MCnet
L. PereiraAlgumas palestras da Tosconf[6] já estão no ar!
Follows directly after PSR 2026 (Manchester) with easy travel between locations.
More info & registration:
https://indico.cern.ch/e/BOOST2026
18th International Workshop on Boosted Object Phenomenology, Reconstruction, Measurements, and Searches at Colliders
Overview BOOST 2026 is the 18th conference of a series of successful joint theory/experiment workshops that bring together the world's leading experts in theoretical and experimental collider physics to discuss the latest progress and develop new approaches on the reconstruction of and use of jet substructure to study Quantum Chromodynamics (QCD) and search for physics beyond the Standard Model. Note: BOOST 2026 will be held in the week just after PSR 2026 in Manchester. For attendees of...
PeerTube
Hacker NewsCERN uses tiny AI models burned into silicon for real-time LHC data filtering
#HackerNews #CERN #AI #LHC #Data #Silicon #Filtering #Machine #Learning
CERN Uses Tiny AI Models Burned into Silicon for Real-Time LHC Data Filtering
CERN has developed ultra-small AI models embedded directly into custom chips to filter massive data streams from the Large Hadron Collider in real time, addressing the enormous data challenge of the world’s most powerful particle accelerator.
reindeerphotoTripleCountDown 1040 1039 1038
Guten Abend Trötys
☕️🫖
Mal was anderes:
|ccb>
Irre! Die QCD ist ein Wahnsinnstheorie.
#cern #lhc #lhcb
#NIEWIEDERISTJETZT #keinSchrittnachrechts
#fcknzs #fckafd
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#ceterumcenseoAfDessedelendam
kaffandoGOOD QUESTION!!! From their tea room into the #LHC? Or vice versa??
On the video page it says:
Watch live as scientists at CERN, the European Organization for Nuclear Research, conduct a test of transporting volatile antimatter, mysterious antiparticles that are identical to corresponding particles but with a negative charge. If this antimatter comes into contact with actual matter — even for a fraction of an instant — it will be annihilated in a quick flash of energy.
VISITE O DECORADO
BMFTR💥Am #CERN hat das #LHCb-Experiment ein neues Teilchen nachgewiesen – nach 20 Jahren Suche: Ξcc+. Ein „schweres“ Proton mit zwei Charm-Quarks.
🇩🇪 ist der größte Beitragszahler des CERN. So ermöglichen wir #Grundlagenforschung über die Bausteine der Materie. 🚀🔬
#Teilchenphysik #LHC
🇩🇪 ist der größte Beitragszahler des CERN. So ermöglichen wir #Grundlagenforschung über die Bausteine der Materie. 🚀🔬
#Teilchenphysik #LHC
Shadow, First of His Name 
Wake up babe, new particle just dropped.
Xi-cc-plus - four times heavier than the regular proton, behaves like a rubber band.
This is the first new particle identified after the upgrades to the LHCb detector that were completed in 2023, and only the second time a baryon with two heavy quarks has been observed, the first having being observed by LHCb almost 10 years ago. The result will help theorists test models of quantum chromodynamics, the theory of the strong force that binds quarks into not only conventional baryons and mesons but also more exotic hadrons such as tetraquarks and pentaquarks.”
https://home.cern/news/news/physics/lhcb-collaboration-discovers-new-proton-particle
https://www.theguardian.com/science/2026/mar/17/scientists-discover-heavier-proton-upgraded-detector
LHCb Collaboration discovers new proton-like particle
The LHCb experiment at CERN’s Large Hadron Collider (LHC) has discovered a new particle consisting of two charm quarks and one down quark, a similar structure to the familiar proton, but with two heavy charm quarks replacing the two up quarks of the proton, thus quadrupling its mass. The discovery, presented at the ongoing Moriond conference, will help physicists better understand how the strong force binds protons, neutrons and other composite particles together. Quarks are fundamental building blocks of matter and come in six flavours: up, down, charm, strange, top and bottom. They usually combine in groups of twos and threes to form mesons and baryons, respectively. Unlike the stable proton, however, most of these mesons and baryons, which are collectively known as hadrons, are unstable and short-lived, making them a challenge to observe. Producing them requires smashing together high-energy particles in a machine such as the Large Hadron Collider (LHC). These unstable hadrons will quickly decay, but the more stable particles that are produced as a result of this decay can be detected and the properties of the original particle can therefore be deduced. Researchers have used this approach many times to find new hadrons, and the new particle just announced by the LHCb Collaboration brings the total number of hadrons discovered by LHC experiments up to 80. “This is the first new particle identified after the upgrades to the LHCb detector that were completed in 2023, and only the second time a baryon with two heavy quarks has been observed, the first having being observed by LHCb almost 10 years ago,” says LHCb Spokesperson Vincenzo Vagnoni. “The result will help theorists test models of quantum chromodynamics, the theory of the strong force that binds quarks into not only conventional baryons and mesons but also more exotic hadrons such as tetraquarks and pentaquarks.” In 2017, LHCb reported the discovery of a very similar particle, which consists of two charm quarks and one up quark. This up quark is the only difference between this particle and the new one, which has a down quark in its place. Despite the similarity, the new particle has a predicted lifetime that is up to six times shorter than its counterpart, due to complex quantum effects. This makes it even more challenging to observe. By analysing data from proton–proton collisions recorded by the LHCb detector during the third run of the LHC, the LHCb Collaboration observed the new baryon with a statistical significance of 7 sigma, well above the threshold of 5 sigma required to claim a discovery. “This major result is a fantastic example of how LHCb’s unique capabilities play a vital role in the success of the LHC,” says Mark Thomson, CERN Director-General. “It highlights how experimental upgrades at CERN directly lead to new discoveries, setting the stage for the transformative science we expect from the High-Luminosity LHC. These achievements are only possible thanks to the exceptional performance of CERN’s accelerator complex and the teams who make it all work and to the commitment of the scientists on the LHCb experiment.” Further information: LHCb presentation at Moriond is available here. LHCb news article.
scinexx - das wissensmagazinSchwerer „Bruder“ des Protons entdeckt. Physiker weisen erstmals Teilchen aus zwei schweren Charm-Quarks und einem Down-Quark nach. #Teilchenphysik #Baryon #CERN #LHC #Quarks #CharmQuarks
https://www.scinexx.de/news/physik/schwerer-bruder-des-protons-entdeckt/
https://www.scinexx.de/news/physik/schwerer-bruder-des-protons-entdeckt/
Y KobayashiLHCb実験が新粒子「Ξcc⁺」を発見：20年来の謎を解き明かした二重チャームバリオンと量子色力学の最前線
欧州合同原子核研究機関（CERN）が運用する世界最大の粒子加速器、大型ハドロン衝突型加速器（LHC）。その一角を担うLHCb実験の国際研究コラボレーションは2026年3月17日、モリオン会議（Rencontres de Moriond Electroweak […]https://xenospectrum.com/discovery-xicc-plus-baryon-cern-lhcb/
