Abstract:
Disclosed herein is an ultrasonic probe having improved heat dissipation capability. The ultrasonic probe includes a housing, an acoustic module disposed in the housing, and configured to transmit an ultrasonic signal to an object and receive an signal reflected from the object, an electronic circuit disposed in the housing and electrically connected to the acoustic module to drive the acoustic module, and a hole communicating an outside of the housing with the electronic circuit so that the electronic circuit is cooled by air outside the housing.
Abstract:
Disclosed herein is an ultrasonic imaging apparatus including: a main body; a probe; a display unit connected to the main body in such a manner to be movable with respect to the main body; and a moving unit configured to connect the display unit to the main body, and to enable the display unit to move with respect to the main body, wherein the moving unit includes: a first coupling member rotatably attached on a part of the main body; a rotating arm coupled with the first coupling member and configured to rotate with respect to the first coupling member; and a moving member having one end coupled with the display unit, and installed in the rotating arm to enable the display unit to move in a longitudinal direction of the rotating arm.
Abstract:
Provided are an ultrasound imaging apparatus and a method of controlling the same, and more specifically, to a technique for displaying a gain compensation regulating unit including a time gain compensation (TGC) regulating unit or a lateral gain compensation (LGC) regulating unit corresponding to the set ROI when a region of interest (ROI) in an ultrasound image is set. The ultrasound imaging apparatus according to the embodiment includes an input unit configured to receive a command of setting a region of interest (ROI) in an ultrasound image; and a display unit including a first region on which the ultrasound image is displayed and a second region on which a gain compensation regulating unit configured to change a gain compensation value of the ultrasound image is displayed, wherein, when the command of setting the ROI in the ultrasound image displayed on the first region is input, the display unit displays only a gain compensation regulating unit corresponding to the input ROI in the ultrasound image on the second region.
Abstract:
An ultrasound imaging apparatus may control an ultrasound image in various ways and improve user convenience by controlling a touch screen or display output by the ultrasound imaging apparatus in accordance with a touch pressure or touch time of a user. The ultrasound imaging apparatus may include a probe configured to emit an ultrasonic signal to an object and receive a reflected ultrasonic signal; a processor configured to generate an ultrasound image based on the ultrasonic signal received by the probe; and a touch screen configured to output the ultrasound image generated by the processor and receive a touch of a user or a pressure of the touch, wherein the processor controls the ultrasound image and the touch screen based on the pressure of the touch.
Abstract:
Disclosed herein is an ultrasonic probe having improved heat dissipation capability. The ultrasonic probe includes a housing, an acoustic module disposed in the housing, and configured to transmit an ultrasonic signal to an object and receive an signal reflected from the object, an electronic circuit disposed in the housing and electrically connected to the acoustic module to drive the acoustic module, and a hole communicating an outside of the housing with the electronic circuit so that the electronic circuit is cooled by air outside the housing.
Abstract:
Provided is a method of manufacturing an ultrasound probe. The method includes: preparing a backing layer having first and second surfaces with different heights due to forming a groove in the backing layer, wherein first and second electrodes are exposed on the first and second surfaces, respectively; forming a third electrode that is in contact with the first electrode; forming a base piezoelectric unit on the third electrode, the base piezoelectric unit including a piezoelectric layer; forming a piezoelectric unit by removing an upper region of the base piezoelectric unit; and forming a fourth electrode on the backing layer and the piezoelectric unit.
Abstract:
Disclosed is a method of generating a diagnostic image by using a photoacoustic material. The method includes determining a wavelength band of light maximally absorbed by a photoacoustic material, based on at least one or more photoacoustic materials injected into an object, irradiating light, which corresponds to the determined wavelength band, onto an internal region of interest (ROI) of the object to acquire a photoacoustic signal corresponding to the irradiated light, generating a photoacoustic image indicating the ROI by using the photoacoustic signal, and combining and displaying the generated photoacoustic image and an image expressing that the light is being irradiated onto the ROI.
Abstract:
Disclosed herein is an ultrasonic imaging apparatus and a control method thereof. The ultrasonic imaging apparatus includes an acquisition unit configured to acquire a volume data of an object and a process configured to determine whether an acquisition position of the volume data is within an allowable range by using pre-stored landmark information and configured to acquire a plurality of reference planes from the volume data when the acquisition position of the volume data is within the allowable range.
Abstract:
Provided are an ultrasound probe and an operating method of the ultrasound probe which can select a power transmission channel and/or a wireless power transmission mode that are most appropriate in an environment in which power transmission channels exist. The operating method of the ultrasound probe includes operations of obtaining a plurality of pieces of information about power transmission channels; displaying a power transmission channel list, based on the plurality of pieces of information about the power transmission channels; selecting a power transmission channel from the power transmission channel list; and receiving wireless power that is transmitted via the selected power transmission channel.
Abstract:
A probe of an ultrasonic imaging apparatus and a method for manufacturing the same are disclosed. The probe for an ultrasonic imaging apparatus includes a piezoelectric unit including a piezoelectric substance and an electrode; a printed circuit board (PCB) unit having a printed circuit board (PCB), configured to be formed at a lateral surface of the piezoelectric unit; a matching layer formed at front surfaces of the piezoelectric unit and the PCB unit; and a backing layer formed at a back surface of the piezoelectric unit and the PCB unit. The probe and a method for manufacturing the probe can reduce a variation of ultrasonic acoustic characteristics caused by a printed circuit board (PCB) because the PCB is not arranged among a piezoelectric substance, a matching layer, and a backing layer. A PCB is provided at a lateral surface of the piezoelectric substance, so that strength against impact can be increased either during channel division based on dicing or during the usage time of a probe. In addition, a single crystal (monocrystal) may be used as a piezoelectric substance or the like, such that a probe having a large bandwidth can be formed, and low-frequency ultrasonic signals and high-frequency ultrasonic signals can be transmitted and received. In addition, the probe and the method for manufacturing the same can easily perform channel division of the acoustic module, and make the divided acoustic module using a curvature, and thus can be applied to various technical fields without being limited to the shapes of probes.