Abstract: A charger for charging a plurality of pressure sensing catheters is provided. The charger has a plurality of charging ports of which a first charging port and a second charging port receives a first connector and a second connector respectively. The first and second connectors each have a first and second radiofrequency identification tags respectively, having information indicative of identifiable information of a first and second pressure sensing catheters respectively. The charger has a plurality of antennas, of which a first antenna and a second antenna can be positioned proximate to the first charging port, and second charging port respectively. When the first connector is inserted into the first charging port, the first radiofrequency identification tag is guided to a predetermined orientation with respect to the first antenna to minimize a spacing therebetween, and to maximize absorption of radiofrequency energy therebetween.

Abstract: Aspects of the disclosure are directed toward a method for providing uroflowmeter data. The method comprises receiving volume sample data representative of volume sample data from a uroflowmeter device, calculating the slope of the volume sample data, and performing additional actions if the calculated slope reaches a trigger threshold. If the calculated slope reaches a trigger threshold, the method may further determine if an artifact is present in the volume sample data. This may include comparing the morphology of the potential artifact to morphologies of known artifacts and comparing the value of the volume sample data before and after the potential artifact. If an artifact is determined to be present in the volume sample data and the volume sample data before the potential artifact is less than or equal to the volume sample data after the potential artifact, remove the portion of the volume sample data which represents the artifact.

Abstract: A charger for charging a plurality of pressure sensing catheters is provided. The charger has a plurality of charging ports of which a first charging port and a second charging port receives a first connector and a second connector respectively. The first and second connectors each have a first and second radiofrequency identification tags respectively, having information indicative of identifiable information of a first and second pressure sensing catheters respectively. The charger has a plurality of antennas, of which a first antenna and a second antenna can be positioned proximate to the first charging port, and second charging port respectively. When the first connector is inserted into the first charging port, the first radiofrequency identification tag is guided to a predetermined orientation with respect to the first antenna to minimize a spacing therebetween, and to maximize absorption of radiofrequency energy therebetween.