Doctoral Education
Doctoral studies are closely related to scientific work, and the research activities at the Department of Medical Radiation Physics include projects related to the physics of radiation therapy, nuclear medicine, experimental x-ray imaging and magnetic resonance. Optimization of absorbed dose in connection with cancer therapy is the topic of a number of research studies, and another central scientific area is the mathematics and physics of medical imaging. Environmental radiology, biological effects of radiation and radiation protection for ionizing and non-ionizing radiation are other important fields of scientific interest.
The doctoral education in medical radiation physics consists of doctoral research projects and writing of a PhD thesis (corresponding to 195 ECTS) as well as completion of postgraduate courses (45 ECTS). The courses provide deeper knowledge of topics of relevance to the thesis work, but are also intended to give a broader overview of state-of-the-art science. An introduction to learning and teaching in higher education is also included, as well as research ethics and participation in scientific seminars. Doctoral students are normally expected to take part in undergraduate teaching, and it is also possible to combine doctoral studies with clinical work as a medical physicist.
Doctoral Theses
Internal Dose Assessment Following a Postulated Accident at a Tungsten-Target Spallation Source: Modelling and Assessment of Inhaled Radionuclides
Internal Dose Assessment Following a Postulated Accident at a Tungsten-Target Spallation Source: Modelling and Assessmen...Virtual Trials for Breast Imaging
Virtual Trials for Breast ImagingTomic, H., 2026, Lund: Lund University, Faculty of Medicine. 120 p.Research output: The...Dose-response relationships in neuroendocrine tumours treated with peptide receptor radionuclide therapy
Dose-response relationships in neuroendocrine tumours treated with peptide receptor radionuclide therapyWarfvinge, C. F....Optimising Abdominal Computed Tomography: Radiation Dose, Contrast Media and Image Quality
Optimising Abdominal Computed Tomography: Radiation Dose, Contrast Media and Image QualityAho Fält, T., 2025, Lund: Lund...Quantitative Imaging in Radionuclide Therapy with Lutetium-177: Towards Traceability and Comparability
Quantitative Imaging in Radionuclide Therapy with Lutetium-177: Towards Traceability and ComparabilityJessen, L., 2025, ...Development of machine learning-based analysis and processing tools applied to magnetization transfer MRI: Z-spectral denoising and fitting
Development of machine learning-based analysis and processing tools applied to magnetization transfer MRI: Z-spectral de...Improvements in brain imaging using spectral computed tomography: Development and evaluation of novel techniques
Improvements in brain imaging using spectral computed tomography: Development and evaluation of novel techniquesFransson...Time-dependent diffusion MRI with free gradient waveforms: From theory development to initial applications
Time-dependent diffusion MRI with free gradient waveforms: From theory development to initial applicationsChakwizira, A....MRI-based radiotherapy of brain tumours: Implementing MRI-only radiotherapy and exploring diffusion MRI for response assessment
MRI-based radiotherapy of brain tumours: Implementing MRI-only radiotherapy and exploring diffusion MRI for response ass...From flicker to FLASH: Exploring FLASH and conventional radiotherapy in experimental glioblastoma
From flicker to FLASH: Exploring FLASH and conventional radiotherapy in experimental glioblastomaLiljedahl, E., 2024, Lu...Optimising External Beam Radiotherapy for Prostate Cancer. Advances in Treatment Planning
Optimising External Beam Radiotherapy for Prostate Cancer. Advances in Treatment PlanningJóhannesson, V., 2024, Lund: Lu...Improving breast cancer screening with artificial intelligence
Improving breast cancer screening with artificial intelligenceDahlblom, V., 2024, Lund: Lund University, Faculty of Medi...From Monte Carlo PET Simulations to Reconstructed Images: Modelling and Optimisation for <sup>68</sup>Ga Theragnostics
From Monte Carlo PET Simulations to Reconstructed Images: Modelling and Optimisation for 68Ga TheragnosticsKalaitzidis, ...Motion management optimization in radiotherapy: From the most common to the most uncommon patient
Motion management optimization in radiotherapy: From the most common to the most uncommon patientMannerberg, A., 2023 Oc...Radiotherapy in a FLASH: Towards clinical translation of ultra-high dose rate electron therapy
Radiotherapy in a FLASH: Towards clinical translation of ultra-high dose rate electron therapyKonradsson, E., 2023 May 1...Brain Tumor Imaging and Treatment Effects. Imaging findings and cognitive function in glioblastoma patients.
