Abstract: Disclosed is a system for administrating fluids to a patient, such as an infant. The system comprises a container that defines a drip chamber, a source of nutritive fluid fluidically communicating with the drip chamber, and a tube connecting the drip chamber to the gastric cavity of a patient, the chamber including a membrane that is gas-permeable but that is resistant to fluid passage. The system allows fluids to be introduced to the patient and for gastric gases to be released while they are resistant to the leak and spillage.

Abstract: A system for delivering a therapeutic agent to cell or tissue of a subject includes a mesoporous silica iron oxide nanoparticle with one or more therapeutic agents that are contained in a mesoporous silica layer of the nanoparticle and a remote radiofrequency (RF) energy source for applying RF energy to the nanoparticle effective to release the one or more therapeutic agents from the nanoparticle by mechanical tumbling and/or vibration of the nanoparticle, wherein release of the one or more therapeutic agents not caused by a hyperthermic response of the nanoparticle to the RF energy.

Abstract: Disclosed is a system for administrating fluids to a patient, such as an infant. The system comprises a container that defines a drip chamber, a source of nutritive fluid fluidically communicating with the drip chamber, and a tube connecting the drip chamber to the gastric cavity of a patient, the chamber including a membrane that is gas-permeable but that is resistant to fluid passage. The system allows fluids to be introduced to the patient and for gastric gases to be released while they are resistant to the leak and spillage.

Abstract: Disclosed is a system for administrating fluids to a patient, such as an infant. The system comprises a container that defines a drip chamber, a source of nutritive fluid fluidically communicating with the drip chamber, and a tube connecting the drip chamber to the gastric cavity of a patient, the chamber including a membrane that is gas-permeable but that is resistant to fluid passage. The system allows fluids to be introduced to the patient and for gastric gases to be released while they are resistant to the leak and spillage.

Abstract: A system for delivering a therapeutic agent to cell or tissue of a subject includes a mesoporous silica iron oxide nanoparticle with one or more therapeutic agents that are contained in a mesoporous silica layer of the nanoparticle and a remote radiofrequency (RF) energy source for applying RF energy to the nanoparticle effective to release the one or more therapeutic agents from the nanoparticle by mechanical tumbling and/or vibration of the nanoparticle, wherein release of the one or more therapeutic agents not caused by a hyperthermic response of the nanoparticle to the RF energy.

Abstract: In some embodiments, apparatuses and methods are provided herein useful to provide fluid nutrition and hydration. In one illustrative example, a feeding set for use with a peristaltic enteral feeding pump has sections of flexible tubing or conduit, a dispensing control valve that is in fluid communication with the tubing, and a retention disk. In some configurations, the feeding set has as attachment mechanism, which may be formed by one clips or hooks extending from the dispensing control valve and coupling geometry of the retention disk. By some approaches, the clips or hooks and the coupling geometry are configured to attach the feeding set with the pump, such as by attaching the feeding set to an internal panel of the feeding pump. In operation, the feeding set and pump are used to move fluid nutrition and hydration from a container or bag to the patient in a controlled manner.

Abstract: In some embodiments, apparatuses and methods are provided herein useful to provide fluid nutrition and hydration. In one illustrative example, a feeding set for use with a peristaltic enteral feeding pump has sections of flexible tubing or conduit, a dispensing control valve that is in fluid communication with the tubing, and a retention disk. In some configurations, the feeding set has as attachment mechanism, which may be formed by one clips or hooks extending from the dispensing control valve and coupling geometry of the retention disk. By some approaches, the clips or hooks and the coupling geometry are configured to attach the feeding set with the pump, such as by attaching the feeding set to an internal panel of the feeding pump. In operation, the feeding set and pump are used to move fluid nutrition and hydration from a container or bag to the patient in a controlled manner.

Abstract: In some embodiments, apparatuses and methods are provided herein useful to provide fluid nutrition and hydration. In one illustrative example, a feeding set for use with a peristaltic enteral feeding pump has sections of flexible tubing or conduit, a dispensing control valve that is in fluid communication with the tubing, and a retention disk. In some configurations, the feeding set has as attachment mechanism, which may be formed by one clips or hooks extending from the dispensing control valve and coupling geometry of the retention disk. By some approaches, the clips or hooks and the coupling geometry are configured to attach the feeding set with the pump, such as by attaching the feeding set to an internal panel of the feeding pump. In operation, the feeding set and pump are used to move fluid nutrition and hydration from a container or bag to the patient in a controlled manner.

Abstract: A hanger (100) for a hanging item (1400) is provided. The hanger can define an aperture (102). The aperture can include a split rotated concave cardioid upper contour (104). The split rotated concave cardioid upper contour can include a first portion (105) and a second portion (106). The first portion and the second portion can be separated by an inverted convex cardioid (109). The inverted convex cardioid can be suspended into the aperture by two concave sidewalls (112,113). The aperture can include an intersecting concave lower contour (114) comprising a cusp (117).

Abstract: A hanger (100) for a hanging item (1400) is provided. The hanger can define an aperture (102). The aperture can include a split rotated concave cardioid upper contour (104). The split rotated concave cardioid upper contour can include a first portion (105) and a second portion (106). The first portion and the second portion can be separated by an inverted convex cardioid (109). The inverted convex cardioid can be suspended into the aperture by two concave sidewalls (112,113). The aperture can include an intersecting concave lower contour (114) comprising a cusp (117).

Abstract: Disclosed is a system for administrating fluids to a patient, such as an infant. The system comprises a container that defines a drip chamber, a source of nutritive fluid fluidically communicating with the drip chamber, and a tube connecting the drip chamber to the gastric cavity of a patient, the chamber including a membrane that is gas-permeable but that is resistant to fluid passage. The system allows fluids to be introduced to the patient and for gastric gases to be released while they are resistant to the leak and spillage.

Abstract: A locking mechanism (100) includes one or more casters (102,103,104,105) coupled to a frame (101). A lift mechanism (106,107) is distally extendable from the frame to elevate the casters. A pivoting bar (108) is pivotable relative to the frame to distally extend the lift mechanism from the frame. A foot pedal (113) is pivotable relative to the pivoting bar between a closed position and an angularly displaced open position. When in the angularly displaced open position, the foot pedal can extend distally from the pivoting bar.

Abstract: A hanger (100) for a hanging item (1400) is provided. The hanger can define an aperture (102). The aperture can include a split rotated concave cardioid upper contour (104). The split rotated concave cardioid upper contour can include a first portion (105) and a second portion (106). The first portion and the second portion can be separated by an inverted convex cardioid (109). The inverted convex cardioid can be suspended into the aperture by two concave sidewalls (112,113). The aperture can include an intersecting concave lower contour (114) comprising a cusp (117).

Abstract: A hanger (100) for a hanging item (1400) is provided. The hanger can define an aperture (102). The aperture can include a split rotated concave cardioid upper contour (104). The split rotated concave cardioid upper contour can include a first portion (105) and a second portion (106). The first portion and the second portion can be separated by an inverted convex cardioid (109). The inverted convex cardioid can be suspended into the aperture by two concave sidewalls (112,113). The aperture can include an intersecting concave lower contour (114) comprising a cusp (117).