Litcius/Paper detail

Graphene quantum dots-based magnetic relaxation switch involving magnetic separation for enhanced performances of endoglin detection using ultra-low-field nuclear magnetic resonance relaxometry

Yongqiang Li, Zhifeng Shi, Liuyang Shang, Quan Tao, Qisheng Tang, Hans‐Joachim Krause, Siwei Yang, Guqiao Ding, Hui Dong

2023Sensors and Actuators B Chemical17 citationsDOI

Topics & Concepts

Quantum dotGrapheneRelaxometryMagnetic separationMagnetic fieldMagnetic nanoparticlesDetection limitRelaxation (psychology)Materials scienceNuclear magnetic resonanceChemistryMagnetic resonance imagingNanotechnologyNanoparticlePhysicsChromatographySpin echoRadiologyMetallurgyQuantum mechanicsMedicineSocial psychologyPsychologyCarbon and Quantum Dots ApplicationsAdvanced biosensing and bioanalysis techniquesLuminescence and Fluorescent Materials
Graphene quantum dots-based magnetic relaxation switch involving magnetic separation for enhanced performances of endoglin detection using ultra-low-field nuclear magnetic resonance relaxometry | Litcius