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ALICE Collaboration

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Namestring
ALICE Collaboration
Legal namestring
ALICE Collaboration
Company typeenum
Private
Founded yearstring
-
Descriptiontext

ALICE Collaboration is a non-profit scientific research collaboration operating at Point 2 of CERN's Large Hadron Collider, dedicated to studying the physics of strongly interacting matter at extreme energy densities — specifically the quark-gluon plasma state thought to have existed microseconds after the Big Bang. The collaboration is governed under CERN, an intergovernmental organization with 23 member states, and draws participation from over 200 member institutions globally. ALICE's sole "customers" are the academic research community, with no commercial products, services, or revenue streams; funding flows through CERN member state contributions.

ALICE's core technology is a multi-component detector system comprising specialized subsystems: the Inner Tracking System (ITS) for vertex reconstruction, the Time Projection Chamber (TPC) for 3D track reconstruction and particle identification, the Transition Radiation Detector (TRD), Time-of-Flight (TOF), Electromagnetic Calorimeter (EMCAL), Muon Spectrometer, Forward Interaction Trigger (FIT), and supporting systems including PHOS/CPV, HMPID, MFT, ZDC, the Central Trigger Processor (CTP), and Detector Control System (DCS). The O2 computing framework handles online (EPN, FLP) and offline (PDP) reconstruction and analysis. Following a major 2021 upgrade, ALICE operated at 500 kHz proton-proton data-taking rates and recorded 53 billion lead-ion collisions during Run 3 (completed June 2026) at 5.36 TeV per nucleon pair.

ALICE does not operate a traditional go-to-market motion. Research outputs are disseminated via peer-reviewed journals, arXiv preprints, conference presentations (ICHEP, QCD workshops), CERN Courier, and public outreach through social media. The collaboration is currently developing next-generation upgrades including ITS-3, FOCAL, and the ALICE 3 next-generation detector proposal for LHC Runs 5 and 6, with a multi-institutional R&D consortium (spanning Mexico, Czech Republic, Hungary, and the US) advancing MID muon identifier prototypes as of August 2025.

Short descriptiontext

ALICE Collaboration is a CERN-hosted scientific research collaboration of 200+ member institutions that operates a multi-detector particle physics experiment at the LHC to study quark-gluon plasma and strongly interacting matter at extreme energy densities.

Operating statusenum
Operating
Ownership categoryenum
Headcount rangeband
1–10
akta.pro rankint
HeadquartersGeneva, Switzerland
HQ citystring
Geneva
HQ countrystring
Switzerland
HQ regionstring
Europe
Markets served

Serves global market

Offices1 record

Each record includes

City, Country, Type, Description, Source

Keyword5 values
particle physics detector, heavy-ion collisions, quark-gluon plasma research, high-energy physics experiment, nuclear physics instrumentation
Industry1 code
1Quantum Materials, Qubits & Device Physics Research
CodeHDAGAMAAPrimaryYes
NAICS code1 code
  • Research and Development in the Physical, Engineering, and Life Sciences (except Nanotechnology and Biotechnology)541715
Product category
Experimental Particle Physics Research
Marketing channels5 records

Each record includes

Title, Type, Stage, Description, Source

Distribution channels1 record

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Cost components4 values
Personnel, Technology or R&D, Infrastructure, Operations
GTM typeB2B
B2B
Offering typeServices
Services
Brand1 record
1ALICE 3
Description

Next-generation experiment proposal for LHC Runs 5 and 6, currently in planning and development phase

alice-collaboration.web.cern.ch
Core offering1 text field

ALICE designs, builds, and operates a dedicated heavy-ion particle physics detector at CERN's LHC to study the quark-gluon plasma state of matter at extreme energy densities. The collaboration delivers scientific research outputs including peer-reviewed publications, open data sets, and physics measurements from ultra-relativistic heavy-ion and proton-proton collisions, and develops next-generation detector upgrades for future LHC runs.

