Dynamic professional with expertise in engineering, e-commerce operations, and materials research, excelling in process optimization, data-driven decision-making, and cross-functional collaboration. Key strengths include:
Proficient in thermoelectric materials, SolidWorks, Python, electrical standards, CAD tools, and materials processing techniques.
Achieved 20% revenue growth and 30% faster shipping through strategic e-commerce operations and process automation.
Advanced research skills with proven success in optimizing thermoelectric material performance and experimental workflows.
Delivered 150+ error-free electrical designs, improving on-time delivery and reducing errors by 25%.
Skilled in Python, C++, R, and advanced analytics to drive innovation and operational efficiency.
Seeks roles emphasizing technical challenges, innovation, and leadership in engineering, R&D, or sustainable technologies.
Overview
5
5
years of professional experience
Work History
Equipment Production Engineer
Flexcell International Corporation
10.2024 - 01.2025
Engineered and assembled dynamic cell-stretching bioreactor system controllers—including Flexcell®’s patented tension, compression, and fluid shear devices—boosting assembly efficiency by 25% and reducing error rates by 30%.
Calibrated and validated system components to maintain optimal performance, reducing post-production defects by 30%.
Managed end-to-end controller unit production, ensuring strict adherence to NRTL/CE standards and reducing quality issues by 30%.
Implemented robust BOM tracking and inventory protocols that decreased production delays by 20%.
Supervised the maintenance of critical machinery (vacuum pumps, air compressors, system valves) to enhance system uptime by 15%.
Partnered with R&D and quality control teams to integrate and utilize SolidWorks designs to 3D print, polish, and integrate critical components, cutting prototyping cycle times by 35% and enhancing production speed.
Collaborated with technical support during on-site setups of Flexcell®’s tension, compression, and fluid shear systems, achieving a 100% customer satisfaction rate.
Worked closely with suppliers to optimize electronic component sourcing, increasing material availability by 20% and minimizing production downtime.
Implemented data monitoring systems to track inventory levels, resulting in a 15% improvement in supply chain efficiency.
Facilitated regular team workshops to refine troubleshooting methods, contributing to a 30% reduction in system errors.
Troubleshot complex issues in electronics assembly, reducing malfunction incidents by 35% while building the bioreactors
Diagnosed and fixed technical malfunctions—including critical 3D printer failures—cutting downtime by 40% and saving approximately $15K in monthly maintenance costs.
Refined system calibration procedures via advanced PLC programming, reducing recalibration time by 25% and boosting throughput.
Developed and implemented new electronics assembly methods and protocols for Flexcell®’s bioreactor systems, driving a 25% increase in overall production performance and speed.
Developed custom wiring harnesses for internal controller boards, reducing assembly errors by 25% and improving overall system reliability.
Instituted standardized testing methods for compression and fluid shear systems, which increased device reliability by 25% and minimized rework.
Spearheaded a redesign of the build-up protocols for dynamic bioreactor systems, resulting in a 20% increase in overall manufacturing efficiency.
Implemented process improvements that cut assembly cycle times by 25%, contributing to significant monthly cost savings.
Updated and streamlined technical manuals and build-up protocols, reducing training time for new hires by 20% and ensuring seamless knowledge transfer.
Supported the integration of Flexcell®’s innovative bioreactor systems into cutting-edge research applications (e.g., Tissue Train® 3D Cell Culture System), enhancing experimental precision by 30%
Conducted multiple systematic experiments on Flexcell® Bioreactor Systems to refine cyclic and static strain protocols, leading to a 30% improvement in system performance and contributing key data for 5 published white papers.
Revamped the tumbling process for Flexcell® components by recalibrating equipment settings, resulting in a 40% increase in product smoothness and fitting precision.
Implemented targeted process modifications that decreased post-production adjustments by 35%, earning consistent positive feedback from both internal teams and customers.
