Fact-checked by Grok 2 weeks ago

TRIUMF

TRIUMF (originally the TRI-University Facility), Canada's centre, is the country's national laboratory dedicated to research in , located in , . Established in as a collaborative venture among Canadian universities, it operates as a not-for-profit corporation owned by a consortium of 21 member universities spanning the nation. The laboratory's centerpiece is the 520 MeV cyclotron, an 18-metre-diameter machine that accelerates protons to energies up to 520 MeV—reaching 75% the —and delivers multiple simultaneous beams for diverse experiments. TRIUMF advances knowledge in fundamental science through facilities like the ISAC radioactive ion beam complex and an electron linear accelerator, supporting research in particle physics, nuclear astrophysics, materials science, and life sciences. It serves as a global hub for isotope science, producing radioisotopes for medical applications such as cancer diagnostics and therapy, as well as industrial uses including radiation testing for space hardware. With nearly 600 staff, students, and researchers, TRIUMF fosters international collaborations, including major contributions to CERN's ATLAS experiment at the Large Hadron Collider, and drives innovation in education, economic growth, and technology transfer.

Overview and History

Founding and Mission

TRIUMF, originally known as the Tri-University Facility, was established in as a collaborative venture by three universities—, the , and the —to centralize and enhance research resources across . The joined the consortium almost immediately, making it a four-university initiative from the outset. In 2023, the consortium expanded to 21 full member universities nationwide when seven associate members were upgraded to full status. This partnership was formalized with initial funding of approximately $19 million CAD from the federal government through the Control Board, enabling the construction of the world's largest at the time. The laboratory was sited on the south campus of the in , , on unceded traditional territory of the Musqueam people. Construction commenced in April 1968 following the approval, involving a multidisciplinary team of physicists, engineers, and technicians who designed and built a 520 MeV capable of producing high-intensity proton beams for production. The project progressed rapidly, with the structure completed by 1972, though full commissioning required additional tuning and testing. On December 15, 1974, the facility achieved its first beam extraction, marking the operational debut of this groundbreaking accelerator and ushering in a new era of subatomic research in . This milestone was celebrated nationally, with Prime Minister presiding over the official opening in 1976. From its inception as a specialized factory, TRIUMF's mission has centered on advancing fundamental discoveries in subatomic physics through accelerator-based experiments, while also fostering applications in and . The laboratory has evolved into Canada's national centre, now serving a of 21 member universities, which provides shared access to its unique facilities and expertise. This expansion reflects TRIUMF's role in pooling resources for high-impact research that no single institution could undertake alone, promoting interdisciplinary collaboration and innovation.

Key Milestones

TRIUMF achieved a significant operational milestone on December 15, 1974, when the laboratory successfully extracted the first 520 MeV proton beam from its main cyclotron, marking the beginning of full-scale research activities and establishing Canada as a leader in accelerator-based particle physics. In 2001, the Isotope Separator and Accelerator (ISAC) facility enabled the production and delivery of accelerated rare-isotope beams, opening new avenues for nuclear physics experiments probing the structure of exotic nuclei. The laboratory commemorated the 50th anniversary of this inaugural beam extraction on December 15, 2024, with a series of celebratory events including Week reflections, the release of historical stories and posters, and community gatherings that highlighted TRIUMF's enduring impact on global . In April 2024, the Canadian federal budget allocated approximately $400 million over five years to TRIUMF, representing the largest single investment in the laboratory's history and supporting enhanced operations starting in the 2025-2026 fiscal year. Building on this funding, TRIUMF released its Five-Year Implementation Plan for 2025-2030 in April 2025, outlining strategic priorities such as the completion and commissioning of the by 2027 to triple rare- beam production capacity, the initiation of operations at the and Medical for Novel (IAMI) facility in 2026 to advance therapeutic isotope development, and the delivery of 5,000 hours of radioactive isotope beams to ISAC experiments by 2029. In 2025, the (TRIUMF's Ion Trap for Atomic and Nuclear science) experiment produced key publications, including a February study in that refined the topology of the "island of inversion" in nuclear structure through high-precision mass measurements, providing deeper insights into the behavior of under extreme conditions.

Laboratory Directors

TRIUMF has been led by a series of directors who have shaped its development from inception to its current status as Canada's national laboratory for particle and nuclear physics. Each director has contributed to key phases of growth, including facility construction, scientific expansion, and strategic planning.
DirectorTenureKey Contributions
John Warren1968–1971As the founding director, Warren spearheaded the initial proposal for a shared cyclotron facility among British Columbia universities, secured federal funding, and oversaw site selection at the University of British Columbia campus, laying the groundwork for construction.
John Reginald Richardson1971–1976Richardson managed the completion of the cyclotron and achieved the first 500 MeV proton beam in 1974, enabling early experimental operations and establishing TRIUMF's reputation in meson and particle physics research.
Jack Sample1976–1981Sample directed operations during the facility's ramp-up, focusing on beam delivery improvements and the integration of international users, which solidified TRIUMF's role in global nuclear physics collaborations.
Erich P. Vogt1981–1994Vogt broadened TRIUMF's scientific scope beyond particle physics, initiating the KAON Factory project in 1985 to develop a high-intensity proton accelerator and enhancing interdisciplinary programs in nuclear structure and astrophysics.
Alan Astbury1994–2001Astbury navigated post-KAON challenges by reorienting TRIUMF toward rare-isotope beam science, leading the development of the ISAC facility and securing funding for its initial phases to advance studies in nuclear matter and exotic isotopes.
Alan Shotter2001–2007Shotter oversaw the construction and commissioning of ISAC-I, expanding TRIUMF's capabilities in radioactive beam experiments and fostering partnerships for accelerator upgrades that supported precision measurements in weak interactions.
Nigel S. Lockyer2007–2013Lockyer advanced the ARIEL electron linear accelerator project to complement ISAC, emphasizing sustainable funding models and international collaborations that positioned TRIUMF as a leader in rare-isotope production for nuclear physics.
Jonathan Bagger2014–2020Bagger expanded TRIUMF's life sciences initiatives, including enhanced isotope production for medical applications, and strengthened ties with global facilities like CERN, while implementing strategic plans for facility modernization.
Nigel Smith2021–presentSmith has focused on international collaborations, leveraging a historic 2024 federal investment to implement the 2025–2030 strategic plan, which prioritizes accelerator upgrades and cross-disciplinary research in quantum technologies and materials science.

