Parts of the internal anatomy move relative to external or bony landmarks. The B
Parts of the internal anatomy move relative to external or bony landmarks. The BATCAM 7.0 MultiProbe Ultrasound Localization and Positioning System resolves this movement by permitting it’s users to locate and position the part of the internal anatomy that is being treated as accurately and correctly as possible for the delivery of conformal radiation without relying on external structures.
Parts of the internal anatomy move relative to external or bony landmarks. The B
Parts of the internal anatomy move relative to external or bony landmarks. The BATCAM 7.0 MultiProbe Ultrasound Localization and Positioning System resolves this movement by permitting it’s users to locate and position the part of the internal anatomy that is being treated as accurately and correctly as possible for the delivery of conformal radiation without relying on external structures.
The Marker is a radiographic implantable marker used to mark soft tissue. It is
The Marker is a radiographic implantable marker used to mark soft tissue. It is comprised of a bioabsorbable spacer that holds radiopaque marker clips.
The Marker is a radiographic implantable marker used to mark soft tissue. It is
The Marker is a radiographic implantable marker used to mark soft tissue. It is comprised of a bioabsorbable spacer that holds radiopaque marker clips.
The Marker is a radiographic implantable marker used to mark soft tissue. It is
The Marker is a radiographic implantable marker used to mark soft tissue. It is comprised of a bioabsorbable spacer that holds radiopaque marker clips.
The Marker is a radiographic implantable marker used to mark soft tissue. It is
The Marker is a radiographic implantable marker used to mark soft tissue. It is comprised of a bioabsorbable spacer that holds radiopaque marker clips.
The Marker is a radiographic implantable marker used to mark soft tissue. It is
The Marker is a radiographic implantable marker used to mark soft tissue. It is comprised of a bioabsorbable spacer that holds radiopaque marker clips.
The Marker is a radiographic implantable marker used to mark soft tissue. It is
The Marker is a radiographic implantable marker used to mark soft tissue. It is comprised of a bioabsorbable spacer that holds radiopaque marker clips.
The Marker is a radiographic implantable marker used to mark soft tissue. It is
The Marker is a radiographic implantable marker used to mark soft tissue. It is comprised of a bioabsorbable spacer that holds radiopaque marker clips.
Compu-cutter shielding bolck cutters cut foam block molds so that extremely prec
Compu-cutter shielding bolck cutters cut foam block molds so that extremely precise alloy blocks can be made to shield patients during radiation treatment.
The Beacon transponder is an implantable wireless device composed of an internal
The Beacon transponder is an implantable wireless device composed of an internal circuit and encapsulation materials. The internal circuit resonates in response to an external AC magnetic field. The Beacon Care package consists of three Beacon transponders, each with a dedicated introducer needle. The Beacon transponders are implanted in or near the treatment target. The resonance signal is used to measure the location of the transponder, by the Calypso System. The BCP-Soft Tissue many only be used with the Calypso System v3.0 or higher.
The Calypso System utilizes non-ionizing electromagnetic and optical technology
The Calypso System utilizes non-ionizing electromagnetic and optical technology to provide accurate, objective, and continuous localization of a treatment target for patient alignment and target position monitoring during radiation therapy. Use of the Calypso System for target localization is based on the system’s detection of electromagnetic signals from passive implanted markers, called Beacon transponders. The Beacon transponders are placed on the patient’s skin surface or implanted in or near the treatment target. When used with the Calypso System, the Beacon transponder signals enable objective, continuous measurement of the localization of the treatment target in 3 dimensions. The system operator uses this information for patient alignment and continuous target positioning (i.e., tracking) during radiation therapy treatment.