My journey into orthotics and prosthetics (O&P) began at Magnolia Medical, where I witnessed denial letter after denial letter, each one claiming a prosthetic leg was not medically necessary, or that an alternative (a wheelchair) was sufficient. When I reached out to insurance providers directly, they were candid: clinicians were submitting documentation that described patients as "ambulating poorly," but insurers wanted numbers. Objective, quantifiable evidence. The problem was that no simple tool existed to produce it. The gold-standard approach (motion capture labs equipped with force plates and marker-based systems) costs hundreds of thousands of dollars, requires significant space, and demands extensive training. If mobility is an indicator of health and functional progress, and if everyone has a camera in their back pocket, why couldn't that be the measurement tool? Stanford had already developed a program called OpenCap, which uses just two iPhones and pose estimation algorithms to estimate joint angles from video. I decided to pick up where they left off. If I could calculate ground reaction forces, I could determine from a single video recording the degree of asymmetry in how an amputee distributes their body weight during movement. Overreliance on the sound limb puts cumulative stress on the ankle, knee, hip, back, and neck, creating a cascade of problems down the road that could have been caught early. This data could guide device design, flag patients at risk of future hospitalization, and give clinicians the evidence they need to protect their patients' care (which is especially important as insurers begin pursuing clawbacks on devices they retroactively deem insufficiently justified). With a Bachelor's in Biological Engineering and a minor in Robotics, I entered graduate school already knowing what problem I wanted to solve. Rather than joining an existing lab project, I approached a professor with an idea of my own: a validated, markerless motion capture system capable of quantifying ground reaction forces in amputees. He took a chance on me, and under his guidance I have built something I am genuinely proud of. Using OpenCap and my own engineering framework, I am comparing estimated ground reaction forces against gold-standard foot force plates. My preliminary results show only 3-5% body weight error! I presented these findings at LSU's Symposium on Control, Learning, and Intelligent Systems and had the opportunity to discuss them with prosthetists and orthotists at the Louisiana O&P conference. I am finishing my master's in December, but I am not finished. There is more work to do - more validation, more clinical integration, and ultimately a tool that practitioners can actually use on the floor with patients. I intend to continue into a PhD to see this through. What I am building is not just a software pipeline or a research paper. It is a bridge between the engineering precision this field needs and the compassionate, patient-first care I witnessed at Magnolia Medical. I carry both of those things with me, and I believe technical rigor grounded in human purpose is exactly what this field is missing.

Engineering is a way of thinking, a way of being, a framework through which the world becomes legible. In my own work, Newton's Second Law is not a textbook artifact. It is the crux and driving force behind every dynamic relationship I reason through. It is through these principles that we can reverse-engineer complex systems, identify missing links, and uncover the inputs that explain why things behave the way they do. Engineering is what makes the world possible, and it is what drives the world forward. It is both a mindset and a toolkit. That belief has guided every step of my academic journey, from graduating as a Biological Engineer with the highest GPA across my undergraduate engineering cohort, to beginning my Master's in Mechanical Engineering at LSU…and it is the belief that drives my research today. My specific interest lies at the intersection of biomechanical engineering and clinical rehabilitation. While volunteering at Magnolia Medical, I worked alongside clinicians caring for amputees, modifying molds, pulling test sockets, and assisting in prosthetic fabrication. I became acutely aware of a significant gap in clinical practice: the absence of objective biomechanical assessment. Clinicians currently rely on visual gait analysis and patient-reported outcomes, imprecise tools that make it difficult to track progress, and build the evidence base needed to justify insurance coverage for new devices. Gold-standard motion capture exists, but it is expensive and out of reach for most clinics. My Master's thesis is a direct response to that gap. I am investigating whether ground reaction forces (GRFs) can be reconstructed from marker data alone. I have already developed a Python framework that reconstructs GRFs using position data, with early results showing strong agreement in timing and patterns compared to force plate measurements. If this approach is analytically validated, that means accessible, data-driven biomechanical analysis for any clinic, anywhere. My broader vision is to build something that does not yet exist: a normative database of amputee gait data, stratified by K-level, amputation level, and time since amputation. I envision a clinical tool where a provider can input a patient's demographics and receive evidence-based predictions about their expected mobility trajectory. Such a system would improve rehabilitation planning and give clinicians objective data to present to insurance providers, reducing the delays and denials that too often stand between a patient and the device they need. This is engineering as advocacy. Dr. Hassan's story speaks to me directly. He worked full-time while earning his PhD. He mentored interns while managing pressures most of us will never fully understand. I admire his endurance and his model for what commitment actually looks like: showing up, doing the work, and bringing others along. As a first-generation college student, I know what it means to navigate systems that were not built with you in mind. But those constraints have also sharpened my focus. I know why I am here, and I do not take a single research hour for granted. My commitment to making a difference is not a future aspiration…it is already operational. Every line of code, every gait analysis I run, every conversation I have with a clinician about what they actually need from technology, is a step toward a healthcare system where engineering serves patients equitably and completely. Dr. Hassan dedicated his career to expanding minds and building systems that move people forward. I am pursuing a similar dual mission: advancing the science of human movement while ensuring that the tools we build reach the people who need them most. That is the legacy I hope to honor, and the work I intend to spend my career on.

An engaged citizen not only recognizes the needs of their community but also takes action to address them. My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring that amputees receive functional prostheses AND compassionate, equitable support. As a first-generation college student whose parents did not have the opportunity to attend college, pursuing a Master’s has required persistence and a clear sense of purpose. I am committed to using science and engineering to advance public health and expand access to rehabilitative care. While volunteering at Magnolia Medical, I witnessed firsthand the challenges amputees face beyond physical mobility, from navigating insurance barriers to accessing rehabilitation services. I gained hands-on experience modifying molds, pulling test sockets, and assisting in prosthetic fabrication, but more importantly, I learned that healthcare innovation must remain human-centered. Clinicians frequently went beyond traditional responsibilities: accompanying patients to therapy appointments or providing in-home care when transportation was unavailable. These experiences reshaped my understanding of engineering in healthcare. Patients are not concerned with technical complexity but with dignity and compassionate care. Quantitative motion analysis remains a missing yet critical component of O&P clinical workflows. Currently, clinicians rely heavily on visual gait assessments and patient-reported outcomes, methods lacking precision and consistency. Gold-standard biomechanical analysis using marker-based motion capture systems and force plates is often inaccessible due to cost and logistical limitations. This gap limits clinicians’ ability to objectively measure progress, optimize prosthetic design, and justify medical necessity to insurance providers…ultimately delaying care for patients who depend on timely intervention. I am currently pursuing my Master’s, focusing on leveraging markerless motion capture technologies to quantify ground reaction forces (GRFs) in amputees. Despite my strong academic background in Biological Engineering, I was unable to secure a teaching or research assistantship within my Mechanical Engineering graduate program, compounding my financial challenges. While I work part-time assisting the kinesiology department, my limited funding has required careful balance. However, this has also allowed me to devote significant time to my research. Since beginning my Master’s in January 2026, I have developed a Python framework capable of reconstructing GRFs using position data alone. Early analyses show strong agreement in timing and patterns when compared with force plate measurements, and I am currently conducting quantitative error analyses such as RMSE. My work aims to eliminate reliance on expensive laboratory equipment, making biomechanical assessment more accessible to clinics with underserved populations. By enabling scalable, data-driven mobility analysis, this research has the potential to improve clinical decision-making, accelerate rehabilitation outcomes, and support equitable access to prosthetic care. My long-term goal is to translate advanced biomechanical research into practical clinical tools that provide clinicians with real-time, objective insights into patient mobility. Such tools could personalize rehabilitation strategies, strengthen evidence for insurance approvals, and reduce delays in receiving essential medical devices. By combining engineering innovation with patient-centered care, I hope to advance a healthcare model where technological progress directly improves quality of life and public health outcomes. As a woman in engineering and a first-generation graduate student, I understand how financial barriers can limit access to scientific careers. This scholarship would not only ease those challenges but also allow me to continue pursuing research and service initiatives that expand equitable healthcare access. I am committed to contributing to the biological sciences and public health by developing accessible technologies, mentoring future students, and advocating for data-driven, compassionate patient care. Moving forward, I carry with me the lessons of service, resilience, and community engagement that continue to shape both my academic journey and my professional goals.

After completing my Bachelor’s in Biological Engineering with a minor in Robotics, I realized there were still so many things left to learn, and even more problems waiting to be solved. My undergraduate studies introduced me to orthotics and prosthetics (O&P), where I quickly discovered a field that perfectly balanced my fascination with engineering principles and my passion to improve amputee care. My journey into O&P began with a desire to bridge the gap between engineering and patient care, ensuring that individuals with limb loss receive not only functional prostheses but also compassionate support. At Magnolia Medical, I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. I learned how to modify molds, pull test sockets, and construct prostheses that met the specific needs of individual patients. My mentors taught me how they adapted their designs based on limb geometry, patient feedback, and lifestyle needs. I also witnessed the challenges amputees face beyond their physical mobility, from navigating insurance barriers to accessing personalized rehabilitation. These experiences inspired me to pursue a robotics minor so that I could integrate mechanics, dynamics, and design into the medical side of my work. O&P showed me that engineering creativity is not just about solving equations, but about finding practical, individualized solutions to real human problems. Now, as a graduate student pursuing my Master’s in Mechanical Engineering, I find myself applying principles of dynamics, rigid body transformations, and biomechanics to problems that have not yet been solved. My current research focuses on determining whether ground reaction forces of human subjects can be accurately calculated using marker data alone. This requires applying inverse kinematics, inverse dynamics, and a great deal of creativity in reimagining how established engineering methods can serve new purposes. For me, the excitement lies not just in solving equations, but in uncovering new applications for the formulas that have guided engineers for generations. In a discipline defined by constraints, I feel unconstrained in my work. What motivates me most is the impact this work could have on the O&P community. Quantitative mobility analysis is almost entirely absent in most clinics today. Research labs may have access to gold-standard equipment such as marker-based motion capture systems and force plates, but the majority of patients are seen in local clinics that lack these resources. This gap leaves clinicians with limited tools (primarily gait observation and patient feedback) to assess mobility and track progress. My vision is to develop methods that make quantitative data collection (joint angles, joint forces, and ground reaction forces) accessible, affordable, and clinically useful. If successful, this work could provide patients with an objective measure of their progress, equip clinicians with better tools for treatment planning, and offer insurance providers a reliable baseline to guide coverage decisions. What excites me about my master’s program is the opportunity to further bridge biological engineering and mechanical engineering. Standing at this intersection of biomechanics, I advocate for blending engineering rigor with a deep understanding of human movement. I spend my free time reading journal articles from leading O&P researchers and textbooks authored by pioneers in biomechanics. My long-term vision is to continue advancing innovative, accessible solutions that allow engineering to make O&P care more effective, data-driven, and equitable. I am driven by the belief that education is not a finish line, but a lifelong pursuit, and that engineering knowledge has the power to open doors for others. My commitment is to continue learning, to push the boundaries of how engineering principles can be applied, and to create solutions that improve lives one patient, one clinic, and one community at a time.

