Ultra high frequency small animal ultrasound imaging system

Ultra high frequency small animal ultrasound imaging system

Ultra high frequency small animal ultrasound imaging systemEquipped with a high-resolution imaging platform and high-frequency probe, and integrated with ultrasound imaging technology, the image quality meets the standard

Product Details

Sonorover UR820Ultra high frequency small animal ultrasound imaging systemEquipped with advanced high-resolution imaging platform and high-frequency probe, and integrated with ultrasound imaging technology for image quality. Fully meet the needs of biomedical research fields such as cardiovascular disease, abdominal organs, tumors, and embryos in small animals, and assist researchers in continuously exploring unknown paths.

Product Features

256 channels: The system uses 256 channels for better imaging performance and superior image quality

120MSPS: The sampling rate of the ultrasonic analog signal ADC chip can reach 120MSPS

256 elements: High density 256 element ultrasound imaging probe, meeting the needs of high-performance ultrasound imaging

50 μ m: The image resolution can reach 50 μ m, providing richer and more accurate visual information

Advanced ultrasound probe

High density 256 element ultrasonic imaging probe, high-performance piezoelectric material combined with multi-layer matching technology, low capacitance ultrasonic dedicated cable, supporting multiple frequency probes

Image enhancement function

One click optimization of contrast and resolution, improving diagnostic and scientific accuracy, enhancing image clarity and detail representation

Myocardial strain imaging

An important tool for cardiac research: myocardial strain imaging can non invasively and real-time evaluate myocardial function, helping researchers to explore the pathogenesis, drug efficacy, and gene function of cardiovascular diseases in depth

Comprehensive assessment of myocardial function: Strain imaging provides multidimensional strain analysis, helping to comprehensively understand the contraction and deformation of the myocardium in different directions, and improving the accuracy of diagnosis

Quantitative analysis: Strain imaging can quantify myocardial deformation and provide accurate numerical parameters for cardiac function

Detecting synchronicity: By measuring the deformation of different myocardial segments, strain imaging can reveal the asynchrony of myocardial contraction

High frame rate contrast imaging

Higher temporal resolution: By increasing the frame rate of imaging, higher temporal resolution can be obtained, which can display more microvascular architecture and vascular perfusion details more intuitively and clearly

Fast dynamic capture: Record the dynamic changes of contrast agents in the bloodstream at ultra-high frame rates. The maximum frame rate can reach 120 frames per second

Microcirculation imaging: providing precise microvascular structure and blood flow perfusion information

Accurate lesion assessment: achieving early detection and quantitative analysis of small lesions

3D/4D imaging

Cardiovascular research: studying the structure, movement, and blood flow changes of small animal hearts, suitable for model studies of congenital heart disease, cardiomyopathy, and other conditions

Tumor Research: Observing Tumor Blood Supply, Angiogenesis, and Treatment Response

Detecting synchronicity: monitoring heart and organ function during the development of small animal embryos

Drug development: Evaluating the impact of drugs on cardiovascular or organ function

Super resolution ultrasound imaging

Tumor microvascular imaging: Abnormal microvascular growth is one of the characteristics of cancer, and super-resolution ultrasound imaging can be used for basic research and clinical management of cancer, such as early detection, diagnosis, and treatment response evaluation. Early diagnosis can be achieved through changes in microvascular morphology when the tumor volume is still small

Brain microvascular imaging: provides imaging coverage and micrometer level spatial resolution of the brain, while measuring the blood flow velocity of individual blood vessels. For example, in stroke research, early detection of microvascular blood flow changes in the ischemic penumbra can guide thrombolytic therapy. Observing vascular damage in amyloid plaque areas in Alzheimer's disease models and studying disease mechanisms

High frequency photoacoustic imaging

High frequency ultrasound clearly displays tissue structure through fine spatial resolution, while photoacoustic technology captures molecular functional information such as blood oxygen levels based on photoacoustic effects. The advantages of the two complement each other and can achieve high-resolution, multidimensional imaging of tissues

High resolution: Combining optical and ultrasound technology to provide high-resolution images of tissue structure and function

Deep penetration: Compared to pure optical technology, photoacoustic imaging can penetrate deeper tissues and is suitable for a wider range of examinations or studies

Functional imaging: achieving functional imaging of oxygen saturation, vascular function, and molecular level, supporting precision medicine research

Multi mode fusion: can be combined with ultrasound imaging technology to obtain more tissue information and improve diagnostic accuracy

Functional Brain Imaging (fUS)

FUS can detect brain functional activity through neurovascular coupling mechanisms, and can be applied to various animals such as mice, rats, and non-human primates to assist in the study of cerebrovascular related diseases and mechanisms. It can also be applied to various animal models related to neurological or psychiatric disorders, neuropharmacological research, new drug screening to find new disease-related biomarkers, and so on. The application in preclinical research is very extensive.

Imaging effect display