The Significance of Nanomaterials in Medical Imaging and Diagnostics

The Significance of Nanomaterials in Medical Imaging and Diagnostics

Amit Pratap Singh Chouhan, Ankush Verma, Vandana Singh
Copyright: © 2024 |Pages: 25
DOI: 10.4018/979-8-3693-0448-8.ch012
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Abstract

A new era in healthcare has been ushered in by the development of nanotechnology. Materials with exceptional properties at the nanoscale are being used to enhance the accuracy and efficacy of diagnostic methods. In particular, nanoparticles have become potent tools with a variety of applications in medical imaging. They can be employed as contrast agents in a number of imaging techniques, such as ultrasounds, computed tomography, and magnetic resonance imaging (MRI), to increase tissue visibility and help diagnose diseases. Increased sensitivity and specificity are two benefits of using nanomaterials in medical diagnostics. They allow for the creation of novel biosensors and diagnostic platforms that can identify biomarkers at lower concentrations, enabling the early identification and monitoring of illnesses. Precision healthcare benefits from the use of drug delivery systems based on nanomaterials because they enable customised therapy, lessen side effects, and enhance patient outcomes.
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Introduction

Introduction to Nanomaterials

Healthcare imaging and diagnostics have undergone a significant transformation recently, partly due to the creative incorporation of nanomaterials. It's important to first comprehend the historical context and issues that conventional tactics encountered in order to fully appreciate the significance of these advancements. The sensitivity, specificity, and ability to accurately target particular illness indications were commonly limited by traditional medical imaging techniques. The search for novel solutions has also been fuelled by the desire to reduce patient exposition to ionising radiation while improving diagnostic accuracy in difficult circumstances like early detection of cancer or neurological disorders (Baig et al., 2021).

Figure 1.

Showing the applications of the nanomaterials in medical imaging and diagnostics

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Nanomaterials have demonstrated to be a disruptive force in the healthcare sector in this situation. Their unique nanoscale characteristics which includes size, surface chemistry, and optical behaviour have led to new imaging and diagnostic possibilities. In order to change our perception of healthcare, this chapter tries to present a thorough explanation of how nanoparticles address these ongoing problems. It will describe the fundamentals, applications, benefits, and limitations of nanomaterials in many contexts, highlighting their revolutionary potential to improve the accuracy of therapeutic interventions as well as the precision of medical diagnostics. Readers will gain a complete knowledge of the considerable influence that nanomaterials have had and will continue to have on the field of medical imaging and diagnostics from this investigation (Cheng et al., 2021).

Nanomaterials in Medical Imaging

The implementation of nanomaterials within medical imaging constitutes a significant achievement in the realm of healthcare (Pellico, Gawne, & de Rosales, 2021). Nanotechnology, which involves modifying materials at the nanoscale, has resulted in a new era of diagnostic imaging precision and creativity. Nanomaterials are establishing themselves as game-changing instruments in the creation of cutting-edge medical imaging systems due to their small size and outstanding characteristics (Ge, Zhang, Zeng, Gu, & Gao, 2020). Their unique capabilities, such as tunable optical properties, biocompatibility, and the potential to carry diagnostic chemicals, have opened up previously unexplored opportunities for increasing imaging modalities' accuracy, sensitivity, and specificity. This primer investigates the revolutionary role of nanomaterials in medical imaging, shedding light on their extraordinary potential for early illness identification, personalised treatment techniques, and improved patient care (Siddique & Chow, 2020) .As we learn more about the applications and consequences of these nanoscale treasures in medical diagnostics, it becomes clear that they are poised to revolutionise the way we visualise and comprehend the intricacies of the human body, eventually contributing to enhanced medical treatments (as shown in fig.1.1.) (Chow, 2022).

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