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UCB-6B36-B-20-2-15913-Mandible
Mesolithic mandible UCB-6B36-B-20-2-15913 from Sudan; curated in the collections at the University of Colorado at Boulder. Data were collected with a Creaform GoSCAN20.
Many thanks to Dr. Dennis Van Gerven and the University of Colorado at Boulder for the requisite permissions and access needed to scan this collection
UCB-6B36-B-32-2-15924-Mandible
Mesolithic mandible UCB-6B36-B-24-1-15924 from Sudan; curated in the collections at the University of Colorado at Boulder. Data were collected with a Creaform GoSCAN20.
Many thanks to Dr. Dennis Van Gerven and the University of Colorado at Boulder for the requisite permissions and access needed to scan this collection
The Collection of Egyptian Antiquities in the National Archaeological Museum and the Athens Mummy Project
The National Archaeological Museum was founded in 1829 and it was the first one of the Hellenic state after the successful revolution of 1821 against the Ottoman rule. At the beginning it was placed in Aegina, the first capital of Greece. When Athens became the official capital of Greece in 1834, the National Archaeological Museum was transferred there as well. In 1866, after the donation of the land by E. Tositsas and the financing of Benardakis family, the construction of the present building began and in 1889, the Museum was ready to welcome its public. Among the various antiquity collections, the Museum had the chance to acquire through donations a considerable amount of Egyptian Antiquities that cover all periods of ancient Egyptian civilization, thus creating an Egyptian Collection which is one of the most fascinating and enchanting of the Museum
UCB-6B36-B-25-2-15918-Mandible
Mesolithic mandible UCB-6B36-B-24-1-15918 from Sudan; curated in the collections at the University of Colorado at Boulder. Data were collected with a Creaform GoSCAN20.
Many thanks to Dr. Dennis Van Gerven and the University of Colorado at Boulder for the requisite permissions and access needed to scan this collection
UCB-6B36-B-24-1-15917-Mandible
Mesolithic mandible UCB-6B36-B-24-1-15917 from Sudan; curated in the collections at the University of Colorado at Boulder. Data were collected with a Creaform GoSCAN20.
Many thanks to Dr. Dennis Van Gerven and the University of Colorado at Boulder for the requisite permissions and access needed to scan this collection
UCB-R175-Cranium
Cranium UCB-R175 from Sudan; curated in the collections at the University of Colorado at Boulder. Data were collected with a Creaform GoSCAN20.
Many thanks to Dr. Dennis Van Gerven and the University of Colorado at Boulder for the requisite permissions and access needed to scan this collection
UCB-6B36-B34-2-15925-Mandible
Mesolithic mandible UCB-6B36-B-24-1-15925 from Sudan; curated in the collections at the University of Colorado at Boulder. Data were collected with a Creaform GoSCAN20.
Many thanks to Dr. Dennis Van Gerven and the University of Colorado at Boulder for the requisite permissions and access needed to scan this collection
Bioinformatic and Machine Learning Methods to Decipher OncomiR Biology in Carcinogenesis: Supplemental Material
<p>Supplemental material for doctoral dissertation: Bioinformatic and Machine Learning Methods to Decipher OncomiR Biology in Carcinogenesis</p>
Dataset of "Liquid-Jet Photoemission Spectroscopy as a Structural Tool: Site-Specific Acid-Base Chemistry of Vitamin C"
<p>Liquid-jet photoemission spectroscopy (LJ-PES) directly probes the electronic structure of solutes<br>and solvents. It also emerges as a novel tool to explore chemical structure in aqueous solutions, yet<br>the scope of the approach has to be examined. Here, we present a pH-dependent liquid-jet photoelectron<br>spectroscopic investigation of ascorbic acid (vitamin C). We combine core-level photoelectron<br>spectroscopy and ab initio calculations, allowing us to site-specifically explore the acid-base chemistry<br>of the biomolecule. For the first time, we demonstrate the capability of the method to simultaneously<br>assign two deprotonation sites within the molecule. We show that a large change in chemical shift<br>appears even for atoms distant several bonds from the chemically modified group. Furthermore, we<br>present a highly efficient and accurate computational protocol based on a single structure using the<br>maximum overlap method for modeling core-level photoelectron spectra in aqueous environments.<br>This work poses a broader question: To what extent can LJ-PES complement established structural<br>techniques such as nuclear magnetic resonance? Answering this question is highly relevant in view<br>of the large number of incorrect molecular structures published.</p>