Abstract: A system for delivering a therapeutic agent to cell or tissue of a subject includes a mesoporous silica iron oxide nanoparticle with one or more therapeutic agents that are contained in a mesoporous silica layer of the nanoparticle and a remote radiofrequency (RF) energy source for applying RF energy to the nanoparticle effective to release the one or more therapeutic agents from the nanoparticle by mechanical tumbling and/or vibration of the nanoparticle, wherein release of the one or more therapeutic agents not caused by a hyperthermic response of the nanoparticle to the RF energy.

Abstract: A system for delivering a therapeutic agent to cell or tissue of a subject includes a mesoporous silica iron oxide nanoparticle with one or more therapeutic agents that are contained in a mesoporous silica layer of the nanoparticle and a remote radiofrequency (RF) energy source for applying RF energy to the nanoparticle effective to release the one or more therapeutic agents from the nanoparticle by mechanical tumbling and/or vibration of the nanoparticle, wherein release of the one or more therapeutic agents not caused by a hyperthermic response of the nanoparticle to the RF energy.

Abstract: A multi-component nanochain for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. At least one nanoparticle of the nanochain has an asymmetric surface chemistry defined by asymmetrically disposed first linkers and second linkers. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: A multi-component nanochain for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. At least one nanoparticle of the nanochain has an asymmetric surface chemistry defined by asymmetrically disposed first linkers and second linkers. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: An immuno-nanoparticle construct for use in therapeutic applications includes a nanocarrier, a stimulator of interferon (IFN) genes (STING) pathway agonist, and a toll-like receptor 4 (TLR4) agonist, wherein the STING pathway agonist and the TLR4 agonist are co-loaded in the nanoparticle carrier.

Abstract: A multi-component nanoconstruct for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: A multi-component nanochain for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. At least one nanoparticle of the nanochain has an asymmetric surface chemistry defined by asymmetrically disposed first linkers and second linkers. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: A system for delivering a therapeutic agent to cell or tissue of a subject includes a mesoporous silica iron oxide nanoparticle with one or more therapeutic agents that are contained in a mesoporous silica layer of the nanoparticle and a remote radiofrequency (RF) energy source for applying RF energy to the nanoparticle effective to release the one or more therapeutic agents from the nanoparticle by mechanical tumbling and/or vibration of the nanoparticle, wherein release of the one or more therapeutic agents not caused by a hyperthermic response of the nanoparticle to the RF energy.

Abstract: A multi-component nanochain for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. At least one nanoparticle of the nanochain has an asymmetric surface chemistry defined by asymmetrically disposed first linkers and second linkers. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: A multi-component nanoconstruct for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: A multi-component nanochain for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. At least one nanoparticle of the nanochain has an asymmetric surface chemistry defined by asymmetrically disposed first linkers and second linkers. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: A multi-component nanochain for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. At least one nanoparticle of the nanochain has an asymmetric surface chemistry defined by asymmetrically disposed first linkers and second linkers. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: Compositions and methods are disclosed for evaluating a subject's vasculature integrity, for differentiating between a malignant lesion and a benign lesion, for evaluating the accessibility of a tumor to nano-sized therapeutics, for treating tumors, and for live or real time monitoring of a nano-probe's biodistribution.

Abstract: A multi-component nanochain for use in diagnostic and therapeutic applications includes at least three nanoparticles linked together to form the nanochain. At least one nanoparticle of the nanochain has an asymmetric surface chemistry defined by asymmetrically disposed first linkers and second linkers. The nanoparticles are linked to form the nanochain by linking first linkers and/or second linkers disposed on separate nanoparticles.

Abstract: Compositions and methods are disclosed for evaluating a subject's vasculature integrity, for differentiating between a malignant lesion and a benign lesion, for evaluating the accessibility of a tumor to nano-sized therapeutics, for treating tumors, and for live or real time monitoring of a nano-probe's biodistribution.

Abstract: Compositions and methods are disclosed for evaluating a subject's vasculature integrity, for differentiating between a malignant lesion and a benign lesion, for evaluating the accessibility of a tumor to nano-sized therapeutics, for treating tumors, and for live or real time monitoring of a nano-probe's biodistribution.

Abstract: Compositions and methods are disclosed for evaluating a subject's vasculature integrity, for differentiating between a malignant lesion and a benign lesion, for evaluating the accessibility of a tumor to nano-sized therapeutics, for treating tumors, and for live or real time monitoring of a nano-probe's biodistribution.

Abstract: Compositions and methods are disclosed for evaluating a subject's vasculature integrity, for differentiating between a malignant lesion and a benign lesion, for evaluating the accessibility of a tumor to nano-sized therapeutics, for treating tumors, and for live or real time monitoring of a nano-probe's biodistribution.

Abstract: Compositions and methods are disclosed for evaluating a subject's vasculature integrity, for differentiating between a malignant lesion and a benign lesion, for evaluating the accessibility of a tumor to nano-sized therapeutics, for treating tumors, and for live or real time monitoring of a nano-probe's biodistribution.