12 results about "Electrocardiographs" patented technology

A diagnostic electrocardiogram (ECG) apparatus (20) is disclosed herein. The apparatus comprises a body and printed electrodes. The body (110) includes extension members (61-66), with each having an expansion section (61a) and at least one electrode section (61b). Each expansion section (61a) has at least one concertina member (75) and at least one connector member (76). The diagnostic ECG apparatus (20) conforms to American Heart Association guidelines on diagnostic resting ECGs.

An ultrasonic diagnostic apparatus is provided. A control section has a processor functioning as a synchronization signal generation section that generates a first synchronization signal, controls an ultrasonic probe in accordance with the first synchronization signal, a processor functioning as an ultrasonic image generation section, and a connector that has a synchronization signal line that transmits a second synchronization signal generated by the synchronization signal generation section and a data line that transmits data, outputs the second synchronization signal to the outside via the synchronization signal line, can be connected to a light source device that emits light to be incident on an insert, causes the second synchronization signal to be output via the synchronization signal line, the insert has a photoacoustic wave generation section that generates a photoacoustic wave by absorbing light, can also be connected to an electrocardiograph that stores identification information for identifying the apparatus, and outputs the second synchronization signal corresponding to the electrocardiograph via the connector when the identification information is acquired via the connector and it is detected that the electrocardiograph is connected in accordance with the identification information.

A diagnostic electrocardiogram system employs an electrode lead system (40) to generate one or more electrode signals indicative of electrical activity of a subject's heart (10). The diagnostic electrocardiogram system also employs a diagnostic electrocardiograph (50) coupled to the electrode lead system (40) to communicate (e.g., list, display, and / or print) a subject electrocardiogram (20) and one or more diagnostic electrocardiograms (30) designated as morphologically matching the subject electrocardiogram (20), involving determining a probability that the diagnostic electrocardiogram(s) (30) represent an accurate diagnostic assessment of the subject electrocardiogram (20) based on a similarity between a morphology of the subject electrocardiogram (20) and a morphology of the at least one diagnostic electrocardiogram (30). The subject electrocardiogram (20) provides one or more interpreted information of ECG features derived from the electrical activity of the subject's heart (10) indicated by the electrode signal(s). The diagnostic electrocardiogram(s) provide one or more diagnosed information of ECG features derived from recorded electrical activity of a diagnostic heart (11).

This utility model belongs to the field of electrocardiographs, specifically an anti-tangling mechanism for electrocardiogram lines. It includes an electrocardiograph, with lead wires inserted into its right side and a storage tray inserted into its left side. The storage tray has a cylindrical groove at its top and a storage cavity inside. A guide assembly is located inside the storage tray, including a fixed post fixedly installed inside the cylindrical groove and a winding assembly at its bottom. This utility model prevents lead wires from tangling by passing them through corresponding U-shaped blocks to the patient's body surface, then using an arc-shaped limiting plate to fix the lead wires between the U-shaped blocks and the fixed post, and finally winding the lead wires around the surface of the winding rod. Most of the wound lead wires are located inside the storage cavity, resulting in neater lead wires on the patient's bed and improved viewing comfort.

The utility model relates to the technical field of entry and exit prevention and control, in particular to a special moving bed for electrocardiographic examination of entry and exit personnel. An electrocardiogram placing table is connected above the examination bed body, an electrocardiogram lead electrode placing disc is arranged above the electrocardiogram placing table, the tail end of the electrocardiogram lead electrode placing disc is connected with a movable disinfection mechanism, a main body of the movable disinfection mechanism is a [-shaped shell, and ultraviolet disinfection lamps are connected to the inner periphery of the shell; and the top wall of the shell is provided with a no-clean disinfectant spraying and releasing opening. The electrocardiogram lead electrode is ingenious in design and simple in structure, and the probability of infectious diseases existing in the electrocardiogram lead electrode and part of the contact lead wire can be reduced; the problem of inaccurate measurement caused by frequent moving of the electrocardiograph is avoided; used electrodes and wires can be quickly disinfected, so that the working efficiency of entry and exit physical examination is improved; and the heating mechanism can reduce the discomfort of the examinee.

