Expertise / evidence dossier
From geometry and boundary conditions to numerical checks and physical interpretation: compressible flow, conjugate heat transfer and thermal systems.
ANSYS Fluent · SpaceClaim · k-omega SST · Python · Fortran
7 projects · 3 related roles · 13 courses
Relevant work from the public portfolio, with each case study listed once.
Seven months embedded at Siemens Energy Finspång conducting compressible CFD/CHT, high-temperature instrumentation and root-cause analysis for the Pulsatorn dynamic pressure sensor calibration rig.
ANSYS Fluent · CFD/CHT · k-omega SST · NI-DAQ · LabVIEW · Siemens NX
How do radiation approximations affect calculated heat transfer? Published-data fixtures, a discrete-ordinates solver and scientific regression tests. Original work and third-party source retain distinct provenance.
Python · NumPy · SciPy
Python assignments covering catastrophic cancellation, numerical differentiation, Laplace stencils, Euler vs RK4 and advection scheme comparison.
Python · Finite difference · RK4 · Advection schemes
How do degradation and thermal transients affect a gas turbine? A Make-built educational simulator checked against hand calculations, an analytical transient and repeatable sensor-noise tests. Not commercial-engine validation.
Fortran 2008 · Python · Win32/GDI+
Thermal energy storage concept work for peak shaving and district cooling, comparing phase-change and ice-storage options with control and pricing logic.
Python · TES · Phase Change Materials · Thermal Analysis
Latent-heat mobile thermal energy storage lab characterising RT60 HC discharge behaviour, measurement interpretation and thermal-response trends.
PCM · Thermal lab · Data analysis
Compressor-free refrigeration concept based on Peltier cooling with no rotary power-consuming component.
Thermoelectric cooling · Temperature sensing · Prototype design · Design report
Professional experience, internships and relevant student responsibilities are labelled separately.
Seven months embedded at Siemens Energy Finspang in the Fluid Dynamic Lab. Conducted numerical investigation of steady-state thermo-fluid performance of a reducer geometry for a high-temperature dynamic pressure sensor calibration rig (Pulsatorn). Built compressible CFD and conjugate heat transfer models in ANSYS Fluent (k-omega SST), conducted three-level mesh independence study, and applied Biot number analysis to decompose thermal performance. Identified flow-regime asymmetry between geometry variants (Ma 0.990 near-choked vs Ma 1.006 supersonic vena contracta). Also commissioned NI-DAQ measurement chains, modified LabVIEW VIs, ran independent test campaigns at up to 700 C, and conducted a formal root cause analysis of a heater failure resulting in an approved project scope revision. Used Siemens NX and Teamcenter PLM2020 throughout. Supervisor: Prof. Jens Fridh, KTH. Thesis: TRITA-ITM-EX 2026:14.
ANSYS Fluent · NI-DAQ · LabVIEW · Siemens NX · Teamcenter PLM2020 · Conjugate Heat Transfer · Compressible CFD · Root Cause Analysis
Contributed to KTH plastic pyrolysis research by reviewing reactor concepts and cost-analysis drivers for oil extraction from polymer waste, supporting early-stage technical and economic feasibility evaluation.
Industrial exposure to automation, hydraulics and pneumatics.
Master’s programme in heat and power, energy systems and numerical methods. Thesis completed; 115 hp recorded in the May 2026 transcript.
Mechanical engineering foundation with coursework, design competitions and the final-year interactive robot project.
Training records support the work above; they are not substitutes for project evidence. Issuer links are not credential-verification links.
No directly related certification is currently listed. The coursework and project evidence above are the relevant record.
Numerical investigation of the high-temperature reducer, with the documented experimental limitations.
Experimental–numerical questions, methods and proposed directions; not completed research claims.
The Siemens thesis is a numerical investigation with measurement-chain commissioning. Heater failure limited sustained high-temperature comparison; the work does not establish full experimental validation. Independent thermal models retain their own verification limits.
This dossier groups related public records. It does not imply equal depth across every tool or independent validation of every result. Source case studies remain authoritative; restricted inputs and private documents are not included.
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