Nuclear Medicine & Radiation Therapy

Aim: The aim of the study is to assess the measures of quality of life (QoL), symptoms, and overall performance status of brain metastases patients and record the acute side effects of whole brain radiation therapy.

Methods: A prospective observational study was performed on brain metastases patients who are diagnosed using a brain CT scan or MRI receiving WBRT. The quality of life and symptoms are assessed by using QLQ C-30 and BN-20 questionnaires, and performance status is assessed by using ECOG and recorded acute side effects during the whole brain radiation therapy.

Results: The patient’s quality of life and symptoms are collected through the EORTC QLQ C-30 and QLQ BN-20 questionaries. Wilcoxon signedranks test was used to examine the differences in baseline and follow-up measures, at the level of significance (alpha) p-value < 0.05 considered statistically significant. In C-30 majority of scales have not resulted in significant improvement at the 1-month of follow-up except for nausea and vomiting and constipation. In BN-20 only headache, seizures, and drowsiness resulted in significant improvement at the 1-month follow-up.

Conclusion: Overall, there is no significant improvement in patients in the majority of QLQc30- and BN-20 scale items and the performance status of patients after whole brain radiation therapy. Along with these other factors like extracranial disease burden also can have an effect on the patient’s condition. So, there is a need for further advancements in the treatment of patients with brain metastases for the betterment of care in the future.

The diagnosis and treatment of disease make use of radioisotopes of a wide variety of elements, the majority of which are metals, in nuclear medicine. A chelator that effectively forms thermodynamically and kinetically stable complexes with the metal ions' radioisotopes, or radiometals, is necessary for these applications. Additionally, the chelator attaches to a biological targeting vector to locate diseased tissues. While numerous chelators that are suitable for small radiometals have been developed, chelators that are effective for large radiometals are much less common. In this Report, we discuss recent developments in the development of ligands for the chelation of large radiometals, which have potential applications in nuclear medicine.

The diagnosis and treatment of disease make use of radioisotopes of a wide variety of elements, the majority of which are metals, in nuclear medicine. A chelator that effectively forms thermodynamically and kinetically stable complexes with the metal ions' radioisotopes, or radiometals, is necessary for these applications. Additionally, the chelator attaches to a biological targeting vector to locate diseased tissues. While numerous chelators that are suitable for small radiometals have been developed, chelators that are effective for large radiometals are much less common. In this Report, we discuss recent developments in the development of ligands for the chelation of large radiometals, which have potential applications in nuclear medicine.