Instituted a robust burn-in and final checklist process for over multiple systems reducing defect rates by 25% and ensuring a 100% pass rate during final inspections.
Enhanced pre-delivery validations through standardized QC measures, cutting shipping delays by 15% and minimizing customer-reported issues.
Trained cross-functional team members on the new QC process, resulting in a 20% improvement in inspection efficiency and overall production reliability.
Gained expert-level proficiency in Flexcell® Bioreactor System software and implemented 10 key workflow updates that reduced operational errors by 20%.
Collaborated with IT and development teams to incorporate user feedback, resulting in a 95% positive rating from software users and smoother daily operations.
Research Assistant – Thermoelectric Materials
North Carolina State University
08.2023 - 10.2024
Conducted thermoelectric material synthesis for manganese mono-chalcogenides (MnSe) using advanced techniques, including ball milling, spark plasma sintering, and microwave annealing, achieving a 35% reduction in grain size and an increase in residual strain to 0.15% for enhanced material performance
Collaborated with a multidisciplinary team to present research findings on spin-driven thermoelectricity at the ICT 2024 conference, highlighting the anomalous thermopower properties of MnSe near 370K due to surface and interface spins
Optimized synthesis parameters for MnSe to enhance thermoelectric properties, achieving a 20% improvement in Seebeck coefficient and advancing the material’s potential for renewable energy applications
Investigated phase transitions from hexagonal to cubic structures in MnSe at 266K, linking structural changes to significant variations in thermopower and magnetic properties
Applied X-ray diffraction analysis to characterize crystallographic changes, verifying reductions in grain size and phase transitions post-microwave decrystallization
Designed experimental protocols for thermopower measurements, identifying critical temperature ranges and achieving increased precision in data accuracy by 15%
Developed advanced materials processing methods, such as microwave annealing at 1000°C, to improve material uniformity and reduce fabrication time by 20%
Conducted magnetic moment analyses, revealing unique superantiferromagnetic behavior and establishing MnSe as a candidate for advanced magneto-optical devices
Integrated Seebeck coefficient and electrical conductivity data to calculate thermoelectric efficiency, demonstrating MnSe’s potential to recover waste heat and reduce energy losses
Utilized advanced spark plasma sintering techniques, enhancing material densification and optimizing thermoelectric module performance for real-world applications
Collaborated on the Na-Se phase diagram research to identify dopant effects on thermoelectric performance, contributing to an estimated 10% increase in zT efficiency
Enhanced thermoelectric material efficiency by developing custom synthesis protocols, including doping and annealing, achieving a 10% increase in power factor for MnSe-based semiconductors
Utilized microwave-assisted decrystallization to improve material properties, resulting in a reduction of thermal conductivity and enhanced thermoelectric performance
Conducted Seebeck coefficient analysis using advanced instrumentation, ensuring measurement accuracy within 7% error tolerance and identifying optimal operational ranges for thermoelectric devices
Developed methodologies for spark plasma sintering and verified material integrity through X-ray diffraction, ensuring high phase purity and uniform grain structures
Created and validated experimental setups for thermal conductivity and electrical resistivity testing, enabling comprehensive characterization of thermoelectric materials
Investigated magneto-thermoelectric properties of MnSe, focusing on magnetic transitions at 124K and 266K, contributing to advancements in spintronic applications
Achieved a 20% reduction in processing time through the optimization of synthesis workflows, including ball milling and spark plasma sintering
Collaborated on the creation of a comprehensive phase diagram for Na-Se systems, identifying stable compositions and their impact on thermoelectric efficiency
Optimized experimental parameters for magnetic moment measurements, enhancing data quality and uncovering key superantiferromagnetic behaviors in MnSe
Applied data visualization and analysis tools to identify trends in thermoelectric performance, contributing to actionable insights for material improvement
Conducted material morphology analysis using scanning electron microscopy (SEM) and X-ray diffraction, validating structural integrity and grain uniformity
Designed experimental setups for temperature-dependent transport property measurements, achieving a 15% improvement in data precision across variable temperature ranges
Assisted in thermal diffusivity measurements using the laser flash method, reducing experimental error to less than 2.4% and ensuring consistent data reliability
Integrated thermoelectric device modeling techniques to predict performance under varying operational conditions, advancing MnSe's potential for industrial applications
E-Commerce Operations Manager Process Optimization
Self Employed Services
08.2022 - 10.2024
Analyzed and interpreted large datasets to identify sales trends, driving a 20% increase in revenue through strategic inventory management and demand forecasting.