Brain Tumor Imaging and Treatment Effects. Imaging findings and cognitive function in glioblastoma patients.Rydelius, A....High resolution laboratory x-ray tomography for biomedical research: From design to application
High resolution laboratory x-ray tomography for biomedical research: From design to applicationDreier, T., 2023 Apr 12, ...Dynamic glucose enhanced chemical exchange saturation transfer MRI: Optimization of methodology and characterization of cerebral transport kinetics
Dynamic glucose enhanced chemical exchange saturation transfer MRI: Optimization of methodology and characterization of ...X-ray Phase Contrast Tomography: Setup and Scintillator Development
X-ray Phase Contrast Tomography: Setup and Scintillator DevelopmentDierks, H., 2023, Lund University. 220 p.Research out...Tools for the Advancement of Radiopharmaceutical Therapy
Tools for the Advancement of Radiopharmaceutical TherapyMellhammar, E., 2023, Lund: Lund University, Faculty of Medicine...The Importance of Dosimetry and Radiobiology in Nuclear Medicine: Quantitative methods and modelling
The Importance of Dosimetry and Radiobiology in Nuclear Medicine: Quantitative methods and modellingStenvall, A., 2022 O...Applications of diffusion MRI: Tensor-valued encoding, time-dependent diffusion, and histological validation
Applications of diffusion MRI: Tensor-valued encoding, time-dependent diffusion, and histological validationBrabec, J., ...Imaging of tissue degeneration in knee osteoarthritis using magnetic resonance and synchrotron radiation
Imaging of tissue degeneration in knee osteoarthritis using magnetic resonance and synchrotron radiationEinarsson, E., 2...X-ray and neutron μCT of biomedical samples: from image acquisition to quantification
X-ray and neutron μCT of biomedical samples: from image acquisition to quantificationPeruzzi, N., 2021 Nov 22, Lund: Med...On Quality in Radiotherapy Treatment Plan Optimisation
On Quality in Radiotherapy Treatment Plan OptimisationBenedek, H., 2021, Lunds Universitet/Lunds Tekniska Högskola. 141 ...Gradient echo-based quantitative MRI of human brain at 7T: Mapping of T1, MT saturation and local flip angle
Gradient echo-based quantitative MRI of human brain at 7T: Mapping of T1, MT saturation and local flip angleOlsson, H., ...Probing brain microstructure with multidimensional diffusion MRI: Encoding, interpretation, and the role of exchange
Probing brain microstructure with multidimensional diffusion MRI: Encoding, interpretation, and the role of exchangeLamp...Helical tomotherapy for total marrow and total skin irradiation: Optimisation, verification, and clinical results
Helical tomotherapy for total marrow and total skin irradiation: Optimisation, verification, and clinical results Änghed...Differentiation of Central Nervous System Tumors: Multiparametric magnetic resonance imaging with histological, genetic, and prognostic correlations
Differentiation of Central Nervous System Tumors: Multiparametric magnetic resonance imaging with histological, genetic,...Assessment of mobile radiometry data in radiological emergencies using Bayesian statistical methods
Assessment of mobile radiometry data in radiological emergencies using Bayesian statistical methodsBukartas, A., 2021, L...Contact
Ronnie Wirestam
Director of Doctoral Studies
+46 46 17 71 59
msf_studierektor_FU [at] med [dot] lu [dot] se (msf_studierektor_FU[at]med[dot]lu[dot]se)