Ultrasonic imaging equipment and host of ultrasonic imaging equipment

Abstract

The utility model provides a host and ultrasonic imaging equipment. The ultrasonic imaging equipment comprises a display; a first ultrasonic probe and a second ultrasonic probe; the first ultrasonic probe has an A-ultrasonic examination mode; the second ultrasonic probe has a first B-ultrasonic examination mode and at least one second B-ultrasonic examination mode; the processor is used for responding to interactive operation of a user on the display interface and enabling the corresponding ultrasonic probe to enter a preset examination mode, and the preset examination mode comprises the following steps: based on different interactive operations: enabling the first ultrasonic probe to enter an A-ultrasonic examination mode and enabling the second ultrasonic probe to enter a B-ultrasonic examination mode; enabling the second ultrasonic probe to enter a first B-ultrasonic examination mode so as to carry out B-ultrasonic imaging on a first detection part of the to-be-detected object; and enabling the second ultrasonic probe to enter at least one second B-ultrasonic examination mode. The ultrasonic imaging equipment can be used for ophthalmology A ultrasound, ophthalmology B ultrasound and various examinations of other parts, so that different clinical requirements are met.

Description

Technical Field

[0001] The utility model relates to the field of ultrasonic technology, in particular to an ultrasonic imaging device and a host of the ultrasonic imaging device. Background Art

[0002] A-ultrasound diagnosis (abbreviated as A-ultrasound) is ultrasonic oscillographic diagnosis. It displays the reflected signals of each interface in human tissue as a wave pattern, and uses the distance and amplitude shown by the echo wave as the basis for diagnosis. At present, A-ultrasound is a commonly used technical means in ophthalmic surgery. For example, A-ultrasound can be used to obtain the axial length of the eye. This biological parameter is of great significance for the selection of surgical plans and the evaluation of postoperative safety and stability.

[0003] At present, ophthalmology departments are generally equipped with an A-ultrasound machine including an ophthalmic probe. When performing an A-ultrasound eye test, the doctor needs to let the patient lie flat on the bed, then place the ophthalmic probe on the patient's eyes, and then control the ophthalmic probe to emit ultrasonic waves to obtain the parameters of the eye. Since the ophthalmic probe needs to be placed on the patient's eyes, the volume of the ophthalmic probe is usually small, and the number of array elements that can be included is also relatively small. Even most ophthalmic probes are single-element probes. The advantage of a small number of array elements is that it can reduce the volume and weight. The disadvantage is that it will make the function of the ophthalmic probe single, which in turn leads to a relatively single function of the A-ultrasound machine. At present, medical staff have found that single-function A-ultrasound machines are increasingly unable to meet clinical needs, which is also one of the problems that urgently need to be improved or solved. Utility Model Content

[0004] According to the first aspect, an ultrasonic imaging device is provided in one embodiment, comprising:

[0005] A display, used to display a display interface;

[0006] At least two ultrasound probes, wherein the at least two ultrasound probes include a first ultrasound probe and a second ultrasound probe;

[0007] The first ultrasonic probe comprises a light emitting member, and the first ultrasonic probe has an A-ultrasound inspection mode. When the first ultrasonic probe is set to the A-ultrasound inspection mode, the first ultrasonic probe is used to perform A-ultrasound imaging of a first detection part of the object to be detected, and the light emitting member is used to emit light to focus the line of sight of the object to be detected so that the first ultrasonic probe can perform A-ultrasound imaging of the first detection part; wherein the first detection part is an eye;

[0008] The second ultrasound probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasound probe is set to the first B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be tested. When the second ultrasound probe is set to the second B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging of the second detection part of the object to be tested; wherein the second detection part is different from the first detection part.

[0009] In some embodiments, it also includes:

[0010] A probe connection end, wherein the probe connection end can be connected to or disconnected from the first ultrasonic probe and the second ultrasonic probe;

[0011] A processor is used to identify the ultrasound probe connected to the probe connection end, and control the display to display a corresponding mark on the display interface; wherein,

[0012] When it is recognized that the probe connection end is connected to the first ultrasound probe, controlling the display to display a first ultrasound probe identifier on the display interface;

[0013] When it is identified that the probe connection end is connected to the second ultrasound probe, the display is controlled to display the second ultrasound probe logo on the display interface; when an activation signal for the second ultrasound probe logo is detected, the display is controlled to display the first B-ultrasound examination mode logo and at least one second B-ultrasound examination mode logo; when an activation signal for the first B-ultrasound examination mode logo is detected, the second ultrasound probe is set to the first B-ultrasound examination mode; when an activation signal for any one of the second B-ultrasound examination mode logos is detected, the second ultrasound probe is set to the second B-ultrasound examination mode corresponding to the second B-ultrasound examination mode logo that detects the activation signal.

[0014] In some embodiments, the processor is further configured to: when an activation signal for any of the inspection mode identifiers is detected, control the display to display detection information corresponding to the inspection mode on the display interface; wherein,

[0015] If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection part;

[0016] If an activation signal for the first B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound examination mode; if an activation signal for the second B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound examination mode.

[0017] In some embodiments, the processor is further configured to:

[0018] In response to a detection information switching operation input by a user, the display is controlled to switch the detection information currently displayed on the display interface to the detection information specified by the detection information switching operation.

[0019] In some embodiments, the display interface includes a first display area and a second display area, the first display area is used to display the corresponding identification, and the second display area is used to display the corresponding detection information.

[0020] In some embodiments, the display includes a first display and a second display, the display interface includes a display interface of the first display and a display interface of the second display, the display interface of the first display includes the first display area, and the display interface of the second display includes the second display area.

[0021] In some embodiments, when the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site, the second display area includes an upper part and a lower part, the upper part is used to display the parameter information, and the lower part is used to display the A-ultrasound waveform.

[0022] In some embodiments, the second ultrasound probe further has at least one of the following multiple inspection modes: blood flow Doppler inspection mode, pulsed Doppler inspection mode, continuous Doppler inspection mode, angiography inspection mode, elasticity inspection mode and photoacoustic inspection mode; when the second ultrasound probe is set to any one of the multiple inspection modes, the second ultrasound probe is used to perform inspection corresponding to the inspection mode on the first inspection part and / or the second inspection part of the object to be tested; after the second ultrasound probe identifier is activated, the processor is further used to:

[0023] A selection instruction for at least one of the multiple inspection modes is detected, and the second ultrasound probe is controlled to enter the inspection mode corresponding to the selection instruction to perform a corresponding inspection.

[0024] In some embodiments, the ultrasonic imaging device also includes a trolley and a host for accommodating the processor, the trolley includes a supporting part and a moving part, the moving part includes a base and casters arranged at the lower end of the base, the supporting part is arranged on the base, and the host is installed on one end of the supporting part away from the base.

[0025] In some embodiments, the supporting portion includes a supporting panel, and a vertical distance between the first display and the supporting panel is smaller than a vertical distance between the second display and the supporting panel.

[0026] In some embodiments, selection options corresponding to the multiple inspection modes are set on the display interface of the support panel and / or the first display.

[0027] In some embodiments, the first ultrasound probe further includes at least one first array element, and the at least one first array element is used to perform the A-ultrasound imaging; and / or,

[0028] The second ultrasonic probe includes at least two second array elements, and the at least two second array elements are used to perform B-ultrasonic imaging of the first detection site and / or the second detection site.

[0029] In some embodiments, the at least two second array elements are further used to perform at least one of the multiple inspection modes of the second detection position.

[0030] In some embodiments, the ultrasonic imaging device further includes a physical channel group, wherein the physical channel group includes a plurality of physical channels, and the physical channels are used to connect the first array element, the second array element and / or the light-emitting element.

[0031] In some embodiments, when an activation signal for the first ultrasound probe marker is detected, the processor is further used to: automatically control the display to display the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site.

[0032] In some embodiments, the display interface is further used to display corresponding identifiers, and the corresponding identifiers include: an A-ultrasound examination mode identifier, a first B-ultrasound examination mode identifier, and a second B-ultrasound examination mode identifier. The ultrasonic imaging device also includes a processor, and the processor is used to:

[0033] In response to a user's selection operation of the A-ultrasound inspection mode identifier, the first ultrasound probe enters the A-ultrasound inspection mode to perform A-ultrasound imaging on the first detection part of the object to be detected;

[0034] In response to a user's selection operation of the first B-ultrasound examination mode identifier, causing the second ultrasound probe to enter the first B-ultrasound examination mode to perform B-ultrasound imaging of the first detection part of the object to be detected;

[0035] In response to the user's selection operation of the second B-ultrasound examination mode identifier, the second ultrasound probe enters at least one of the second B-ultrasound examination modes to perform B-ultrasound imaging of the second detection part of the object to be detected.

[0036] In some embodiments, the parameter information of the first detection site includes at least one of the anterior chamber size information, the lens size information, the vitreous body size information and the axial length information of the eye.

[0037] In some embodiments, the second detection site includes the thyroid gland, breast, submandibular gland, neck artery, chest artery, heart, abdomen, kidney, liver, gallbladder or stomach.

[0038] According to a second aspect, an ultrasonic imaging device is provided in one embodiment, comprising:

[0039] A display, used to display a display interface;

[0040] At least one third ultrasound probe, the third ultrasound probe comprises at least two third array elements and a light emitting member, the third ultrasound probe has an A-ultrasound inspection mode, a first B-ultrasound inspection mode and at least one second B-ultrasound inspection mode, wherein:

[0041] When the third ultrasonic probe is set to the A-ultrasound examination mode, the third ultrasonic probe performs A-ultrasound imaging of a first detection part of the object to be detected through at least one of the third array elements, and the light-emitting element is used to emit light to focus the line of sight of the object to be detected so that at least one of the third array elements can perform A-ultrasound imaging of the first detection part;

[0042] When the third ultrasonic probe is set to the first B-ultrasound examination mode, the third ultrasonic probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be detected, and the third ultrasonic probe performs B-ultrasound imaging of the first detection part of the object to be detected through the at least two third array elements.

[0043] When the third ultrasound probe is set to the second B-ultrasound examination mode, the third ultrasound probe can at least be used to perform B-ultrasound imaging of a second detection part of the object to be detected, and the third ultrasound probe performs B-ultrasound imaging of the second detection part of the object to be detected through the at least two third array elements, wherein the first detection part is an eye, and the second detection part is different from the first detection part;

[0044] A physical channel group includes at least two physical channels, wherein the physical channels are used to excite the connected third array element to emit ultrasonic waves and receive corresponding echo signals, and the at least two physical channels can cooperate with the at least two third array elements of the third ultrasonic probe to perform the A-ultrasound examination mode, the first B-ultrasound examination mode and the second B-ultrasound examination mode.