September 10, 2025. Day 8. 7:00am. It’s only been slightly over a week since my human was delivered his very first prosthesis. That’s me! Good morning, sunshine! Where do you think you’re going? Bare-legged? You hobble across the room like a one-legged pirate looking for his peg. I’m his aluminum soulmate. The one who bears the weight of his world (and let me tell you, it’s not light). Without me, his life would suck. Without him, I’m just expensive modern art collecting dust. Ah, the morning squeeze. After a long night of limb-swelling beauty sleep, we begin our daily wrestling match. The liner rolls on nicely. That’s the easy part. The hard part? He’s trying to cram his ballooned limb into me like I’m a Cinderella slipper. As a new amputee, he has constant limb volume fluctuations, and he isn’t yet used to the protocols. “Put on the shrinker, buddy,” I tell him. “Oh, it’s not that bad. I can hold out a little longer,” he says, wincing. His skin begins to look like abstract art. He decides I was right and puts it on. “I told you so.” “Yeah, yeah, yeah,” he mutters. Ping. Message sent: Patient skipped shrinker this morning until 9:47 a.m. Result: redness and swelling from forcing limb in socket. He groans. “Did you just rat me out?” “Of course. It’s my job.” “Snitch.” “Guardian angel,” I correct him. Later …what is this? Interpretive limb dance? He’s been limping for the past hour, and I know he feels it. His limb is sliding around like I’m a maraca. Every step he takes without proper fit is a punch to my mechanical soul. “Add. A. Sock.” I would say this through gritted teeth if I had any. “No, I can tough it out.” Ping. Message sent: Patient refused to put on a sock at 2:14 p.m. after significant limb volume reduction (>5%) due to moderate ADLs (activities of daily living). Seconds later, his phone buzzes. “Oh no…” he mutters. It’s my prosthetist. He answers anyway. “Hey! Yeah, I’m fine. Totally fine. No problems here.” The prosthetist doesn’t buy it. “Uh-huh. Put me on speaker,” she says. He sighs. “Do I have to?” “Yes,” she says firmly. Now it’s my turn. “Hi there!” I chime in, all chipper. “Actually, he hasn’t worn a sock for an hour. Redness, swelling, and at least two grimaces he tried to pass off as smiles.” “TRAITOR!” my human blurts out. The prosthetist laughs. “Thank you. At least one of you tells me the truth. Sock on. Now.” “Yeah, yeah, yeah,” he grumbles, pulling it on. “You’re welcome,” I add smugly. Evening stroll. I calculate every joint angle, every ground force reaction, every uneven crack in the sidewalk. Data streams into the cloud like an endless diary of his movement. I whisper guidance as he walks: “Heel down first. Relax your hip. Shorter stride. Shift your weight left. You’re burning 30% more energy like that.” Sometimes he listens. Sometimes he doesn’t. But either way, I adapt and transform to correct his biomechanics. That afternoon…Am I being…replaced? Break time for me. He's off to the gym and swapped me out for Mr. Fancy Knees (Mr. MicroProcessor Knee). MPK walks in like he owns the place, always flexing his hydraulic damping and variable cadence controls. Mr. ‘I have microprocessors and Bluetooth.’ Cue dramatic eye roll. “Don’t worry,” MPK boasts, “I’ve got exercise mode engaged.” I mutter, “Exercise mode, schmexercise mode.” “Shh,” my human whispers, “don’t start fighting in public.” Yeah, you can do squats and stairs. Still can’t handle a good puddle, though. But credit where it’s due…MPK keeps our guy upright when he’s lifting heavy. (But man, his ego!) Now, my human’s sweaty, tired, and now his limb’s shrunk from dehydration. Classic. But he's not coming back to me just yet. Enter: Showers. Bless his waterproof, humble little heart. No tech. No flair. Just designed to survive soap and steam. He’s dependable. And falling in the shower? Not an option. Night falls. I’m back in the corner, resting after a long day of nudges, warnings, tattling, and carrying him through life. MPK is recharging, and Shower Leg is drying out nearby. I’m recharging in silence, but my sensors notice him staring at me. There’s something heavy in his eyes. “What’s wrong, bud?” I ask softly. “Oh, nothing,” he says. “Something’s bothering you. Tell me what it is.” He exhales. “It’s not you, it’s me.” “Care to elaborate?” “I’m incomplete. I’m broken. I’m missing a limb. People look at me differently. People treat me differently. I just want things to be back to how they used to be.” I pause, then say, “You’re not broken. You were saved. If the surgeon hadn’t taken your leg, the necrosis would have spread, and you wouldn’t be here today. Yeah, you’re missing a limb, but at least it wasn’t your life.” He doesn’t look convinced, so I push on. “So what if people look at you differently? Or treat you differently? They couldn’t even imagine putting themselves in your shoes…well, shoe. Unfortunately, your leg isn’t going to grow back. But you have me. And I’m going to do everything I can to help you regain your mobility. We’re in this together.” I shift slightly in the corner, almost like leaning closer. “I’m your teammate. Your sidekick…literally. I may be tough and strict at times, but that’s only because I don’t want you to have another amputation. You’re still learning. It’ll get easier as time goes on. You just have to learn to trust me. And I know that’s not going to happen overnight. It’s a process. But the more time we spend together, the more you’ll get the hang of it.” He’s almost smiling. “We got this,” I say firmly. “Yeah,” he whispers. “We got this.” And with that, he turns out the light. I may be just a pylon, some carbon fiber, and microchips, but tomorrow, I’ll be his other leg all over again. Goodnight, my friend.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring amputees receive functional prostheses AND compassionate support. My Bachelor’s in Biological Engineering with a minor in Robotics, and my current Master’s in Mechanical Engineering have and continue to equip me with the resources I need. O&P isn’t just engineering, it’s healthcare engineering. You need the mechanical “know-how” to assemble equipment, yet you also need to understand patients’ needs. Clinicians don’t just fabricate limbs; they help patients reclaim their independence, confidence, and identity. At Magnolia Medical, I learned how to modify molds, pull test sockets, and construct various types of prostheses. I also had the privilege of treating patients over multiple visits. Many were women, and many arrived seeking a device and a clinician who understood them. Female amputees often undergo fittings in deeply vulnerable areas like the groin or upper thigh. In such moments, the presence of a female clinician can be the difference between comfort and anxiety, between embarrassment and advocacy. My graduate research focuses on applying markerless motion capture technology to analyze amputee biomechanics. Current methods are subjective and lack detailed biomechanical insight. This creates a gap in clinical workflows. By leveraging pose estimation algorithms and validating a markerless motion capture system, I could revolutionize amputee care by enabling data-driven, personalized treatment plans Unfortunately, women’s health (especially in fields like O&P) has been historically under-researched. Device design, fitting techniques, and biomechanical data are often based on male anatomy, despite significant structural and biomechanical differences in female bodies. In my graduate research, I’d like to collect sex-specific data that helps clinicians better understand how factors like pelvic structure and muscle mass distribution affect prosthetic fit and function. These insights can help improve device design, personalize therapy regimens, and reduce discomfort or injury, particularly for female patients. Innovation needs to be centered on the actual needs of women, not just as an afterthought. I hope to create biomechanical analysis tools that address the specific recovery challenges of female amputees. I want to combine clinical empathy with engineering to develop technologies that see and serve women fully. But research is only part of the picture. As a woman in healthcare engineering, a field where clinicians and engineers are overwhelmingly male, I’ve often been one of the few (if not the only) women in the room. At conferences or in engineering classes, I’ve stood out not just because of my gender, but because of how often I’ve been underestimated. Male CPOs assumed I was a receptionist when I mentioned I worked at a clinic. In the lab, professors have questioned my commitment, my goals, even my personal life, asking why I’m not focused on marriage and family. I’ve even been told that “ I don’t look like an engineer.” These moments fuel my determination.I want to break the stereotype that technical spaces aren’t for women. When female patients (especially young girls) see me working with advanced biomechanical tools, I want them to feel empowered, not alienated. I want them to see me and think, “I could do that too.” Visibility matters. Representation matters. And when more women are involved in healthcare innovation, the solutions become more inclusive by design. I believe O&P is on the cusp of meaningful transformation, and I’m committed to ensuring that women’s needs are met in that progress. By combining my technical expertise with compassionate care, I hope to inspire future generations of women in STEM, proving that they have a vital role in shaping the future of healthcare engineering and innovation.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring amputees receive functional prostheses AND compassionate support. My Bachelor’s in Biological Engineering with a minor in Robotics, and my current Master’s in Mechanical Engineering have and continue to equip me with the resources I need. O&P isn’t just engineering, it’s healthcare engineering. You need the mechanical “know-how” to assemble equipment, yet you also need to understand patients’ needs. Clinicians don’t just fabricate limbs; they help patients reclaim their independence, confidence, and identity. At Magnolia Medical, I learned how to modify molds, pull test sockets, and construct various types of prostheses. I also had the privilege of treating patients over multiple visits. Many were women, and many arrived seeking a device and a clinician who understood them. Female amputees often undergo fittings in deeply vulnerable areas like the groin or upper thigh. In such moments, the presence of a female clinician can be the difference between comfort and anxiety, between embarrassment and advocacy. My graduate research focuses on applying markerless motion capture technology to analyze amputee biomechanics. Current methods are subjective and lack detailed biomechanical insight. This creates a gap in clinical workflows. By leveraging pose estimation algorithms and validating a markerless motion capture system, I could revolutionize amputee care by enabling data-driven, personalized treatment plans Unfortunately, women’s health (especially in fields like O&P) has been historically under-researched. Device design, fitting techniques, and biomechanical data are often based on male anatomy, despite significant structural and biomechanical differences in female bodies. In my graduate research, I’d like to collect sex-specific data that helps clinicians better understand how factors like pelvic structure and muscle mass distribution affect prosthetic fit and function. These insights can help improve device design, personalize therapy regimens, and reduce discomfort or injury, particularly for female patients. Innovation needs to be centered on the actual needs of women, not just as an afterthought. I hope to create biomechanical analysis tools that address the specific recovery challenges of female amputees. I want to combine clinical empathy with engineering to develop technologies that see and serve women fully. But research is only part of the picture. As a woman in healthcare engineering, a field where clinicians and engineers are overwhelmingly male, I’ve often been one of the few (if not the only) women in the room. At conferences or in engineering classes, I’ve stood out not just because of my gender, but because of how often I’ve been underestimated. Male CPOs assumed I was a receptionist when I mentioned I worked at a clinic. In the lab, professors have questioned my commitment, my goals, even my personal life, asking why I’m not focused on marriage and family. I’ve even been told that “ I don’t look like an engineer.” These moments fuel my determination.I want to break the stereotype that technical spaces aren’t for women. When female patients (especially young girls) see me working with advanced biomechanical tools, I want them to feel empowered, not alienated. I want them to see me and think, “I could do that too.” Visibility matters. Representation matters. And when more women are involved in healthcare innovation, the solutions become more inclusive by design. I believe O&P is on the cusp of meaningful transformation, and I’m committed to ensuring that women’s needs are met in that progress. By combining my technical expertise with compassionate care, I hope to inspire future generations of women in STEM, proving that they have a vital role in shaping the future of healthcare engineering and innovation.

Weighing roughly 16.68% of its owner’s body weight and spanning 47.9% of their height, the amputated leg in my hands symbolized more than a lost limb. It marked the beginning of my interest in how manufacturing can shape human lives. While receiving and handling amputated limbs isn’t a typical introduction to biological engineering, my job as a specimen processor in a pathology department sparked my curiosity in applying design and manufacturing to human movement to improve mobility. With a Bachelor’s in Biological Engineering, a minor in Robotics, and now a Master’s in Mechanical Engineering, I am passionate about molding the future of orthotics and prosthetics (O&P). My studies empower me to combine design, manufacturing, and automation to create innovative prosthetic solutions while streamlining the processes clinicians use to analyze mobility and provide care. What better way to shape the world than to help shape the people in it? I began shadowing at Magnolia Medical, and by my third visit, the clinicians let me grind down some old sockets. As a summer intern, I fabricated prosthetic legs and test sockets, laminated covers, and modified molds using cast saws to cut sockets. I also developed detailed prosthetic life care plans and calculated lifetime costs for prosthetic equipment and maintenance in collaboration with attorneys. From manufacturing legs to estimating lifelong care, I gained firsthand knowledge of materials and prosthetic manufacturing, observing how data-driven techniques could enhance productivity and quality. As an LSU undergraduate research assistant, I explored how biomechanical data can support the O&P field. Conducting interviews with prosthetists, orthotists, insurance directors, and orthopedic surgeons, I gained insight into how quantitative data can enhance decision-making. Working with a markerless motion capture system, I developed a strong interest in analyzing internal muscle forces and motion data. My experience at Ochsner's Therapy and Wellness Center reinforced my goal of improving data analysis for healthcare providers. I coded a MATLAB program that reduced a seven-hour data analysis process to just four minutes. My experience reinforced my goal of creating tools that make data analysis faster, more accurate, and more accessible to clinicians, directly linking engineering innovation to manufacturing and service delivery in healthcare. Quantitative motion analysis remains a critical but underutilized component in O&P. Clinicians often rely on observation or patient feedback, which lack precision and consistency. I am currently pursuing my master’s to leverage markerless motion capture technologies, using pose estimation algorithms to quantify joint angles, joint forces, and ground reaction forces in amputees. By comparing these results to gold-standard methods (foot force plates and traditional marker-based motion capture systems), I aim to bridge a significant data gap in the field of O&P. Clinicians would then be able to use this quantitative information to iterate their socket design, improving the fit and personalizing treatment. By advancing prosthetic manufacturing through biomechanical data-driven design and automation, I will shape the future of my field and the lives of the patients it serves. This scholarship would ease the financial strain of graduate school, allowing me to dedicate more time to research and hands-on development. I can accelerate my contributions to O&P, further integrating engineering, manufacturing, and patient care. I’ve found a niche where data analysis, biomechanics, and hands-on manufacturing intersect, and I’m ready to make my mark. Investing in my education is an investment in the future of these clinicians, patients, and the broader O&P field.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring that individuals with limb loss receive not only functional prostheses but also compassionate support. This interdisciplinary field combines engineering precision with healthcare’s human touch, allowing me to apply my skills in biological engineering and robotics to real-world challenges that directly improve people’s lives. During my time volunteering and interning at Magnolia Medical, I gained hands-on experience in fabricating prosthetic limbs, learning to modify molds, pull test sockets, and construct various prostheses. More importantly, I witnessed the complex realities that amputees face beyond physical mobility: the emotional toll of limb loss, the difficulty of navigating insurance systems, and the lack of accessible, personalized rehabilitation services. Many patients come from vulnerable situations; they may live alone, lack family support, or struggle with transportation. This experience taught me that engineering solutions in healthcare must be not only technically sound but deeply human-centered. Prosthetists do much more than build limbs. They help patients reclaim independence, confidence, and identity. As a woman in healthcare engineering, a field where clinicians and engineers are overwhelmingly male, I have often been the only female in classrooms, labs, or professional meetings. I’ve faced assumptions and doubts about my commitment and capabilities, from being mistaken for a receptionist to being questioned about my personal life choices regarding marriage and family. These challenges only strengthen my resolve. I want to show other women that we belong in STEM, especially in specialized fields like O&P, where female clinicians can make a unique impact. For example, female amputees often feel more comfortable with a female CPO, especially when their prosthesis involves intimate fittings near the groin or upper thigh. Many are already coping with the emotional toll of limb loss, and being treated by a woman can ease some of that vulnerability. I’ve also seen how children tend to respond more warmly to female clinicians perhaps because they sense a maternal presence. Women in O&P can offer a level of empathy and connection that’s just as critical as clinical skill. My graduate research focuses on applying markerless motion capture technology to analyze amputee biomechanics. Current methods are subjective and lack detailed biomechanical insight. Gold-standard tools like marker-based motion capture labs and force plates provide precise data but are costly, time-consuming, and impractical for widespread clinical use. This creates a gap in clinical workflows. Without objective, accessible quantitative data, tracking patient progress, optimizing prosthetic designs, and justifying medical necessity to insurance providers become difficult. Consequently, patients may face delayed or denied approvals for prosthetic devices or therapies critical to their recovery. By leveraging pose estimation algorithms and validating a markerless motion capture system for O&P, my goal is to provide clinicians with a cost-effective, scalable tool to quantify joint angles, forces, and ground reaction forces in real time. This system would revolutionize amputee care by enabling data-driven, personalized treatment plans and improving communication with insurance providers, ultimately reducing wait times and barriers to care. Beyond research, I aim to advocate for integrating such technologies into clinical practice to make rehabilitation more effective and equitable. My research will advocate for inclusive, patient-centered care in O&P. Additionally, I am passionate about fostering a diverse STEM community where women are empowered by knowledge and curiosity and encouraged to lead innovations that benefit society. By combining my technical expertise with compassionate care, I hope to inspire future generations of women in STEM, proving that they have a vital role in shaping the future of healthcare engineering and innovation.

