legacy-circuit-mockups

github/awesome-copilot · Agent Skill

Genera diagrammi di circuiti visivi e mockup per progetti retrò, inclusi componenti 6502 e timer 555.

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AutoregithubOrganizzazione
Repositorygithub/awesome-copilot ↗
Cartella dello skilllegacy-circuit-mockups
Stelle38.754
File inclusi21
LicenzaMIT
Aggiornato6 agosto 2026
LinkSorgente dello skill ↗ · Repository ↗

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Installazione

Uno skill è una cartella con un file SKILL.md. Scegli il tuo agente ed esegui i comandi in un terminale (macOS, Linux o Git Bash su Windows) dalla radice del progetto.

Incolla il prompt in Claude, Codex o un altro assistente: controllerà lo skill e lo installerà.

Install the “legacy-circuit-mockups” skill from mozgi.io (https://mozgi.io/skills/legacy-circuit-mockups/) for me.

1. Download the archive: https://mozgi.io/skills/legacy-circuit-mockups/download
   If it fails, take the skill folder from the source: https://github.com/github/awesome-copilot/tree/main/skills/legacy-circuit-mockups
2. Read SKILL.md and the other files. Check the skill is safe: no hidden commands, no sending data elsewhere, no scripts doing something other than described. If anything looks suspicious, stop and tell me.
3. Put the “legacy-circuit-mockups” folder into your agent's skills folder: .claude/skills/ for Claude Code, .agents/skills/ for Codex, .cursor/skills/ for Cursor, .gemini/skills/ for Gemini CLI. Inside the project if we are in one, otherwise in the home folder (~/.claude/skills/ etc.).
4. Make sure <skills folder>/legacy-circuit-mockups/SKILL.md exists.
5. Briefly tell me what this skill does and offer to try it on my task.

If you cannot do a step yourself, tell me what to click or type.

File dello skill

21 file Scarica ZIP

Leggi SKILL.md e i file correlati prima di installare. Clicca un file per l'anteprima.

Contenuto di SKILL.md

Testo originale dell'autore · sola lettura

Legacy Circuit Mockups

A skill for creating breadboard circuit mockups and visual diagrams for retro computing and electronics projects. This skill leverages HTML5 Canvas drawing mechanisms to render interactive circuit layouts featuring vintage components like the 6502 microprocessor, 555 timer ICs, EEPROMs, and 7400-series logic gates.

When to Use This Skill

  • User asks to "create a breadboard layout" or "mockup a circuit"
  • User wants to visualize component placement on a breadboard
  • User needs a visual reference for building a 6502 computer
  • User asks to "draw a circuit" or "diagram electronics"
  • User wants to create educational electronics visuals
  • User mentions Ben Eater tutorials or retro computing projects
  • User asks to mockup 555 timer circuits or LED projects
  • User needs to visualize wire connections between components

Prerequisites

  • Understanding of component pinouts from bundled reference files
  • Knowledge of breadboard layout conventions (rows, columns, power rails)

Supported Components

Microprocessors & Memory

| Component | Pins | Description |

|-----------|------|-------------|

| W65C02S | 40-pin DIP | 8-bit microprocessor with 16-bit address bus |

| 28C256 | 28-pin DIP | 32KB parallel EEPROM |

| W65C22 | 40-pin DIP | Versatile Interface Adapter (VIA) |

| 62256 | 28-pin DIP | 32KB static RAM |

Logic & Timer ICs

| Component | Pins | Description |

|-----------|------|-------------|

| NE555 | 8-pin DIP | Timer IC for timing and oscillation |

| 7400 | 14-pin DIP | Quad 2-input NAND gate |

| 7402 | 14-pin DIP | Quad 2-input NOR gate |

| 7404 | 14-pin DIP | Hex inverter (NOT gate) |

| 7408 | 14-pin DIP | Quad 2-input AND gate |

| 7432 | 14-pin DIP | Quad 2-input OR gate |

Passive & Active Components

| Component | Description |

|-----------|-------------|

| LED | Light emitting diode (various colors) |

| Resistor | Current limiting (configurable values) |

| Capacitor | Filtering and timing (ceramic/electrolytic) |

| Crystal | Clock oscillator |

| Switch | Toggle switch (latching) |

| Button | Momentary push button |

| Potentiometer | Variable resistor |

| Photoresistor | Light-dependent resistor |

Grid System

// Standard breadboard grid: 20px spacing
const gridSize = 20;
const cellX = Math.floor(x / gridSize) * gridSize;
const cellY = Math.floor(y / gridSize) * gridSize;

