Abstract:
A hazardous fluid transport container and a hazardous fluid delivery system are disclosed. The hazardous fluid transport container includes a housing enclosing an at least partially shielded enclosure. First and second fluid path elements are disposed within the housing, with the first fluid path element and second fluid path element fluidly coupled together. A pump unit may be provided for dispensing fluid from the first and second fluid path elements optionally into a third fluid path element. Also, methods for priming the hazardous fluid transport container and for mitigating laminar flow injection bolus spreading are disclosed. Additionally, disclosed is a radioactive fluid transport container for a syringe or other container. The radioactive fluid transport container allows the syringe or container to be used in an injection procedure without removal from the container.
Abstract:
A system and method for measuring a radioactive concentration of a radiopharmaceutical is disclosed. The system includes a container, an interrogation region associated with the container, a radiation detector, a signal capture device, and a microprocessor system. The radiation detector focuses radiation emitted from the interrogation region, a measurement of which is then obtained by the signal capture device. The microprocessor system is in data communication with the signal capture device, and is capable of calculating the radioactive concentration of the radiopharmaceutical contained in the interrogation region from the radiation measurement obtained by the signal capture device.
Abstract:
A hazardous fluid handling system which includes a housing having a radiation shielded internal chamber disposed therein which may accommodate a container holding a radioactive fluid, one or more radioactivity detectors positioned within the shielded internal chamber in operational proximity to the radioactive fluid in the container, and a dosimeter control device electronically coupled to the radioactivity detector(s) is disclosed. The dosimeter control device is operational for determining information regarding the radioactive fluid in the container based on individual measurements received from the one or more radioactivity detectors. The hazardous fluid handling system may be integrated into a patient support platform which includes a patient stimulus apparatus, an imager proximate the patient support platform, a radiopharmaceutical fluid delivery system for infusing a radiopharmaceutical fluid into a patient, a patient monitor to be associated with the patient, and an integrated system controller.
Abstract:
A hazardous fluid transport container and a hazardous fluid delivery system are disclosed. The hazardous fluid transport container includes a housing enclosing an at least partially shielded enclosure. First and second fluid path elements are disposed within the housing, with the first fluid path element and second fluid path element fluidly coupled together. A pump unit may be provided for dispensing fluid from the first and second fluid path elements optionally into a third fluid path element. Also, methods for priming the hazardous fluid transport container and for mitigating laminar flow injection bolus spreading are disclosed. Additionally, disclosed is a radioactive fluid transport container for a syringe or other container. The radioactive fluid transport container allows the syringe or container to be used in an injection procedure without removal from the container.
Abstract:
The system for measuring the radioactive concentration of a radiopharmaceutical includes a container, an interrogation region, a radiation detector, a signal capture device and microprocessor system. The interrogation region associated with the container. The radiation detector to focus detecting radiation emitted from the interrogation region. The signal capture device capable of obtaining a radiation measurement of the interrogation region. The microprocessor system in data communication with the signal capture device. The microprocessor system is capable of calculating a radioactive concentration of a radiopharmaceutical emitting radiation contained in the interrogation region from the signal capture device.
Abstract:
An extension ladder comprises a base section comprising a first base rail, a second base rail in spaced relationship and in parallel with the first base rail, and at least a first base rung connected to the first base rail and the second base rail. The extension ladder also comprises a fly section slidably connected to the base section. The fly section comprises a first fly rail, a second fly rail in spaced relationship and in parallel with the first fly rail, at least a first fly rung connected to the first fly rail and the second fly rail, a first combination end cap/guide bracket connected to the bottom of the first fly rail, and a second combination end cap/guide bracket connected to the bottom of the second fly rail. Each end cap/guide bracket is one continuous piece. The first fly rail is adjacent to and in parallel with and in spaced relationship with said first base rail. The second fly rail is adjacent to and in parallel with and in spaced relationship with said second base rail. The first and second combination end cap/guide bracket prevents the fly section separating from the base section and capping the bottom end of the first fly rail and second fly rail, respectively. A combination end cap/guide bracket comprises a back wall. Additionally, the end cap/guide bracket comprises an end closure portion preferably with a slot connected to the back wall. The end cap/guide bracket also comprises a hook portion having a hook connected to the back wall and extending perpendicularly from the end closure portion. Additionally, the end cap/guide bracket comprises a block portion which is disposed adjacent and in parallel with the hook of the hook portion and preferably defines a first channel with the hook.