A biosignal measurement apparatus that is used by being affixed on a living body is provided with: an affixed part that is a sheet, in which a signal-acquiring section of multiple electrodes and wiring connected to each of the electrodes are formed, and which can be freely expanded, contracted and bent and is adhesive; and a substrate that is connected to the wiring and on which a signal-processing circuit for wirelessly transmitting biosignals obtained through the wiring is mounted. The signal-acquiring section is exposed on the surface of the affixed part and the affixed part and the substrate are stacked so that the back surface of the affixed part faces the substrate.

A medical imaging support includes a substantially flat radiotransparent platform, a plurality of radiotransparent flaps, and closure mechanisms. The platform has a longitudinal direction between a top edge and a bottom edge. The plurality of sets of radiotransparent flaps have a first set of the radiotransparent flaps positioned closer to the top edge in the longitudinal direction than the second set of radiotransparent flaps, and at least one set of flaps includes a first flap and a second flap where the first flap is fixed to the platform proximate a first side edge and the second flap is fixed to the platform proximate a second side edge. The closure mechanisms are positioned on the first flap or second flap of each set of radiotransparent flaps, wherein the closure mechanism selectively fixes the first flap to the second flap of each set of radiotransparent flaps.

Systems and methods for medical imaging diagnoses are provided. The methods may include detecting an entrance of the scan platform into a scanning room by a signal emission device, moving the scan platform to a joint area according to connection interface of the medical imaging device by a driving device. The method may also include adjusting the scan platform to connect to the medical imaging device by a position adjusting device. The method may also include connecting the scan platform to the medical imaging device by a physical interface. The method may further include moving the scanning object to a scanning area of the medical imaging device by the driving device.

A magnetically held diaper monitor comprises a power supply part and a control part. The power supply part comprises a lower shell, and a battery and a power circuit board embedded in the lower shell. The power circuit board is provided with a plurality of lower magnetic electrodes and two lower magnetic terminals. The control part comprises an upper shell and a control circuit board embedded in the upper shell. The control circuit board is provided with upper magnetic electrodes which are in one-to-one correspondence to the lower magnetic electrodes, and upper magnetic terminals which correspond to the lower magnetic terminals. A diaper sensor is clamped between the power supply part and the control part which are combined into a whole by attraction by means of a magnetic force and is connected to the control part via the magnetic electrodes. The control part obtains a power supply via the magnetic terminals.

A method and system for contactless detection and measurement of a variety of bodily functions and environmental conditions of and in the presence of an infant or other helpless individual, and for communication of measured data to a remote user and/or recording and/or interpreting apparatus.

An apparatus that includes said detection, measurement, and communication means mounted within a small, attractive, and intrinsically safe enclosure that attaches to the clothing of the individual.

A system for collecting and/or communicating information to a caregiver or other user relating to the sleep and/or development of a child. Example embodiments of the invention are configured to collect and/or relay information relating to the sleep of a child and automatically implement a sequence of child-soothing measures to calm down a crying infant before resorting to alerting the caregiver. For example, the system can be configured to implement soothing measures such as white noise, vibration, soft music, rocking, etc. Other example embodiments of the invention are additionally or alternatively configured to collect and/or relay information relating to the cognitive and/or physical development of a child. For example, the system can be configured to measure various indicators related to a child's development and/or to provide feedback to a caregiver regarding the measured data.

Suggested is a pacifier, comprising a mouthpiece and a shield further including a vibration-generating device.

A monitor system with dual audio or multiple audio feature for simultaneously monitoring one or more target subjects is disclosed. The monitor system includes a plurality of camera devices and a base station. The plurality of camera devices is arranged to capture video data and sound data of the one or more target subjects independently and simultaneously. The base station is configured to receive the video data and the sound data from the plurality of camera devices, and present the video data and the sound data uninterruptedly. The base station comprises a display panel partitioned into a plurality of regions for displaying multiple views simultaneously using a split-screen technique. The base station outputs an audio signal by combining the sound data from the plurality of camera devices into a single audio signal.

A method and device enable the detection of pressures induced by an infant's sucking actions on a mouthpiece. The method and device also enable the detection of head movements of the infant. The method and device transmit the data associated with the detected pressures and/or the data associated with the detected head movements to another device for evaluating the hearing sensitivity of the infant.

A pediatric magnetic resonance imaging (MRI) system includes a magnet (9), an isolette (14) including a patient section for accommodating a patient, the isolette positionable relative to the magnet; and a radio frequency (RF) array (10) positionable within the patient section of the isolette (14). The RF array (10) includes a plurality of coils configured for simultaneous imaging of different portions of a patient, the plurality of coils being distinct from one another.