Multi-beam processing method adopting beam enhancement and interpolation
A processing method and multi-beam technology, applied in ultrasonic/sonic/infrasonic diagnosis, application, sound wave diagnosis, etc., can solve problems such as inconsistency of receiving beam signal strength, inconsistency of lateral distance, and distortion of ultrasonic images
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specific Embodiment 1
[0027] Such as figure 1 As shown, a multi-beam processing method using beam enhancement and interpolation, the method includes the following steps:
[0028] S101. Set the number of receiving beams and the distance between adjacent receiving beams in a single transmission according to the number of probe array elements, and then calculate the number of transmitting beams and the interval between adjacent transmitting beams.
[0029] The number of probe array elements means that the ultrasonic probe is an organism composed of several piezoelectric material units arranged. Each piezoelectric material unit is called an array element, and the number of such array elements contained in a probe is called the number of probe array elements.
[0030] The number of receiving beams refers to the number of receiving beams formed each time an ultrasonic beam is transmitted, usually 2-8.
[0031] The distance between adjacent receiving beams refers to the distance between two adjacent re...
specific Embodiment 2
[0062] Such as Image 6 As shown, taking a 128-element probe to perform 4 receiving beams, a half-step, and a B-mode imaging scan as an example, the multi-beam synthesis method using beam enhancement and interpolation is described in detail. The method includes the following steps:
[0063] S201, setting the number of receiving beams and the spacing between receiving beams under a single transmission according to the number of probe array elements, and then calculating the number of transmitting beams and the interval between adjacent transmitting beams;
[0064] The interval between two adjacent transmit beams = the number of receive beams × the distance between adjacent receive beams.
[0065] The total number of receiving beams = the number of array elements * the distance between adjacent receiving beams.
[0066] Total number of transmitting beams = total number of receiving beams / number of receiving beams+1.
[0067] Therefore, in this example, because it is half a ste...
Embodiment 3
[0096] Such as image 3 As shown, the following uses a 128-element probe to perform a 2-beam half-step B-mode imaging scan, and describes in detail the multi-beam synthesis method using beam enhancement and interpolation.
[0097] S301. Set the number of receiving beams and the distance between receiving beams according to the number of probe array elements, and then calculate the number of transmitting beams and the interval between adjacent transmitting beams.
[0098] The interval between two adjacent transmit beams = the number of receive beams × the distance between adjacent receive beams.
[0099] The total number of receiving beams = the number of array elements / the interval between two adjacent receiving beams.
[0100] Total number of transmitting beams = total number of receiving beams / number of receiving beams+1.
[0101] Therefore, in this example, since it is a half-step distance, the distance between adjacent receiving beams = 0.5 times the step distance.
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