[0045] In some embodiments, a processor is further included, and the processor is used to control the display interface to display detection information, and the detection information includes: an A-ultrasound waveform and / or parameter information of the first detection site obtained based on the A-ultrasound imaging, an ultrasound image of the first detection site obtained based on the B-ultrasound imaging, or an ultrasound image of the second detection site obtained based on the B-ultrasound imaging.

[0046] In some embodiments, the ultrasonic imaging device further comprises a probe connection end, and the probe connection end can be connected to or disconnected from the third ultrasonic probe;

[0047] The processor is also used to: identify the connection status between the third ultrasonic probe and the probe connection end and control the display to display a corresponding logo on the display interface; wherein, when it is identified that the third ultrasonic probe is connected to the ultrasonic imaging device;

[0048] Control the display to display a third ultrasound probe identifier on the display interface, and display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier, and an A-ultrasound examination mode identifier when an activation signal for the third ultrasound probe identifier is detected; or,

[0049] The display is controlled to display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier and an A-ultrasound examination mode identifier on the display interface.

[0050] In some embodiments, the processor is further configured to: upon detecting an activation signal for any of the inspection mode identifiers, control the display to display detection information corresponding to the inspection mode on the display interface; wherein,

[0051] If an activation signal for the first B-ultrasound inspection mode flag is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound inspection mode, and if the second B-ultrasound inspection mode flag is activated, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound inspection mode;

[0052] If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site.

[0053] In some embodiments, the third ultrasound probe further has at least one of the following multiple inspection modes: blood flow Doppler inspection mode, pulsed Doppler inspection mode, continuous Doppler inspection mode, angiography inspection mode, elasticity inspection mode and photoacoustic inspection mode; when the third ultrasound probe is set to any one of the multiple inspection modes, the third ultrasound probe is used to perform inspection corresponding to the inspection mode on the first inspection part and / or the second inspection part of the object to be tested; after the third ultrasound probe identifier is activated, the processor is further used to:

[0054] Detecting a user's selection of at least one of the multiple inspection modes, and controlling the third ultrasound probe to enter the selected inspection mode for corresponding inspection.

[0055] In some embodiments, the ultrasonic imaging device also includes a trolley and a host for accommodating the processor, the trolley includes a supporting part and a moving part, the moving part includes a base and casters arranged at the lower end of the base, the supporting part is arranged on the base, and the host is installed on one end of the supporting part away from the base.

[0056] According to a third aspect, an embodiment provides a host of an ultrasonic imaging device, including:

[0057] A display interface, used to connect to a display, and the display is used to display a display interface;

[0058] A probe connection end, wherein the probe connection end can be connected to or disconnected from at least two ultrasound probes, wherein the at least two ultrasound probes include a first ultrasound probe and a second ultrasound probe;

[0059] The first ultrasonic probe comprises a light emitting member, and the first ultrasonic probe has an A-ultrasound inspection mode. When the first ultrasonic probe is set to the A-ultrasound inspection mode, the first ultrasonic probe is used to perform A-ultrasound imaging of a first detection part of the object to be detected, and the light emitting member is used to emit light to focus the line of sight of the object to be detected so that the first ultrasonic probe can perform A-ultrasound imaging of the first detection part; wherein the first detection part is an eye;

[0060] The second ultrasound probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasound probe is set to the first B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the first detection part of the object to be detected. When the second ultrasound probe is set to the second B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the second detection part of the object to be detected; wherein the second detection part is different from the first detection part;

[0061] A processor is used to identify the ultrasound probe connected to the probe connection end, and display a corresponding mark on the display interface when the display interface is connected to the display; wherein,

[0062] When it is recognized that the probe connection end is connected to the first ultrasound probe, the display is controlled to display the first ultrasound probe identifier on the display interface, and when an activation signal for the first ultrasound probe identifier is detected, an A-ultrasound inspection mode identifier is displayed, and when an activation signal for the A-ultrasound inspection mode identifier is detected, the first ultrasound probe is set to the A-ultrasound inspection mode;

[0063] When it is identified that the probe connection end is connected to the second ultrasound probe, the display is controlled to display the second ultrasound probe logo on the display interface, and when an activation signal for the second ultrasound probe logo is detected, the first B-ultrasound examination mode logo and at least one second B-ultrasound examination mode logo are displayed; when an activation signal for the first B-ultrasound examination mode logo is detected, the second ultrasound probe is set to the first B-ultrasound examination mode; when an activation signal for any one of the second B-ultrasound examination mode logos is detected, the second ultrasound probe is set to the second B-ultrasound examination mode corresponding to the second B-ultrasound examination mode logo that detects the activation signal.

[0064] In some embodiments, the processor is further configured to: when an activation signal for any of the inspection mode identifiers is detected, control the display to display detection information corresponding to the inspection mode on the display interface; wherein,

[0065] If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection part;

[0066] If an activation signal for the first B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound examination mode; if an activation signal for the second B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound examination mode.

[0067] In some embodiments, the processor is further configured to:

[0068] In response to a detection information switching operation input by a user, the display is controlled to switch the detection information currently displayed on the display interface to the detection information specified by the detection information switching operation.

[0069] In some embodiments, the second ultrasound probe further has at least one of the following multiple inspection modes: blood flow Doppler inspection mode, pulsed Doppler inspection mode, continuous Doppler inspection mode, angiography inspection mode, elasticity inspection mode and photoacoustic inspection mode; when the second ultrasound probe is set to any one of the multiple inspection modes, the second ultrasound probe is used to perform inspection corresponding to the inspection mode on the first inspection part and / or the second inspection part of the object to be tested; after the second ultrasound probe identifier is activated, the processor is further used to:

[0070] Detecting a user's selection of at least one of the multiple inspection modes, and controlling the second ultrasound probe to enter the selected inspection mode for corresponding inspection.

[0071] According to a fourth aspect, an embodiment provides a host of an ultrasonic imaging device, including:

[0072] A display interface, used to connect to a display, and the display is used to display a display interface;

[0073] A probe connection end, wherein the probe connection end can be connected to or disconnected from at least two ultrasound probes, wherein the at least two ultrasound probes include a first ultrasound probe and a second ultrasound probe;

[0074] The first ultrasonic probe comprises a light emitting member, and the first ultrasonic probe has an A-ultrasound inspection mode. When the first ultrasonic probe is set to the A-ultrasound inspection mode, the first ultrasonic probe is used to perform A-ultrasound imaging of a first detection part of the object to be detected, and the light emitting member is used to emit light to focus the line of sight of the object to be detected so that the first ultrasonic probe can perform A-ultrasound imaging of the first detection part; wherein the first detection part is an eye;

[0075] The second ultrasound probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasound probe is set to the first B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the first detection part of the object to be detected. When the second ultrasound probe is set to the second B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the second detection part of the object to be detected; wherein the second detection part is different from the first detection part;

[0076] When the display interface is connected to the display, and when the probe connection end is connected to the first ultrasound probe and the second ultrasound probe, the display interface is used to display corresponding identifiers, and the corresponding identifiers include: A-ultrasound examination mode identifier, first B-ultrasound examination mode identifier, and second B-ultrasound examination mode identifier;

[0077] Processor for:

[0078] In response to a user's selection operation of the A-ultrasound inspection mode identifier, the first ultrasound probe enters the A-ultrasound inspection mode to perform A-ultrasound imaging on the first detection part of the object to be detected;

[0079] In response to a user's selection operation of the first B-ultrasound examination mode identifier, causing the second ultrasound probe to enter the first B-ultrasound examination mode to perform B-ultrasound imaging of the first detection part of the object to be detected;

[0080] In response to the user's selection operation of the second B-ultrasound examination mode identifier, the second ultrasound probe enters at least one of the second B-ultrasound examination modes to perform B-ultrasound imaging of the second detection part of the object to be detected.

[0081] In some embodiments, the display interface is also used to display detection information. After the identifier is selected, the processor is further used to: control the display to display detection information corresponding to the inspection mode corresponding to the identifier on the display interface, wherein:

[0082] If the A-ultrasound examination mode is selected, the detection information includes the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection part;

[0083] If the first B-ultrasound examination mode identifier is selected, the detection information includes the B-ultrasound image of the first detection part obtained based on the first B-ultrasound examination mode; if the second B-ultrasound examination mode identifier is selected, the detection information includes the B-ultrasound image of the second detection part obtained based on the second B-ultrasound examination mode.

[0084] According to a fifth aspect, an embodiment provides a host of an ultrasonic imaging device, including:

[0085] A display interface, used to connect to a display, and the display is used to display a display interface;

[0086] A probe connection end, wherein the probe connection end can be connected to or disconnected from at least one third ultrasound probe, wherein the third ultrasound probe includes at least two third array elements and a light emitting member, and wherein the third ultrasound probe has an A-ultrasound examination mode, a first B-ultrasound examination mode, and at least one second B-ultrasound examination mode, wherein:

[0087] When the third ultrasonic probe is set to the A-ultrasound examination mode, the third ultrasonic probe performs A-ultrasound imaging of a first detection part of the object to be detected through at least one of the third array elements, and the light-emitting element is used to emit light to focus the line of sight of the object to be detected so that at least one of the third array elements can perform A-ultrasound imaging of the first detection part;

[0088] When the third ultrasonic probe is set to the first B-ultrasound examination mode, the third ultrasonic probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be detected, and the third ultrasonic probe performs B-ultrasound imaging of the first detection part of the object to be detected through the at least two third array elements.

[0089] When the third ultrasound probe is set to the second B-ultrasound examination mode, the third ultrasound probe can at least be used to perform B-ultrasound imaging of a second detection part of the object to be detected, and the third ultrasound probe performs B-ultrasound imaging of the second detection part of the object to be detected through the at least two third array elements, wherein the first detection part is an eye, and the second detection part is different from the first detection part;

[0090] a physical channel group, comprising at least two physical channels, wherein the physical channels are used to excite the connected third array element to transmit ultrasonic waves and receive corresponding echo signals, and the at least two physical channels can cooperate with the at least two third array elements of the third ultrasonic probe to perform the A-ultrasound examination mode, the first B-ultrasound examination mode, and the second B-ultrasound examination mode;

[0091] A processor is used to control the display interface to display detection information when the display interface is connected to the display, the detection information including: an A-ultrasound waveform and / or parameter information of a first detection site obtained based on the A-ultrasound imaging, an ultrasound image of the first detection site obtained based on the B-ultrasound imaging, or an ultrasound image of the second detection site obtained based on the B-ultrasound imaging.