An engaged citizen recognizes the needs of their community AND takes action to address them. My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring that amputees receive functional prostheses, compassion, dignity, and support. While volunteering at Magnolia Medical, I witnessed firsthand the challenges amputees face beyond their physical mobility from navigating insurance barriers to accessing individualized care. These experiences reinforced my belief that engineering solutions in healthcare must be both technically sound and deeply human-centered. At Magnolia Medical, I gained hands-on experience in treating amputees and fabricating prosthetic limbs. I learned essential skills such as modifying molds, pulling test sockets, and constructing various types of prostheses. More importantly, I saw my mentors go above and beyond for their patients, accompanying them to physical therapy appointments, arranging in-home visits for those without transportation, and offering emotional support. These acts weren’t part of their job description; they were acts of selflessness rooted in compassion. While patients rely on engineering to regain mobility, what they truly remember is how they were treated along the way. That lesson came to life again during my senior design project, where my team and I developed an efficient, low-cost external ear prosthesis. Through this“service learning,” we applied academic knowledge to solve a real-world challenge with a meaningful human impact. We collaborated with an ENT surgeon to create a prosthesis for a patient who had been unable to wear reading glasses for nearly a year due to an amputated ear. Our process began with 3D scanning the patient’s intact ear to create an accurate mold and using a spectrometer to match the silicone's color to his skin tone. The patient’s feedback on each iteration guided us toward a final design that worked both functionally and aesthetically. The patient taught me that empathy and attention to individual needs are as critical as technical expertise. This emphasis on empathy and dignity stayed with me. At the 2023 Louisiana Association of Orthotists and Prosthetists conference, I attended a session featuring a video of a man living with Charcot-Marie-Tooth disease. One prosthetist in the room, who had the condition himself, criticized the video for portraying the disease too negatively. I approached him afterward to learn more about his perspective. He shared that, throughout his life, others had treated him with pity. “Pity,” he said, “is the last thing a patient wants.” He reminded me that while physical disabilities may shape how someone navigates the world, they should never define their identity or diminish their dignity. That conversation deepened my commitment to ensure that no technical innovation ever overshadows the humanity of the people it’s meant to serve. I am now pursuing my master’s with the goal of validating markerless motion capture systems for use in O&P clinical workflows. Using pose estimation algorithms, I’m working to quantify joint angles, joint forces, and ground reaction forces in amputees. I hope to offer a low-cost, accessible tool that gives clinicians real-time data to personalize care and improve patient outcomes while reducing the wait times and systemic barriers that keep underserved patients from getting the support they need. Ultimately, my vision is to advocate for patients through empathy and presence and the design of tools that empower them. The patients I've met, the stories they've shared, and the challenges they’ve faced remind me that helping others is not always about grand gestures. Sometimes, it's simply to be seen and treated with dignity. As I move forward, I carry with me the invaluable lessons of service, humility, and human connection.

My father has countless scars. After surviving two major industrial accidents, he now lives with chronic pain and permanent disability. Yet he always pushed forward with strength, grit, and selflessness by putting family first. I’ve inherited those same qualities, in how I face life’s challenges. In the summer of 2015, I was diagnosed with idiopathic scoliosis. My curvature worsened rapidly, and doctors warned that without spinal fusion, I’d be on oxygen by 18. Surgery meant six hours under anesthesia, two metal rods, and a long, painful recovery. But what affected me most wasn’t the pain. It was seeing the anxiety on my family's faces. So, like my father once did, I chose to be strong for them. That experience left me with more than a physical scar; it gave me perspective. I learned that resilience isn’t just about enduring hardship. It’s about refusing to let it define you. It’s about turning pain into purpose. That purpose revealed itself through my volunteer work at Magnolia Medical, an orthotics and prosthetics clinic. I witnessed firsthand the challenges amputees face beyond their physical mobility, from navigating insurance barriers to accessing personalized rehabilitation. These experiences reinforced my belief that engineering solutions in healthcare must be both technically sound and deeply human-centered. At Magnolia Medical, I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. I learned essential skills such as modifying molds, pulling test sockets, and constructing various types of prostheses. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. I witnessed the clinicians going above and beyond for their patients, accompanying them to physical therapy and medical appointments or providing in-home care for those without transportation. I realized that patients aren’t concerned with the engineering intricacies of their prostheses; they care about being treated with respect and compassion. Armed with a Bachelor’s in Biological Engineering and a minor in Robotics, I am now pursuing my Master’s degree in Mechanical Engineering to develop innovative solutions that improve the quality of life for amputees and underserved populations. My current research focuses on integrating markerless motion capture technologies into prosthetic care to provide clinicians with precise, real-time data to track mobility, optimize prosthetic designs, and streamline insurance approvals (because no one should be denied the ability to walk simply because they can’t afford it). By bridging cutting-edge technology with practical applications, I hope to transform how amputee care is delivered. Through it all, I’ve stayed grounded in the values my family represents: perseverance, service, and integrity. I’ve worked hard to balance rigorous academics while dedicating myself to community service and patient advocacy. I’ve also learned that true success isn’t measured solely by personal achievements, but by the impact we leave behind. The scar down my spine serves as a daily reminder of the adversity I’ve overcome, and it continually fuels my determination to give back. I see my rods and screws as a refined “suit of armor,” one I hope to help others don as they face their own battles. The best way I can support those in need is by applying my skills in the orthotics and prosthetics field, advocating for individuals who literally can’t stand up for themselves. My goal is to make a meaningful difference in the world by solving patients' problems while inspiring hope. Everybody has their battle scars. Mine symbolizes not only my resilience but also the strength, support, and solutions I aim to offer to those who need it most. Ultimately, I hope to help others discover the purpose behind their own scars.

Math is the foundation of engineering. It's how we make sense of the world and solve problems that matter. As an engineering student, I’ve come to rely on math as a tool AND as a way of thinking. I love math because it’s logical, dependable, and constant, something that remains stable even when life doesn’t. Albert Einstein once said, “Pure mathematics is, in its way, the poetry of logical ideas.” I couldn’t agree more. It’s the quiet language behind every innovation, every equation, every decision. Math is a mindset. It teaches us how to approach complex problems systematically, make thoughtful decisions, and design solutions grounded in evidence rather than emotion. That mindset has guided me not only in the classroom, but in my personal and professional life. When deciding between orthotics and prosthetics (O&P) school and a master’s in mechanical engineering, I used a decision matrix (a method I’ve used often in engineering design) to objectively weigh my options. Whether deciding between graduate programs or planning my career path, math gives me a framework to evaluate, compare, and choose with confidence. Throughout my undergraduate and graduate studies at LSU, I’ve taken a wide range of math-intensive courses that have shaped the way I see the world: Honors Calculus, Calculus II, Differential Equations and Linear Algebra, Particle Mechanics, Statics, Electromagnetism, Thermodynamics, Dynamics, Strength of Materials, Biomechanics, Machine Design, Fluids, and Computational Fluid Dynamics. Each course revealed another layer of how mathematical principles underlie the physical world. Now, as I pursue a master’s degree focused on applying markerless motion capture to improve amputee care, math continues to play a central role in my work. I use pose estimation algorithms to calculate joint angles, joint torques, and ground reaction forces. This data is vital for creating more accessible, personalized prosthetic care, especially for underserved populations. With math as my foundation, I aim to provide clinicians with actionable insights that improve outcomes and reduce barriers to care. I love math because it’s constant. The world will change. People will change. Life will throw curveballs. But mathematical principles endure. There are no surprises. Only solutions waiting to be uncovered. As I pursue a career in O&P data collection and analysis, I will continue to rely on math not just for technical problem-solving, but as a grounding force in a field that blends science, compassion, and innovation.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care to ensure that amputees receive functional prostheses AND compassionate, personalized support. O&P is more than just engineering…it’s healthcare engineering. It requires both technical mastery and emotional intelligence. At Magnolia Medical, where I learned to modify molds, pull test sockets, and construct prostheses, I also had the privilege of treating patients over multiple visits. Many were women, and many arrived seeking a device and a clinician who understood them. Female amputees often undergo fittings in deeply vulnerable areas like the groin or upper thigh. In such moments, the presence of a female clinician can be the difference between comfort and anxiety, between embarassment and advocacy. Unfortunately, women’s health (especially in fields like O&P) has been historically under-researched. Device design, fitting techniques, and biomechanical data are often based on male anatomy, despite significant structural and biomechanical differences in female bodies. As a graduate student, I am currently developing a markerless motion capture protocol to analyze amputee biomechanics more efficiently and accurately. I’d like to collect sex-specific data that helps clinicians better understand how factors like pelvic structure and muscle mass distribution affect prosthetic fit and function. These insights can help improve device design, personalize therapy regimens, and reduce discomfort or injury, particularly for female patients. Innovation needs to be centered on the actual needs of women, not just as an afterthought. I hope to create biomechanical analysis tools that address the specific recovery challenges of female amputees. Something like a dynamic socket feedback system that adapts to hormonal shifts affecting limb volume. I want to combine clinical empathy with engineering to develop technologies that see and serve women fully. But research is only part of the picture. As a woman in healthcare engineering, a field where clinicians and engineers are overwhelmingly male, I’ve often been one of the few (if not the only) women in the room. At conferences or in engineering classes, I’ve stood out not just because of my gender, but because of how often I’ve been underestimated. Male CPOs assumed I was a receptionist when I mentioned I worked at a clinic. In the lab, professors have questioned my commitment, my goals, even my personal life, asking why I’m not focused on marriage and family. I’ve even been told that “ I don’t look like an engineer.” These moments fuel my determination.I want to break the stereotype that technical spaces aren’t for women. When patients (especially young girls) see me working with advanced biomechanical tools, I want them to feel empowered, not alienated. Visibility matters. Representation matters. And when more women are involved in healthcare innovation, the solutions become more inclusive by design. I believe O&P is on the cusp of meaningful transformation, and I’m committed to ensuring that women’s needs are met in that progress. You can view my personal website created during my final semester as an undergraduate in Biological Engineering and continuously updated throughout my Master’s program in Mechanical Engineering: https://rickipierce14.wixsite.com/biomechanist. Additionally, I’ve included a link to a feature article about my work, published in LSU’s 2025 College of Engineering Scholarship First blog: https://www.lsu.edu/blog/2025/05/ricki-pierce-orthotics-student.php The article also appeared in the July 2025 College of Engineering newsletter: https://mailchi.mp/5c4130616deb/enews-june-13391769?e=9a37cb25e8 Originally written as a blog post, this piece was widely shared by LSU and the College of Engineering across Facebook and LinkedIn, including reposts by the Department of Mechanical and Industrial Engineering.

