a powerful…
Pioneering work in laser physics has laid the foundation for significant advancements in precision measurement, enabling the development of techniques that significantly reduce residual amplitude…
Physicists are pushing the limits of atomic clock accuracy by using spin-squeezed states, achieving groundbreaking control over quantum noise and entanglement, leading to potential leaps…
Researchers analyzed emission data from quasar 3C 273 using two theoretical models, revealing complexities in understanding quasar behavior and the mechanics of supermassive black holes….
Researchers discovered non-uniform temperature distributions in micro-mechanical resonators, impacting their design and performance in quantum science and precision sensing. When measuring minor changes for quantities…
JILA breakthrough in integrating artificial atoms with photonic circuits advances quantum computing efficiency and scalability. In quantum information science, many particles can act as “bits,”…
A team of researchers at JILA has for the first time successfully combined two of the “spookiest” features of quantum mechanics to make a better…
JILA physicists have demonstrated a novel atomic clock design that combines near-continuous operation with strong signals and high stability, features not previously found together in…
The JILA strontium atomic clock has set new world records for both precision and stability, improving precision by 50 percent from the previous record holder…
For the first time, a team of scientists at JILA have used an atomic clock as a quantum simulator, mimicking the behavior of a different,…
By injecting xenon gas into an optical cavity while using a high-power laser to generate infrared light pulses that bounce back and forth and overlap…