Matching Items (994)
Filtering by
- All Subjects: Materials Science
- All Subjects: Creative Project
Description
A student-run theatre company would give students more opportunities to perform. as well as opportunities to direct, design, and produce something that is not usually available to us. The main goal of the topic is to create a student-run theatre company that would be able to support three to four minimal, low budget productions each year that are directed, designed, and performed by the students. These productions could be works that are new or out of the mainstream, one-act operas or musicals, works written or composed by our own students, or even standard repertoire. Productions could be minimal, with the focus being on direction and performances, or fully executed with lighting, sets, and costumes designed by the students. Whatever the format, the goal is to provide students with more opportunities in music theatre and opera. There are several components to this project. The first component is forming the student organization \u2014 the theatre company. While forming a student theatre company allows for more creativity and room to try different things, we must also figure out how to operate within the limits of a campus club. The second component is producing a show. To get a taste what our club would eventually be doing, the committee is essentially' producing a show with the guidance of Lyric Opera Theatre faculty. The third component is writing the actual thesis and preparing for my defense. Because this project is not a traditional research project, the end result will be more than a thesis paper. I hope to be able to show that Basement Collaborative has developed into an organization that will be able to sustain past my time here at ASU.
ContributorsZheng, Shuwen (Author) / Reber, William (Thesis director) / Dreyfoos, Dale (Committee member) / Harper, Robert (Committee member) / Barrett, The Honors College (Contributor)
Created2015-05
Description
The creative project titled “Culture and Business: Exploring the Etiquette Behind a Chinese Business Meal” focused on defining what is proper dining etiquette targeted at doing business with China. Through the use of 10 informational interviews with seasoned professionals who have experience working overseas in China, this project explored the key aspects of building relationships over a meal. Furthermore, online research was taken into account in order to provide a more up-to-date and well-rounded view. Trends that were discovered across categories include seating arrangements, gift giving, conversation topics, drinking culture, gender roles, and the actual act of eating. The goal of this project was to create an infographic and short video with the intention of educating American business students who are interested in working in China. It was found through the study that many Chinese professionals find the rules of business dining etiquette to be common sense. With globalization making developing relationships between American and Chinese businesses more accessible, providing established descriptions of how to properly conduct a business meal is essential to rising American professionals in order to ensure success in closing the business deal with their Chinese counterparts.
ContributorsLe, Athena (Co-author) / Ponce-Moreno, Jazmin (Co-author) / Hom, Peter (Thesis director) / Schoenfeld, Robert (Committee member) / Dean, W.P. Carey School of Business (Contributor) / Department of Finance (Contributor) / Department of Information Systems (Contributor) / School of International Letters and Cultures (Contributor) / Barrett, The Honors College (Contributor)
Created2020-05
Description
Hyperspectral imaging is a novel technology which allows for the collection of reflectance spectra of a sample in-situ and at a distance. A rapidly developing technology, hyperspectral imaging has been of particular interest in the field of art characterization, authentication, and conservation as it avoids the pitfalls of traditional characterization techniques and allows for the rapid and wide collection of data never before possible. It is hypothesized that by combining the power of hyperspectral imaging with machine learning, a new framework for the in-situ and automated characterization and authentication of artworks can be developed. This project, using the CMYK set of inks, began the preliminary development of such a framework. It was found that hyperspectral imaging and machine learning as a combination show significant potential as an avenue for art authentication, though further progress and research is needed to match the reliability of status quo techniques.
ContributorsChowdhury, Tanzil Aziz (Author) / Newman, Nathan (Thesis director) / Tongay, Sefaattin (Committee member) / School of Politics and Global Studies (Contributor) / Materials Science and Engineering Program (Contributor) / Barrett, The Honors College (Contributor)
Created2020-05
Description
The purpose of this project is to use powerful visual storytelling techniques to convey a social need and an effective solution. Guatemala is a third world country, where poverty is widespread and the birth rate is high. Among the most economically and educationally disadvantaged are the Mayan women. Arizona nun, Sister Marife Hellman, recognized the needs of this population and founded a school to serve them. Hellman's mission is to provide a quality education to those underserved, so they can become positive leaders in their native communities. The website and video materials produced for this thesis are meant to be used for fundraising purposes on behalf of the school. All funds raised will help Hellman's alumni launch schools in their native areas, giving access to education that has long been nonexistent. Watch the mini-documentary here: www.youtube.com/watch?v=LxTiuwQCH44&t=17s.
