Embedded TechLab

Embedded TechLab Specializing in the Research, Design, and Development of Embedded System Hardware and Software

17/09/2026

An unedited look at our workflow at Embedded TechLab.

From assembling and testing prototypes to troubleshooting and refining designs, this is part of what happens when we take on engineering and product development projects.

This is what we do at Embedded TechLab.From electronics design and PCB development to assembly, firmware, product engine...
27/08/2026

This is what we do at Embedded TechLab.

From electronics design and PCB development to assembly, firmware, product engineering and testing, we work through the different stages required to turn an idea into a working product.

The 3-source changeover control panel is one of the products currently going through that process, managing Grid, Generator and Solar sources.

Behind every finished product is a lot of design, building, testing and refinement.

We build, test and improve.

From Idea to Physical Build!Every product begins as an idea. Bringing that idea to life takes careful planning, engineer...
06/08/2026

From Idea to Physical Build!

Every product begins as an idea. Bringing that idea to life takes careful planning, engineering, and countless design decisions.

Today, we are pleased to share the PCB design and 3D model of PocketNode, a multi-protocol wireless handheld device, designed and developed at Embedded TechLab in Nigeria.

What you are looking at:

-Bottom copper layer featuring radio circuitry, motion sensors, power management, and supporting components

-Top copper layer with signal routing.

-Front 3D view showing the touchscreen display, navigation buttons, and antenna connector

-Rear 3D view highlighting the ESP32, radio module, battery compartment, SD card slot, USB interface, and supporting circuitry

We have received valuable feedback on this version and will be making relevant adjustments to serve the next iteration of PocketNode better.

03/08/2026

PocketNode — Imagined. Designed. Built. PocketNode is one of the innovative embedded systems developed at Embedded TechLab. From the initial idea to hardware development, firmware engineering, testing, and refinement, this project represents our commitment to transforming concepts into functional technology products. Designed and built in our lab, PocketNode brings together wireless communication, sensing, connectivity, and interactive applications in a compact handheld device. In this video, we take you through the device, its capabilities, and a glimpse into the engineering process behind bringing this idea to life.

We are currently hiring a Mechanical Design Engineer and thought this opportunity might interest you.Would you like to l...
23/06/2026

We are currently hiring a Mechanical Design Engineer and thought this opportunity might interest you.

Would you like to learn more about the role or submit an application?

Visit the link below for full details and application instructions:

https://tinyurl.com/48z5nxa4

We look forward to hearing from you.

We are looking for a talented Social Media and Brand Manager to join our team.If you are interested in exciting engineer...
23/06/2026

We are looking for a talented Social Media and Brand Manager to join our team.

If you are interested in exciting engineering projects and career growth opportunities, we would love to hear from you.

Learn more and apply here:

https://tinyurl.com/mr2yc27r

Happy weekend from all of us at Embedded TechLab.
21/03/2026

Happy weekend from all of us at Embedded TechLab.

Two-Layer SMD Assembly — Engineering a Compact IoT Bio-Tracker.One of the most critical stages in developing our IoT Bio...
27/02/2026

Two-Layer SMD Assembly — Engineering a Compact IoT Bio-Tracker.

One of the most critical stages in developing our IoT Bio-Health Tracker at Embedded TechLab was the PCB assembly process. The design utilizes a two-layer board architecture to balance precision sensing and compact integration. On the first layer, we placed the core sensing components, the infrared sensor for BPM measurement, the accelerometer IC, and the gyroscope, alongside other critical SMD parts. These were assembled using a controlled reflow process to ensure proper thermal profiling, alignment accuracy, and reliable solder joints for signal integrity.

The second layer houses the microcontroller, power management circuitry, and supporting telemetry components, carefully hand-soldered to maintain placement control and structural stability. This layered approach allowed us to constrain the overall board size while preserving functionality, enabling a compact form factor suitable for handheld and wearable applications. The final assembly integrates seamlessly into its custom casing, completing a build focused on size efficiency, reliability, and practical usability.

Current efforts are focused on iterative refinement of signal conditioning, noise reduction, motion-artifact compensation, and power optimization. Future development will explore expanded data logging, enhanced validation studies, and broader integration models to strengthen the system’s applicability in continuous physiological monitoring research.

24/02/2026

IoT Bio-Health Tracking Device — Engineering Process & Testing

This video documents the engineering process behind our IoT-based Bio-Health Tracking Device developed at Embedded TechLab. From two-layer PCB assembly and controlled reflow soldering to power validation, firmware deployment, and live sensor testing, the build demonstrates our structured approach to embedded product development.

Proximity Detection Meets Long-Range CommunicationPhysical obstruction detected. Signal transmitted. Response confirmed....
03/02/2026

Proximity Detection Meets Long-Range Communication

Physical obstruction detected. Signal transmitted. Response confirmed.

This system demonstrates a practical implementation of distance sensing paired with LoRa communication. The hardware combines ultrasonic sensors for proximity detection with LoRa modules for reliable, long-range wireless transmission, extending communication well beyond typical WiFi or Bluetooth limits.

The design process involved careful integration of the sensor interface, power management, and radio communication stack. Once assembled, the firmware was programmed to detect physical obstructions and relay that information to a remote receiver in real time.

At Embedded TechLab, we validate these systems under real conditions: checking response times, across distance. This hands-on approach ensures that the hardware and software work together reliably before deployment.

Address

120 Faulks Road
Aba
450272

Opening Hours

Monday 09:00 - 17:00
Tuesday 09:00 - 17:00
Wednesday 09:00 - 17:00
Thursday 09:00 - 17:00
Friday 09:00 - 17:00
Saturday 10:30 - 16:00

Telephone

+2347025911230

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