V:0000 I:0000 R:0000
* DC power supply — transient sim
V1 in 0 DC 12
R1 in out 220
C1 out 0 100u
.tran 1u 5m
.control
  run
  plot v(out)
.end
Electronics Design & Simulation (EDA)

Designing
Reliable
Circuits.

Electronic hardware development requires more than drawing schematics. I validate component behavior, simulate operating conditions, and refine designs before manufacturing — combining engineering principles with modern Electronic Design Automation tools.

01Requirement Analysis
02Functional Block Design
03Schematic Development
04Simulation & Verification
05PCB Layout Design
06Electrical Rule Validation
07Design Optimization
08Manufacturing Preparation
09Technical Documentation
10Revision Support
Professional Services

What I Deliver

Design / Architecture
01

Circuit Architecture

Developing complete electronic circuits from functional requirements, including power regulation, sensing interfaces, digital logic, communication modules, and control circuitry — while ensuring scalability and maintainability.

Power Regulation Sensing Interfaces Digital Logic Communication Modules Control Circuitry
Focus
  • Functional Requirements
  • Scalable Design
  • Maintainability
  • Modular Circuits
Simulation / Validation
02

Simulation & Performance Validation

Running detailed simulations to evaluate voltage levels, current flow, frequency response, transient behavior, switching performance, thermal characteristics, and overall circuit stability before hardware production.

Voltage Analysis Current Flow Frequency Response Transient Behavior Thermal Analysis
Focus
  • Switching Performance
  • Circuit Stability
  • Pre-Production Validation
Layout / PCB
03

PCB Development

Transforming schematics into professionally organized PCB layouts using proper component placement, routing strategies, grounding techniques, and electromagnetic compatibility considerations.

Component Placement Routing Strategy Grounding EMC
Focus
  • Multi-Layer Layouts
  • Manufacturing-Ready Files
Selection / BOM
04

Component Engineering

Selecting electronic components based on electrical ratings, lifecycle availability, manufacturing compatibility, reliability, and cost-effectiveness while considering future maintenance requirements.

Electrical Ratings Lifecycle Availability Cost-Effectiveness
Focus
  • BOM Generation
  • Reliability Review
Iteration / Revision
05

Prototype Optimization

Reviewing prototype behavior, identifying electrical bottlenecks, refining layouts, improving signal paths, reducing electrical noise, and preparing updated revisions for manufacturing.

Noise Reduction Signal Path Refinement Layout Revision
Focus
  • Updated Revisions
  • Manufacturing Prep
Software & Engineering Tools

Tools & Proficiency

Tool Purpose Experience
KiCad Schematics, multilayer PCB layouts, manufacturing files, documentation Advanced
LibrePCB Clean designs, reusable component libraries, project organization Intermediate
NGSpice Analog, digital, and mixed-signal circuit simulation Advanced
Qucs-S RF, analog, and signal-processing simulation Intermediate
Design & Layout
PCB Schematic CaptureAdvanced
Multi-Layer PCB LayoutAdvanced
Analog & Digital Circuit DesignAdvanced
Power Supply DesignAdvanced
Signal Integrity AnalysisIntermediate
Mixed-Signal SystemsIntermediate
Simulation & Verification
Electronic Circuit SimulationAdvanced
Design Rule Verification (DRC)Advanced
Electrical Rule Checking (ERC)Advanced
Component Selection & VerificationAdvanced
Electronic TroubleshootingIntermediate
Embedded Hardware SupportIntermediate
Tools & Documentation
KiCadAdvanced
NGSpiceAdvanced
LibrePCBIntermediate
Qucs-SIntermediate
Bill of Materials (BOM) GenerationAdvanced
Electronic DocumentationAdvanced
Process

Engineering Workflow

01

Requirement analysis

Understanding the electrical requirements that will define the circuit before any design work begins.

Electrical Requirements Scope Definition
02

Functional block design

Mapping the circuit into functional blocks — power, sensing, logic, and communication — before detailed schematic work.

System Partitioning Architecture Planning
03

Schematic development

Capturing the design as a complete schematic, validating component behavior as the circuit takes shape.

KiCad LibrePCB Schematic Capture
04

Simulation and verification

Simulating operating conditions to evaluate voltage, current, frequency response, and thermal behavior before layout.

NGSpice Qucs-S Circuit Simulation
05

PCB layout design

Translating the verified schematic into a multi-layer PCB layout with proper placement, routing, and grounding.

Multi-Layer PCB Routing
06

Electrical rule validation

Running Design Rule Checks and Electrical Rule Checks to catch issues before they reach fabrication.

DRC ERC
07

Design optimization

Refining signal paths, reducing electrical noise, and improving layouts based on simulation and review.

Signal Integrity Noise Reduction
08

Manufacturing preparation

Generating Gerbers, drill files, pick-and-place data, and a complete Bill of Materials for fabrication.

Gerber Files BOM
09

Technical documentation

Producing comprehensive documentation covering schematics, layouts, simulation results, and assembly notes.

Documentation Assembly Notes
10

Revision support

Reviewing prototype results and preparing updated design revisions ahead of full production.

Prototype Review Revision History
Types of Projects

Experience Includes

DC Power Supplies
Battery Management Circuits
Motor Control Systems
Sensor Interface Circuits
Embedded Controller Boards
Communication Interfaces
Signal Conditioning Circuits
Audio Amplifiers
LED Driver Systems
Voltage Monitoring Devices
Industrial Control Electronics
Educational Lab Hardware
About Me

Simulation-Driven Engineering

A successful electronic product is built on careful planning, accurate simulation, and disciplined verification. Rather than relying on trial-and-error during manufacturing, I prioritize validating every design stage through analysis and simulation.

This approach improves reliability, minimizes redesign costs, and accelerates development timelines.

My objective is to deliver electronic designs that combine functional accuracy, manufacturing readiness, and long-term reliability — helping transform electronic concepts into validated hardware solutions ready for prototyping and production.

  • Electrical Safety
  • Signal Integrity
  • Manufacturability
  • Thermal Management
  • Power Efficiency
  • Design Consistency
  • Documentation Quality
  • Maintainability
  • Reliability
  • Verification Before Production
Deliverables

Technical Documentation

Schematic Diagrams PCB Layout Files Simulation Reports Component Libraries Bill of Materials (BOM) Design Revision History Manufacturing Outputs Assembly Documentation Testing Procedures Engineering Notes