[0092] In some embodiments, the processor is further used to: identify the connection status of the third ultrasound probe and the probe connection end and control the display to display a corresponding logo on the display interface; wherein, when it is identified that the third ultrasound probe is connected to the ultrasound imaging device,

[0093] Control the display to display a third ultrasound probe identifier on the display interface, and display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier, and an A-ultrasound examination mode identifier when an activation signal for the third ultrasound probe identifier is detected; or,

[0094] The display is controlled to display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier and an A-ultrasound examination mode identifier on the display interface.

[0095] In some embodiments, the processor is further configured to: upon detecting an activation signal for any of the inspection mode identifiers, control the display to display detection information corresponding to the inspection mode on the display interface; wherein,

[0096] If an activation signal for the first B-ultrasound inspection mode identifier is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound inspection mode; if an activation signal for the second B-ultrasound inspection mode identifier is detected, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound inspection mode;

[0097] If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site.

[0098] In some of the above embodiments, the ultrasonic imaging device includes a first ultrasonic probe and a second ultrasonic probe. The first ultrasonic probe has an A-ultrasound examination mode. When the first ultrasonic probe is set to the A-ultrasound examination mode, the first ultrasonic probe is used to perform A-ultrasound imaging of a first detection part of the object to be measured, i.e., the eye; the second ultrasonic probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasonic probe is set to the first B-ultrasound examination mode, the second ultrasonic probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be measured, and when the second ultrasonic probe is set to the second B-ultrasound examination mode, the second ultrasonic probe can at least be used to perform B-ultrasound imaging of the second detection part of the object to be measured; wherein the second detection part is different from the first detection part.

[0099] When medical staff use different ultrasound probes, the ultrasound imaging device can achieve different functions or adapt to different scenarios. Specifically, when medical staff use the first ultrasound probe, the ultrasound imaging device can become an ophthalmic A-ultrasound imaging device, and when medical staff use the second ultrasound probe, the ultrasound imaging device can become a machine that can complete various conventional ultrasound examinations, which greatly expands the functions of the original ophthalmic A-ultrasound imaging device and has extremely important clinical significance. For example, after performing an eye examination, if medical staff find that there may be lesions in the eye, they can directly use the second ultrasound probe to continue the B-ultrasound examination of the eye or the B-ultrasound examination of other tissue parts, without having to move the patient to other ultrasound departments or move other ultrasound imaging equipment to the ophthalmology department, thereby simplifying the operation process and improving work efficiency.

[0100] In some other embodiments mentioned above, the ultrasonic imaging device includes a third ultrasonic probe, and the third ultrasonic probe has an A-ultrasound examination mode, a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the third ultrasonic probe is set to the A-ultrasound examination mode, the third ultrasonic probe can perform A-ultrasound imaging of the first detection part of the object to be measured; when the third ultrasonic probe is set to the first B-ultrasound examination mode, the third ultrasonic probe can at least perform B-ultrasound imaging of the first detection part of the object to be measured; when the third ultrasonic probe is set to the second B-ultrasound examination mode, the third ultrasonic probe can at least perform B-ultrasound imaging of the second detection part of the object to be measured. Therefore, the ultrasonic imaging device in the above embodiments can complete multiple examinations including ophthalmic A-ultrasound and ophthalmic B-ultrasound through a third ultrasonic probe. BRIEF DESCRIPTION OF THE DRAWINGS

[0101] Figure 1 A schematic diagram of the structure of an ultrasonic imaging device in an embodiment;

[0102] Figure 2 A schematic diagram of the structure of a host in an embodiment;

[0103] Figure 3 A schematic diagram of a control timing of a first array element and an LED according to an embodiment;

[0104] Figure 4a is a schematic diagram of a first region of an embodiment;

[0105] Figure 4b is a schematic diagram of a first region of another embodiment;

[0106] Figure 5a A schematic diagram of detecting information in a second area in an embodiment;

[0107] Figure 5b A schematic diagram of detecting information in the second area in another embodiment;

[0108] 110, display; 111, first display; 112, second display; 120, control panel; 121, function key; 122, ultrasonic probe placement position; 130, host; 140, trolley; 141, vehicle body; 1411, housing; 1412, support arm; 1412a, third support portion; 142, moving portion; 1421, base; 1422, casters; 143, handle;

[0109] 210, housing; 220, display interface; 230, probe connection terminal; 240, transmission / reception control circuit; 250, physical channel group; 260, processor;

[0110] 400, first display area; 410a, first ultrasound probe mark; 410b, second ultrasound probe mark; 420, A ultrasound examination mode mark; 430, first B ultrasound examination mode mark; 440, second B ultrasound examination mode mark;

[0111] 500. Second display area. DETAILED DESCRIPTION

[0112] The present invention is further described in detail below by specific embodiments in conjunction with the accompanying drawings. Wherein similar elements in different embodiments adopt associated similar element numbers. In the following embodiments, many detailed descriptions are intended to enable the present application to be better understood. However, those skilled in the art can easily recognize that some of the features can be omitted in different situations, or can be replaced by other elements, materials, and methods. In some cases, some operations related to the present application are not shown or described in the specification, in order to avoid the core part of the present application being overwhelmed by too much description, and for those skilled in the art, it is not necessary to describe these related operations in detail, and they can fully understand the related operations based on the description in the specification and the general technical knowledge in the art.

[0113] In addition, the features, operations or characteristics described in the specification can be combined in any appropriate manner to form various implementations. At the same time, the steps or actions in the method description can also be interchanged or adjusted in a manner that is obvious to those skilled in the art. Therefore, the various sequences in the specification and the drawings are only for the purpose of clearly describing a certain embodiment and are not meant to be a required sequence, unless otherwise specified that a certain sequence must be followed.

[0114] The serial numbers of the components in this document, such as "first", "second", etc., are only used to distinguish the objects described and do not have any order or technical meaning. The "connection" and "coupling" mentioned in this application, unless otherwise specified, include direct and indirect connections (couplings).

[0115] The most important concept of the present application is that it discovers the defects of the current A-ultrasound imaging equipment, and in response to the defects, a first ultrasonic probe and a second ultrasonic probe are configured for the ultrasonic imaging equipment, wherein the first ultrasonic probe has an A-ultrasound examination mode, and the second ultrasonic probe has at least a first B-ultrasound examination mode and a second B-ultrasound examination mode, so that the ultrasonic imaging equipment can quickly and conveniently switch between ophthalmic A-ultrasound and B-ultrasound examinations.

[0116] like Figure 1 As shown, an ultrasonic imaging device is provided in one embodiment of the present application, including a display 110, a control panel 120, an ultrasonic probe and a host 130.

[0117] The display 110 is used to display the display interface. The display 110 can be a touch screen, a liquid crystal display, etc.; or, the display 110 can be an independent display such as a liquid crystal display, a television, etc. that is independent of the ultrasonic imaging device; or, the display 110 can be a display screen of an electronic device such as a smart phone, a tablet computer, etc. Among them, the number of displays 110 can be one or more. For example, the display 110 can include a main screen and a touch screen, the main screen is mainly used to display the ultrasonic image, and the touch screen is mainly used for human-computer interaction. The display 110 can display the ultrasonic image obtained by the processor 260. In addition, while displaying the ultrasonic image, the display 110 can also provide the user with a graphical interface for human-computer interaction, set one or more controlled objects on the graphical interface, and provide the user with a human-computer interaction device to input operation instructions to control these controlled objects, thereby performing corresponding control operations. For example, an icon is displayed on the graphical interface, and the icon can be operated using the human-computer interaction device to perform a specific function, such as drawing a region of interest box on the ultrasonic image.

[0118] The control panel 120 is used to set ultrasound scanning parameters and adjust and control the imaging image. The control panel 120 is provided with a variety of function keys 121, including, for example, a gain key for adjusting image sensitivity, a focus key for selecting the number of focus areas, a depth adjustment key for adjusting the focus depth, a depth gain compensation key, a dynamic range key for adjusting the contrast resolution of the image or the display range, etc. Through the corresponding function keys 121 on the control panel 120, the size, resolution, gain and other parameters of the ultrasound image in the display 110 can be adjusted. In some embodiments, the control panel 120 is also provided with an ultrasound probe placement position 122 for placing an ultrasound probe that is not in use temporarily.

[0119] Generally speaking, an ultrasonic probe includes at least one array element. When there are multiple array elements, the multiple array elements can be arranged in a row to form a linear array, or arranged in a two-dimensional matrix to form a surface array, and the multiple array elements can also form a convex array. The array element is used to transmit ultrasonic waves according to the excitation electrical signal, or to convert the received ultrasonic waves into electrical signals. Therefore, each array element can be used to realize the mutual conversion between electrical pulse signals and ultrasonic waves, so as to transmit ultrasonic waves to the tissue of the target area of ​​the object to be tested, and can also be used to receive ultrasonic echo signals reflected by the tissue. When performing ultrasonic testing, the transmission sequence and the receiving sequence can be used to control which array elements are used to transmit ultrasonic waves and which array elements are used to receive ultrasonic waves, or control the array elements to transmit ultrasonic waves or receive ultrasonic echo signals in time slots. The array elements participating in ultrasonic emission can be excited by electrical signals at the same time, thereby transmitting ultrasonic waves at the same time; or, the array elements participating in ultrasonic beam emission can also be excited by several electrical signals with a certain time interval, thereby continuously transmitting ultrasonic waves with a certain time interval.

[0120] In this embodiment, there are at least two ultrasonic probes, and the at least two ultrasonic probes include a first ultrasonic probe and a second ultrasonic probe.

[0121] The first ultrasonic probe includes at least one first array element and a light-emitting component. Exemplarily, the light-emitting component is an LED. The first ultrasonic probe has an A-ultrasound examination mode. When the first ultrasonic probe is set to the A-ultrasound examination mode, the first ultrasonic probe performs A-ultrasound imaging on a first detection part of the object to be measured through at least one first array element. The light-emitting component is used to emit light to focus the line of sight of the object to be measured, so that the first ultrasonic probe can perform A-ultrasound imaging of the first detection part. The above-mentioned first detection part is the eye. In other words, the first ultrasonic probe can perform A-ultrasound examination on the eye, and with the assistance of the light-emitting component, the eye axis of the object to be measured can be focused, so that the measurement result is more accurate.