Differentiator
Functional benefit
Problem solved
Quantifiable outcome1 of 3 values shown
  • 53 billion lead-ion collisions recorded in Run 3
+2 more records
Product overview1 text field

ALICE (A Large Ion Collider Experiment) is a particle physics detector experiment at CERN's Large Hadron Collider, designed to study the physics of strongly interacting matter at extreme energy densities. The experiment utilizes a multi-component detector system comprising multiple specialized subsystems: the central barrel detectors (ITS, TPC, TRD, TOF, EMCAL, PHOS/CPV, HMPID) for tracking and particle identification; forward detectors (MFT, FIT, ZDC) for centrality and trigger measurements; the Muon Spectrometer for heavy quarkonia studies; and the CTP and DCS for trigger and detector control. The O2 computing framework provides online and offline data processing. ALICE completed a major detector upgrade in 2021 for Run 3 and is developing future upgrades including ITS-3, FOCAL, and the ALICE 3 proposal for future LHC runs.

Product and service4 records
1ALICE Detector Experiment
CategoryParticle Physics Detector Experiment
Description

A Large Ion Collider Experiment at CERN's LHC, purpose-built and operated to study heavy-ion and proton-proton collisions at ultra-relativistic energies, with multi-component detector subsystems for tracking, particle identification, calorimetry, muon detection, and triggering. Used by the global particle physics research community.

2O2 (Online-Offline Computing) Framework
CategoryComputing and Data Processing System
Description

Combined online-offline computing framework supporting real-time event processing nodes (EPN), first-level processors (FLP), and prompt data processing (PDP) for Run 3 and beyond. Used by physicists and analysts across the collaboration to process and analyze collision data.

3ALICE 3 Next-Generation Detector
CategoryFuture Detector Upgrade Project
Description

Proposed next-generation detector concept for LHC Runs 5 and 6, featuring a completely new layout with enhanced capabilities for precision measurements of rare phenomena and heavy-flavor physics, including a proposed MID (Muon Identifier) subsystem.

4Public Data Releases and Analysis Tools
CategoryResearch Data and Publications
Description

Open-access research data, publications, and analysis infrastructure made available to the global scientific community for independent verification and further analysis of ALICE heavy-ion and proton-proton collision measurements.

Scale indicator5 records

Each record includes

Type, Value, Description, Source

Partnership8 partners
Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

Leading institution in the MID detector development for ALICE 3. Contributed to scintillator detector R&D, DAQ system development, and test beam coordination for muon identification prototypes.

Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

Collaborated on MID detector prototypes including scintillator bar development with Nuviatech (Czech company). Contributed to detector construction and characterization activities.

Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

Participating in the MID collaboration for ALICE 3 muon identifier development. Contributed to test beam campaigns and prototype testing at CERN T10 beam line.

Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

US institution contributing to MID detector development for ALICE 3, participating in test beam activities and muon detection prototype research.

5Instituto de Ciencias Nucleares, UNAM (Mexico)
Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

Mexican research institution contributing to ALICE 3 MID development, including detector prototyping and beam test activities.

alice-collaboration.web.cern.ch
Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

Contributing to MID detector development for ALICE 3, including scintillator detector R&D and muon detection studies.

Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

Participated in MID detector development including FDD detector performance studies and aging analysis. PhD student research on plastic scintillator development.

Strategic tierCoreTypeStrategic or Co-development PartnerAnnounced on2025-08-13
Description

Mexican research center contributing to ALICE detector development activities and muon identifier R&D for future upgrades.

Recent move6 records

Each record includes

Date, Type, Title, Description, Source

Expansion highlight4 records

Each record includes

Type, Description

Peers8 records
1CMS Collaboration
TypeDirect peer
Description

The second general-purpose LHC experiment at CERN, CMS mirrors ALICE in governance structure, international membership model, detector subsystems, computing frameworks, and CERN-coordinated upgrade roadmap (Phase-2 upgrades parallel to ALICE 3 planning).

