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Showing result 1 - 5 of 356 swedish dissertations matching the above criteria.
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1. The consequences of DNA lesions for mitochondrial DNA maintenance
Abstract : Eukaryotic cells have their own energy-producing organelles called mitochondria. The energy is stored in the adenosine triphosphate (ATP) molecule and is produced via the oxidative phosphorylation process inside the mitochondria. Thirteen of the essential proteins required for this process are encoded on the mitochondrial DNA (mtDNA). READ MORE
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2. Ribonucleotides in DNA - Application in genome-wide DNA polymerase tracking and physiological role in eukaryotes
Abstract : The genetic code in the eukaryotic cell is stored in the form of DNA, which is more resistant to hydrolysis than RNA. Replication fidelity and DNA repair mechanisms are in place to ensure genomic integrity to preserve the information encoded. READ MORE
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3. Structure of eukaryotic DNA polymerase epsilon and lesion bypass capability
Abstract : To transfer the information in the genome from mother cell to daughter cell, the DNA replication must be carried out only once and with very high fidelity prior to every cell division. In yeast there are several different DNA polymerases involved in DNA replication and/or DNA repair. READ MORE
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4. Redefining the essential molecular aspects that drive interactions between small molecules and G-quadruplex DNA
Abstract : G-Quadruplex (G4) structures are secondary nucleic acid structures located in guanine-rich regions of DNA and RNA sequences, involved in gene regulation and cellular maintenance. Efforts to target G4s in a therapeutic setting are scarce, mainly due to vague details about the binding interactions between the ligands and the G4 structure combined with the lack of emphasis on drug-like properties early in the ligand development process. READ MORE
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5. Fixation of Functionalized DNA Nanostructures
Abstract : This thesis features results from two different studies on a fully addressable non-repetitive network on the nanometre scale, assembled by synthetic DNA molecules. A bio-inspired molecular approach, based on principles of self-assembly, has brought about a paradigm shift in nanoscience, from a top-down to a bottom-up perspective. READ MORE