[0122] In some embodiments, the first ultrasonic probe includes only a first array element, and the first ultrasonic probe includes a first array element and a light-emitting component. In this manner, the first ultrasonic probe has a simple structure and is light in weight. When performing an A-ultrasound examination mode, the first ultrasonic probe can be placed close to the eye, making the measurement more accurate.

[0123] The second ultrasound probe includes at least two second array elements. The second ultrasound probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasound probe is set to the first B-ultrasound examination mode, the second ultrasound probe can at least perform B-ultrasound imaging on the first detection part of the object to be measured through at least two second array elements, that is, the second ultrasound probe can perform B-ultrasound imaging on the eye. When the second ultrasound probe is set to the second B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the second detection part of the object to be measured through at least two second array elements; wherein the second detection part is different from the first detection part. Exemplarily, the second detection part includes the thyroid gland, breast, submandibular gland, neck artery, chest artery, heart, abdomen, kidney, liver, gallbladder or stomach, etc.

[0124] The host 130 is electrically connected to the control panel 120 and the display 110 respectively. The host 130 includes a housing 210, a transmitting / receiving control circuit 240 distributed in the enclosed cavity of the housing 210, a physical channel group 250 and a processor 260. In addition, the host 130 also includes various external interfaces, such as a power interface, a cable interface for connecting to the control panel 120, a display interface 220 connected to the display 110, a data transmission interface, a network cable interface, etc. In this embodiment, a probe connection terminal 230 is provided on the host 130, and the probe connection terminal 230 can be an ultrasonic probe interface. The probe connection terminal 230 can be connected or disconnected with at least two ultrasonic probes, that is, the ultrasonic probe is pluggably connected to the host 130 through the probe connection terminal 230, and is an accessory of the host 130. In some embodiments, the host 130 and the at least two ultrasonic probes can also be an integrated structure, that is, at least two ultrasonic probes are connected to the host 130 in a non-hot-pluggable form.

[0125] The physical channel group 250 includes multiple physical channels, for example, 64 physical channels or 128 physical channels, etc. The physical channels are used to connect with array elements in the ultrasound probe.

[0126] Exemplarily, the physical channel group 250 may include 64 physical channels. When the first ultrasonic probe is used, the first array element in the first ultrasonic probe is connected to the 64th physical channel, and the light-emitting element in the first ultrasonic probe is fixedly connected to the 40th physical channel. When the first ultrasonic probe is working, the control timing of the first array element and the LED is as follows: Figure 3 As shown, in order to avoid interference with the transmission and reception of the first array element when the LED is emitting light, the first array element and the LED work in time-sharing. After the first ultrasonic probe is set to the A-ultrasound inspection mode, when the first array element is working, the transmit / receive control circuit 240 controls the 64th channel to transmit ultrasonic waves, and other channels are not transmitted. The transmitted waveform is preset. After receiving the echo signal, the echo signal is not demodulated and beam synthesized, and the echo signal before demodulation is directly transmitted to the processor 260. The light-emitting element is driven by the transmit / receive control circuit 240. For example, when the light-emitting element is an LED, the LED is controlled to transmit a 1MHz square wave with an amplitude of 10V. As described above, the LED has two parts: working time and off time. In order to ensure that the LED does not flicker significantly, the working time is controlled to be not less than 5ms and the off time is not more than 1ms. When the LED is in the off time, the first array element works.

[0127] Continuing to take the example that the physical channel group 250 includes 64 physical channels, when the second ultrasonic probe is used, the transmit / receive control circuit 240 controls which physical channel is connected to which second array element as the transmitting array element when the second ultrasonic probe transmits ultrasonic waves, and which physical channel is connected to which second array element as the receiving array element when the second ultrasonic probe receives ultrasonic waves. In addition, unlike the first ultrasonic probe, after the second array element receives the echo signal, it is necessary to perform focusing delay, weighting and channel summing on the echo signal, and then send it to the processor 260. The processor 260 performs signal detection, signal enhancement, data conversion, logarithmic compression and other processing on the echo signal to form an ultrasonic image.

[0128] It can be seen from the above description that the second ultrasound probe can be used to process more or more complex scenes compared to the first ultrasound probe, while the first ultrasound probe can perform ophthalmic A-ultrasound imaging that the second ultrasound probe is not suitable for.

[0129] In some embodiments, the processor 260 is used to identify the ultrasonic probe connected to the probe connection terminal 230, and control the display 110 to display the corresponding identification on the display interface. In some embodiments, the ultrasonic probes are all provided with ID information, and the processor 260 can read the ID information of the ultrasonic probe connected to the probe connection terminal 230, and determine which ultrasonic probes are connected to the probe connection terminal 230 through the ID information. In some embodiments, at least two ultrasonic probes also include a pen probe, and the first ultrasonic probe can reuse the ultrasonic probe interface of the pen probe. For another example, each ultrasonic probe corresponds to an ultrasonic probe interface. When an ultrasonic probe interface is not connected to the corresponding ultrasonic probe, the processor 260 obtains a low-level signal from the ultrasonic probe interface. When an ultrasonic probe interface is connected to the corresponding ultrasonic probe, the processor 260 obtains a high-level signal from the ultrasonic probe interface, thereby the processor 260 identifies whether the corresponding ultrasonic probe is connected to the probe connection terminal.

[0130] When it is recognized that the probe connection end 230 is connected to the first ultrasonic probe, the display 110 is controlled to display the first ultrasonic probe mark 410a on the display interface. When it is recognized that the probe connection end 230 is connected to the second ultrasonic probe, the display 110 is controlled to display the second ultrasonic probe mark 410b on the display interface. As can be seen from the above description, the display interface may only display the first ultrasonic probe mark 410a, or only display the second ultrasonic probe mark 410b, or display the first ultrasonic probe mark 410a and the second ultrasonic probe mark 410b at the same time, or may not display the first ultrasonic probe mark 410a and the second ultrasonic probe mark 410b. The following is an example of displaying the first ultrasonic probe mark 410a and the second ultrasonic probe mark 410b at the same time.

[0131] The first ultrasonic probe identifier 410a and the second ultrasonic probe identifier 410b in the display are set to an activated state. In some embodiments, the user can activate the corresponding ultrasonic probe identifier by clicking on any ultrasonic probe identifier in the display interface. In other embodiments, the user can activate the corresponding ultrasonic probe identifier through the function key 121 on the control panel 120. Intuitively, when a certain ultrasonic probe identifier is activated, it means that the ultrasonic imaging device uses the ultrasonic probe identifier to represent the corresponding ultrasonic probe for imaging. It should be noted that the activation in some embodiments of the present application can be implemented by using the circuit structure in the prior art. For example, the display screen of the display 110 is a touch screen. When the user clicks the ultrasonic probe identifier on the touch screen, a corresponding electrical signal can be generated. In this application, the electrical signal is defined as an activation signal. The processor 260 has a digital and / or logic circuit that responds to the activation signal. When the corresponding activation signal is detected, a preset image data signal is output to display the corresponding information on the display 110. The "activation" in the following text can be completed by the above-mentioned hardware circuit.

[0132] When it is detected that the first ultrasound probe mark 410a is activated, the display interface displays the A-ultrasound inspection mode mark 420, and the A-ultrasound inspection mode mark 420 is also set to an activatable state. When the A-ultrasound inspection mode mark 420 is activated, the processor 260 sets the first ultrasound probe to the A-ultrasound inspection mode. In other embodiments, when it is detected that the first ultrasound probe mark 410a is activated, the processor 260 can also automatically activate the A-ultrasound inspection mode mark 420, that is, once the user activates the first ultrasound probe mark 410a, the processor 260 sets the first ultrasound probe to the A-ultrasound inspection mode. Exemplarily, the display interface of the user activating the first ultrasound probe mark 410a is as follows: Figure 4a It should be noted that the "setting" method in some embodiments of the present application can be implemented by the processor 260 sending a corresponding control signal to the corresponding ultrasound probe. For example, when the A-ultrasound inspection mode identifier 420 is activated, the processor 260 sends a control signal to the first ultrasound probe for controlling the first ultrasound probe to enter the A-ultrasound inspection mode, thereby setting the first ultrasound probe to the A-ultrasound inspection mode.

[0133] When it is detected that the second ultrasound probe identifier 410b is activated, the first B-ultrasound examination mode identifier 430 and at least one second B-ultrasound examination mode identifier 440 are displayed. The first B-ultrasound examination mode identifier 430 and at least one second B-ultrasound examination mode identifier 440 are also set to an activatable state. When the first B-ultrasound examination mode identifier 430 is activated, the second ultrasound probe is set to the first B-ultrasound examination mode. When any second B-ultrasound examination mode identifier 440 is activated, the second ultrasound probe is set to the second B-ultrasound examination mode corresponding to the activated second B-ultrasound examination mode identifier 440. Exemplarily, the user activates the display interface of the second ultrasound probe identifier 410b as shown in FIG. Figure 4b shown.

[0134] In other embodiments, the second ultrasound probe also has at least one of the following multiple inspection modes: blood flow Doppler inspection mode, pulsed Doppler inspection mode, continuous Doppler inspection mode, angiography inspection mode, elasticity inspection mode and photoacoustic inspection mode. The processor 260 is also used to detect the user's selection of at least one of the multiple inspection modes, and control the second ultrasound probe to enter the selected inspection mode for corresponding inspection. The multiple second array elements of the second ultrasound probe can perform any of the multiple inspection modes. Exemplarily, these inspection modes have corresponding third inspection mode identifiers. When the second ultrasound probe identifier 410b is detected to be activated, in addition to displaying the first B-ultrasound inspection mode identifier 430 and at least one second B-ultrasound inspection mode identifier 440, the above-mentioned multiple third inspection mode identifiers are also displayed for user activation. In another exemplary embodiment, a function key 121 for selecting an inspection mode is provided on the control panel 120, so that the user can select any of the multiple inspection modes.

