A portable device that receives data provided by one or more sensors and displays statistical data related to the sensor data or otherwise related to the person. Statistical data may include high, low, average, mean value, median value, standard deviation, least square, variance, distribution, compilation, etc. for or at any given time or period of time for the person being monitored, as well as for such values for segments or groups of the population, or limit values, or target values, etc. The values may represent measurements and other data related to physiological signs and parameters such as blood pressure, heart rate, body temperature, electrocardiogram, glucose level, substances and/or chemical presence or level, analyze measurements, etc. The portable device may also display such measurements. The portable device may compute the statistical data, with or without the aid of a remote computer, and/or store statistical data, and/or a remote computer may compute and/or store statistical data. The portable device may communicate with a remote computer through a wireless link from the portable device, which may compute and/or store statistical data and measurements.

Apparatuses and methods are provided for automatically determining which type of resuscitation treatment is most appropriate for a patient. Methods are provided that include the following. One or more time domain signal measurements are transformed into frequency domain data representative of a frequency content of the one or more time domain signal measurements. The frequency domain data is processed to identify peaks. For each of the peaks, for each of multiple points in time, multiple parameters of the peak are determined. Based on the multiple parameters of the peaks for each of the multiple points in time, a trajectory is determined. The determined trajectory is analyzed in determining a recommended type of resuscitation treatment. An output indication is provided of the recommended type of resuscitation treatment.

Systems and methods for monitoring various physiological and environmental factors, as well as systems and methods for using this information for a plurality of useful purposes, are provided. Real-time, noninvasive health and environmental monitors include a plurality of compact sensors integrated within small, low-profile devices. Physiological and environmental data is collected and wirelessly transmitted into a wireless network, where the data is stored and/or processed. This information is then used to support a variety of useful methods, such as clinical trials, marketing studies, biofeedback, entertainment, and others.

A chest compression monitor for measuring the depth of chest compressions achieved during CPR. A sensor of the chest compression monitor is disposed within its housing such that compression of the housing due to CPR compressions, and its resultant deformation, is detected by the sensor and used by the control system as the starting point for calculating chest compression depth based on an acceleration signal indicative of the downward displacement of the chest.

A monitor and recorder system having a monitor unit for gathering vital sign data from a patient and a memory module for automatically recording the data. Means are provided for protecting the data from accidental or intentional deletion of the data or corruption or damage to the memory module without proper authorization. The data is recorded in a circular memory such that when data must be deleted, the last-recorded data is deleted first. A procedure is disclosed for preserving all data for at least a minimal period of time in case an event such as a patient death occurs.

A chest compression monitor for measuring the depth of chest compressions achieved during CPR. A sensor of the chest compression monitor is disposed within its housing such that compression of the housing due to CPR compressions, and its resultant deformation, is detected by the sensor and used by the control system as the starting point for calculating chest compression depth based on an acceleration signal indicative of the downward displacement of the chest.

A method of monitoring a subject includes detecting subject head motion information via a microelectromechanical systems sensor associated with an earpiece worn by the subject, processing, via a processor associated with the earpiece, the head motion information to determine subject head displacement relative to an origin and to determine if the subject has fallen down and/or is not moving, and transmitting the processed head motion information to a remote device. The method further includes communicating corrective action to the subject from the remote device and/or communicating corrective action for the subject from the remote device to a third party. The earpiece may include an audio headset, a hearing aid, or an earpiece fitting.

A wearable monitoring device configured to be attached to a subject includes at least one physiological sensor configured to identify the subject and to detect and/or measure physiological information from the subject, at least one motion sensor, at least one battery, digital memory storage, at least one processor, and at least one transceiver. The at least one transmitter communicates sensor data from the at least one physiological sensor and the at least one motion sensor with at least one remote device and receives targeted advertisement information from the at least one remote device. The targeted advertisement information is generated by processing the sensor data from the at least one physiological sensor and the at least one motion sensor.

A surgical apparatus, system and methodology are provided that may be utilized to treat a plurality of medical conditions. A robotic apparatus may be utilized in the treatment of a medical condition or to assist a medical professional in a surgical procedure. Additionally, the robotic apparatus and system may be utilized during a surgical procedure to provide guidance and to narrow the margin of error. In an exemplary embodiment, a scan may first be performed on a patient to determine a plurality of surgically necessary characteristics, such as bone density, locations, and the like. A virtual treatment plan may be provided by the system. An active and/or passive robotic apparatus may be provided to assist in the surgical technique. The robotic apparatus may be an active robotic which includes surgical tools whereby the medical professional may perform the surgical technique with the assistance of the active robotic apparatus.

Improved approaches for monitoring status of articles being shipped are disclosed. The monitoring can produce notifications to interested parties. The notifications typically contain status information pertaining to the articles being shipped. Alternatively, interested parties can gain access to status information pertaining to the articles being shipped via a website. According to one embodiment, the status information includes at least position (location) information and shipping conditions information.