Exhibition & Sponsorship

Ongoing Projects

Ongoing Accelerator Projects

Showcase of ongoing accelerator projects and facilities

Major accelerator projects currently under development, construction, or commissioning around the world are highlighted below. IPAC’27 is honored to provide a forum for effective and productive discussion that supports these projects and strengthens the accelerator community.

The project information below represents a snapshot as of 2026.

Projects in America

Location / Institution: Lawrence Berkeley Lab

Type: Project Upgrade

Short description: Upgrading the current ALS into a fourth-generation light source.

Estimated Project Cost: $900M USD

Status:

  • Approval: Not specified
  • Contracting / progress: 30%–80% contracted

Timeline:

  • Current status: Active
  • Target completion: July 2029

Equipment needed:

  • Light source equipments

Contact person(s):

  • Dimitri Argyriou, LBNL — dargyriou@lbl.gov
  • Mark Erdmann, ALS-U — merdmann@lbl.gov

Location / Institution: BNL

Type: New Project

Short description: The Electron-Ion Collider (EIC), being designed by BNL, JLab, and partners, will collide polarized high-energy electron beams with proton and ion beams at center-of-mass energies of 20–140 GeV. It will provide detailed insight into the quark and gluon structure of nucleons and nuclei, the strong nuclear force, and the origin of spin.

Estimated Project Cost: $2.8B USD

Status:

  • Approval: Not yet approved for construction
  • Contracting / progress: < 30% contracted

Timeline:

  • Estimated construction milestone: 2027-2028
  • Duration: 10 years

Equipment needed:

  • Vacuum equipment
  • Magnets
  • Power converters
  • RF amplifiers and RF equipment
  • Cables
  • Detector components
  • HVAC systems

Contact person(s):

  • Jim Yeck, BNL — jyeck@bnl.gov
  • Sergei Nagaitsev, BNL — snagaitsev@bnl.gov

Location / Institution: Brookhaven National Laboratory

Type: New Project

Short description: This project proposes adding a beamline off the AGS using slow-extracted proton and heavy-ion beams delivered to an end station designed for radiation effects testing.

Estimated Project Cost: $550M USD

Status:

  • Approval: TBD
  • Contracting / progress: Not started

Timeline:

  • Target date: October 2028
  • Duration: 3 years

Equipment needed:

  • Magnets
  • Power supplies
  • Vacuum parts
  • Beam instrumentation, including ion chambers and profile monitors
  • Supporting infrastructure
  • Dosimetry
  • Beam imaging systems
  • Bragg curve measurement systems using binary filters and ion chambers
  • Radiation monitoring
  • Laser alignment
  • Other experiment-support equipment

Contact person(s):

  • Kevin Brown, Brookhaven National Laboratory — brownk@bnl.gov

Location / Institution: Brookhaven National Laboratory

Type: Project Upgrade

Short description: Development of high-brightness upgrades for the National Synchrotron Light Source II.

Estimated Project Cost: around $1B USD

Status:

  • Approval: N/A
  • Contracting / progress: Not started

Timeline:

  • Duration: 8 years
  • Construction start: 2030

Equipment needed:

  • Accelerator magnets
  • RF
  • Power supplies
  • Diagnostics and instrumentation
  • Vacuum
  • Girders
  • Optics
  • Electronics and controls

Contact person(s):

  • Timur Shaftan, BNL — shaftan@bnl.gov

Project name: PIP-II (Proton Improvement Plan)

Location / Institution: Fermi National Accelerator Laboratory, Batavia, IL, USA

Type: New Project

Short description:

PIP-II is a new superconducting 800 MeV H⁻ linac and beam transfer line that will inject a 2 mA beam into the Fermilab Booster. The goal is to upgrade the Fermilab Accelerator Complex toward more than 1.2 MW proton power on target to drive the LBNF/DUNE neutrino experiment.