Organizational Structure

Governance and Leadership

TRIUMF is governed by a structured framework that ensures oversight from its university owners and alignment with national research priorities. The Members' Council, comprising one representative from each of the 21 member universities, holds ultimate authority and approves key documents such as budgets, annual reports, and major agreements. The Board of Governors, which represents the member universities, manages and supervises TRIUMF's day-to-day operations and is accountable to the Members' Council for these activities. In September 2025, Dr. Lisa Kalynchuk was appointed as Chair of the Board of Governors. Additionally, the Council provides strategic advice on research priorities, consisting of 21 appointees from the member universities, up to five TRIUMF staff members, and up to five external experts. The executive team is led by the CEO and , , who has held the position since May 2021 and was reappointed through 2031 to guide TRIUMF's strategic initiatives. Supporting Smith are key roles including the , Chris Astle, who joined in April 2025 to oversee finance and supply chain operations. Other senior positions include the and directors of major divisions, such as the Physical Sciences Division led by Rituparna Kanungo, which coordinates experimental operations and scientific programs in nuclear and . TRIUMF's organizational departments are organized into divisions that support its core activities, including the Accelerator Division, Life Sciences Division, and Projects and Infrastructure Division. A notable addition in 2025 is the Experiment Operations group, led by M. Alcorta Moreno, focused on advancing rare-isotope beam delivery and commissioning targets for enhanced research capabilities by 2027. To maintain infrastructure, TRIUMF implements an integrated system as part of its "Weft & " program, which streamlines maintenance, regulatory compliance, and operational efficiency. As a federally funded facility, TRIUMF maintains accountability to agencies like the (NRC) through the Advisory Committee on TRIUMF and the Agency Committee on TRIUMF, which oversee government investments and provide guidance on performance. This structure aligns with TRIUMF's 2025-2030 strategic implementation plan, which emphasizes completing major projects like and addressing deferred maintenance with a $399.1 million budget to advance subatomic physics and innovation in health and sustainability.

University Partners

TRIUMF operates as a owned and governed by 21 Canadian universities, which collectively fund and oversee the laboratory's operations. Founded in 1968 by , the , and the , the consortium has expanded to include the , , , , , , , , , Queen's University, , Saint Mary's University, , , , Western University, , and . Under this ownership model, member universities contribute financially through allocations from the Canada Foundation for Innovation (CFI) to support major projects and share liabilities such as decommissioning costs, while also providing personnel who actively participate in programs and nominate representatives to bodies like the Members' Council. In return, universities gain priority access to TRIUMF's facilities and international collaborations, opportunities for joint appointments where TRIUMF scientists serve as adjunct faculty, and enhanced institutional reputation in subatomic physics and interdisciplinary fields. The plays a central role in coordinating Canada's subatomic physics research efforts from coast to coast, enabling shared infrastructure and expertise that no single could sustain alone. Recent expansions have strengthened this ; for instance, seven new universities joined in early 2023, bringing the total to 21 members and broadening participation in national initiatives. Additionally, in December 2023, the formalized strengthened ties with TRIUMF through a new collaboration focused on advancing research.

Facilities and Infrastructure

Main Cyclotron and Beamlines

The TRIUMF main cyclotron is a 520 MeV negative hydrogen ion (H⁻) accelerator featuring a 6-sector, sector-focused design with an 18-meter diameter vacuum chamber housed in a clamshell-shaped structure. The electromagnet, weighing 4000 tonnes, generates a magnetic field ranging from 0.30 T at the center to 0.58 T at the outer edges to maintain isochronous focusing for the orbiting ions. It accelerates up to 300 μA of beam current, enabling the production of intense proton beams upon extraction. Support systems include internal hot-cathode ion sources that produce H⁻ ions from gas via attachment, injecting them at 300 keV into the central region. Acceleration occurs through a 23 MHz radio-frequency (RF) system with four resonators providing up to 0.4 per turn across approximately 1250 turns to reach full energy. Beam extraction employs thin carbon foils or wires placed radially to strip the electrons, converting H⁻ to protons with near-100% efficiency and allowing up to four simultaneous extracted beams of adjustable energies from 70 to 520 MeV. The cyclotron achieved its first high-energy beam on December 15, 1974, and has operated continuously for over 5000 hours annually in a 24/7 schedule for about nine months each year. Reliability upgrades, including replacement of the main in 2017–2018 and ongoing such as cable replacements and cryopump servicing, ensure stable performance. The 2025–2030 strategic plan includes further refurbishments to the RF systems, controls, and to support long-term operation. Four primary proton beamlines transport the extracted beams to experimental areas. Beamline 1A delivers high-energy protons from 180 to 520 MeV at intensities up to 140 μA for high-energy physics targets, including pion production. Beamline 1B branches from the cyclotron vault to provide 180–500 MeV protons at variable intensities primarily for meson production in the Meson Hall. Beamline 2C supplies lower-energy protons from 65 to 120 MeV with adjustable intensities, such as 95 μA at 83 MeV or lower fluxes down to nanoamperes, for materials irradiation studies simulating radiation damage. Beamline 3C directs beams optimized for biomedical applications, including isotope production and proton therapy, typically at energies around 70–110 MeV with controlled intensities to meet clinical and research needs. These beamlines incorporate bending magnets, quadrupoles, and diagnostics for precise transport and sharing of the cyclotron's output.