“I just don’t understand people who lead from behind.” An interviewer once said this to me after seeing my resume, which listed my role as president of the National English Honor Society. I knew my leadership style didn’t align with his expectations. I believe servant leadership isn’t about giving orders; it’s about walking alongside your team, building others up, and empowering them to succeed together. I didn’t fully realize the weight of that belief until my college senior design project. As Biological Engineering majors, my team was tasked with designing a low-cost method of fabricating external ear prostheses for patients who had undergone auriculectomies. These prostheses are often expensive, time-consuming to make, and difficult to color-match to individual skin tones. From the beginning, I found myself naturally stepping into a leadership role. I recorded every idea during our brainstorming sessions, ensured all voices were heard (including the quieter ones) and emphasized that our final design should reflect the whole team, not just the loudest contributors. Our team of five worked closely with an ENT surgeon to design a custom ear prosthesis for a patient. We used a 3D scanner to capture geometry, 3D-printed molds, matched skin tone using a spectrometer, and cast the prosthesis from medical-grade silicone. I also coordinated meetings, took notes, handled external communications, and served as the main point of contact with the physician, meeting him at the hospital multiple times for project updates, patient ear deliveries, and design feedback. I also conducted detailed analyses on production cost, business start-up expenses, fabrication time, and technical uncertainty. But leading wasn’t just about logistics. When teammates fell behind or missed deadlines, I had to hold tough but respectful conversations, balancing accountability with empathy. And when no one felt confident enough to tackle a complex task, I stepped in, learned the skills, and got the job done. One of the hardest lessons came when our sponsor held the team accountable for a mistake made by one individual. He didn’t see five separate students; he saw one unit. That moment taught me that leadership means taking shared responsibility, even when it’s not your error, and still encouraging growth within the team. I also learned that in a true team, effort is rarely 50/50. Sometimes it’s 60/40, or 95/5. When I became overwhelmed, I was honest with my team, and another member stepped up and took the lead beautifully. Leadership is understanding when people have the capacity to give more and when they need a break; it’s about creating a space where effort flows based on need and capacity, not rigid roles. In the end, we created a prosthesis that cost just $35 to fabricate, reduced production time to two weeks, achieved 80% color matching accuracy, and helped restore appearance and functionality for a patient who had gone over a year without an ear. Now, as a master’s student in Mechanical Engineering, I carry those values into my research: developing a low-cost, markerless motion capture system to improve care in orthotics and prosthetics. Through volunteering at an O&P clinic, I saw how insurance hurdles, subjective analysis, and a lack of personalized data all contribute to gaps in care. My goal is to provide clinicians an accessible, data-driven way to track patient progress, personalize physical therapy regimens, and improve overall patient care. As I move forward, I carry with me the invaluable lessons of service, advocacy, and human-centered design. I want to serve the whole patient and their care team, not just the diagnosis.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring that individuals with limb loss receive functional prostheses AND compassionate support. My Bachelor’s in Biological Engineering, coupled with a minor in Robotics, has given me the foundational knowledge I need. Now, my Master’s in Mechanical Engineering is helping me develop innovative, accessible solutions that improve the quality of life for amputees. One of the primary challenges in O&P is the lack of detailed quantitative data to assess amputee progress. Currently, the most common assessment tool, the Amputee Mobility Predictor, categorizes patients into K-levels based on basic functional tasks. However, they fail to capture the nuances of amputee mobility, which limits our understanding of an amputee's true capabilities. The gold standard for biomechanical assessment is marker-based optical tracking with foot force plates. However, these are expensive, time-consuming, and require specialized training to set up and operate effectively, which makes them impractical for clinical use. A promising alternative to marker-based systems is markerless motion capture. OpenCap tracks joint positions without physical markers. While OpenCap has been used in sports medicine and rehabilitation, its use in O&P remains largely unexplored. OpenCap could provide more accurate and detailed biomechanical data, specifically focusing on joint angles and ground reaction forces during movements of amputees. The ability to quantify data at this level could also streamline the insurance authorization process by providing quantitative evidence of a patient's needs and progress. This could potentially expedite approval for prosthetics and therapy (and possibly reduce denials), improving accessibility and affordability for patients. By quantifying the field of O&P, this technology has the potential to transform clinical practices. Implementing reliable methods will provide valuable insights that can improve prosthetic design choices, personalize physical therapy regimens, and support evidence-based clinical decision-making. My vision is not only to improve patient care through innovative technology but to help redefine who gets to lead in tech-driven healthcare. When women see me using advanced tools like OpenCap, I want them to feel empowered, not intimidated. Too often, women are made to feel like they don’t belong in highly technical or research-driven roles. I want to break that trend. I want them to see me and think, “I could do that too.” And the more of us there are in these roles, the more inclusive and innovative healthcare will become.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring amputees receive functional prostheses AND compassionate support. O&P isn’t just engineering, it’s healthcare engineering. You need the mechanical “know-how” to assemble equipment, yet you also need to understand patients’ needs. Clinicians don’t just fabricate limbs; they help patients reclaim their independence, confidence, and identity. At Magnolia Medical, I learned how to modify molds, pull test sockets, and construct various types of prostheses. While interning there, I fell in love with the patients. They came in often so I really got to know them. Some patients have no family. Some live alone. Some simply need someone to talk to. I enjoyed treating them, hearing their stories, and connecting with them. In their most vulnerable state, most patients weren't afraid to open up to someone willing to listen. And that can really make the difference between a health appointment and a milestone in their healthcare journey. These experiences reinforced my belief that engineering solutions in healthcare must be technically sound and human-centered. As a woman in healthcare engineering, a field where clinicians and engineers are overwhelmingly male, I’ve often been one of the few (if not the only) women in the room. At conferences or in engineering classes, I’ve stood out not just because of my gender, but because of how often I’ve been underestimated. Male CPOs assumed I was a receptionist when I mentioned I worked at a clinic. In the lab, professors have questioned my commitment, my goals, even my personal life, asking why I’m not focused on marriage and family. These moments fuel my determination. I am just as capable of being here as anyone else, and I want other women to have the same confidence. We deserve a seat at the table. The barriers we face make us more resilient, more compassionate, and more committed to transforming the field for future generations of women. Gender representation directly impacts patient care. Female amputees often feel more comfortable with a female CPO, especially when their prosthesis involves intimate fittings near the groin or upper thigh. Many are already coping with the emotional toll of limb loss, and being treated by a woman can ease some of that vulnerability. I’ve also seen how children tend to respond more warmly to female clinicians perhaps because they sense a maternal presence. Women in O&P can offer a level of empathy and connection that’s just as critical as clinical skill. Graduate school is demanding (academically, emotionally, and financially). This scholarship would ease the burden of tuition, allowing me to fully focus on my education and research development so I can continue advocating for inclusive, patient-centered care in O&P. I’m currently pursuing my master’s degree with a focus on applying markerless motion capture to analyze amputee biomechanics. My goal is to quickly analyze data, giving CPOs insights to track patient progress, personalize physical therapy regimens, and improve overall patient care. Beyond improving clinical tools, I want to be a visible force for change. When women (whether patients, students, or clinicians) see me working with advanced technology, I want them to feel empowered, not intimidated. Too often, women are made to feel like they don’t belong in highly technical or research-driven roles. I want to break that trend. I want them to see me and think, “I could do that too.” And the more of us there are in these roles, the more inclusive and innovative healthcare will become.

In 1990, my dad fell off a 52-foot building. After a long and painful recovery, he returned to work. Nine years later, an industrial gate crushed him. The injuries left him disabled, the pain managed only through a series of back and bone surgeries that kept him walking but changed his life forever. Despite what happened, he never stopped pushing forward. He focused on rebuilding his strength even when doctors told him he wouldn’t return to work. Watching my father fight through those challenges, I learned what it meant to be resilient. I share my dad’s determination, strong will, unshakable sense of purpose, and his name. At 13, I was diagnosed with scoliosis. Without surgery, doctors warned I would be on oxygen by the age of 18. On July 11 at the age of 14, surgeons inserted two 15-inch metal rods, screws, and cadaver material into my back. My spine is now fused and strong. The scar that runs down my back is a symbol of my perseverance. Just as my dad’s injuries changed the course of his life, my own medical journey helped define mine. That’s what led me to the world of orthotics and prosthetics (O&P), and now, to biological engineering with a focus on biomechanics. For the past four years, I’ve worked in O&P clinics and observed how prosthetics can restore not just mobility, but dignity. I’ve also seen how much better care could be with more data-driven decision-making and modern engineering. I want to be a part of that change. Neither of my parents attended college. My dad began working in construction and welding as a teenager. He was skilled and respected by his bosses. After his injuries and without a degree, his options were painfully limited. My mom worked hard as a substitute teacher and school secretary, but also faced constraints due to a lack of higher education. The same reality exists in the O&P world. Most of the clinicians I’ve worked with are not college-educated. Many learned their trade through hands-on experience and became some of the best in the field. Despite their skill and heart, they’re often overlooked, undervalued, and left without other options. That’s what pushed me toward higher education. I want to build on what I love while creating both stability for myself and credibility in a field that needs change. As a first-generation college student, I didn’t have parents or mentors who could guide me through applications or class schedules. I leaned on high school teachers, combed through websites, and sent countless emails and made endless phone calls to universities. I relied on my state’s financial aid and every scholarship I could find, as my parents had no retirement/pension and relied on their own savings. When something wasn’t right with my financial package (and it often wasn’t), I had to fight to fix it. No one else was going to do it for me. My experiences forced me to learn how to advocate for myself, how to seek out support, and how to keep pushing forward. My own ambition is a fire lit by my experiences and fueled by the future I want to build. I chose college because I want more than survival. I want to grow, to innovate, and to give back. I’m working every day to shape a future where others (especially those who feel limited by their circumstances) can get the second chance they deserve. faced pain, uncertainty, and barriers that once felt insurmountable. Yet I’m still standing and still moving forward with the determination and strength to turn scars into purpose…and purpose into change.

I’ve been surrounded by suffering. My dad survived a 52-foot fall in 1990, only to be permanently disabled nine years later when an industrial gate collapsed on him. He’s lived with chronic pain ever since, and I’ve watched my parents face countless battles (from insurance to pharmacy to procedures). In 2001, I was born (and named after him), an answered prayer during one of their darkest times. At 14, I underwent scoliosis surgery, and while my dad feared the pain I’d endure, he knew it was necessary to prevent me being on oxygen at 18. I trusted that God would take care of me, and He did. July 11 marks the anniversary of the day surgeons fused my spine to two 15-inch metal rods, securing them with screws and cadaver material. Then in the summer of 2023, I was in a horrible car accident on the way to Sunday Mass. Looking at the mangled wreck, a Good Samaritan assumed the driver hadn’t survived. But once again, God had His hand on me. Miraculously, I walked away with nothing more than a few bruises and a seatbelt burn. In that moment, my first thought was: God still has work for me to do. My faith has motivated me to stay strong and always look for God in every situation. Through Him, I am empowered to keep going. People have asked how I stay hopeful, and that opens the door to share my faith. In those moments, I lead by showing what a life rooted in Christ looks like: grateful and purpose-driven. This faith-centered approach to leadership was once tested in an interview. I had listed my role as president of my high school’s National English Honor Society on my resume. One interviewer simply said, “I just don’t understand people that lead from behind.” No questions, just that. I explained how a good leader knows how to identify the strengths and weaknesses of those they’re responsible for (as well as their own) and provide tools and resources to build up others. Another interviewer commented on how cheerful and full of energy I was, despite the difficult circumstances in my life. I told them I have so much more to be grateful for than to complain about. (One of my middle names is Hope, and the first interviewer ended up calling me “Ms. Hope” for the rest of the interview.) Sometimes, leadership is just being faithful and full of grace in unexpected situations. One of the most meaningful opportunities I’ve had to lead through faith came at Magnolia Medical, where I gained hands-on experience in the world of prosthetics. I learned what it means to show up for someone. I watched my mentors accompany patients to physical therapy or in-home visits, serve those without transportation, and advocate for their needs. My faith has led me to believe that leadership is about service. It’s about walking alongside people in their pain, helping them regain confidence, and fighting for their dignity when others overlook them. Now, as a master’s student, I’m developing a markerless motion capture system that quantifies joint angles, forces, and ground reaction forces in amputees. The goal is to give clinicians a low-cost tool they can easily use in practice to improve personalized treatment, track progress, and even help with insurance approvals. Beyond the technology, I hope to build a stronger community around patient care involving clinicians, therapists, families, and support networks. This vision is directly shaped by my faith and the example Jesus set of serving those in need, uplifting the poor in spirit, and inspiring others to do the same.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring that individuals with limb loss receive functional prostheses AND compassionate support. My Bachelor’s in Biological Engineering, coupled with a minor in Robotics, has given me the foundational knowledge I need. Now, my Master’s in Mechanical Engineering is helping me develop innovative, accessible solutions that improve the quality of life for amputees and underserved populations. Volunteering at Magnolia Medical, I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. I learned essential skills such as modifying molds, pulling test sockets, and constructing various types of prostheses. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. I witnessed the clinicians going above and beyond for their patients, accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation. I realized that patients aren’t concerned with the engineering intricacies of their prostheses; they care about being treated with respect and compassion. This understanding reinforced the importance of being a friend, a listening ear, and a source of support for those navigating their new realities. In college, I became fascinated by the engineering applications in healthcare, using machines, programs, and advanced tools. I was torn between pursuing a career as a certified prosthetist and orthotist (CPO) and designing the components for prosthetics, like sensors for myoelectric arms and feedback loops for adjustable ankles. I began coding MATLAB programs for Ochsner’s Physical Therapy and Wellness Center to help clinicians and therapists access clear, actionable data without sifting through millions of data points. Marker-based motion capture technology was a fascinating way to study an individual’s biomechanics. I wanted to apply this to orthotics and prosthetics to assist CPOs. I am currently pursuing my master’s to leverage markerless motion capture technologies, utilizing pose estimation algorithms to collect data from O&P patients. I will quickly and efficiently analyze this data, providing CPOs with real-time insights to track patient progress, personalize physical therapy regimens, and ultimately improve patient care. I also aim to streamline the process for insurance approvals, helping reduce wait times for the equipment patients need. By combining cutting-edge technology with practical applications in O&P, I hope to make a meaningful impact on both the clinical and administrative aspects of patient care in this field. Long-term, I hope my efforts lead to better patient outcomes, policy changes that improve insurance coverage, clinician recruitment, and retention rates. This scholarship will support me academically and professionally, providing the resources I need to continue growing what I’ve been given and to give it back to my community. I’m reminded of the Parable of the Talents: A man entrusted his possessions to his servants. Two of them took their “talents” and multiplied them, while another buried his, afraid to take risks. The master was pleased with the first two and rewarded them with greater responsibilities, while the third had his talent taken away and given to one of the others who had proven capable of growth. This parable serves as a reminder that success is about how we choose to use what we are given. We are given opportunities…not to hoard, but to cultivate and share. Financial support would allow me to continue my research and advance solutions that improve patient care and accessibility in O&P. Just as the master entrusted his servants with talents, I have been entrusted with unique abilities. It is my responsibility to cultivate these gifts, maximize their impact, and pay it forward.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care, ensuring that individuals with limb loss receive functional prostheses AND compassionate support. My Bachelor’s in Biological Engineering, coupled with a minor in Robotics, has given me the foundational knowledge I need. Now, my Master’s in Mechanical Engineering is helping me develop innovative, accessible solutions that improve the quality of life for amputees. Through my academic work, I am laying the groundwork for a future where technology and empathy intersect to make meaningful strides in the O&P field. Through my volunteering experience at Magnolia Medical, I contributed to the well-being of patients while gaining invaluable insights into resilience, empathy, and the significance of human connection. I learned essential skills such as modifying molds, pulling test sockets, and constructing various types of prostheses. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. I witnessed the clinicians going above and beyond for their patients, accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation. I realized that patients aren’t concerned with the engineering intricacies of their prostheses; they care about being treated with respect and compassion. During my undergraduate career, I became fascinated by the engineering applications in healthcare, using machines, programs, and advanced tools. I was torn between pursuing a career as a certified prosthetist and orthotist (CPO) and designing the components for prosthetics, like sensors for myoelectric arms and feedback loops for adjustable ankles. I began coding MATLAB programs for Ochsner’s Physical Therapy and Wellness Center to help clinicians and therapists access clear, actionable data without sifting through millions of data points. Marker-based motion capture technology was a fascinating way to study an individual’s biomechanics. I wanted to apply this to orthotics and prosthetics to assist CPOs. My goal is to strengthen the O&P field in Louisiana by improving patient care, increasing insurance coverage, and advocating for policies that support both clinicians and those they serve. I am currently pursuing my master’s to leverage markerless motion capture technologies, utilizing pose estimation algorithms to collect data from O&P patients. I will quickly and efficiently analyze this data, providing CPOs with real-time insights to track patient progress, personalize physical therapy regimens, and ultimately improve patient care. I also aim to streamline the process for insurance approvals, helping reduce wait times for the equipment patients need. By combining cutting-edge technology with practical applications in O&P, I hope to make a meaningful impact on both the clinical and administrative aspects of patient care in this field. Beyond technology, I plan to advocate for patients by hosting free educational workshops at community centers. These sessions would help patients understand their insurance, ask the right questions, and navigate the approval process more efficiently, such as knowing what documentation they need and how to communicate effectively with insurance providers. In addition to insurance advocacy, I want to host seminars on research, development, and general care practices (such as the importance of wearing shrinkers, adjusting sock layers throughout the day, and following clinicians’ instructions). Financial support would allow me to continue my research and advance solutions that improve patient care and accessibility in O&P. My journey has evolved from aspiring to be a CPO to developing quantitative methods that revolutionize patient care and insurance coverage. It is my responsibility to cultivate my talents, maximize their impact, and pay it forward. I know this is a lifelong mission, and I am ready to continue my journey.

