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During my internship at SFM Technologies, I had the opportunity to work on a fascinating project involving Non-Intrusive Load Monitoring (NILM). My primary focus was to implement the NILM model developed by George W. Hart, leveraging the company's building aggregated power dataset.

Key Achievements:

1. Implemented the Non-Intrusive Load Monitoring (NILM) model by George W. Hart to analyze and disaggregate power consumption data within the company's building.
2. Worked extensively with real-world power data, performing data preprocessing, feature engineering, and model development to accurately identify and monitor individual appliance usage patterns.
3. Collaborated closely with a cross-functional team to optimize the NILM model's performance and enhance its usability for energy management within the organization.
4. Gained valuable insights into energy consumption patterns and contributed to the company's sustainability efforts by identifying opportunities for energy efficiency improvements.

During my internship at Infineon Technologies, I had the opportunity to work on a significant project titled "Design and Development of a Workflow and Related Methodologies for Validating Automotive FW and SW According to ASPICE and ISO26262 Standards."

In a rapidly evolving automotive industry where vehicles are becoming increasingly complex with millions of lines of code, the need for safety and compliance with industry standards is paramount. Infineon, a world leader in semiconductors, recognized the importance of adhering to Automotive SPICE and ISO 26262 standards to ensure the safety and quality of their products.

My internship focused on addressing the challenges faced by Infineon in monitoring and ensuring compliance with these standards throughout the development of hardware and embedded software products, which often spanned several years. To tackle this issue, I conducted a comprehensive study to identify gaps between the standards and their implementation at Infineon. Additionally, I designed and implemented an automated dashboard that consolidated project data, allowing the development and management teams to monitor project details and compliance in real-time.

This internship not only gave me invaluable hands-on experience in the automotive industry but also allowed me to contribute to the improvement of development processes that are vital for ensuring the safety and reliability of modern vehicles. I am proud to have been part of a team that worked towards reducing errors and defects, ultimately contributing to the well-being of consumers and the financial stability of automotive manufacturers and suppliers.

During my apprenticeship at Enedis AI Lab, I undertook a multifaceted role that encompassed a diverse range of responsibilities. My primary focus was on the pre-processing and feature extraction of textual and electrical load curve data. Additionally, I explored the field of natural language processing, where I actively contributed to projects such as Named Entity Recognition (NER) for the automated identification of critical information within supplier requests.

One of the noteworthy aspects of my internship was the development of machine learning models. I crafted models for both binary and multi-class classification, delving into the intriguing realm of zero-shot learning. Furthermore, I designed models for text generation and auto-completion, playing a key role in automating response generation.

To ensure the practical implementation of these models, I containerized them using Docker and facilitated their deployment in production environments. Moreover, I participated in the creation of user-friendly web interfaces, enhancing the accessibility of these AI solutions to end-users.

Throughout this enriching experience, I had the opportunity to work with a plethora of cutting-edge technologies, including Python, PyTorch, NumPy, Pandas, Scikit-Learn, RegEx, CamemBERT, BARThez, PostgreSQL, Flask, Docker, CodeCarbon, and GitLab.

In summary, my internship at Enedis AI Lab afforded me a comprehensive and diverse experience, allowing me to gain expertise in data processing, natural language processing, and machine learning model development. It also equipped me with practical skills in model deployment and interface development, contributing significantly to my professional growth.

At Aiway, I play a pivotal role in ensuring the success of our AI-driven initiatives. My primary responsibilities revolve around meticulously mapping and conducting comprehensive audits of the models developed within the organization. This crucial task involves identifying and rectifying deficiencies in data quality, as well as optimizing the entire data preparation, training, and model evaluation processes. Through my efforts, we've been able to significantly enhance the efficiency and accuracy of our AI models, ultimately leading to better-informed decision-making and improved project outcomes.