ISAC and ARIEL Rare-Isotope Facilities

The Isotope Separator and Accelerator (ISAC) facility at TRIUMF, operational since 1999, serves as the primary infrastructure for producing and delivering low-energy rare-isotope beams through proton-induced reactions on thick targets bombarded by beams from the 520 MeV cyclotron. Isotopes are generated via spallation and fission processes, followed by thermalization in the target, ionization, and mass separation using a high-resolution magnetic separator to purify the beams for delivery at energies up to 60 keV. This low-energy beam delivery supports precision experiments, such as those at the TITAN ion trap, enabling studies of atomic and nuclear properties without acceleration. ISAC-II extends these capabilities with a superconducting linear accelerator that re-accelerates the purified rare-isotope s to energies up to 1.8 MeV per atomic mass unit, facilitating higher-energy nuclear structure investigations. The linac consists of multiple cryomodules with superconducting radiofrequency cavities, providing efficient acceleration while minimizing beam losses, and has undergone upgrades to enhance beam quality and energy range for advanced experimental stations like TIGRESS. These improvements include optimized ion sources and charge-state systems to increase beam intensity and versatility. The Advanced Rare Isotope Laboratory (), currently under completion as part of TRIUMF's 2025–2030 plan, complements ISAC by introducing parallel production methods to triple rare-isotope beam capacity. At its core is a 30 MeV superconducting linear (e-LINAC), operational since 2014, which drives photo-fission and photo-production in targets to yield neutron-rich isotopes not easily accessible via proton . A dedicated superconducting radiofrequency linac then accelerates these beams, with full integration targeted for 2027 to enable up to 5000 hours of rare-isotope beam delivery annually by 2029. Integrated operations across ISAC and feature advanced beam switching via the cyclotron's proton beamlines and the e-LINAC, allowing simultaneous delivery from up to three high-power targets— one for ISAC spallation and two for ARIEL photo-fission and proton-induced production. Versatile ion sources, including forced electron-beam ion sources for charge breeding, and robust high-power targets capable of handling megawatt-level beams ensure efficient isotope extraction and acceleration. This setup supports multi-user access with automated tuning and consolidated controls for seamless transitions between production modes. Initial operations of the Isotope and Accelerator Mass-spectrometry Initiative (IAMI) are scheduled for 2026, incorporating advanced isotope handling and mass spectrometry capabilities to enhance rare-isotope research and production efficiency within the ARIEL-ISAC ecosystem.

Centre for Molecular and Materials Science

The Centre for Molecular and Materials Science (CMMS) at TRIUMF provides Canadian and international researchers with intense, spin-polarized beams of positive and negative muons (μ⁺ and μ⁻) as well as lithium-8 (⁸Li) ions, enabling microscopic studies of matter through specialized spectroscopic techniques. These beams are implanted into materials to probe local magnetic, electronic, and structural properties at the atomic scale, supporting investigations into condensed matter physics and materials development. The facility operates within TRIUMF's cyclotron infrastructure, delivering beams to dedicated experimental stations for user-driven experiments. A primary technique at CMMS is muon spin rotation, relaxation, and resonance (μSR), which utilizes low-energy surface muons (typically 4.1 MeV ) to act as sensitive local probes of and dynamics in materials. TRIUMF's μSR beamlines, including the operational and M20 surface muon channels and the recently commissioned M9A, allow s to penetrate up to 180 mg/cm² into samples, making them ideal for studying thin films and bulk such as superconductors and magnetically ordered systems. For instance, μSR has revealed magnetic properties in kagome metals like Fe₁₋ₓCoₓSn and quantum liquids in compounds such as Yb₂Be₂GeO₇, providing insights into exotic electronic states. Sample environments support extreme conditions, including temperatures down to millikelvin in dilution refrigerators, up to 4 T, and pressures up to 2.5 GPa via the forthcoming M9H decay muon . Complementing μSR, the β-NMR (beta-detected ) technique at CMMS employs hyperpolarized ⁸Li⁺ ions, implanted at low energies to depths of 20–200 nm, for high-resolution studies of surfaces, interfaces, and thin films. This method detects nuclear through asymmetric , offering sensitivity up to 10 orders of magnitude greater than conventional NMR, which enables atomic-level characterization of electronic environments in nanostructures and high-temperature superconductors. The β-NMR , integrated with TRIUMF's ISAC facility, supports experiments on localized magnetism and dynamics near material interfaces. Applications of these techniques extend to developing next-generation materials, including cathodes where μSR identifies magnetic transitions in Li-based compounds that influence charge-discharge efficiency, and quantum computing components such as novel superconductors probed for coherence and pairing mechanisms. Beam time is allocated through competitive proposals, with experiments typically running in multi-day shifts under controlled environments like variable-temperature cryostats or high-vacuum chambers to accommodate diverse samples from semiconductors to molecular systems. Facility upgrades have enhanced CMMS capabilities, including the 2006–2012 rebuild of the M20 beamline for higher muon flux via improved optics and dual end-stations, and the 2015 replacement of M15 quadrupole power supplies for stable beam delivery. The M9A beamline, commissioned in 2022, features a new radiation-resistant and ultra-fast for increased efficiency, while the M9H decay channel, operational since 2024, boosts penetration for high-pressure studies. In β-NMR, a high parallel-field spectrometer installed in 2023 extends capabilities up to 9 T, improving resolution for thin-film experiments. These enhancements collectively increase and flux, enabling more precise detection and broader access for materials research.

