The invention relates to an apparatus for measuring a flow of a fluid in dependence on time, in particular a urine flow, including an intake funnel; a hose; an ultrasonic flow sensor; an overflow.

The apparatus is characterized in that a first end of the hose is connected to the intake funnel and a second end of the hose is connected to the overflow; the ultrasonic flow sensor is arranged on the hose; the hose is U-shaped.

An indwelling catheter surveillance system which can detect and distinguish a clean catheter system from one with bacterial colonization and from one with bacterial infection. This is done using a micro-spectroscopy system placed on the outside of an indwelling catheter's drainage tube with analysis being facilitated using machine learning algorithms. This system is based on the ability to leverage the analysis of bacteria and biomarkers in liquid bio samples at the patient's bedside, in real time to deliver a mobile, continuous, point of care, disposable and cost-effective solution. This represents a feasible and scalable system for resolving the problem of infections in indwelling catheter systems.

Disclosed herein is an automated urinary output measuring system. The automated urinary output measuring system includes an automated urinary output measuring device configured to be suspended from a rim of a sanitary hardware device and receive a volume of voided urine. The automated urinary output measuring device can include a receiving trough having an opening, a door configured to cover the opening in a fluid tight seal, the door coupled to the receiving trough by a hinge, and a lip extending from the receiving trough configured to detachably couple the automated urinary output measuring device to the sanitary hardware device. The system can further include an ultrasonic measuring system having a console coupled to one or more ultrasonic sensors, and a flushing mechanism coupled to the sanitary hardware device.

A urine collector includes a receptacle formed of a water soluble material, which may be a bioplastic, and has a receiving volume for collecting urine therein defined by its shape. The receiving volume is equal to or greater than a predetermined threshold volume. A threshold volume indicator is configured to correspond to the predetermined threshold volume. The urine collector is configured to float in water and to remain buoyant for a time sufficient to allow a user to compare a volume of urine collected in the receiving volume to the threshold volume indicator. The urine collector may be stackable. The water soluble material may be layered on a substrate, which may be a thin sheet of paper, and may further be a non-stick paper product, such as parchment paper.

Embodiments disclosed herein are directed to a self-learning bladder volume monitoring system. The system can include a bladder volume (BV) system configured to measure an electrical impedance of a bladder region of a patient and determine a volume of fluid disposed therein using an impedance to bladder volume model (By model). Further, the system can measure a total body water (TBW) for the patient and modify the BV model to account for variations in TBW within the tissues surrounding the bladder providing a more accurate bladder volume measurement. The system can include a training unit which can include one of a user input interface, an automatic urine output monitoring system, an ultrasound system, and an intrabladder pressure system configured to verify a volume of fluid within or voided from the bladder and train the BV model.

Uroflowmeters and methods for processing data generated therefrom are disclosed. In one aspect, the uroflowmeter is a handheld device. The uroflowmeter includes a handle, a flow chamber coupled to the handle, and a sensor associated with the flow chamber that detects a parameter of urine received in the flow chamber. The uroflowmeter may include both reusable and disposable components. As a uroflowmeter it can identify and record data corresponding to the rate of flow over the measured duration of a void of urine, but may also timestamp the voiding act and communicate the data to an external data collection center for additional analysis and incorporation into a comprehensive voiding report or voiding diary.

A urodynamic investigation apparatus for receipt of urine from a bladder is provided. The apparatus is characterized by a tubular element, first and second fittings, and a sleeve element, for select passage of urine there through, within the tubular element. The tubular element is characterized by opposing first and second end portions, and a port. The fittings are adapted to be received by the opposing end portions of the tubular element so as to delimit an apparatus chamber. The sleeve element, suspended between the fittings within the chamber, has collapsed and open configurations. The collapsed configuration is indicative of a no urine flow condition, and the open configuration indicative of a urine flow condition, with the sleeve element urine flow condition being a function of pressure applied to the chamber via the port of the tubular element.

A method of obtaining urination information and a device thereof are proposed. The method includes obtaining one or more first feature data by using first sound data, obtaining a urine volume determination value by using the one or more first feature data and a pre-trained urine volume determination model, obtaining a urine flow rate determination value by using the one or more first feature data and a pre-trained urine flow rate determination model, and obtaining urine flow rate information by reflecting a ratio of an estimated urine volume calculated based on the urine flow rate determination value and the urine volume determination value to the urine flow rate determination value.

An apparatus for the measurement of urine flow includes a microphone, a temperature sensor, and a controller. The microphone is configured to detect an audio from the urine flow. The temperature sensor is configured to detect a temperature in a toilet bowl associated with the urine flow. The controller is configured to calculate a urine volume in the toilet bowl based on the temperature in the toilet bowl and calculate a flow rate based on the urine volume and at least one time interval from the audio from the urine flow.

An automated urine-output-measurement system can include single-patient equipment and multi-patient equipment. The single-patient equipment can include a urinary catheter and a urine-collection system. The urine-collection system can include drainage tubing and a drainage receptacle. The multi-patient equipment can include a urine monitor. The urine monitor can include a housing having a cavity configured to house the drainage receptacle, a urine-measurement means for measuring urine-output into the drainage receptacle, and an integrated display screen configured to display patient information including measurements of the urine output. A method of the automated urine-output-measurement system can include placing the drainage receptacle in the urine monitor of the automated urine-output-measurement system, and confirming a volume of urine in the drainage receptacle with that indicated on the urine monitor once a patient has produced urine.