Abstract: A device (200) which includes a monitoring unit (210), a therapy unit (220), and a display (100) that includes a touch screen (110). The monitoring unit (210) can be configured to monitor a person's vital signs, such as a person's electrocardiogram (ECG). The therapy unit (220) can be configured to administer an electric shock. The display (100) can be configured to display the ECG and enable a user to scroll the displayed ECG back and forth and/or to zoom in and zoom out the displayed ECG by touching the touch screen (110). The display (100) can also be configured to enable the user to select two or more separate segments of the ECG to view together at the same time on the display (100), which segments can be separated by intervening segments of the ECG that can be hidden from being viewed on the display (100). The display (100) can have multiple user-interface windows (120, 130).

Abstract: A modular medical system employing a bedside patient monitor (20), a portable patient monitor (40), a monitor docking station (50), a therapy applicator (30) and a therapy docking station (60). In operation, the portable patient monitor (40) is docked to the bedside patient via the monitor docking station (50) whereby the bedside patient monitor (20) and the portable patient monitor (40) measure patient parameters (e.g., ECG, Sp O2, pulse rate, NIBP, Et CO2, etc.) upon the portable patient monitor (40) being coupled to a patient. Alternatively, the portable patient monitor (40) is docked to the therapy applicator (30) via the therapy docking station (60) whereby the therapy applicator (30) conditionally delivers the electrical therapy (e.g., defibrillation shock, synchronized conversion, transcutaneous pacing, etc.) to the patient upon the portable patient monitor (40) being coupled to the patient.

Abstract: A monitor/defibrillator (100) is described having an optical image sensor (114) such as a barcode reader or an optical character reader for accurate and timely entry of information during a medical treatment event. The barcode reader or optical character reader enables a one-step capture of patient identifying information, administered therapeutic substances, equipment and other event information. The information is decoded by the monitor/defibrillator and entered into system memory for later use.

Abstract: A system for electrocardiogram (ECG) interpretation includes a processor and memory coupled to the processor. A rendering module is stored in the memory and is configured to receive input from an ECG and correlate interpretation statements with ECG measurements responsible for the interpretation statements in the ECG. An interface is configured to permit user selection of at least one interpretation statement in a display, the display being configured to render visual indications of the ECG measurements on digitally rendered waveforms of the ECG.

Abstract: A modular medical system employing a bedside patient monitor (20), a portable patient monitor (40), a monitor docking station (50), a therapy applicator (30) and a therapy docking station (60). In operation, the portable patient monitor (40) is docked to the bedside patient via the monitor docking station (50) whereby the bedside patient monitor (20) and the portable patient monitor (40) measure patient parameters (e.g., ECG, Sp O2, pulse rate, NIBP, Et CO2, etc.) upon the portable patient monitor (40) being coupled to a patient. Alternatively, the portable patient monitor (40) is docked to the therapy applicator (30) via the therapy docking station (60) whereby the therapy applicator (30) conditionally delivers the electrical therapy (e.g., defibrillation shock, synchronized conversion, transcutaneous pacing, etc.) to the patient upon the portable patient monitor (40) being coupled to the patient.

Abstract: A modular medical device (e.g., modular defibrillator/monitor) employs a primary medical module including a primary power source (e.g., battery(ies) and/or power supply) for powering an execution of a primary medical task assigned to the primary medical module (e.g., electrical therapy), and a remote medical module including a remote power source (e.g., battery(ies) and/or power supply) for powering an execution of a remote medical task assigned to the remote medical module (e.g., patient parameter monitoring). In operation, primary medical module ascertains if primary power source has sufficient power or insufficient power for the execution of the primary medical task, and remote medical module controls a charging of remote power source by primary power source if primary medical module ascertains primary power source has sufficient power for the execution of the primary medical task.

Abstract: A mobile healthcare hub includes a processor, memory coupled to the processor and a display coupled to the processor. A communications module includes a mobile communication device configured to communicate with one or more monitoring devices. The one or more monitoring devices are configured to store measurement data and/or historic data for a particular patient. The mobile communications device is connected to the one or more monitoring devices upon entering a communication envelope. An information monitoring module is configured to receive, consolidate and process the measurement data and/or historic data for the particular patient from the one or more monitoring devices based upon relevance and context. A display formatting module is configured to receive the measurement data and/or historic data for the particular patient and format the measurement data and/or historic data for display on the display.

Abstract: An emergency medical device includes a treatment device including a display face, a base including a bottom portion configured to rest on a resting surface, and a back portion configured to extend beyond a rear surface of the treatment device opposite the front portion. A rear structure is connected to the treatment device and extends beyond the rear surface of the treatment device wherein the base is configured to provide a first angle of the display face when the bottom portion is resting on the resting surface, and wherein the back portion and the rear structure provide a second angle of the display face when the back portion and the rear structure are resting on the resting surface.

Abstract: A device (200) which includes a monitoring unit (210), a therapy unit (220), and a display (100) that includes a touch screen (110). The monitoring unit (210) can be configured to monitor a person's vital signs, such as a person's electrocardiogram (ECG). The therapy unit (220) can be configured to administer an electric shock. The display (100) can be configured to display the ECG and enable a user to scroll the displayed ECG back and forth and/or to zoom in and zoom out the displayed ECG by touching the touch screen (110). The display (100) can also be configured to enable the user to select two or more separate segments of the ECG to view together at the same time on the display (100), which segments can be separated by intervening segments of the ECG that can be hidden from being viewed on the display (100). The display (100) can have multiple user-interface windows (120, 130).

