DC10 PhD in Biomedical Imaging: Magnetorelaxometry of Nanoparticles in Hyperthermia Research

DC10 PhD in Biomedical Imaging: Magnetorelaxometry of Nanoparticles in Hyperthermia Research

Research cut-off: 6 November 2026
Assessment: Promising with material uncertainties

Quick Decision

DC10 is a research-led doctoral opportunity for applicants with an engineering, biomedical engineering, physics or closely related background who can show experimental ability and Python/programming experience. The project combines magnetorelaxometry imaging (MRXI), magnetic nanoparticles (MNPs), phantom-based measurement work and computational reconstruction. The current official application page gives a deadline of 10 December 2026 and the current official project page still lists DC10, although the supplied position information carries an expired status marker. On the research cut-off date, the saved official call is the stronger evidence of current application availability; check the application portal again before submitting. Application page · DC10 project page

The main research value is a technically specific question: whether the magnetic relaxation signal can report environmental properties around nanoparticles as well as their amount, and how to recover that information through measurements and reconstruction. The named methods include experiment and phantom development, deep learning and physics-informed neural networks. Recent team papers show phantom feasibility, not clinical imaging. The most decision-critical uncertainties are the 1 March 2027 start date in the supplied position information versus the call’s early-February 2027 expectation, the precise employer/doctoral registration route, and access to MRXI equipment. Confirm these before treating the position as administratively settled.

Research Problem and Doctoral Work

What Is Unsolved and Why It Matters

MRXI estimates where magnetic nanoparticles are located by measuring their magnetorelaxation response after magnetization. The project description says the signal contains information about nanoparticle amount and may also reflect the surrounding biological environment, including temperature, binding state and viscosity. This creates a central inference challenge: changes in the measured signal could arise from particle amount, particle state, surrounding conditions or measurement geometry. DC10 proposes to investigate whether these sources can be distinguished well enough for spatial imaging and interpretation. The official project page labels the proposed topics tentative and invites candidates to develop a proposal within the selected project’s scientific scope. DC10 project page

The project’s stated objective is to advance magnetic-nanoparticle-based treatments and possibly support a future imaging modality. This is a prospective research aim. The current evidence reviewed here consists of measurement and phantom feasibility studies; it does not establish clinical deployment, patient benefit or a validated tumour-imaging system.

Work, Methods, and Potential Outputs

The advertised doctoral work has three linked parts: experimental investigation of MRXI signal behaviour; development of measurement procedures and suitable phantoms; and reconstruction approaches, including deep learning or physics-informed neural networks. The project description does not set out a final work-package schedule, benchmark, quantitative performance target or fixed network architecture.

A sensible proposal could ask how to separate concentration-related signal changes from environmental changes, how robust image reconstruction is to geometric uncertainty and sample-state variation, and whether model-informed or data-driven reconstruction is more reliable under the planned measurement conditions. Those are evidence-informed proposal directions, not promised project deliverables. The direct task list and examples of recent phantom work are described on the DC10 page, the earlier IGDT MRXI subproject page, and in recent studies below.

Recent Research and What It Shows

• Schier et al. (2023) introduced a nonlinear MRXI forward model for stronger excitation fields and demonstrated localization and quantification of an immobilized sample in a simple torso-sized feasibility setup. This is relevant to larger-region modelling and inverse reconstruction, but it is not clinical validation. Paper record
• Jaufenthaler et al. (2024) demonstrated reconstruction in a human-head phantom with optically pumped magnetometers. Their simulation identified geometric uncertainty as a major limit on reconstruction quality. The article is a phantom feasibility study; the summary here is limited to its indexed abstract and DOI metadata preserved in the saved materials. Publisher record
• Arsalani et al. (2025) monitored the movement of an MNP bolus in a tube phantom and compared MRXI localization with ground truth. This shows a dynamic phantom setting for evaluating imaging methods, not patient imaging. PubMed record
• Pansegrau et al. (2026) compared MNP immobilization approaches using magnetic particle spectroscopy and magnetorelaxometry. Their work makes phantom preparation and sample-state reproducibility relevant to interpretation, but it is not a protocol for DC10. Open-access article
• Arsalani et al. (2023) studied temperature-dependent magnetorelaxometry across different MNP systems and states, supporting the project’s interest in environmental sensitivity. This summary is limited to the saved DOI and indexed records; the study’s experimental conditions do not prescribe DC10’s methods. PubMed record

Taken together, the papers suggest a field progressing from controlled measurements and phantom reconstruction toward larger geometries and dynamic settings. They also point to modelling, geometry, sample preparation and signal interpretation as practical constraints. The work does not yet establish clinical performance.