Component Rendering Pattern

// All components follow this structure:
{
  type: 'component-type',
  x: gridX,
  y: gridY,
  width: componentWidth,
  height: componentHeight,
  rotation: 0,  // 0, 90, 180, 270
  properties: { /* component-specific data */ }
}

Wire Connections

// Wire connection format:
{
  start: { x: startX, y: startY },
  end: { x: endX, y: endY },
  color: '#ff0000'  // Wire color coding
}

Step-by-Step Workflows

Creating a Basic LED Circuit Mockup

1. Define breadboard dimensions and grid

2. Place power rail connections (+5V and GND)

3. Add LED component with anode/cathode orientation

4. Place current-limiting resistor

5. Draw wire connections between components

6. Add labels and annotations

Creating a 555 Timer Circuit

1. Place NE555 IC on breadboard (pins 1-4 left, 5-8 right)

2. Connect pin 1 (GND) to ground rail

3. Connect pin 8 (Vcc) to power rail

4. Add timing resistors and capacitors

5. Wire trigger and threshold connections

6. Connect output to LED or other load

Creating a 6502 Microprocessor Layout

1. Place W65C02S centered on breadboard

2. Add 28C256 EEPROM for program storage

3. Place W65C22 VIA for I/O

4. Add 7400-series logic for address decoding

5. Wire address bus (A0-A15)

6. Wire data bus (D0-D7)

7. Connect control signals (R/W, PHI2, RESB)

8. Add reset button and clock crystal

Component Pinout Quick Reference

555 Timer (8-pin DIP)

| Pin | Name | Function |

|:---:|:-----|:---------|

| 1 | GND | Ground (0V) |

| 2 | TRIG | Trigger (< 1/3 Vcc starts timing) |

| 3 | OUT | Output (source/sink 200mA) |

| 4 | RESET | Active-low reset |

| 5 | CTRL | Control voltage (bypass with 10nF) |

| 6 | THR | Threshold (> 2/3 Vcc resets) |

| 7 | DIS | Discharge (open collector) |

| 8 | Vcc | Supply (+4.5V to +16V) |

W65C02S (40-pin DIP) - Key Pins

| Pin | Name | Function |

|:---:|:-----|:---------|

| 8 | VDD | Power supply |

| 21 | VSS | Ground |

| 37 | PHI2 | System clock input |

| 40 | RESB | Active-low reset |

| 34 | RWB | Read/Write signal |

| 9-25 | A0-A15 | Address bus |

| 26-33 | D0-D7 | Data bus |

28C256 EEPROM (28-pin DIP) - Key Pins

| Pin | Name | Function |

|:---:|:-----|:---------|

| 14 | GND | Ground |

| 28 | VCC | Power supply |

| 20 | CE | Chip enable (active-low) |

| 22 | OE | Output enable (active-low) |

| 27 | WE | Write enable (active-low) |

| 1-10, 21-26 | A0-A14 | Address inputs |

| 11-19 | I/O0-I/O7 | Data bus |

Formulas Reference

Resistor Calculations

  • Ohm's Law: V = I × R
  • LED Current: R = (Vcc - Vled) / Iled
  • Power: P = V × I = I² × R

555 Timer Formulas

Astable Mode:

  • Frequency: f = 1.44 / ((R1 + 2×R2) × C)
  • High time: t₁ = 0.693 × (R1 + R2) × C
  • Low time: t₂ = 0.693 × R2 × C
  • Duty cycle: D = (R1 + R2) / (R1 + 2×R2) × 100%