From a young age, I was taught to dream big and work hard to turn those dreams into reality. As I reflect on my journey, I realize my dreams were never mine alone. I am where I am today because of mentorship, emotional support, financial help, and unwavering belief… and because of a God who has faithfully guided each step. I am worth my dreams because I’ve been entrusted with them. And now, it’s my responsibility to multiply what I’ve been given. That belief became clear during my sophomore year of college when I began volunteering at Magnolia Medical, an orthotics and prosthetics (O&P) company. I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. I witnessed the clinicians going above and beyond for their patients (accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation). I also observed challenges amputees face beyond their physical mobility, from navigating insurance barriers to accessing personalized rehabilitation. These experiences reinforced my belief that engineering solutions in healthcare must be both technically sound and deeply human-centered. For a long time, I wanted to become a Certified Prosthetist-Orthotist (CPO) and serve the O&P community. But along the way, God placed people in my life who saw something else in me. After much reflection on my experiences, I am now pursuing my master’s degree with the goal of revolutionizing the field of O&P. My research focuses on leveraging markerless motion capture technologies, using pose estimation algorithms to quantify joint angles, joint forces, and ground reaction forces in amputees. By comparing these results to gold-standard methods (foot force plates and traditional marker-based motion capture systems), I aim to bridge a significant data gap in the field of O&P. By providing clinicians with a validated, markerless system, I hope to equip CPOs with a cost-effective solution that can be easily integrated into clinical practice, making quantitative mobility analysis more accessible and actionable. Validating this system for O&P would represent a paradigm shift in how amputee mobility is assessed and managed, ultimately leading to more personalized, data-driven, and effective treatments for patients with limb loss. My goal is to quickly and efficiently analyze data, giving CPOs real-time insights to track patient progress, personalize physical therapy regimens, and improve overall patient care. I also aim to streamline the insurance approval process, helping reduce wait times for the equipment patients need. I also want to build a coalition that elevates the respect and recognition of the O&P field, fostering stronger connections among clinicians, patients, physical therapists, support networks, and insurance providers. By combining cutting-edge innovation with practical clinical applications, I strive to make a lasting impact on the medical and administrative sides of patient care. This scholarship would allow me to continue growing what I’ve been given and to give it back (just like in the Parable of the Talents). In that story, two servants multiplied what their master gave them, while a third hid his out of fear. The master honored the two who took risks, invested wisely, and produced growth. I see myself in that story. God has entrusted me with a unique set of talents, and I will not bury them. I will cultivate them, multiply them, and share them. I am worth my dreams because I’ve shown up with grit, grace, and gratitude. But more importantly, I am worth my dreams because I’ve been given them. Now, it’s up to me to make them matter.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care—ensuring that individuals with limb loss receive functional prostheses AND compassionate support. My Bachelor’s in Biological Engineering, coupled with a minor in Robotics, has given me the foundational knowledge I need. Now, my Master’s in Mechanical Engineering is helping me develop innovative, accessible solutions that improve the quality of life for amputees and underserved populations. Through my academic work, I am laying the groundwork for a future where technology and empathy intersect to make meaningful strides in the O&P field. An engaged citizen actively participates in their community, advocating for those who may not have the voice or means to do so themselves. This commitment goes beyond participation; it involves understanding and addressing the needs of individuals facing challenges, such as the elderly, disabled, or underserved populations. As an engineer in the medical field, I believe in creating positive change by leveraging my technical skills and resources to bridge gaps in healthcare, education, and social services. I am committed to ensuring that these communities have equitable access to support. My academic journey has been one of self-discovery and purpose. I began college as a biological engineering student, and by my sophomore year, I focused on O&P. Volunteering at Magnolia Medical was a pivotal experience where I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. Throughout my time there, I learned essential skills such as modifying molds, pulling test sockets, and constructing various types of prostheses. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. Through my volunteering experience at Magnolia Medical, I contributed to the well-being of patients while gaining invaluable insights into resilience, empathy, and the significance of human connection. I witnessed the clinicians going above and beyond for their patients, accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation. I realized that patients aren’t concerned with the engineering intricacies of their prostheses; they care about being treated with respect and compassion. I was particularly influenced by one of my mentors, a prosthetist who is also an amputee. He lost his leg to a gunshot wound during an accident, and his journey has shaped him into one of the best prosthetists I know. His unique perspective allowed him to empathize with patients on a deep level. He taught me that losing a limb is akin to losing a family member; the physical challenges are daunting, but the psychological toll can be even heavier. He emphasized that amputees are not just patients or individuals with a disability; they are mourners experiencing a significant loss. This understanding reinforced the importance of being a friend, a listening ear, and a source of support for those navigating their new realities. In my senior year of college, I became fascinated by the engineering applications in healthcare, using machines, programs, and advanced tools. I was torn between pursuing a career as a certified prosthetist and orthotist (CPO) and designing the components for prosthetics, like sensors for myoelectric arms and feedback loops for adjustable ankles. I began coding MATLAB programs for Ochsner’s Physical Therapy and Wellness Center to help clinicians and therapists access clear, actionable data without sifting through millions of data points. Marker-based motion capture technology was a fascinating way to study an individual’s biomechanics. I wanted to apply this to orthotics and prosthetics to assist CPOs. During my third summer at Magnolia Medical, I was exposed to the administrative side and insurance challenges of O&P healthcare. For three summers, I gained insight into the field and the challenges it faces. Twice, I attended the LAOP Conference in Baton Rouge, where I spoke with clinicians from across Louisiana, deepening my understanding of the struggles they and their patients face. My goal is to bring more respect to the O&P field in Louisiana and its clinicians by improving patient care, increasing insurance coverage, and advocating for policies that support both clinicians and those they serve. I want to create a future where O&P is viewed with the same respect and awe as other medical disciplines, attracting new talent and retaining experienced clinicians. A key part of this effort involves advanced technology. I am currently pursuing my master’s to leverage markerless motion capture technologies, utilizing pose estimation algorithms to collect data from O&P patients. I will quickly and efficiently analyze this data, providing CPOs with real-time insights to track patient progress, personalize physical therapy regimens, and ultimately improve patient care. I also aim to streamline the process for insurance approvals, helping reduce wait times for the equipment patients need. By combining cutting-edge technology with practical applications in O&P, I hope to make a meaningful impact on both the clinical and administrative aspects of patient care in this field. Beyond technology, I plan to advocate for patients by hosting free educational workshops at community centers. These sessions would help patients understand their insurance, ask the right questions, and navigate the approval process more efficiently, such as knowing what documentation they need and how to communicate effectively with insurance providers. In addition to insurance advocacy, I want to host seminars on research, development, and general care practices (such as the importance of wearing shrinkers, adjusting sock layers throughout the day, and following clinicians’ instructions to ensure optimal prosthetic use and mobility). I also want to foster a sense of community among O&P patients by expanding access to support groups and helping individuals form camaraderie. Many people don’t even realize O&P exists as a career path. I want to change that by organizing outreach events. I would set up booths at community events, festivals, career fairs, and health fairs to spread the word about the need for O&P clinicians. I’d love to host biomechanics events at middle and high schools with hands-on activities like casting a friend’s leg, making a plaster mold, assembling sockets, and measuring range of motion using a goniometer to inspire future generations to join the field. If I ever become financially able, I’d fund scholarships (like this one) for students pursuing careers in O&P, biomechanics, mechatronics, or biological engineering. I’d also offer scholarships through science and engineering fairs and provide financial assistance to amputees who need to pay out of pocket for essential equipment. Long-term, I hope these efforts lead to policy changes that improve insurance coverage, clinician recruitment, and retention rates. By bringing structure, advocacy, and innovation to O&P, I want to transform it into a field recognized as a vital, respected discipline. This scholarship will support me academically and professionally, providing the resources I need to continue growing what I’ve been given and to give it back to God by serving His people. I’m reminded of the Parable of the Talents: A man entrusted his possessions to his servants. Two of them took their “talents” and multiplied them, while another buried his, afraid to take risks. The master was pleased with the first two and rewarded them with greater responsibilities, while the third had his talent taken away and given to one of the others who had proven capable of growth. This parable serves as a reminder that success is about how we choose to use what we are given. We are given opportunities—not to hoard, but to cultivate and share. Financial support would allow me to continue my research and advance solutions that improve patient care and accessibility in O&P. My journey, from volunteering at a clinic to interning for three summers, has evolved from aspiring to be a CPO to developing quantitative methods that revolutionize patient care and insurance coverage. Just as the master entrusted his servants with talents, God has entrusted me with unique abilities. It is my responsibility to cultivate these gifts, maximize their impact, and pay it forward. I know this is a lifelong mission, but with God's grace, I am ready. Here I am, Lord. Is it I, Lord? I have heard you calling in the night I will go, Lord, if you lead me I will hold your people in my heart