2CERN
TypeBroad incumbent
Description

The intergovernmental organization that hosts ALICE and operates the LHC, CERN is the parent ecosystem for ALICE and provides the accelerator, computing grid, member-state funding, and administrative infrastructure on which the collaboration depends.

3STAR Collaboration
TypeDirect peer
Description

The flagship heavy-ion experiment at Brookhaven National Laboratory's Relativistic Heavy Ion Collider (RHIC), STAR is the most direct scientific peer to ALICE as it studies quark-gluon plasma at lower energies and uses similar detector subsystems (TPC, EMCal, heavy-flavor trackers) for comparable QGP observables.

4CBM Collaboration
TypeDirect peer
Description

The future fixed-target heavy-ion experiment at GSI's FAIR facility, CBM is the planned European counterpart to ALICE in studying dense baryonic matter and high-rate heavy-ion collisions using similar silicon tracking and TPC-based detector architectures.

5PHENIX Collaboration
TypeDirect peer
Description

The predecessor RHIC heavy-ion experiment at BNL that operated alongside STAR until 2016, PHENIX shared ALICE's focus on QGP observables (J/psi suppression, flow, jet quenching) using comparable detector architectures and collaboration governance.

6ATLAS Collaboration
TypeDirect peer
Description

One of the four main experiments at CERN's LHC, ATLAS is a large international collaboration with 5,000+ members that, like ALICE, operates a multi-subsystem particle detector, runs continuous data-taking during LHC runs, and is organized around collaboration boards and member institutions. While ATLAS focuses on high-pT/precision Standard Model and Higgs physics rather than heavy ions, the structural and operational model is directly comparable to ALICE.

TypeDirect peer
Description

A fourth LHC experiment at CERN, LHCb is a similarly structured international scientific collaboration with member institutions, run coordination, detector subsystems, and an upgrade roadmap (LHCb Upgrade I/II) that runs on a comparable timeline to ALICE's Run 3/4 and ALICE 3 plans.

8sPHENIX Collaboration
TypeDirect peer
Description

The next-generation RHIC heavy-ion experiment at BNL, sPHENIX is structured as a CERN-style international collaboration and is purpose-built for precision jet, Upsilon, and heavy-flavor QGP measurements that directly overlap with ALICE's core physics program.

Market position
Strengths5 records

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Weaknesses5 records

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Competitive moat5 records

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Key risks5 records

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Key highlights7 records

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Segment1 record

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Ideal customer profile1 record

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Technology focused
Yes
API detail
Has APIbool
No

Docs URL, Description

Integration3 records

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AI maturity
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Has app

Feature7 records

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Profiles3 records

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Investors

Each record includes

Name, Type, Date of entry, Rounds participated, Website

Funding detail is available on the Subscription and Enterprise plan.Contact sales →

M&A

Each record includes

Name, Acquisition type, Announced date, Completed date, Status, Website, News

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Each record includes

Name, Round, Announced date, Lead investor, Website, News

M&A and investment is available on the Subscription and Enterprise plan.Contact sales →

ALICE Collaboration

Experimental Particle Physics Researchalice-collaboration.web.cern.ch

ALICE Collaboration is a CERN-hosted scientific research collaboration of 200+ member institutions that operates a multi-detector particle physics experiment at the LHC to study quark-gluon plasma and strongly interacting matter at extreme energy densities.

What ALICE Collaboration does

ALICE Collaboration is a non-profit scientific research collaboration operating at Point 2 of CERN's Large Hadron Collider, dedicated to studying the physics of strongly interacting matter at extreme energy densities — specifically the quark-gluon plasma state thought to have existed microseconds after the Big Bang. The collaboration is governed under CERN, an intergovernmental organization with 23 member states, and draws participation from over 200 member institutions globally. ALICE's sole "customers" are the academic research community, with no commercial products, services, or revenue streams; funding flows through CERN member state contributions.

