Laser spectroscopy has revolutionized the way we study atoms and molecules since its inception in the 1960s. With advancements in laser technology, the capabilities of laser spectroscopy have been further enhanced. There are two main types of laser spectroscopy: frequency comb-based laser spectroscopy and tunable continuous-wave (CW) laser spectroscopy. While frequency comb-based laser spectroscopy offers
Science
Quantum computers have the potential to outperform conventional computers in various information processing tasks, including machine learning and optimization. However, their large-scale deployment is hindered by their sensitivity to noise, leading to errors in computations. One approach to address these errors is quantum error correction, which monitors and restores computations on-the-fly. Despite significant progress in
A team of chemists at the University of Copenhagen has made significant strides in the field of crystallography by developing an AI application that can determine the phase of x-rays diffracted by crystals. This breakthrough has the potential to revolutionize the process of predicting the structure of small molecules, which has traditionally been a challenging
A recent breakthrough in quantum sensing technology has led to the development of a new 2D quantum sensing chip that is capable of detecting temperature anomalies and magnetic fields in any direction. This groundbreaking thin-film format chip, developed by researchers at TMOS and RMIT University, utilizes hexagonal boron nitride (hBN) to provide a more versatile
In the realm of solar cells and light-emitting diodes, the race against time to maintain the excited state kinetics of molecules is a critical challenge. With various processes at play that can lead to energy loss or the desired outcome, finding a balance is essential for maximizing efficiency. One major hurdle in achieving this goal
Atoms are the building blocks of matter and the interactions between them shape the properties of molecules and materials. Understanding these interactions through molecular dynamics simulations is crucial for various scientific fields such as drug development and material design. However, the computational cost of simulating these interactions using traditional methods has been a significant challenge.
The universe, which has been in existence for a staggering 13.7 billion years, is facing a precarious situation due to the instability of a fundamental particle known as the Higgs boson. This particle is responsible for the mass and interactions of all known particles, as it is associated with a field called the Higgs field.
The universe is a vast and complex place, filled with mysteries that scientists have been trying to unravel for centuries. One of the most enduring mysteries is the question of why the universe contains matter but very little antimatter. This question has baffled physicists for decades, as the standard model of particle physics predicts that
The discovery of gravitational waves through the collision of black holes has revolutionized our understanding of the universe. These elusive waves, predicted by Einstein’s theory of general relativity, provide crucial insights into the nature of space and time. However, detecting gravitational waves is an incredibly complex task, requiring advanced technology and precision beyond comprehension. The
Scientific advancements have always played a crucial role in shaping our understanding of the world around us. A recent breakthrough in optical science has the potential to revolutionize various fields such as pharmaceuticals, security, forensics, art conservation, and medicine. The Hyper-Raman effect is a phenomenon that allows for the visualization of molecular energy states that