God has blessed my family in so many ways. In 1990, my dad fell from a 52-foot building. After recovery, he returned to work, but nine years later, an industrial gate fell on him, leaving him permanently disabled. He underwent multiple surgeries to be able to walk, yet he lives with chronic pain. Neither of my parents went to college, and with my dad on disability, they had to stretch the little finances they had. When my sisters went to college in 1998 and 2000, my family felt blessed that they received scholarships, which allowed them to pursue their education and become successful. During this time, my dad struggled mentally and physically, and my mom prayed for something that would bring him joy again. In 2001, I was born…and named after him. In high school, everything felt exciting and full of possibility…until the summer of 2016. At 14 years old, I underwent scoliosis surgery. Everyone around me was incredibly nervous. My dad, having gone through multiple back surgeries himself, knew the pain, the struggles, and the limitations that came with it. As much as he didn’t want that for his namesake daughter, he also didn’t want me to end up on oxygen by the time I was 18. Despite the uncertainty, I trusted that God would take care of me. I wasn’t afraid. July 11 marks the anniversary of the day surgeons fused my spine to two 15-inch metal rods, securing them with screws and cadaver material. Now, I am healthy and ready to do God’s will. During my freshman year of high school, I started dating my boyfriend. He knew that my mom and I attended Mass every weekend, and when he showed interest, I invited him to join us. For about a year and a half, he attended Mass with us regularly. Eventually, he decided to enter the RCIA program, and he was initiated into the Church (with me as his sponsor). When I asked him what led him to join, he said it felt right. He had seen how content and at peace I was, and I had always told him that it was because of God’s work in my life. When I was confirmed in 2019, I knew it wasn’t the end of my religious education but the beginning of a deeper relationship with God, a lifelong journey to discover His plan for me. I asked for the gifts of wisdom and counsel. Wisdom would allow me to exercise sound judgment and uphold truth and justice, while counsel would enable me to guide, teach, and encourage those who feel lost or uncertain. It would also help me receive constructive criticism with humility and use it for growth. Throughout high school, I was recognized for my accomplishments, but I began to realize that my success wasn’t just the result of my hard work…something far greater was at play. That’s when I recognized that this was one of God’s gifts to me: the ability to learn and succeed academically. I started to see that every award, recognition, and opportunity I received was not by my own doing but by God’s grace. I saw Him in my work, and He saw me. He had seen me since the beginning—since before the beginning. During my sophomore year of college, I began volunteering at Magnolia Medical, an orthotics and prosthetics (O&P) company. I quickly fell in love with the work, the staff, and the patients. That summer, they offered me a job, and I was beyond excited, but there was one problem: I had nowhere to stay in Baton Rouge. On Mother’s Day weekend, my sisters, their husbands, and I were at my parents' house when my brother-in-law mentioned that he had a friend who owned rental townhouses in Baton Rouge. He made a phone call, and just like that, I had a place to live for the summer. Everything fell into place so perfectly that I knew it wasn’t just coincidence. I firmly believe God meant for me to work at Magnolia. That first summer turned into something even greater. I returned to Magnolia Medical for the summers of 2023 and 2024, continuing to learn and grow in a field I had come to love. During the summer of 2023, I was in a horrible car accident when I was on my way to Sunday Mass. Looking at the mangled wreck, a Good Samaritan assumed the driver hadn’t survived. But once again, God had His hand on me. Miraculously, I walked away with nothing more than a few bruises and a seatbelt burn. No broken bones, no fractures. The moment the crash happened, my first thought was: Do I still have my legs? My second thought: God still has work for me to do. And I truly believed part of that work was continuing in O&P—to help those who have lost limbs, whether in car accidents or through other circumstances. At Magnolia Medical, I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. I witnessed the clinicians going above and beyond for their patients—accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation. I also observed challenges amputees face beyond their physical mobility, from navigating insurance barriers to accessing personalized rehabilitation. These experiences reinforced my belief that engineering solutions in healthcare must be both technically sound and deeply human-centered. For a long time, I wanted to become a Certified Prosthetist-Orthotist (CPO) and serve the O&P community. But along the way, God placed people in my life who saw something else in me (my mentors and bosses, my family and friends, and my professors in LSU’s Biological and Mechanical Engineering departments). After much reflection on my experiences, I am now pursuing my master’s degree with the goal of revolutionizing the field of O&P. My research focuses on leveraging markerless motion capture technologies, using pose estimation algorithms to quantify joint angles, joint forces, and ground reaction forces in amputees. By comparing these results to gold-standard methods (foot force plates and traditional marker-based motion capture systems), I aim to bridge a significant data gap in the field of O&P. By providing clinicians with a validated, markerless system, I hope to equip CPOs with a cost-effective solution that can be easily integrated into clinical practice, making quantitative mobility analysis more accessible and actionable. Validating this system for O&P would represent a paradigm shift in how amputee mobility is assessed and managed, ultimately leading to more personalized, data-driven, and effective treatments for patients with limb loss. My goal is to quickly and efficiently analyze data, giving CPOs real-time insights to track patient progress, personalize physical therapy regimens, and improve overall patient care. I also aim to streamline the insurance approval process, helping reduce wait times for the equipment patients need. Beyond technology, I want to build a coalition that elevates the respect and recognition of the O&P field, fostering stronger connections among clinicians, patients, physical therapists, support networks, and insurance providers. By combining cutting-edge innovation with practical clinical applications, I strive to make a lasting impact on both the medical and administrative sides of patient care. Looking back, I see clearly that the Holy Spirit has indeed blessed me with wisdom and counsel, guiding me every step of the way. This scholarship will support me academically and professionally, providing the resources I need to continue growing what I’ve been given and to give it back to God by serving His people. I’m reminded of the Parable of the Talents: A man entrusted his possessions to his servants. Two of them took their “talents” and multiplied them, while another buried his, afraid to take risks. The master was pleased with the first two and rewarded them with greater responsibilities, while the third had his talent taken away and given to one of the others who had proven capable of growth. This parable serves as a reminder that success is about how we choose to use what we are given. We are given opportunities—not to hoard, but to cultivate and share. Financial support would allow me to continue my research and advance solutions that improve patient care and accessibility in O&P. My journey, from volunteering at a clinic to interning for three summers, has evolved from aspiring to be a CPO to developing quantitative methods that revolutionize patient care and insurance coverage. Just as the master entrusted his servants with talents, God has entrusted me with unique abilities. It is my responsibility to cultivate these gifts, maximize their impact, and pay it forward. Here I am, Lord. Is it I, Lord? I have heard you calling in the night I will go, Lord, if you lead me I will hold your people in my heart

For three summers, I worked at an orthotics and prosthetics (O&P) clinic, gaining insight into the field and the challenges it faces. Twice, I attended the LAOP Conference in Baton Rouge, where I spoke with clinicians from across Louisiana, deepening my understanding of the struggles they and their patients face. My goal is to bring more respect to the O&P field in Louisiana and its clinicians by improving patient care, increasing insurance coverage, and advocating for policies that support both clinicians and those they serve. I want to create a future where O&P is viewed with the same respect and awe as other medical disciplines, attracting new talent and retaining experienced clinicians. A key part of this effort involves leveraging technology. I am pursuing my master’s to integrate markerless motion capture technologies into clinical practice, using pose estimation algorithms to quantify joint angles, joint forces, and ground reaction forces in amputees. By providing CPOs with a validated, cost-effective system, I aim to make quantitative mobility analysis more accessible, enabling data-driven decisions for patient care. This will also streamline insurance approvals, reducing wait times for essential equipment. Beyond technology, I plan to advocate for patients by hosting free educational workshops at community centers. These sessions would help patients understand their insurance, ask the right questions, and navigate the approval process more efficiently, such as knowing what documentation they need and how to communicate effectively with insurance providers. In addition to insurance advocacy, I want to host seminars on research, development, and general care practices (such as the importance of wearing shrinkers, adjusting sock layers throughout the day, and following clinicians’ instructions to ensure optimal prosthetic use and mobility). I also want to foster a sense of community among O&P patients by expanding access to support groups and helping individuals form camaraderie. Many people don’t even realize O&P exists as a career path. I want to change that by organizing outreach events. I would set up booths at community events, festivals, career fairs, and health fairs to spread the word about the need for O&P clinicians. I’d love to host biomechanics events at middle and high schools with hands-on activities like casting a friend’s leg, making a plaster mold, assembling sockets, and measuring range of motion using a goniometer to inspire future generations to join the field. If I ever become financially able, I’d fund scholarships (like this one) for students pursuing careers in O&P, biomechanics, mechatronics, or biological engineering. I’d also offer scholarships through science and engineering fairs and provide financial assistance to amputees who need to pay out of pocket for essential equipment. Long-term, I hope these efforts lead to policy changes that improve insurance coverage, clinician recruitment, and retention rates. By bringing structure, advocacy, and innovation to O&P, I want to transform it into a field recognized as a vital, respected discipline. I know this is a lifelong mission, but I am ready to build it.

My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care—ensuring that individuals with limb loss receive functional prostheses AND compassionate support. With a Bachelor’s in Biological Engineering and a minor in Robotics, my Master’s in Mechanical Engineering focuses on using my skills to develop innovative, accessible solutions that improve the quality of life for amputees and underserved populations. At Magnolia Medical, I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. I witnessed the clinicians going above and beyond for their patients—accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation. I also observed challenges amputees face beyond their physical mobility, from navigating insurance barriers to accessing personalized rehabilitation. These experiences reinforced my belief that engineering solutions in healthcare must be both technically sound and deeply human-centered. Knowledge gained from my Biomechanics lectures and my volunteer experience provided invaluable insight for my term project in Assistive Robotics. My team and I designed a teleoperated AFO aimed at helping drop-foot patients in rural areas or those lacking transportation receive necessary adjustments in their homes. The goal was for an orthotist to control the angle of flexion or extension of the AFO via an app on their phone while the patient remained at home. Despite time constraints, we managed to develop a pseudo-working prototype! As I began to explore how my classroom learning could impact patient care, I found myself gravitating toward biomechanics as a potential career path, driven by the desire to implement engineering solutions to improve patient outcomes. Quantitative motion analysis is a missing (yet critical) component in O&P clinical workflows. Currently, clinicians rely on visual gait observation, patient-reported feedback, and AMP tests to evaluate amputee mobility. However, these methods lack precision, consistency, and detailed biomechanical insight. The gold-standard alternatives, such as motion capture labs equipped with marker-based systems and force plates, are costly, time-consuming, and impractical for widespread clinical use. Additionally, the lack of quantifiable data can delay insurance approvals, preventing patients from receiving the prosthetic devices or physical therapy they need in a timely manner. A validated markerless motion capture system, capable of providing clinically relevant data, would revolutionize amputee care by offering an objective, scalable, and cost-effective solution. I am currently pursuing my master’s to leverage markerless motion capture technologies, using pose estimation algorithms to quantify joint angles, joint forces, and ground reaction forces in amputees. By comparing these results to gold-standard methods—foot force plates and traditional marker-based motion capture systems—I aim to bridge a significant data gap in the field of O&P. By providing clinicians with a validated, markerless system, I hope to equip CPOs with a cost-effective solution that can be easily integrated into clinical practice, making quantitative mobility analysis more accessible and actionable. Validating this system for O&P would represent a paradigm shift in how amputee mobility is assessed and managed, ultimately leading to more personalized, data-driven, and effective treatments for patients with limb loss. My goal is to quickly and efficiently analyze data, giving CPOs real-time insights to track patient progress, personalize physical therapy regimens, and improve overall patient care. I also aim to streamline the insurance approval process, helping reduce wait times for the equipment patients need. By combining cutting-edge technology with practical applications in O&P, I hope to make a meaningful impact on both the clinical and administrative aspects of patient care.

An engaged citizen not only recognizes the needs of their community but also takes action to address them. My journey into orthotics and prosthetics (O&P) began with a desire to bridge the gap between engineering and patient care—ensuring that individuals with limb loss receive functional prostheses AND compassionate support. While volunteering at Magnolia Medical, I witnessed firsthand the challenges amputees face beyond their physical mobility, from navigating insurance barriers to accessing personalized rehabilitation. These experiences reinforced my belief that engineering solutions in healthcare must be both technically sound and deeply human-centered. With a Bachelor’s in Biological Engineering and a minor in Robotics, I am committed to leveraging my skills to develop innovative, accessible solutions that improve the quality of life for amputees and underserved populations. At Magnolia Medical, I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. Throughout my time there, I learned essential skills such as modifying molds, pulling test sockets, and constructing various types of prostheses. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. I witnessed the clinicians going above and beyond for their patients—accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation. I realized that patients aren’t concerned with the engineering intricacies of their prostheses; they care about being treated with respect and compassion. Quantitative motion analysis is a missing (yet critical) component in O&P clinical workflows. Currently, clinicians rely on visual gait observation, patient-reported feedback, and AMP tests to evaluate amputee mobility. However, these methods lack precision, consistency, and detailed biomechanical insight. The gold-standard alternatives, such as motion capture labs equipped with marker-based systems and force plates, are costly, time-consuming, and impractical for widespread clinical use. This leads to a significant gap in the ability to track patient progress, optimize prosthetic designs, and justify medical necessity to insurance providers. Additionally, the lack of quantifiable data can delay or deny insurance approvals, preventing patients from receiving the prosthetic devices or physical therapy they need in a timely manner. A validated markerless motion capture system, capable of providing clinically relevant data, would revolutionize amputee care by offering an objective, scalable, and cost-effective solution. I am currently pursuing my master’s to leverage markerless motion capture technologies, using pose estimation algorithms to quantify joint angles, joint forces, and ground reaction forces in amputees. By comparing these results to gold-standard methods—foot force plates and traditional marker-based motion capture systems—I aim to bridge a significant data gap in the field of O&P. There is a lack of numerical data to objectively assess patient mobility. By providing clinicians with a validated, markerless system, I hope to equip CPOs with a cost-effective solution that can be easily integrated into clinical practice, making quantitative mobility analysis more accessible and actionable. Validating OpenCap for O&P would represent a paradigm shift in how amputee mobility is assessed and managed, ultimately leading to more personalized, data-driven, and effective treatments for patients with limb loss. My goal is to quickly and efficiently analyze data, giving CPOs real-time insights to track patient progress, personalize physical therapy regimens, and improve overall patient care. I also aim to streamline the insurance approval process, helping reduce wait times for the equipment patients need. By combining cutting-edge technology with practical applications in O&P, I hope to make a meaningful impact on both the clinical and administrative aspects of patient care. As I move forward, I carry with me the invaluable lessons of service, advocacy, and the power of community.

