The invention relates to a toilet device for the measurement of micturition parameters, the toilet device comprising a housing that has a housing opening for receiving urine and a capacitive sensor for the time-dependent, contactless measurement of micturition parameters. The invention also relates to a method for the contactless measurement of micturition parameters in a toilet device, said method being carried out more particularly using the toilet device according to the invention.

In some examples, a system is configured to determine a non-cerebral autoregulation status value of a patient using machine learning. In some examples, processing circuitry of the system is configured to determine, using a neural network algorithm that has been trained via machine learning training, an individualized adjustment value that is individualized for the patient, including inputting physiological data associated with the patient. The processing circuitry may determine a non-cerebral autoregulation status of the patient based on a cerebral autoregulation value of the patient based on the non-cerebral autoregulation status value of the patient and the adjustment value.

A method of obtaining high accuracy urination information is proposed. There may be provided the method of obtaining the urination information, wherein sound data is divided into a plurality of windows, segmented target data corresponding to respective windows is obtained from the sound data, segmented classification data classifying urination sections or non-urination sections and segmented urine flow rate data are obtained by using the obtained segmented target data, and urination data is obtained by using the obtained segmented classification data and the segmented urine flow rate data.

Disclosed herein is a urine output measuring system including a urine hat having a urine hat body including a rim, the urine hat defining a cavity configured to receive a volume of urine, a plurality of feet defining a platform configured to be coupled to a toilet to suspend the urine hat, and one or more sensors coupled to the platform, the one or more sensors being in communication with a console and configured to detect and transmit one or more load values to the console.

The present disclosure relates to a portable uroflowmetry apparatus, and uroflowmetry, voiding diary writing system and uroflowmetry method using the same.

A sanitary device for the urine glucose test includes a urine container formed on an inner wall of a main body, and a measuring module with an inner space mounted at a bottom of the urine container. Within the inner space, a lens attaches to the bottom of the urine container, a rail faces a bottom surface of the lens, and a driving module moves a light unit shooting a detection beam to a measuring surface of the lens along the rail. The measuring surface contacts urine in the urine container, and reflects the detection beam out of the bottom surface into a sensor. The sensor is electrically connected to a processor. The processor determines a urine glucose level and generates a urine glucose level data instantly from an angle of incidence of the detection beam on the measuring surface and from a beam intensity signal from the sensor.

An artificial bladder system including an implantable bladder, a valve, a number of sensors, and an alert mechanism. The implantable bladder includes an outer wall forming a chamber for collecting urine of a user, the outer wall including inflow openings and an outflow opening. The valve is integrated with the outflow opening to selectively allow urine to flow from the chamber through the outflow opening. The sensors are configured to detect a urine level in the chamber. The alert mechanism is configured to generate a sensory output to alert the user that the bladder should be emptied upon detection of the urine level in the chamber by one of the sensors.

Disclosed herein is a system for monitoring urine output (UO) of a patient. The system includes a UO module configured to couple with a collection container. The UO module includes (i) a frame configured for anchoring to frame rails of a bed, (ii) a load cell configured to measure a weight of UO within the container and (iii) logic stored in memory that determines volumetric UO data from the load cell and transmits the UO data across a network to an external entity. An intermediate coupling device between the collection container and the UO module is configured to couple with the collection container and inhibit decoupling from the collection container. The intermediate coupling device includes an identification device attached thereto, identification device including patient information, and the logic links the UO data to the patient information.

In some embodiments, an external bladder management system that is configured to reside within a urine collection receptacle (e.g., a toilet) includes a body that houses a fluid testing chamber. The fluid testing chamber is fluidically coupled to a fluid inlet and a fluid outlet. The system further includes a fluid capturing funnel fluidically coupled to and extending from the body and configured to couple the body to the urine collection receptacle. The system further includes an optical sensor disposed within the body and including (1) an emitter configured to convey light across the fluid testing chamber, and (2) an optical detector capable of measuring an intensity of the light as the light exits the fluid testing chamber. The fluid inlet, fluid testing chamber, and fluid outlet are collectively configured to encourage a laminar flow profile of the fluid as it flows through the fluid testing chamber.

The present disclosure relates to a sitting toilet type uroflowmeter apparatus. The sitting toilet type uroflowmeter apparatus according to the present disclosure includes a toilet main body having a water collecting tank; a seat part that is positioned above the toilet main body and that is rotatable; and a uroflow sensor that is positioned on a bottom surface of the water collecting tank and that measures a flux over time.