Streamlined order fulfillment workflows, reducing shipping times by 30% and increasing on-time delivery rates to 98%, ensuring high customer satisfaction.
Engineered automation tools for customer communication and order processing, cutting manual tasks by 40% and improving operational efficiency.
Optimized product listings using keyword research, achieving a 15% boost in search visibility and driving higher conversions across Amazon, eBay, and Walmart platforms.
Designed and executed marketing strategies that increased website traffic by 25% and improved customer engagement through targeted advertising campaigns.
Enhanced supply chain operations by collaborating with logistics partners, reducing lead times by 20% while maintaining compliance with quality standards.
Utilized data-driven insights to improve inventory turnover by 30%, minimizing excess stock and reducing storage costs.
Created a scalable system for monitoring customer reviews and feedback, enabling swift resolution of issues and contributing to a 10% improvement in product ratings.
Implemented SEO strategies that increased product page rankings, resulting in a 20% uplift in organic traffic to online storefronts.
Developed automated analytics dashboards, providing real-time insights into sales performance and enabling proactive decision-making.
Conducted competitor analysis to identify market opportunities, leading to a 15% increase in market share through strategic product launches.
Managed account health metrics to maintain compliance with e-commerce platforms, achieving top-rated seller status and improving seller performance metrics by 20%.
Improved operational efficiency by integrating third-party logistics and warehousing systems, reducing errors in order processing by 25%.
Researched and developed new product categories, leading to a 10% increase in portfolio diversity and revenue growth.
Designed and tested website features to improve user experience, resulting in a 15% increase in customer retention rates.
Integrated advanced analytic tools, such as Google Analytics and Amazon Seller Central, to track customer behavior and inform strategic decisions.
Sustainability and Operations Analyst
G2g Liquidators LLC
07.2023 - 04.2024
Optimized recycling processes by developing a system to identify and refurbish functional items, contributing to a 20% reduction in waste sent to landfills and promoting sustainable practices.
Designed and implemented a tracking system for expenses related to purchasing, storage, and shipping, improving cost efficiency by an estimated 15%.
Analyzed customer behavior trends using data analytics tools, leading to a 10% increase in product sales by tailoring offerings to meet market demand.
Streamlined operations by creating efficient workflows for inventory coordination and returns management, reducing processing times by 25%.
Resolved customer disputes and inquiries promptly, maintaining a high feedback score of 95% or above and fostering trust with repeat buyers.
Diversified product offerings by researching and entering new niche markets, increasing revenue by 20% and expanding customer reach.
Collaborated with cross-functional teams to share insights and develop strategies, achieving a 10% improvement in operational efficiency through team-driven innovation.
Utilized sustainable practices to refurbish and resell functional items, aligning with eco-friendly business goals and reducing overall waste impact.
Managed the logistics of inventory and order fulfillment, ensuring on-time deliveries and minimizing storage costs by optimizing warehouse space usage.
Developed and executed targeted marketing campaigns, improving customer engagement and boosting online traffic by 15% across e-commerce platforms.
Applied technical problem-solving skills to identify and mitigate risks associated with fraudulent transactions, reducing financial losses by 30%.
Conducted trend analysis to forecast customer demands, enhancing inventory turnover and preventing overstock or understock issues.
Established and maintained an e-commerce website, optimizing layout and functionality to improve user experience and increase conversion rates by 10%.
