Sign up with

Already have an account? Log in here

Need some help?
Talk to us at +91 7670800001

Advancement of computational dosimetry for complex radiation fields at centredtud

, , Belgium -

Full Time

Start Date

Immediate

Expiry Date

03 Jan, 26

Salary

0.0

Posted On

05 Oct, 25

Experience

2 year(s) or above

Remote Job

Yes

Telecommute

Yes

Sponsor Visa

Skills

Computational Dosimetry, Radiation Safety, 3D Motion Tracking, Dose Calculations, AI Integration, Quality Control, Staff Tracking, Personalized Dosimetry

Industry

Research Services

Description

Online dosimetry is an innovative approach aimed at improving radiation dose assessment for occupationally exposed workers. Traditional methods rely on dosimeters, which face limitations in complex radiation fields. Online dosimetry seeks to overcome these challenges by integrating 3D motion tracking systems with dose calculations for real-time dose assessment. Online dosimetry offers several advantages over conventional dosimetry. It allows direct effective dose assessment, providing more accurate radiation detriment evaluation. Incorporation of computational phantoms tailored to individual characteristics can further enhance the precision and enable personalized dosimetry. Furthermore, AI-driven visualizations of radiation exposure could improve training and ALARA (As Low As Reasonably Achievable) strategies, enhancing radiation safety. The goal of this project is to to make computational methods ready for official dosimetry, specifically for neutron, high energy and pulsed fields. Despite its potential, practical implementation remains challenging. There is a need for an improved and advanced mapping of the dose rates, inclusion of quality control and better staff tracking and identification. The integration of artificial intelligence (AI) in all these aspects is also included in this proposal. This project involves an industrial partner. This is crucial for translating research into practical applications. It facilitates large-scale testing, and supports transition from theoretical frameworks to commercially viable solutions. An industrial partner can also drive regulatory compliance, standardization, and market adoption, ultimately ensuring that online dosimetry becomes a reliable and widely implemented radiation protection tool.

Responsibilities

The project aims to advance computational methods for online dosimetry, focusing on neutron, high energy, and pulsed fields. It involves collaboration with an industrial partner to facilitate practical applications and regulatory compliance.