ALICE's core technology is a multi-component detector system comprising specialized subsystems: the Inner Tracking System (ITS) for vertex reconstruction, the Time Projection Chamber (TPC) for 3D track reconstruction and particle identification, the Transition Radiation Detector (TRD), Time-of-Flight (TOF), Electromagnetic Calorimeter (EMCAL), Muon Spectrometer, Forward Interaction Trigger (FIT), and supporting systems including PHOS/CPV, HMPID, MFT, ZDC, the Central Trigger Processor (CTP), and Detector Control System (DCS). The O2 computing framework handles online (EPN, FLP) and offline (PDP) reconstruction and analysis. Following a major 2021 upgrade, ALICE operated at 500 kHz proton-proton data-taking rates and recorded 53 billion lead-ion collisions during Run 3 (completed June 2026) at 5.36 TeV per nucleon pair.

ALICE does not operate a traditional go-to-market motion. Research outputs are disseminated via peer-reviewed journals, arXiv preprints, conference presentations (ICHEP, QCD workshops), CERN Courier, and public outreach through social media. The collaboration is currently developing next-generation upgrades including ITS-3, FOCAL, and the ALICE 3 next-generation detector proposal for LHC Runs 5 and 6, with a multi-institutional R&D consortium (spanning Mexico, Czech Republic, Hungary, and the US) advancing MID muon identifier prototypes as of August 2025.

ALICE Collaboration firmographics

Firmographics
Name
ALICE Collaboration
Legal name
ALICE Collaboration
Website
https://alice-collaboration.web.cern.ch
Company type
Private
Operating status
Operating
Headcount range
1–10 employees
Short description
ALICE Collaboration is a CERN-hosted scientific research collaboration of 200+ member institutions that operates a multi-detector particle physics experiment at the LHC to study quark-gluon plasma and strongly interacting matter at extreme energy densities.
Ownership category
akta.pro rank

ALICE Collaboration industry classification

Industry
Product category
Experimental Particle Physics Research
NAICS
Research and Development in the Physical, Engineering, and Life Sciences (except Nanotechnology and Biotechnology) (541715)
akta.pro primary industry
Quantum Materials, Qubits & Device Physics Research (HDAGAMAA)

Keywords

  • Particle physics detector
  • Heavy-ion collisions
  • Quark-gluon plasma research
  • High-energy physics experiment
  • Nuclear physics instrumentation

Where ALICE Collaboration is headquartered

Location

Headquarters

HQ city
Geneva
HQ country
Switzerland
HQ region
Europe

Offices1 record

Markets served

ALICE Collaboration business model

Business model
GTM type
B2B
Offering type
Services
Cost components
Personnel, Technology or R&D, Infrastructure, Operations

Distribution channels1 record

Marketing channels5 records

ALICE Collaboration product offering

Product offering

Core offering

ALICE designs, builds, and operates a dedicated heavy-ion particle physics detector at CERN's LHC to study the quark-gluon plasma state of matter at extreme energy densities. The collaboration delivers scientific research outputs including peer-reviewed publications, open data sets, and physics measurements from ultra-relativistic heavy-ion and proton-proton collisions, and develops next-generation detector upgrades for future LHC runs.

Product overview

ALICE (A Large Ion Collider Experiment) is a particle physics detector experiment at CERN's Large Hadron Collider, designed to study the physics of strongly interacting matter at extreme energy densities. The experiment utilizes a multi-component detector system comprising multiple specialized subsystems: the central barrel detectors (ITS, TPC, TRD, TOF, EMCAL, PHOS/CPV, HMPID) for tracking and particle identification; forward detectors (MFT, FIT, ZDC) for centrality and trigger measurements; the Muon Spectrometer for heavy quarkonia studies; and the CTP and DCS for trigger and detector control. The O2 computing framework provides online and offline data processing. ALICE completed a major detector upgrade in 2021 for Run 3 and is developing future upgrades including ITS-3, FOCAL, and the ALICE 3 proposal for future LHC runs.

