Literature DB >> 24269792

Quantitative dosimetry for yttrium-90 radionuclide therapy: tumor dose predicts fluorodeoxyglucose positron emission tomography response in hepatic metastatic melanoma.

Bree R Eaton1, Hyun S Kim2, Eduard Schreibmann3, David M Schuster4, James R Galt5, Bruce Barron4, Sungjin Kim6, Yuan Liu6, Jerome Landry3, Tim Fox3.   

Abstract

PURPOSE: To assess a new method for generating patient-specific volumetric dose calculations and analyze the relationship between tumor dose and positron emission tomography (PET) response after radioembolization of hepatic melanoma metastases. METHODS AND MATERIALS: Yttrium-90 ((90)Y) bremsstrahlung single photon emission computed tomography (SPECT)/computed tomography (CT) acquired after (90)Y radioembolization was convolved with published (90)Y Monte Carlo estimated dose deposition kernels to create a three-dimensional dose distribution. Dose-volume histograms were calculated for tumor volumes manually defined from magnetic resonance imaging or PET/CT imaging. Tumor response was assessed by absolute reduction in maximum standardized uptake value (SUV(max)) and total lesion glycolysis (TLG).
RESULTS: Seven patients with 30 tumors treated with (90)Y for hepatic metastatic melanoma with available (90)Y SPECT/CT and PET/CT before and after treatment were identified for analysis. The median (range) for minimum, mean, and maximum dose per tumor volume was 16.9 Gy (5.7-43.5 Gy), 28.6 Gy (13.8-65.6 Gy) and 36.6 Gy (20-124 Gy), respectively. Response was assessed by fluorodeoxyglucose PET/CT at a median time after treatment of 2.8 months (range, 1.2-7.9 months). Mean tumor dose (P = .03) and the percentage of tumor volume receiving ≥ 50 Gy (P < .01) significantly predicted for decrease in tumor SUV(max), whereas maximum tumor dose predicted for decrease in tumor TLG (P < .01).
CONCLUSIONS: Volumetric dose calculations showed a statistically significant association with metabolic tumor response. The significant dose-response relationship points to the clinical utility of patient-specific absorbed dose calculations for radionuclide therapy.
© 2014 SIR Published by SIR All rights reserved.

Entities:  

Keywords:  (90)Y; (99m)Tc-MAA; CC; DVH; EORTC; European Organization for Research and Treatment of Cancer; HCC; PMR; SD; SUV(max); TLG; V; correlation coefficient; dose-volume histogram; hepatocellular carcinoma; maximum standardized uptake value; partial metabolic response; standard deviation; technetium-99m-macroaggregated albumin; total lesion glycolysis; volume (eg, V10); yttrium-90

Mesh:

Substances:

Year:  2013        PMID: 24269792     DOI: 10.1016/j.jvir.2013.08.021

Source DB:  PubMed          Journal:  J Vasc Interv Radiol        ISSN: 1051-0443            Impact factor:   3.464


  11 in total

1.  Role of nanoparticles in transarterial radioembolization with glass microspheres.

Authors:  Asra Sadat Talebi; Hossein Rajabi; Hiroshi Watabe
Journal:  Ann Nucl Med       Date:  2022-02-23       Impact factor: 2.258

2.  Semi-Quantitative Analysis of Post-Transarterial Radioembolization (90)Y Microsphere Positron Emission Tomography Combined with Computed Tomography (PET/CT) Images in Advanced Liver Malignancy: Comparison With (99m)Tc Macroaggregated Albumin (MAA) Single Photon Emission Computed Tomography (SPECT).

Authors:  Seunghong Rhee; Sungeun Kim; Jaehyuk Cho; Jukyung Park; Jae Seon Eo; Soyeon Park; Eunsub Lee; Yun Hwan Kim; Jae-Gol Choe
Journal:  Nucl Med Mol Imaging       Date:  2015-09-14

Review 3.  Theranostic Imaging of Yttrium-90.

Authors:  Chadwick L Wright; Jun Zhang; Michael F Tweedle; Michael V Knopp; Nathan C Hall
Journal:  Biomed Res Int       Date:  2015-05-28       Impact factor: 3.411

Review 4.  Hepatic radioembolization as a bridge to liver surgery.

Authors:  Arthur J A T Braat; Julia E Huijbregts; I Quintus Molenaar; Inne H M Borel Rinkes; Maurice A A J van den Bosch; Marnix G E H Lam
Journal:  Front Oncol       Date:  2014-07-30       Impact factor: 6.244

5.  Inter-comparison of quantitative imaging of lutetium-177 (177Lu) in European hospitals.

Authors:  Jill Wevrett; Andrew Fenwick; James Scuffham; Lena Johansson; Jonathan Gear; Susanne Schlögl; Marcel Segbers; Katarina Sjögreen-Gleisner; Pavel Solný; Michael Lassmann; Jill Tipping; Andrew Nisbet
Journal:  EJNMMI Phys       Date:  2018-08-02

6.  Biodistribution, pharmacokinetics, and organ-level dosimetry for 188Re-AHDD-Lipiodol radioembolization based on quantitative post-treatment SPECT/CT scans.

Authors:  Pedro L Esquinas; Ajit Shinto; Koramadai K Kamaleshwaran; Jephy Joseph; Anna Celler
Journal:  EJNMMI Phys       Date:  2018-12-07

7.  Verification Study of Residual Activity Measurements After Yttrium-90 Radioembolization with Glass Microspheres.

Authors:  S C Ebbers; B Kunnen; B J van Nierop; J L M Bemelmans; G C Krijger; M G E H Lam; A J A T Braat
Journal:  Cardiovasc Intervent Radiol       Date:  2020-05-20       Impact factor: 2.740

8.  Multi institutional quantitative phantom study of yttrium-90 PET in PET/MRI: the MR-QUEST study.

Authors:  Nichole M Maughan; Mootaz Eldib; David Faul; Maurizio Conti; Mattijs Elschot; Karin Knešaurek; Francesca Leek; David Townsend; Frank P DiFilippo; Kimberly Jackson; Stephan G Nekolla; Mathias Lukas; Michael Tapner; Parag J Parikh; Richard Laforest
Journal:  EJNMMI Phys       Date:  2018-04-04

Review 9.  The physics of radioembolization.

Authors:  Remco Bastiaannet; S Cheenu Kappadath; Britt Kunnen; Arthur J A T Braat; Marnix G E H Lam; Hugo W A M de Jong
Journal:  EJNMMI Phys       Date:  2018-11-02

10.  SPECT/CT image-based dosimetry for Yttrium-90 radionuclide therapy: Application to treatment response.

Authors:  Peter S Potrebko; Ravi Shridhar; Matthew C Biagioli; William F Sensakovic; George Andl; Jan Poleszczuk; Timothy H Fox
Journal:  J Appl Clin Med Phys       Date:  2018-07-01       Impact factor: 2.102

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