MXene-based composites as an electrochemical sensor for ultrasensitive determination of ofloxacin

Biocompatible 3D Printed MXene Microlattices for Tissue‐Integrated Antibiotic Sensing

“…The intrinsic properties of Ti 3 C 2 T X MXene (i.e., quick absorption of aromatic compounds through electrostatic interactions, hydrophilicity, and biocompatibility) make it an ideal candidate for incorporation into 3D porous microstructures to develop 3D biosensors. [30] Moreover, our 3D structure utilizes the extremely high hydrophilicity and electronic properties of Ti 3 C 2 T X MXene that facilitate analyte diffusion while eliminating the need for additional binders and current collectors. [31] 3D microporous Ti 3 C 2 T X MXene is prepared by simple dip coating of 3D conducting polymer lattices into an aqueous MXene ink.…”

A novel electrochemical sensing method based on an amino-functionalized MXene for the rapid and selective detection of Hg2+

“…Among them, electrochemical sensing has been steadily gaining momentum among scholars owing to its capability to detect Hg 2+ in a cost-effective manner, perform on-site inspection, and deliver prompt response times. 16 To date, electrochemical sensing has been widely employed for the detection of Hg 2+ . In particular, the development of electrochemical sensing methods for the detection of Hg 2+ has primarily centered on thymine (T)-rich sequences due to their exceptional selectivity and sensitivity.…”

“…MXene, as a new kind of nanomaterial, has garnered immense interest in the realm of electrochemical sensing due to its notable properties such as hydrophilicity, low toxicity, thermal stability, and high conductivity. 16,20,21 The lamellar structure of MXene offers a signicant advantage by providing a large surface area for target detection, enzyme loading, and other reactions. Additionally, the abundant functional groups present on the surface of MXene can be utilized for binding with other biological components, thereby enhancing the signal response.…”

“…Among them, electrochemical sensing has been steadily gaining momentum among scholars owing to its capability to detect Hg 2+ in a cost-effective manner, perform on-site inspection, and deliver prompt response times. 16…”

A Novel Electrochemical Sensor for Chloramphenicol Based on MXenes and Carbon Nanofiber from Bacterial Cellulose

“…The sensor has advantages such as a wide linear range and low detection limit. 20 Tian et al Successfully prepared Ti 3 C 2 MXene/SnS 2 nanocomposites using a hydrothermal method and constructed a Cr(VI) photoelectrochemical sensor. The results showed that the sensor had a low detection limit and good photocatalytic detoxification effect of Cr (VI).…”