Differentiator

Problem solved

Functional benefit

Brands

  • ALICE 3: Next-generation experiment proposal for LHC Runs 5 and 6, currently in planning and development phase

Products and services

  • ALICE Detector Experiment A Large Ion Collider Experiment at CERN's LHC, purpose-built and operated to study heavy-ion and proton-proton collisions at ultra-relativistic energies, with multi-component detector subsystems for tracking, particle identification, calorimetry, muon detection, and triggering. Used by the global particle physics research community.
  • O2 (Online-Offline Computing) Framework Combined online-offline computing framework supporting real-time event processing nodes (EPN), first-level processors (FLP), and prompt data processing (PDP) for Run 3 and beyond. Used by physicists and analysts across the collaboration to process and analyze collision data.
  • ALICE 3 Next-Generation Detector Proposed next-generation detector concept for LHC Runs 5 and 6, featuring a completely new layout with enhanced capabilities for precision measurements of rare phenomena and heavy-flavor physics, including a proposed MID (Muon Identifier) subsystem.
  • Public Data Releases and Analysis Tools Open-access research data, publications, and analysis infrastructure made available to the global scientific community for independent verification and further analysis of ALICE heavy-ion and proton-proton collision measurements.

Quantifiable outcome

  • 53 billion lead-ion collisions recorded in Run 3
  • +2 more outcomes

Companies that use ALICE Collaboration

Customer profile

Segments1 record

Ideal customer profiles1 record

ALICE Collaboration technology and API

Technology

Technology focussed Yes

API detail

Has API
No
API docs
API detail

Core technology

AI maturity

App detail

Integration3 records

Feature7 records

ALICE Collaboration partnerships and signals

Strategic signal

Partnerships

Eight partnerships are on record, tiered core.

  • Benemérita Universidad Autónoma de Puebla (Mexico)coreStrategic or Co-development Partner · 13 August 2025Leading institution in the MID detector development for ALICE 3. Contributed to scintillator detector R&D, DAQ system development, and test beam coordination for muon identification prototypes.
  • Czech Technical University in Prague (Czechia)coreStrategic or Co-development Partner · 13 August 2025Collaborated on MID detector prototypes including scintillator bar development with Nuviatech (Czech company). Contributed to detector construction and characterization activities.
  • HUN-REN Wigner Research Centre for Physics (Hungary)coreStrategic or Co-development Partner · 13 August 2025Participating in the MID collaboration for ALICE 3 muon identifier development. Contributed to test beam campaigns and prototype testing at CERN T10 beam line.
  • Chicago State University (US)coreStrategic or Co-development Partner · 13 August 2025US institution contributing to MID detector development for ALICE 3, participating in test beam activities and muon detection prototype research.
  • Instituto de Ciencias Nucleares, UNAM (Mexico)coreStrategic or Co-development Partner · 13 August 2025Mexican research institution contributing to ALICE 3 MID development, including detector prototyping and beam test activities.
  • Instituto de Física, UNAM (Mexico)coreStrategic or Co-development Partner · 13 August 2025Contributing to MID detector development for ALICE 3, including scintillator detector R&D and muon detection studies.
  • Universidad Autónoma de Sinaloa (Mexico)coreStrategic or Co-development Partner · 13 August 2025Participated in MID detector development including FDD detector performance studies and aging analysis. PhD student research on plastic scintillator development.
  • Centro de Investigación y Estudios Avanzados (Mexico)coreStrategic or Co-development Partner · 13 August 2025Mexican research center contributing to ALICE detector development activities and muon identifier R&D for future upgrades.

