What is
an ultrasound
machine?

Ultrasound machines are devices that use ultrasound technology to generate images of internal tissues and organs of the human body, helping doctors observe and evaluate the patient's internal anatomy, organ functions, and hemodynamics, thereby enabling accurate diagnosis and treatment decisions.It is a non-invasive diagnostic tool widely used in medicine to evaluate and monitor various conditions in real-time.

The development of ultrasound machine

In 1956
Dr. Karl Dussik in Austria was the first to use ultrasound to scan the human brain, marking the birth of diagnostic medical ultrasound. His early method was rudimentary and not very effective.
The 1960s
A-Mode Ultrasound: The first clinically relevant ultrasound technology was the A-mode (Amplitude Mode), which produced a single-dimensional (1D) image.
B-Mode Ultrasound: This provided two-dimensional (2D) images of internal organs, allowing for more detailed visual representation of the human body.
The 1970s
Real-Time Imaging: This allowed physicians to observe moving images of organs, blood flow, and fetuses, making ultrasound a powerful tool in obstetrics, cardiology, and general medicine.
Doppler Ultrasound: Doppler ultrasound became a key tool for assessing cardiovascular health,enabling the measurement of blood flow.
The 1980s
Digital Signal Processing: The transition to digital technology began in the 1980s, greatly improving the clarity and accuracy of ultrasound images.
Color Doppler Imaging: This technique was introduced to display blood flow in color, which added a visual element to the Doppler effect and enhanced its diagnostic value in cardiovascular medicine.
The 1990s
Miniaturization and Portability: Ultrasound machines became significantly more portable. Handheld ultrasound devices began to appear in clinics and emergency departments.
3D Ultrasound Imaging: The introduction of 3D ultrasound allowed for better visualization of organs and tissues in three-dimensional space.
The 2000s
4D Ultrasound: It added the time dimension to 3D imaging, allowing for real-time movement analysis. Elastography: It is useful in liver studies, cancer detection, and assessing musculoskeletal injuries.
Contrast-Enhanced Ultrasound (CEUS): It makes easier to identify tumors, liver diseases, and cardiac issues.
The 2010s
High-Definition Imaging and AI Integration: Ultrasound equipment saw further improvement in imaging resolution, allowing for even more detailed and clearer images of tissues and organs.
Portable and Wireless Ultrasound: There was a surge in portable ultrasound technology, with devices becoming smaller and even smartphone-compatible.
In the future

Portable Ultrasound Devices…
Artificial Intelligence and Machine
Learning…
Fusion Imaging…
Elastography and 3D/4D Imaging…

Classification of ultrasound machine

Trolley ultrasound

It supports a variety of advanced functions, including 3D/4D, TDI and M-mode, and is equipped with a wide range of probes that can be used in a variety of applications, such as abdominal, cardiac, vascular, and obstetrics and gynecology.

Portable ultrasound

Similar in shape and weight to a regular laptop, it is suitable for scenarios that require a high-performance portable device, such as medical consultations, primary care, auxiliary examination in the operating room or military medical teams.

Handheld ultrasound

Connect to phone, PC and platform through Wi-Fi or Bluetooth. Multi-type probe can be chosen. Built-in high-capacity battery can last for a long time and store images in real time through the cloud.

Recommended Products

Equipment type
model number
portability
feature richness
image quality
Applicable Scenarios

Trolley Ultrasound Machine

CNME010216|CNME010218

*
*****
*****

General hospital, imaging department, teaching and research

Portable Ultrasound machine

CNME0102B2|CNME010219

*****
****
****

Emergency, operating room, community health

Color Wireless Ultrasound

CNME0102-W1|CNME0102-W1C

*****
*****
*****

mHealth, telemedicine, remote areas

Laptop Ultrasound

CNME0102B1|CNME0102C4

****
****
****

Medical consultations, primary care, field medicine

Summary of recommendations

High functionality needs and budget

Desktop ultrasound or laptop ultrasound is recommended for complex exams and high-quality imaging needs.

Focus on portability and flexibility

 

For emergency and charity scenarios, portable ultrasound is the best choice.

Prioritize lightweight

For home monitoring or initial screening, handheld ultrasound and wireless ultrasound offer the ultimate in portability for mobile clinics.

Comprehensive functionality and flexibility

Laptop ultrasound is suitable for application scenarios that require high performance but seek portability, especially for consultation or military medical teams.

UKmeditech

How to choose an ultrasound probe?

Three factors are considered when selecting the appropriate probe: the depth of the target site, the accuracy required for the examination, and the size of the patient. 

Probe main parameters:

  • Number of Elements : the more the number of elements of the array, the image level is also richer, commonly 80,128,192 elements of the array.
  • Center Frequency : The center frequency determines the probe’s resolution and penetration. The higher the frequency, the better the image resolution.
  • Frequency Range: The frequency range in which the image can be diagnosed.
  • Maximum Scanning Depth (Max. Scanning Depth): Depth represents how far the body can be imaged.

Superficial tissue and vascular imaging for small organs (thyroid, mammary, testes, neonatal, peripheral vascular thyroid, breast and prostate) and other parts of the body, to aid in surgical and radiological diagnosis.

