Architecture

Authors: Jalynn Lunceford. Mentors: Crystal Koenig, Arianna Harrington. Insitution: Southern Utah University. At Southern Utah University, the Anthropology and Mammalogy Teaching Collections were widespread and disorganized. The Anthropology Teaching Collection had not been curated yet, and only a binder of handwritten records from 2005 existed for Mammalogy. Mammalogy had over 70 specimens exhibiting dry rot, unsealed taxidermy was found to be leaking onto storage trays, and various skeletal specimens were in severely fragile states. When tasked with organizing these collections, my main goal was to create a better inventory and curation system for easier access to teaching materials and increase interdepartmental resource-sharing. Over 600 recorded hours, I created separate websites for each collection to display photos of available specimens, and specimens were inventoried using a taxonomic-based numerical barcoding system. Their housing system was reorganized and improved where possible. Over 100 specimens were cataloged in Anthropology; the majority were additive-manufactured primates with no real human remains. In Mammalogy, 1,296 specimens were cataloged; over 700 were skeletal remains and the remaining 500 were taxidermy, with one surprise discovery of undocumented human remains. The human remains were sent to the State Forensic Examiner and was determined to be a poorly prepared anatomical specimen. This project allowed me to prevent further damage to the Mammalogy specimens by effectively removing rotting and highly damaged specimens, and treating for moths. Lost materials were rediscovered, including the first known primate to the collections. Now, professors and students can effectively navigate and locate teaching/learning resources from the databases and websites I created, and better anticipate future collection needs.

Authors: Brandie Statham, Rebekah Hakala. Mentors: Todd Spencer. Insitution: Utah Valley University. The link between attachment style and sexual intercourse frequency is critical in determining an individual's sexual satisfaction in a romantic relationship. Secure, anxious, avoidant, and disordered attachment types all have a substantial impact on how people approach sexual intimacy (Mark, Vowels, & Murray, 2018). Individuals who are securely attached tend to have better levels of sexual satisfaction because they can openly communicate their desires and needs, creating a positive and supportive sexual environment. Anxiously connected people, on the other hand, may experience swings in sexual satisfaction as a result of their reliance on sexual connection for reassurance. Individuals who prioritize physical proximity over emotional intimacy may have difficulty forming deep emotional relationships, affecting their overall sexual satisfaction. Disorganized attachment patterns can result in complex and occasionally contradictory experiences (Mark, Vowels, & Murray, 2018).. They may want both closeness and distance, which can create confusion. This attachment style's unpredictability can have an impact on both frequency and satisfaction.The purpose of the present study is to examine the relationship among attachment styles and sexual satisfaction, and sexual frequency. Our sample consists of 411 married individuals. Participants completed The Relationship Questionnaire (RQ; Bartholomew & Horowitz, 1991), Sexual Frequency, and Sexual Satisfaction Index (CSI-4; Funk & Rogge, 2000). Results of the one way Anova were significant F (3,407) = 8.21, p=<.001. There was a significant difference in levels of sexual satisfaction among attachment styles. Secure attachment (M=32.95, SD = 8.23), fearful attachment (M=29.40, SD = 9.80), preoccupied (M=29.54, SD = 9.82), and dismissing (M = 30.77, SD = 9.97). Results of the Bonferroni Post-hoc analysis indicated a significantly higher levels of couple satisfaction than fearful and dismissing attachment styles (p.<.001). There was no significant difference in the amount of frequency of sex and attachment style. Results provide empirical support that secure attachment styles tend to be beneficial for sexual satisfaction despite having no statistical difference in sexual frequency.

Authors: Dallin Zollinger, Lauren Brooks. Mentors: Lauren Brooks. Insitution: Utah Valley University. Antibiotics are one of the most important inventions in recent history, saving countless lives. However, their use has also caused antibiotic resistance to increase in frequency among bacterial populations at an astonishing rate. This increase in frequency will influence our treatment of infections worldwide since previous treatments will no longer be effective, causing many deaths that would once have been preventable. Streptogramins are a class of antibiotics used to treat infections which bacteria have evolved resistance to. This study was focused on the vatA gene, which encodes resistance to streptogramins in Staphylococcus aureus. Samples were collected from various areas on the Utah Valley University campus, the DNA was extracted, and polymerase chain reaction (PCR) specific to the vatA gene was performed. Gel electrophoresis was then performed to visualize the amplicons generated from the PCR to evaluate the presence or absence of the vatA gene. Through this work, we have identified locations where this gene is found.