Nuclear Medicine and Isotope Production Facilities

TRIUMF's nuclear medicine and isotope production facilities are centered in the Radiochemistry Annex (RCA) and include dedicated cyclotrons operated in partnership with BWX Technologies, Inc., such as two TR-30 cyclotrons for gas and solid targets and the TR-13 cyclotron for lower-energy productions. These systems support the irradiation of targets to generate biomedical and therapeutic radionuclides, with beamlines delivering protons from the main 520 MeV cyclotron to dedicated stations for efficient isotope yield. Hot cells equipped with 6-inch lead shielding and robotic manipulators handle high-radioactivity processing, while pneumatic rabbit systems enable rapid, safe transport of irradiated targets to processing areas, minimizing decay losses for short-lived isotopes. The small medical cyclotron facility, one of the world's largest producers of strontium-82 (Sr-82), generates this key radionuclide for rubidium-82 generators used in high-resolution cardiac PET imaging. The laboratories, including Research Labs 1 and 2 (RCR-1 and RCR-2) and GMP-capable production labs 005 and 007, facilitate tracer development and support through automated synthesis modules and analytical tools like ICP-MS and gamma spectrometers. These labs process isotopes for isolation and labeling, developing novel tracers such as -labeled for cancer metabolic and system xC- studies. They pioneer production of carbon-11 (C-11) and (F-18) for precise scanning in diagnosing conditions like cancer and neurological disorders, supplying tracers to collaborations with the (UBC) and BC Cancer. Key isotopes produced include diagnostic agents like (I-123) for and imaging, (In-111) for targeted SPECT imaging, (Tc-99m) via of molybdenum-100, and germanium-68 (Ge-68) for gallium-68 generators. Therapeutic radionuclides such as (Ac-225) are generated through on the 520 MeV , supporting targeted alpha for cancers. Production volumes enable global impact, with facilities treating approximately 35,000 patients weekly through commercial distributions of Sr-82, I-123, and others, while preclinical quantities of emerging theranostics like (Cu-64) and zirconium-89 (Zr-89) aid research into . The Applied Technology Group (ATG), a 30-person team within the , oversees setups using custom-manufactured targets for both routine production and research applications, including support for clinical trials through just-in-time delivery and . ATG's expertise in operation ensures 24/7 availability, integrating with hot cells and rabbit lines to process isotopes like palladium-103 (Pd-103) for . Under the 2025-2030 strategic plan, TRIUMF is expanding capacity via the Institute for Advanced Isotopes (IAMI), a 2500 m² facility with a TR-24 medical set to operationalize in 2026 for GMP-certified production of and next-generation . This includes scaling Ac-225 production to monthly generator outputs of ~100 MBq by enhancing thorium target processing and symbiotic beams, targeting improved therapies for metastatic cancers like and pancreatic through targeted alpha emitters. A 1A refurbishment during the 2026 shutdown will boost overall yields, aligning with $399.8 million in federal funding to triple rare availability for cancer treatments by 2029.

Computing and Specialized Support Facilities

TRIUMF hosts the ATLAS Canadian Tier-1 Data Centre, a critical component of the worldwide distributed computing infrastructure for the ATLAS experiment at CERN's Large Hadron Collider (LHC). This facility provides substantial computing capacity for processing and storing vast amounts of raw collision data generated by the ATLAS detector, enabling physicists to analyze high-energy particle interactions and reconstruct events. As one of ten international Tier-1 centres, it contributes approximately 10% of the global Tier-1 resources dedicated to ATLAS computing, supporting data-intensive tasks such as simulation, reconstruction, and analysis across the collaboration. The TRIUMF-ATLAS team shared in the 2025 Breakthrough Prize in Fundamental Physics, awarded to the ATLAS collaboration for its precise measurements of the Higgs boson's properties and explorations of physics beyond the Standard Model. TRIUMF operates dedicated proton and neutron irradiation facilities to support materials testing and radiation hardness studies essential for , , and high-energy physics applications. The Proton Irradiation Facility (PIF), located in the Meson Hall, utilizes Beamline 2C1 (BL2C1) to deliver proton beams with energies ranging from 5 MeV to 105 MeV, primarily for single-event effect (SEE) characterization of electronic components and detectors. These beams simulate radiation environments encountered in and terrestrial settings, allowing researchers to evaluate device reliability under proton-induced damage. Complementing this, the Neutron Irradiation Facility (NIF) provides neutron beams at multiple sites, including the TRIUMF Neutron Facility (TNF) with energies from thermal to 400 MeV, facilitating studies on neutron-induced degradation in materials and semiconductors. TRIUMF's scientific computing efforts integrate machine learning and quantum computing to advance simulations in particle and nuclear physics. The Scientific Computing team develops tools for beam transport optimization and large-scale data handling, while pilot projects apply machine learning algorithms to enhance data analysis efficiency in experiments. In a notable collaboration with the Perimeter Institute and D-Wave Systems, researchers have pioneered a quantum-AI hybrid model that accelerates particle collision simulations, improving speed, accuracy, and energy efficiency for LHC upgrade preparations. This approach leverages quantum annealing for generative modeling of calorimeter interactions, demonstrating potential for scalable quantum-enhanced computations in high-energy physics. Additional support facilities at TRIUMF include dedicated areas for detector testing and computations, bolstering experimental and modeling capabilities. Detector testing leverages the infrastructure to assess radiation tolerance of prototypes developed for and , ensuring robust performance in extreme environments. The Theory Department provides computational resources for and particle theory, employing first-principles methods to model subatomic interactions and support interpretive frameworks for TRIUMF's accelerator-based experiments. These resources facilitate high-performance simulations that integrate with broader computing ecosystems, aiding in the design and analysis of complex physical phenomena.

