Abstract: An absorbent article can have a topsheet layer, a liquid impermeable layer, and an absorbent core positioned between the topsheet layer and the liquid impermeable layer. The absorbent article can further include an exudate management layer in fluid communication with the topsheet layer. In various embodiments, the exudate management layer can be positioned on a body facing surface of the topsheet layer. In various embodiments, the exudate management layer can be positioned between the topsheet layer and the absorbent core. The exudate management layer has a first component which defines an opening for direct passage of body exudates into the absorbent core. The exudate management layer has a second component which at least partially overlaps the first component of the exudate management layer and further extends in the longitudinal direction of the absorbent article in a direction towards the posterior region of the absorbent article.

Abstract: A specimen radiography system may include a controller and a cabinet. The cabinet may include an x-ray source, an x-ray detector, and a specimen drawer disposed between the x-ray source and the x-ray detector. The specimen drawer may be automatically positionable along a vertical axis between the x-ray source and the x-ray detector.

Abstract: The housing for a breast imaging system contains an x-ray source and is configured to rotate relative to the breast. The housing for an x-ray receptor has a breast support platform and extends from an arm assembly which rotates independently from the x-ray source housing. A compression arm assembly connected to the arm assembly moves between a first linear position proximate the x-ray receptor housing and a second linear position distal the x-ray receptor housing. A pair of extension arms are pivotably connected to a strut which removably secures a compression paddle to the compression arm assembly substrate. The extension arms move between a first pivoted position substantially aligned with the strut and a second pivoted position disposed at an angle to the strut.

Abstract: A specimen radiography system may include a controller and a cabinet. The cabinet may include an x-ray source, an x-ray detector, and a specimen drawer disposed between the x-ray source and the x-ray detector. The specimen drawer may be automatically positionable along a vertical axis between the x-ray source and the x-ray detector.

Abstract: An x-ray breast imaging system includes a breast support platform including an x-ray receptor, and an x-ray tube head. The x-ray tube head includes an x-ray source configured to emit an x-ray beam in a direction towards the x-ray receptor, and a collimator. A filter assembly including a plurality of filter slots selectively positionable adjacent to the collimator, and a specimen imaging filter disposed within a slot of the plurality of filter slots. The specimen imaging filter includes at least one aperture defined therein. The specimen imaging filter also blocks a portion of the emitted x-ray beam so that the at least one aperture defines a path of the emitted x-ray beam towards the x-ray receptor.

Abstract: The housing for a breast imaging system contains an x-ray source and is configured to rotate relative to the breast. The housing for an x-ray receptor has a breast support platform and extends from an arm assembly which rotates independently from the x-ray source housing. A compression arm assembly connected to the arm assembly moves between a first linear position proximate the x-ray receptor housing and a second linear position distal the x-ray receptor housing. A pair of extension arms are pivotably connected to a strut which removably secures a compression paddle to the compression arm assembly substrate. The extension arms move between a first pivoted position substantially aligned with the strut and a second pivoted position disposed at an angle to the strut.

Abstract: The housing for a breast imaging system contains an x-ray source and is configured to rotate relative to the breast. The housing for an x-ray receptor has a breast support platform and extends from an arm assembly which rotates independently from the x-ray source housing. A compression arm assembly connected to the arm assembly moves between a first linear position proximate the x-ray receptor housing and a second linear position distal the x-ray receptor housing. A pair of extension arms are pivotably connected to a strut which removably secures a compression paddle to the compression arm assembly substrate. The extension arms move between a first pivoted position substantially aligned with the strut and a second pivoted position disposed at an angle to the strut.

Abstract: A specimen radiography system may include a controller and a cabinet. The cabinet may include an x-ray source, an x-ray detector, and a specimen drawer disposed between the x-ray source and the x-ray detector. The specimen drawer may be automatically positionable along a vertical axis between the x-ray source and the x-ray detector.

Abstract: A specimen radiography system may include a controller and a cabinet. The cabinet may include an x-ray source, an x-ray detector, and a specimen drawer disposed between the x-ray source and the x-ray detector. The specimen drawer may be automatically positionable along a vertical axis between the x-ray source and the x-ray detector.

Abstract: The housing for a breast imaging system contains an x-ray source and is configured to rotate relative to the breast. The housing for an x-ray receptor has a breast support platform and extends from an arm assembly which rotates independently from the x-ray source housing. A compression arm assembly connected to the arm assembly moves between a first linear position proximate the x-ray receptor housing and a second linear position distal the x-ray receptor housing. A pair of extension arms are pivotably connected to a strut which removably secures a compression paddle to the compression arm assembly substrate. The extension arms move between a first pivoted position substantially aligned with the strut and a second pivoted position disposed at an angle to the strut.