Authors: Sydney Holt, Mikaela Cowles. Mentors: Joe Jensen. Insitution: Utah Valley University. We are using Surface Brightness Fluctuations (SBF) to measure distances to giant elliptical galaxies using the Hubble Space Telescope (HST) and James Webb Space Telescope (JWST). These distance measurements will be used to better define the Hubble Constant, and hopefully help resolve the Hubble tension crisis in cosmology. Part of SBF requires a knowledge of the colors of the galaxies to be studied in order to account for variations in age and composition of the stars contained within. To this end, we are using PanSTARRS and DECam data to determine the optical g-z color (464 nm-900 nm) values for galaxies from the Virgo and Fornax clusters out to 300 million light years.

Authors: Isaac Settle, Easton Gray, Bonnie Anderson. Mentors: Bonnie Anderson. Insitution: Utah Valley University. Study of mode transitions with an artificially-blown clarinet Isaac Settle, Easton Gray, and Bonnie AndersenAbstractWhile playing the clarinet one might experience what is called a squeak or grunt note. A squeak note is a note that is in a higher register without any change of the keys being pressed. Similarly, a grunt note is a lower shifted note with the same circumstances. Both tend to be undesirable while playing, but often happen when learning how to play the clarinet. A similar occurrence of tonal differences can be controlled intentionally when advanced students enacting the technique called voicing to play the instrument in different registers. This research studied the physical parameters that cause squeak and grunt notes. An airtight box was built to hold the mouthpiece of the clarinet and attached to an air compressor. The effects on mode transitions between registers based on air pressure and where contact is applied on specific parts of the reed of the clarinet were studied. Additionally, a laser vibrometer was used to compare reed vibrations to that of the pitch of the clarinet. This data can help clarinet students as they learn the technique of voicing.

Authors: John Walton, Mason Astill, Jarrett Nelson. Mentors: Dustin Shipp. Insitution: Utah Valley University. Our research group is working to create a meta analysis of the variables that affect the efficiency of eddy current braking systems. We are making a track to accelerate marbles made from different non-ferromagnetic materials down an incline, through a photogate to get its initial velocity, then through a solenoid. We are testing several metals for the marbles and solenoids driven by alternating current with different frequencies. The marble after passing through the solenoid will have its new velocity recorded, allowing us to determine the deceleration experienced by the marble.

Authors: Sarah Adams, Bailey Bennion, Sara S Rocks. Mentors: Sara S Rocks. Insitution: Utah Valley University. The abundance of microplastics within Earth’s environment is of great concern to public health. Heavy toxic metals like lead and mercury concentrate on the surfaces of microplastics, and can readily enter the biosphere. This poses a risk to humans and other forms of life because of the large amount of microplastics that have been found in even the most remote locations on Earth. Not much has been studied about the origins and presence of microplastics in Utah snow. It would be beneficial to study microplastics in snow because, once the snow melts in the spring, it is a substantial source of water for Utah and communities in the American West. Preliminary data indicates increased concentrations of microplastics in snow samples that originated from ski resorts compared to snow samples in areas with little recreation. The current project further investigates the origins and quantity of microplastics in the snow at the Sundance ski resort. Snow samples from the Sundance ski resort and from a remote location with little human activity are compared. Additionally, the number of microplastics at Sundance between natural and artificial snow samples are compared to see if the plastic components within snowmaking machines generate a greater amount of microplastics in the snow. To investigate if snowboards and skis can release plastics, microplastics in fresh snow are quantified before and after snowboard contact. Because microplastics can also be shed from clothing, researchers also examined samples for fibers generated from winter garments. This project aims to shed light on the sources and number of microplastics in Utah snow, especially the effects of skiing and snowboarding.