School, Programme and Field Context

The named supervisors and programme bring together the University of Innsbruck (UIBK) and the Medical University of Innsbruck (MUI). The project title identifies Biomedical Engineering/Radiology; the supplied position information lists the Office of the Rector in one organisation field and Department of Mechatronics as a work location. The current official call covers research environments at both universities. The legal employer and administrative department for this specific position are not settled by the pages reviewed and should be confirmed in writing.

The UIBK Doctoral Programme in Engineering Sciences is a full-time six-semester, 180-ECTS route awarding Dr. techn. It is taught in German or English and normally requires a relevant master’s/diploma or equivalent; the curriculum allows supplementary examinations where prior subject preparation differs. UIBK’s separate doctoral admission guidance describes registration documents and timing, including rules for non-EEA applicants. The call’s employment selection and doctoral admission are related but distinct steps. Curriculum · Admission guidance

IGNIDTE describes a structured training path of core and elective courses, journal clubs, thematic seminars, medical imaging, AI, MRI and reconstruction, plus statistics, Python, FAIR data and open science. Its training page also describes a career development plan and interdisciplinary supervision. Secondments with academic and non-academic partners are listed as “to be announced”; destinations and timing are therefore not guaranteed. Training

QS lists UIBK at #333 in the QS World University Rankings 2027. That is an overall university rank, not a biomedical engineering, radiology or MRXI subject ranking. UIBK itself notes that ranking systems use different methodologies and need critical interpretation. The university confirms its location in Innsbruck, Austria. QS profile · UIBK ranking guidance · Locations

Career Context

The saved Austrian labour-market material is adjacent rather than role-specific. AMS JobBarometer recorded 3,645 online postings in 2025 across a broad technical-health occupation group, including 287 postings for medical-technology technicians and fewer than 20 for medical physicists; it described the overall group trend for 2026–2028 as stable. Advantage Austria reports 642 medical-technology and laboratory-supply companies and 31,138 employees in 2023, including 10,316 in research, development and manufacturing. These figures describe the broader sector and cannot forecast MRXI or PhD-researcher vacancies. AMS JobBarometer · Advantage Austria sector data

Supervisor and Lab Assessment

Supervisor Research Directions

Daniel Baumgarten is a UIBK Biomedical Engineering professor. His profile covers biomagnetic measurement, biomedical imaging and modelling, inverse problems and bionanomagnetism; his publication list links him to recent MRXI work. Astrid Grams is an MUI professor of neuroradiology, deputy director of the Radiology clinic and head of the Neuroimaging Research Core. She contributes a quantitative imaging and neuroradiology perspective. The DC10 project page names both as supervisors, but it does not specify how supervision is divided. Baumgarten profile · Baumgarten publications · Grams profile

Lab, Resources, and Collaboration Environment

A UIBK IGDT subproject on MRXI ran from 2022 to 2026 under Baumgarten with MUI collaboration. A previous quantMRX project also addressed quantitative MRX/MRXI and reference phantoms. These records support a research lineage, but neither guarantees a continuing facility, funding line or equipment allocation for DC10. IGDT MRXI · quantMRX

Grams’s Neuroimaging Research Core is described as a project-based research 3T MRI facility. This does not establish that DC10 uses MRI, that it will have access to this core, or that any patient or clinical imaging is planned. Ask what MRXI sensors, measurement space, phantom capability, compute resources and technical staff are assigned to the project. Facility page

Funding, Application, and Living Cost

Contract and Dates

The first-call announcement specifies a three-year, 40-hour-per-week doctoral employment contract and a minimum gross salary of €3,776.10 per month, 14 times a year as of 2026, plus applicable allowances and social benefits. UIBK’s staff-pay information confirms the B1/1 starting gross monthly rate for 40 hours. Net salary is not public; the application page says it will be communicated at interview. The position record says the offer starts 1 March 2027, while the official application page expects employment after offer and admission in early February 2027. Ask the programme which date governs the contract. First-call announcement · UIBK salary information

The application page says the first call opened on 1 October 2026 and closes on 10 December 2026. The position information supplies 23:59 Europe/Vienna as the cutoff; the official page confirms the date but not a time in the reviewed text, so verify the portal’s exact cutoff. Shortlisted candidates are expected to interview online between 18 and 31 January 2027; selection is expected to finish by early February. The official programme call says to choose at least one doctoral project, and the DC10 position information asks for a two-page proposal. The DC10 topic is tentative, so the proposal can develop within its scientific scope rather than repeat a fixed project plan. Application instructions and FAQ · Project scope

Eligibility and Submission Preparation

Formal conditions include no prior doctorate, a relevant medical, dentistry, master’s or equivalent degree, the MSCA mobility limit of no more than 12 months living, working or studying in Austria in the 36 months before the deadline, and no permanent employment at the host institution. Candidates may apply before finishing the degree if the final certificate is available before employment starts. The mobility condition is also stated in the European Commission MSCA guidance; the IGNIDTE call is the controlling source for this recruitment. MSCA Financial Guide · REA eligibility overview

The call evaluates qualifications, research experience, motivation and project compatibility, the two-page proposal, English and communication skills, and complementary skills. It asks applicants who use generative-AI tools while preparing application documents to disclose the tools and their contribution. Documents not issued in English need certified English translation; some certificates may need legalization or apostille. The call page says no application fee is required. Check the recruitment portal for the full upload list and whether references or additional documents are needed.

