Author / 作者: Mao Guanghui (毛广辉) · maomaoati@gmail.com
Date / 日期: 2026-06-08 · Prior Art Disclosure / 先占权公开
PEOS is a conceptual architecture that maps every conventional operating system function directly onto the intrinsic physical behaviors of photonic substrates — without requiring any electronic control layer in steady-state operation.
PEOS（光子涌现操作系统）是一种概念架构，将所有传统操作系统功能直接映射到 光子基底的固有物理行为上——在稳态运行中无需任何电子控制层。
The kernel is not software running on photonic hardware. The kernel IS the physical behavior of photonic hardware.
内核不是运行在光子硬件上的软件。 内核就是光子硬件的物理行为本身。
PEOS is the system layer of PCFS — a complete architecture for photon-native computing from logic gate to operating system.
PEOS 是 PCFS 的系统层——一个从逻辑门到操作系统的完整光子原生计算架构。
┌──────────────────────────────────────────────────────────────┐
│ PEOS · System Layer [this repository] │
│ 光子涌现操作系统 · 系统层 │
│ 5 physics-native OS primitives / 五大物理原生OS原语 │
│ DOI: 10.5281/zenodo.20603667 │
├──────────────────────────────────────────────────────────────┤
│ BitStar · Network Layer / 网络层 │
│ Geographic Photonic Routing (GeoAddress Protocol) │
│ 地理坐标光子路由协议 │
│ github.com/maomaoati-coder │
├──────────────────────────────────────────────────────────────┤
│ PSM · Memory Layer / 存储层 │
│ Photonic State Memory · 光子态存储器 │
│ Phase-state optical storage / 相位态光存储 │
│ DOI: 10.5281/zenodo.20603456 │
├──────────────────────────────────────────────────────────────┤
│ PLC · Logic Layer / 逻辑层 │
│ Photonic Logic Chip · 光影芯片 │
│ Interferometric logic gates (AND / OR / NOT / XOR) │
│ DOI: 10.5281/zenodo.19801651 │
└──────────────────────────────────────────────────────────────┘
PEOS defines five primitives (31 technical claims — see PEOS-CLAIMS-v1.0.txt) that collectively replace the Von Neumann OS kernel without any software control loop.
PEOS 定义五大原语（31条技术权利主张），共同取代冯·诺依曼OS内核， 无需任何软件控制循环。
| Primitive / 原语 | Replaces / 替代 | Physical Mechanism / 物理机制 |
|---|---|---|
| P-I Photonic Process (PP) | Process management / 进程管理 | Self-sustaining coherent optical cavity loop / 自持相干光学环路 |
| P-II Phase Address Space (PAS) | Memory management / 内存管理 | Phase angle θ ∈ [0, 2π) as address / 相位角作地址 |
| P-III Energy Routing Scheduling (ERS) | CPU scheduler / CPU调度 | Photon energy density gradient / 光子能量密度梯度 |
| P-IV Interference Interrupt (II) | Interrupt controller / 中断控制器 | Optical interference event / 光学干涉事件 |
| P-V Emergent Concurrency (EC) | Threading model / 线程模型 | WDM wavelength orthogonality / WDM波长正交性 |
| Feature / 特性 | Von Neumann OS | PEOS |
|---|---|---|
| Global clock / 全局时钟 | Required / 必需 | Eliminated / 消除 |
| Memory address / 内存地址 | Integer [0, 2ᴺ) | Phase angle [0, 2π) |
| Scheduling latency / 调度延迟 | ~microseconds / ~微秒 | ~picoseconds / ~皮秒 |
| Interrupt delivery / 中断传递 | APIC + IDT | Optical interference / 光学干涉 |
| Thread isolation / 线程隔离 | Mutex / semaphore | Wavelength orthogonality / 波长正交 |
| Process termination / 进程终止 | kill() syscall | Coherence decay / 相干衰减 |
All five primitives verified via mathematical simulation (Python / NumPy / Google Colab). Simulation script: PEOS-Simulation-v1.1.py