Authors: Grant Cole, Vitaliy Walker, Daniel Adams, Nathan Twitchell, Melissa Lee, Jennifer Mortensen, Brittney Stockholm, Tatiana LeRoy. Mentors: Claudia Jorgensen. Insitution: Utah Valley University. When exposed to stressful situations, the human nervous system reacts with the fight or flight response activation. Physiological indicators of the activation of the fight or flight response include a change in body temperature, increased heart rate, blood pressure, and sweating (Sriram et.al, 2012). There is mounting evidence implicating stress as physiologically and psychologically harmful. For example, recent research has found a correlation between chronic exposure to stress and the development of mental illnesses such as anxiety and depression. Furthermore, chronic stress has the potential to change the anatomy of the brain along the hypothalamic pituitary adrenal axis (HPA), which is an important part of the neuroendocrine system, plays a role in the release of stress hormones, and helps regulate moods, emotions, and sexual behaviorisms (Ramirez, et.al., 2013). As college can be quite stressful, developing healthy coping mechanisms to deal with stress might positively influence the students’ academic performance and it might improve and maintain their psychological and physiological well-being (Skowronek, 2014). Various research studies have been conducted to reveal the therapeutic qualities of music. Music can effectively relieve nervousness, promote mental health, and positively affect students' psychological state (Chi, 2020). Current research on stress-related outcomes shows that music interventions play a significant role in stress reduction on physiological levels (de Witte et. al, 2020).  Preliminary results indicated that physiological responses (including heart rate, electrodermal skin response, and body temperature) to a mathematical calculation task were not impacted by the type of background noise (control, calm music, or upbeat music). Therefore, the current study is while being exposed to various music genre types (Kirschbaum et al., 1993). We hypothesize that calmer music might reduce stress response, while faster and more upbeat music might increase the stress response. The study will employ a between-subject measures design. After obtaining the baseline physiological measures when no music is played, the participant will either be exposed to two segments of relaxation/mediation music or two segments of fast-beat music. While exposed to different music conditions, the physiological response will be used to compare the impact of music genre (calm meditation music versus techno music) as well as practice (music segment 1 versus music segment 2) on the human stress response. Findings on the effects of music manipulation on the human nervous system can be used as additional tools for the management of stress.

Authors: Minh Nguyen, Eugene Leung. Mentors: Ming Yu. Insitution: Utah Valley University. A rapid, non-invasive method of disease detection method is vital for diagnosis or prevention. Many recent studies suggest that biomarker proteins that are associated with certain diseases were often found in urine samples of the patient. Quantum dots (QDs), a type of nanomaterial, have been investigated in previous studies, revealing their fast response in fluorescent properties when interacting with biomarker proteins. In this study, we examined the impact of QDs’ fluorescent properties in complex solutions by utilizing various concentrations of artificial urine samples. The results of this study provide insight into the possibility of using QDs as an alternative method of disease detection.

Authors: Vince Rossi, Spencer Brown. Mentors: Vince Rossi. Insitution: Utah Valley University. Current systems of generating 3D fluorescent images of samples require scanning of a sample or multiple exposures to acquire a series of images. Collecting a 3D fluorescent image in these fashions is timely, ranging from minutes to tens of minutes. This is not ideal for imaging live, dynamic samples that change as time progresses. The use of holographic techniques allows for the collection of a 3D image on the scale of milliseconds, therefore negating motion artifacts. Combining the speed of digital holography with fluorescent imaging will allow for identification of labeled biological components within a sample as well as the ability to view the sample in a 3D space thus offering greater detail and information on the sample. This process is called Holographically Informed Fluorescence Imaging (HIFI). Simulations have been run using MatLab in which a sample is imaged using Phase Shifting Digital Holography. The 3D reconstruction of the image is propagated using Huygens Convolution Method, and then all of the pixels of the image are brought into focus numerically. This image is then overlayed with the fluorescence image obtained. Each pixel of the fluorescent image is propagated to the depth of focus for each pixel within the 3D holographic image and a 3D fluorescent image is obtained. Simulations of this process have proved successful. A proof of principle experiment is currently underway as to prove the effectiveness of this fluorescent imaging method.

