• Tumor imaging: Micro-CT can be used to visualize tumors in preclinical models, allowing researchers to track tumor growth and response to treatment. This information can be used to develop new cancer therapies.
• Angiogenesis analysis: Micro-CT can be used to study the formation of new blood vessels in tumors, a process known as angiogenesis. This is important for understanding tumor growth and for developing new anti-angiogenic therapies.
• Metastasis detection: Micro-CT can also be used to detect metastatic tumors, allowing researchers to study the process of cancer spread and develop new therapies to prevent it.

Micro CT is used to study the progression of various diseases and disorders in small animal models. The system’s ability to generate high-resolution, 3D images provides researchers with a comprehensive understanding of the effects of these diseases on the anatomy and function of the body.

• Pulmonary function assessment: Micro-CT can be used to assess lung function in preclinical models, allowing researchers to study lung diseases such as asthma and chronic obstructive pulmonary disease (COPD).
• Airway analysis: Micro-CT can also be used to analyze airway structure and function, which is useful in understanding the underlying mechanisms of lung diseases and for developing new treatments.
• Imaging of pulmonary diseases: Micro-CT can be used to visualize lung diseases such as fibrosis and emphysema in preclinical models, allowing researchers to study the progression of these diseases and develop new therapies.

• Vascular imaging: Micro-CT can be used to visualize blood vessels in preclinical models, allowing researchers to study cardiovascular disease and develop new therapies.
• Cardiac function assessment: Micro-CT can also be used to assess cardiac function in preclinical models, allowing researchers to study conditions such as heart failure and develop new treatments.
• Atherosclerosis analysis: Micro-CT can be used to study the development of atherosclerosis, a condition where plaque builds up in arteries, leading to cardiovascular disease.

Micro CT provides researchers with a non-invasive method for visualizing the internal structure of the heart and blood vessels in small animal models. This information is valuable for the study of cardiovascular disease and the development of new treatments.

• Brain imaging: Micro-CT can be used to visualize the structure of the brain in preclinical models, allowing researchers to study neurological conditions such as Alzheimer’s disease and develop new treatments.
• Cranial nerve analysis: Micro-CT can also be used to study cranial nerves, which play an important role in various neurological functions.
• Neurovascular analysis: Micro-CT can be used to study the interaction between neurons and blood vessels, which is important for understanding neurological diseases and developing new therapies.

Micro CT provides a detailed view of the bone’s internal structure, which allows researchers to evaluate the bone’s microarchitecture, such as trabecular thickness, spacing, and orientation. This information is essential for understanding the mechanical properties of bones and the effects of various treatments on bone health.

Cranial sutures are the joints that connect the bones of the skull. Micro CT is useful for studying the morphology and development of cranial sutures and for investigating the etiology of cranial suture disorders.

Micro CT can be used to visualize joint anatomy and assess the severity of joint diseases such as osteoarthritis, rheumatoid arthritis, and other conditions. This information is important for developing better treatments for joint disorders and for evaluating the effectiveness of existing treatments.

Micro CT provides detailed images of the internal structure of bones, which can be useful for investigating the anatomy and physiology of bones, as well as for studying the effects of various treatments on bone health.

Micro CT can be used to investigate the underlying causes of various bone disorders, such as osteoporosis, osteoarthritis, and other conditions. This information is important for developing new treatments for bone disorders and for improving the diagnosis and management of these conditions.

One of the key applications of image analysis in preclinical micro-PET is the quantification of radiotracer uptake in different regions of interest. This technique helps in determining the amount of radiotracer uptake in different tissues and organs of the animal model, and can provide valuable information about the distribution and pharmacokinetics of the radiotracer.

Micro-CT is an important tool for analyzing dental materials and providing information about the mechanical properties and degradation of different materials used in dentistry. It can also be used to evaluate the osseointegration of dental implants, providing detailed information about bone healing and the success of the implantation process. Finally, micro-CT can be used to assess the accuracy of dental restorations, providing valuable information about the fit and adaptation of different restorative materials.