⚠️ Academic Honesty / 学术诚信声明 All results are mathematical model simulations verifying internal consistency of the PEOS architecture. No physical hardware implementation or hardware-level measurement of any kind is claimed. Simulation ≠ Hardware Verification.所有结果均为数学模型仿真，验证PEOS架构的内部一致性。 不声明任何物理硬件实现或硬件级测量。 仿真 ≠ 硬件验证。
| Primitive / 原语 | Tests | Result | Key Values / 关键数值 |
|---|---|---|---|
| P-I Photonic Process | 3/3 | ✅ PASS | I_run=0.581 > 0.10; termination t=2.683; Δφ_child=0.524 rad |
| P-II Phase Address Space | 3/3 | ✅ PASS | I_correct=1.000; I_wrong=1.52e-8; I_legal=0.923, I_illegal=1.93e-22 |
| P-III Energy Routing Sched. | 3/3 | ✅ PASS | alloc=[0.444,0.278,0.167,0.111]; ratio=4.0 > k=2.0; std=0.0 |
| P-IV Interference Interrupt | 3/3 | ✅ PASS | I_construct=4.0 > 3.0 ✓; I_destruct=0.0; I_masked=2.0 < 3.0 ✓ |
| P-V Emergent Concurrency | 3/3 | ✅ PASS | cross-corr=1.21e-16 < 1e-10; FWM SNR=40.8 > 5.0 |
| Total / 合计 | 15/15 | ✅ ALL PASS |
Document : PEOS Simulation Verification v1.1 Output
Date : 2026-06-08
Tests : 15/15 ALL PASS
SHA256 : 8b4d5be34cc781f469a26434da781ad7c45766fa8d58bde20f736fef72c7caa5
Full hash chain record: HASH_CHAIN.md
| Document / 文档 | ID | Status |
|---|---|---|
| Zenodo Preprint | DOI: 10.5281/zenodo.20603667 | ✅ Published |
| Technical Claims | PEOS-CLAIMS-v1.0 | ✅ Hashed |
| Simulation Verification | PEOS-Simulation-v1.1 | ✅ 15/15 PASS |
| SHA256 Hash Chain | HASH_CHAIN.md | ✅ Established |
| Layer / 层 | Invention / 发明 | DOI / Record |
|---|---|---|
| Logic / 逻辑 | PLC — Photonic Logic Chip / 光影芯片 | 10.5281/zenodo.19801651 |
| Memory / 存储 | PSM — Photonic State Memory / 光子态存储器 | 10.5281/zenodo.20603456 |
| Network / 网络 | BitStar — Geographic Photonic Routing | GitHub prior art |
| System / 系统 | PEOS — Photonic Emergence OS | 10.5281/zenodo.20603667 |
PEOS/
├── README.md ← this file / 本文件
├── PEOS-CLAIMS-v1.0.txt ← 31 technical claims / 31条技术权利主张
├── PEOS-Zenodo-Paper-v1.0.txt ← preprint paper / 预印本论文
├── PEOS-Simulation-v1.1.py ← verification script / 验证脚本 (Colab)
├── PEOS-Simulation-v1.1-output.txt ← verified output / 验证输出 (15/15 PASS)
└── HASH_CHAIN.md ← SHA256 hash chain / 哈希链记录
MGOVL v2.0 — Mao Guanghui Open Vision License
| Usage / 用途 | Permitted / 许可 |
|---|---|
| Academic citation / 学术引用 | ✅ Freely permitted with attribution / 注明出处后自由使用 |
| Non-commercial research / 非商业研究 | ✅ Freely permitted with attribution |
| Study, fork, discuss / 学习、fork、讨论 | ✅ Welcome / 欢迎 |
| Commercial use / 商业使用 | ❌ Requires written authorization / 需书面授权 |
商业使用需获得作者书面授权。
Commercial use of the architectures, methods, or claims described herein
requires written authorization from the author.
Mao Guanghui (毛广辉)
Independent Inventor / 独立发明人
Xinzheng, Zhengzhou, Henan, China / 中国河南省郑州市新郑市
📧 maomaoati@gmail.com
🐙 github.com/maomaoati-coder
© 2026 Mao Guanghui. All rights reserved under MGOVL v2.0.
This repository constitutes a formal prior art disclosure.
© 2026 毛广辉。MGOVL v2.0保留所有权利。本仓库构成正式先占权公开。