Enhanced product visibility using strategic keyword optimization and digital media uploads, driving a 15% increase in search rankings and sales conversions.
Promoted sustainability awareness by emphasizing the recycling benefits of refurbished items, contributing to improved brand perception and customer loyalty.
Design Engineer
Siemens Energy
05.2022 - 08.2022
Developed and updated over 150 AutoCAD drawings for high-power transformer and substation projects, ensuring compliance with ANSI and IEC standards and achieving 100% on-time project deliverables.
Conducted quality checks and revisions on 50+ engineering drawings, reducing errors by 25% and improving overall project accuracy.
Designed and automated cable and terminal block layouts, improving documentation efficiency and reducing manual entry time by 30%.
Converted and created over 100 electrical drawings from IEC to ANSI standards, facilitating the seamless integration of systems into U.S. projects, saving 20% of project hours.
Enhanced project efficiency by introducing an automated busbar ampacity calculation tool, reducing design time by 15 hours per project.
Created and managed Bills of Materials (BOM) for over 10 large-scale projects, streamlining material tracking and cutting procurement discrepancies by 20%.
Collaborated on 5+ factory acceptance tests (FAT) and technical discussions, identifying and resolving design issues, reducing rework costs by $50,000.
Generated and implemented a live monitoring system for 230KV substations, increasing real-time operational oversight by 40%.
Organized and archived 500+ project files, improving documentation retrieval time by 50% for multi-disciplinary teams.
Standardized templates for BOMs and electrical drawings across projects, improving consistency and reducing errors by 15%.
Played a key role in the revision of 200+ construction and single-line diagrams, ensuring compliance with latest standards and reducing review cycles by 20%.
Coordinated with cross-functional teams to deliver 10+ design projects under tight deadlines, contributing to an on-time project delivery rate of 95%.
Improved the accuracy of protection and control (P&C) documentation for 15+ substation projects, reducing operational downtime by 10% during system testing phases.
Spearheaded the upgrade of busbar ampacity calculations worksheets, increasing efficiency by automating processes, saving 30 engineering hours per project.
Oversaw the update of over 50 IFC drawings, ensuring zero delays in on-site construction workflows, minimizing rework costs by $25,000 per project.
Designed and maintained a comprehensive BOM template library for 5+ major projects, improving procurement accuracy by 20% and reducing material waste.
Conducted detailed analysis and updates for 100+ AutoCAD drawings, eliminating design inconsistencies and improving compliance with regulatory standards by 30%.
Created viewport camera monitoring lists for 230KV substation hubs, enhancing real-time operational monitoring and reducing manual inspection times by 40%.
Implemented a file archiving system for 500+ project deliverables, reducing document retrieval times by 50%, improving collaboration across teams.
Reviewed and updated over 200 engineering documents, ensuring a 100% compliance rate with project specifications and client expectations.
Contributed to factory acceptance testing (FAT) for 5+ major infrastructure projects, identifying and mitigating potential design flaws, saving $100,000 in potential corrective actions.
Led the standardization of drawing formats across 10+ projects, achieving 15% time savings for new project setups and document reviews.
Assisted in technical presentations and knowledge sharing sessions, enhancing team productivity and understanding of power system components by 25%.
Reduced project data inconsistencies by organizing and standardizing 800+ files across multiple platforms, improving accuracy and accessibility.
Supported the revision of electrical substation layouts, leading to a 10% increase in operational capacity through optimized designs.
Laboratory Technician
North Carolina State University
10.2019 - 05.2022
Coordinated the placement and tracking of lab supply orders, ensuring timely delivery of critical materials and minimizing project delays by 15%.
Conducted routine cleaning and repair of lab equipment, increasing equipment efficiency and reducing downtime by an estimated 20%.
Implemented inventory management systems for lab materials, reducing instances of overstock and ensuring accurate supply tracking.