Research Programs

Particle Physics Experiments

TRIUMF plays a pivotal role in by contributing to major international experiments that probe fundamental particles and forces, particularly through its expertise in accelerator-based research and detector technologies. The laboratory supports efforts to understand oscillations and properties, leveraging its high-intensity proton beams to produce secondary particles essential for these studies. Canadian researchers at TRIUMF lead key components in collaborations hosted at facilities like J-PARC in and in , ensuring precise measurements that advance the and search for new physics. In the T2K long-baseline experiment, TRIUMF scientists have been instrumental since the project's inception, providing critical contributions to the design, , and at J-PARC. This includes developing optical transition radiation detectors for proton and reducing flux systematics, which enabled T2K's 2013 evidence for muon-to-electron oscillations—a breakthrough hinting at in the sector. TRIUMF also supports data analysis, network infrastructure, and slow control systems, enhancing the experiment's sensitivity to properties over its 295 km baseline to the detector. Ongoing upgrades, backed by TRIUMF's computing resources, continue to refine these measurements for future precision. TRIUMF leads the Canadian contingent in the ALPHA collaboration at CERN's Antiproton Decelerator, focusing on studies to test matter- symmetries. The ALPHA-2 apparatus, enhanced with TRIUMF-developed techniques, has trapped and studied antihydrogen atoms, enabling comparisons to hydrogen. The ALPHA-g experiment, utilizing a vertical magnetic trap and a TRIUMF-built detector, achieved the first direct observation of antihydrogen's gravitational free-fall in 2023, confirming it falls downward like ordinary matter within experimental precision. In 2025, ALPHA reported the simultaneous observation of both hyperfine components of the 1S–2S transition in trapped , providing high-precision data on 's spectral properties and limiting deviations from . These results underscore TRIUMF's advancements in antimatter manipulation for fundamental symmetry tests. Domestically, TRIUMF develops advanced detectors for precision particle measurements, including silicon strip trackers integral to upgrades like the ATLAS Inner Tracker at the LHC. These all-silicon systems, constructed with TRIUMF's expertise in sensor integration and mechanical support, enable high-resolution tracking of charged particles in high-luminosity environments, as demonstrated in studies. TRIUMF's 520 MeV supplies intense proton beams—up to 200 μA—to produce pions and s via targets, generating secondary beams for low-energy precision experiments on fundamental interactions, such as rare kaon decays that probe flavor violation. This beam infrastructure supports both domestic R&D and international beam requests, bridging high-energy and precision frontiers.

Nuclear Physics Experiments

TRIUMF's experiments leverage rare beams produced at the ISAC facility to probe the structure, reactions, and astrophysical relevance of atomic nuclei. These studies employ advanced detection systems and traps to measure properties of short-lived isotopes, providing insights into forces and the of in stars. Key efforts focus on precision , beta-decay processes, ultracold dynamics, and low-energy reaction cross-sections, contributing to broader understandings of nuclear stability and cosmic evolution. The (TRIUMF's Ion Traps for Atomic and Nuclear science) facility utilizes Penning traps to perform high-precision mass measurements of exotic isotopes, enabling detailed investigations of nuclear structure far from stability. By comparing cyclotron frequencies of ions in , achieves relative mass uncertainties below 10^{-8} for half-lives as short as milliseconds, revealing binding energies and shell effects in neutron-rich nuclei. In 2025, published results on mass measurements of isotopes (^{74-76}Sr), confirming previous data and informing models of nuclear deformation, as well as studies on and isotopes that highlight symmetries. These measurements support theoretical frameworks for by refining predictions of beta-decay pathways. The BeEST experiment examines neutrino properties through electron energy spectra in beta decays of trapped radioactive ions, setting direct constraints on the spatial extent of neutrino wavepackets. Using beams of short-lived isotopes like ^{8}Li from ISAC, BeEST detects recoil ions to infer neutrino emission characteristics, addressing uncertainties in quantum wave descriptions. In February 2025, BeEST reported the first direct lower limit on the neutrino wavepacket size, exceeding 6.2 \times 10^{-12} meters—about 5% of an atomic diameter—based on energy width measurements from over 10^6 decays, tightening bounds by orders of magnitude compared to prior oscillation data. This result, published in Nature, advances tests of Lorentz invariance and neutrino coherence in nuclear processes. The BeEST collaboration held its 2025 meeting at TRIUMF in May, discussing upgrades for heavier isotopes to further probe neutrino mass eigenstates. The TUCAN (TRIUMF Ultracold Advanced ) project develops an intense source of ultracold s (UCNs) via superfluid conversion of s, targeting a search for the (nEDM) to sensitivities below 10^{-28} e·cm. UCNs, with energies around 100 neV, are confined in traps to measure energy shifts in , probing beyond the . In June 2025, TUCAN achieved first successful UCN production, yielding densities suitable for nEDM experiments and validating the source design for future high-precision runs. This facility enhances by linking neutron properties to fundamental symmetries. In , TRIUMF measures reaction rates critical for using facilities like TUDA and , which simulate low-energy charged-particle captures in stellar environments. TUDA employs thin targets and detectors to determine cross-sections for reactions such as proton captures on light nuclei, directly influencing models of burning in stars. DRAGON facilitates radiative alpha and proton captures on rare isotopes, providing data on resonances that normalize stellar rates—for instance, the ^{12}C(α,γ)^{16}O reaction, pivotal for carbon production in burning. These experiments integrate into computational simulations, reducing uncertainties in abundance predictions from to .

