Magnetic resonance
Pulse development made easy with our digital twins
optimal control
enables highly selective and robust pulse sequences
user friendly
interface for effortless operation
digital twin
technology creates an exact replica of your system
error budget
highlights key sources of error
hardware agnostic
software allows easy integration with your lab
What are the challenges in magnetic resonance?
Magnetic resonance (MR) technologies are powerful for probing physical, chemical, and
biological systems. However, they continue to face challenges such as low signal
sensitivity, long acquisition times, and high operational costs. All of these hinder
widespread and timely use.
Due to the complex physics involved in the spin control of MR systems, standard approaches
often fail to produce spectrally and spatially precise pulses that are robust to
inhomogeneities and system drift.
How can Qruise help?
Our advanced modelling tools simplify MR challenges by building a highly accurate digital
twin of your system. This enables users to design and test high-fidelity, robust pulse
sequences without relying on physical access to a lab or scanner. The result: accelerated
development of advanced imaging and spectroscopic protocols.
By generating an error budget, our software identifies key sources of error - such as
magnetic field fluctuations or hardware imperfections - and adapts pulses and fields in
real-time through closed-loop optimisation. And all of this is seamlessly integrated into
a user-friendly interface for easy operation.
High-fidelity digital twins with Resonance
Resonance packages these tools into an end-to-end solution that combines full system
modelling, physics-based model learning, and advanced pulse-level optimisation to produce MR
pulse sequences that have greater spectral and spatial selectivity and are more robust to
fluctuations.
QuE-MRT
Qruise is a key member of the QuE-MRT project with the aim of “Revolutionising cancer
imaging through quantum technologies”.
As part of the project, we’ve been developing highly selective and robust control pulse
sequences that precisely target a single sample slice, minimising spin excitations in
other slices for more accurate and efficient imaging.
