PhD THESIS TOPICS AND MATERIALS IN GEOLOGY
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PhD THESIS TOPICS AND MATERIALS IN GEOLOGY
- – Sulphur compounds in deep groundwater in the shale formation of the Liminka area
- – Suolaiset kalliopohjavedet ja niiden alkuperä /Characterization and the origin of saline groundwater in bedrock (F, E)
- – Physical and chemical heterogeneity on waste rocks watering in a real scale pile (E)
Mine waste modeling, Comsol software
- – Environmental effects of drilling chemicals in deep bedrock drilling hole/
- – Groundwater recharge estimation in Finland
- – Groundwater – surface water interaction in mining environments (F, E)
- – Natural geochemical and isotopic tracers in hydrogeology (F, E)
- – Quaternary history of Lauhavuori
- – Glacier erosion in the hard bed zones of Finland Lake District Ice Stream Lobe (F, E)
- – Prediction of geochemical evolution of water and gas during lab scale multibarrier bioreactor test (F, E)
- – Climatic drivers of the global human distribution during the Last Glacial Maximum (F, E)
- – Climate change and gaps in human occupation history in the Levant between 300ka and 40ka (F, E)
- – Patterns of European palaeoclimate in the Holocene and Eemian interglacial periods
- – Age and origin of the mysterious crinoid limestones from Åland
- – Spatial distribution and clustering of benthic skeletal organisms in a shallow marine limestone on Vormsi Island, Estonia
- – Peatland dynamics-climate feedbacks
- – Origin and stability of the surface landforms on a raised bog in Valkmusa national park, eastern Finland (involves fieldwork in Finland)
- – Using charcoal piece analysis for fire history reconstruction in the boreal coniferous forest (involves fieldwork in Finland)
- – A novel approach for vegetation biomass reconstructions using pollen data from a lake sediment core from southern Finland (involves fieldwork in Finland)
- – Quantifying the rate of temperature change in Europe during the rapid climate changes of the late-glacial period (no fieldwork)
- – Spatio-temporal climate reconstructions using new lipid biomarker methods (no fieldwork)
- – Holocene Thermal Maximum as an analogue for the predicted future warming in Finland
- – Developing digital standards for topographic methods to analyse fossils
- – Identifying the Pleistocene hypercarnivorous canids based on carnassial morphometrics –
- – A palaeo-diet study using angle-based mesowear of fossil mammals from X (details to be agreed on)
- – An ecometric analysis of fossil mammals from Y (details to be agreed on)
- – The fossil rhinoceros remains from Orce, early Pleistocene of Andalucia, Spain
- – The fossil rhinoceros remains from OBUU, Western Mongolia – taxonomic and palaeoenvironmental context
- – Trace element characterization of titanite in the Kumpula drill core
- – Trace element characterisation of chromites from mafic-ultramafic lithologies
- – The chemical evolution of olivine xenocrysts in Heard Island samples, Australia
- – Platinum group elements in Antarctic norite samples
- – The evolution of Cr-spinel hosted melt inclusions in 2Ga Finnish komatiite samples
Description: Major, trace element and PGE geochemistry of Cr-spinels and major and trace element geochemistry of melt inclusions, ± including volatiles
- – Thermodynamic constraints for assimilation in basaltic and picritic magmas
- – “Provide your own igneous petrology subject for which you would use Magma Chamber Simulator or MELTS modeling tools”
- – Petrology of mantle xenoliths from Southern African kimberlites (Oleg von Knorring collection)
- – Geochemical fingerprinting of gold deposits in Ostrobothia Gold Camp, Finland
- – Distribution of cobalt and tungsten in Kopsa Au-deposit, Ostrobothnia, Finland
- – Geochemistry of moss – new tool for mineral exploration under cover
- – Chemical and stable isotope composition of ground waters from 1800-metres-deep drill hole at Kevitsa mine, Northern Finland
- – Green Mining: Distribution of gold and cobalt in the tailings of historical Haveri gold mine, Ylöjärvi, southern Finland
- – Petrology/mineralogy/geochemistry topic on Kuusamo Deep Drill Hole
- – Topic on Ni-Cu-PGE exploration in Northern Finland (TBD)
- – Geochemistry, mineralogy and petrogenesis of the Leppävirta “hornblende gneisses” (F, E)
- – Petrology and mineral chemistry of the 2.1 Ga Tanhua mafic intrusion, Savukoski, Lapland (F, E)
- – Heat and mass transfer in coaxial drill hole casings for geothermal energy applications
- – Inverse solution of conductive heat transfer in 3D anisotropic medium: Heating experiment in an underground research laboratory