Materials and Life Sciences Applications

TRIUMF's research in materials science leverages muon spin rotation (μSR) and β-detected nuclear magnetic resonance (β-NMR) techniques to probe quantum materials, particularly superconductors and battery technologies. In superconductors, μSR has been instrumental in measuring magnetic penetration depths and detecting weak magnetism in unconventional systems, such as high-temperature cuprates and iron-based materials, revealing insights into vortex lattices and time-reversal symmetry breaking. For instance, μSR studies on FeSe_{1-x}S_{x} identified two distinct superconducting states with broken time-reversal symmetry, advancing understanding of quantum phase transitions in strongly correlated systems. Similarly, β-NMR applications in battery research focus on lithium-ion dynamics; measurements in thin films of poly(ethylene oxide) (PEO) electrolytes have quantified diffusion rates and local environments, aiding the development of solid-state batteries with improved ion transport. These techniques provide microscopic resolution into charge carrier behavior, contributing to enhanced energy storage materials without relying on bulk averaging methods. In , TRIUMF develops for cancer diagnosis and treatment, emphasizing targeted alpha therapy (TAT) with isotopes like (Ac-225). Ac-225-based agents deliver high-energy alpha particles to cells, minimizing damage to healthy tissue, and have shown promise in early clinical studies for treating resistant tumors. Production at TRIUMF's cyclotrons has scaled to clinically relevant quantities, supporting trials in collaboration with institutions like BC Cancer, where Ac-225 conjugates enable precise tumor targeting and imaging. Complementary theranostic pairs, such as Ac-225/Ac-226, allow simultaneous diagnosis and therapy, improving outcomes in solid tumors. These efforts have transformed radiotherapy by increasing the , with like F-18-FDG used in PET scans to stage cancers and monitor metabolic activity. Life sciences applications at TRIUMF extend to and isotope tracers, enabling non-invasive studies of biological processes. β-NMR with probes like ^{8}^{+} facilitates ultrasensitive analysis of metal interactions in biomolecules at physiological conditions, revealing dynamics in proteins and membranes relevant to disease mechanisms. Isotope tracers, including zirconium-89 (Zr-89) and carbon-11 (C-11), support PET-MRI imaging for brain disorders like Parkinson's and Alzheimer's, tracking and activity to inform diagnostics. These tracers have been applied in research and studies, providing quantitative insights into cellular-level changes without invasive procedures. TRIUMF's innovations in 2024 highlighted milestones in medical isotope commercialization, including the acquisition of ARTMS Inc. by Telix Pharmaceuticals, which accelerates Ac-225 and other TAT agents toward market. Partnerships with BWXT Medical distributed nearly 2 million patient doses annually, while funding through the Canadian Medical Isotope Ecosystem supported new production projects. These collaborations, involving universities and pharma companies, have driven clinical translation of , enhancing global access to cancer therapies.

Collaborations and Community

International Scientific Collaborations

TRIUMF serves as the Canadian lead laboratory for the at CERN's (LHC), coordinating contributions from seven Canadian universities and operating the ATLAS Tier-1 computing centre, which handles massive data volumes from particle collisions. The ATLAS collaboration, including TRIUMF's team, received the 2025 for precise measurements and explorations of new physics phenomena, shared among over 13,000 researchers from ATLAS, , , and LHCb. This role underscores TRIUMF's coordination in international efforts, supported by long-standing agreements with , including protocols on the High-Luminosity LHC and rare-isotope beams. In May 2025, signed a statement of intent with CERN to further strengthen scientific collaboration in and related fields. In neutrino and astroparticle physics, TRIUMF contributes to experiments at SNOLAB, including SNO+ for searches, nEXO and for detection, and DEAP/DarkSide-20k and for studies using liquid argon detectors. These efforts leverage TRIUMF's expertise in , photodetector development, and detector technologies to advance understanding of fundamental particles and cosmology. TRIUMF participates in the T2K experiment, a long-baseline study in , where protons from J-PARC produce a beam detected 295 kilometers away at , enabling measurements of neutrino flavor changes and hints of . Bilateral ties include the sixth TRIUMF-KEK Scientific held on January 29-30, 2025, at KEK's campus, fostering exchanges in particle and under a longstanding strategic partnership. In 2024, TRIUMF and France's CNRS established the NPAT joint laboratory for , , and accelerator technologies, based in to unite Canadian and French communities on exotic nuclei and stellar processes. In July 2025, TRIUMF collaborated with Canada's Perimeter Institute and D-Wave on a quantum-AI hybrid approach to enhance particle collision simulations for high-energy physics research. TRIUMF maintains over 30 formal work and research agreements with leading global institutions, such as and , positioning it as a key coordinator in multinational projects that enhance 's role in high-energy physics.

TRIUMF Users' Group and Education

The TRIUMF Users' Group (TUG) serves as an advocacy for the laboratory's user community, comprising scientists, engineers, and researchers with a keen interest in leveraging TRIUMF's facilities for advanced experiments. Established to foster dialogue on scientific, technical, and policy matters, TUG represents over 1,000 annual users from and abroad, facilitating their engagement through annual general meetings (AGMs) where beam time allocations and facility updates are discussed. These meetings, often held in conjunction with TRIUMF's scientific workshops, allow users to provide input on operational priorities and address concerns via an executive committee that liaises directly with laboratory management. Access to TRIUMF's resources operates on a competitive, proposal-based model designed for researchers from Canadian universities, international institutions, and collaborative consortia. Proposals are evaluated by specialized committees, such as the Materials and Molecular Sciences Experimental Evaluation Committee (MMS-EEC), which assess scientific merit, feasibility, and resource needs before allocating beam time in shifts typically lasting 5-7 days. This system supports over 500 on-site staff and students, including postdoctoral fellows and graduate trainees, who collaborate closely with visiting users to execute experiments across particle and domains. TRIUMF's educational initiatives emphasize hands-on training for emerging scientists, including programs that integrate students into real-world environments. Key offerings include the TRI-Institute Summer School on Elementary Particles (TRISEP), a program for students exposed to , and the Graduate Instrumentation and Detector School (GRIDS), which provides practical experience in nuclear, particle, and . Complementing these are efforts like the YES Fellowship, a six-week summer program for high school , and broader K-12 engagement through lectures and internships to inspire interest. In 2024-2025, TRIUMF launched the "50 Years, 50 Stories" initiative to commemorate the laboratory's first beam in 1974, featuring multimedia narratives on its history and impact to engage students and the public in subatomic science. TRIUMF advances community impact through dedicated diversity, equity, and inclusion (EDI) efforts, including an EDI Committee and a rolling that embeds principles to reflect Canada's demographic . Under the 2025-2030 Implementation Plan, recruitment strategies prioritize highly qualified personnel (HQP) development, training over 150 students annually via a competitive co-op program to build Canada's talent pipeline while attracting global experts. These initiatives enhance user engagement and foster inclusive collaborations, with international users comprising a significant portion of the community.

