#topquark — Public Fediverse posts

#UHH:
"
Plötzlich sichtbar: Neues Teilchen stellt alte Überzeugungen infrage
"
"Forschende der Universität Hamburg und des DESY haben Hinweise auf das schwer fassbare Toponium gefunden. Mit dieser Entdeckung könnte die grundlegende Struktur aller Materie noch detaillierter entschlüsselt werden."

https://www.uni-hamburg.de/newsroom/presse/2025/pm28.html

17.7.2025

#ATLAS #CERN #CMS #DESY #matter #LHC #Materie #Physik #Teilchenphysik #Toponium #TopQuark

#UHH:
"
Plötzlich sichtbar: Neues Teilchen stellt alte Überzeugungen infrage
"
"Forschende der Universität Hamburg und des DESY haben Hinweise auf das schwer fassbare Toponium gefunden. Mit dieser Entdeckung könnte die grundlegende Struktur aller Materie noch detaillierter entschlüsselt werden."

https://www.uni-hamburg.de/newsroom/presse/2025/pm28.html

17.7.2025

#ATLAS #CERN #CMS #DESY #matter #LHC #Materie #Physik #Teilchenphysik #Toponium #TopQuark

#UHH:
"
Plötzlich sichtbar: Neues Teilchen stellt alte Überzeugungen infrage
"
"Forschende der Universität Hamburg und des DESY haben Hinweise auf das schwer fassbare Toponium gefunden. Mit dieser Entdeckung könnte die grundlegende Struktur aller Materie noch detaillierter entschlüsselt werden."

https://www.uni-hamburg.de/newsroom/presse/2025/pm28.html

17.7.2025

#ATLAS #CERN #CMS #DESY #matter #LHC #Materie #Physik #Teilchenphysik #Toponium #TopQuark

#UHH:
"
Plötzlich sichtbar: Neues Teilchen stellt alte Überzeugungen infrage
"
"Forschende der Universität Hamburg und des DESY haben Hinweise auf das schwer fassbare Toponium gefunden. Mit dieser Entdeckung könnte die grundlegende Struktur aller Materie noch detaillierter entschlüsselt werden."

https://www.uni-hamburg.de/newsroom/presse/2025/pm28.html

17.7.2025

#ATLAS #CERN #CMS #DESY #matter #LHC #Materie #Physik #Teilchenphysik #Toponium #TopQuark

#UHH:
"
Plötzlich sichtbar: Neues Teilchen stellt alte Überzeugungen infrage
"
"Forschende der Universität Hamburg und des DESY haben Hinweise auf das schwer fassbare Toponium gefunden. Mit dieser Entdeckung könnte die grundlegende Struktur aller Materie noch detaillierter entschlüsselt werden."

https://www.uni-hamburg.de/newsroom/presse/2025/pm28.html

17.7.2025

#ATLAS #CERN #CMS #DESY #matter #LHC #Materie #Physik #Teilchenphysik #Toponium #TopQuark

Physiker finden „nicht nachweisbares“ Teilchen. Teilchenschleuniger LHC liefert ersten Beleg für Verbindung aus Top-Quarks und ihren Antiteilchen. #Teilchenphysik #TopQuark #Toponium #CERN #Quarks
https://www.scinexx.de/news/physik/physiker-finden-nicht-nachweisbares-teilchen/

Physiker finden „nicht nachweisbares“ Teilchen. Teilchenschleuniger LHC liefert ersten Beleg für Verbindung aus Top-Quarks und ihren Antiteilchen. #Teilchenphysik #TopQuark #Toponium #CERN #Quarks
https://www.scinexx.de/news/physik/physiker-finden-nicht-nachweisbares-teilchen/

Physiker finden „nicht nachweisbares“ Teilchen. Teilchenschleuniger LHC liefert ersten Beleg für Verbindung aus Top-Quarks und ihren Antiteilchen. #Teilchenphysik #TopQuark #Toponium #CERN #Quarks
https://www.scinexx.de/news/physik/physiker-finden-nicht-nachweisbares-teilchen/

Physiker finden „nicht nachweisbares“ Teilchen. Teilchenschleuniger LHC liefert ersten Beleg für Verbindung aus Top-Quarks und ihren Antiteilchen. #Teilchenphysik #TopQuark #Toponium #CERN #Quarks
https://www.scinexx.de/news/physik/physiker-finden-nicht-nachweisbares-teilchen/

Physiker finden „nicht nachweisbares“ Teilchen. Teilchenschleuniger LHC liefert ersten Beleg für Verbindung aus Top-Quarks und ihren Antiteilchen. #Teilchenphysik #TopQuark #Toponium #CERN #Quarks
https://www.scinexx.de/news/physik/physiker-finden-nicht-nachweisbares-teilchen/

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

The #TopQuark decays too fast to hadronize. Its lifetime (~5×10⁻²⁵ s) is shorter than #QCD timescales (~10⁻²⁴ s). So we see a "bare" quark decay: t → W + b, before confinement. A rare clean look into quark physics. 🧪⚛️ #Science #ParticlePhysics #Physics Image: commons.m.wikimedia.org/wiki/File:To...