Authors: Sadie Jensen, Nellie Bowman, Nick Jeffery, Heather Wilson Ashworth. Mentors: Heather Ashworth. Insitution: Utah Valley University. The STEM career field has been found to be particularly unwelcoming to women and minorities resulting in attrition of these demographics in STEM degrees and careers.2 To address this problem, the National Science Foundation awarded Utah Valley University a grant to fund undergraduate research opportunities with faculty. This preliminary research project explores the effect of mentored undergraduate research opportunities on student retention and success in the UVU Biology Department. Each year for the last 4 years, 10 students were accepted each year into a research cohort. The following factors are known indicators of student success and retention in the STEM fields: self-efficacy1, effort control4, and teacher immediacy3. These factors were qualitatively measured with reflection questions. Students were surveyed at the end of each academic semester. There are two completed cohorts and data is still being collected on the remaining two cohorts. A coding scheme was developed, and reflection questions were coded to consensus. The Pearson's coefficient was greater than 0.76. The preliminary coding results show themes of positive or very positive effects of the research experience on self-efficacy, effort control, and teacher immediacy. The greatest gains were observed in self-efficacy and teacher immediacy. This preliminary data supports the role of undergraduate research in retaining women and minorities in STEM majors. Sources: Kalender, Z. Y., Marshman, E., Schunn, C. D., Nokes-Malach, T. J., & Singh, C. (2020). Damage caused by women’s lower self-efficacy on physics learning. Physical Review Physics Education Research, 16(1). https://doi.org/10.1103/physrevphyseducres.16.010118 White, J. L., & Massiha, G. H. (2016). The retention of women in Science, Technology, engineering, and Mathematics: A framework for persistence. International Journal of Evaluation and Research in Education (IJERE), 5(1), 1. https://doi.org/10.11591/ijere.v5i1.4515 Micari, M., & Pazos, P. (2012). Connecting to the professor: Impact of the student–faculty relationship in a highly challenging course. College Teaching, 60(2), 41-47. Pintrich, P. R., & De Groot, E. V. (1990). Motivational and self-regulated learning components of classroom academic performance. Journal of educational psychology, 82(1), 33.

Authors: Lauren Ford, Joel Woolley, Ryan Powers, Paulina Medellin, Hillary Wadsworth, Jordan Yorgason. Mentors: Jordan Yorgason. Insitution: Brigham Young University. Women prescribed psychostimulants have self-reported changes in drug efficacy that coincide with menstrual cycling. Furthermore, cocaine and amphetamine effects on dopamine (DA) transmission are more potent in female rodents, an effect that has been linked to cycling hormone levels. However, it is unknown if changes to DA transmission vary by specific psychostimulant, and striatal DA transmission has not yet been well characterized across the estrous cycle. The present study considers dopamine release and reuptake kinetics across various stages of the estrous cycle in the nucleus accumbens (NAc), a key region for dopamine-mediated learning. The effects of cocaine, methamphetamine, and methylphenidate on female dopamine transmission are examined using slice voltammetry. Our data shows that compared to a male control group, baseline (pre-drug) dopamine release in the NAc was lower in females overall, but not at all estrous stages. Applying increasing concentrations of cocaine or methylphenidate revealed similar patterns of enhanced, then diminished release in all mice. Methamphetamine decreased NAc dopamine release similarly in both males and females, but females in estrus were more affected than males, and those in met/diestrus less. Methamphetamine also slowed dopamine uptake in all mice, and at lower concentrations than cocaine or methylphenidate. We find minimal sex differences between cocaine and methylphenidate effects in the NAc, suggesting that the underlying cause of their observed behavioral sex differences may be specific to other striatal regions. On the other hand, methamphetamine-induced DA release fluctuates distinctly with the estrous cycle and peaks when estrogen levels are at their highest, indicating that estrogen and methamphetamine mechanisms share a target in NAc DA terminals that cocaine and methylphenidate do not. This work refines our understanding of DA transmission in females and indicates potential future directions for understanding female psychostimulant abuse.