One of my core competencies lies in the development of custom metrics that empower us to evaluate semantic segmentation models with unparalleled precision. These tailored metrics have become indispensable tools for assessing the effectiveness of our AI solutions, ensuring that they meet and exceed the highest standards. In addition to metric development, I'm deeply involved in the training of cutting-edge semantic segmentation models for point clouds. Furthermore, I've spearheaded the establishment of leaderboards to continuously monitor and benchmark our models' performance, fostering a culture of innovation and excellence within the team.

Beyond semantic segmentation, I've taken on an ambitious project that involves the development of a Python library designed to adapt digital building models (BIM IFC) to accurately reflect real-world construction outcomes. This innovative library focuses on transforming point cloud data into Building Information Modeling (BIM) structures, bridging the gap between digital design and as-built reality.

To accomplish these tasks, I skillfully leverage a versatile technology stack that includes Python, Open3D, PyTorch3D, IfcOpenShell, BIMcollab ZOOM, MeshLab, Scikit-Learn, and GitLab. These tools empower me to deliver transformative solutions and contribute to Aiway's mission of advancing the intersection of AI and spatial data.

Afro Fashion Stable Diffusion is an AI model explicitly designed for African fashion. As part of our Inclusive Fashion AI (InFashAI) initiative, we aim to create datasets and AI models that better represent the diversity of the fashion universe. Using almost 100,000 images with their titles and descriptions from the African fashion sales platform Afrikrea , we fine-tuned the Stable Diffusion model v1.4. The resulting model generates more relevant African fashion items as it accounts better for African fashion features. Our model is capable of generating improved images of African fashion.

We hope this technology will help stylists, designers, and others in their creation and designing process. We are committed to creating more diverse and inclusive AI technologies.

The TSP Visualization App is a JavaFX desktop application designed to help children understand the Traveling Salesman Problem (TSP) through interactive visualization. This app developpement is dedicated to science education for young audiences.

The Traveling Salesman Problem is a classic optimization problem where the goal is to find the shortest path that visits a set of given points.

The project follows the Model-View-Controller (MVC) architectural pattern:

1. Model: Provides the necessary functionality for the graphical interface and represents the .jar file.
2. View: Consists of FXML files that organize and structure the interface components.
3. Controller: Manages view changes and user interactions, with multiple Java classes handling communication between the view and the model.

The project was developed using the following tools:

1. IDE: Netbeans (version 8.2)
2. Framework: JavaFX
3. Graph Library: Graph Stream (JavaFX 2.0)

An intuitive, free and user-friendly QR Code Generator developed using HTML, CSS, and JavaScript, designed to deliver a seamless user experience. Enables the creation of QR codes from a variety of input types including Text, URLs, and Wi-Fi Network details with ease. Users are empowered with the ability to customize the QR code’s appearance by altering its color scheme and can download the generated code in a PNG format. Particularly focused on providing a straightforward, navigable UI to accommodate both tech-savvy users and digital beginners alike.

The project was developed using the following tools:

1. HTML
2. CSS
3. JavaScript
4. Adobe Firefly

The JavaFX Address Book App is a user-friendly and efficient desktop application designed to help users manage their contact information seamlessly. This application leverages the power of JavaFX to provide an intuitive and visually appealing user interface for organizing and maintaining personal or professional contact lists.

The project was developed using the following tools:

1. IDE: Netbeans (version 8.2)
2. Framework: JavaFX

The project was developed with two of my classmates. The aim of this project is to set up a human-robot dialogue interface (vocal and visual) using the capabilities of programmable humanoid robots. Programmable humanoid robots: NAO and Pepper from SoftBank Robotics. The final solution is a developed chatbot using the RASA open-source framework and machine learning algorithms. The chatbot is then interfaced with the two robots to act as a welcome agent at the Centre d'Enseignement et de Recherche en Informatique (CERI). The bots have two main functionalities:

1. Consult students timetable and check availability.
2. As well as four secondary social functions: tell jokes, consult the weather, search in a wiki and play some quiz.

The project was developed using the following tools:

1. Python, HTML, CSS
2. Rasa Open Source
3. Choregraphe Suite
4. Robots : Pepper and NAO
5. Google Clood Speech API
6. REST-API