Scale indicators5 records

Recent moves6 records

Expansion highlights4 records

ALICE Collaboration competitors and assessment

Company assessment

Direct peers

  • CMS Collaboration: The second general-purpose LHC experiment at CERN, CMS mirrors ALICE in governance structure, international membership model, detector subsystems, computing frameworks, and CERN-coordinated upgrade roadmap (Phase-2 upgrades parallel to ALICE 3 planning).
  • STAR Collaboration: The flagship heavy-ion experiment at Brookhaven National Laboratory's Relativistic Heavy Ion Collider (RHIC), STAR is the most direct scientific peer to ALICE as it studies quark-gluon plasma at lower energies and uses similar detector subsystems (TPC, EMCal, heavy-flavor trackers) for comparable QGP observables.
  • CBM Collaboration: The future fixed-target heavy-ion experiment at GSI's FAIR facility, CBM is the planned European counterpart to ALICE in studying dense baryonic matter and high-rate heavy-ion collisions using similar silicon tracking and TPC-based detector architectures.
  • PHENIX Collaboration: The predecessor RHIC heavy-ion experiment at BNL that operated alongside STAR until 2016, PHENIX shared ALICE's focus on QGP observables (J/psi suppression, flow, jet quenching) using comparable detector architectures and collaboration governance.
  • ATLAS Collaboration: One of the four main experiments at CERN's LHC, ATLAS is a large international collaboration with 5,000+ members that, like ALICE, operates a multi-subsystem particle detector, runs continuous data-taking during LHC runs, and is organized around collaboration boards and member institutions. While ATLAS focuses on high-pT/precision Standard Model and Higgs physics rather than heavy ions, the structural and operational model is directly comparable to ALICE.
  • LHCb Collaboration: A fourth LHC experiment at CERN, LHCb is a similarly structured international scientific collaboration with member institutions, run coordination, detector subsystems, and an upgrade roadmap (LHCb Upgrade I/II) that runs on a comparable timeline to ALICE's Run 3/4 and ALICE 3 plans.
  • sPHENIX Collaboration: The next-generation RHIC heavy-ion experiment at BNL, sPHENIX is structured as a CERN-style international collaboration and is purpose-built for precision jet, Upsilon, and heavy-flavor QGP measurements that directly overlap with ALICE's core physics program.

Broad incumbents

  • CERN: The intergovernmental organization that hosts ALICE and operates the LHC, CERN is the parent ecosystem for ALICE and provides the accelerator, computing grid, member-state funding, and administrative infrastructure on which the collaboration depends.

Market position

Strengths5 records

Weaknesses5 records

Competitive moat5 records

Key risks5 records

Key highlights7 records

Customer concentration

ALICE Collaboration social profiles

Digital presence

ALICE Collaboration financial estimates

Financial estimate

Revenue estimate

Valuation estimate

ALICE Collaboration leadership team

Management profile

Number of profiles

Profiles3 records

ALICE Collaboration funding detail

Funding detail

Funding overview

Funding rounds

Investors

Funding detail is available on the Subscription and Enterprise plan.Contact sales →

ALICE Collaboration M&A and investment

M&A and investment

M&A

Investments

M&A and investment is available on the Subscription and Enterprise plan.Contact sales →

Frequently asked questions about ALICE Collaboration

What does ALICE Collaboration do?

ALICE designs, builds, and operates a dedicated heavy-ion particle physics detector at CERN's LHC to study the quark-gluon plasma state of matter at extreme energy densities. The collaboration delivers scientific research outputs including peer-reviewed publications, open data sets, and physics measurements from ultra-relativistic heavy-ion and proton-proton collisions, and develops next-generation detector upgrades for future LHC runs.

Is ALICE Collaboration a public or private company?

ALICE Collaboration is a private company. It is classified as nonprofit foundation owned and is currently operating.

When was ALICE Collaboration founded?

ALICE Collaboration was founded in -1. It employs 1 to 10 people.

Where is ALICE Collaboration based?

ALICE Collaboration is headquartered in Geneva, Switzerland, in the Europe region.

Who are ALICE Collaboration's main competitors?