Abstract: A monitor/defibrillator (100) is described having an optical image sensor (114) such as a barcode reader or an optical character reader for accurate and timely entry of information during a medical treatment event. The barcode reader or optical character reader enables a one-step capture of patient identifying information, administered therapeutic substances, equipment and other event information. The information is decoded by the monitor/defibrillator and entered into system memory for later use.

Abstract: A system and device (200) which combines a defibrillator, patient monitor and a telemedicine server is described. The device enables a method whereby an external system or remote station may “pull” data from the device without the need for operator action or intervention. Safety-critical and non-safety-critical features in the device (200) are maintained separate by a firewall circuit (240) such that the remote station cannot write data to the device.

Abstract: A system for electrocardiogram (ECG) interpretation includes a processor and memory coupled to the processor. A rendering module is stored in the memory and is configured to receive input from an ECG and correlate interpretation statements with ECG measurements responsible for the interpretation statements in the ECG. An interface is configured to permit user selection of at least one interpretation statement in a display, the display being configured to render visual indications of the ECG measurements on digitally rendered waveforms of the ECG.

Abstract: Apparatus for single-handed control of a microscope are disclosed. In one embodiment, a first controller, such as a first rotary controller, is configured for manipulation by a hand of a user to adjust a position of a microscope stage. Another controller, such as a second rotary controller, is configured and arranged relative to the first rotary controller for manipulation by an extended finger of the same hand to review, e.g., scroll through, previously identified portions of a biological specimen while the user's first hand may or may not remain in contact with the first rotary controller. In this manner, the user may continue to review the previously identified specimen portions without having to look away from the microscope.

Abstract: Methods and systems for scanning a cytological specimen carried by a slide. Movement or positioning of a motorized stage of an automated screening system may be controlled manually by a user such that the user controls movement, e.g., controlling speed, position, and/or timing, of the motorized stage along a first scan line to controllably scan a first portion of the specimen along the scan line. The user may then index the motorized stage from the first scan line to the next scan line and manually control movement of the stage along the second scan line to controllably scan another portion of the specimen. Stage indexing may also be automatic such that the user does not control or initiate indexing.

Abstract: A detachable microscope pen mount for marking a microscope slide includes an attachment collar configured to secure to an objective lens, a lever secured to the attachment collar, a pen holder secured to the lever, and a pen secured to the pen holder and having a pen tip, where activating the lever moves the pen tip into a field of view and lowers the pen tip onto the microscope slide. Also disclosed is a method of marking a microscope slide includes identifying an object of interest in a field of view, positioning the object of interest in a center of the field of view, inserting a pen having a pen tip along a trough into a center of the trough, lowering the pen tip onto the microscope slide, and marking the microscope slide by tracing the inside of the center of the trough.

Abstract: A detachable microscope pen mount for marking a microscope slide includes an attachment collar configured to secure to an objective lens, a lever secured to the attachment collar, a pen holder secured to the lever, and a pen secured to the pen holder and having a pen tip, where activating the lever moves the pen tip into a field of view and lowers the pen tip onto the microscope slide. Also disclosed is a method of marking a microscope slide includes identifying an object of interest in a field of view, positioning the object of interest in a center of the field of view, inserting a pen having a pen tip along a trough into a center of the trough, lowering the pen tip onto the microscope slide, and marking the microscope slide by tracing the inside of the center of the trough.

Abstract: Methods and systems for scanning a cytological specimen carried by a slide. Movement or positioning of a motorized stage of an automated screening system may be controlled manually by a user such that the user controls movement, e.g., controlling speed, position, and/or timing, of the motorized stage along a first scan line to controllably scan a first portion of the specimen along the scan line. The user may then index the motorized stage from the first scan line to the next scan line and manually control movement of the stage along the second scan line to controllably scan another portion of the specimen. Stage indexing may also be automatic such that the user does not control or initiate indexing.

Abstract: Apparatus for single-handed control of a microscope are disclosed. In one embodiment, a first controller, such as a first rotary controller, is configured for manipulation by a hand of a user to adjust a position of a microscope stage. Another controller, such as a second rotary controller, is configured and arranged relative to the first rotary controller for manipulation by an extended finger of the same hand to review, e.g., scroll through, previously identified portions of a biological specimen while the user's first hand may or may not remain in contact with the first rotary controller. In this manner, the user may continue to review the previously identified specimen portions without having to look away from the microscope.

Abstract: An apparatus is provided to enable the direct gene transfer of genetic material into a target cell site (“microseeding”), as a means of obtaining long term expression of native or non-native polypeptides in a host. The apparatus includes a matrix of microneedles that oscillate at a predetermined frequency and receive the genetic material from a delivery system that is integrated with the apparatus.

Abstract: Methods for processing a cytological specimen suspended in a liquid. Light at a wavelength less than 450 nm is directed through the liquid. The intensity of the light transmitted through the liquid is detected and compared to a threshold to determine whether the blood content of the specimen should be reduced before a specimen slide is prepared. In one embodiment, Light at different wavelengths is directed through the liquid. One of the wavelengths is at or near a hemoglobin absorption peak that is less than 450 nm.