This source describes ultrasound-responsive micro-/nanoplatforms as biomaterial-based systems that use ultrasound as a trigger for diagnostic imaging and therapy. The review frames them as platforms for disease-specific theranostic performance.
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ultrasound-responsive micro-/nanoplatforms
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Ultrasound-responsive micro-/nanoplatforms are described as having applications in diagnostic imaging and treatment across tumors, cardiovascular diseases, infectious diseases, neurological diseases, and metabolic diseases.
we introduce the biological effects of ultrasound and the classification of ultrasound-responsive micro-/nanoplatforms, and systematically describe the relevant applications in the diagnostic imaging and treatment of tumors, cardiovascular diseases, infectious diseases, neurological diseases, and metabolic diseases.
Combining ultrasound as a trigger with responsive biomaterials can establish platforms with diagnostic and therapeutic performance for specific diseases and is presented as a promising approach for precision medicine.
By combining ultrasound as a trigger with responsive biomaterials, platforms with diagnostic and therapeutic performance for specific diseases could be established, offering a promising approach for the development of precise medicine.
Synthesis and material modification techniques can endow diverse biomaterials with diagnostic or therapeutic properties while enhancing tissue targeting specificity and minimizing adverse drug reactions when biocompatibility and biosafety are maintained.
Through various synthesis and material modification techniques, diverse biomaterials are endowed with diagnostic or therapeutic properties. While ensuring their biocompatibility and biosafety, their tissue targeting specificity is enhanced, thereby minimizing adverse drug reactions.
Ultrasound is a widely used diagnostic and therapeutic modality in biomedicine because it is non-invasive, biocompatible, cost-effective, and has high tissue penetration depth.
Ultrasound is a widely utilized diagnostic and therapeutic tool in biomedicine due to its non-invasiveness, biocompatibility, cost-effectiveness, and high tissue penetration depth.
The field includes relevant clinical trials and faces clinical translation challenges for which solutions have been proposed.
Finally, we summarized relevant clinical trials in this field and proposed challenges and solutions in the process of clinical translation