Like many middle school girls, I dreamed of becoming a forensic scientist. I was captivated by high-profile unsolved cases like JonBenét Ramsey, Jack the Ripper, and Lizzie Borden. I devoured books such as The Cases That Haunt Us by John Douglas, former chief of the FBI. My interest initially veered toward criminal psychology, but as I dug deeper into the cases, I found myself drawn more to forensic science, especially the process of collecting evidence from crime scenes. To gain some hands-on experience, I shadowed an investigator at the New Orleans drug lab for a day. While the experience was exciting, it revealed an important truth: the people who collect the evidence aren’t always the ones who analyze it. Often, different pieces of evidence are sent to various departments, with multiple experts examining specific aspects of a case. In high school, I considered forensic pathology, where I would perform autopsies and determine the cause of death using evidence. Before my senior year, I was accepted into the STAR (Science, Technology, Academics, and Research) program at Ochsner in New Orleans, a one-month program with shadowing opportunities. I shadowed two pathologists, and while their work was fascinating, it mostly involved looking at cells through a microscope in a small room. I realized I wanted to work on bigger projects, using my hands, getting involved in the investigation, using my brain to come up with interesting theories. I discovered that pathology relied heavily on pattern recognition, which I admired, but it wasn’t the hands-on, dynamic work I was seeking. During my senior year, I took a dual-enrollment introductory engineering class at LSU, where I explored various engineering fields. The one that intrigued me most was biological engineering. Its broad scope allowed for work in medicine, agriculture, cancer research, and biomechanics. I began college as a biological engineering student, and by my sophomore year, I focused on orthotics and prosthetics (O&P). Over three summers, I interned at Magnolia Medical (an O&P company), which solidified my goal of becoming a certified prosthetist and orthotist (CPO). In my senior year of college, I became fascinated by the engineering applications in healthcare, using machines, programs, and advanced tools. I was torn between pursuing a career as a CPO and designing the components for prosthetics, like sensors for myoelectric arms and feedback loops for adjustable ankles. I began coding MATLAB programs for Ochsner’s physical therapy and wellness center to help clinicians and therapists access clear, actionable data without sifting through millions of data points. Marker-based motion capture technology was a fascinating way to study an individual’s biomechanics. I wanted to apply this to orthotics and prosthetics to assist CPOs. During my third summer at Magnolia Medical, I was exposed to the administrative side and insurance challenges of O&P healthcare. I decided to explore markerless motion capture technology to collect data from O&P patients. However, this approach hasn’t been done before, with one inconclusive study published in December 2024. I am currently pursuing my master’s to leverage markerless motion capture technologies, utilizing pose estimation algorithms to collect data from O&P patients. My goal is to quickly and efficiently analyze this data, providing CPOs with real-time insights to track patient progress, personalize physical therapy regimens, and ultimately improve patient care. I also aim to streamline the process for insurance approvals, helping reduce wait times for the equipment patients need. By combining cutting-edge technology with practical applications in O&P, I hope to make a meaningful impact on both the clinical and administrative aspects of patient care in this field.

An engaged citizen actively participates in their community, advocating for those who may not have the voice or means to do so themselves. This commitment goes beyond participation; it involves understanding and addressing the needs of individuals facing challenges, such as the elderly, disabled, or underserved populations. We should work to create positive change by leveraging our skills and resources to bridge gaps in healthcare, education, and social services, ensuring equitable access to support. I had the profound opportunity to volunteer at Magnolia Medical, where I gained hands-on knowledge about treating amputees and fabricating prosthetic limbs. Throughout my time there, I learned essential skills such as modifying molds, pulling test sockets, and constructing various types of prostheses. My mentors illustrated that being an engineer in the medical field transcends numbers and data; it requires a personal touch to truly connect with patients. Through my volunteering experience at Magnolia Medical, I contributed to the well-being of patients while gaining invaluable insights into resilience, empathy, and the significance of human connection. I witnessed the clinicians going above and beyond for their patients—accompanying them to physical therapy or medical appointments, or providing in-home care for those without transportation. I realized that patients aren’t concerned with the engineering intricacies of their prostheses; they care about being treated with respect and compassion. I was particularly influenced by one of my mentors, a prosthetist who is also an amputee. He lost his leg to a gunshot wound during an accident, and his journey has shaped him into one of the best prosthetists I know. His unique perspective allowed him to empathize with patients on a deep level. He taught me that losing a limb is akin to losing a family member; the physical challenges are daunting, but the psychological toll can be even heavier. He emphasized that amputees are not just patients or individuals with a disability; they are mourners experiencing a significant loss. This understanding reinforced the importance of being a friend, a listening ear, and a source of support for those navigating their new realities. My experiences at Magnolia Medical significantly influenced my academic work. Knowledge gained from my Biomechanics lectures and my volunteer experience provided invaluable insight for my term project in Assistive Robotics. My team and I designed a teleoperated AFO aimed at helping drop-foot patients in rural areas or those lacking transportation receive necessary adjustments in their homes. The goal was for an orthotist to control the angle of flexion or extension of the AFO via an app on their phone while the patient remained at home. Despite time constraints, we managed to develop a pseudo-working prototype! As I began to explore how my classroom learning could impact patient care, I found myself gravitating toward biomechanics as a potential career path, driven by the desire to leverage engineering solutions to improve patient outcomes. Through research, innovation, and patient-centered care, I aim to create assistive devices and systems that address the unique needs of individuals, particularly those with limited access to advanced care. My work will reflect both technical expertise and a dedication to inclusivity, ensuring that those I serve feel supported and valued. I aspire to engineer innovative solutions for rehabilitation, internal muscle force analysis, and the development of prosthetics and orthotics. My career will be guided by the principles of empathy, resilience, and community engagement, as I seek to push the boundaries of what is possible in biomechanics. As I move forward, I carry with me the invaluable lessons of service, advocacy, and the power of community. Ultimately, my life’s goal is to be happy, healthy, and, above all, helpful.

I am reminded of the Parable of the Talents: A man entrusted his possessions to his servants. Two of them took their “talents” and multiplied them, while another buried his, afraid to take risks. The master was pleased with the first two and rewarded them with greater responsibilities, while the third had his talent taken away and given to one of the others who had proven capable of growth. This parable serves as a reminder that success is about how we choose to use what we are given. Success is Service. As stewards of our communities, we should strive to serve others with kindness and integrity. Small acts of service can create a ripple effect of positivity. Helping patients take their first steps with a prosthesis was more than just a technical process; it was about restoring their confidence and dignity. One patient recovering from an above-the-knee amputation, inspired me with her determination despite facing additional health challenges. Supporting her as she took her first steps in a test socket reinforced my belief that success isn’t measured by what we accomplish for ourselves but by how we uplift others. Success is Understanding. True success comes from empathy, patience, and making people feel valued. To create meaningful change, we must first understand the challenges people face. My work at an orthotics and prosthetics (O&P) clinic taught me that technical expertise alone is not enough in healthcare. My mentor, a prosthetist who had lost his own leg, once told me that amputation is not just a physical loss but an emotional one, akin to mourning a family member. Engineering precision matters, but understanding a patient’s emotional, financial, social, and psychological challenges is just as critical. Success is Commitment to action. Understanding alone is not enough. We must take deliberate steps toward positive change. Growth happens in discomfort, in the moments when we push beyond what is easy or familiar. Witnessing the challenges in O&P healthcare motivated me to begin my Master’s program, where I work on quantifying the O&P field to improve personalized healthcare plans and insurance coverage. My research reinforces my belief that true success lies in applying my knowledge and experiences to create real-world solutions. Success is Consistency. Whether in education, career, or relationships, showing up every day and striving for progress is what leads to meaningful accomplishments. Working at the O&P clinic for three summers, I remained committed to researching the field’s gaps and learning the nuances of patient care. Progress is not always linear, but persistence leads to meaningful accomplishments. Success is Extension. Looking beyond ourselves allows us to act with wisdom and purpose. We must think critically, analyze situations from all angles, and ensure that our actions align with our intentions. Inspired by the need for greater accessibility, I am now creating a business plan to support O&P patients in Louisiana. I aim to hold informational sessions at community and health centers, educate patients on their insurance rights, and establish support groups for those navigating the physical and financial challenges of prosthetic care. Success is about broadening my perspective and ensuring that my work truly serves those who need it. Success is Self-motivation. Striving for excellence means continuously pushing ourselves to grow academically, personally, and professionally. External validation is fleeting, but the drive to learn and improve sustains long-term success. My passion for biomechanics stems from this mindset. I seek to merge engineering with patient-centered care, using my skills to develop innovative solutions in O&P. Success is a Sum. As the Greek saying goes, “The whole is greater than the sum of its parts.” Success is an accumulation of experiences, values, and support of others. No one succeeds alone. Just as in the Parable of the Talents, we are given opportunities—not to hoard, but to cultivate and share. Investing in others creates a chain reaction of success that extends beyond the individual. Financial support would allow me to continue my research and advance solutions that improve patient care and accessibility in O&P. My journey, from volunteering at a clinic to interning for three summers, has evolved from aspiring to be a CPO to developing quantitative methods that revolutionize patient care and insurance coverage. Just as the master entrusted his servants with talents, I have been entrusted with unique abilities. My responsibility is to cultivate them, maximize their impact, and pay it forward.

I am determined to make a meaningful contribution to the orthotics and prosthetics (O&P) field and improve healthcare in Louisiana by developing technologies that enhance patient outcomes for amputees and those with musculoskeletal disabilities. Weighing roughly 16.68% of its owner’s body weight and spanning 47.9% of their height, the amputated leg in my hands symbolized more than a lost limb—it marked the beginning of my interests in biomechanics. As a specimen processor in Ochsner’s pathology department, one day, I received something unexpected: a large, heavy, red, and limp surgical bag. The leg was cold and firm, with the outline of a bony knee clearly discernible through the packaging. While receiving and handling amputated limbs isn’t a typical introduction to biomechanics, for me, it hallmarked my initial interest. It wasn’t until my work with Magnolia Medical that I realized the depth of potential in orthotics and prosthetics. I began shadowing in February 2022, and by my third visit, the clinicians let me grind down some old sockets. As a summer intern, I fabricated prosthetic legs and test sockets, laminated covers, and modified molds using cast saws to cut sockets. I also developed detailed prosthetic life care plans and calculated lifetime costs for prosthetic equipment and maintenance in collaboration with attorneys. My O&P mentors also taught me that sometimes, patients need a friend, someone to lend a hand (or a leg), to support them mentally as well as physically. As an LSU undergraduate research assistant, I conducted interviews with prosthetists and orthotists, insurance directors, and an orthopedic surgeon to explore how biomechanical data can assist the O&P field. Working with a markerless motion capture system, I developed a strong interest in analyzing internal muscle forces and motion data. My experience at Ochsner's Therapy and Wellness Center in Baton Rouge has reinforced my goal of improving data analysis for healthcare providers. I coded a MATLAB program that reduced a seven-hour data analysis process to just four minutes. Inspired by this experience, I aim to make data analysis quicker and more accurate for healthcare facilities, saving them time and resources while improving patient outcomes. My immediate goal as a graduate student is to compare OpenCap (markerless motion capture) data and traditional measurements from foot force plates and marker-based systems. I will analyze the joint angles and ground reaction forces to develop a normative model for amputees performing sit-to-stand movements. I hope to provide clinicians with more accurate data specific to amputees, improving patient care and decision-making. I am deeply committed to staying in Louisiana and strengthening the state’s healthcare system, particularly in the O&P field. With Louisiana ranking among the lowest in healthcare nationwide, there is a clear and urgent need for improvement, and I want to be part of that effort. Many talented professionals leave the state for better opportunities, but I believe we need to retain that talent to build a stronger future for Louisiana. Through my work, I hope to enhance the state’s healthcare landscape by fostering a collaborative community of researchers and clinicians dedicated to advancing patient care. My goal is to help bridge the gap in O&P care by providing affordable, timely, and high-quality care to underserved amputee populations, particularly in low-income communities and those dependent on disability services. Through data-driven innovation and biomechanical analysis, I am committed to improving patient outcomes, streamlining insurance authorization, and supporting clinical documentation, all while strengthening and elevating the O&P field in Louisiana.

