{"ok":true,"nota":{"id":"5445fa5fb31a87f0","slug":"choques-de-particulas-pequenos-en-el-lhc-producen-la-materia-que-exist-5445fa","titulo":"Choques de partículas pequeños en el LHC producen la materia que existió tras el Big Bang","resumen":"En el Gran Colisionador de Hadrones del CERN, investigadores observaron que colisiones atómicas relativamente pequeñas pueden recrear la materia de los primeros instantes del universo. Esa materia, llamada plasma de quarks y gluones, se forma a temperaturas enormes. Las partículas se rompen en sus componentes básicos.","fuente":"sciencedaily","fuenteNombre":"ScienceDaily","color":"#0b6ea8","autor":"","url":"https://www.sciencedaily.com/releases/2026/10/261031221211.htm","imagen":"/hoy/portada/5445fa5fb31a87f0","tema":"ciencia","subtemas":["big bang","plasma de quarks y gluones","gran colisionador de hadrones","fisica de particulas","origen del universo"],"entidades":["CERN","Gran Colisionador de Hadrones","Sol"],"formato":"dato","entretenimiento":false,"pubTs":"2026-11-03T02:39:04.000Z","indexTs":"2026-11-03T04:17:23.632Z","hash":"d81f4b75caee0170cf206e6b2907f698136e3eabfbbc498bde6553f51da0b657","tsa":{"time":"Nov  3 04:17:37 2026 GMT","provider":"freetsa.org","sobre":"sello"},"stats":{"views":0,"likes":0,"clicks":0,"dwell":0},"tipo":"normal","registro":"hallazgo","porQueImporta":"Lo que se descubrió es que no hace falta una colisión gigantesca para crear el estado más primitivo de la materia, algo que los físicos no esperaban. Para cualquier persona, esto significa que las preguntas sobre el origen del universo se pueden estudiar en un laboratorio concreto. El límite serio es que se trata de evidencias en desarrollo que todavía están siendo discutidas dentro de la comunidad científica. ¿Qué tan chico tiene que ser el experimento para que el universo te responda?","quienFirma":"CERN (Organización Europea para la Investigación Nuclear)","confianza":"divulgacion","consulta":null},"sello":{"hash":"d81f4b75caee0170cf206e6b2907f698136e3eabfbbc498bde6553f51da0b657","sello":"c87897a5284a8125a429b6ce319196e6405bd2c0a3fe37896aab0b90f9b9eda0","beacon":{"drand":{"cadena":"8990e7a9aaed2ffed73dbd7092123d6f289930540d7651336225dc172e51b2ce","ronda":6608281,"aleatorio":"9d5b7e3415363ba6003d40db97fcbef05b9968ee7795dda5e68bc814ab5a69ed","tiempo":"2026-11-03T04:17:30.000Z"},"nist":{"cadena":2,"pulso":2011074,"salida":"E72CF7E1B809E98BE47596E8EBAA407EB1B134983E0F813DD9A297B9DE4B82DBB12C190563170DCEFAB763475A1931E4E432A76253C74A4D508B321DE6588FC4","tiempo":"2026-11-03T04:16:00.000Z"},"noAntes":"2026-11-03T04:17:30.000Z"},"verificacion":{"drand":true,"nist":true},"tsa":{"time":"Nov  3 04:17:37 2026 GMT","provider":"freetsa.org","sobre":"sello"},"original":{"titulo":"Large Hadron Collider reveals evidence of Big Bang matter in surprisingly small collisions","descripcion":"Scientists at CERN's Large Hadron Collider have uncovered compelling new evidence that even relatively small atomic collisions can recreate the extraordinary state of matter that filled the universe moments after the Big Bang. Known as quark-gluon plasma, this exotic substance forms at temperatures more than 100,000 times hotter than the center of the Sun, causing ordinary particles to break apart into their fundamental building blocks.","pubDate":"Mon, 02 Nov 2026 21:39:04 EST","url":"https://www.sciencedaily.com/releases/2026/10/261031221211.htm"},"indexado":"2026-11-03T04:17:23.632Z"}}