Good at deep tissue and large organ imaging, mainly used for abdominal and pelvic organs sweep, FAST sweep, pleural fluid sweep and lung ultrasound sweep, etc., serving the needs of internal medicine and obstetrics and gynecology.

Close to the organ imaging, suitable for female reproductive system and prostate examination, widely used in obstetrics and gynecology and urology.

small surface area, high frame rate dynamic imaging, easy to scan the entire heart through the intercostal space, mainly used for cardiac scanning, intracranial vascular scanning and lung ultrasound scanning, etc., often used by cardiologists and fetal medicine specialists.

Examination of the heart (including adult and children's heart) and other parts of the heart; chest section (adult and pediatric heart) analysis of M-mode images, detection of abnormalities in the structure and function of the heart; widely used in pediatrics and urology diagnosis.

Provides real-time three-dimensional imaging for fetal malformation screening and organ observation, and is commonly used in obstetrics and gynecology.

Recommended products

CNME010216

Trolley color doppler ultrasound system

CNME010218

Trolley color doppler ultrasound system

CNME010219

Portable Color Doppler Ultrasound System

CNME0102C4

Full Digital Color Doppler Ultrasound System

CNME0102B1

Notebook B/W Ultrasound System

CNME0102B2

Portablel B/W Ultrasound System

CNME0102-W1

3 in 1 Wireless Probe Type Ultrasound Scanner

CNME0102-W1C

2 in 1 Wireless Probe Type Ultrasound Scanner
Using parts
Probe Selection
Selection Of Probes For Different Parts

flank

convex array probe

convex array probe

small organ

high frequency line array

high frequency line array

respiratory

Micro-convex Array Probes, Phased Array Probes

Micro-convex Array Probes, Phased Array Probes

vasculature

Convex array probe, 4D, intracavitary

Convex array probe, 4D, intracavitary

neurosurgery

wire array probe

wire array probe

gynaecology

Convex Array Probes, Microconvex

Convex Array Probes, Microconvex

unborn child

4D, Line Array Probes

4D, Line Array Probes

cavity

Intracavity probe

Intracavity probe

Application areas of ultrasound machine

Cardiovascular system

Detects structural abnormalities of the heart, narrowing of blood vessels or aneurysms.

Obstetrics and Gynecology

Assessment of fetal health, intrauterine growth retardation, uterine fibroids, etc.

Urinary system

Diagnosis of kidney stones, bladder tumors, enlarged prostate, etc.

Hepatobiliary system

for detecting liver cirrhosis, cholecystitis, gallstones, etc.

Tumor diagnosis

assessment of tumor blood supply, preoperative localization, etc.

Emergency medicine

rapid assessment of abdominal bleeding, pericardial effusion, and other emergencies.

Musculoskeletal system

diagnosis of soft tissue injuries, joint effusions, etc.

Veterinary Medicine

Pregnancy monitoring and organ imaging in animals. Diagnosing internal conditions in pets and livestock.

Industrial & Research Applications

Biomedical research and material thickness measurement.

Summary of recommendations

Non-invasive

Ultrasound is a completely non-invasive examination method. Unlike imaging techniques such as X-rays or CT, it utilizes ultrasound for imaging, which is essentially a mechanical wave that does not produce ionizing radiation, and therefore does not cause radioactive damage to the human body, making it particularly suitable for pregnant women, children, and patients who need multiple examinations.

Real-time imaging

Real-time imaging not only captures the dynamic changes of the organs, but also shows the perfusion of the diseased area. For example, in diagnosing heart valve stenosis or atrial septal defect, color ultrasound is able to clearly show the phenomenon of blood flow shunt at the stenosis or defect area through color Doppler technology, and quantitatively measure the blood flow pressure using spectral Doppler, so as to accurately assess the condition. This real-time dynamic monitoring capability is a significant advantage of color ultrasound, making it an important diagnostic tool for cardiovascular, oncological and other diseases.

Versatility

The resolution and functionality of color ultrasound is constantly improving, and its scope of examination has been expanded from the traditional abdomen and heart to include a wide range of areas, such as blood vessels, thyroid gland, urinary system and musculoskeletal system.It is capable of analyzing in depth the difference between vascular and non-vascular lesions, assessing the nature and direction of blood flow, and even determining the blood supply to a lesion.  In addition, color ultrasound also plays an important role in surgical navigation, ensuring the accuracy of medical interventions by guiding doctors in real time.

Cost-effective

Ultrasound equipment is not only less expensive to purchase, but also costs far less to operate and maintain than CT or MRI equipment. It does not require radiological protection measures, nor does it require the use of consumables such as developers, making it much easier to operate. Compared with expensive CT or MRI, color ultrasound is extremely cost-effective, making it an ideal choice for primary hospitals, clinics and even mobile medical scenarios.

Portability development

Portability is a major highlight of modern color ultrasound. As technology advances, the use of palmtop and wireless ultrasound has significantly increased the flexibility of the devices. They are small and lightweight, can be quickly deployed in emergency scenes, remote areas and post-disaster relief, and realize data sharing and remote consultation through wireless connection. This not only expands their application scenarios, but also further lowers the threshold of use, bringing more possibilities for medical services.

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