241 results about "Patient monitoring device" patented technology

A system and method for monitoring patient variables in a wireless manner via a patient worn monitoring device is disclosed. The patient monitoring device is wearable and connects to a variety of sensors with at least one microphone for voice communications. The device connects to a wireless network and thence to the Internet for transmitting data to a Host for access by a medical care provider. The medical care provider communicates with the patient-wearable device via the Internet and the wireless network to send instructions to the patient-wearable monitoring unit and to communicate via voice with the patient. The medical care provider can also flexibly reconfigure the device to change collection parameters. When an alarm limit is exceeded as detected by the sensors, the data are transmitted to the Host computer for use by the medical care provider, thereby allowing full mobility to the patient wearing the device.

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.

A docking station advantageously provides a location identifier to a portable processing device which processes the location identifier to determine docking station location (and other information) and to upload settings and configuration information related to an identified location which is retained until a different docking station location is encountered. In a system for use in a docking station suitable for attaching to a portable patient monitoring device for processing signal parameters acquired from a patient, a power coupler couples power to provide electrical power to a portable processing device. An adaptive communication interface, in a first mode of operation, communicates an identifier associated with a particular docking station to the portable processing device, and in a second mode of operation, establishes connection of the portable processing device to a network.

A body worn patient monitoring device includes at least one disposable module including a plurality of electrical connections to the body. The body worn patient monitoring device also includes at least one communication-computation module, the communication-computation module having at least one microprocessor to actively monitor the patient and to perform a real-time physiological analysis of the physiological signals. A radio circuit communicates a raw physiological signal or a result of the physiological analysis at a predetermined time or on the occurrence of a predetermined event, via a radio transmission to a remote radio receiver, wherein the at least one disposable module is mechanically and electrically coupled directly to the at least one communication-computation module. The body worn patient monitoring device, including the at least one disposable module and the at least one communication-computation module, is directly non-permanently affixed to the skin surface of the patient.

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.

Embodiments of the disclosure include an orb or lamp communicating with a noninvasive monitor to provide a readily identifiable point indication of a wellness of a monitored patient. In an embodiment the orb emits a color gradient from a first color through at least two other colors responsive to values of a wellness measurement. Exemplary wellness indications include one or a statistical combination of blood constituent measurements, combinations of other physiological parameters, or the like.

A user interface enables a critical care clinician (such as a respiratory therapist, nurse, resident, or attending physician) to quickly ascertain a patient condition as part of a patient care management procedure. A system according to invention principles comprises a user interface display providing a quick and convenient way to display key vital parameters and their acceptable ranges within the immediate eye-span of a clinician. A system provides a user interface presenting patient medical parameter data, and includes an acquisition processor for acquiring, from a patient monitoring device, data representing a patient parameter. The system includes a processor for initiating generation of data representing at least one display image including, (a) a current value of a patient parameter and (b) a sliding bar representation of the patient parameter current value together with a range indicator for graphically indicating whether the current value is outside of a user determined range.

Devices, systems and methods provide passive patient monitoring of such parameters as body motion, body position, respiratory rate and / or heart rate. Passive monitoring generally involves a sensor device having at least two piezoelectric sensors, provided on a surface, such as a bed, chair, operating table or the like, so that a patient may be coupled with the device by simply allowing the patient to lie, sit, lean, stand on or wear the surface. In one embodiment, multiple patients in a general care area of a hospital may be continuously monitored via multiple passive monitoring devices. If a patient fails to meet one or more predefined threshold criteria or has a negative physiological trend, the system may activate an alarm.

A docking station advantageously provides a location identifier to a portable processing device which processes the location identifier to determine docking station location (and other information) and to upload settings and configuration information related to an identified location which is retained until a different docking station location is encountered. In a system for use in a docking station suitable for attaching to a portable patient monitoring device for processing signal parameters acquired from a patient, a power coupler couples power to provide electrical power to a portable processing device. An adaptive communication interface, in a first mode of operation, communicates an identifier associated with a particular docking station to the portable processing device, and in a second mode of operation, establishes connection of the portable processing device to a network.

