Draw a realistic flux capacitor made out of a graphene lattice use this json as a guide:

{
  "project": {
    "title": "Twisted Bilayer Graphene for Superconductivity",
    "goals": {
      "primary_goal": "To fabricate, optimize, and explore twisted bilayer graphene as a scalable superconducting material.",
      "applications": ["Lossless power grids", "Quantum computing", "Efficient transportation systems"]
    },
    "requirements": {
      "knowledge": ["Materials science", "Quantum physics", "Nanotechnology"],
      "skills": ["Simulation", "Layer alignment", "Cryogenic testing"],
      "tools": {
        "basic": ["Tape and graphite", "Microscopes", "Silicon wafers"],
        "advanced": ["Cryogenic systems", "Spectroscopy tools (Raman, STM)", "Electron-beam lithography"]
      }
    },
    "actions": [
      {
        "name": "Simulate",
        "description": "Model moiré patterns and electronic band structures using Quantum ESPRESSO or similar tools.",
        "output": "Predicted configurations for flat bands and superconductivity."
      },
      {
        "name": "Fabricate",
        "description": "Align graphene layers at specific twist angles using micromanipulators in an inert environment.",
        "output": "Physical samples of twisted bilayer graphene."
      },
      {
        "name": "Test",
        "description": "Measure resistance and critical temperatures of samples under cryogenic conditions.",
        "output": "Superconductivity data for optimization."
      }
    ],
    "collaboration": {
      "options": ["Research labs", "Online communities", "Industry partnerships"],
      "platforms": ["ResearchGate", "GitHub", "Discord"]
    },
    "feedback_loops": {
      "type": "Iterative",
      "steps": ["Simulate -> Fabricate -> Test -> Refine"],
      "goal": "Optimize results based on computational and experimental outcomes."
    },
    "reflection": {
      "sustainability": {
        "energy_use": "Minimize energy during fabrication and testing.",
        "materials": "Recycle substrates and solvents."
      },
      "societal_impact": "Ensure public benefit through clean energy and ethical applications."
    },
    "OICY_alignment": {
      "O": "Establish the foundational purpose of superconductivity in clean energy and advanced technologies.",
      "I": "Take direct actions to simulate, fabricate, and test graphene configurations.",
      "C": "Connect results to societal goals and collaborate with global researchers.",
      "Y": "Reflect on results to improve, innovate, and scale the process."
    }
  }
}