Monostable Mode:

  • Pulse width: T = 1.1 × R × C

Capacitor Calculations

  • Capacitive reactance: Xc = 1 / (2πfC)
  • Energy stored: E = ½ × C × V²

Color Coding Conventions

Wire Colors

| Color | Purpose |

|-------|---------|

| Red | +5V / Power |

| Black | Ground |

| Yellow | Clock / Timing |

| Blue | Address bus |

| Green | Data bus |

| Orange | Control signals |

| White | General purpose |

LED Colors

| Color | Forward Voltage |

|-------|-----------------|

| Red | 1.8V - 2.2V |

| Green | 2.0V - 2.2V |

| Yellow | 2.0V - 2.2V |

| Blue | 3.0V - 3.5V |

| White | 3.0V - 3.5V |

Build Examples

Build 1 — Single LED

Components: Red LED, 220Ω resistor, jumper wires, power source

Steps:

1. Insert black jumper wire from power GND to row A5

2. Insert red jumper wire from power +5V to row J5

3. Place LED with cathode (short leg) in row aligned with GND

4. Place 220Ω resistor between power and LED anode

Build 2 — 555 Astable Blinker

Components: NE555, LED, resistors (10kΩ, 100kΩ), capacitor (10µF)

Steps:

1. Place 555 IC straddling center channel

2. Connect pin 1 to GND, pin 8 to +5V

3. Connect pin 4 to pin 8 (disable reset)

4. Wire 10kΩ between pin 7 and +5V

5. Wire 100kΩ between pins 6 and 7

6. Wire 10µF between pin 6 and GND

7. Connect pin 3 (output) to LED circuit

Troubleshooting

| Issue | Solution |

|-------|----------|

| LED doesn't light | Check polarity (anode to +, cathode to -) |

| Circuit doesn't power | Verify power rail connections |

| IC not working | Check VCC and GND pin connections |

| 555 not oscillating | Verify threshold/trigger capacitor wiring |

| Microprocessor stuck | Check RESB is HIGH after reset pulse |

References

Detailed component specifications are available in the bundled reference files:

Domande frequenti

Che cosa fa lo skill legacy-circuit-mockups?

Genera diagrammi di circuiti visivi e mockup per progetti retrò, inclusi componenti 6502 e timer 555.

Come si installa legacy-circuit-mockups?

Apri il blocco “Installazione” in questa pagina e scegli il tuo agente — Claude Code, Codex, Cursor o Gemini CLI — per i comandi pronti che copiano la cartella dello skill nel posto giusto. Oppure copia il prompt dalla scheda “Con l'assistente” e lascia che sia l'assistente a controllare e installare lo skill.

Con quali modelli AI funziona legacy-circuit-mockups?

Gli skill sono semplici istruzioni in Markdown (formato Agent Skills), quindi legacy-circuit-mockups funziona con qualsiasi agente che legge SKILL.md: Claude Code, Codex, Cursor, Gemini CLI, GitHub Copilot, OpenCode e altri. Il modello carica le istruzioni solo quando il compito corrisponde alla descrizione dello skill.

legacy-circuit-mockups è gratuito?

Lo skill è pubblicato apertamente da github con licenza MIT. Lo skill in sé non costa nulla: paghi solo il tuo fornitore AI per i token usati.

È sicuro installare gli skill?

Uno skill è un insieme di istruzioni che il tuo agente seguirà: leggi SKILL.md e i file correlati prima di installarlo. Gli script nella cartella dello skill vengono eseguiti solo se li esegue l'agente: controlla cosa fa e non concedere permessi superflui.

In cosa differisce uno skill da un server MCP o da un plugin?

Un server MCP o un plugin danno al modello nuovi strumenti: codice che viene eseguito e restituisce un risultato. Uno skill fornisce conoscenza e metodo: come affrontare il compito, quali passi seguire e com'è un buon risultato. Non servono server né chiavi API.

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