- – Hydrothermally altered mineralized systems: Seismic reflection properties of rocks
- – Effect of geological structure on rock stress: a modelling approach (using Matlab and Coulomb software)
- – Cosmogenic isotopes in age dating of glacial bedrock morphology
- – Interpretation of fission track age data in the 2.5 km deep Outokumpu drill hole
- – Hydraulic properties of crystalline rocks: Injection tests in deep boreholes
- – Prediction of permafrost evolution under warming climate: a modelling approach
- – Processing and analysis of seismic reflection data from exploration and mining camps
- – Thermal properties of meteorites
- – Inversion of subsurface drill hole temperature profiles for ground surface temperature history (combination of geothermal data analysis and glaciation dynamics)
- – Induced seismicity in enhanced geothermal systems
- – Geoneutrinos and radiogenic heat production of the Earth
- – Fracture orientation analysis of the Outokumpu deep drill hole with acoustic televiewer data
- – Low temperature thermochronology Fission track & (U-Th)/He methods
- – Modeling of thermochronological data
- – Study of microscopic shock effects in meteorites – insight into collision history of asteroids
- – Use of artificial intelligence in characterization of asteroid spectra to derive their mineral composition
- – Development of hyperspectral imager calibration procedure for ESA Hera mission
- – Cretaceous-Paleogene mass extinction. Environmental magnetic study on carbonate sequence recording the K-T transition (Brazil)
- – Seismicity and tectonothermal environment of the Wiborg rapakivi batholith
- – Geophysical properties of the Pyhäsalmi area
- – Applicability of Open quake software to Finnish conditions
- – Automatic assessment of seismic intensity for felt earthquakes in Finland
- – Harmonization of internet macroseismology in Fennoscandia
- – Projects associated with the analysis of seismic data collected by 100+ stations around the 2018 and 2020 geothermal reservoir stimulations in Otaniemi/Espoo
- – Projects associated with crustal and fault zone monitoring and imaging using ambient noise correlations
- – Magnitude-yield relationships for underwater explosions
- – Detection and identification of glacier based seismic signals in Antarctica using unsupervised machine learning
- – Automatic detection of seismic events in urban areas, comparison of methods
- – Seismic signal onset estimation by combining different methods and machine learning
- – Study of dissimilarities of microearthquakes in concise earthquake populations with self-organizing maps
- – Ablative subduction in the Andes: An alternative mechanism for removal of mantle lithosphere?
- – Quantifying rates of bedrock landsliding in mountainous regions and their implications for landscape erosion
- – Effects of orographic precipitation on mountain evolution in 3D
- – Where does landslide-derived sediment go and how long does it take?
- – Mapping erosion in steep mountain landscapes using detrital thermochronology
- – Paleoproterozoic plateaus: Implications for lithospheric evolution and crustal metamorphism
- – Application of probabilistic seismic event location software, with a focus on the impact of station geometry and station position uncertainty on location uncertainty
- – Quantitative interpretation of geophysical data from Sakatti Ni-Cu-PGE deposit for aiding hydrogeological 3D modelling (for mine planning)
- – Comparison of results of anisotropy of magnetic susceptibility (AMS), anisotropy of remanent magnetization (ARM) and micro tomography
- – Comparison of IP results measured with MAFRIP (frequency domain) and SCIP (time domain)
- – Factors affecting the measuring results of seismic p-wave velocities in the laboratory
- – Re-processing and 3D modelling of reflection seismic data of HIRE formations
- – Use of reflection seismic data to model near surface layers and structures in the groundwater area
- – Testing of different migration algorithms in the last stages of processing reflection seismic data
- – Theoretical modelling of seismic response of geological structures of interest
- – Can airborne TEM data observe conductors better than GTK’s airborne data?
- – Joint use of seismics, petrophysics and AMS in studies of a Ni-Cu-PGE ore
- – Analysis of airborne national magnetic data
- – Usage of machine learning for petrophysical and geochemical analysis
- – Joint interpretation of airborne and ground EM data from the Outokumpu area
- – Anisotropy (if any) and characterization of flake graphites vs uneconomic/impure graphites + implications for geophysical exploration
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