Aloka Ust-9130 Alpha 10 Alpha 7 Convex Ultrasound Probe

Advanced front-end information acquisition technology: Revolutionary front-end technology

Image quality is the life of ultrasonic instrument, and its source power comes from accurate front-end ultrasonic emission technology. Alpha10 adopts revolutionary front-end processing technology, which is an important milestone in the process of image quality improvement.

1. Complete quality control technology: alpha10's groundbreaking composite pulse wave generator controls the vibration and stop of ultrasonic wafer from beginning to end. The complete control of ultrasonic wafer vibration is realized, and the revolutionary improvement of image spatial resolution and contrast resolution is realized.

2. Precise delay control: high precision time delay control suppresses sidelobe artifacts and greatly improves the signal-to-noise ratio.

3. Composite array probe: combined with the latest materials science and probe cutting technology, Aloka truly realizes three-dimensional matrix focusing. The spatial resolution and contrast resolution are significantly improved.

Powerful original information processing platform

1. After the ultrasonic information is transmitted from the probe to the system without loss, alpha10 original data, including velocity, scattering, phase, brightness and other information, are stored and analyzed. The acquisition and storage of original information provides a platform basis for the expansion of various forward-looking analysis functions.

2. Dicom3 compliant 0 standard, which can realize network storage, printing and transmission, and share data with medical information collection system and hospital information system.

3. The processing and analysis of original RF data can make the ultrasonic system and data analysis reach the micron level, such as eTRACKING, the early detection technology of alpha10 vascular disease, whose analysis data is accurate to 0.01mm.

At the same time, the following functions can be realized:

*After the image is frozen, the two-dimensional, color and Doppler gains can be adjusted again:

*The correction of blood flow measurement can be realized after freezing the image:

*The baseline, gain and velocity range of Doppler spectrum can be adjusted after freezing the image;

*Various quantitative analysis of tissue Doppler (multi-point velocity time curve, strain and strain rate, etc.)

*Omnidirectional M mode can realize re measurement and gain re adjustment after freezing the image.

The main components of a typical ultrasound transducer consist of:

1. Lens

2. Strain Relief

3. Cyrstal

4. Cable

5. Connector Housing

Basic Ultrasound Transducer Types:

1. Linear Transducers

2. Convex or curved array Transducers

3. Phased Array Transducers

4. Sector Transducers

5. Endocavity Transducers

6. 3d/4d Transducers

7. Tee Transducers