Authors: Mohamed Askar, Matthew Roberts, Jeremy Matney, Andrew Larsen, Edwin Cansaya Sanchez. Mentors: Mohamed Askar, Matthew Roberts. Insitution: Southern Utah University. Stormwater infrastructures in the U.S. are aging and deteriorating, with most municipalities historically treating stormwater runoff or drainage problems during an emergency or structural failure. What if we could address such issues before they became problematic? Our main objective is to help decision-makers deal effectively with long-term control measures of the budget-limited, ambiguous, and inconsistently applied operation and maintenance of stormwater infrastructures. To this end, an innovative Five-Dimensional Assessment Model (5D-SAM) for the operation and maintenance of stormwater control measures will be developed and tested in the economically disadvantaged rural community of Cedar City, Utah. The model’s strategic approach will employ a prioritized list to create innovative green stormwater infrastructure solutions (clean-energy technologies) for sustainable urban development. The proposed 5D-SAM model includes research on its broader impacts, with a theoretical focus on the nexus of stormwater control measures and design to enhance urban sustainability and resilience. This focus is on the translational and transdisciplinary link between the operation and maintenance of stormwater research outcomes in Cedar City. Performance indicators of the stormwater system will be designed to assess five conditions: assets, functionality, time-effectiveness, cost-effectiveness, and environmental and social impact. 5D-SAM will calculate the performance/health index of the stormwater infrastructure, predict the future state, manage the quantity, and improve stormwater runoff quality. The built-in GIS database will aim to preserve the natural features and functions of stormwater infrastructures while providing a list of cost-effective and environmentally friendly alternatives if a distressed stormwater system is better off demolished, repaired, rehabilitated, or retrofitted. The model benefits society as it applies to other water infrastructure systems, including groundwater wells, dams, reservoirs, treatment facilities, sewer lines, flood prevention, and hydropower. Finally, the proposed research is a valuable and growing resource for students, faculty, urban researchers/practitioners worldwide, and the general public.

Authors: Davi Cavinatto. Mentors: Steven Allen. Insitution: Brigham Young University. Previous work indicates that magnetic gradients oscillating at the same frequency and direction as ultrasound (US) longitudinal displacement can encode particle movement into the complex phase of a magnetic resonance (MR) image. Until now, the coil configuration (Helmholtz) used to generate this oscillating magnetic gradient has constrained the use of this technique to small imaging volumes. Here, we explore the feasibility of using a single coil configuration to improve the versatility of the apparatus, making it possible to visualize US waves as they propagate through tissue that was previously inaccessible through the technique, such as the human brain. This novel approach to the visualization of US waves could potentially be used to establish the missing correlation between the results of neuromodulation treatments and their mechanism of action, thus improving the scientific rigor of this field of research.Wolfram’s Mathematica and COMSOL’s Multiphysics were used for developing a single-coil configuration in silico. The coil design was constrained by the minimum imaging distance from the coil (20mm), gradient needed for an image with signal-to-noise ratio of approximately 10 (0.4 T/m), minimum coil inner radius for fitting the US transducer (20mm), maximum peak current at the coil (20A), and frequency of operation (500kHz). Using Biot-Savart’s Law and Mathematica, we estimated the number of turns needed and the total length of the wire. In order to reduce the skin effect and proximity effect due to the frequency of operation (500kHz), a specific Litz wire configuration was chosen for the windings. Plots for the magnetic gradient over the central axis of the coil were created and compared on both programs to confirm the accuracy of the model.Plots of both the mathematical and in-silicon models matched and proved the high efficiency of the coil system at the frequency of application. The two magnetic field gradient plots corroborate the feasibility of the proposed single coil system for imaging US waves and verification of the functioning of neuromodulation in the extension of the cerebral cortex.

