Abstract: The present disclosure concerns hyperthermic devices for treating vascular involvements related to cancer therapies, such as surgery. In specific embodiments, the device is configured to provide therapeutic heating to destroy vessel-encasing tumors while still protecting the vessel itself. In particular embodiments, the devices utilize two opposing semi-cylindrical shells that encase the vessel in need of treatment of a tumor thereon. In other devices, a flexible substrate is guided under and around the vessel and tumor thereon.

Abstract: The creped multi-ply tissue products are durable, smooth and have low levels of Slough. In certain instances, the creped multi-ply tissue products are produced using a creping composition comprising a non-crosslinked latex polymer. The creped multi-ply tissue products may have a geometric mean tensile (GMT) from about 700 to about 1,500 g/3?, a basis weight from about 45 to about 60 gsm and a Slough less than about 2.00 mg, such as from about 0.10 to about 2.00 mg. The inventive tissue products also have good durability, such as a Durability Index from about 10.0 to about 20.0, smooth surfaces, such as a TS750 value from about 15.0 to 40.0 and low stiffness, such as a Stiffness Index less than about 10.0.

Abstract: Embodiments of the disclosure concern methods and compositions for treating cancer in an individual that includes combination therapy comprising radiofrequency therapy and immunotherapy. In specific embodiments, utilization of the radiofrequency therapy invokes the immune system of the individual to provide an environment at the tumor that is receptive to native immune system components of the individual, and/or exogenously provided immune system components. In specific cases, the radiofrequency therapy enhances T cell localization to the tumor.

Abstract: The present disclosure concerns hyperthermic devices for treating vascular involvements related to cancer therapies, such as surgery. In specific embodiments, the device is configured to provide therapeutic heating to destroy vessel-encasing tumors while still protecting the vessel itself. In particular embodiments, the devices utilize two opposing semi-cylindrical shells that encase the vessel in need of treatment of a tumor thereon. In other devices, a flexible substrate is guided under and around the vessel and tumor thereon.

Abstract: Embodiments of the disclosure concern methods and compositions for treating a subject with cancer, including overcoming resistance to a cancer drug using non-invasive radiotherapy frequency in combination with cancer drugs. In particular embodiments, radiofrequency therapy and cancer drugs in combination provide a synergistic benefit for cancer therapy. Use of radiofrequency therapy is an effective means to facilitate transport and perfusion of the cancer drugs in the subject.

Abstract: Various embodiments of the present disclosure pertain to methods of optimizing a treatment efficacy of a biological system by tuning a property of the biological system through the addition of an optimizing agent to the biological system. The tuning can include: (a) determining a property parameter of the biological system; (b) selecting an optimizing agent to be added to the biological system based on the determined property parameter; and (c) adding the optimizing agent to the biological system. The optimizing agent can include a kosmotropic material. The biological system can include a tissue, such as a tumor. The methods of the present disclosure can be utilized to enhance the efficacy of various treatments, such as the heat treatment of a biological system exposed to a radiofrequency field. The methods of the present disclosure can also include a step of treating the biological system.