Abstract: A radiation shield is adapted to be disposed transversely across a subject supported on the surface of a procedure table to protect medical professionals working in front of the radiation shield from radiation being applied to the subject behind the radiation shield. The radiation shield includes a movable barrier positional to extend transversely across a subject supported on the surface of a procedure table. The barrier has a generally vertically-oriented lower section; a generally forwardly sloping intermediate section; and a generally vertically-oriented upper section, forwardly offset from the plane of the lower section. A side section extends outwardly and rearwardly from one side of the lower, intermediate, and upper sections of the barrier.

Abstract: Systems and methods for shielding medical personnel from radiation are provided. A radiation-shielding barrier is positioned between the medical personnel and the radiation source. The radiation-shielding barrier includes an opening such that a portion of the table extends through the opening in the barrier. Medical personnel are protected from secondary radiation transmitted through the patient via a special layering technique of a first, flexible sterile drape, a flexible radiation-resistive drape, and a second flexible sterile drape. The system includes an upper shield and a lower shield of independent movement and a linking mechanism between the two, while maintaining the radiation seal. The system also includes a mechanism for maintaining the radiation barrier between the upper shield and the patient aperture hoop, preventing a radiation gap from forming between the flexible portions of the system (e.g. flexible drapes, curtains, etc.) and the non-flexible portions of the system (e.g.

Abstract: A radiation protection system for protecting medical personnel from radiation being applied from a radiation source to a patient positioned on a table that includes a radiation-shielding wall including, upper shield suspended by a gas spring lift arm, the upper shield consisting of translucent radiation resistance window, with a left and right side of flexible radiation shielding material, that telescopes down on each side of the table to form a complete radiation barrier. The shield is positioned above the table. The shield also has a radiation-shielding flexible interface attached to the radiation shielding window that covers a portion of the patient.

Abstract: Systems and methods for shielding medical personnel from radiation are provided. A radiation-shielding barrier is positioned between the medical personnel and the radiation source. The radiation-shielding barrier includes an opening such that a portion of the table extends through the opening in the barrier. Medical personnel are protected from secondary radiation transmitted through the patient via a special layering technique of a first, flexible sterile drape, a flexible radiation-resistive drape, and a second flexible sterile drape. The system includes an upper shield and a lower shield of independent movement and a linking mechanism between the two, while maintaining the radiation seal. The system also includes a mechanism for maintaining the radiation barrier between the upper shield and the patient aperture hoop, preventing a radiation gap from forming between the flexible portions of the system (e.g. flexible drapes, curtains, etc.) and the non-flexible portions of the system (e.g.

Abstract: A radiation protection shield for protecting medical personnel from radiation being applied to a patient positioned on a table. The shield includes a frame and a primary screen including a radiation-resistant material connected to said frame.

Abstract: A radiation protection system for protecting medical personnel from radiation being applied from a radiation source to a patient positioned on a table. The system includes a shield for positioning above the table having an inner frame sized and shaped for receiving the patient when the patient is positioned on the table, and a plurality of rods extending outward from the inner frame. The shield also has an outer frame surrounding the inner frame and connected to the plurality of rods, and a radiopaque flexible panel attached to the rods.

Abstract: A method of using a radiation protection system including a table having a top surface for supporting a patient, a radiation-shielding screen attached to the table for covering a portion of the patient and a portion of the top surface of the table, and controls for controlling the system. The radiation-shielding screen includes at least one port. The method includes extending the radiation-shielding screen over a portion of the patient the table and accessing the controls through the port. The method further includes controlling the system using the controls.

Abstract: A method of performing a medical procedure includes providing a radiation-shielding cubicle having an interior defining a medical personnel region and including a first wall having an opening therein, locating the cubicle with respect to an x-ray table so a portion of the x-ray table extends through the opening into the interior of the cubicle, and separating medical personnel from an x-ray emitter disposed outside of the cubicle using the first wall to shield the medical personnel from radiation emitted by the x-ray emitter.

Abstract: A radiation barrier for shielding a person from radiation emitted from a radiation source. The barrier includes a radiopaque wall extending between opposite lateral edges, wherein the wall is positionable between the radiation source and the person to prevent radiation from traveling directly between the radiation source and the person, and a radiopaque deflector extending from the wall and obliquely angled relative to the wall.

Abstract: In an electrolytic method for removing metal from solution, a "plating" voltage applied to the electrodes is reduced to a lower, "standby" value if the current drawn by the solution falls below a threshold value. This "standby" voltage, however, is periodically restored to its higher, "plating" value for brief intervals so that the current at the higher voltage can periodically be sampled. If it is found that the current drawn by the solution at the higher voltage is once again above the threshold value (indicating that new metal has been added to the solution), the electrode voltage is kept at the higher level until the solution is again depleted of metal to the point that the current drops below the threshold. If, during the brief sampling interval, the current is still below the threshold, the electrode voltage is returned to its lower, "standby" value and another current sample is taken at the next interval.