References

  1. [1]
    About
    ### Summary of TRIUMF
  2. [2]
    Membership - TRIUMF
    TRIUMF is a partnership among leading Canadian research and technical universities from coast to coast. TRIUMF continues to welcome new member applications.Overview · Reputational Benefits · Alignment With University...
  3. [3]
    520 MeV Cyclotron - TRIUMF
    The 18-metre, 520 MeV cyclotron uses a rapidly oscillating radio frequency electric field to apply a kick of electric voltage each half turn, and giant magnets ...
  4. [4]
    TRIUMF INC. - Canadian Nuclear Safety Commission
    Jun 16, 2025 · TRIUMF is a large particle accelerator research facility. In addition to research, TRIUMF produces radioisotopes with industrial and medical applications.
  5. [5]
    TRIUMF: the home of Canadian subatomic physics - CERN Courier
    Jan 1, 2003 · Today, it provides four beams supplying experiments in particle and nuclear physics, astrophysics, materials science, and a range of medical and ...
  6. [6]
    Research Impact | TRIUMF – Canada's Particle Accelerator Centre
    TRIUMF's research has significant impact through creating scientific knowledge, fostering of innovation and growth of the economy, enabling of national and ...
  7. [7]
    University Members - TRIUMF
    TRIUMF Member Universities: University of Alberta · University of British Columbia · University of Calgary · Carleton University · University of GuelphOverview · Our Science · Triumf
  8. [8]
    TRIUMF - SFU AtoM
    The University of Alberta joined the group and TRIUMF was formally established by the four universities in 1968 with funding from the Atomic Energy Control ...
  9. [9]
    50 Stories – 50 years 50 stories - TRIUMF
    Prime Minister Pierre Trudeau presided over the official commissioning of TRIUMF's 520 MeV cyclotron on February 9, 1976, bringing a wider national ...
  10. [10]
    Celebrating 50 years of beam at TRIUMF - Innovation News Network
    Oct 30, 2024 · Within three years, the group had secured C$19m in federal funding, and construction began in 1968. The construction of the cyclotron ...
  11. [11]
    50 Years of Beamtime – Discover Our Lab - TRIUMF's
    On December 15, 1974, TRIUMF accelerated H- ions and extracted a proton beam from a 520 MeV cyclotron for the first time. To commemorate this milestone an ...Missing: establishment 1968 universities funding construction
  12. [12]
    Governance | TRIUMF – Canada's Particle Accelerator Centre
    TRIUMF INC. is owned by a consortium of 21 Canadian member universities, comprising a broad and comprehensive network of academic partners that spans Victoria ...Triumf Board Of Governors · Governance Structure · University Members
  13. [13]
    Milestones:List of Milestones - Engineering and Technology History ...
    Jan 4, 2024 · Invention of Public-key Cryptography, 1969 - 1975, 1969, 5 October ... First 500 MeV Proton Beam from the TRIUMF Cyclotron, 1974, 1974, 16 ...
  14. [14]
    The TRIUMF-ISAC facility: two decades of discovery with rare ...
    Aug 7, 2025 · Since 1999, the TRIUMF-ISAC facility has been providing rare isotope beams for nuclear physics experiments. The three pillars of the program ...
  15. [15]
    50 Years, 50 Stories - TRIUMF
    Oct 6, 2025 · December 15 2024 marked the 50th anniversary of first beam at TRIUMF, which first sprang forth from the cyclotron back in 1974.Missing: establishment 1968 funding construction
  16. [16]
    Science Week 2024 - triumf indico
    Reflections on first beam at TRIUMF and Delivering In-kind equipment to CERN¶ 30m. Speaker: Dr Ewart Blackmore (TRIUMF). TRIUMF 50th Talk first beam plus LHC.
  17. [17]
    50th anniversary of beam: World's Most Colourful Cyclotron poster ...
    Mar 6, 2024 · 50th anniversary of beam: World's Most Colourful Cyclotron poster now available. March 6, 2024|John Biehler. Illustrated poster of TRIUMF and ...Who We Are · Our Science · Triumf
  18. [18]
    Minister Sajjan highlights historic investment in TRIUMF
    Sep 13, 2024 · The government invested $399.8 million over five years, the largest investment to date, to advance research, including cancer cures and a new ...Who We Are · Our Science · Resources
  19. [19]
    [PDF] Implementation Plan | TRIUMF
    TRIUMF operates as an incorporated not-for- profit owned by a consortium of 21 Canadian member universities who assume ultimate liability for the laboratory's ...
  20. [20]
    TRIUMF launches Five-Year Implementation Plan 2025-2030
    Apr 15, 2025 · The Five-Year Implementation Plan articulates a funded program of work, including detailed deliverables that the laboratory is committing to complete across ...Missing: ARIEL IAMI
  21. [21]
    Penning trap, penning letters: TITAN's recent successes - TRIUMF
    Aug 6, 2025 · And the TITAN experiment is not just writing letters: it's rewriting the story of how matter behaves, both in the lab and across the universe.Who We Are · Our Science · Triumf
  22. [22]
    Refined Topology of the Island of Inversion with High Precision ...
