Full-stack developer for web, ios, androidReact Native (+react-native-web), Expo, TypeScript, Apollo GraphQL, AWS Lambda, MongoDB, MySQL, Redis, CI/CD, IaC (Terraform)

• Microservices architecture: Architected and developed a QA system leveraging microservices architecture using Docker with docker-compose.• Node/React: Created a React app for controlling and monitoring advanced QA processes of particle detectors.• Python/Flask: Created complex server-side web applications utilising powerful relational databases to persistently store data. Focus on building applications that can support any front end, and scale to support hundreds of thousands of users. Technologies: Python, Flask, PostgreSQL, HTML, CSS, Git, Linux/EC2, Security, nginx, uwsgi.• Python/FastAPI: Used FastAPI and Uvicorn to create microservices exposing a RESTful API for talking with other microservices and an API gateway.• Python2/Python3: Integrated legacy code into a modern architecture utilising subprocesses.• Python/Kivy: Built production ready end user software using the GUI library Kivy.• Firmware/DMC: Written firmware for motion controllers, which was leveraged by the aforementioned Kivy application.• Maintained existing codebases: Added new features as requested by managers/customers to our existing software, both customer-facing and in-house.• Deployment: Managed compilation of code and updating of our self-hosted repositories.• Javascript/ElectronJS and Python/numpy/matplotlib: Created a MacOS application using an ElectronJS GUI, for quickly analysing data and outputting configuration files for our particle detector. Files were uploaded in the interface and sent to the Python engine for data crunching.

• Data analysis: Statistical analysis of detector image data using C++, using the ROOT data analysis framework, comparing experimental irradiation data from H, He and C primary nuclei to Monte Carlo simulations.• Matching to theoretical models: Matching of the data to theoretical models for thin absorbers, including the restricted-Bethe, Landau-Vavilov and Bichsel theories of energy loss and straggling.

• Data analysis: Statistical analysis of experimental data using C++/ROOT. Implementation of two corrections to unwanted detector effects in the NA62 analysis framework: removing ±6 ns drift time anomaly; and improved alignment of detectors to within statistical fluctuations, from 18.1 %→83.5 % of detectors aligned to within 3 μm.• Physical modelling: Using Garfield; implementing newly discovered physics; analysis in C++/ROOT. Used along with detector data to determine temporal resolution of system.• Outreach: Supervisor for a group of 6 Swedish upper-secondary students for their final degree project, including drafting of tasks.

• ABB AB: Assemblage of industry-grade computers for robots.• Internship at Vasteras Hospital 2017/2018: Authored three analysis tools using IJM scripting for X-Ray and Nuclear Medicine QA; calibration and QA of systems in radiotherapy, nuclear medicine and medical imaging.• Amanuensis of IT: Created the WordPress site www.tekniskfysik.se, taught MATLAB and LaTeX to first year university students, headed a makerspace (3D printers, CNC machines, electronics workshop).