A puncture-resistant radiolucent operating surface apparatus includes a flat radiolucent and puncture-resistant surface configured to cover the detector of an intraoperative imaging machine, and downwardly extending sidewall flanges that are connected to said flat surface and that conform to the sides of said detector.

An irradiation system is provided which comprises a cabinet housing one or more X-ray tubes providing an irradiation source for a biomass contained within a cylindrical container arranged on a rotating device. The X-ray tubes generate directional X-ray beams and are provided in ultra-close proximity to the container, and the X-ray tubes can be configured to traverse the container. The rotational movement and traversal during the irradiation process ensure a more even irradiation of the entire biomass in the container.

A patient support apparatus includes a support surface including a topper. An opening is formed in a side of the support surface. A cavity extends from the opening into the support surface. An inlet port is positioned within the cavity and fluidly coupled to the topper. A pneumatic blower is configured to removably position within the cavity and has an outlet port that couples to the inlet port.

An apparatus for detecting a locating medium in tissue includes a probe, and a console. The probe includes a handle and a detector disposed on a distal end of the probe. The console is in communication and includes a display. The display has a first graphical representation and a second graphical representation. The first graphical representation is configured to depict a count real-time count based on a signal from the detector. The second graphical representation is configured to depict a target count.

An X-ray sleeve is configured to be releasably attached a mattress cover. The sleeve is configured to receive an X-ray cassette, protected from foreign substances, such as against contaminants, such as bodily fluids, and can be removeable for sterilization and sanitation.

The present invention is an improved barrier-contained radiological sensor holder. In particular, the present invention is directed to radiological sensor holder contained in a barrier sheath to reduce or prevent contamination. The radiological sensor holder preferably comprises a sensor holder at least partly contained within a barrier sheath having a closed end and an open end. The barrier sheath preferably comprises elastomer latex material and the sensor holder preferably comprises an exterior attachment and an interior container, where the exterior attachment presses a portion of the barrier sheath into a gapped attachment port on the interior container. The sensor holder may alternately include an expansion slit along the opposing face. The sensor holder can also have snap on articles for positioning the sensor for posterior, anterior and vertical image capture.

A dispenser of barrier envelopes is formed of a pair of selectively interlocking open-top box-like structures. When interlocked, the pair of structures forms an interior chamber that is configured to store and protect one or more barrier envelopes inside from external contaminants such as viruses, bacteria and/or fungi. The dispenser of barrier envelopes includes a through opening for the purpose of dispensing the one or more envelopes to a user, and a spring in its interior chamber for directing the one or more envelopes toward the through opening.

The present invention relates to an aerodynamic rail cover for an operating room with laminar airflow. In order to provide measures to improve the provision of a laminar airflow in an operating zone, an aerodynamic rail cover (10) for an operating room with laminar airflow is provided. The rail cover comprises at least one cover component (12), wherein the cover component comprises a base element (14); and an air guiding surface element (16) connected to the base element. The base element is configured to be attached to a portion of a support rail of a ceiling mounted support arrangement of a medical imaging system. The air guiding surface element forms an air guide to be mounted at least temporarily to cover a portion of the support rail and comprises two surface parts (18) that are extending from starting edges (20) on opposite sides of the base element to a common trailing edge (22). Further, the rail cover component is configured to be movably attached to the support rail of the ceiling mounted support arrangement of a medical imaging system.

An electromagnetic tracking system including a patient support element and an electromagnetic field generator. The patient support element is superposed relative to the electromagnetic field generator, and the electromagnetic field generator is selectively moveable relative to the patient support element.

A curved compression element, such as a breast compression paddle, and imaging systems and methods for use with curved compression elements. A system may include a radiation source, a detector, and a curved compression element. Operations are performed that include receiving image data from the detector; accessing a correction map for the at least one compression paddle; correcting the image data based on the correction map to generate a corrected image data; and generating an image of the breast based on the corrected image data. The breast compression element generally has no sharp edges, but rather has smooth edges and transitions between surfaces. The breast compression paddle also includes a flexible material that spans a portion of a curved bottom surface of the breast compression paddle to define a gap. The flexible material may be a thin-film material such as a shrink wrap.