PROJECT SHOWCASE // REAL BUILDS

Projects on My Bench

Here are the three real projects I am currently building and documenting. Because I value honesty in technical documentation, each project page lists only confirmed components and real progress—never invented specifications.

Current Projects (3)

Status: In progress Project 01

Multi-Functional RC Controller

An ongoing RC controller project focused on remote control hardware and hardware-software integration.

Confirmed technologies & focus:

  • RC Control
  • Hardware-Software Integration
  • Open-Source Repo

What I am currently learning: Structuring an RC controller system so physical inputs and control software stay reliable and modular.

Next step: Documenting confirmed hardware choices, wiring notes, and iteration logs as testing progresses.

Status: In progress Project 02

RC and Autonomous Vehicle

An ongoing project exploring RC control and autonomous vehicle behavior. This project is part of my effort to understand systems across electronics, control logic, and software.

Confirmed technologies & focus:

  • RC Control
  • Autonomous Behavior Exploration
  • Electronics
  • Control Logic & Software

What I am currently learning: How manual RC control and autonomous decision logic interact with physical vehicle electronics.

Next step: Confirming and testing the hardware platform before publishing specific sensor or controller details.

Status: In progress / Experimental Project 03

MIDI Breadboard Instrument

A breadboard-based project that plays MIDI melodies by converting MIDI data into C code for the device. The hardware currently includes two active buzzers, one passive buzzer, a rotary encoder, a 1.3-inch AMOLED display, two buttons, and two LEDs.

Confirmed components & tools:

  • ESP32 Dual-Core (ESP-IDF v5.2.2)
  • Python RLE MIDI-to-C Compiler
  • 16-Track Flash Symphony
  • 2x Active Buzzers (Kick/Hat)
  • 1x Passive Buzzer (LEDC PWM)
  • 1x Rotary Encoder (PCNT)
  • 1.3" SPI OLED (30 FPS)
  • 2x Buttons & 2x LEDs

What I am currently learning: RLE compression of fragmented MIDI events into C struct arrays, acoustic transposition (+2 octaves) for passive piezo resonance, and Dual-Core FreeRTOS IPC between Core 0 (30 FPS OLED UI) and Core 1 (microsecond audio engine).

Next step: Migrating the dual-breadboard prototype onto a soldered perfboard or custom KiCad PCB.