“Please describe ways you are committed to living an active lifestyle.” Most people define “active” as athletic—reps, routines, laps around a track. For me, it’s about mental and physical motion. It’s about resisting stasis, staying engaged with the world, and pushing myself to build, solve, create, or contribute in some meaningful way—daily. Golf was my introduction to discipline—not the showy kind, but the kind that requires silence and stamina. I played varsity for three years, competing in state tournaments where one stroke could separate good from great. There’s no rushing a long game. You learn to focus. To reset. To commit to every small decision, especially when no one’s watching. But my lifestyle isn’t defined by one domain. At my previous school, I co-led the largest art club—sixty students across disciplines—and managed its graphic design wing. That meant organizing each project, mentoring younger artists, and building systems for student exhibitions and collaborations. It also meant balancing aesthetics with logistics, art with leadership, and the needs of others with personal creative goals. Since transferring to UNCSA, I’ve carved new paths. I helped establish and now help run our first Science Olympiad team—not exactly expected at an arts conservatory—and am active in the Asian Student Union, where I focus on programming that addresses cultural duality. Outside of school, I stay in motion through long bike rides, hours of walking (usually without a destination), sewing original clothes and quilts—many of which I donate—and coding. I created a peer-feedback mobile art app called CritMe, which now has around 100 users. Even chess, which I’ve played competitively, sharpens my focus and reflexes. I won my previous school’s championship not by memorizing openings, but by learning how to read and outpace a live mind. An active life doesn’t require a uniform. For me, it means moving toward complexity, staying curious, and building things that weren’t there

Solar energy presents a compelling solution to the energy challenges faced by conventional incubation methods. Its abundance, especially in regions with high solar irradiance, makes it a readily available and sustainable energy source. The environmental benefits are significant, reducing reliance on fossil fuels and minimizing greenhouse gas emissions. Harnessing solar energy for egg incubation contributes to a greener poultry industry, aligning with global sustainability goals. However, the intermittency of solar energy necessitates efficient energy storage solutions, such as batteries, to ensure consistent power supply during periods of low sunlight. The optimal design and integration of these storage systems are crucial for the reliability and performance of a solar-powered incubator

Solar energy presents a compelling solution to the energy challenges faced by conventional incubation methods. Its abundance, especially in regions with high solar irradiance, makes it a readily available and sustainable energy source. The environmental benefits are significant, reducing reliance on fossil fuels and minimizing greenhouse gas emissions. Harnessing solar energy for egg incubation contributes to a greener poultry industry, aligning with global sustainability goals. However, the intermittency of solar energy necessitates efficient energy storage solutions, such as batteries, to ensure consistent power supply during periods of low sunlight. The optimal design and integration of these storage systems are crucial for the reliability and performance of a solar-powered incubator

The significance of studying the impact on Grade 12 Senior High School (SHS) students when choosing the STEM (Science, Technology, Engineering, and Mathematics) strand for their college courses is multifaceted: Making Informed Decisions: By knowing what influences students' decisions, educators and legislators can better advise and support them in making decisions about their future jobs. Career Readiness: Schools can modify their curricula to better prepare students for the demands of STEM-related college courses and occupations by examining the effects of selecting the STEM strand. You sent Parental Influence: Studies reveal that students' job decisions are significantly influenced by their parents' views. Researching this effect can aid in the development of interventions that include parents in the process of choosing a career. Interest and Motivation: Determining the factors that influence students' decision to pursue the STEM strand can aid in the creation of plans to sustain and increase their enthusiasm and desire for STEM subjects. Educational Policy: By using the findings of these research to guide curriculum development and educational policies, the STEM strand can continue to be useful and relevant in preparing students for postsecondary education and future employment.

The significance of studying the impact on Grade 12 Senior High School (SHS) students when choosing the STEM (Science, Technology, Engineering, and Mathematics) strand for their college courses is multifaceted: Making Informed Decisions: By knowing what influences students' decisions, educators and legislators can better advise and support them in making decisions about their future jobs. Career Readiness: Schools can modify their curricula to better prepare students for the demands of STEM-related college courses and occupations by examining the effects of selecting the STEM strand. You sent Parental Influence: Studies reveal that students' job decisions are significantly influenced by their parents' views. Researching this effect can aid in the development of interventions that include parents in the process of choosing a career. Interest and Motivation: Determining the factors that influence students' decision to pursue the STEM strand can aid in the creation of plans to sustain and increase their enthusiasm and desire for STEM subjects. Educational Policy: By using the findings of these research to guide curriculum development and educational policies, the STEM strand can continue to be useful and relevant in preparing students for postsecondary education and future employment.

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