109 results about "Patient location" patented technology

A method and system for providing electrical pulses for neuromodulating a cranial nerve of a patient utilizing an implantable stimulator. The implantable stimulator comprising a pulse generator module and a stimulus receiver module for coupling with an external stimulator. Control circuitry ensures selective operation of one pulse generator module. The external stimulator comprises a telemetry module for remotely activating (or de-activating) programs over the internet, to arrive at the optimal program for each patient. Once the optimal “dose” is titrated using the external stimulator, the implanted pulse generator can then be programmed to such parameters. The external stimulator in conjunction with the implanted stimulus receiver can override the implanted pulse generator, to provide extra dose of therapy or to conserve the implanted battery. The external stimulator is also networked to other computers. The external programmer may also comprise a global positioning system (GPS) module for determining patient location.

A method and system for providing electrical pulses for neuromodulating a cranial nerve of a patient utilizing an implantable stimulator. The implantable stimulator comprising a pulse generator module and a stimulus receiver module for coupling with an external stimulator. Control circuitry ensures selective operation of one pulse generator module. The external stimulator comprises a telemetry module for remotely activating (or de-activating) programs over the internet, to arrive at the optimal program for each patient. Once the optimal “dose” is titrated using the external stimulator, the implanted pulse generator can then be programmed to such parameters. The external stimulator in conjunction with the implanted stimulus receiver can override the implanted pulse generator, to provide extra dose of therapy or to conserve the implanted battery. The external stimulator is also networked to other computers. The external programmer may also comprise a global positioning system (GPS) module for determining patient location.

A task management system uses patient tags (e.g., wireless RFID, Infrared tracking, GPS etc.) for patient location tracking, together with an integrated workflow system to automatically, track patient location how long they have been there and how many patients are at the same location (e.g., waiting room) and manages waiting time and an overall waiting queue, supporting automated adjustment of healthcare staffing, patient flows, and team coordination. A task management system for use in providing healthcare to a patient includes a patient tracking processor and a workflow processor. The patient tracking processor automatically acquires data derived by wireless communication from patient attached tag devices for use in identifying a location of multiple patients in a healthcare enterprise and identifying a first number of patients at a particular location and a second number of patients awaiting receiving a particular type of treatment. The workflow processor automatically initiates a patient load balancing activity to improve a match between a healthcare resource and a patient load by communicating a message to update a healthcare worker task schedule with a task in response to a determination the identified first or second number of patients exceeds a predetermined threshold number.

A patient's heart condition is monitored by a patient-location based unit. The patient-location based unit includes a receptacle for receiving a cartridge that includes heart condition monitoring information. The patient-location based unit receives information from the patient, monitors the patient's heart condition, and communicates with the patient regarding the patient's heart condition. The patient-location based unit also communicates with a central server. Both the patient-location based unit and central server communicate with a health care professional computer by transferring, to the health care professional computer, information related to the monitored patient's heart condition.

A system supports creation and modification of a flexible and comprehensive location structure model able to track patients in a healthcare (or other) setting and identify suitable patient locations and location availability via a user friendly display interface. A method processes location related information for use in facilitating movement of a patient in a healthcare enterprise. The method involves establishing a profile comprising information identifying multiple locations available to accommodate a patient for different purposes. The profile incorporates attributes including a location type identifier, and a location characteristic of clinical significance influencing availability of a particular location to a patient having a particular medical condition. The profile is employed in providing a user with an indication of location availability in response to user command.

A method for providing an intelligent schedule board for operating rooms in surgical centers and hospitals is provided. The method comprises displaying an estimated location of a patient on an operating room schedule board and displaying status information on the operating room schedule board. The method also comprises automatically updating the schedule dashboard as at least one of the location and the status of the patient changes. Patient location is estimated using an indoor tracking system and wherein the system is an RTLS system. Patient status information is entered by staff members by means of at least one of a tablet device, a phone device, and a computer. Patient status information is entered automatically by means of a computer vision scheme that detects patient status comprising at least one of a start of surgery and an end of surgery. Patient status information is entered using a voice recognition scheme.

A patient positioner for maintaining a patient's position during a medical procedure is provided. The patient positioner includes a generally rectangular body anchoring portion having a longitudinally disposed head and tail ends and two transversely disposed opposing side ends, placeable atop an operating table. There are a pair of spaced apart chest straps, a pair of spaced apart support base straps, a pair of upper arm straps, and a pair of wrist straps. There is a generally rectangular substrate backing having a longitudinally disposed head and tail ends and two transversely disposed opposing side ends, substantially concentrically disposed on and fixedly attached to the body anchoring portion. In one embodiment, an extender strap is further provided to facilitate securement of the support base straps to a support structure. In use, the body anchoring portion is positioned under the patient's torso with the substrate backing side ends wrapped over the arms while the chest straps are brought over the patient's shoulders and criss-crossed over the patient's chest and secured on an opposing side rail while the upper arm and wrist straps are brought from underneath the patient's torso and wrapped over the patient's arms. The support base straps are placed through a break of the operating table and brought around the support base and secured to each other to prevent the patient from sliding toward the head end of the operating table in the Trendelenburg position.