A patient monitoring system provides enhanced functional capability relative to known systems and provides a wireless communication link between a patient monitoring device, worn by a patient, and a local hub. The patient monitoring system is adapted to monitor various patient physiological characteristics, such as blood pressure, pulse rate, blood glucose, weight, pulse oximetry and others. The data from the patient monitoring device is wirelessly transmitted to a local hub, which, in turn, is configured to automatically transfer the data to a remote server, for example, over a public or private communications network. In one embodiment of the invention, the server is configured as a web portal to selectively allow access to such patient physiological data by designated third parties, such as physicians, clinicians, relatives and the patient themselves.

A smart bed apparatus adapted to retain a patient and a smart bed system are disclosed herein. The smart bed apparatus includes a smart bed computer, and a patient monitoring device operatively connected to the smart bed computer. The patient monitoring device is incorporated with the smart bed such that the smart bed is not restricted by any wires adapted to couple the patient monitoring device with the patient. The smart bed system includes a server coupled with the smart bed computer. The server is configured to store any patient data pertaining to the patient. The patient data can be selectively transferred from the server to the smart bed computer such that the patient data is accessible directly from the smart bed.

A mobile smart bed adapted for use outside a hospital environment is disclosed herein. The mobile smart bed includes a smart bed computer, and a patient monitoring device operatively connected to the smart bed computer. The smart bed computer is remotely accessible such that a remotely located caregiver can control the patient monitoring device in order to monitor a patent. A corresponding mobile smart bed system is also disclosed herein.

Patient information is acquired using a patient monitoring device. The patient information is selected from of at least one of, a patient's activities, behaviors and habit information, and patient monitoring. The patient monitoring device has a unique patient ID, ID circuitry including ID storage, a communication system that reads and transmits the unique ID from an ID storage. Also included are a power source and a pathway system to route signals through the circuitry. A database of patient ID's is accessed at the telemetry system. The patient information is communicated from the patient monitoring device with the telemetry system in communication with the patient monitoring device. Patient information is analyzed at the telemetry system to create personalized information about the patient.

A patient treatment monitoring system includes an interface for receiving multiple different types of patient medical information including data derived from a patient monitoring device and a patient medical imaging device. A data processor processes the received multiple different types of patient medical information to be suitable for presentation in a display image. A display processor initiates generation of data representing a single composite display image including an image element representing multiple sequentially performed individual stages of a treatment process. The individual stages are associated with corresponding different sets of the received multiple different types of patient medical information. The single composite display image includes multiple image areas for displaying one of the corresponding different sets of the received multiple different types of patient medical information, in response to user selection of a particular stage of the individual stages using the image element.

A monitoring device for monitoring the physiological condition of a patient (1) on a continuous basis, which includes a transmitter unit (2) adapted to attach to a patient so as to be in contact with the skin of a patient, a corresponding receiver unit (5). The transmitter unit includes a strap or belt (3) adapted to attach to or around a body part of a patient. A plurality of sensors (E) are mounted to the belt for monitoring a plurality of patient physiological parameters, including at least the patient's skin impedance, heart rate and aspects of the heart beat. The sensors are connected to a microcontroller (8) which processes the signals and which is linked to a wireless transmitter (9). A portable receiver unit is adapted to receive and process the signal from the transmitter. The receiver unit includes a display (14) for data relating to the patient and preferably an alarm (15).

A medical telemetry system includes a central station having a central station receiver and a central station transmitter that both operate on a frequency bandwidth having frequency multiplexed transmission channels and guard bands. A guard band separates each of the frequency-multiplexed transmission channels. The central station receiver wirelessly receives patient data from one of the frequency-multiplexed transmission channels. The central station transmitter wirelessly transmits control data information via each of the guard bands. At least one patient monitor is provided that includes a patient monitor receiver and a patient monitor transmitter that both operate on the frequency bandwidth. The patient monitor is wirelessly connected to the central station. The patient monitor receiver is configured for wirelessly receiving the control data information from the central station transmitter via the guard bands. The patient monitor transmitter is configured for wirelessly transmitting the patient data to the central station receiver via one of the frequency multiplexed transmission channels.

