Modern and Future Colliders

Shiltsev, Vladimir; Zimmermann, Frank

doi:10.48550/arxiv.2003.09084

Cited by 5 publications

(6 citation statements)

References 321 publications

(417 reference statements)

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“…With small modifications, our results can easily be adapted to other LQs at a high energy MuC. 2 The U 1 is a vector LQ in the (3, 1, 2/3) representation of the SM gauge group. It was the first LQ to appear in the literature, as it emerges in the spectrum of Pati-Salam grandunified theories (GUTs) [55,56].…”

Section: Modelmentioning

confidence: 91%

“…Given the abundance of motivated, exotic scenarios for physics beyond the Standard Model (BSM), it is imperative to understand the reach and complementarity of different future collider options for different BSM possibilities. A multi-TeV muon collider (MuC) is an especially exciting possibility to succeed the LHC [1][2][3][4][5][6][7][8][9][10]. Such a machine would have several intrinsic benefits beyond that of highprecision lepton colliders and high-energy hadron colliders.…”

mentioning

confidence: 99%

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Searching for Leptoquarks at Future Muon Colliders

Asadi,

Capdevilla,

Cesarotti

et al. 2021

Preprint

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A high energy muon collider can provide new and complementary discovery potential to the LHC or future hadron colliders. Leptoquarks are a motivated class of exotic new physics models, with distinct production channels at hadron and lepton machines. We study a vector leptoquark model at a muon collider with √ s = 3, 14 TeV within a set of both UV and phenomenologically motivated flavor scenarios. We compute which production mechanism has the greatest reach for various values of the leptoquark mass and the coupling between leptoquark and Standard Model fermions. We find that we can probe leptoquark masses up to an order of magnitude beyond √ s with perturbative couplings.Additionally, we can also probe regions of parameter space unavailable to flavor experiments.In particular, all of the parameter space of interest to explain recent low-energy anomalies in B meson decays would be covered even by a √ s = 3 TeV collider.

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Section: Modelmentioning

confidence: 91%

mentioning

confidence: 99%

Searching for Leptoquarks at Future Muon Colliders

Asadi,

Capdevilla,

Cesarotti

et al. 2021

Preprint

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show abstract

“…Two of the observations were made using electron-positron colliders, demonstrating the potential of the new machines. We try to give a brief account of the crucial events before the November revolution [55][56][57][58][59][60][61]. The advantages of the center-of-mass collision scheme were well known in the mid-1950s [51], and by the end of the decade the idea of a particle collider was technically mature to be considered seriously.…”

Section: Historical Notementioning

confidence: 99%

What can we learn about light-meson interactions at electron–positron colliders?

Fang

Kubis²,

Kupść

2021

Progress in Particle and Nuclear Physics

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“…The pursuit of ever-higher energies will surely be one of the future directions of elementary particle physics; the course will depend on whether one can continue to contain the cost of the future colliders. Over the past six decades, the center-of-mass energy has been increased by five orders of magnitude and the luminosity by about seven orders [11]. The LHC is an outstanding flagship of the collider physics and a culmination of this evolution.…”

Section: Large Scale Science Projects In Particle Physicsmentioning

confidence: 99%

Next frontiers in particle physics detectors: INSTR2020 summary and a look into the future

Titov¹

2020

J. Inst.

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The physics goals of high luminosity particle accelerators, from LHC to HL-LHC and to the next generation of lepton colliders, have set quite stringent constraints on the future needs at the Instrumentation Frontier. Many technologies are reaching their sensitivity limit and new approaches need to be developed to overcome the currently irreducible technological challenges. The detrimental effect of the material budget and power consumption represents a very serious concern for a high-precision silicon vertex and tracking detectors. One of the most promising areas is CMOS sensors offering low mass and potentially radiation-hard technology for the future proton-proton and electron-positron colliders, intensity frontier and heavy-ion experiments. MPGDs have become a well-established technique in the fertile field of gaseous detectors; these will remain the primary choice whenever the large-area coverage with low material budget is required. Vacuum tube technology is inherently fast and new developments include advances in microchannel plates for photomultipliers with a potential for a picosecondtime resolution in large systems. Several novel concepts of picosecond-timing detectors will have numerous powerful applications in particle identification, pile-up rejection and event reconstruction, and serve numerous scientific goals. The story of modern calorimetry is a textbook example of physics research driving the development of an experimental method. Silicon photomultipliers have seen a rapid progress in the last decade, becoming the standard solution for scintillator-based devices. The integration of advanced electronics and data transmission functionalities plays an increasingly important role and needs to be addressed. Bringing the modern algorithmic advances from the field of machine learning from offline applications to online operations and trigger systems is another major challenge. The timescales spanned by future projects in particle physics, ranging from few years to many decades, constitute a challenge in itself, in addition to the complexity and diversity of the required accelerator and detector R&D. This paper summarizes advances and recent trends in the instrumentation techniques for particle physics experiments, largely based on the presentations given at the International Conference "Instrumentation for Colliding Beam Physics" (INSTR-20), held at BINP Novosibirsk, Russia, from 24 to

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Modern and Future Colliders

Cited by 5 publications

References 321 publications

Searching for Leptoquarks at Future Muon Colliders

Searching for Leptoquarks at Future Muon Colliders

What can we learn about light-meson interactions at electron–positron colliders?

Next frontiers in particle physics detectors: INSTR2020 summary and a look into the future

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