Carriers for embodying radioactive seeds, as well as a device for loading and customizing brachytherapy carriers based on the principles of optimizing a more precise and predictable dosimetry, and adaptable to the geometric challenges of a tumor bed in a real-time setting. The present disclosure relates to a specialized loading device designed to enable a medical team to create a radionuclide carrier for each patient and tumor reliably, reproducibly and efficiently.

A locator for the placement of a fiducial support device for brachytherapy may be used to perform a brachytherapy treatment in which one or more radioactive seeds are implanted into a treatment region of a patient.

This disclosure provides design, material, preparation methods, and use alternatives for medical devices. An example method of preparing a stent comprises applying a coating to a portion of the stent at a medical treatment facility, the coating including a plurality of radioactive elements and a substrate. The plurality of radioactive elements are mixed with the substrate to form a mixture such that the plurality of radioactive elements are dispersed within the substrate prior to the coating being applied on the stent.

A locator for the placement of a fiducial support device for brachytherapy may be used to perform a brachytherapy treatment in which one or more radioactive seeds are implanted into a treatment region of a patient.

A brachytherapy template adaptor for performing brachytherapy procedures using needles smaller in diameter than the template is designed to accommodate. Additionally, a kit for adapting a brachytherapy template is provided.

Carriers for embodying radioactive seeds, as well as a device for loading and customizing brachytherapy carriers based on the principles of optimizing a more precise and predictable dosimetry, and adaptable to the geometric challenges of a tumor bed in a real-time setting. The present disclosure relates to a specialized loading device designed to enable a medical team to create a radionuclide carrier for each patient and tumor reliably, reproducibly and efficiently.

Carriers for embodying radioactive seeds, as well as a device for loading and customizing brachytherapy carriers based on the principles of optimizing a more precise and predictable dosimetry, and adaptable to the geometric challenges of a tumor bed in a real-time setting. The present disclosure relates to a specialized loading device designed to enable a medical team to create a radionuclide carrier for each patient and tumor reliably, reproducibly and efficiently.

A loading apparatus is usable to embed radioactive seeds into carriers, while limiting exposure of the user to radioactive energy from the radioactive seeds. The loading apparatus facilitates accurate positioning of radioactive seeds within a carrier. The illustrated loaders generally comprise two components, a base and a lid, although in other embodiments the loaders may be separated into additional components.

The disclosure pertains to improvements in a gamma radiation source, typically containing low-density alloys or compounds or composites of iridium in mechanically deformable and compressible configurations, within a sealed encapsulation, and methods of manufacture thereof.

A flexible or elastic brachytherapy strand that includes an imaging marker and/or a therapeutic, diagnostic or prophylactic agent such as a drug in a biocompatible carrier that can be delivered to a subject upon implantation into the subject through the bore of a brachytherapy implantation needle has been developed. Strands can be formed as chains or continuous arrays of seeds up to 50 centimeters or more, with or without spacer material, flaccid, rigid, or flexible.