[0135] From the above description, it can be seen that in this embodiment, an ultrasonic probe mark is provided for the user to activate, and after the user activates the corresponding ultrasonic probe mark, the inspection mode under the ultrasonic probe is provided for the user to activate, thereby completing the selection of the ultrasonic probe and the setting of the inspection mode of the ultrasonic probe. The user can quickly switch between the first ultrasonic probe and the second ultrasonic probe for inspection in the above manner. When using the ultrasonic imaging device in this embodiment, the user can quickly switch between ophthalmic inspection and other types of inspection modes to meet the inspection needs of various scenarios.

[0136] When any inspection mode flag is detected to be activated, the processor 260 also controls the display 110 to display the inspection information corresponding to the inspection mode on the display interface. Specifically:

[0137] If the A-ultrasound inspection mode mark 420 is activated, the detection information includes the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or the parameter information of the first detection site. The parameter information of the first detection site includes but is not limited to at least one of the size information of the anterior chamber (AC) of the eye, the size information of the lens (L), the size information of the vitreous body (V), and the axial length (AL) of the eye. Exemplarily, if the A-ultrasound inspection mode mark 420 is activated, the schematic diagram of the display interface showing the detection information is as follows: Figure 5a As shown, the display interface is divided into two parts, the left side is used to display the A-ultrasound waveform, and the right side is used to display the parameter information of the eye. A total of ten groups of parameter information are displayed, and the average value and variance of the ten groups of results are also calculated. At the same time, it supports users to delete any one or more groups of parameter information, and recalculate the average value and variance of the remaining groups. In some embodiments, the user can click on any group of parameter information, and the corresponding waveform will be displayed on the left. In other embodiments, the area displaying the detection information in the display interface can also include an upper part and a lower part, the upper part is used to display the parameter information, and the lower part is used to display the A-ultrasound waveform.

[0138] If the first B-ultrasound inspection mode mark 430 is activated, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound inspection mode, and if the second B-ultrasound inspection mode mark 440 is activated, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound inspection mode. Exemplarily, if the first B-ultrasound inspection mode mark 430 is activated, the schematic diagram of displaying the detection information in the display interface is as follows: Figure 5b As shown, the B-ultrasound image of the first detection part has not yet been generated. When the user controls the second ultrasound probe to perform ultrasound examination, Figure 5b The corresponding B-ultrasound image can be displayed in real time.

[0139] As can be seen from the above description, the ultrasonic imaging device in the present application can perform ophthalmic A-ultrasound examination, ophthalmic B-ultrasound examination and many other types of examinations. A typical scenario is: clinicians screen patients for fundus diseases by obtaining A-ultrasound waveforms of the eye through a first ultrasonic probe, and using a second ultrasonic probe to examine the fundus of the eye with color Doppler ultrasound (color ultrasound). The detection information obtained by the first ultrasonic probe can then be compared with the detection information obtained by the second ultrasonic probe. The entire detection process only requires one ultrasonic imaging device in this embodiment, thereby simplifying the operation process. In addition, since the second ultrasonic probe has multiple second array elements, on the one hand, when the user performs an eye examination, B-ultrasound imaging can be automatically completed through timing control on transmission and reception, and on the other hand, the second ultrasonic probe also supports a variety of other inspection modes, expanding the inspection scenario.

[0140] In some embodiments, the display 110 includes a first display 111 and a second display 112, and the display interface includes a display interface of the first display 111 and a display interface of the second display 112. The display interface of the first display 111 includes a first display area 400, and the first display area 400 is used to display corresponding identifiers, and the corresponding identifiers include but are not limited to the above-mentioned first ultrasound probe identifier 410a, second ultrasound probe identifier 410b, A ultrasound examination mode identifier 420, first B ultrasound examination mode identifier 430, second B ultrasound examination mode identifier 440 and third examination mode identifier, etc., then Figure 4a and Figure 4b is a schematic diagram of a first display area 400 in an embodiment, the display interface of the second display 112 includes a second display area 500, and the second display area 500 is used to display corresponding detection information. Figure 5a and Figure 5b FIG. 5 is a schematic diagram of a second display area 500 in an embodiment.

[0141] From the above description, it can be seen that the first display 111 can be used for human-computer interaction with the user, and the second display 112 is used to display the corresponding detection information. The two displays can cooperate with each other and divide the work to improve the user's work efficiency, while also not prone to accidental touches or misoperations.

[0142] In some embodiments, the processor 260 is further configured to control the display 110 to switch the currently displayed detection information to the detection information specified by the switch detection information operation on the display interface in response to the switch detection information operation input by the user. For example, the currently displayed detection information is a B-ultrasound image of the first detection part, and a switch button is displayed in the first display area 400. After the user clicks the switch button, the currently displayed detection information is changed to an A-ultrasound waveform of the eye. In addition, the user can also reactivate the first ultrasound probe identifier 410a and the A-ultrasound examination mode identifier 420 in the first display area 400, and in this way, the currently displayed detection information is also switched to the detection information corresponding to the first ultrasound probe.

[0143] In some embodiments, the user may not need to select or activate the ultrasound probe. When the first ultrasound probe is connected to the host 130, the display interface displays the A-ultrasound inspection mode mark 420, and the user can set the first ultrasound probe to the A-ultrasound inspection mode by activating the A-ultrasound inspection mode mark 420; when the second ultrasound probe is connected to the host 130, the display interface displays the first B-ultrasound inspection mode mark 430 and the second B-ultrasound inspection mode mark 440. In some embodiments, when the second ultrasound probe is connected to the host 130, the display interface also displays the third inspection mode mark mentioned above, and the user can set the second ultrasound probe to the corresponding inspection mode through the inspection mark.

[0144] Another embodiment of the present application also provides an ultrasonic imaging device, including a display 110, a control panel 120, an ultrasonic probe, and a host 130. The structure and function of the display 110, the control panel 120, and the host 130 are similar to those of the previous embodiment, and are not described in detail here. The differences include but are not limited to:

[0145] The ultrasound probe in this embodiment includes at least one third ultrasound probe, and the third ultrasound probe includes at least two third array elements and a light-emitting component, and the light-emitting component is illustratively an LED. The third ultrasound probe has an A-ultrasound examination mode, a first B-ultrasound examination mode, and at least one second B-ultrasound examination mode. In some embodiments, other examination modes may also be included, including but not limited to a blood flow Doppler examination mode, a pulsed Doppler examination mode, a continuous Doppler examination mode, an angiography examination mode, an elasticity examination mode, and a photoacoustic examination mode.

[0146] When the third ultrasonic probe is set to the A-ultrasound inspection mode, the third ultrasonic probe performs A-ultrasound imaging of the first detection part of the object to be measured through at least one third array element, and the light-emitting element is used to emit light to focus the line of sight of the object to be measured so that at least one third array element can perform A-ultrasound imaging of the first detection part. The above-mentioned first detection part is the eye. In other words, the third ultrasonic probe can perform A-ultrasound inspection on the eye, and the light-emitting element can be used to focus the eye axis of the object to be measured, so that the measurement result is more accurate.

[0147] When the third ultrasonic probe is set to the first B-ultrasound examination mode, the third ultrasonic probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be measured. The third ultrasonic probe performs B-ultrasound imaging of the first detection part of the object to be measured through at least two third array elements. That is to say, the third ultrasonic probe can perform B-ultrasound imaging of the eye.

[0148] When the third ultrasound probe is set to the second B-ultrasound examination mode, the third ultrasound probe can at least be used to perform B-ultrasound imaging of a second detection part of the object to be measured, and the third ultrasound probe performs B-ultrasound imaging of the second detection part of the object to be measured through at least two third array elements, wherein the second detection part is different from the first detection part. Exemplarily, the second detection part includes the thyroid gland, breast, submandibular gland, neck artery, chest artery, heart, abdomen, kidney, liver, gallbladder or stomach, etc.

[0149] When the third ultrasonic probe is set to A-ultrasound examination mode, the transmit / receive control circuit 240 controls at least one physical channel to connect with at least one third array element to control the transmission and reception of ultrasonic waves, and also controls a physical channel to connect with the light-emitting element to drive the light-emitting element to emit light.

[0150] When the third ultrasound probe is set to the first B-ultrasound examination mode, the second B-ultrasound examination mode or other examination modes, the transmit / receive control circuit 240 controls multiple physical channels to connect with multiple third array elements, and the multiple physical channels cooperate with multiple third array elements to complete the first B-ultrasound examination mode, the second B-ultrasound examination mode or other examination modes.

[0151] It can be seen from the above description that in this embodiment, inspections in various inspection modes can be completed by using one third ultrasonic probe.

[0152] In this embodiment, when the processor 260 identifies the ultrasound probe connected to the probe connection terminal 230 and controls the display 110 to display the corresponding logo on the display interface, if it is identified that the third ultrasound probe is connected to the probe connection terminal 230, the display 110 is controlled to display the third ultrasound probe logo on the display interface, and when it is detected that the third ultrasound probe logo is activated, the first B-ultrasound inspection mode logo 430, the second B-ultrasound inspection mode logo 440 and the A-ultrasound inspection mode logo 420 are displayed. Alternatively, if the third ultrasound probe is connected to the probe connection terminal 230, the first B-ultrasound inspection mode logo 430, the second B-ultrasound inspection mode logo 440 and the A-ultrasound inspection mode logo 420 are directly displayed in the display interface of the display 110, that is, the user does not need to select the third ultrasound probe, and directly enters the setting stage of the inspection mode of the third ultrasound probe when the third ultrasound probe is connected to the probe connection terminal 230.

[0153] When the first B-ultrasound examination mode identifier 430, the second B-ultrasound examination mode identifier 440 and the A-ultrasound examination mode identifier 420 are displayed on the display interface, the method of setting the examination mode of the third ultrasound probe is similar to the previous embodiment, that is, the user can set the third ultrasound probe to the corresponding examination mode by activating the corresponding examination mode identifier.

[0154] When it is detected that any inspection mode flag is activated, the processor 260 further controls the display 110 to display the inspection information corresponding to the inspection mode on the display interface.

[0155] If the A-ultrasound inspection mode mark 420 is activated, the detection information includes the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or the parameter information of the first detection site. The parameter information of the first detection site includes but is not limited to at least one of the size information of the anterior chamber (AC) of the eye, the size information of the lens (L), the size information of the vitreous body (V), and the axial length (AL) of the eye. Exemplarily, if the A-ultrasound inspection mode mark 420 is activated, the schematic diagram of the display interface showing the detection information is as follows: Figure 5a shown.

