Independent Experimental Confirmation of Force-Line Photon Topology by the 2025 Supersolid Light Experiment – Robert J. Weber – November 21, 2025

The 2025 supersolid-light experiment (CNR Nanotec / University of Pavia, published in Nature) that created a supersolid state of light in a semiconductor lattice was performed without knowledge of the force-line photon model (DOI 10.5281/zenodo.17667143). The observed freezing of photons into a rigid crystalline pattern while retaining superfluidity is precisely the mechanical locking of open force-line pairs when their latent electron/positron halves fall into phase-coherent topological wells. This constitutes an independent experimental confirmation of the pure-particle, topological nature of light and the elimination of wave-particle duality. The same topological mechanism that gives photons transient mass in the lattice produces the permanent gluon mass in pure Yang–Mills theory via line kinking (DOI 10.5281/zenodo.17619003). Video of the confirming experiment: https://www.youtube.com/watch?v=ZpM4h2c1DqM (0:38–1:12 lattice freeze)2025年超固态光实验由CNR Nanotec与帕维亚大学合作完成，成果发表于《自然》（Nature）期刊。该实验在半导体晶格中制备出光的超固态，且实验开展时并未参考力线光子模型（DOI 10.5281/zenodo.17667143）。实验中观测到光子冻结为刚性晶体构型的同时保留超流性，这恰好对应开放力线对的机械锁定——当其潜在的电子/正电子组分落入相位相干拓扑阱中时。该结果为光的纯粒子性拓扑本质提供了独立实验验证，并证伪了波粒二象性。 在晶格中赋予光子瞬态质量的同一拓扑机制，还可通过力线扭结在纯杨-米尔斯（Yang–Mills）理论中产生胶子的静质量（DOI 10.5281/zenodo.17619003）。 该验证实验的相关视频片段：https://www.youtube.com/watch?v=ZpM4h2c1DqM（0:38–1:12 晶格冻结过程）