A collapsible incubator for an infant, the collapsible incubator comprising: a flexible housing for containing the infant, the flexible housing being configurable between an expanded condition and a collapsed condition; a door within the flexible housing for infant access; a first end portion secured to a first end of the flexible housing; a second end portion secured to a second end of the flexible housing, said second end portion being configured to be substantially opposite said first end portion; and, at least one fastening means configured to releasably secure the first end portion to the second end portion when in the collapsed condition, whereby the first end portion and the second end portion are configured, in use, to support the flexible housing in the expanded condition, and to substantially contain the flexible housing therebetween in the collapsed condition.

A premature neonate closed life support system (NCLSS) including: at least one chamber confining a cradle-like neonate support (CLNS) having suitable dimensions and geometric-configuration for accommodating at least one premature neonate having at least two operational configurations, said operational configurations comprising: a first operational OPEN configuration whereby said CLNS is adapted to couple said neonate to at least one life supporting system by means of at least one life supporting coupling line, prior to positioning said CLNS in a medical device; and a second operational air-tight CLOSED configuration whereby said neonate remains continuously coupled to said at least one life supporting system by means of at least one life supporting coupling line, when positioning said CLNS within said medical device. The OPEN and CLOSED configurations are reversible.

An incubator can include a body, a bed supported by the body, and a canopy defining an interior chamber that includes the bed. The incubator can include any combination of various features configured to reduce sound energy inside the incubator. The incubator can include a passive radiator, a Helmholtz resonator, a meta material absorber, an active noise cancelation system, a vented door latch assembly, an acoustically permeable seal, a pressure relief valve, a lift mechanism that uses a belt drive, double paned canopy walls, a bin with insulating compliant elements, a manual pressure release valve, a pressure differential notification system, non-parallel or curved canopy walls, a mattress with reticulated foam, and/or an acoustic filter.

A system configured to enclose a premature fetus within an extracorporeal environment to promote growth of the fetus and increase viability of the fetus, The system includes a chamber having an interior space configured to enclose the fetus, a first fluid circuit that delivers sterile fluid to the chamber, and a second fluid system that transfers oxygen to the fetus. The system chamber includes a stop mechanism including a clamp and an actuator, the clanip positioned in the interior space, the actuator coupled to the clamp such that movement of the actuator moves the clamp, and the actuator positioned at least partially outside the interior space. A method of using the system to treat hyperbilirubinemia is also provided.

An infant care station can include sensors to detect an environmental characteristic of the infant care station, an access point to access a microenvironment of the infant care station, and a processor to obtain a sealed measurement for the infant care station with the access point in a sealed position. The processor can also obtain the environmental characteristic from sensors monitoring the microenvironment. Additionally, the processor can determine a difference between the environmental characteristic and the sealed measurement and generate an alert indicating an access point sealing issue based on the difference exceeding a predetermined threshold.

A neonatal care system includes an enclosure configured to provide a microenvironment for a neonate, one or more physiological sensors configured to sense a plurality of physiological parameters of the neonate, one or more microenvironmental sensors configured to sense a plurality of microenvironmental parameters within the enclosure, and at least one external environmental sensor configured to sense at least one external parameter outside the enclosure. A control system is configured to control the microenvironment based on a plurality of control settings, track at least one setting change to any of the control settings and in corresponding time of change, and store at least one event and a corresponding time for each event. A longitudinal log is generated including each of the physiological parameters, microenvironmental parameters, external parameter, setting change, and event with respect to time. A display is then generated and displayed based on the longitudinal log.