This invention provides an electrocardiogram (ECG) instrument amplifier circuit and an ECG signal acquisition system. In the ECG instrument amplifier circuit provided by this invention, a first terminal of a first capacitor scaling circuit is connected to the first output terminal of the instrument amplifier; a second terminal of the first capacitor scaling circuit is connected to the first terminal of a first neutralizing capacitor array; the second terminal of the first neutralizing capacitor array is connected to the first terminal of a first switch; and the second terminal of the first switch is connected to the first input terminal of the instrument amplifier. A second capacitor scaling circuit has its first terminal connected to the second output terminal of the instrument amplifier; its second terminal is connected to the first terminal of a second neutralizing capacitor array; the second terminal of the second neutralizing capacitor array is connected to the first terminal of a second switch; and the second terminal of the second switch is connected to the second input terminal of the instrument amplifier. A parasitic capacitance calibration circuit is connected to both the first and second input terminals of the instrument amplifier. This ECG instrument amplifier circuit can significantly improve the input impedance of the instrument amplifier.

Provided is an electrocardiogram lead guide system. The electrocardiogram lead guide system may include: an electrocardiograph attached to a part of a body of a patient and acquiring posture information and electrocardiogram signals using a plurality of sensors; and a user terminal providing guide information for guiding the attachment direction of the electrocardiograph based on the posture information.

1. Name of the product in this design: Electrocardiograph (for cardiology nursing). 2. Purpose of this design: For use in electrocardiographs (for cardiology nursing care). 3. The key design feature of this product is its shape. 4. The image or photograph that best illustrates the design's key points: a 3D model.

This invention relates to the field of electrocardiogram (ECG) signal processing technology, and particularly to a method and system for indirectly acquiring ECG vectorgraphs using a conventional electrocardiograph. This method utilizes the chest lead electrodes C1, C2, C3, C4, C5, and C6 of a conventional electrocardiograph to acquire unipolar lead ECGs corresponding to the I, E, C, A, M, and H detection points in the Frank lead system, denoted as V... I V E V C V A V M V H Based on the pressurized unipolar limb lead aVF signal output by a conventional electrocardiograph and the V signal of the left lower limb unipolar lead electrocardiogram... F The relational expression is used to calculate V. F Signal; based on the V I V E V C V A V M V H and V F The signal is used to calculate the x, y, and z signals of a bipolar orthogonal lead electrocardiogram using a preset linear combination formula; the calculated x, y, and z signals are then used to synthesize a two-dimensional or three-dimensional electrocardiogram vector map. This invention enables conventional electrocardiographs to simultaneously generate electrocardiogram vector maps without increasing hardware costs, achieving dual diagnosis with a single examination.

Embodiments of the present application provide a method and device for determining configuration information. The method comprises: determining a target type of a target electrocardiograph connected to a terminal device; determining target configuration information matched with the target type of the target electrocardiograph from configuration information of electrocardiographs of different types provided by an electrocardiograph application, wherein the target configuration information at least comprises a physical connection mode between the terminal device and the target electrocardiograph, a data transmission protocol and a data analysis mode; and saving the target configuration information. The technical solution provided by the embodiments of the present application can set configuration information for electrocardiographs of different types, realize the function that one electrocardiograph application can be compatible with electrocardiographs of different types, and thus it is not necessary to develop different electrocardiograph applications for electrocardiographs of different types, and the development work of the electrocardiograph application is reduced.

The invention relates to measurement systems and methods comprising at least one first transducer for generating measurement signals of a state variable representing a blood flow rate or pressure in an artery, an electrocardiograph for recording an electrocardiogram to allow for synchronization of multiple of said measurement signals, a software comprising an input comprising multiple of said measurement signals, each of said measurement signals contains a time domain signal of at least one state variable representing a blood flow rate or pressure within an artery at a single measurement point of multiple measurement points distributed throughout an arterial tree, wherein the software is capable of performing at least a first signal processing step and a second signal processing step on the measurement signals including the approximation or identification of at least one natural pulsation frequency and one pulsation mode shape of the state variable throughout the arterial tree.