PHAN THI QUYNH TRAM
********************@*****.***
Ho Chi Minh City
https://github.com/MiaSa8052
ABOUT ME
PROJECTS
Final-year Electronic Physics student with strong skills in programming, embedded systems, and AI/computer vision. Experienced in research and teamwork, co-developing a deep learning framework for rice leaf disease detection accepted at ICEBA 2026. Motivated, adaptable, and eager to contribute to innovative projects in embedded systems and AIoT.
EDUCATION
University of Science – Ho Chi Minh City
(2022 - now)
Major: Electronic Physics
GPA: 3.15 / 4.0
B1 VSTEP
Basic IT Application skills certificate
Rice Leaf Disease Detection System Research Project Role: AI Developer & Full-stack Developer (Collaborative R&D Team)
TECHNICAL SKILLS
1.Programming Languages: C/C++,
Python, Assembly, Verilog HDL.
2.Embedded Systems & IoT: ESP32-AI,
ESP8266, Arduino, Jetson Nano,
FPGA, ATmega128.
5.AI & Computer Vision: YOLO,
SAHI, Image processing, Machine
learning.
4.Control & Processing: Control logic,
Sensor signal processing, Actuator
control.
6.Other skills: Teamwork & Collaboration,
Technical Documentation, Problem-Solving,
Scientific Research, Active Learning.
3.Automation & Simulation: Proteus,
Wokwi, Microchip Studio, Arduino
IDE, Quartus, VS code, Docker, Git.
Technologies used: Python, PyTorch, YOLOv8, SAHI,
WBF, HTML/CSS/JS, JSON.
Description: Collaborated in a research team to develop and compare independent deep learning pipelines, achieving an enhanced framework for rice leaf disease diagnosis submitted to the ICEBA 2026 conference.
Key Responsibilities & Achievements:
Data Pipeline: Managed and annotated a 15,000-image dataset (cleaning, manual/semi-automated labeling). Model Training: Fine-tuned YOLOv8 on Google
Colab; integrated SAHI to enhance small lesion
detection.
Custom Post-processing: Replaced NMS with a
custom pipeline using Weighted Boxes Fusion (WBF)
to resolve box overlapping.
Deployment: Built a lightweight Web App
(HTML/CSS/JS) to serve real-time predictions and
solutions via JSON.
Result: Successfully optimized the system to achieve a peak F1-score of 0.837, significantly enhancing the sensitivity for early-stage micro-lesion detection.