Estimated Project Cost: $978M

Status:

  • Approval / key date: December 2017
  • Contracting / progress: 30%–80% contracted

Timeline:

  • Start / key milestone: April 2022
  • Duration: 10 years

Equipment needed:

  • Superconducting cryomodules:
    • One HWR 162.5 MHz cryomodule with 8 beta = 0.11 half-wave SRF resonators and 8 solenoids
    • 2+1 SSR1 325 MHz cryomodules with 8 beta = 0.22 single-spoke SRF resonators and 8 solenoids
    • 7+1 SSR2 325 MHz cryomodules with 5 beta = 0.47 single-spoke SRF resonators and 3 solenoids
    • 9+1 low-beta 650 MHz cryomodules with 4 beta = 0.61 elliptical SRF resonators
    • 4+1 high-beta 650 MHz cryomodules with 6 beta = 0.92 elliptical SRF resonators
  • Solid-state amplifiers for each cavity: 2 kW, 7 kW, 20 kW, 40 kW, and 70 kW
  • 2 K cryogenic cold box of 12 kW and cryoplant
  • 25 kW beam absorber
  • Beam transfer line
  • Collimators
  • H⁻ stripping and injection system
  • Specialty room-temperature RF cavities and magnets for the Booster and Main Injector
  • Conventional facilities, including High Bay and Cryoplant buildings, RF gallery, linac and beam transfer line tunnel, and service buildings
  • Warm Front End, already built and operated at Fermilab

Contact person(s):

  • Cristian Boffo, Fermi National Accelerator Laboratory — crboffo@fnal.gov
  • Olivier Napoly, Fermi National Accelerator Laboratory — napoly@fnal.gov

Projects in Asia

Location / Institution: Huizhou, Guangdong, China

Type: New Project

Short description: CiADS is proposed as the world’s first megawatt-scale accelerator-driven transmutation research facility to achieve high-power coupled operation. Construction started in 2021 with a six-year construction period.

Estimated Project Cost: 2.8 billion RMB

Status:

  • Contracting / progress: 30%–80% contracted

Timeline:

  • Construction start: 2021-07-30
  • Construction period: 6 years

Equipment needed:

  • Cryogenic equipment
  • RF systems
  • Beam diagnostics
  • DCS
  • Reactor systems
  • Superconducting equipment

Contact person(s):

  • Yuan He, Institute of Modern Physics, CAS — hey@impcas.ac.cn
  • Lu Li, Institute of Modern Physics, CAS — lilu@impcas.ac.cn

Project name: Isotope Pharmaceutical Production Platform based on Superconducting Accelerator Facility for Effective Therapy (IP-SAFE)

Location / Institution: Lanzhou New Area, Gansu Province

Type: New Project

Short description:

The project aims to achieve breakthroughs in key technologies for the mass production of alpha-emitting isotopes, such as radium-223 and actinium-225, for tumor therapy, together with integration and demonstration of core devices.

Estimated Project Cost: 0.5B RMB

Status:

  • Approval / key date: 2024-07-05
  • Contracting / progress: 30%–80% contracted

Timeline:

  • Start / key milestone: 2024-09-05
  • Target completion: 2028-04-05

Equipment needed:

  • RF systems
  • Cryogenic equipment
  • Superconducting equipment
  • Beam diagnostics

Contact person(s):

  • Hongwei Zhao, Institute of Modern Physics, CAS — zhaohw@impcas.ac.cn
  • Jinda Chen, Institute of Modern Physics, CAS — chenjinda@impcas.ac.cn

Location / Institution: RIKEN Nishina Center, Saitama, Japan

Type: Project Upgrade

Short description: This project aims to increase the intensity of radioactive isotope beams by a factor of 20 compared with the current capability of the RIKEN RI Beam Factory (RIBF).

