Ionic Liquid Green Chemistry
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MILE is a pioneering hub for groundbreaking research at the intersection of ionic liquids (ILs), electrochemistry, and interfacial phenomena. ILs are room-temperature molten salts composed mostly of organic ions that may undergo almost unlimited structural variations. Their simultaneous dual nature as solvents and electrolytes supports the existence of structurally tunable cations and anions, which could provide the basis for novel chemical and physical systems and applications. Our research is driven by the exploration and understanding of the unique electrochemical and chemical reactions within these liquids and their interactions at various interfaces. Our multidisciplinary team focuses on unraveling the complexities of ionic liquid behavior and its implications in diverse electrochemical processes. We delve into the intricacies of ionic liquid interfaces, considering factors such as interfacial structure, charge transport, and the role of these interfaces in the function and efficiency of electrochemical devices. Our areas of research extend to green organic synthesis, electrochemical energy storage and conversion devices, corrosion prevention, and electrodeposition, among others. We strongly believe in the immense potential of ionic liquids in reshaping our electrochemical future. Our findings and advances contribute significantly to various applications, including energy storage (batteries, supercapacitors), catalysis, sensors, and environmental remediation.
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ACS Omega, 2022, 7, 47, 42828–42834.
Materials Today Sustainability. 2022, 19, 100171
Journal of Physical Chemistry C, 2016, 120 (25), 13466–13473
Analytical Chemistry 2016, 88 (3), 1959–1964
Journal of Physical Chemistry C, 2015 120, 2, 1004.
Electrochemical Biosensors
Tailor the predictable and tunable bio-interface in order to design a highly specified small molecule and biomarker quantification method for in vivo and in vitro testing. Sensor array system and detection integration.
Small molecule detection stands at the forefront of analytical chemistry, wielding influence across a broad range of sectors, from environmental monitoring and medical diagnostics, to drug discovery and food safety. Over the years, small molecule sensors have emerged as an area of keen interest, thanks to their potential for providing swift, economical, and portable detection solutions. Our focus is honed on the creation of portable sensors for small molecules, particularly for the detection and analysis of pharmaceutically relevant compounds like fentanyl, a potent synthetic opioid. Rapid, accurate detection of such small molecule drugs is critical for patient safety, effective therapeutic monitoring, and addressing concerns related to drug misuse and dosage adjustment. Innovatively, we aim to emulate the recognition and signaling mechanisms of biological receptors. Our approach is to design a paired anchor skeleton exclusively incorporating structural elements that target the functional groups of a particular analyte molecule. This approach could potentially offer highly selective binding and heightened sensitivity. We have already seen success with this method, having applied it to acetaminophen and opioid drug molecules in murine body fluids, human serum collected from hospitalized patients, and a variety of artificial body fluids.
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The importance and relevance of this research cannot be overstated, particularly considering the prevalent use and substantial financial burden of current treatments. We firmly believe our work will catalyze significant advancements in therapeutic drug detection. Our ultimate vision is to make personalized therapy a possibility, reducing or even preventing drug overdoses.
Advanced Composites and Hybrid Materials. 2023, 6, 33
Analytical Chemistry. 2022, 94, 26, 9242–9251
Frontiers in Microbiology (IF: 5.59), 2021, 12:705187.
Analytical Chemistry, 2018, 90 (7), 4733–4740
Multifunctional Materials
Nanomaterial integrated with polymer for the Multifunctional application
We are passionately committed to the study, design, and development of innovative materials with multiple functionalities. Our primary focus of this research is on the synthesis and exploration of composite and hybrid materials that exhibit more than one property, and can therefore perform multiple roles, resulting in materials that are more efficient, durable, and versatile. Our interdisciplinary team of researchers and scientists work collaboratively, combining expertise from physics, chemistry, materials science, and engineering to create materials that could revolutionize industries such as healthcare, manufacturing, electronics, and energy production, including but not limited to, the study of smart materials, which respond to changes in their environment; composite materials, which combine two or more materials to achieve superior properties; nanomaterials, which provide exceptional strength, flexibility, or electrical conductance; and bio-inspired materials, which take cues from nature to deliver extraordinary functionality. Through state-of-the-art facilities and cutting-edge research methodologies, our lab fosters an environment that encourages innovation, collaboration, and the pursuit of excellence. Our research findings are regularly published in top-tier scientific journals, contributing to the global advancement of multifunctional materials science. We're not just creating materials, and we're envisioning and engineering the future of multifunctional materials and their transformative potential across various sectors.
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Advanced Composites and Hybrid Materials. 2023, 6, 75
Journal of Hazardous Materials,2019, 371, 5, 83.
Materials Today Energy. 2023, 32, 101242.
Materials Today Sustainability. 2022, 19, 100171
Scientific Reports, 2016, 6, 33127
