Mechatronics Engineer · Johannesburg, South Africa

From sketch to
production floor.

13+ years taking products from first concept to production — mechanical, electronic, and firmware.

Black and white portrait of Johan van Graan

Johan van Graan

Expertise

01
draw

Concept Development

Turning ideas into viable engineering concepts. Feasibility studies, proof-of-concept prototyping, technology selection, and architecture definition — the groundwork that determines whether a product succeeds or fails.

Feasibility Prototyping Architecture Risk Analysis Trade Studies
precision_manufacturing

Product Development

Full product lifecycle management from initial concept through to mass production. Cross-functional coordination of mechanical, electronic, and firmware workstreams with a focus on cost, quality, and time-to-market.

NPI BOM Management DVT / PVT Tooling Cross-Functional
memory

Embedded Systems

Firmware architecture and hardware design from proof-of-concept through production. Sensor integration, motor control, communication protocols, and custom PCB layouts.

ESP32 ESP-IDF KiCad CAN Bus Modbus MQTT
architecture

Mechanical Design

Product development from concept to tooling release. Tolerance analysis, DFM, IP-rated enclosure design, injection moulding, and sheet metal. Reverse engineering using 3D scanning workflows.

SolidWorks GD&T DFM / DFA IP68 3D Scanning
factory

Manufacturing & Quality

Production-floor quality systems, process validation, root cause analysis, and supplier management. Bridging the gap between engineering intent and what actually comes off the line.

PFMEA 8D IATF 16949 SPC Gage R&R IPC-J-STD-001
hub

Systems Integration

Multi-axis motion control, industrial automation, IoT telemetry, and energy management systems. Designing architectures that tie sensors, actuators, and data together reliably.

Motor Control RS485 IoT BMS PLC

Experience

02

Lead Mechatronics Engineer

Nov 2023 – Present

Product Development · Johannesburg

Leading mechanical and electronic product development from concept through production. DFMEA, root cause analysis (8D), supplier management across local and international manufacturers, DFM using SolidWorks, and quality systems including inspection criteria and test protocol development.

Mechatronics / Product Engineer

Oct 2020 – Oct 2023

Autoliv · Automotive Safety · Krugersdorp

IATF 16949 compliance for automotive safety components (airbags, seatbelts, steering wheels). Certified MPS Engineering Auditor with 100+ audits. Core Tools (APQP, DFMEA, PFMEA, MSA, SPC, DOE), machine design, and industrial communication protocols (CANOpen, Profinet, Modbus).

Technical Training & Applications

2014 – 2020

SEW-EURODRIVE · Industrial Automation

Industrial drive systems commissioning, technical application support, and customer training delivery. Field service across diverse industrial applications including conveyors, mixers, and material handling equipment. PLC systems (Siemens, Omron, Keyence) and vision system integration.

Research & Development

2011 – 2013

TSE / TUT · Autonomous Vehicles

R&D on autonomous vehicle platforms. Sensor fusion, control systems, embedded programming, and rapid prototyping in a research environment.

Education & Certifications

03
school 2012

National Diploma: Engineering: Mechatronics

Tshwane University of Technology

Core studies in mechanical engineering, electronics, control systems, and industrial automation.

verified

Professional Certifications

IATF 16949:2016 Core Tools 2021
MPS Engineering Auditor Autoliv
Six Sigma White Belt 2022
SolidWorks Essential Training 2022
Cognex In-Sight Explorer 2021

Approach

04

Engineering is the practice of making things work under real-world constraints — not just on a screen or a bench. Every design decision carries consequences downstream, from tooling cost to field reliability.

I work across the full stack of physical product development: the CAD model, the circuit board, the firmware, the production process, and the quality system that holds it all together.

The most valuable engineering happens at the boundaries between disciplines. A better mechanical design can eliminate a sensor. A smarter firmware architecture can simplify the BOM.

01 — Design for Manufacturing

A design that can't be built reliably at scale isn't finished. Production constraints inform the concept, not the other way around.

02 — Fail Fast, Fix Early

Prototyping and testing before committing to tooling. Every assumption gets validated — on the bench, in the field, or through analysis.

03 — Systems Thinking

Components don't exist in isolation. Mechanical, electrical, and firmware decisions are made together, with full awareness of how they interact.

04 — Root Cause, Not Symptoms

When something fails, find out why — not just what. Structured problem solving that prevents recurrence.

Let's talk.

Open to discussing engineering challenges, collaboration opportunities, or interesting problems worth solving.