Weighing roughly 16.68% of its owner’s body weight and spanning 47.9% of their height, the amputated leg in my hands symbolized more than a lost limb—it marked the beginning of my interests in biomechanics. As a specimen processor in Ochsner’s pathology department, one day, I received something unexpected: a large, heavy, red, and limp surgical bag. The leg was cold and firm, with the outline of a bony knee clearly discernible through the packaging. While receiving and handling amputated limbs isn’t a typical introduction to biomechanics, for me, it hallmarked my initial interest. It wasn’t until my work with Magnolia Medical that I realized the depth of potential in orthotics and prosthetics (O&P). I began shadowing in February 2022, and by my third visit, the clinicians let me grind down some old sockets. As a summer intern, I fabricated prosthetic legs and test sockets, laminated covers, and modified molds using cast saws to cut sockets. I also developed detailed prosthetic life care plans and calculated lifetime costs for prosthetic equipment and maintenance in collaboration with attorneys. My O&P mentors also taught me that sometimes, patients need a friend, someone to lend a hand (or a leg), to support them mentally as well as physically. My mentors attended physical therapy and doctor appointments with patients, provided in-home treatments for those without transportation, and even helped secure financial assistance for those struggling with the high cost of prosthetics. Their dedication showed me the importance of empathy and advocacy in the O&P field, values I intend to carry into my future education and career. Throughout my undergraduate curriculum, courses like Biomechanics, Instrumentation, and Assistive Robotics taught me about the mechanical and biological factors of movement and rehabilitation. In Assistive Robotics, my team and I designed a teleoperated ankle-foot orthosis that could be remotely controlled, allowing clinicians to assist patients in real-time, even if they were located in remote areas. For Senior Design, my team and I standardized the process for fabricating a low-cost prosthetic ear. We collaborated with an ENT surgeon to develop an affordable cosmetic ear. These courses drove my focus to developing innovative solutions for common challenges in O&P healthcare. Beyond my coursework, I also gained valuable insight into the clinical side of data analysis through my work at Ochsner and LSU’s Biological Engineering (BE) department. As a research assistant, I conducted interviews with prosthetists and orthotists, insurance directors, and an orthopedic surgeon to explore how biomechanical data can assist the O&P field. Working with a markerless motion capture system, I developed a strong interest in analyzing internal muscle forces and motion data. Automating data analysis for physical therapists and doctors, I refined my coding skills to process raw data that could guide treatment plans. In doing so, I condensed into minutes a process that once took hours. This efficiency in data processing showed me the potential for technology to enhance clinical workflows and improve patient outcomes. As I work through my Master’s, I hope to bridge the gap between biomechanics, data acquisition, and patient care while also learning how to integrate new technologies into the development of O&P devices. Through my coursework and experiences, I have discovered a niche where I can merge my passion for data analysis and O&P to develop innovative solutions that optimize patient performance, support clinical decisions, and streamline insurance approval processes. From storing amputated arms and legs in a fridge to fabricating prostheses for amputees to developing efficiencies in data analysis, I have witnessed the many facets of O&P, and I am ready to make my mark in it.

I am determined to make a meaningful contribution to the orthotics and prosthetics (O&P) field and improve healthcare in Louisiana by developing technologies that enhance patient outcomes for amputees and those with musculoskeletal disabilities. My immediate goal as a graduate student is to compare OpenCap (markerless motion capture) data and traditional measurements from foot force plates and marker-based systems. In the first year of this project, I will refine my methods, obtain IRB approval, and familiarize myself with high-quality motion capture systems and portable foot force plates. The second and third years will be dedicated to data collection, involving 100 participants, including sound-limb individuals and amputees. The overall budget for my graduate project is estimated at $500,000, covering equipment and participant recruitment. In the fourth and fifth years, I will analyze the joint angles and ground reaction forces to develop a normative model for amputees performing sit-to-stand movements. I will publish my research and present at conferences, such as the Louisiana Association of Orthotics and Prosthetics Conference. I hope to provide clinicians with more accurate data specific to amputees, improving patient care and decision-making. My experience at Ochsner's Therapy and Wellness Center in Baton Rouge has reinforced my goal of improving data analysis for healthcare providers. I developed a MATLAB program that reduced a seven-hour data analysis process to just four minutes. Inspired by this experience, I hope to create my own LLC, where I will process biomechanical data for healthcare agencies and biomechanics research institutions. The cost of registration and basic startup needs is only a few hundred dollars. My first pitch will be to Ochsner, as they already know my capabilities and my work’s impact. Then, I plan to expand into O&P clinics like Magnolia Medical and physical therapy clinics like Ochsner’s. I also plan to pursue funding opportunities through Louisiana-based grants like the Amber Grant Foundation, SBIR, and STTR grants to pay for the necessary high-performance computing systems. The goal of my LLC is to make data analysis quicker and more accurate for healthcare facilities, saving them time and resources while improving patient outcomes. I am committed to staying in Louisiana and contributing to the state’s healthcare system, particularly in the O&P field. Louisiana currently ranks among the lowest in healthcare nationwide, and I want to be part of the effort to improve it. Many talented professionals leave the state for better opportunities, but I believe we need to retain that talent to build a stronger future for Louisiana. Through my work, I aim to contribute to the state’s healthcare landscape and make a positive impact. I also plan to volunteer with the VA and support groups for amputees and individuals with other musculoskeletal disabilities. I want to give back by establishing a scholarship fund for students pursuing biomechanics research in Louisiana, encouraging them to stay in the state and contribute to its future growth. Through these efforts, I hope to build a community of researchers and clinicians who are dedicated to improving healthcare. To achieve success, I believe in staying grounded in my faith and staying connected with my family. By being present at birthdays, holidays, and spontaneous gatherings like last-minute crawfish boils, I maintain a sense of balance and support. My long-term goal is to use my skills to help others, whether it’s my own family and friends or those in the O&P community. To be truly successful, I need to stay happy, healthy, and helpful. This belief will guide me as I continue to strive to make a difference in the O&P field, in my community, and in the lives of those I serve.

Weighing roughly 16.68% of its owner’s body weight and spanning 47.9% of their height, the amputated leg in my hands symbolized more than a lost limb—it marked the beginning of my interests in biomechanics. As a specimen processor in Ochsner’s pathology department, one day, I received something unexpected: a large, heavy, red, and limp surgical bag. The leg was cold and firm, with the outline of a bony knee clearly discernible through the packaging. While receiving and handling amputated limbs isn’t a typical introduction to biomechanics, for me, it hallmarked my initial interest. It wasn’t until my work with Magnolia Medical that I realized the depth of potential in orthotics and prosthetics (O&P). I began shadowing in February 2022, and by my third visit, the clinicians let me grind down some old sockets. As a summer intern, I fabricated prosthetic legs and test sockets, laminated covers, and modified molds using cast saws to cut sockets. I also developed detailed prosthetic life care plans and calculated lifetime costs for prosthetic equipment and maintenance in collaboration with attorneys. My O&P mentors also taught me that sometimes, patients need a friend, someone to lend a hand (or a leg), to support them mentally as well as physically. My mentors attended physical therapy and doctor appointments with patients, provided in-home treatments for those without transportation, and even helped secure financial assistance for those struggling with the high cost of prosthetics. Their dedication showed me the importance of empathy and advocacy in the O&P field, values I intend to carry into my future education and career. Throughout my undergraduate curriculum, courses like Biomechanics, Instrumentation, and Assistive Robotics taught me about the mechanical and biological factors of movement and rehabilitation. In Assistive Robotics, my team and I designed a teleoperated ankle-foot orthosis that could be remotely controlled, allowing clinicians to assist patients in real-time, even if they were located in remote areas. For Senior Design, my team and I standardized the process for fabricating a low-cost prosthetic ear. We collaborated with an ENT surgeon to develop an affordable cosmetic ear. These courses drove my focus to developing innovative solutions for common challenges in O&P healthcare. Beyond my coursework, I also gained valuable insight into the clinical side of data analysis through my work at Ochsner and LSU’s Biological Engineering (BE) department. As a research assistant, I conducted interviews with prosthetists and orthotists, insurance directors, and an orthopedic surgeon to explore how biomechanical data can assist the O&P field. Working with a markerless motion capture system, I developed a strong interest in analyzing internal muscle forces and motion data. Automating data analysis for physical therapists and doctors, I refined my coding skills to process raw data that could guide treatment plans. In doing so, I condensed into minutes a process that once took hours. This efficiency in data processing showed me the potential for technology to enhance clinical workflows and improve patient outcomes. As I work through my Master’s, I hope to bridge the gap between biomechanics, data acquisition, and patient care while also learning how to integrate new technologies into the development of O&P devices. Through my coursework and experiences, I have discovered a niche where I can merge my passion for data analysis and O&P to develop innovative solutions that optimize patient performance, support clinical decisions, and streamline insurance approval processes. From storing amputated arms and legs in a fridge to fabricating prostheses for amputees to developing efficiencies in data analysis, I have witnessed the many facets of O&P, and I am ready to make my mark in it.

I began shadowing at Magnolia Medical in February 2022, and by my third visit, the clinicians let me grind down some old sockets. I fabricated prosthetic legs and test sockets, laminated covers, and modified molds using cast saws and the Trautman to cut sockets. I also developed detailed prosthetic life care plans and calculated lifetime costs for prosthetic equipment in collaboration with attorneys. Additionally, I managed authorizations for bone growth stimulators and resolved issues with insurance companies and the Veterans Affairs (VA). My experiences in the orthotics and prosthetics (O&P) clinic were instrumental in shaping my understanding of how engineering and compassion directly impacts patient care. This realization became the foundation of my passion for O&P development and biomechanic data analysis. As a Biological Engineering (BE) major, with a minor in Robotics, two of my most favorite projects involved serving O&P patients. In Assistive Robotics, my team and I designed a teleoperated ankle-foot orthosis (AFO) that could be remotely controlled, allowing clinicians to assist patients in real-time, even if they were located in remote areas. For Senior Design, my team and I standardized the fabrication process for a low-cost prosthetic ear by collaborating with an ENT surgeon to develop an affordable cosmetic solution. These courses drove my focus in pursuing a role as an engineer dedicated to developing innovative solutions for common challenges in O&P healthcare. My academic work complemented my clinical experiences, allowing me to deepen my understanding of data analysis in patient care through my work at Ochsner and LSU’s BE department. As a biomechanist research assistant, I conducted interviews with prosthetists and orthotists, insurance directors, and an orthopedic surgeon to explore how biomechanical data can assist the O&P field - primarily obtaining insurance coverage. Working with a markerless motion capture system, I developed a strong interest in analyzing internal muscle forces and motion data. Automating data analysis for physical therapists and doctors, I refined my coding skills to process raw data that could guide treatment plans. In doing so, I condensed into minutes a process that once took hours. This efficiency in data processing showed me the potential for technology to enhance clinical workflows and improve patient outcomes. Pursuing a Master’s in Mechanical Engineering at LSU will allow me to refine my skills and bridge the gap between biomechanics, data acquisition, and patient care while also learning how to integrate new technologies into the development of O&P devices. I hope to use markerless motion capture data to “quantify the field” of O&P, assisting clinicians with documentation and insurance authorizations, supporting physical therapists in developing tailored care plans, and enhancing patient outcomes. Through my coursework and experiences, I have discovered a niche where I can merge my passion for data analysis and O&P to develop innovative solutions that optimize patient performance, support clinical decisions, and streamline insurance approval processes. My deep commitment to improving the O&P field stems from my firsthand experience with its many facets, and I am ready to be part of its future.

In 1990, my dad fell off a 52-foot building. After recovering, he went back to work, and an industrial gate fell on him. He is now disabled, suffering through the pain from the injuries and the back and bone surgeries which allowed him to walk and not be confined to a wheelchair or crutches. I am so much like my dad in that I'm determined and strong-willed. In the summer of 2015, I was diagnosed with scoliosis. If surgery was not our answer, I would be on oxygen by the time I was 18. Talk of surgery made everyone anxious and on edge. So, I decided I was the one that had to be strong. I had to be hopeful to give others the hope that everything would be okay. I told myself I would get through it without complaining and show as little pain as possible. July 11 will be my eighth anniversary of spine surgery. Surgeons fused my spine to two 15-inch metal rods, complete with screws and cadaver material. For five days, doctors came in and out of my room as I went in and out of consciousness. Recovery time would be four to six weeks at home and six months of following strict limitations. I had to start the academic year on time. I did all that I could to make it to the first day of school. Then, I found out I had to be at least two weeks off of the heavy painkillers before I could go back. Two weeks from the day of my surgery, I decided to quit the painkillers. The first day of school, I hit the ground running, not letting my healing process slow me down. After his injuries, my dad concerned himself with improving his strength so he could get back to work. The doctors told him he could not. Just because I'm named after my dad doesn't mean we share the same fate: I wanted to prove to him that my future had not dimmed. Months later, my scar healed nicely and was not sensitive to the touch. My rods strengthened my spine and allowed me to live a normal life. I learned the hard way that what doesn't kill you actually makes you stronger. I, like Iron Man, shall use my refined "suit of armor" to help those that are vulnerable. I figured the best way I could support others was to be a prosthetist, to be able to give others a hand (or a leg) when they need it most. I need to take care of myself and overcome the obstacles in my own life if I want to be able to truly help others who are unable to do the same. The dark line down my spine symbolizes my determination and ambition to overcome those things, past, present, and future, that seemed impossible. Now, my path has changed to be a biological engineer, focusing on biomechanics. I have worked in an orthotics and prosthetics clinic the past couple of summers. I realized that there are so many facets that can be improved upon, especially when it comes to arms and legs. Patients deserve the best treatment possible so they can get back on their feet. I’ve loved the connections I’ve made thus far and have thoroughly enjoyed exploring all the field has to offer.