Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Estimating proton beam therapy utilization and Investment in Thailand

View through CrossRef
BackgroundThailand’s first Proton Beam Therapy (PBT) center became operational in August 2021. Given the high costs and specialized expertise required, evaluating the clinical and economic implications of PBT and planning for its expansion are essential for Thailand’s healthcare system.MethodsThis study projected national PBT demand using data from the Thai PBT center, the Thai Association of Radiation Oncology (THASTRO), national cancer registry reports (Volumes VIII–X), and GLOBOCAN (2022–2040). The number of cancer patients requiring PBT was estimated based on: (1) Thailand’s Comptroller General’s Department (CGD) reimbursement guidelines (June 2023), and (2) the American Society for Radiation Oncology (ASTRO) model policy. Infrastructure, personnel, and cost data were collected, with resource gaps assessed using RRCC version 24.ResultsBetween 2022 and 2023, the first PBT center treated 628 patients—approximately 7% of all radiotherapy cases. Under CGD’s limited reimbursement criteria, an estimated 1,454–2,797 patients per year would be eligible for PBT, corresponding to a need for 3–5 PBT units. However, when reimbursement constraints are excluded, this estimate increases to 6–10 units. The ASTRO model suggests even broader eligibility, with 4,471–5,430 patients requiring 10–20 units. The cost of a basic PBT unit is estimated at USD $30 million (excluding building infrastructure), with a treatment course costing approximately $38,000 (RRCC v.24).ConclusionThe gap between reimbursement- and need-based demand highlights the tension between clinical benefit and cost. Strategic planning must balance equitable access, financial sustainability, and future growth of PBT in Thailand.
Title: Estimating proton beam therapy utilization and Investment in Thailand
Description:
BackgroundThailand’s first Proton Beam Therapy (PBT) center became operational in August 2021.
Given the high costs and specialized expertise required, evaluating the clinical and economic implications of PBT and planning for its expansion are essential for Thailand’s healthcare system.
MethodsThis study projected national PBT demand using data from the Thai PBT center, the Thai Association of Radiation Oncology (THASTRO), national cancer registry reports (Volumes VIII–X), and GLOBOCAN (2022–2040).
The number of cancer patients requiring PBT was estimated based on: (1) Thailand’s Comptroller General’s Department (CGD) reimbursement guidelines (June 2023), and (2) the American Society for Radiation Oncology (ASTRO) model policy.
Infrastructure, personnel, and cost data were collected, with resource gaps assessed using RRCC version 24.
ResultsBetween 2022 and 2023, the first PBT center treated 628 patients—approximately 7% of all radiotherapy cases.
Under CGD’s limited reimbursement criteria, an estimated 1,454–2,797 patients per year would be eligible for PBT, corresponding to a need for 3–5 PBT units.
However, when reimbursement constraints are excluded, this estimate increases to 6–10 units.
The ASTRO model suggests even broader eligibility, with 4,471–5,430 patients requiring 10–20 units.
The cost of a basic PBT unit is estimated at USD $30 million (excluding building infrastructure), with a treatment course costing approximately $38,000 (RRCC v.
24).
ConclusionThe gap between reimbursement- and need-based demand highlights the tension between clinical benefit and cost.
Strategic planning must balance equitable access, financial sustainability, and future growth of PBT in Thailand.

Related Results

SU‐E‐T‐47: A Monte Carlo Model of a Spot Scanning Proton Beam Based On a Synchrotron Proton Therapy Accelerator
SU‐E‐T‐47: A Monte Carlo Model of a Spot Scanning Proton Beam Based On a Synchrotron Proton Therapy Accelerator
Purpose:To build the model of a spot scanning proton beam for the dose calculation of a synchrotron proton therapy accelerator, which is capable of accelerating protons from 50 up ...
Investing: The Concept and Classification of Schemes with Legal Significance
Investing: The Concept and Classification of Schemes with Legal Significance
Introduction: the theme of investment and investing invisibly but tangibly accompanies a person in modern life. The desire to increase their funds is becoming an urgent need of the...
ACTUAL ISSUES OF ASSESSMENT OF THE INVESTMENT ENVIRONMENT
ACTUAL ISSUES OF ASSESSMENT OF THE INVESTMENT ENVIRONMENT
One of the most important factors of the sustainable and safe development of the national economy is the availability of investment resources in the economy, the establishment of a...
Acknowledgement to Reviewers of Maritime Technology and Research in 2024-2025
Acknowledgement to Reviewers of Maritime Technology and Research in 2024-2025
The editorial team greatly appreciates the reviewers who have dedicated their considerable time and expertise to the journal’s rigorous peer review process in 2024-2025, regardless...
SU‐E‐T‐470: Beam Performance of the Radiance 330 Proton Therapy System
SU‐E‐T‐470: Beam Performance of the Radiance 330 Proton Therapy System
Purpose:The ProTom Radiance 330 proton radiotherapy system is a fully functional, compact proton radiotherapy system that provides advanced proton delivery capabilities. It support...
Benchmarking a GATE/Geant4 Monte Carlo model for proton beams in magnetic fields
Benchmarking a GATE/Geant4 Monte Carlo model for proton beams in magnetic fields
PurposeMagnetic resonance guidance in proton therapy (MRPT) is expected to improve its current performance. The combination of magnetic fields with clinical proton beam lines poses...
E-Survey: Current Status of Proton Beam Therapy in USA
E-Survey: Current Status of Proton Beam Therapy in USA
The clinical use of Proton Beam Therapy (PBT) in the management of cancer is increasing worldwide. USA has high number of proton therapy centres and this number is growing with new...
Intense-Proton-Beam Transport through an Insulator Beam Guide
Intense-Proton-Beam Transport through an Insulator Beam Guide
In this paper we study intense-proton-beam transport through an insulator guide. In our previous papers [Jpn. J. Appl. Phys. 34 (1995) L520, Jpn. J. Appl. Phys. 35 (1996) L112...

Back to Top