The invention relates to a patient monitoring device, especially to a pulse oximeter, provided with multiple sensors for performing simultaneous measurements at multiple tissue sites. In order to reduce the hardware required by the measurement, a repeating drive pulse sequence is generated, which contains drive pulses for the emitter elements of the plurality of sensors. Furthermore, each drive pulse of the sequence is supplied to a corresponding emitter element and sensor-specific detectors connected in parallel are employed to produce an electric reception signal received at the monitoring device.

Some embodiments provide a system for synchronizing and configuring monitoring devices. In some embodiments, a patient monitoring device settings module is configured to automatically provide configuration settings to a plurality of patient monitoring devices. A monitoring device data module is configured to receive measurement data from at least one of the patient monitoring devices. An electronic medical records system interface is configured to provide patient data at least partially derived from the received measurement data to an electronic medical records system. A patient records interface is configured to provide patient data to at least one of the patient monitoring devices.

A user interface system provides patient medical parameter data for trend indicative display covering a time period comprising user selectable acquisition time intervals. An acquisition processor acquires, from a patient monitoring device, data representing a patient parameter comprising a plurality of data values at a corresponding plurality of different times within multiple user selectable patient parameter acquisition intervals of a time period. A generator generates data representing a first image showing a trend indicative display of the patient parameter covering a time period comprising user selectable acquisition time intervals and including a first number of data points in an individual acquisition time interval. The generator generates data representing an image window comprising an expansion of the individual acquisition time interval and including a second number of data points greater than the first number, in response to user command. The generator updates the individual acquisition time interval of the first image with at least one data point selected from the expanded individual acquisition time interval window to replace the first number of data points, in response to user command.

A system for automatically integrating various patient monitoring equipment into a nurse call system is implemented by incorporating a software system agent that translates communications in the patient monitoring equipment communication channel to a software system readable format. By translating the patient monitoring system's communications, a software system or computer can interpret the communications and act accordingly by signaling staff members, doctors, etc., in a manner that was not feasible by the hardware of the patient monitoring system. By interpreting the communications and having a nurse call system translation feature in the software system agent, nurse call systems can be “coupled” to the patient monitoring system to enable a synergy between systems that were here thereto incompatible or had limited functional capabilities. By combining non-compatible or limited feature patient monitoring systems with nurse systems, and by using a software process to interpret and control responses, enhanced functionalities and alerting capabilities are made available.

A wireless bi-directional portable patient monitor incorporated into a mobile clinical information management system is disclosed. The portable patient monitor includes a communications interface to receive patient data from a wireless local area network (WLAN) within a medical care facility and transmit care parameters as needed to the wireless network (WLAN) in response. The portable patient monitor includes a processor connected to the communications interface to process the patient data and the care parameters. A display is connected to the processor to display the processed patient data to the health care provider. The monitor includes an input device connected to the processor to allow a change in the care parameters by the health care provider. The portable patient monitor is also configured to allow wireless transport on the health care provider for extended periods. The mobile clinical information management system includes a number of bedside patient monitors to connect to the patients and transmit the patient data. The system also includes the wireless network coupled to the bedside patient monitors and the portable patient monitors to improve efficiencies in the delivery of health care in the medical care facility.

Embodiments of the invention disclosed herein generally include methods and / or devices for increasing blood flow, controlling the vasodilatation of a patient's vascular structure, regulating the temperature of a portion of a mammal, and for improving various interventional procedures and / or therapeutic techniques. The device may also include one or more access ports, or apertures, that allow access to portions of the mammal's extremity to allow interventional type medical devices, therapeutic devices, surgical support equipment or patient monitoring devices to have access to the extremity on which a body element is disposed. The device may also be configured to allow other supporting components, which may include IV or other catheters, a means of accessing to a portion of the extremity positioned inside the temperature regulating device. In one configuration the device comprises flexible materials that are adapted to conform to the surface of the extremity disposed in the device when a vacuum pressure is applied to an internal region of the device.