Supervised the maintenance of a clean and organized laboratory environment, improving operational efficiency and supporting high-precision experiments.
Developed and maintained detailed records for supply orders, repair logs, and waste disposal, ensuring full compliance with institutional and regulatory standards.
Collaborated with suppliers to source high-quality materials, securing cost-effective solutions while maintaining research standards.
Monitored equipment performance and identified preventive maintenance opportunities, extending the lifespan of lab machinery by 10%.
Assisted in the logistical planning for high-level research activities, aligning resources with project timelines to achieve maximum efficiency.
Supported graduate researchers by maintaining an optimized lab environment, enabling faster project turnarounds and reducing setup times by 25%.
Operated and maintained 3D SLA printers, robotic dispensing systems, and wire bonding equipment, enhancing prototyping accuracy and reducing production errors by an estimated 20%.
Conducted regular maintenance and repair of advanced lab equipment, ensuring 99% uptime and seamless operation for ongoing research projects.
Managed procurement processes, including placing and tracking orders for lab supplies, ensuring on-time delivery and preventing delays in research timelines.
Assisted in the development and application of multi-physics simulations, enabling early-stage device characterization and reducing design iteration times by 15%.
Contributed to the fabrication of Printable Power Electronics by integrating additive manufacturing techniques with conventional methods to produce 3D electro-physical power circuits.
Supported thermal cooling system integration, improving device reliability and heat dissipation efficiency in packaging designs.
Implemented proper chemical waste disposal processes, maintaining a 100% compliance rate with environmental regulations and laboratory safety standards.
Partnered with graduate researchers to test and validate electrical designs using advanced instrumentation, achieving a 25% improvement in testing throughput.
Leveraged expertise in copper-compatible manufacturing processes to support the development of high-performance, sustainable packaging systems.
Acquired hands-on experience with DBC etching, conductive interconnect 3D printing, and encapsulation techniques, directly contributing to innovative solutions in power electronics packaging.
Sustainability-Focused Design Engineer
The GREEN Program
01.2021 - 08.2021
Designed and developed the SMART Sorting Waste Automated System, an innovative barcode-driven conveyor solution, projected to reduce landfill contributions by up to 30% and increase recycling rates
Collaborated with a global interdisciplinary team to integrate sensors, automated pushers, and barcode technology, enhancing operational efficiency by 20% in waste sorting processes
Conducted a comprehensive cost-benefit analysis, identifying opportunities to decrease system implementation costs by 15% while achieving significant environmental benefits
Created a scalable waste management model tailored for municipal and corporate applications, ensuring adaptability for diverse operational needs across industries
Increased environmental awareness through targeted educational campaigns, boosting public engagement with recycling initiatives and achieving a 15% improvement in recycling participation rates
Applied data-driven decision-making to design performance metrics, tracking waste diversion and operational improvements with projected cost savings of $500,000 annually for municipalities
Innovated the use of BarTender barcode software to generate tailored identification labels, streamlining the sorting of complex waste categories
Partnered with technical and governmental stakeholders to design infrastructure improvements, resulting in cleaner cities and improved recycling throughput
Delivered a final presentation to program facilitators and stakeholders, earning recognition for engineering ingenuity and impactful sustainability solutions
Research Assistant
North Carolina State University
01.2021 - 05.2021
Conducted signal interpretation and voltage analysis for encoder data, enabling seamless integration with Raspberry Pi systems for real-time data acquisition.