• Restorative materials analysis: Micro-CT can be used to analyze the internal structure of vital materials such as composites and ceramics, allowing researchers to evaluate their mechanical properties and biocompatibility.
• Implant analysis: Micro-CT can be used to analyze the internal structure of dental implants, allowing researchers to evaluate their osseointegration and long-term stability. This information is essential for developing new implant materials and designs.
• Adhesive interface analysis: Micro-CT can also be used to analyze the interface between dental materials and tooth structure, allowing researchers to evaluate the quality of the bond and develop new bonding agents.

Micro-CT is a powerful tool for high-resolution dental imaging, providing detailed information about the anatomy and structure of the teeth and jaws. It can be used for quantitatively assessing dental caries, providing important information about the extent of decay and the efficacy of different treatments. Additionally, micro-CT can be used to diagnose endodontic pathologies, such as root canal infections, by visualizing the internal structures of the teeth in 3D.

Micro-CT is an important tool for orthodontic research, providing information about the outcomes of orthodontic treatment and the underlying biomechanics of tooth movement. It can be used to evaluate the extent of orthodontic root resorption, providing important information about the risks and benefits of different treatment approaches. Additionally, micro-CT can be used to study the biomechanics of orthodontic tooth movement, providing valuable information about the forces and stresses involved in tooth movement.

Micro-CT is a valuable tool for forensic dentistry, providing detailed information about the teeth and jaws that can be used for dental identification. It can also be used for age estimation, providing information about tooth development and eruption that can be used to estimate the age of an individual. Finally, micro-CT can be used for the study of dental trauma, providing information about the extent and nature of dental injuries, as well as the efficacy of different treatment approaches.

Micro CT is an effective tool for studying periodontal disease and its effects on the jaw bones and teeth. Researchers can use these images to better understand the biology of the disease and to develop new and improved treatments.

• Periodontal structure analysis: Micro-CT can be used to analyze the structure of periodontal tissues, including the alveolar bone and periodontal ligament. This information is useful in understanding the biomechanics of teeth and for studying periodontal diseases such as periodontitis.
• Tooth movement analysis: Micro-CT can be used to analyze tooth movement in response to orthodontic forces, allowing researchers to study the biomechanics of orthodontic treatment and to develop new treatment modalities.
• Regenerative medicine analysis: Micro-CT can be used to evaluate the efficacy of regenerative medicine approaches for treating periodontal defects, allowing researchers to develop new therapies for periodontal disease.

Micro CT can be used to evaluate the success of endodontic treatments such as root canal therapy. Researchers can use these images to study the anatomy of the root canals and to assess the effectiveness of the treatment in terms of sealing the canals and preventing reinfection.

• Root canal analysis: Micro-CT can be used to analyze the internal structure of root canals, allowing researchers to evaluate the efficacy of endodontic treatments and develop new treatment modalities.
• Periapical pathology analysis: Micro-CT can be used to analyze periapical pathology, such as apical periodontitis, allowing researchers to study the underlying mechanisms of these conditions and develop new treatment approaches.
• Root resorption analysis: Micro-CT can also be used to analyze root resorption, which is a common complication of orthodontic treatment. This information is useful in understanding the mechanisms of root resorption and in developing new approaches to prevent or treat this condition.

Micro CT can be used to evaluate the stability of dental implants and to assess their integration with the surrounding tissues. This information is useful for researchers developing new and improved implant designs and surgical techniques.

• Implant stability analysis: Micro-CT can be used to analyze the stability of dental implants, allowing researchers to evaluate the efficacy of different implant designs and materials.
• Bone-implant interface analysis: Micro-CT can be used to analyze the interface between bone and dental implants, allowing researchers to study the osseointegration process and to develop new implant materials and designs.
• Implant placement planning: Micro-CT can also be used for implant placement planning, allowing clinicians to evaluate the bone volume and quality at potential implant sites and to plan the optimal implant placement for each patient.