Reference: https://www.nishina.riken.jp/researcher/RIBFupgrade/RIBF_Upgrade_NCAC.pdf

Estimated Project Cost: ~$26,000 MYEN in total

Status:

  • Approval: Not yet approved
  • Contracting / progress: Not started

Timeline:

  • Earliest estimated start: FY2026 (1st stage)
  • Duration: 8 years

Equipment needed:

  • Magnets
  • Power supplies
  • RF cavities
  • RF amplifiers
  • Beam chambers
  • Vacuum system
  • Beam diagnostics

Contact person(s):

  • Hiroyoshi Sakurai, RIKEN Nishina Center — sakurai@ribf.riken.jp
  • Osamu Kamigaito, RIKEN Nishina Center — kamigait@riken.jp

Location / Institution: Sayo-cho, Hyogo, Japan

Type: Project Upgrade

Short description: Upgrade project of SPring-8 SR facility.

Estimated Project Cost: About $300M

Status:

  • Contracting / progress: >80% contracted

Timeline:

  • Construction start: 2025
  • Duration: 4 years

Equipment needed:

  • Light source equipments

Contact person(s):

  • Takahiro Watanabe, JASRI/RIKEN — twatanabe@spring8.or.jp

Location / Institution: Rayong, Thailand

Type: New Project

Short description:

4th generation, 3 GeV synchrotron.

Estimated Project Cost: 490 M USD

Status:

  • Approval: January 2026
  • Contracting / progress: Not started

Timeline:

  • Estimated construction start: 2027–2028
  • Duration: 6 years

Equipment needed:

  • Magnets
  • RF system
  • Power supplies
  • Vacuum components
  • Control system
  • Utilities

Contact person(s):

  • Prapong Klysubun, Synchrotron Light Research Institute — pklysubun@slri.or.th
  • Wasupon Rungatanapiriom, Synchrotron Light Research Institute — wasupon@slri.or.th

Location / Institution: Dongguan, Guangdong, China

Type: Project Upgrade

Short description:

The China Spallation Neutron Source Phase II, CSNS-II, is a major national upgrade to the CSNS facility. It aims to increase accelerator beam power from 100 kW to 500 kW and add 11 new neutron spectrometers alongside China’s first muon experiment terminal.

Incorporating advanced technological innovations such as dual-harmonic accelerating methods, domestically developed 2 K helium cryogenic systems, and ATCA-based fast protection networks, the project will significantly enhance experimental resolution and efficiency. Upon completion, this upgraded mega-science infrastructure will serve as a world-class platform for cutting-edge research and industrial innovation in fields ranging from new materials and aerospace to life sciences, further strengthening the comprehensive national science center in the Greater Bay Area.

Estimated Project Cost: 430 million USD

Status:

  • Approval / key date: January 9, 2024
  • Contracting / progress: 30%–80% contracted

Timeline:

  • Start / key milestone: January 9, 2024
  • Duration: 5 years and 9 months

Equipment needed:

  • Superconducting cavities
  • RF power sources
  • Cryogenic systems
  • Beam diagnostic equipment
  • Neutron guides
  • Neutron detectors
  • Neutron choppers

Contact person(s):

  • Sheng Wang, Institute of High Energy Physics, Chinese Academy of Sciences — wangs@ihep.ac.cn
  • Xiao Li, Institute of High Energy Physics, Chinese Academy of Sciences — lixiao@ihep.ac.cn

Projects in Europe

Location / Institution: Cerdanyola del Vallès, Barcelona, Spain

Type: Project Upgrade

Short description: ALBA II is the major upgrade of the ALBA Synchrotron Light Source, transforming it from a third-generation to a fourth-generation synchrotron. The project includes a new low-emittance storage ring, upgrades to beamlines, and new advanced experimental stations to strengthen research in materials science, life sciences, energy, nanotechnology, and industrial applications.

Estimated Project Cost: $170M Euros

Status:

  • Approval / key date: May 2024
  • Contracting / progress: < 30% contracted

Timeline:

  • Estimated beginning: 2030
  • Duration: 1 year to remove and install the storage ring, plus 1 year for commissioning and first experiments

Equipment needed:

  • New magnets
  • Girders
  • Vacuum chambers
  • Power supplies
  • Other storage-ring renewal systems

Contact person(s):

  • Francisco José Pérez Rodríguez, ALBA Synchrotron — francis@cells.es

Location / Institution: Trieste, Italy

Type: Project Upgrade

Short description: Elettra 2.0 will replace the existing third-generation Elettra light source with a 2.4 GeV, low-emittance storage ring. The upgrade will expand and modernize beamline capabilities, especially in tender and hard X-rays, enabling major advances in X-ray spectroscopy, diffraction, coherent imaging, time-resolved experiments, nanotechnology, materials science, quantum materials, pharmaceuticals, and health sciences.

