01Completed — Version 1.0
Hotspot Management System
BushLite WiFi
A hotspot management system featuring voucher authentication, internet packages, and active-session monitoring across multiple access points.
View Case StudyExpertise
Engineering knowledge,
researched, and applied in practice.
My expertise isn’t three separate service lines — it’s one practice that moves between mechanical engineering, technology education research, and engineering systems development, applying each discipline to sharpen the other two.
Precision & Measurement
01Mechanical Engineering
Where physical judgment starts
The foundation for how I reason about a problem before I touch a system — the baseline every design, repair, or automation judgment is built on.
01
Mechanical Systems
Design, analysis, and troubleshooting of mechanical components and assemblies.
02
Design & Analysis
Working from first principles — statics, tolerances, and failure-mode reasoning.
03
Materials & Applied Mechanics
Selecting and reasoning about materials under real load and service conditions.
04
CNC & Manufacturing
Machining processes, G-code, and practical manufacturing workflows.
05
Maintenance & Reliability
Keeping equipment running safely and predictably over its lifecycle.
06
Energy & Thermodynamic Systems
Thermodynamic optimization and heat-recovery configuration for industrial systems.
02Technology Education Research
Turning engineering knowledge into something teachable
Studying how technical and engineering knowledge is actually learned — not just delivered — is what makes it usable rather than merely correct.
The same discipline that designs a mechanical system is applied to designing how that system is explained, practiced, and retained.
- 01Curriculum Design
Structuring what and how technical topics are taught
- 02Applied Pedagogy
Testing teaching methods in real classroom and workshop settings
- 03STEM & Technical Education Research
Studying how students engage with and retain technical concepts
- 04Practical & Workshop-Based Learning
Learning that survives contact with real equipment, not just slides
- 05Technical Communication
Translating complex ideas into clear, teachable form
- 06Digital Tools for Engineering Learning
Software and simulations that make abstract concepts tangible
03Engineering Systems Development
From prototype to working system
Where a mechanical design or a teaching approach gets tested against reality — turned into software or automation that has to keep working outside a controlled setting.
Python-Based Engineering Tools
Scripts and applications built to support engineering and research work.
Automation
Removing repetitive manual steps from engineering and operational workflows.
Monitoring Systems
Tracking equipment and process state in real time.
AI & Predictive Maintenance
Applying machine learning to anticipate faults before they occur.
Data Analysis
Turning raw sensor and process data into decisions.
System Integration
Connecting hardware, software, and data sources into one working system.
Testing & Deployment
Verifying behaviour and shipping systems that keep running in the field.
04Capability Intersections
How the disciplines combine
Hover or focus a combination to see where it meets on the diagram — the disciplines don't stay in separate lanes.
Mechanical Engineering + AI
Predictive maintenance and condition monitoring
Mechanical Engineering + Technology Education
CNC and engineering-learning systems
Technology Education + Systems Development
Digital teaching tools and simulations
All Three Disciplines
Research-driven engineering systems
05Tools & Technologies
What the work is actually built with
Grouped by what they're used for, not laid out as a logo wall.
Engineering & Analysis
Mechanical DesignCNC & ManufacturingG-codeMaintenance & ReliabilityPredictive Maintenance
Programming & Systems
PythonNode.jsExpress.jsJavaScriptMachine LearningMikroTik IntegrationAI & Automation
Research & Education
Engineering ResearchTechnology EducationSTEM ResearchCurriculum DesignApplied Pedagogy
Design & Documentation
Technical CommunicationResponsive Web DesignData AnalysisIndustrial Analytics
06How Expertise Becomes an Outcome
The same disciplined path, every time
Whichever discipline a project starts in, it moves through the same stages before it counts as finished.
- 01
Understand the Problem
Defining the real constraint before proposing a solution
- 02
Apply Engineering Principles
Reasoning from mechanics, materials, and systems fundamentals
- 03
Research the Context
Checking assumptions against prior work and how people learn
- 04
Design the System
Architecting the mechanical, technical, or teaching solution
- 05
Develop and Test
Building a working prototype and verifying it under real conditions
- 06
Document and Communicate
Making the outcome usable and understandable by others
07Selected Evidence
Where this shows up in practice
02Ongoing
Engineering AI Research
AI + Predictive Maintenance
Applying artificial intelligence and data-driven methods to monitor equipment condition and support maintenance decision-making.
View Case Study03Ongoing
Engineering Systems / Technology Education
Python CNC Automation
Exploring Python-driven CNC automation and G-code workflows to strengthen practical, hands-on engineering learning.
View Case Study
04Research page in progress
Energy Systems & Thermodynamics Research
Low-Enthalpy Geothermal ORC Research
Thermodynamic optimization of energy systems, including working-fluid selection and heat-recovery configuration for industrial applications.
View Research08For Visitors Seeking Digital Services
Looking for a commercial website, business system, or general digital service rather than engineering work? That’s handled separately, through HarunLucas Dev.
Visit HarunLucas DevOpen to Working Together
Put this expertise to work
If any of this overlaps with what you're working on, I'd like to hear about it.
Engineering CollaborationResearch PartnershipsTechnology Education OpportunitiesSystems-Development Work
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