The #TopQuark decays too fast to hadronize. Its lifetime (~5×10⁻²⁵ s) is shorter than #QCD timescales (~10⁻²⁴ s). So we see a "bare" quark decay: t → W + b, before confinement. A rare clean look into quark physics. 🧪⚛️ #Science #ParticlePhysics #Physics Image: commons.m.wikimedia.org/wiki/File:To...

The #TopQuark decays too fast to hadronize. Its lifetime (~5×10⁻²⁵ s) is shorter than #QCD timescales (~10⁻²⁴ s). So we see a "bare" quark decay: t → W + b, before confinement. A rare clean look into quark physics. 🧪⚛️ #Science #ParticlePhysics #Physics Image: commons.m.wikimedia.org/wiki/File:To...

The #TopQuark decays too fast to hadronize. Its lifetime (~5×10⁻²⁵ s) is shorter than #QCD timescales (~10⁻²⁴ s). So we see a "bare" quark decay: t → W + b, before confinement. A rare clean look into quark physics. 🧪⚛️ #Science #ParticlePhysics #Physics Image: commons.m.wikimedia.org/wiki/File:To...

The #TopQuark decays too fast to hadronize. Its lifetime (~5×10⁻²⁵ s) is shorter than #QCD timescales (~10⁻²⁴ s). So we see a "bare" quark decay: t → W + b, before confinement. A rare clean look into quark physics. 🧪⚛️ #Science #ParticlePhysics #Physics Image: commons.m.wikimedia.org/wiki/File:To...

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it Topponium, but very exciting! arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it topponium, but definitely stay tuned to see if ATLAS also confirms and sees this! https://arxiv.org/abs/2503.22382

#CMSPaper 1395 observes a totally unexpected extra behaviour of #topquark pair production; we see significantly more top quarks than we expect, and they kind of behave like they come from something particle-like. We are reluctant to just call it topponium, but definitely stay tuned to see if ATLAS also confirms and sees this! https://arxiv.org/abs/2503.22382

Quantum Entanglement between “Top Quarks” at the Highest Energies Observed  
The researchers at CERN have succeeded in observing quantum entanglement between “top quarks” and at the highest energies. This...........
#Boson #CERN #Fermion #Fundamentalparticles #Quantum #Quantumentanglement #Quarks #topquark
Umesh Prasad

https://www.scientificeuropean.co.uk/sciences/physics/quantum-entanglement-between-top-quarks-at-the-highest-energies-observed/

Quantum Entanglement between “Top Quarks” at the Highest Energies Observed  
The researchers at CERN have succeeded in observing quantum entanglement between “top quarks” and at the highest energies. This...........
#Boson #CERN #Fermion #Fundamentalparticles #Quantum #Quantumentanglement #Quarks #topquark
Umesh Prasad

https://www.scientificeuropean.co.uk/sciences/physics/quantum-entanglement-between-top-quarks-at-the-highest-energies-observed/

Quantum Entanglement between “Top Quarks” at the Highest Energies Observed  
The researchers at CERN have succeeded in observing quantum entanglement between “top quarks” and at the highest energies. This...........
#Boson #CERN #Fermion #Fundamentalparticles #Quantum #Quantumentanglement #Quarks #topquark
Umesh Prasad

https://www.scientificeuropean.co.uk/sciences/physics/quantum-entanglement-between-top-quarks-at-the-highest-energies-observed/

Quantum Entanglement between “Top Quarks” at the Highest Energies Observed  
The researchers at CERN have succeeded in observing quantum entanglement between “top quarks” and at the highest energies. This...........
#Boson #CERN #Fermion #Fundamentalparticles #Quantum #Quantumentanglement #Quarks #topquark
Umesh Prasad

https://www.scientificeuropean.co.uk/sciences/physics/quantum-entanglement-between-top-quarks-at-the-highest-energies-observed/

#CMSpaper: Evidence for tWZ production in proton-proton collisions at √s = 13 TeV in multilepton final states (arXiv:2312.11668) https://arxiv.org/abs/2312.11668 #TopQuark

#CMSpaper: Evidence for tWZ production in proton-proton collisions at √s = 13 TeV in multilepton final states (arXiv:2312.11668) https://arxiv.org/abs/2312.11668 #TopQuark

#introduction #reintroduction for all the new folks around here I'm hearing about.

I'm an experimental particle physicist working on the CMS experiment. My primary foci at the moment are top quark physics through the lens of EFT (effective field theory), and FPGA programming for the purpose of development, testing, and operations of detector electronics.

Before CMS, I worked on the SuperCDMS experiment looking for dark matter. I developed the level 1 trigger for the upcoming SuperCDMS run at SNOLAB, and also developed the simulation of the transition edge sensors and charge sensors that are part of the SuperCDMS detectors.

Before SuperCDMS, I worked on the CDF (Collider Detector at Fermilab) experiment. There, I studied the top quark and the Higgs boson. I performed the world's first-ever published search for ttH production, and measured the forward-backward asymmetry in top-antitop production at the Tevatron.