[0156] If the first B-ultrasound inspection mode mark 430 is activated, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound inspection mode, and if the second B-ultrasound inspection mode mark 440 is activated, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound inspection mode. Exemplarily, if the first B-ultrasound inspection mode mark 430 is activated, the schematic diagram of displaying the detection information in the display interface is as follows: Figure 5b shown.

[0157] In the embodiment where the display 110 includes the first display 111 and the second display 112, the display interface includes the display interface of the first display 111 and the display interface of the second display 112. The display interface of the first display 111 includes a first display area 400, and the first display area 400 is used to display corresponding identifications, including but not limited to the above-mentioned third ultrasound probe identification, A ultrasound inspection mode identification 420, first B ultrasound inspection mode identification 430, second B ultrasound inspection mode identification 440 and third inspection mode identification. The display interface of the second display 112 includes a second display area 500, and the second display area 500 is used to display corresponding detection information. Figure 5a and Figure 5b FIG. 5 is a schematic diagram of a second display area 500 in an embodiment.

[0158] In some embodiments, based on the above-mentioned ultrasonic imaging device, the ultrasonic imaging device further includes a trolley 140, and the host 130 is placed on the trolley 140. The trolley 140 includes a body 141 and a moving part 142, and the body 141 has at least one supporting part, so that the ultrasonic imaging device can be fixed by the supporting part.

[0159] In one embodiment, the moving part 142 includes a base 1421 and a caster 1422 disposed at the lower end of the base 1421, the top surface of the base 1421 forms a first support portion, and the host 130 is placed on the first support portion. In other embodiments, the vehicle also includes a shell 1411 and a support arm 1412, and the support arm 1412 is fixed to the shell 1411, specifically, it can be fixed on the top of the shell 1411, and it can also be fixed on the side of the shell 1411. In a specific embodiment, the support arm 1412 has a second support portion for forming the control panel 120 and a third support portion 1412a for fixing the display 110, and because the control panel 120 is a plate with a certain area, the second support portion is in the shape of a platform extending toward the operator, and can also be regarded as a support panel.

[0160] In order to push the trolley 140 to move, the trolley 140 further includes a handle 143, which is disposed on the body 141 to provide a force application portion for the operator. Figure 1In the illustrated embodiment, the handle 143 is disposed on a side of the control panel 120 close to the operator.

[0161] In some embodiments, the vertical distance between the first display 111 and the control panel 120 is smaller than the vertical distance between the second display 112 and the control panel 120. The first display 111 and the control panel 120 are close to the user's waist and chest, which is more in line with the body habits during human-computer interaction. The second display 112 is close to the human head, which makes it convenient for the user to view the corresponding detection information.

[0162] The benefits of configuring the ultrasonic imaging device with the trolley 140 include but are not limited to: facilitating the movement of the ultrasonic imaging device and facilitating the configuration of a larger display. Currently, the A-ultrasound imaging devices on the market are usually inconvenient to move and have a small screen. By configuring the trolley 140, this technical problem can be solved to a certain extent.

[0163] like Figure 2 As shown, some embodiments of the present application also provide a host 130 in the above-mentioned ultrasound imaging device, and the host 130 includes a housing 210, a display interface 220, a probe connection terminal 230, a transmit / receive control circuit 240, a physical channel group 250 and a processor 260.

[0164] The display interface 220 is used to connect to the display 110. When the display 110 includes the first display 111 and the second display 112, there may be two display interfaces 220, each of which is connected to one display. There may also be only one display interface 220, and the cables led out of one display interface 220 are connected to the two displays respectively.

[0165] The probe connection end 230 can be connected to or disconnected from at least two ultrasound probes. It is understandable that when the at least two ultrasound probes include a first ultrasound probe and a second ultrasound probe, the probe connection end 230 can be connected to or disconnected from the first ultrasound probe and the second ultrasound probe, and when the at least two ultrasound probes include a third ultrasound probe, the probe connection end 230 can be connected to or disconnected from the third ultrasound probe.

[0166] The physical channel group 250 includes at least two physical channels. When the physical channel is connected to an array element, the physical channel excites the connected array element to transmit ultrasonic waves and receive corresponding echo signals under the control of the transmit / receive control circuit 240. When the physical channel is connected to a light-emitting element, the light-emitting element is driven to emit light under the control of the transmit / receive control circuit 240.

[0167] In some embodiments, the processor 260 is used to identify the ultrasound probe connected to the probe connection terminal 230 , and display a corresponding identifier on the display interface when the display interface 220 is connected to the display 110 .

[0168] When the probe connection end 230 is identified to be connected to the first ultrasound probe, the display 110 is controlled to display the first ultrasound probe mark 410a on the display interface. When the probe connection end 230 is identified to be connected to the second ultrasound probe, the display 110 is controlled to display the second ultrasound probe mark 410b on the display interface. When the third ultrasound probe is identified to be connected to the probe connection end 230, the display 110 is controlled to display the third ultrasound probe mark on the display interface.

[0169] The first ultrasound probe mark 410 a and the second ultrasound probe mark 410 b in the display, or the third ultrasound probe mark in the display is set to an activated state.

[0170] When it is detected that the first ultrasound probe mark 410a is activated, the display interface displays the A-ultrasound inspection mode mark 420, and the A-ultrasound inspection mode mark 420 is also set to an activatable state. When the A-ultrasound inspection mode mark 420 is activated, the processor 260 sets the first ultrasound probe to the A-ultrasound inspection mode. In other embodiments, when it is detected that the first ultrasound probe mark 410a is activated, the processor 260 can also automatically activate the A-ultrasound inspection mode mark 420, that is, once the user activates the first ultrasound probe mark 410a, the processor 260 sets the first ultrasound probe to the A-ultrasound inspection mode.

[0171] When it is detected that the second ultrasound probe identifier 410b is activated, the first B-ultrasound examination mode identifier 430 and at least one second B-ultrasound examination mode identifier 440 are displayed. The first B-ultrasound examination mode identifier 430 and at least one second B-ultrasound examination mode identifier 440 are also set to an activatable state. When the first B-ultrasound examination mode identifier 430 is activated, the second ultrasound probe is set to the first B-ultrasound examination mode. When any second B-ultrasound examination mode identifier 440 is activated, the second ultrasound probe is set to the second B-ultrasound examination mode corresponding to the activated second B-ultrasound examination mode identifier 440.

[0172] When it is detected that the third ultrasound probe identifier is activated, the first B-ultrasound examination mode identifier 430, the second B-ultrasound examination mode identifier 440 and the A-ultrasound examination mode identifier 420 are displayed; when the A-ultrasound examination mode identifier 420 is activated, the third ultrasound probe is set to the A-ultrasound examination mode; when the first B-ultrasound examination mode identifier 430 is activated, the third ultrasound probe is set to the first B-ultrasound examination mode; when the second B-ultrasound examination mode identifier 440 is activated, the third ultrasound probe is set to the second B-ultrasound examination mode.

[0173] In some embodiments, the user may not need to select or activate the ultrasound probe. When the first ultrasound probe is connected to the host 130, the display interface displays the A-mode ultrasound inspection mark 420, when the second ultrasound probe is connected to the host 130, the display interface displays the first B-mode ultrasound inspection mark 430 and the second B-mode ultrasound inspection mark 440, and when the third ultrasound probe is connected to the host 130, the display interface displays the A-mode ultrasound inspection mark 420, the first B-mode ultrasound inspection mark 430 and the second B-mode ultrasound inspection mark 440.

[0174] When any inspection mode flag is detected to be activated, the processor 260 also controls the display 110 to display the inspection information corresponding to the inspection mode on the display interface. Specifically:

[0175] If the A-ultrasound inspection mode mark 420 is activated, the detection information includes the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or the parameter information of the first detection site. The parameter information of the first detection site includes but is not limited to at least one of the size information of the anterior chamber (AC) of the eye, the size information of the lens (L), the size information of the vitreous body (V), and the axial length (AL) of the eye. Exemplarily, if the A-ultrasound inspection mode mark 420 is activated, the schematic diagram of the display interface showing the detection information is as follows: Figure 5a As shown, the display interface is divided into two parts, the left side is used to display the A-ultrasound waveform, and the right side is used to display the parameter information of the eye. A total of ten groups of parameter information are displayed, and the average value and variance of the ten groups of results are also calculated. At the same time, it supports users to delete any one or more groups of parameter information, and recalculate the average value and variance of the remaining groups. In some embodiments, the user can click on any group of parameter information, and the corresponding waveform will be displayed on the left. In other embodiments, the area displaying the detection information in the display interface can also include an upper part and a lower part, the upper part is used to display the parameter information, and the lower part is used to display the A-ultrasound waveform.

[0176] If the first B-ultrasound inspection mode mark 430 is activated, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound inspection mode, and if the second B-ultrasound inspection mode mark 440 is activated, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound inspection mode. Exemplarily, if the first B-ultrasound inspection mode mark 430 is activated, the schematic diagram of displaying the detection information in the display interface is as follows: Figure 5b As shown, the B-ultrasound image of the first detection part has not yet been generated. When the user controls the second ultrasound probe to perform ultrasound examination, Figure 5b The corresponding B-ultrasound image can be displayed in real time.

[0177] In some embodiments, the processor 260 is further configured to, in response to a user input for switching detection information operation, control the display 110 to switch the currently displayed detection information on the display interface to the detection information specified by the switching detection information operation. For example, the B-ultrasound image of the first detection part can be switched to the A-ultrasound waveform of the eye.

[0178] This article is described with reference to various exemplary embodiments. However, those skilled in the art will recognize that changes and modifications may be made to the exemplary embodiments without departing from the scope of this article. Although the principles of this article have been shown in various embodiments, many modifications of structures, arrangements, proportions, elements, materials and components that are particularly suitable for specific environments and operating requirements may be used without departing from the principles and scope of this disclosure. The above modifications and other changes or amendments will be included within the scope of this article.

[0179] The foregoing specific description has been described with reference to various embodiments. However, those skilled in the art will recognize that various modifications and changes can be made without departing from the scope of the present disclosure. Therefore, the consideration of the present disclosure will be illustrative rather than restrictive, and all these modifications will be included in its scope. Similarly, the advantages, other advantages and solutions to the problems of various embodiments have been described above. However, the benefits, advantages, solutions to the problems and any elements that can produce these, or make them more clear, should not be interpreted as critical, necessary or necessary. The term "include" and any other variants used in this article are all non-exclusive inclusions, so that the process, method, article or device including the list of elements not only includes these elements, but also includes other elements that are not explicitly listed or do not belong to the process, method, system, article or device. In addition, the term "coupled" and any other variants used in this article refer to physical connections, electrical connections, magnetic connections, optical connections, communication connections, functional connections and / or any other connections.

