{"ok":true,"trend":{"id":643239,"platform":"news","region":"global","key":"physicists quantum-entangled a levitating speck of glass with light at room temperature","title":"Physicists Quantum-Entangled a Levitating Speck of Glass With Light at Room Temperature","url":"https://news.google.com/rss/articles/CBMitwFBVV95cUxNVmpWQzhJQ2Y4LTJuYmdLMkdCS0xZekR5SW1VLUN4SXZkS3pvSGFiczFRQVprdWRTN1ZBbkJRY3dCS0xBZVRianFrdURkZjdlTzJ3TXA4cmpIM0xVcnJKSFhxUkpkd1M2azlXbjBfcGNjakdpYldKUzZ0ekVFX00xNU45YkdXb2NMb1NfT1RaTmdta3lLOW5iRFQ0VWRodXdYdW9WNDZBZW13QmNCSEpFWjczWTJEMVk?oc=5","first_seen":"2026-10-01T19:09:40.756001Z","last_seen":"2026-10-02T02:00:42.306635Z","last_rank":28,"peak_rank":17,"last_volume":null,"peak_volume":0,"seen_count":6,"score":31.27,"category_hint":"physics","section":"science","category":"physics","summary":"Physicists have quantum-entangled a levitating speck of glass with light without needing extreme cooling, according to a ScienceAlert report. Achieving entanglement in a solid object at room temperature is a notable step for quantum physics, as such experiments normally require cryogenic conditions to isolate delicate quantum states. The result could open new paths for quantum sensing and technologies that are far harder to build when equipment must be chilled to near absolute zero.","why":"A quantum entanglement milestone achieved without cryogenic cooling is a striking physics result with implications for practical quantum technology.","tone":"positive","entities":["ScienceAlert","physicists"],"summarized_at":"2026-10-02T01:13:29.559796Z","meta":{"via":"scan","lang":"en","term":"physics","source":"ScienceAlert","published":"Thu, 01 Oct 2026 18:02:08 GMT"},"nw":null,"promo":null,"kind":null,"importance":null,"hidden":false,"hide_reason":null,"judged_at":null,"title_en":"Physicists Entangle Levitating Glass Particle With Light at Room Temperature","section_name":"Science","category_name":"Physics","timeline":[{"captured_at":"2026-10-01T19:09:40.756001Z","rank":17,"volume":null},{"captured_at":"2026-10-01T20:32:21.967067Z","rank":20,"volume":null},{"captured_at":"2026-10-01T21:54:20.810849Z","rank":21,"volume":null},{"captured_at":"2026-10-01T23:16:23.480462Z","rank":26,"volume":null},{"captured_at":"2026-10-02T00:38:21.280707Z","rank":28,"volume":null},{"captured_at":"2026-10-02T02:00:42.306635Z","rank":28,"volume":null}],"posts":[{"platform":"news","url":"https://news.google.com/rss/articles/CBMitwFBVV95cUxNVmpWQzhJQ2Y4LTJuYmdLMkdCS0xZekR5SW1VLUN4SXZkS3pvSGFiczFRQVprdWRTN1ZBbkJRY3dCS0xBZVRianFrdURkZjdlTzJ3TXA4cmpIM0xVcnJKSFhxUkpkd1M2azlXbjBfcGNjakdpYldKUzZ0ekVFX00xNU45YkdXb2NMb1NfT1RaTmdta3lLOW5iRFQ0VWRodXdYdW9WNDZBZW13QmNCSEpFWjczWTJEMVk?oc=5","author":"ScienceAlert","title":"Physicists Quantum-Entangled a Levitating Speck of Glass With Light at Room Temperature","snippet":null,"posted_at":"2026-10-01T18:02:08Z","likes":null}],"elsewhere":[],"window":"7d"}}