#topquark #EFT #fpga #electronics #darkmatter #simulations #detectors #Higgs #Higgsboson #CMS #CERN #LHC #Tevatron #CDF #Fermilab #darkmatter #SuperCDMS #SNOLAB

#introduction #reintroduction for all the new folks around here I'm hearing about.

I'm an experimental particle physicist working on the CMS experiment. My primary foci at the moment are top quark physics through the lens of EFT (effective field theory), and FPGA programming for the purpose of development, testing, and operations of detector electronics.

Before CMS, I worked on the SuperCDMS experiment looking for dark matter. I developed the level 1 trigger for the upcoming SuperCDMS run at SNOLAB, and also developed the simulation of the transition edge sensors and charge sensors that are part of the SuperCDMS detectors.

Before SuperCDMS, I worked on the CDF (Collider Detector at Fermilab) experiment. There, I studied the top quark and the Higgs boson. I performed the world's first-ever published search for ttH production, and measured the forward-backward asymmetry in top-antitop production at the Tevatron.

#topquark #EFT #fpga #electronics #darkmatter #simulations #detectors #Higgs #Higgsboson #CMS #CERN #LHC #Tevatron #CDF #Fermilab #darkmatter #SuperCDMS #SNOLAB

#introduction #reintroduction for all the new folks around here I'm hearing about.

I'm an experimental particle physicist working on the CMS experiment. My primary foci at the moment are top quark physics through the lens of EFT (effective field theory), and FPGA programming for the purpose of development, testing, and operations of detector electronics.

Before CMS, I worked on the SuperCDMS experiment looking for dark matter. I developed the level 1 trigger for the upcoming SuperCDMS run at SNOLAB, and also developed the simulation of the transition edge sensors and charge sensors that are part of the SuperCDMS detectors.

Before SuperCDMS, I worked on the CDF (Collider Detector at Fermilab) experiment. There, I studied the top quark and the Higgs boson. I performed the world's first-ever published search for ttH production, and measured the forward-backward asymmetry in top-antitop production at the Tevatron.

#topquark #EFT #fpga #electronics #darkmatter #simulations #detectors #Higgs #Higgsboson #CMS #CERN #LHC #Tevatron #CDF #Fermilab #darkmatter #SuperCDMS #SNOLAB

#introduction #reintroduction for all the new folks around here I'm hearing about.

I'm an experimental particle physicist working on the CMS experiment. My primary foci at the moment are top quark physics through the lens of EFT (effective field theory), and FPGA programming for the purpose of development, testing, and operations of detector electronics.

Before CMS, I worked on the SuperCDMS experiment looking for dark matter. I developed the level 1 trigger for the upcoming SuperCDMS run at SNOLAB, and also developed the simulation of the transition edge sensors and charge sensors that are part of the SuperCDMS detectors.

Before SuperCDMS, I worked on the CDF (Collider Detector at Fermilab) experiment. There, I studied the top quark and the Higgs boson. I performed the world's first-ever published search for ttH production, and measured the forward-backward asymmetry in top-antitop production at the Tevatron.

#topquark #EFT #fpga #electronics #darkmatter #simulations #detectors #Higgs #Higgsboson #CMS #CERN #LHC #Tevatron #CDF #Fermilab #darkmatter #SuperCDMS #SNOLAB

#introduction #reintroduction for all the new folks around here I'm hearing about.

I'm an experimental particle physicist working on the CMS experiment. My primary foci at the moment are top quark physics through the lens of EFT (effective field theory), and FPGA programming for the purpose of development, testing, and operations of detector electronics.

Before CMS, I worked on the SuperCDMS experiment looking for dark matter. I developed the level 1 trigger for the upcoming SuperCDMS run at SNOLAB, and also developed the simulation of the transition edge sensors and charge sensors that are part of the SuperCDMS detectors.

Before SuperCDMS, I worked on the CDF (Collider Detector at Fermilab) experiment. There, I studied the top quark and the Higgs boson. I performed the world's first-ever published search for ttH production, and measured the forward-backward asymmetry in top-antitop production at the Tevatron.

#topquark #EFT #fpga #electronics #darkmatter #simulations #detectors #Higgs #Higgsboson #CMS #CERN #LHC #Tevatron #CDF #Fermilab #darkmatter #SuperCDMS #SNOLAB

#Blog #TopQuark #LHC
ATLAS y CMS observan a más de cinco sigmas la producción de cuatro quarks top https://francis.naukas.com/2023/03/31/atlas-y-cms-observan-a-mas-de-cinco-sigmas-la-produccion-de-cuatro-quarks-top/

#Blog #TopQuark #LHC
ATLAS y CMS observan a más de cinco sigmas la producción de cuatro quarks top https://francis.naukas.com/2023/03/31/atlas-y-cms-observan-a-mas-de-cinco-sigmas-la-produccion-de-cuatro-quarks-top/

#Blog #TopQuark #LHC
ATLAS y CMS observan a más de cinco sigmas la producción de cuatro quarks top https://francis.naukas.com/2023/03/31/atlas-y-cms-observan-a-mas-de-cinco-sigmas-la-produccion-de-cuatro-quarks-top/