[0180] Those skilled in the art will appreciate that many changes can be made to the details of the above embodiments without departing from the basic principles of the present invention. Therefore, the scope of the present invention should be determined according to the following claims.

Claims

1. An ultrasonic imaging device, characterized in that: include: A display, used to display a display interface; At least two ultrasound probes, wherein the at least two ultrasound probes include a first ultrasound probe and a second ultrasound probe; The first ultrasonic probe comprises a light emitting member, and the first ultrasonic probe has an A-ultrasound inspection mode. When the first ultrasonic probe is set to the A-ultrasound inspection mode, the first ultrasonic probe is used to perform A-ultrasound imaging of a first detection part of the object to be detected, and the light emitting member is used to emit light to focus the line of sight of the object to be detected so that the first ultrasonic probe can perform A-ultrasound imaging of the first detection part; wherein the first detection part is an eye; The second ultrasound probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasound probe is set to the first B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be tested. When the second ultrasound probe is set to the second B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging of the second detection part of the object to be tested; wherein the second detection part is different from the first detection part.

2. The ultrasonic imaging device according to claim 1, characterized in that: Also includes: a probe connection end, wherein the probe connection end can be connected to or disconnected from the first ultrasonic probe and the second ultrasonic probe; A processor is used to identify the ultrasound probe connected to the probe connection end, and control the display to display a corresponding mark on the display interface; wherein, When it is recognized that the probe connection end is connected to the first ultrasound probe, controlling the display to display a first ultrasound probe identifier on the display interface; When it is identified that the probe connection end is connected to the second ultrasound probe, the display is controlled to display the second ultrasound probe logo on the display interface; when an activation signal for the second ultrasound probe logo is detected, the display is controlled to display the first B-ultrasound examination mode logo and at least one second B-ultrasound examination mode logo; when an activation signal for the first B-ultrasound examination mode logo is detected, the second ultrasound probe is set to the first B-ultrasound examination mode; when an activation signal for any one of the second B-ultrasound examination mode logos is detected, the second ultrasound probe is set to the second B-ultrasound examination mode corresponding to the second B-ultrasound examination mode logo that detects the activation signal.

3. The ultrasonic imaging device according to claim 2, characterized in that: The processor is further configured to: when an activation signal for any of the inspection mode identifiers is detected, control the display to display detection information corresponding to the inspection mode on the display interface; wherein, If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection part; If an activation signal for the first B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound examination mode; if an activation signal for the second B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound examination mode.

4. The ultrasonic imaging device according to claim 3, characterized in that: The processor is further configured to: In response to a detection information switching operation input by a user, the display is controlled to switch the detection information currently displayed on the display interface to the detection information specified by the detection information switching operation.

5. The ultrasonic imaging device according to claim 2, characterized in that: The display interface includes a first display area and a second display area, the first display area is used to display the corresponding identification, and the second display area is used to display the corresponding detection information.

6. The ultrasonic imaging device according to claim 5, characterized in that: The display includes a first display and a second display, the display interface includes a display interface of the first display and a display interface of the second display, the display interface of the first display includes the first display area, and the display interface of the second display includes the second display area.

7. The ultrasonic imaging device according to claim 5, characterized in that: When the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site, the second display area includes an upper part and a lower part, the upper part is used to display the parameter information, and the lower part is used to display the A-ultrasound waveform.

8. The ultrasonic imaging device according to claim 7, characterized in that: The second ultrasound probe further has at least one of the following multiple inspection modes: blood flow Doppler inspection mode, pulsed Doppler inspection mode, continuous Doppler inspection mode, angiography inspection mode, elasticity inspection mode and photoacoustic inspection mode; when the second ultrasound probe is set to any one of the multiple inspection modes, the second ultrasound probe is used to perform inspection corresponding to the inspection mode on the first inspection part and / or the second inspection part of the object to be tested; after the second ultrasound probe identifier is activated, the processor is further used to: A selection instruction for at least one of the multiple inspection modes is detected, and the second ultrasound probe is controlled to enter the inspection mode corresponding to the selection instruction to perform a corresponding inspection.

9. The ultrasonic imaging device according to claim 8, characterized in that: The ultrasonic imaging device also includes a trolley and a host for accommodating the processor, the trolley includes a supporting part and a moving part, the moving part includes a base and casters arranged at the lower end of the base, the supporting part is arranged on the base, and the host is installed on one end of the supporting part away from the base.

10. The ultrasonic imaging device according to claim 9, characterized in that: The display comprises a first display and a second display, the display interface comprises a display interface of the first display and a display interface of the second display, the display interface of the first display comprises the first display area, and the display interface of the second display comprises the second display area; The supporting portion includes a supporting panel, and a vertical distance between the first display and the supporting panel is smaller than a vertical distance between the second display and the supporting panel.

11. The ultrasonic imaging device according to claim 10, characterized in that: The selection options corresponding to the multiple inspection modes are set on the display interface of the support panel and / or the first display.

12. The ultrasonic imaging device according to claim 8, characterized in that: The first ultrasound probe further includes at least one first array element, and the at least one first array element is used to perform the A-ultrasound imaging; and / or, The second ultrasonic probe includes at least two second array elements, and the at least two second array elements are used to perform B-ultrasonic imaging of the first detection site and / or the second detection site.

13. The ultrasonic imaging device according to claim 12, characterized in that: The at least two second array elements are further configured to perform at least one of the plurality of inspection modes for the second inspection site.

14. The ultrasonic imaging device according to claim 12, characterized in that: The ultrasonic imaging device further includes a physical channel group, wherein the physical channel group includes a plurality of physical channels, and the physical channels are used to connect the first array element, the second array element and / or the light emitting element.

15. The ultrasonic imaging device according to claim 2, characterized in that: When an activation signal for the first ultrasound probe identifier is detected, the processor is further used to automatically control the display to display the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site.

16. The ultrasonic imaging device according to claim 1, characterized in that: The display interface is further used to display corresponding identifiers, and the corresponding identifiers include: an A-ultrasound examination mode identifier, a first B-ultrasound examination mode identifier, and a second B-ultrasound examination mode identifier. The ultrasonic imaging device also includes a processor, and the processor is used to: In response to a user's selection operation of the A-ultrasound inspection mode identifier, the first ultrasound probe enters the A-ultrasound inspection mode to perform A-ultrasound imaging on the first detection part of the object to be detected; In response to a user's selection operation of the first B-ultrasound examination mode identifier, causing the second ultrasound probe to enter the first B-ultrasound examination mode to perform B-ultrasound imaging of the first detection part of the object to be detected; In response to the user's selection operation of the second B-ultrasound examination mode identifier, the second ultrasound probe enters at least one of the second B-ultrasound examination modes to perform B-ultrasound imaging of the second detection part of the object to be detected.

17. The ultrasonic imaging device according to any one of claims 1 to 16, characterized in that: The parameter information of the first detection site includes at least one of the anterior chamber size information, the lens size information, the vitreous body size information and the axial length information of the eye.

18. The ultrasonic imaging device according to any one of claims 1 to 16, characterized in that: The second detection site includes the thyroid gland, breast, submandibular gland, neck artery, chest artery, heart, abdomen, kidney, liver, gallbladder or stomach.

19. An ultrasonic imaging device, characterized in that: include: A display, used to display a display interface; At least one third ultrasound probe, the third ultrasound probe comprises at least two third array elements and a light emitting member, the third ultrasound probe has an A-ultrasound inspection mode, a first B-ultrasound inspection mode and at least one second B-ultrasound inspection mode, wherein: When the third ultrasonic probe is set to the A-ultrasound inspection mode, the third ultrasonic probe performs A-ultrasound imaging of a first detection part of the object to be detected through at least one of the third array elements, and the light-emitting element is used to emit light to focus the line of sight of the object to be detected so that at least one of the third array elements can perform A-ultrasound imaging of the first detection part; When the third ultrasonic probe is set to the first B-ultrasound examination mode, the third ultrasonic probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be detected, and the third ultrasonic probe performs B-ultrasound imaging of the first detection part of the object to be detected through the at least two third array elements. When the third ultrasound probe is set to the second B-ultrasound examination mode, the third ultrasound probe can at least be used to perform B-ultrasound imaging of a second detection part of the object to be detected, and the third ultrasound probe performs B-ultrasound imaging of the second detection part of the object to be detected through the at least two third array elements, wherein the first detection part is an eye, and the second detection part is different from the first detection part; A physical channel group includes at least two physical channels, wherein the physical channels are used to excite the connected third array element to emit ultrasonic waves and receive corresponding echo signals, and the at least two physical channels can cooperate with the at least two third array elements of the third ultrasonic probe to perform the A-ultrasound examination mode, the first B-ultrasound examination mode and the second B-ultrasound examination mode.

20. The ultrasonic imaging device according to claim 19, characterized in that: It also includes a processor, which is used to control the display interface to display detection information, wherein the detection information includes: an A-ultrasound waveform and / or parameter information of the first detection site obtained based on the A-ultrasound imaging, an ultrasound image of the first detection site obtained based on the B-ultrasound imaging, or an ultrasound image of the second detection site obtained based on the B-ultrasound imaging.

21. The ultrasonic imaging device according to claim 20, characterized in that: The ultrasonic imaging device further comprises a probe connection end, and the probe connection end can be connected to or disconnected from the third ultrasonic probe; The processor is also used to: identify the connection status between the third ultrasonic probe and the probe connection end and control the display to display a corresponding logo on the display interface; wherein, when it is identified that the third ultrasonic probe is connected to the ultrasonic imaging device; Control the display to display a third ultrasound probe identifier on the display interface, and display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier, and an A-ultrasound examination mode identifier when an activation signal for the third ultrasound probe identifier is detected; or, The display is controlled to display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier and an A-ultrasound examination mode identifier on the display interface.

22. The ultrasonic imaging device according to claim 21, characterized in that: The processor is also used to: when an activation signal for any of the inspection mode identifiers is detected, control the display to display the inspection information corresponding to the inspection mode on the display interface; wherein, If an activation signal for the first B-ultrasound inspection mode flag is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound inspection mode, and if the second B-ultrasound inspection mode flag is activated, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound inspection mode; If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site.