Living-Cost Context

UIBK gives an approximate student budget of €1,200 per month, comprising €450 accommodation, €350 food and €400 study materials/recreation. OeAD cites a national student estimate of about €1,300 per month, including accommodation of €450–700, food around €300 and study/personal needs around €500. These are student estimates, not employee budgets; they do not settle the net salary, actual housing cost or any tuition/ÖH fee applicable to an employed doctoral candidate. UIBK stay guidance · OeAD living costs

Applicant Fit and Preparation

Required Background and Skills

The formal eligibility screen is the no-prior-doctorate, relevant-degree, mobility and host-employment conditions above. Separately, the position description seeks a strong engineering background and experimental and Python skills. It names electrical engineering, biomedical engineering, mechatronics, physics or a comparable field as ideal preparation and lists magnetic field sensing, signal processing, inverse problems, medical imaging, MNPs and hyperthermia as areas where experience in at least one is useful. The official project page recommends related engineering, physics, computer science or imaging backgrounds; these are profile signals rather than additional formal eligibility rules.

Preferred Experience and Suggested Preparation

A useful application would connect prior project work to measurement quality, inverse reconstruction or magnetic sensing; explain how Python or other programming has been used; and show comfort moving between engineering and imaging questions. A two-page proposal should name a tractable question within the tentative DC10 scope and state how experiments, phantoms and reconstruction could be related. These suggestions do not add admission requirements beyond the call.

Next Actions and Questions to Verify

Before Applying

• Recheck that DC10 remains available in the official portal and confirm the 10 December 2026 cutoff time and time zone.
• Check the 12-in-36-month Austria mobility calculation and obtain the required degree or expected-completion documents.
• Confirm the complete portal upload list, document translations/legalization requirements, and the two-page proposal format.
• Clarify whether the application’s stated project preference should be selected as DC10 even if the proposal refines its topic.

At Interview

• Ask which institution is the legal employer, what doctoral curriculum and department apply, and whether the role is administered through UIBK or MUI.
• Confirm whether early February 2027 or 1 March 2027 is the expected contractual start date.
• Ask about the supervision split, MRXI measurement equipment, phantom facilities, compute resources, success criteria and project boundaries.
• Ask how training, career planning and the yet-to-be-announced secondments will work for this position.

Before Accepting an Offer

• Obtain written confirmation of the employer, contract start, gross salary schedule, estimated net salary, allowances and benefits.
• Confirm doctoral registration, fee/ÖH obligations and any supplementary coursework.
• Verify access to the facilities and technical support needed for the stated experimental and reconstruction work.

Evidence and Sources

Official call and project

• IGNIDTE Apply
• IGNIDTE DC10 project page
• IGNIDTE Training
• IGNIDTE first-call announcement

School, supervisors and programme

• Daniel Baumgarten — University of Innsbruck
• Daniel Baumgarten publications
• Astrid Grams — Medical University of Innsbruck
• Doctoral Programme Engineering Sciences (2026W)
• University of Innsbruck doctoral admission
• University of Innsbruck ranking guidance
• QS World University Rankings 2027 — University of Innsbruck
• University of Innsbruck locations and directions

Research evidence and facilities

• IGDT MRXI subproject — University of Innsbruck
• quantMRX — UMIT TIROL
• Schier et al. (2023), nonlinear MRXI feasibility
• Jaufenthaler et al. (2024), human-head MRXI feasibility
• Arsalani et al. (2025), dynamic MNP phantom MRXI
• Pansegrau et al. (2026), MNP immobilization comparison
• Arsalani et al. (2023), temperature-dependent MRX
• Neuroimaging Research Core Facility

Funding, eligibility and living costs

• University of Innsbruck student cost guidance
• OeAD living costs
• University of Innsbruck scientific-staff pay scales
• European Commission Horizon Europe MSCA Financial Guide
• European Research Executive Agency MSCA eligibility

Career and sector context

• AMS JobBarometer: technical-health professions
• Advantage Austria medtech sector facts and figures
• Statistics Austria job-vacancy statistics