Chemistry

Aarhus Campus, Aarhus, Denmark

Official Website

Shortlist

# =162QS Subject Rankings

48 monthsProgramme duration

80,000 DKKTuition Fee/year

ChemistryMain Subject Area

Shortlist

Programme overview

Main Subject

Chemistry

Degree

PhD

Study Level

PHD

Study Mode

On Campus

The Department of Chemistry at the University of Aarhus offers research and training opportunities in analytical chemistry, inorganic chemistry, NMR spectroscopy, organic chemistry, physical chemistry, and theoretical chemistry.

Research in analytical chemistry is focused on investigation of trace compounds mainly in environmental matrices.

The primary field of inorganic chemistry research is the study and development of materials ranging from biological materials to functional materials. The work focuses on changes occurring on the nanoscale and the materials studied are used for e.g. hydrogen storage, thermoelectric elements, catalysts etc.. The studies encompass solid state synthesis, including experimental design of reactors, various analysis techniques including X-ray diffraction and other physico-chemical characterization method.

The research in NMR spectroscopy focuses on development of experimental and theoretical methods in solid- and liquid-state NMR spectroscopy with applications to chemistry, materials science research, and structure and dynamics of biological macromolecules with relevance for molecular biology, drug development, and nanoscience.

The research in organic chemistry is organized around the following areas: Organo-catalyzed reactions; organic surface chemistry focusing on modification of surfaces using organic molecules to create coatings and materials with controllable properties; organic nanochemistry using DNA as a programmable tool for building nanoarchitectures and functional structures from molecules and materials; synthetic organic chemistry, focusing on key reactions in the synthesis of a variety of bioactive compounds including studies of the mechanisms of electron transfer of various transition metal complexes and the design of artificial enzyme systems.

Physical chemistry research is divided into four areas: 1) Ultrafast laser spectroscopy of chemical reaction dynamics, development of fiber lasers and supercontinuum sources, and laser control and manipulation of molecules and mesoscopic particles. 2) Oxygen microscopy and imaging focusing on developing tools and methods to create dynamic (singlet) oxygen-based images of heterogeneous samples that range from industrially important polymers to biological cells. 3) Physical chemistry of soft condensed matter focusing on studies of the structure and thermodynamics of polymers, block copolymers, and surfactants in solution, 4) physical chemistry in the atmosphere of Earth including aerosol particles and their influence on air quality, cloud formation and climate.

Theoretical chemistry research includes: 1) Biomodelling, focusing on using computational methods for understanding biochemical processes with respect to ligand binding, dynamical properties and reaction mechanisms, 2) Computational chemistry focusing on developing future force fields methods to be used in applications (reactions, protein dynamics, docking etc.) or influence in biomolecular recognition and 3) Quantum chemistry focusing on the theoretical development of the description of structure and properties of large molecular systems on the basis of quantum mechanics.

Programme overview

Main Subject

Chemistry

Degree

PhD

Study Level

PHD

Study Mode

On Campus

Research in analytical chemistry is focused on investigation of trace compounds mainly in environmental matrices.

The primary field of inorganic chemistry research is the study and development of materials ranging from biological materials to functional materials. The work focuses on changes occurring on the nanoscale and the materials studied are used for e.g. hydrogen storage, thermoelectric elements, catalysts etc.. The studies encompass solid state synthesis, including experimental design of reactors, various analysis techniques including X-ray diffraction and other physico-chemical characterization method.

The research in NMR spectroscopy focuses on development of experimental and theoretical methods in solid- and liquid-state NMR spectroscopy with applications to chemistry, materials science research, and structure and dynamics of biological macromolecules with relevance for molecular biology, drug development, and nanoscience.

The research in organic chemistry is organized around the following areas: Organo-catalyzed reactions; organic surface chemistry focusing on modification of surfaces using organic molecules to create coatings and materials with controllable properties; organic nanochemistry using DNA as a programmable tool for building nanoarchitectures and functional structures from molecules and materials; synthetic organic chemistry, focusing on key reactions in the synthesis of a variety of bioactive compounds including studies of the mechanisms of electron transfer of various transition metal complexes and the design of artificial enzyme systems.

Physical chemistry research is divided into four areas: 1) Ultrafast laser spectroscopy of chemical reaction dynamics, development of fiber lasers and supercontinuum sources, and laser control and manipulation of molecules and mesoscopic particles. 2) Oxygen microscopy and imaging focusing on developing tools and methods to create dynamic (singlet) oxygen-based images of heterogeneous samples that range from industrially important polymers to biological cells. 3) Physical chemistry of soft condensed matter focusing on studies of the structure and thermodynamics of polymers, block copolymers, and surfactants in solution, 4) physical chemistry in the atmosphere of Earth including aerosol particles and their influence on air quality, cloud formation and climate.

Theoretical chemistry research includes: 1) Biomodelling, focusing on using computational methods for understanding biochemical processes with respect to ligand binding, dynamical properties and reaction mechanisms, 2) Computational chemistry focusing on developing future force fields methods to be used in applications (reactions, protein dynamics, docking etc.) or influence in biomolecular recognition and 3) Quantum chemistry focusing on the theoretical development of the description of structure and properties of large molecular systems on the basis of quantum mechanics.

Admission Requirements

Cambridge CAE Advanced

180+

TOEFL

83+

IELTS

6.5+

Program Duration

4 Years

Starting Month(s)

Sep

Candidates are required to submit references or letter(s) of recommendation for acceptance

Tuition fees

Domestic

Starts from

80,000 DKK

International

Starts from

80,000 DKK

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