A system supports creation and modification of a flexible and comprehensive location structure model able to track patients and identify suitable patient locations and location availability via a user friendly display interface. A method provides a user interface system facilitating movement of a patient in a healthcare enterprise. The method involves receiving search criteria information for use in identifying at least one suitable location for occupation by a patient. The search criteria is employed in searching a profile comprising information identifying a hierarchical organization of locations available to accommodate a patient for different purposes within a healthcare enterprise. The different purposes include, (a) for hosting a patient encounter with a healthcare enterprise involving patient and healthcare enterprise interaction, or (b) for accommodating a patient. The search result information is processed to provide location availability information suitable for presentation to a user via a displayed image in response to user command.

A user interface and software system and architecture enables linking medical record information and patient location to a camera associated with that location when a particular patient is selected by a clinician using a health information system. The image of the patient as recorded by an in-room camera is displayed within a picture-in-picture display on a large plasma screen located at a command station, for example. The image may be controlled by a remote camera controller employing a Web-based user interface that allows a user to implement a pan-tilt-zoom (PTZ) camera controller via mouse control, for example. Information relating to patient location is used to remotely control, via Web-based application, the selection of the appropriate camera and the type of display in which to show the image. The user interface associated with this architecture provides an efficient and intuitive means of selecting specific images and specific display styles. The system operates in a parent-child relationship in which information associated with a parent application (HIS, for instance) is passed to the application architecture, thereby providing a direct, error-free and positive link to the application.

A method and system for providing electrical pulses for neuromodulating sacral nerves of a patient utilizing an implantable stimulator. The implantable stimulator comprising a pulse generator module and a stimulus receiver module for coupling with an external stimulator. Control circuitry ensures selective operation of one pulse generator module. The external stimulator comprises a telemetry module for remotely activating (or de-activating) programs over the internet, to arrive at the optimal program for each patient. Once the optimal “dose” is titrated using the external stimulator, the implanted pulse generator can then be programmed to such parameters. The external stimulator in conjunction with the implanted stimulus receiver can override the implanted pulse generator, to provide extra dose of therapy or to conserve the implanted battery. The external stimulator is also networked to other computers. The external programmer may also comprise a global positioning system (GPS) module for determining patient location.

The invention provides a wearable remote medical health management system. The wearable remote medical health management system has the advantages of small size and convenience in wearing, physiological parameters of a human body can be measured in real time without wounds, and meanwhile, the measured parameters can be sent to families, doctors, an emergency monitoring station and a data processing center; according to a large quantity of measured physiological parameters, a medical report and a nutrition report can be regularly given by the system, so as to facilitate the disease prevention of a patient; for abnormal indexes or states in a measuring process, the system can automatically give an alarm and send an alarm message to the monitoring station, and the monitoring station can analyze the alarm message and take further measures. In addition, the system has an innovative quick alarm function, and when a quick alarm key is long-pressed, the system can directly give an alarm call and automatically change the position of the patient, which is obtained by a GPS (Global Position System) module, into voice to be supplied to the other party. More importantly, a plurality of patients can be simultaneously monitored by the systems, so that centralized management is realized, and the management efficiency is improved.

Described herein is a process for patient localization within a medical imaging system, having a first and second signal means for identifying patient position. The patient is manually positioned on a patient table at an initial position outside the system. A first signal means is manually positioned adjacent an area of interest on the patient in the initial position and the first signal means communicates that initial patient position to a detection means. The second signal means communicates a desired final patient position location to the detection means. The detection means either essentially continuously monitors and compares said initial and subsequent positions to the final position, or calculates the distance between the initial position and the final position and causes the patient to move from the initial position to the final position when the positions are not essentially the same.

A method for maintaining and providing access to electronic medical records preferably utilizing multifunctional handheld tablet computers for real-time access to patients location and their records and rapidly updating those records. Using the tablets, tests can be ordered, results accessed and prescriptions sent electronically to pharmacists after being checked for allergic or drug interaction complications. Many medical provider's' records on the same patient reside on a central database giving a full view of the patient's complete medical history. Privacy of patient records is assured using permission and security protocols to secure the records from unauthorized access.

A method and device for maintaining and providing access to electronic medical records preferably utilizing multifunctional handheld tablet computers for real-time access to patients location and their records and rapidly updating those records. Using the tablets, tests can be ordered, results accessed and prescriptions sent electronically to pharmacists after being checked for allergic or drug interaction complications. Many medical providers' records on the same patient reside on a central database giving a full view of the patient's complete medical history. Privacy of patient records is assured using permission and security protocols to secure the records from unauthorized access.

A temperature measurement probe for a patient is provided. The probe includes a sensor assembly and produces a temperature map comprising temperature information for multiple patient locations.