ContributorsLaduke, Sierra Dawn (Author) / Craft, John (Thesis director) / Mork, Nick (Committee member) / Walter Cronkite School of Journalism and Mass Communication (Contributor) / School of Community Resources and Development (Contributor) / Barrett, The Honors College (Contributor)
Created2018-05
Description
African American females must endure the distinct intersection of anti-black racism and misogyny, or misogynoir, which persists through the perpetuation of stereotypical images. The endurance of these controlling images adversely impacts young black girls in unique ways that often go unnoticed. Black and Pink: The Intersection of Blackness and Girlhood in America examines the historical origins of misogynoir in America and its continued impact on modern black girls using the lens of bell hooks' literature. This includes how black females are masculinized, sexualized, and impacted by Eurocentric beauty standards in America. and These themes are further explored through a series of watercolor paintings, inspired by hooks' memoir, Bone Black.
ContributorsHayman, Adanna Michelle (Author) / Kim, Linda (Thesis director) / Meders, Jacob (Committee member) / School of Humanities, Arts, and Cultural Studies (Contributor) / Barrett, The Honors College (Contributor)
Created2018-05
DescriptionFresh15 is an iOS application geared towards helping college students eat healthier. This is based on a user's preferences of price range, food restrictions, and favorite ingredients. Our application also considers the fact that students may have to order their ingredients online since they don't have access to transportation.
ContributorsBailey, Reece (Co-author) / Fallah-Adl, Sarah (Co-author) / Meuth, Ryan (Thesis director) / McDaniel, Troy (Committee member) / Computer Science and Engineering Program (Contributor) / Barrett, The Honors College (Contributor)
Created2018-05
Description
The story of graphene truly began in what was simply a stub in the journal Physical Review not two years after the end of World War II. In 1947, McGill University physicist P.R. Wallace authored “The Band Theory of Graphite” and attempted to develop a foundation on which the structure-property relationship of graphite could be explored; he calculates the number of free electrons and conductivity of what he describes as “a single hexagonal layer” and “suppos[es] that conduction takes place only in layers” in bulk graphite to predict wave functions, energies at specific atomic sites in the hexagonal lattice, and energy contours using a tight binding approximation for a hypothesized version of what we now call ‘armchair-style’ graphene. While Wallace was the first to explore the band structure and Brillouin Zones of single-layer graphite, the concept of two-dimensional materials was not new. In fact, for years, it was dismissed as a thermodynamic impossibility.
Everything seemed poised against any proposed physical and experimental stability of a structure like graphene. “Thermodynamically impossible”– a not uncommon shutdown to proposed novel physical or chemical concepts– was once used to describe the entire field of proposed two-dimensional crystals functioning separately from a three-dimensional base or crystalline structure. Rudolf Peierls and Lev Davoidovich Landau, both very accomplished physicists respectively known for the Manhattan Project and for developing a mathematical theory of helium superfluidity, rejected the possibility of isolated monolayer to few-layered crystal lattices. Their reasoning was that diverging thermodynamic-based crystal lattice fluctuations would render the material unstable regardless of controlled temperature. This logic is flawed, but not necessarily inaccurate– diamond, for instance, is thermodynamically metastable at room temperature and pressure in that there exists a slow (i.e. slow on the scale of millions of years) but continuous transformation to graphite. However, this logic was used to support an explanation of thermodynamic impossibility that was provided for graphene’s lack of isolation as late as 1979 by Cornell solid-state physicist Nathaniel David Mermin. These physicists’ claims had clear and consistent grounding in experimental data: as thin films become thinner, there exists a trend of a decreasing melting temperature and increasing instability that renders the films into islands at somewhere around ten to twenty atomic layers. This is driven by the thermodynamically-favorable minimization of surface energy.