Estimated Project Cost: 170 Meuro

Status:

  • Approval / key date: 2019
  • Contracting / progress: 30%–80% contracted

Timeline:

  • Start / key milestone: 2022
  • Duration: 10 years

Equipment needed:

  • Magnets
  • RF amplifiers
  • Power supplies
  • Vacuum chambers
  • Vacuum pumps
  • Valves
  • Front-ends
  • Beamlines
  • Detectors
  • Electrical supply systems
  • Cooling systems

Contact person(s):

  • Emanuel Karantzoulis, Elettra - Sincrotrone Trieste — emanuel.karantzoulis@elettra.eu

Location / Institution: Berlin, Germany

Type: New Project

Short description: Synchrotron radiation source planned for 2031.

Estimated Project Cost: 1.2B Euros

Status:

  • Contracting / progress: Not started

Timeline:

  • Construction period: 2026–2031
  • Duration: 4–5 years

Equipment needed:

  • RF equipment
  • Power supplies
  • Magnets

Contact person(s):

  • Renke van der Veen, Helmholtz-Zentrum Berlin — renke@helmholtz-berlin.de
  • Andreas Jankowiak, Helmholtz-Zentrum Berlin — andreas.jankowiak@helmholtz-berlin.de

Location / Institution: DESY, Hamburg

Type: Project Upgrade

Short description:

The PETRA IV project at DESY, with approval foreseen within 2026.

Estimated Project Cost: 1.8 Bn Euros

Status:

  • Contracting / progress: Not started

Timeline:

  • Estimated construction start: 2030
  • Duration: 5 years

Equipment needed:

  • All accelerator and beamlines subsystems

Contact person(s):

  • Riccardo Bartolini, DESY — riccardo.bartolini@desy.de

Location / Institution: Mol, Belgium

Type: Project Upgrade

Short description:

MYRRHA is designed as an Accelerator Driven System. As a first step toward a 600 MeV superconducting linac, a 100 MeV proton linac will be constructed by 2031. A connected proton target facility will serve radioisotope production.

Estimated Project Cost: 650 M€

Status:

  • Approval / key date: 07 September 2018
  • Contracting / progress: 30%–80% contracted

Timeline:

  • Start / key milestone: 01 November 2024
  • Duration: 13 years

Equipment needed:

  • 100 MeV proton linac
  • 17 MeV injector
  • 15 copper CH-cavities
  • Superconducting linac with 60 single-spoke cavities
  • Proton target station

Contact person(s):

  • Hamid Aït Abderrahim, MYRRHA aisbl/ivzw — hamid.ait.abderrahim@myrrha.be
  • Adrian Fabich, SCK CEN Belgian Nuclear Research Centre — adrian.fabich@sckcen.be

Location / Institution: Lake Geneva Basin / CERN

Type: New Project

Short description:

The Future Circular Collider (FCC) is a proposed ultra-high luminosity electron-positron collider (also called FCC-ee), serving as Higgs factory, electroweak & top factory, which would be installed in a new 91 km tunnel infrastructure connected to the existing CERN complex. As a potential second step, a hadron collider providing proton-proton collisions at a centre-of-mass energy close to 100 TeV (FCC-hh) could reuse the same tunnel and technical infrastructure.

The FCC-ee was recommended by the 2025/26 Update of the European Strategy for Particle Physics as both the option “A” and (in descoped form) the option “B” for CERN’s next flagship accelerator. The FCC-ee project will be presented to CERN Council for approval in 2028/29, with a possible start of construction by 2032/33. First beams are expected in 2046, and regular physics operation to commence in 2048.

