Our research has been featured by hundreds of international media and news outlets, as well as professional societies and industry communication platforms.

Metamaterials that boost the signal-to-noise ratio and thus significantly improve MRI performance
“MRI is a complicated imaging modality and improving it requires a deep understanding of the physics involved,” [Healthcare-in-Europe]. Prof. Xin Zhang’s metamaterials “boost MRI performance without increased magnetic field,” [Electronic Design & Microwaves & RF]; “allow for more possibilities and the chance to simplify the technology,” [Science Times]; and are said to “revolutionize MRI and medical imaging,” [Sathel Energia & MedImaging.net].
“Shortening MRI examinations is paramount to maximizing the capacity. Not to mention revenue, as well as the overall patient experience of this powerful imaging technology,” [EurekAlert!]. The “arrangement of this metamaterial is truly groundbreaking and innovative,” [NIH]; it’s an “additive technology,” [Pioneering Minds], which could “potentially making the modality more widely available for patients at lower costs,” [HealthImaging].
With this breakthrough, “crisper MRI now possible,” [Medgadget], achieved using “tiny structures that could end up making a massive impact,” [Radiology Business], thereby “making the entire MRI process faster, safer, and more accessible to patients around the world,” [Phys.org].
“Not bad for a few coils of wire,” [Physics World], especially as “cost effective MRIs might soon become a reality,” [MDDI]. This work is considered a “quantum leap” [Radiology Business], representing a “substantial improvement in image quality for the first time,” [NIH]. Clearly, “things will get seamless very soon,” [Times Tech Pharm].
There’s even potential for “the metamaterial being used with ultra-low field MRI,” [EurekAlert!], a method that “uses magnetic fields that are thousands of times lower than the standard machines currently in use,” [Phys.org]. Ultimately, “this would open the door for MRI technology to become widely available around the world,” [Science Daily].