Abstract: An MRI local coil system for use with an MRI scanner to image a breast, the system comprising a plastic housing and an RF coil system. The RF coil system comprises a conductor and electronics. The electronics comprises a capacitor and a blocking circuit. The conductor and the electronics are disposed within the plastic housing and the conductor is integrally formed with the plastic housing.

Abstract: A specimen radiography system may include a controller and a cabinet. The cabinet may include an x-ray source, an x-ray detector, and a specimen drawer disposed between the x-ray source and the x-ray detector. The specimen drawer may be automatically positionable along a vertical axis between the x-ray source and the x-ray detector.

Abstract: An MRI local coil system for use with an MRI scanner to image a breast, the system comprising a plastic housing and an RF coil system. The RF coil system comprises a conductor and electronics. The electronics comprises a capacitor and a blocking circuit. The conductor and the electronics are disposed within the plastic housing and the conductor is integrally formed with the plastic housing.

Abstract: The serum transfer cup is nestable in two different size blood collection tubes such as a 13 mm diameter sample tube and a 16 mm diameter sample tube of the same axial length. The serum transfer cup includes a flange stepped down from a top edge of the cup by a distinctive axial distance that permits ultrasonic identification of the presence of the serum transfer cup regardless of which sample tube nests the serum transfer cup. The serum transfer cup has a higher elevation in the 13 mm sample tube than in the 16 mm sample tube, and the different flange heights can be detected using ultrasonic signals. Thus ultrasonic measurement of the flange position of the nested serum transfer cup identifies the presence of different serum transfer cups in the 13 mm sample tube and in the 16 mm sample tube, and also identifies the 13 mm and 16 mm sample tubes with the nested serum transfer cups.

Abstract: The serum transfer cup is nestable in two different size blood collection tubes such as a 13 mm diameter sample tube and a 16 mm diameter sample tube of the same axial length. The serum transfer cup includes a flange stepped down from a top edge of the cup by a distinctive axial distance that permits ultrasonic identification of the presence of the serum transfer cup regardless of which sample tube nests the serum transfer cup. The serum transfer cup has a higher elevation in the 13 mm sample tube than in the 16 mm sample tube, and the different flange heights can be detected using ultrasonic signals. Thus ultrasonic measurement of the flange position of the nested serum transfer cup identifies the presence of different serum transfer cups in the 13 mm sample tube and in the 16 mm sample tube, and also identifies the 13 mm and 16 mm sample tubes with the nested serum transfer cups.

Abstract: The stat shuttle adapter and transport device includes a conveyor with a movable platform for securement of the stat shuttle adapter. The stat shuttle adapter is a universal holding device that includes a carrier housing having male and female surfaces that engage complementary shaped female or male surfaces of a rack that is held by the carrier housing. The conveyor has a forward load position wherein racks are loaded onto the carrier housing. The conveyor also has a rearward unload position wherein the loaded rack is locked onto the carrier housing to facilitate removal of the contents of the rack from the carrier housing without upsetting the rack. A latch device on the carrier housing is normally biased to a lock position but is maintained in an unlock position when the carrier housing is at the forward load position of the conveyor. A latch engagement device on the conveyor maintains the latch in the unlock position while the carrier housing is at the forward load position of the conveyor.

Abstract: The stat shuttle adapter and transport device includes a conveyor with a movable platform for securement of the stat shuttle adapter. The stat shuttle adapter is a universal holding device that includes a carrier housing having male and female surfaces that engage complementary shaped female or male surfaces of a rack that is held by the carrier housing. The conveyor has a forward load position wherein racks are loaded onto the carrier housing. The conveyor also has a rearward unload position wherein the loaded rack is locked onto the carrier housing to facilitate removal of the contents of the rack from the carrier housing without upsetting the rack. A latch device on the carrier housing is normally biased to a lock position but is maintained in an unlock position when the carrier housing is at the forward load position of the conveyor. A latch engagement device on the conveyor maintains the latch in the unlock position while the carrier housing is at the forward load position of the conveyor.

Abstract: The sample rack for holding sample tubes includes a front shell and a rear shell co-joined together in clam shell arrangement. The rack includes tube receiving chambers, each of which has a tube engagement cradle that is arranged to engage a surface portion of a sample tube inserted in the tube receiving chamber. Portions of the tube engagement cradle are formed on each of the front and rear shells and the co-joining of the shells completes the structure of the tube engagement cradle. Each tube receiving chamber also includes a depending biasing spring leg that urges the sample tube toward the tube engagement cradle. The rack also includes spring mount portions for supporting biasing springs that incorporate the biasing spring legs. Segments of the spring mount portion are also formed on each of the front and rear shells and the co-joining of the shells completes the structure of the spring mount portion.