

Functional Imaging of Chemobrain
Chemotherapy can affect thinking, memory, and attention, a problem known as “chemo brain.” Nuclear medicine imaging can show changes in brain metabolism and inflammation, helping link brain changes to patient experiences.
Course ID: Q00823 Category: Radiology Trends for Technologists Modalities: Nuclear Medicine, PET2.00 |
Satisfaction Guarantee |
$24.00
- Targeted CE
- Outline
- Objectives
Targeted CE per ARRT’s Discipline, Category, and Subcategory classification for enrollments starting after February 10, 2026:
[Note: Discipline-specific Targeted CE credits may be less than the total Category A credits approved for this course.]
Nuclear Medicine Technology: 2.00
Procedures: 2.00
Other Imaging Procedures: 2.00
Radiation Therapy: 0.25
Procedures: 0.25
Treatments: 0.25
Outline
- Introduction
- Clinical Features of CRCI
- CRCI Physiopathologic Basis
- Search Strategy
- Results
- Chemotherapeutic Agents and CRCI
- PET and SPECT Imaging of CRCI
- SPECT Tracers for CRCI Imaging
- 18F-FDG PET Imaging in CRCI
- PET with Tracers Other Than 18F-FDG: Translocator Protein (TSPO) Ligands for CRCI Imaging
- Conclusions and Future Outlook
Objectives
Upon completion of this course, students will:
- know the meaning for the acronym CRCI
- know the symptoms by which CRCI can be characterized
- identify the suspected causes for CRCI at a molecular level
- be familiar with the cognitive domains and abilities more commonly involved in CRCI
- understand how CRCI can affect distinct populations of cancer patients differently
- know the various methods of cognitive impairment assessment for patients who have undergone chemotherapy
- know what can potentially be involved with chemotherapy induced encephalopathy
- know the culminating effects of chemotherapy drug-induced damage to neurons
- understand how chemotherapy can affect a patient through various modifications in brain tissue
- understand the outputs from the PubMed / Medline database searches that were conducted according to the PRISMA guidelines
- be familiar with the types of studies that were considered in the two PubMed / Medline database searches that were referenced in the article
- be familiar with the search restrictions imposed in the two PubMed / Medline database searches that were referenced in the article
- understand the extracted data types for the two PubMed / Medline database searches reference in the article
- be familiar with the studies including PET and SPECT imaging for CRCI
- understand the heterogeneity in study design for the studies found in the PubMed / Medline database searches for assessing the effects of various chemotherapeutic agents on cognitive function
- identify the focus condition for the majority of the studies found in the PubMed / Medline database search to evaluate chemotherapeutic agents’ effects on cognitive function
- know the number of patients with cognitive function decline after chemotherapy within the selected studies from the PubMed / Medline database search to evaluate chemotherapeutic agents’ effects on cognitive function
- specify the tumor types evaluated by the studies selected from the PubMed / Medline database search to evaluate PET and SPECT imaging of CRCI
- understand the breakdown percentages of SPECT and PET/CT studies used in the studies selected from the PubMed / Medline database search to evaluate PET and SPECT imaging of CRCI
- know PET evaluation methods used for studies selected from the PubMed / Medline database search to evaluate PET and SPECT imaging of CRCI
- know the limitation(s) of SPECT 99mTc-hexamethyl-propylene-amine oxime (HMPAO) in the assessment of cerebral blood flow
- know the phases of 99mTc HMPAO SPECT used by Véra et al. paper to investigate changes in cerebral blood flow
- know what the SPECT results were correlated with in the Véra et al. paper
- indicate the meaning for the acronym DAT in molecular imaging of DATs through SPEC
- know what molecular imaging of DATs through SPECT has been clinically used to diagnose
- for the study by Vitor et al., know the areas of the brain in which the 99mTc-TRODAT-1 tracer concentration was significantly less in breast cancer patients experiencing CRCI than in healthy controls
- understand the responsiveness to levodopa for patients developing parkinsonism after chemotherapy
- know what the brain uses as its sole source of energy under normal conditions
- recognize the considerations to be made when utilizing 18F-FDG PET imaging of the brain
- understand the reported impact of chemotherapy on brain metabolism in Hodgkin lymphoma as concluded by the authors cited 2015 study for the potential role of 18F-FDG in patients with CRCI
- be familiar with the findings of the Shrot et al. study on 18F-FDG uptake in post-chemotherapy pediatric patients
- understand the reduction of cerebral cortical metabolism after chemotherapy found in a study from Sorokin et al. of patients with non-Hodgkin lymphoma
- understand the reasons for TSPO emerging as a molecular imaging target for inflammation
- understand comparison of patient cohorts in the Schroyen et al. study
- recognize the conclusions drawn by the authors of the article