Estimated Project Cost: 15B CHF

Status:

  • Approval / key date: September 2028
  • Contracting / progress: Not started

Timeline:

  • Estimated construction start: 2032/33
  • Duration: 14 years

Equipment needed:

  • RF systems
  • Warm RF structures
  • Superconducting RF cavities and Cryomodules
  • RF power sources
  • Cryogenic systems
  • Series production of magnets
  • Vacuum chambers, vacuum pumps, and interconnection modules
  • NEG coating
  • Kickers, septa, and pulsed-power systems
  • Beam dumps and collimators
  • Beam instrumentation, including beam position monitors, polarimeters, emittance and bunch-length monitors, beam current monitors, and bunch current monitors
  • Laser systems for polarimeters and the electron injector
  • Temperature and position sensors
  • Alignment instrumentation
  • Cooling plants and distribution systems
  • Electrical substations and power-distribution systems
  • Large-scale control systems
  • Particle source systems and diagnostics
  • Tracking detectors, calorimeters, experimental magnets, and DAQ systems
  • Computing infrastructure and storage
  • Groundwater and spoil-management systems
  • Tunnel boring machines and excavation support
  • Environmental monitoring systems

Contact person(s):

  • Michael Benedikt, CERN — michael.benedikt@cern.ch
  • Frank Zimmermann, CERN — frank.zimmermann@cern.ch

Location / Institution: CERN, Geneva, Switzerland

Type: Project Upgrade

Short description:

The High-Luminosity Large Hadron Collider (HL-LHC) project is a major upgrade to the current Large Hadron Collider. It aims to increase LHC performance and expand the potential for discoveries after 2030. The objective is to increase the integrated luminosity by a factor of 10 beyond the LHC design value.

With the upgrade, the LHC will push the limits of human knowledge and enable physicists to go beyond the Standard Model and its Higgs boson. Following approval of HL-LHC as a priority project in the European Strategy for Particle Physics and approval of its budget by CERN Council, this major upgrade is now in full implementation together with companion upgrade programs for the LHC injectors and detectors.

Estimated Project Cost: 1.2 BCHF

Status:

  • Approval / key date: 2016
  • Contracting / progress: >80% contracted

Timeline:

  • Deployment phase: July 2026
  • Duration: 4 years

Equipment needed:

  • Electronic components and assemblies
  • Remaining industrial procurements associated with deployment

Contact person(s):

  • Markus Zerlauth, CERN — markus.zerlauth@cern.ch

Location / Institution: Krakow, Poland

Type: Project Upgrade

Short description:

The objective of the project is to design and construct a compact 1.5 GeV linear accelerator at the SOLARIS National Synchrotron Radiation Centre, enabling continuous replenishment of the electron beam current in the storage ring through top-up operation.

The project foresees a hybrid accelerator architecture, partially based on existing infrastructure and complemented by new accelerator sections using C-band technology. This approach will make it possible to reach the target energy of 1.5 GeV in a single-pass configuration within the existing LINAC tunnel, while preserving space for diagnostics, maintenance, and future upgrades.

The upgraded injector will significantly improve beam stability, beam availability, and the quality of experimental data delivered to users. It will also establish the foundation for future applications of the LINAC as a standalone facility, including electron irradiation, accelerator diagnostics and testing, and longer-term development of a free-electron laser and new experimental beamlines.

Estimated Project Cost: 42 M€

Status:

  • Approval / key date: 2027
  • Contracting / progress: Not started

Timeline:

  • Estimated construction start: 2028
  • Duration: 5 years

Equipment needed:

  • C-band accelerating structures
  • C-band modulators and klystrons
  • Waveguides
  • Power dividers
  • Pulse compressors
  • Vacuum equipment, including valves, bellows, pumps, and controllers
  • Electron beam instrumentation
  • Magnets and power supplies
  • RF photocathode gun
  • Laser system
  • LLRF system
  • Timing system

Contact person(s):

  • Adriana Wawrzyniak, SOLARIS National Synchrotron Radiation Centre, Jagiellonian University — adriana.wawrzyniak@uj.edu.pl