SARRP small animal image-guided precision radiotherapy system

Small animal radiotherapy research platform(SARRP)Adopting the most advanced live image-guided micro irradiation technology（IGMITM）, throughCTGuided by imaging and live fluorescence imaging, researchers can synchronize image tracking during radiotherapy and accurately locate irradiation targets.SARRPSimultaneously integrating high resolutionCTThe radiation transmission of images and high-precision positioning can0.5Millimeter beam accurately transmits to anatomical targets inside small animals, with positioning accuracy of up to0.25Millimeters ensure that the irradiation field and dose distribution are highly adapted to the shape of the target area, allowing for higher doses to be given to the target location (such as a tumor) while reducing the dose to surrounding normal tissues to a lower level.

As the latest development in radiotherapy technology, the Small Animal Radiotherapy Research Platform（SARRP）Provide the most advanced3DVolume imaging guidance is used for locating and locking targets, minimizing the exposure of non targeted tissues and organs with conformal doses. It is easy to use, reliable, and has good reproducibility; Customization is possible to meet the needs of innovation and the latest applications; High resolution, low-dose imaging, user-friendly interfaceCTImaging, 3D reconstruction, and image fusion are optional for easy target localization and conformal avoidance of organs in danger; The geometric shape of high-precision beam ensures the distribution of conformal dose; Integrating the most advanced 3D imaging technology, optimizing 3D conformal planning, and 3D dose calculation functions, enables the application of the most advanced radiotherapy techniques in clinical practice to experimental animals.

The SARRP small animal precision irradiator can serve as a precise radiation therapy device for small animal tumors, providing an efficient preclinical research platform for tumor radiation therapy and radiation biology research, accelerating the clinical translation process, and can be used in research fields such as radiation biology, tumor radiation therapy evaluation, radiation therapy mechanism research, complication research, and radiation sensitizer development

Immunology: Delivering target doses to avoid stimulating immune responses in lymph nodes

● Normal tissue damage

● Preclinical tumor research: Xenograft transplantation&In situ model, targeted tumor irradiation

● Preclinical efficacy and toxicity studies:Radiation sensitizer, moderator, and protective agent

Immunooncology: Adjuvant Therapy

Stem cell therapy: whole-body irradiation and moderate bone marrow partial irradiation

Genomics: Tumor Heterogeneity

Neurology: Detecting neurogenesis, encephalitis, and brain injury

Osteoporosis: detection of bone density and damage, etc