Systems and methods of monitoring a patient. Exemplary methods include receiving sensor data associated with the patient from a plurality of sensors of a patient monitoring device and determining whether the sensor data satisfies one or more trigger conditions. For each of the trigger conditions satisfied, one or more messages are sent to at least one of the patient monitoring device and an external computing device for display thereby to at least one of the patient, a caregiver, and a support person. Satisfaction of one or more of the trigger conditions may indicate the patient has edema and / or is trending toward decompensation. The sensor data may have been collected from a heart rate sensor, an oximeter, an accelerometer, and / or a sensor configured to detect a distance around a limb of a patient. In some embodiments, the trigger conditions are provided by the patient, caregiver, and / or support person.

An MRI compatible communication system is disclosed. An interface module manages communications between devices within and external to the MRI scan room. The interface module also translates messages between varying wireless communication standards and protocols for retransmission to other devices. The communication system is configurable to transmit and / or receive data between physiological sensors, the MRI controller, patient monitoring devices, patient entertainment devices, and other computers. The interface module is configurable to be placed either in the control room or in the scan room.

An apparatus, system, and method are disclosed for determining a patient's condition. A system for determining a patient's condition, in one embodiment, comprises a computer processor device, an interface between the computer processor and one or more patient monitoring devices, and a software program configured to interpret patient input data, diagnose the patient's condition, and recommend treatment options. A method for determining a patient's condition may comprise receiving patient data from one or more patient monitoring devices, consulting a treatment database, determining a diagnosis, and converting a diagnosis into a treatment.

A system and method integrating healthcare delivery to patients using data bridges that connect healthcare providers, patients, patient medical education, and patient monitoring devices is disclosed. The system incorporates a mobile user interface device (MUD) allowing user inputs or detected events from a variety of medical instrumentation devices (MID) to be controlled by a healthcare web server computer (HWS) over a computer communication network (CCN). Information retrieved from the MID and transmitted by the MUD to the HWS is then used by a patient healthcare monitor (PHM) process to populate a medical records database (MRD). MRD contents are then matched to patient healthcare plan (PHP) event / time triggers (ETT) that drive information from a provider content database (PCD) to the MUD through the HWS over the CCN. Healthcare provider update / control of the PHP / ETT / PCD allow integration of patient educational materials with patient health status monitoring.

A patient monitoring system provides enhanced functional capability relative to known systems and provides a wireless communication link between a patient monitoring device, worn by a patient, and a local hub. The patient monitoring system is adapted to monitor various patient physiological characteristics, such as blood pressure, pulse rate, blood glucose, weight, pulse oximetry and others. The data from the patient monitoring device is wirelessly transmitted to a local hub, which, in turn, is configured to automatically transfer the data to a remote server, for example, over a public or private communications network. In one embodiment of the invention, the server is configured as a web portal to selectively allow access to such patient physiological data by designated third parties, such as physicians, clinicians, relatives and the patient themselves.

A system for automatically integrating various patient monitoring equipment into a nurse call system is implemented by incorporating a software system agent that translates communications in the patient monitoring equipment communication channel to a software system readable format. By translating the patient monitoring system's communications, a software system or computer can interpret the communications and act accordingly by signaling staff members, doctors, etc., in a manner that was not feasible by the hardware of the patient monitoring system. By interpreting the communications and having a nurse call system translation feature in the software system agent, nurse call systems can be “coupled” to the patient monitoring system to enable a synergy between systems that were here thereto incompatible or had limited functional capabilities. By combining non-compatible or limited feature patient monitoring systems with nurse systems, and by using a software process to interpret and control responses, enhanced functionalities and alerting capabilities are made available.