Abstract: A baby bottle device (100) is provided which comprises at least one 100 movement sensor (140, 150) for detecting a movement of the baby bottle device (100). The movement data from the movement sensor (140, 150) is analyzed in an analyzer (200) to perform a suck-swallow-breathe analysis during a drinking phase of the baby based on the movement data from the movement sensor (140, 150). Thus, a drinking behavior of a baby can be efficiently analyzed.

Abstract: A monitoring system is provided for monitoring an infant during bottle feeding. Based on bottle orientation information and movement information in respect of the feeding bottle during feeding, infant orientation information in respect of the infant is obtained.

Abstract: A monitoring system is provided for a feeding bottle, in particular a feeding bottle for feeding milk to a baby. Motion of the feeding bottle is sensed during feeding and a sucking performance is determined from the motion characteristics, in particular to identify whether the feeding is based on suckling or sucking.

Abstract: A baby bottle device (100) is provided which comprises at least one 100 movement sensor (140, 150) for detecting a movement of the baby bottle device (100). The movement data from the movement sensor (140, 150) is analyzed in an analyzer (200) to perform a suck-swallow-breathe analysis during a drinking phase of the baby based on the movement data from the movement sensor (140, 150). Thus, a drinking behavior of a baby can be efficiently analyzed.

Abstract: The present invention relates to a device, system and method for CO2 monitoring. To enable continuous monitoring at low cost and in a simple manner, the device comprises a signal input (10) for obtaining one or more monitoring signals (20) of a monitored area, a breathing monitor (11) for determining one or more breathing parameters (21) of one or more subjects present in the monitored area from the obtained one or more monitoring signals, and a CO2 estimation unit (12) for estimating the CO2 level (22) in the monitored area based on the determined one or more breathing parameters.

Abstract: There is provided a method, apparatus and system for method for tailoring at least one subsequent communication to a user. Data acquired on the user in connection with a plurality of communications to the user is processed to determine a value for one or more characteristics indicative of a state of the user in connection with each communication. At least one communication parameter is varied in respect of each communication. The values for the one or more characteristics indicative of the state of the user that are determined in connection with each communication are compared to identify one or more communication parameters that are most suitable for the user. One or more communication parameters are set for the at least one subsequent communication to the user according to the one or more identified communication parameters. The subsequent communication to the user is enabled based on the set one or more communication parameters.

Abstract: The present disclosure pertains to a system for facilitating configuration modifications for a patient interface computer system based on an equivalent effort parameter. In some embodiments, the system obtains (i) one or more first measurements associated with a first subject, the first subject having a clinical coefficient, (ii) one or more second measurements associated with a second subject. The system determines (i) a first effort parameter based on the one or more first measurements, (ii) a second effort parameter based on the one or more second measurements, and (iii) an equivalent effort factor for the first subject based on the one or more first measurements, the one or more second measurements, and the clinical coefficient. The system causes a configuration of the patient interface computer system to be modified based on the equivalent effort factor.

Abstract: The present invention relates to a device, system and method for CO2 monitoring. To enable continuous monitoring at low cost and in a simple manner, the device comprises a signal input (10) for obtaining one or more monitoring signals (20) of a monitored area, a breathing monitor (11) for determining one or more breathing parameters (21) of one or more subjects present in the monitored area from the obtained one or more monitoring signals, and a CO2 estimation unit (12) for estimating the CO2 level (22) in the monitored area based on the determined one or more breathing parameters.

Abstract: There is provided a method, apparatus and system for method for tailoring at least one subsequent communication to a user. Data acquired on the user in connection with a plurality of communications to the user is processed to determine a value for one or more characteristics indicative of a state of the user in connection with each communication. At least one communication parameter is varied in respect of each communication. The values for the one or more characteristics indicative of the state of the user that are determined in connection with each communication are compared to identify one or more communication parameters that are most suitable for the user. One or more communication parameters are set for the at least one subsequent communication to the user according to the one or more identified communication parameters. The subsequent communication to the user is enabled based on the set one or more communication parameters.

Abstract: A monitoring system for monitoring the movement of a subject during toilet use comprises a set of sensors for detecting the presence of the subject in a toilet room, and their sitting or standing posture. A timer determines the duration of a stand-to-sit activity and the duration of a sit-to-stand activity during the toilet use, and this enables information about a chair rise test to be estimated.

Abstract: Methods and systems for monitoring metabolic parameters of humans and other animals in an enclosed or semi-enclosed space such as a room. In these embodiments, metabolic parameters like basal metabolic rate, energy expenditure, and body composition are derived from environmental measurements of carbon dioxide (CO2) production using context-aware processing algorithms. This information can be integrated in innovative coaching programs for weight management, fitness improvement, pregnancy management, and chronic disease management.