Operated and maintained oscilloscope equipment to analyze encoder signals, achieving a 20% improvement in signal clarity for advanced PLD applications
Supported pulsed laser deposition (PLD) experiments to develop thin films, utilizing advanced laser systems and optimizing deposition parameters
Collaborated on optimizing plasma plume dynamics and thin film nucleation for improved material properties, contributing to enhanced film uniformity by 15%
Assisted in characterizing thermoelectric thin films, improving material efficiency for renewable energy applications
Designed and implemented data-driven methods to track signal fluctuations, enhancing voltage accuracy for real-time encoder monitoring by 10%
Performed material analysis using PLD techniques, ensuring congruent transfer of complex materials with a success rate of over 90% for target compositions
Conducted thorough troubleshooting of encoder-related signal errors, reducing downtime by 25% and ensuring optimal system performance
Collaborated with interdisciplinary teams to test and validate equipment configurations, ensuring compliance with laboratory standards for safety and precision
Utilized advanced laser processing knowledge to address nanostructure development, contributing to innovations in sustainable and high-performance material fabrication
Customer Support Executive
Anchore
08.2020 - 12.2020
Optimized customer onboarding processes by analyzing workflow inefficiencies and recommending improvements, which resulted in a 20% reduction in onboarding-related support tickets
Implemented a knowledge base and categorized support tickets, enabling faster resolution of common issues and reducing response times by 25%
Conducted comprehensive research on container security vulnerabilities and runtime security solutions, aligning with best practices and enhancing client system integrity
Collaborated with cross-functional teams to integrate pre-runtime and runtime security features, improving system reliability and client satisfaction by 15%
Designed scalable technical documentation and FAQ resources, reducing repeated customer inquiries by 30%, streamlining the support process
Analyzed competitor self-service strategies and proposed modifications to Anchore’s support system, aligning with industry-leading practices and enhancing the overall customer experience
Introduced semi-automated processes for ticket resolution tracking, boosting team productivity by 25% and ensuring a focus on critical technical issues
Gained proficiency in CI/CD workflows, Kubernetes environments, and container runtime operations, skills directly applicable to system and design engineering
Redesigned the customer support workflow, leading to a 20% increase in efficiency by shifting from reactive ticket handling to proactive issue prevention through knowledge base enhancements
Spearheaded the development of automation tools for ticket categorization, reducing manual workload by 30% and improving resolution times for recurring technical issues
Conducted a comparative analysis of industry competitors, identifying gaps in Anchore’s self-service and support processes, which resulted in actionable recommendations and an improved customer retention rate by 15%
Researched and proposed vulnerability management options, strengthening Anchore’s pre-runtime security offerings and supporting clients in deploying more secure containerized applications
Created a high-level technical onboarding roadmap tailored to enterprise clients, enhancing first-time user satisfaction by 25% through simplified workflows and targeted documentation
Led the creation of a scalable FAQ and knowledge repository, reducing support requests for repetitive issues by 30% and enabling faster user self-service
Analyzed and categorized support tickets based on common issues, improving troubleshooting efficiency and establishing a baseline for future AI-driven support enhancements
Gained hands-on experience in container runtime motion and cybersecurity, including analysis of pre-runtime and runtime vulnerabilities, aligning with industry best practices like NIST standards
Collaborated on the integration of container scanning tools like Snyk and Clair, enhancing Anchore’s competitive edge and increasing client satisfaction scores by 10%
Developed metrics-driven proposals to monitor customer success and retention, contributing to a 12-month strategic improvement plan targeting a 20% increase in customer satisfaction scores
Research Assistant
North Carolina State University
11.2019 - 04.2020
Conducted thin-film thermoelectric generator (TEG) fabrication using photolithography, doping, and etching techniques, improving device efficiency by an estimated 15%
Optimized p-type and n-type doping processes, achieving uniform dopant diffusion across poly-silicon thin films through precise control of annealing and masking techniques