Everything seemed poised against any proposed physical and experimental stability of a structure like graphene. “Thermodynamically impossible”– a not uncommon shutdown to proposed novel physical or chemical concepts– was once used to describe the entire field of proposed two-dimensional crystals functioning separately from a three-dimensional base or crystalline structure. Rudolf Peierls and Lev Davoidovich Landau, both very accomplished physicists respectively known for the Manhattan Project and for developing a mathematical theory of helium superfluidity, rejected the possibility of isolated monolayer to few-layered crystal lattices. Their reasoning was that diverging thermodynamic-based crystal lattice fluctuations would render the material unstable regardless of controlled temperature. This logic is flawed, but not necessarily inaccurate– diamond, for instance, is thermodynamically metastable at room temperature and pressure in that there exists a slow (i.e. slow on the scale of millions of years) but continuous transformation to graphite. However, this logic was used to support an explanation of thermodynamic impossibility that was provided for graphene’s lack of isolation as late as 1979 by Cornell solid-state physicist Nathaniel David Mermin. These physicists’ claims had clear and consistent grounding in experimental data: as thin films become thinner, there exists a trend of a decreasing melting temperature and increasing instability that renders the films into islands at somewhere around ten to twenty atomic layers. This is driven by the thermodynamically-favorable minimization of surface energy.
ContributorsShulman, Neal Arthur (Author) / Adams, James (Thesis director) / Islam, Rafiqul (Committee member) / Materials Science and Engineering Program (Contributor) / Barrett, The Honors College (Contributor)
Created2018-05
Description
A creative project detailing the representation of Asian Americans in Sports Media. I interviewed 6 Asian American sports journalists across the US talking about their journey into the media world. They also talked about the representation of AAPI's in their market and how that affects them and their community as a whole.
ContributorsOza, Rishi (Author) / Woods, Shemar (Thesis director) / Hawken, Denise (Committee member) / Barrett, The Honors College (Contributor) / Walter Cronkite School of Journalism and Mass Comm (Contributor) / Department of Marketing (Contributor)
Created2024-05
Description
Transition metal dichalcogenides (TMDs) are a family of layered crystals with the chemical formula MX2 (M = W, Nb, Mo, Ta and X = S, Se, Te). These TMDs exhibit many fascinating optical and electronic properties making them strong candidates for high-end electronics, optoelectronic application, and spintronics. The layered structure of TMDs allows the crystal to be mechanically exfoliated to a monolayer limit, where bulk-scale properties no longer apply and quantum effects arise, including an indirect-to-direct bandgap transition. Controllably tuning the electronic properties of TMDs like WSe2 is therefore a highly attractive prospect achieved by substitutionally doping the metal atoms to enable n- and p-type doping at various concentrations, which can ultimately lead to more effective electronic devices due to increased charge carriers, faster transmission times and possibly new electronic and optical properties to be probed. WSe2 is expected to exhibit the largest spin splitting size and spin-orbit coupling, which leads to exciting potential applications in spintronics over its similar TMD counterparts, which can be controlled through electrical doping. Unfortunately, the well-established doping technique of ion implantation is unable to preserve the crystal quality leading to a major roadblock for the electronics applications of tungsten diselenide. Synthesizing WSe2 via chemical vapor transport (CVT) and flux method have been previously established, but controllable p-type (niobium) doping WSe2 in low concentrations ranges (<1 at %) by CVT methods requires further experimentation and study. This work studies the chemical vapor transport synthesis of doped-TMD W1-xNbxSe2 through characterization techniques of X-ray Diffraction, Scanning Electron Microscopy, Energy Dispersive X-ray Spectroscopy, and X-ray Photoelectron Spectroscopy techniques. In this work, it is observed that excess selenium transport does not enhance the controllability of niobium doping in WSe2, and that tellurium tetrachloride (TeCl4) transport has several barriers in successfully incorporating niobium into WSe2.
ContributorsRuddick, Hayley (Author) / Tongay, Sefaattin (Thesis director) / Jiao, Yang (Committee member) / Barrett, The Honors College (Contributor) / Materials Science and Engineering Program (Contributor)
Created2024-05
DescriptionThis is a reflection on Michael Frayn's Copenhagen, a theatrical experiment. It explores how directing affects the audience's experience of the text. It metaphorically correlates quantum theory and theatre in the round.
ContributorsBen Ezer, Shy-Lee (Author) / Partlan, William (Thesis director) / Chamberlin, Ralph (Committee member) / Gharavi, Lance (Committee member) / Barrett, The Honors College (Contributor) / Department of English (Contributor) / Computer Science and Engineering Program (Contributor) / School of Music, Dance and Theatre (Contributor)
Created2024-05