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성공적으로 언팔로우했습니다
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원인을 알 수 없는 문제가 발생하였습니다. 현재의 페이지에서 다시 읽기 버튼을 클릭하신 후에 재시도하여 주시기 바랍니다.
이메일에 대한 인증 절차가 완료되었습니다.
사용자 아바타

Tshibangu S.

@tshibsamuel477

monthly-level-three.svgverified-v2.svg
5.0
64
6.0
6.0
84%

PCB Designer & layout | Embedded Programming

$200 USD / 시간
・
국기 ()
Tunisia (8:48 AM)
・
2월 3, 2023에 가입
$200 USD / 시간
・
My name is Samuel, and I am a mechatronic engineer with a specialization in mechatronics, based in Tunisia, with over six years of experience. During this time, I have successfully delivered a wide range of projects, continually expanding my expertise and refining my skills. I am now offering my professional services in designing and prototyping electronic boards using Altium Designer. My PCB design expertise encompasses: Single and Multi-sheet Schematics Single/double-sided and Multi-layer PCB layouts Data and control interfaces: UART, USB, SPI, I2C, SDIO, PCIe, and more Power supply design, including SMPS & LDOs Digital video, audio, and multimedia interfaces: HDMI, MIPI DSI/CSI, I2S, TDM Reverse engineering for existing designs With a commitment to quality and precision, I am ready to bring your electronic board designs to life.
인증
제시간에
97%
예산 금액 내에
99%
금액 수락
99%
재채용률
12%
Freelancer Electronics Engineers Tunisia
Electronics Engineers 분야의 전체 프리랜서 확인 (대상 국가: Tunisia)

포트폴리오

포트폴리오

12375709
Project Description: Wall-Following Robot Simulation in Webots The project involves creating a simulation in Webots where two robots autonomously navigate a virtual environment by following walls. The robots will utilize C++14 for programming and adhere to a specified wall-following behavior. The primary objectives are: 1. Wall-Following Navigation: - Both robots will implement a strategy to follow walls in the environment while avoiding obstacles. The behavior will follow these rules: - If a wall is on the left and there’s no front wall, move forward. - If a wall is on the left and there’s a front wall, turn right. - If there’s no wall on the left and no front wall, turn left. - If there’s no wall on the left but a front wall is detected, turn right. 2. Race to the Endpoint: - The robots will navigate the environment until one of them reaches a predefined endpoint, represented by the detection of three adjacent walls. 3. Communication and
Robot Simulation in Webots
11838788
LVGL and Arduino Giga
12259638
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
12375591
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
11821756
ESP32-based Scheduler Web
ESP32-based Scheduler Web
11821332
Overview: This project showcases a versatile and innovative Handwarmer Powerbank design meticulously engineered to provide warmth on-the-go while ensuring efficient device charging capabilities. Leveraging the power of ESP32 microcontroller technology, this device offers precise heat control and customizable temperature settings, making it ideal for various outdoor activities and cold weather conditions.
Handwarmer Powerbank
Overview: This project showcases a versatile and innovative Handwarmer Powerbank design meticulously engineered to provide warmth on-the-go while ensuring efficient device charging capabilities. Leveraging the power of ESP32 microcontroller technology, this device offers precise heat control and customizable temperature settings, making it ideal for various outdoor activities and cold weather conditions.
Handwarmer Powerbank
Overview: This project showcases a versatile and innovative Handwarmer Powerbank design meticulously engineered to provide warmth on-the-go while ensuring efficient device charging capabilities. Leveraging the power of ESP32 microcontroller technology, this device offers precise heat control and customizable temperature settings, making it ideal for various outdoor activities and cold weather conditions.
Handwarmer Powerbank
Handwarmer Powerbank
Handwarmer Powerbank
12375709
Project Description: Wall-Following Robot Simulation in Webots The project involves creating a simulation in Webots where two robots autonomously navigate a virtual environment by following walls. The robots will utilize C++14 for programming and adhere to a specified wall-following behavior. The primary objectives are: 1. Wall-Following Navigation: - Both robots will implement a strategy to follow walls in the environment while avoiding obstacles. The behavior will follow these rules: - If a wall is on the left and there’s no front wall, move forward. - If a wall is on the left and there’s a front wall, turn right. - If there’s no wall on the left and no front wall, turn left. - If there’s no wall on the left but a front wall is detected, turn right. 2. Race to the Endpoint: - The robots will navigate the environment until one of them reaches a predefined endpoint, represented by the detection of three adjacent walls. 3. Communication and
Robot Simulation in Webots
11838788
LVGL and Arduino Giga
12259638
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
I developed a feature-rich IoT environmental monitoring system powered by the ESP32S3, designed to manage and automate sensor data collection and relay control. This versatile device is capable of supporting up to 32 sensors (leaf, soil, weather) connected through an RS485 communication line, allowing for extensive data collection in agriculture, horticulture, and environmental monitoring applications. The device also includes 4 programmable relays, providing remote control over various connected systems. A key feature of this project is the web-based configuration interface, which offers users an intuitive platform to: Set up the number of sensors they wish to deploy on the RS485 line. Assign and configure unique IDs for each sensor and relay device. Organize sensors into 9 distinct groups, with 3 sensors per group for efficient data handling and display. Configure Wi-Fi credentials for seamless network integration and remote access.
Esp32 IoT-Based Monitoring
12375591
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
This project involved the design and development of a complex 6-layer PCB for the LuckFox Pro Ultra W, a high-performance networking device. The primary goal was to ensure optimal signal integrity and power delivery for 100Gb Ethernet connectivity.
PCB Design for LuckFox Pro Ultra W
11821756
ESP32-based Scheduler Web
ESP32-based Scheduler Web
11821332
Overview: This project showcases a versatile and innovative Handwarmer Powerbank design meticulously engineered to provide warmth on-the-go while ensuring efficient device charging capabilities. Leveraging the power of ESP32 microcontroller technology, this device offers precise heat control and customizable temperature settings, making it ideal for various outdoor activities and cold weather conditions.
Handwarmer Powerbank
Overview: This project showcases a versatile and innovative Handwarmer Powerbank design meticulously engineered to provide warmth on-the-go while ensuring efficient device charging capabilities. Leveraging the power of ESP32 microcontroller technology, this device offers precise heat control and customizable temperature settings, making it ideal for various outdoor activities and cold weather conditions.
Handwarmer Powerbank
Overview: This project showcases a versatile and innovative Handwarmer Powerbank design meticulously engineered to provide warmth on-the-go while ensuring efficient device charging capabilities. Leveraging the power of ESP32 microcontroller technology, this device offers precise heat control and customizable temperature settings, making it ideal for various outdoor activities and cold weather conditions.
Handwarmer Powerbank
Handwarmer Powerbank
Handwarmer Powerbank
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경험
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SAMFREVOLT
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Responsibilities include completing the designing of PCB projects from scratch to final Gerber data output taking into account the state of the art designing tools for rigid, flex boards by using such advanced CAD tools as Cadence OrCAD & Allegro, Altium Designer, KiCad, Eagle, easyEDA
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1월, 2021 - 선물
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3 , 10
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it's been 5 years that I currently hold the position of hardware designer at ST-concept which is a start up focusing on electronic design.
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교육
Université Tunis Carthage
2021 - 2023
•
2
mechatronics engineer
국기 ()
Tunisia
2021 - 2023
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2
자격증
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Preferred Freelancer Program SLA
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