404 results about "Patient monitor" patented technology

A system and method to help maintain quality control and reduce cannibalization of accessories and attached probes in a highly sensitive patient monitor, such as a pulse oximetry system. One or more attached components may have information elements designed to designate what quality control mechanisms a patient monitor should look to find on that or another component or designate other components with which the one component may properly work. In a further embodiment, such information elements may also include data indicating the appropriate life of the component.

Embodiments of the disclosure include a noninvasive physiological patient sensor and a patient monitor capable of wireless communication with one another. An optical communication path can be used to provide the communication path between the noninvasive physiological patient sensor and the patient monitor. The path can be maintained by one or more light sources and detectors traditionally associated with noninvasive optical sensors or by one or more additional dedicated light sources and detectors.

As placement of a physiological monitoring sensor is typically at a sensor site located at an extremity of the body, the state of microcirculation, such as whether vessels are blocked or open, can have a significant effect on the readings at the sensor site. It is therefore desirable to provide a patient monitor and/or physiological monitoring sensor capable of distinguishing the microcirculation state of blood vessels. In some embodiments, the patient monitor and/or sensor provide a warning and/or compensates a measurement based on the microcirculation state. In some embodiments, a microcirculation determination process implementable by the patient monitor and/or sensor is used to determine the state of microcirculation of the patient.

A physiological measurement system can include a low noise patient cable that connects a monitor and a noninvasive optical sensor. The cable has a plurality of emitter wires configured to communicate a drive signal between the monitor and at least one emitter. The cable also has a plurality of detector wires configured to communicate a physiological signal between at least one detector responsive to the emitter and the monitor. The emitter and detector wires are orthogonally disposed so that crosstalk between the two functionally different wires is mitigated.

A portable patient monitor has an integrated mode in which it operates as a plug-in module for a multiparameter patient monitoring system (MPMS). The patient monitor also has a portable mode in which it operates separately from the MPMS as a battery-powered handheld or standalone instrument. The patient monitor has a sensor port that receives a signal indicative of physiological parameters as input to an internal processor. The patient monitor processes this sensor signal to derive patient measurements. In the portable mode, this information is provided on its display. In the integrated mode, the patient monitor provides patient measurements to the MPMS to be displayed on a MPMS monitor.

A patient monitor system implemented by a service provider for users via recording a patients analytes measurements by an attenuated total reflection (ATR) infrared total spectroscopy method. The system comprises an input module that provides a non-invasive method in measuring analytes in a patient, such as a measurement of the glucose level and other blood analytes. The measurement is shared among a plurality of output devices such as computers, personal digital assistants (PDAs), cellular phones, and pagers that are stationed or held by various users such as doctors, patients, researchers, pharmacies, labs, and health insurers. In addition behavioral attributes are recorded and correlated with the analytes measurements to generate a profile. The profile is selectively sent to output devices based on the user profile corresponding to the output device. Also, access to the profile is monitored by a security module that encrypts the profile to prevent access by un-authorized users.

The present invention provides a system and method for remote patient monitoring and caring, wherein the system has a distributed architecture. The system comprises sensors for measuring real-time physiological parameters, such as ECG and SpO₂, from patients. The system also comprises a monitoring terminal for monitoring these parameters. A local processing station analyzes the real-time physiological parameters. A central processing system processes the real-time physiological parameters and their analysis, in combination with the relevant historical medical data, for each patient. The medical staff uses this processed data to provide required medical care to the patients. Further, the system provides remote access of patients' data, via remote access stations

One aspect of the disclosure is to provide a patient monitoring system including a radio frequency identification (RFID) tag. The system comprises a patient monitor capable of communicating with the RFID tag. The RFID tag may advantageously store information useful in hospital environments, triage or disaster environments, home care environments, or the like. In some embodiments, the RFID tags may be provided as parts of wrist bands, dog tags, disposable sensor components, sensors or the like that are left with a patient.

A medical monitoring system includes a central station adapted to receive vital signs data concerning a plurality of patients, and one or more transmitter/receivers associated with the central station. At least one patient monitor is configured to monitor a particular one of the plurality of patients by collecting vital signs data from the particular patient, and configured to establish communications with the central station and communicate the collected vital signs data to the central station via the one or more transmitter/receivers. The at least one patient monitor is operable by a user to identify the particular patient from the plurality of patients, and to inform the central station of the identity of the particular patient. The central station is configured to associate the vital signs data received from the at least one patient monitor with the particular patient. The system, transmitter/receivers and at least one patient monitor may be wireless or wired. There is also a method for monitoring a patient.

An integrated radiopharmaceutical patient treatment system is disclosed including a patient support platform with an associated patient stimulus apparatus, an imager proximate the patient support platform, a radiopharmaceutical fluid delivery system for infusing a radiopharmaceutical fluid into a patient, a patient monitor to be associated with a patient, and an integrated system controller operably associated with the patient stimulus apparatus, imager, radiopharmaceutical fluid delivery system, and patient monitor to control and coordinate their operations. Within the patient treatment system the radiopharmaceutical fluid delivery system may be included comprising a radionuclide supply module, a radiopharmaceutical processing module, a quality control module, a patient injection module, and a controller. A hazardous fluid handling system including a docking station and a hazardous fluid transport device adapted to detachably dock with the docking station is further disclosed.

There is provided herein an electronic patient monitor that is suitable for use with a variety of different sensors and which automatically configures itself depending on the sensor that is used and/or the environment in which the electronic monitor is placed. In a first preferred embodiment, the electronic monitor determines whether it is being used on a bed or a chair by sensing whether or not a nurse call connector is present. If such a connector is plugged into the monitor, the unit will assume that it is being used with a sensor that has been placed on a bed and will configure its internal parameters appropriately. Such configuration would include changing a delay time to provide for longer delays before sounding an alarm than would be used with a chair monitor.

A system and method are provided for automatically developing and implementing, a comprehensive customized care plan for a patient, to address all of the patient medical and non-medical (e.g., social, quality-of-life, personal) needs, utilizing a wide variety of information: both gathered both personally from a patient by a medical professional and also collected automatically by one or more telemedicine systems. The system and method of the present invention also continually re-assess and dynamically modify the comprehensive care plan, and additionally enable a wide variety of services and benefits to be made available to the patients in a manner automatically customized for their specific needs, with the offered services and benefits being dynamically adjusted as the patient needs change or evolve. In addition, the inventive system provides platform-independent capabilities so that diagnostic systems and devices from various vendors may be freely mixed to provide patients with customized diagnostic monitoring at the lowest possible cost.

A method according to one aspect of the present invention includes receiving patient information, analyzing the patient information to identify a condition for the patient, and formatting a report based on the patient information and the patient condition. Embodiments of the present invention may be used to monitor any appropriate medical device from essentially any location from which a communications signal can be sent and received. This enables patients to enjoy an active lifestyle by not being tied to medical device monitoring equipment that is difficult or impossible to transport or having to routinely visit health care facilities. Multiple reports can be formatted to include any desired amount and type of information, and can be transmitted selectively to any number of users.