Direct peers on record are CMS Collaboration, STAR Collaboration, CBM Collaboration, PHENIX Collaboration, ATLAS Collaboration, LHCb Collaboration and sPHENIX Collaboration. CERN is listed as a broad incumbent.

Does ALICE Collaboration have an API?

No public API is recorded for ALICE Collaboration.

What industry is ALICE Collaboration in?

ALICE Collaboration's product category is Experimental Particle Physics Research. Its primary akta.pro industry code is HDAGAMAA, Quantum Materials, Qubits & Device Physics Research. Its NAICS code is 541715.

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Live signals
BioengineeringBowling-Pin-Shaped Nuclei Recreate Little Big Bang, Revealing theThe ALICE collaboration at CERN has demonstrated that quark-gluon plasma, a state of matter present shortly after the Big Bang, can be created by colliding lighter oxygen and neon nuclei at the Large Hadron Collider. This finding challenges previous assumptions that only heavy lead ion collisions could generate such extreme conditions, revealing that nuclear geometry influences the resulting particle flow patterns. The results suggest new methods for studying atomic nucleus structures using high-energy collision data.LabrujulaverdeScientists Create a ‘Mini Big Bang’ and Manage to Reproduce in the Laboratory the State of Matter That Filled the Cosmos During the First Moments of the UniverseResearchers at the Niels Bohr Institute, part of the international ALICE collaboration at CERN, successfully recreated quark-gluon plasma using collisions of lighter atomic nuclei than previously thought possible. This breakthrough allows scientists to study nuclear geometry through particle trails and expands the understanding of the universe's earliest moments. The findings were published in Physical Review Letters.Mirage NewsResearchers Recreate Big Bang: Bowling-Pin Nuclei FoundResearchers from the University of Copenhagen and the ALICE collaboration at CERN successfully recreated quark-gluon plasma by colliding smaller atomic nuclei (oxygen-16 and neon-20) than previously thought possible. This breakthrough allows scientists to study the geometric shape of atomic nuclei through particle movement patterns, offering new insights into the Universe's earliest moments and fundamental nuclear physics. The findings have been published in Physical Review Letters.EurekAlert!Researchers create a Little Big Bang: Bowling-pin-shaped nuclei shed new light on the Universe’s first momentsResearchers from the University of Copenhagen and the Niels Bohr Institute, in collaboration with the ALICE team at CERN, successfully created quark-gluon plasma by colliding smaller oxygen-16 and neon-20 nuclei than previously possible. This experiment revealed that the geometric shape of the atomic nuclei influences the movement patterns of particles in the resulting plasma, offering new insights into nuclear structure and the early Universe. The findings were published in Physical Review Letters.GoogleAlchemy by pure light – CERN CourierALICE collaboration measured transmutation of lead into gold in LHC lead-ion collisions, finding a cross section of 6.8 ± 2.2 barns per beam. This yields a maximum production rate of about 89 kHz at ALICE, or 280 kHz across all LHC experiments. The gold is mostly unstable isotopes, with only a tiny fraction being stable 197Au.HomeALICE reports new charmonia measurements in LHC Run 3 – HomeThe ALICE collaboration presented initial results from the upgraded detector during LHC Run 3 at the 2023 Quark Matter conference in Houston. These measurements include the first determination of ψ(2S) production rates in the central region, enabled by a 300-fold increase in collision statistics compared to previous runs. This data provides essential reference points for future studies of quark-gluon plasma properties in heavy-ion collisions.ScienceAlertPhysicists Might Have Just Found a Primordial State of Matter in Rare Proton CollisionsPhysicists at CERN's ALICE collaboration reported the first observation of 'strange hadrons' in rare proton collisions, a phenomenon previously only seen in heavy ion collisions. This finding suggests the potential creation of quark-gluon plasma in simpler systems, which could challenge existing theoretical models and simplify future studies of primordial matter. The discovery has been published in Nature Physics but requires further confirmation through additional signatures to be fully validated.