Mozarc Medical US LLC

Systems and methods for performing mutual authentication between a hardware access token and a reader device are provided. The systems and methods include reading a unique or pseudo-unique identifier of the hardware access token and computing a password for the hardware access token based on the unique or pseudo-unique identifier and a group secret of the reader device.

In examples described herein, a catheter configured to deliver dialysate and extract an effluent fluid from a peritoneal cavity of a patient includes at least two sensors configured and positioned to generate respective signals indicative of one or more parameters related to PD treatment provided to the patient. The sensors can include, for example, a pressure sensor configured to generate a pressure signal indicative of a pressure of a fluid within a lumen of the catheter or external to the catheter and an impedance sensor configured to generate an impedance signal indicative of an impedance of a fluid within the lumen of the catheter or external to the catheter. A parameter related to PD treatment can include, for example, a catheter status or a peritoneal cavity status of the patient.

Systems and methods of generating peritoneal dialysate are provided. The systems and methods use a water purification module, a sterilization module and concentrates to prepare a bolus of peritoneal dialysate from source water for use with a non-integrated cycler. The systems and methods use at least two concentrate sources to generate a peritoneal dialysate.

An example article includes a rigid member defining a plurality of fluid flow paths and a plurality of flexible tubes each defining a lumen and configured to be occluded via a pressure applied externally to the lumen and unoccluded in an absence of the externally applied pressure. Each flexible tube of the plurality of flexible tubes is configured to be fluidically connected to a flow path of the plurality of flow paths, and different fluid flow paths of the plurality of fluid flow paths are defined by occluding different flexible tubes of the plurality of flexible tubes.

Systems and methods of the present disclosure enable fault risk detection in renal care systems and/or devices, by receiving, from an image sensor, an image of a component of the renal care system/device and using a fault risk detection machine learning model to output a detected fault risk in the component based at least in part on trained machine learning model parameters configured, through training, to classify the detected fault risk as matching to one or more known fault risks. An alert is generated to an operator or technician of the renal care system/device, including an indication of the detected fault risk.

A catheter cap includes a housing defining at least one cavity and an opening at a distal end of the housing, and an antimicrobial agent within the at least one cavity. The housing is configured to couple to a catheter luer at the distal end. The at least one cavity is configured to contain a catheter lock solution in contact with the catheter luer at the opening. The antimicrobial agent is present in an amount sufficient to maintain a minimum inhibitory concentration (MIC) of the antimicrobial agent in the catheter lock solution for a period of time between successive operations of the catheter luer.

The disclosure relates to systems and methods for remotely controlling one or more sorbent rechargers. The systems and methods can include at least one remote device in communication with at least one sorbent recharger. The remote device can control at least one function necessary for the sorbent rechargers to recharge sorbent materials in reusable sorbent modules.

Systems, components, and methods are provided for a flexible, efficient system capable of producing customized dialysis fluid at the point of care. By enabling precise control over the solution's composition, the system significantly the customization, safety, and effectiveness of dialysis therapy. The placement of sensors and feedback mechanisms ensures accurate monitoring and adjustment of the solution's composition for dialysis fluid for patient treatment.

A system includes a fluid conduit to receive water from a water source, a first and second dialysis fluid concentrate. The system includes a pump fluidly connected to the fluid conduit and to pump the first and second dialysis fluid concentrate. The system includes a first and second dialysis fluid concentrate source fluidly connected to the pump and configured to store the first and second dialysis fluid concentrate, respectively. The system includes a processor configured to control an amount of mixing of the first dialysis fluid concentrate, the second dialysis fluid concentrate, and the water to output a dialysis fluid having a defined composition. The processor determines the defined composition of the dialysis fluid based on a change in weight of the first dialysis fluid concentrate source, the second dialysis fluid concentrate source, a mixing container configured to accommodate the dialysis fluid, or any combination thereof.

Home dialysis kits for preparing dialysis fluids are provided. The home dialysis kit comprises a first container comprising a first solution and a second container comprising a second solution. The first solution comprises at least one of a dextrose component, a pH agent, or any combination thereof. The second container comprises at least one of a calcium component, a magnesium component, a sodium component, a chloride component, a lactate component, or any combination thereof. The first solution and the second solution can be combined to produce a dialysis fluid. Related systems and related methods are also provided.