A system which contains real-time specialist on-call data is disclosed. The system allows for the input and searching of specialist on-call data for various health care locations. The system is configured to allow a patient in need of the medical care of a specialist not currently available at the patient's location to search for the nearest health care location(s) with a physician of the desired specialization presently or soon to be on call. Methods of the same are also disclosed.

Systems, methods, and associated user interfaces for medical patient health monitoring systems are provided. Data entry at a patient system deployed at a patient location is facilitated through a soft keypad graphical element. The soft keypad graphical element defines user input areas of the display which correspond to respective alphanumeric inputs, and user inputs within any of the user input areas are detected. Detected user inputs may be displayed, stored in a memory, transmitted to a remote location, or otherwise processed. Patient-site monitoring system configuration mechanisms are also provided to support configuration of a patient system to operate with any of various peripheral devices. The presentation of prompts and other information to a patient is preferably controlled according to how the patient system has been configured, illustratively the types of peripheral devices in conjunction with which the patient system has been configured to operate.

In embodiments, a wearable cardiac defibrillator system includes an energy storage module configured to store a charge. Two electrodes can be configured to be applied to respective locations of a patient. One or more reservoirs can store one or more conductive fluids. Respective fluid deploying mechanisms can be configured to cause the fluids to be released from one or more of the reservoirs, which decreases the impedance at the patient location, and decreases discomfort for the patient. In some embodiments an impedance is sensed between the two electrodes, and the stored charge is delivered when the sensed impedance meets a discharge condition. In some embodiments, different fluids are released for different patient treatments. In some embodiments, fluid release is controlled to be in at least two doses, with an intervening pause.

A method of facilitating patient examinations in a medical office includes the following steps performed via a handheld device: identifying an examination location of a patient; identifying one or more medical procedures to be performed, wherein the one or more medical procedures are selected from the group consisting of: laboratory analysis of biological samples obtained from the patient, diagnostic tests on the patient, patient vaccinations and / or injections, and preparing a medical prescription; displaying a patient examination summary, wherein the displayed summary includes patient identification information, patient location information, patient health status information, and a list of identified medical procedures; and communicating wirelessly the patient examination summary to a nurse station computer within the medical office.

A system for communicating with a medical device implanted in an ambulatory patient and for locating the patient in order to selectively monitor device function, alter device operating parameters and modes and provide emergency assistance to and communications with a patient. The implanted device includes a telemetry transceiver for communicating data and operating instructions between the implanted device and an external patient communications control device that is either worn by or located in proximity to the patient within the implanted device tranceiving range. The control device preferably includes a communication link with a remote medical support network, a global positioning satellite receiver for receiving positioning data identifying the global position of the control device, and a patient activated link for permitting patient initiated personal communication with the medical support network. A system controller in the control device controls data and voice communications for selectively transmitting patient initiated personal communications and global positioning data to the medical support network, for initiating telemetry out of data and operating commands from the implanted device and transmission of the same to the medical support network, and for receiving and initiating re-programming of the implanted device operating modes and parameters in response to instructions received from the medical support network. The communications link between the medical support network and the patient communications control device may comprise a world wide satellite network, hard-wired telephone network, a cellular telephone network or other personal communications system. Methods and apparatae are also described that enhance the ability of the medical system to find patients and to get reports on patient and medical device status, and even update medical device programming using such facilities, and others described in detail within.

Medical monitoring and treatment apparatus, which is controlled by a plurality of control sources, includes a “personal medical device” (PMD) or an “implantable medical device” (IMD), respectively carried by, or implanted in, a patient. The PMD / IMD is alternatively self-controlled or controlled by one or more local external control stations, at or near the location of the patient, and / or one or more remote external control stations, remote from the patient. Either or both of the local and remote stations may be operated by a person, such as the patient, a patient facilitator and / or a medical professional, or the stations may operate automatically. Since the device is controlled by multiple sources, hierarchies are used to select the source of control.

In embodiments, a wearable cardiac defibrillator system includes an energy storage module configured to store a charge. Two electrodes can be configured to be applied to respective locations of a patient. One or more reservoirs can store one or more conductive fluids. Respective fluid deploying mechanisms can be configured to cause the fluids to be released from one or more of the reservoirs, which decreases the impedance at the patient location, and decreases discomfort for the patient. In some embodiments an impedance is sensed between the two electrodes, and the stored charge is delivered when the sensed impedance meets a discharge condition. In some embodiments, different fluids are released for different patient treatments. In some embodiments, fluid release is controlled to be in at least two doses, with an intervening pause.

A system for determining the location of patients uses a patient-associated communicator which wirelessly communicates with a network of environmental reference communicators arranged at fixed or otherwise known locations. A camera can be used to monitor or detect pressure ulcers and relay the information to a host system. Other embodiments are also disclosed.

An apparatus and a method are provided for determining a position of a patient during medical examinations. The apparatus comprises a tabletop operable to support the patient, at least one elongatable strain gauge which is integrated into the tabletop, and tabletop sensors operable to detect a sagging of the tabletop as a function of a change in length of the at least one elongatable strain gauge due to the sagging.