Authors: Kasielynn Bussard, Dakota Stringham. Mentors: Matthias Pleil. Insitution: Salt Lake Community College. We are two students from Salt Lake Community College who participated in a summer research workshop in the cleanroom at the University of New Mexico. We were taught the pressure sensor fabrication process, along with the post-production testing methods. For our research project we decided to test how using different biocompatible metals, and different combinations of said metals, for the circuit would affect the pressure sensors functionality. To test this, we prepped five 4” inch wafers and used photolithography to define the Wheatstone bridge pattern, followed by sputter metal deposition. When sputter coating, we coated each wafer in a Venn diagram pattern. This left us with two areas of a single metal on the outside edges, and an area in the middle with both metals present. We then measured the resistance of each section to determine how it changed with different metals.

Authors: Joshua Lim. Mentors: Nathan Crane. Insitution: Brigham Young University. Metal additive manufacturing (3D printing) technologies have evolved in the past decade to produce intricate parts in aerospace, car, and biomedical industries. While previous work has been done on single materials, metal-metal composites can expand performance but hasn’t been thoroughly explored. This work investigates ways of creating composites by molted bronze infiltration. At a certain temperature, bronze is melted and seeps through parts that are made via additive manufacturing. By altering the geometry of the pathways that the molten bronze will travel through or the metal particles themselves, one can create unique parts that control where the bronze infiltrates. Initial results indicate that mechanical properties were measurably strengthened by the addition of molten bronze and hypothetically could be used to create thermally graded parts, optimized for specific applications where heat transfer is a parameter of interest.

Authors: Aldo Chipana, Sarah G Sanderson, Joseph Moore, Jeffery R Hill, Christopher R Dillon. Mentors: Chris Dillon. Insitution: Brigham Young University. Nitinol shape memory alloys have shown immense promise in biomedical engineering, with their exceptional biocompatibility and corrosion resistance. Interestingly, most biomedical applications rely on Nitinol’s super elasticity rather than its hysteretic properties. Previous research in this lab has highlighted the challenges and potential of using focused ultrasound to effectively heat Nitinol wire without causing damage to adjacent tissue. Building upon these findings, our current study presents an extension of the initial experiments, incorporating more realistic in-body conditions. This includes simulating blood flow, which influences the heat transfer taking place in our control volume. Furthermore, we utilize artery mimicking materials to recreate the conditions of human arterial walls. Through comprehensive experimentation and accurate temperature measurements using embedded thermocouples, we aim to enhance our understanding of the interactions between Nitinol wires, surrounding tissues, and focused ultrasound heating. An integral part of our investigation is to discern whether the focused ultrasound directly heats the Nitinol wire or if actuation is achieved indirectly by heating the surrounding tissue. These results will offer insights into the applications of shape memory alloys in diverse biomedical settings, potentially paving the way for more effective and safer medical use.

Authors: Samuel Weisler. Mentors: Brandon Ro. Insitution: Utah Valley University. Contemporary architecture and design increasingly prioritize sustainable, healthy, and aesthetically pleasing indoor environments, acknowledging the fact that we spend most of our lives inside buildings. However, this research brings up a critical question: are we undervaluing the inherent beauty of the outdoors within our built environment? While the concept of beauty is a subject of heavy debate, the universal beauty of nature remains a constant. This study aims to substantiate the superiority of outdoor spaces over their indoor counterparts by comparing the visual appeal of AI-generated images. Specifically, it will create image pairs for five different activity categories: contemplation, recreation, social interaction, education, and creativity. Each image in the pair must embody essential elements: sunlight, biophilic components, and privacy. For each activity category, AI will be instructed to generate an outdoor space image and an indoor equivalent. Next, visual eye-tracking software will analyze these images, enabling us to quantitatively gauge their visual appeal. The analysis will provide insight into whether outdoor spaces surpass their indoor counterparts in aesthetics. Anticipating that outdoor spaces will exhibit greater visual appeal, this research carries valuable implications for the architectural and design industries. In a world increasingly focused on enhancing the human experience, these findings will advocate for the greater incorporation and prioritization of outdoor spaces in built environments. Increasing our access to outdoor living spaces will undoubtedly improve the quality of human experiences.