23. The ultrasonic imaging device according to any one of claims 20 to 22, characterized in that: The third ultrasound probe further has at least one of the following multiple inspection modes: blood flow Doppler inspection mode, pulsed Doppler inspection mode, continuous Doppler inspection mode, angiography inspection mode, elasticity inspection mode and photoacoustic inspection mode; when the third ultrasound probe is set to any one of the multiple inspection modes, the third ultrasound probe is used to perform inspection corresponding to the inspection mode on the first inspection part and / or the second inspection part of the object to be tested; after the third ultrasound probe identifier is activated, the processor is further used to: Detecting a user's selection of at least one of the multiple inspection modes, and controlling the third ultrasound probe to enter the selected inspection mode for corresponding inspection.

24. The ultrasonic imaging device according to any one of claims 20 to 22, characterized in that: The ultrasonic imaging device also includes a trolley and a host for accommodating the processor, the trolley includes a supporting part and a moving part, the moving part includes a base and casters arranged at the lower end of the base, the supporting part is arranged on the base, and the host is installed on one end of the supporting part away from the base.

25. A host of an ultrasonic imaging device, characterized in that: include: A display interface, used to connect to a display, and the display is used to display a display interface; A probe connection end, wherein the probe connection end can be connected to or disconnected from at least two ultrasound probes, wherein the at least two ultrasound probes include a first ultrasound probe and a second ultrasound probe; The first ultrasonic probe comprises a light emitting member, and the first ultrasonic probe has an A-ultrasound inspection mode. When the first ultrasonic probe is set to the A-ultrasound inspection mode, the first ultrasonic probe is used to perform A-ultrasound imaging of a first detection part of the object to be detected, and the light emitting member is used to emit light to focus the line of sight of the object to be detected so that the first ultrasonic probe can perform A-ultrasound imaging of the first detection part; wherein the first detection part is an eye; The second ultrasound probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasound probe is set to the first B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the first detection part of the object to be detected. When the second ultrasound probe is set to the second B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the second detection part of the object to be detected; wherein the second detection part is different from the first detection part; A processor is used to identify the ultrasound probe connected to the probe connection end, and display a corresponding mark on the display interface when the display interface is connected to the display; wherein, When it is recognized that the probe connection end is connected to the first ultrasound probe, the display is controlled to display the first ultrasound probe identifier on the display interface, and when an activation signal for the first ultrasound probe identifier is detected, an A-ultrasound inspection mode identifier is displayed, and when an activation signal for the A-ultrasound inspection mode identifier is detected, the first ultrasound probe is set to the A-ultrasound inspection mode; When it is identified that the probe connection end is connected to the second ultrasound probe, the display is controlled to display the second ultrasound probe logo on the display interface, and when an activation signal for the second ultrasound probe logo is detected, the first B-ultrasound examination mode logo and at least one second B-ultrasound examination mode logo are displayed; when an activation signal for the first B-ultrasound examination mode logo is detected, the second ultrasound probe is set to the first B-ultrasound examination mode; when an activation signal for any one of the second B-ultrasound examination mode logos is detected, the second ultrasound probe is set to the second B-ultrasound examination mode corresponding to the second B-ultrasound examination mode logo that detects the activation signal.

26. The host according to claim 25, characterized in that The processor is further configured to: when an activation signal for any of the inspection mode identifiers is detected, control the display to display detection information corresponding to the inspection mode on the display interface; wherein, If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection part; If an activation signal for the first B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound examination mode; if an activation signal for the second B-ultrasound examination mode mark is detected, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound examination mode.

27. The host according to claim 26, characterized in that The processor is further configured to: In response to a detection information switching operation input by a user, the display is controlled to switch the detection information currently displayed on the display interface to the detection information specified by the detection information switching operation.

28. The host according to claim 25, characterized in that The second ultrasound probe further has at least one of the following multiple inspection modes: blood flow Doppler inspection mode, pulsed Doppler inspection mode, continuous Doppler inspection mode, angiography inspection mode, elasticity inspection mode and photoacoustic inspection mode; when the second ultrasound probe is set to any one of the multiple inspection modes, the second ultrasound probe is used to perform inspection corresponding to the inspection mode on the first inspection part and / or the second inspection part of the object to be tested; after the second ultrasound probe identifier is activated, the processor is further used to: Detecting a user's selection of at least one of the multiple inspection modes, and controlling the second ultrasound probe to enter the selected inspection mode for corresponding inspection.

29. A host of an ultrasonic imaging device, characterized in that: include: A display interface, used to connect to a display, and the display is used to display a display interface; A probe connection end, wherein the probe connection end can be connected to or disconnected from at least two ultrasound probes, wherein the at least two ultrasound probes include a first ultrasound probe and a second ultrasound probe; The first ultrasonic probe comprises a light emitting member, and the first ultrasonic probe has an A-ultrasound inspection mode. When the first ultrasonic probe is set to the A-ultrasound inspection mode, the first ultrasonic probe is used to perform A-ultrasound imaging of a first detection part of the object to be detected, and the light emitting member is used to emit light to focus the line of sight of the object to be detected so that the first ultrasonic probe can perform A-ultrasound imaging of the first detection part; wherein the first detection part is an eye; The second ultrasound probe has a first B-ultrasound examination mode and at least one second B-ultrasound examination mode. When the second ultrasound probe is set to the first B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the first detection part of the object to be detected. When the second ultrasound probe is set to the second B-ultrasound examination mode, the second ultrasound probe can at least be used to perform B-ultrasound imaging on the second detection part of the object to be detected; wherein the second detection part is different from the first detection part; When the display interface is connected to the display, and when the probe connection end is connected to the first ultrasound probe and the second ultrasound probe, the display interface is used to display corresponding identifiers, and the corresponding identifiers include: A-ultrasound examination mode identifier, first B-ultrasound examination mode identifier, and second B-ultrasound examination mode identifier; Processor for: In response to a user's selection operation of the A-ultrasound inspection mode identifier, the first ultrasound probe enters the A-ultrasound inspection mode to perform A-ultrasound imaging on the first detection part of the object to be detected; In response to a user's selection operation of the first B-ultrasound examination mode identifier, causing the second ultrasound probe to enter the first B-ultrasound examination mode to perform B-ultrasound imaging of the first detection part of the object to be detected; In response to the user's selection operation of the second B-ultrasound examination mode identifier, the second ultrasound probe enters at least one of the second B-ultrasound examination modes to perform B-ultrasound imaging of the second detection part of the object to be detected.

30. The host according to claim 29, characterized in that The display interface is also used to display detection information. After the identifier is selected, the processor is also used to: control the display to display detection information corresponding to the inspection mode corresponding to the identifier on the display interface, wherein: If the A-ultrasound examination mode is selected, the detection information includes the A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection part; If the first B-ultrasound examination mode identifier is selected, the detection information includes the B-ultrasound image of the first detection part obtained based on the first B-ultrasound examination mode; if the second B-ultrasound examination mode identifier is selected, the detection information includes the B-ultrasound image of the second detection part obtained based on the second B-ultrasound examination mode.

31. A host of an ultrasonic imaging device, characterized in that: include: A display interface, used to connect to a display, and the display is used to display a display interface; A probe connection end, wherein the probe connection end can be connected to or disconnected from at least one third ultrasound probe, wherein the third ultrasound probe includes at least two third array elements and a light emitting member, and wherein the third ultrasound probe has an A-ultrasound examination mode, a first B-ultrasound examination mode, and at least one second B-ultrasound examination mode, wherein: When the third ultrasonic probe is set to the A-ultrasound inspection mode, the third ultrasonic probe performs A-ultrasound imaging of a first detection part of the object to be detected through at least one of the third array elements, and the light-emitting element is used to emit light to focus the line of sight of the object to be detected so that at least one of the third array elements can perform A-ultrasound imaging of the first detection part; When the third ultrasonic probe is set to the first B-ultrasound examination mode, the third ultrasonic probe can at least be used to perform B-ultrasound imaging of the first detection part of the object to be detected, and the third ultrasonic probe performs B-ultrasound imaging of the first detection part of the object to be detected through the at least two third array elements. When the third ultrasound probe is set to the second B-ultrasound examination mode, the third ultrasound probe can at least be used to perform B-ultrasound imaging of a second detection part of the object to be detected, and the third ultrasound probe performs B-ultrasound imaging of the second detection part of the object to be detected through the at least two third array elements, wherein the first detection part is an eye, and the second detection part is different from the first detection part; a physical channel group, comprising at least two physical channels, wherein the physical channels are used to excite the connected third array element to transmit ultrasonic waves and receive corresponding echo signals, and the at least two physical channels can cooperate with the at least two third array elements of the third ultrasonic probe to perform the A-ultrasound examination mode, the first B-ultrasound examination mode, and the second B-ultrasound examination mode; A processor is used to control the display interface to display detection information when the display interface is connected to the display, the detection information including: an A-ultrasound waveform and / or parameter information of a first detection site obtained based on the A-ultrasound imaging, an ultrasound image of the first detection site obtained based on the B-ultrasound imaging, or an ultrasound image of the second detection site obtained based on the B-ultrasound imaging.

32. The host according to claim 31, characterized in that The processor is also used to: identify the connection status between the third ultrasonic probe and the probe connection end and control the display to display a corresponding logo on the display interface; wherein, when it is identified that the third ultrasonic probe is connected to the ultrasonic imaging device, Control the display to display a third ultrasound probe identifier on the display interface, and display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier, and an A-ultrasound examination mode identifier when an activation signal for the third ultrasound probe identifier is detected; or, The display is controlled to display a first B-ultrasound examination mode identifier, a second B-ultrasound examination mode identifier and an A-ultrasound examination mode identifier on the display interface.

33. The host according to claim 32, characterized in that The processor is also used to: when an activation signal for any of the inspection mode identifiers is detected, control the display to display the inspection information corresponding to the inspection mode on the display interface; wherein, If an activation signal for the first B-ultrasound inspection mode identifier is detected, the detection information includes a B-ultrasound image of the first detection part obtained based on the first B-ultrasound inspection mode; if an activation signal for the second B-ultrasound inspection mode identifier is detected, the detection information includes a B-ultrasound image of the second detection part obtained based on the second B-ultrasound inspection mode; If an activation signal for the A-ultrasound inspection mode identifier is detected, the detection information includes an A-ultrasound waveform obtained based on the A-ultrasound imaging and / or parameter information of the first detection site.

Images