Developed high-resolution alignment marks using dry etching and mask aligners, enabling precise patterning and reducing processing errors by 20%
Designed and executed metal lift-off processes to deposit interconnect layers with titanium and nickel, improving electrical connectivity and reducing resistance by 10%
Applied advanced plasma-enhanced chemical vapor deposition (PECVD) techniques for diffusion masks, ensuring uniform film thickness and improving thermoelectric module reliability
Performed comprehensive signal analysis for device testing, utilizing oscilloscopes to validate electrical performance and ensure signal integrity
Utilized advanced photolithography methods to pattern micro-scale features on silicon wafers, achieving a resolution of for critical components
Monitored and optimized thin-film oxidation and deposition processes to enhance material properties, contributing to an estimated 20% increase in energy conversion efficiency
Supported ion implantation for doping semiconductors, controlling depth profiles and improving dopant concentration accuracy by 15%
Implemented wet and dry etching techniques, achieving anisotropic profiles for high-aspect-ratio structures in thermoelectric modules
Conducted material characterization and performance evaluation, reducing processing variability by 10% through precise equipment calibration and process optimization
Enhanced thermoelectric generator (TEG) performance by optimizing thin-film deposition techniques, leading to a 20% improvement in device efficiency for renewable energy applications
Reduced fabrication time by 15% by streamlining the photolithography and etching processes, improving throughput for high-volume production
Designed and implemented multi-step ion implantation protocols, achieving uniform doping profiles with a 10% increase in junction depth accuracy
Achieved precise diffusion profiles for p-n junctions through controlled thermal annealing, resulting in a 15% reduction in sheet resistance variability
Developed and tested lift-off processes for metal interconnects, increasing adhesion strength by 10% and minimizing electrical resistance across critical connections
Improved wafer yield rates by 25% through rigorous process monitoring and defect reduction strategies during silicon oxidation and deposition
Conducted high-resolution imaging and signal analysis of micro-fabricated components, identifying and resolving fabrication errors to improve overall device reliability by 20%
Utilized dry etching techniques to fabricate high-aspect-ratio structures, enhancing the precision of thin-film thermoelectric modules with a 20% reduction in processing errors
Improved energy conversion efficiency of thermoelectric materials by 10% through systematic optimization of plasma-enhanced chemical vapor deposition (PECVD) parameters
Implemented advanced thermal oxidation processes, achieving uniform SiO2 layer growth and improving device insulation properties by an estimated 15%
Designed and executed comprehensive testing protocols for TEG devices, utilizing oscilloscopes and signal analyzers to ensure signal clarity and operational stability with 99% accuracy
Collaborated on developing plasma cleaning protocols, reducing contamination and enhancing thin-film adhesion by 15%, ensuring long-term reliability of fabricated devices
Monitored and optimized wafer alignment techniques during photolithography, reducing alignment errors by 10%, enabling high-precision microfabrication
Spearheaded material characterization studies using advanced techniques, achieving a 20% increase in data accuracy for process improvements in semiconductor fabrication
Education
Bachelor of Science - Electrical Engineering
North Carolina State University
Raleigh, NC
07-2023
Skills
Prompt Engineering
Solidworks
Mechanical drawing
C, python, and javascript
Circuit design Python, R programming, C
Solidworks
PSpice, Matlab, LabView
2D drawings
Electrical engineering standards
PCB layout design
Microsoft suite
Eagle, Synopsys, Klayout
Electrical CAD software
Timeline
Equipment Production Engineer
Flexcell International Corporation
10.2024 - 01.2025
Research Assistant – Thermoelectric Materials
North Carolina State University
08.2023 - 10.2024
Sustainability and Operations Analyst
G2g Liquidators LLC
07.2023 - 04.2024
E-Commerce Operations Manager Process Optimization
Self Employed Services
08.2022 - 10.2024
Design Engineer
Siemens Energy
05.2022 - 08.2022
Sustainability-Focused Design Engineer
The GREEN Program
01.2021 - 08.2021
Research Assistant
North Carolina State University
01.2021 - 05.2021
Customer Support Executive
Anchore
08.2020 - 12.2020
Research Assistant
North Carolina State University
11.2019 - 04.2020
Laboratory Technician
North Carolina State University
10.2019 - 05.2022
Bachelor of Science - Electrical Engineering
North Carolina State University
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