The accelerated expansion of the universe motivates a wide class of scalar field theories that modify General Relativity (GR) on large scales. Such theories require a screening mechanism to suppress the new force in regions where the weak field limit of GR has been experimentally tested. We have used atom interferometry to measure the acceleration of an atom toward a macroscopic test mass inside a high vacuum chamber, where new forces can be unscreened. Our measurement shows no evidence of new forces, a result that places stringent bounds on chameleon and symmetron theories of modified gravity
Dynamically screened scalar field theories form an attractive collection of models that were introdu...
Atom interferometers provide a powerful means of realizing quantum coherent systems with increasingl...
This paper describes the concept and the beginning of an experimental investigation of whether it is...
We review the tantalising prospect that the first evidence for the dark energy driving the observed ...
Theories of dark energy require a screening mechanism to explain why the associated scalar fields do...
If dark energy, which drives the accelerated expansion of the universe, consists of a light scalar f...
Matter-wave interferometry is ideal for detecting small forces, being able to sense changes of accel...
The unprecedented precision of atom interferometry will soon lead to laboratory tests of general rel...
Atom interferometry is now reaching sufficient precision to motivate laboratory tests of general rel...
We apply the new constraints from atom-interferometry searches for screening mechanisms to the symme...
Direct detection experiments for dark matter are increasingly ruling out large parameter spaces. How...
Since the first appearance of general relativity in 1916, various experiments have been conducted to...
We discuss the use of atom interferometry as a tool to search for dark matter (DM) composed of viria...
Light scalar fields coupled to matter are a common consequence of theories of dark energy and attemp...
In this brief paper, we show that atom interferometer experiments such as MAGIS, AION and AEDGE do n...
Dynamically screened scalar field theories form an attractive collection of models that were introdu...
Atom interferometers provide a powerful means of realizing quantum coherent systems with increasingl...
This paper describes the concept and the beginning of an experimental investigation of whether it is...
We review the tantalising prospect that the first evidence for the dark energy driving the observed ...
Theories of dark energy require a screening mechanism to explain why the associated scalar fields do...
If dark energy, which drives the accelerated expansion of the universe, consists of a light scalar f...
Matter-wave interferometry is ideal for detecting small forces, being able to sense changes of accel...
The unprecedented precision of atom interferometry will soon lead to laboratory tests of general rel...
Atom interferometry is now reaching sufficient precision to motivate laboratory tests of general rel...
We apply the new constraints from atom-interferometry searches for screening mechanisms to the symme...
Direct detection experiments for dark matter are increasingly ruling out large parameter spaces. How...
Since the first appearance of general relativity in 1916, various experiments have been conducted to...
We discuss the use of atom interferometry as a tool to search for dark matter (DM) composed of viria...
Light scalar fields coupled to matter are a common consequence of theories of dark energy and attemp...
In this brief paper, we show that atom interferometer experiments such as MAGIS, AION and AEDGE do n...
Dynamically screened scalar field theories form an attractive collection of models that were introdu...
Atom interferometers provide a powerful means of realizing quantum coherent systems with increasingl...
This paper describes the concept and the beginning of an experimental investigation of whether it is...