    Feb 7, 2025 · ... TRIUMF's ion trap for atomic and nuclear science (TITAN) for the mass measurements. The beam was continuously accumulated and cooled in a ...
  23. [23]
    Tales of TRIUMF - CERN Courier
    Apr 19, 2018 · Not three years later, in April 1968, the group received $19 million CDN in federal funding and construction began. ... first beam in 1972.
  24. [24]
    [PDF] 40 YEARS ON – REFLECTIONS ON THE HISTORY OF TRIUMF ...
    Nov 11, 2015 · This article is a collection of articles meant to reflect the history of TRIUMF from its first beam. Beginning in 1965 through to 1974, it.
  25. [25]
    Untitled
    JOHN REGINALD RICHARDSON ... the facility's second director from. 1971 until 1976. In his supposed retirement, he in- itiated the drive for the KAON Factory at ...
  26. [26]
    [PDF] Expand, UBC-Ass'n Resigns TRIUMF
    He has been chairman of TRIUMFs board of management since the cyclo- tron started operating in 1974. As director of TRIUMF, Prof. Vogt succeeds Dr. Jack Sample, ...
  27. [27]
    [PDF] SPS reaches design energy 247 Swift sequel to CERN Council's ...
    Jack Sample, new Director of TRIUMF. (Photo John Morris UBC Information Services) tracing the development back to historical roots. One sector of the.
  28. [28]
    Erich Vogt (1929 - 2014) | UBC Physics & Astronomy
    Between September 1974 and April 1980, Erich was Chair of the TRIUMF Board of Management, and was Laboratory Director from 1981 until his retirement in March ...
  29. [29]
    In Memoriam: Erich Vogt (1929–2014) - Taylor & Francis Online
    Jun 19, 2014 · Erich, TRIUMF's director from 1981 to 1994, foresaw the importance of broadening the science program beyond nuclear and particle physics ...
  30. [30]
    Erich Vogt's KAON vision scuttled by Canadian political myopia
    Mar 10, 2014 · Erich Vogt became TRIUMF director in 1981, rising from boyhood in Steinbach, Manitoba, to earn a physics doctorate at Princeton, where he ...
  31. [31]
    [PDF] HISTORY OF TRIUMF'S TRANSFORMATION INTO A RARE ...
    A brief account of the people and events that led TRIUMF's transformation from a meson factory into a rare isotope laboratory. HISTORY OF TRIUMF'S ...Missing: milestones | Show results with:milestones
  32. [32]
    [PDF] ISAC20 Symposium - triumf indico
    Aug 21, 2019 · John D'Auria. (Simon Fraser Univ.) Prof. Robert Moore. (McGill University). Prof. Erich Vogt. (UBC/TRIUMF). Director of TRIUMF. 1981-1994.
  33. [33]
    Elachi Named JPL Director Shotter to Lead Canada's TRIUMF
    nuclear physicist at Scotland's. University of Edinburgh, will begin a five-year term this September as the director of TRIUMF, Canada's labora- ... 1994. At that.<|control11|><|separator|>
  34. [34]
    Radioactive Beams: New TRIUMF bolsters Canadian physics
    Alan Shotter, the British physicist who becomes director of the TRIUMF nuclear and particle-physics lab in Canada this month.
  35. [35]
    Nigel Lockyer of Canada's TRIUMF lab named Fermilab director
    Jun 20, 2013 · Nigel Lockyer, director of Canada's TRIUMF laboratory for particle and nuclear physics and a professor of physics and astronomy at the ...Missing: list | Show results with:list
  36. [36]
  37. [37]
    American Physical Society Names Jonathan Bagger Chief Executive ...
    Aug 13, 2020 · Bagger has completed six years as Director of TRIUMF, Canada's particle accelerator center, located in Vancouver, British Columbia. He was ...<|control11|><|separator|>
  38. [38]
    JHU Vice Provost Jonathan Bagger to lead Canadian national ...
    Mar 18, 2014 · Bagger, who joined Johns Hopkins faculty in 1989, appointed to six-year term as director at TRIUMF.
  39. [39]
    TRIUMF Leadership Team | Executive & Management Profiles
    Nigel Smith assumed the role of TRIUMF Executive Director and CEO in May 2021. Previously, Smith served as Executive Director of SNOLAB (Sudbury, ON); he also ...Missing: list | Show results with:list
  40. [40]
    TRIUMF's Board of Governors welcomes Dr. Lisa Kalynchuk as new ...
    Sep 24, 2025 · The TRIUMF Board of Governor's is pleased to announce that Dr. Lisa Kalynchuk, Vice-President Research & Innovation at the University of ...Who We Are · Our Science · Triumf
  41. [41]
    Dr. Nigel Smith re-appointed as TRIUMF Executive Director
    Sep 17, 2025 · On behalf of the TRIUMF Board of Governors, we are pleased to announce that we have approved the reappointment of Dr. Nigel Smith as Executive ...Who We Are · Our Science · TriumfMissing: CEO | Show results with:CEO
  42. [42]
    TRIUMF welcomes Dr. Chris Astle as next CFO
    Mar 26, 2025 · TRIUMF is pleased to announce Dr. Chris Astle as the laboratory's next Chief Financial Officer, effective April 1, 2025.
  43. [43]
    None
    ### Organizational Structure and Key Details at TRIUMF (as of 2025-04-18)
  44. [44]
    TRIUMF expands, fortifies member university network
    Mar 6, 2023 · Vancouver, March 06, 2023 (GLOBE NEWSWIRE) -- TRIUMF, Canada's ... member consortium, adding seven new universities to its network.
  45. [45]
    U of G and TRIUMF Forge New Partnership to Advance Nuclear ...
    Dec 11, 2023 · The University of Guelph and TRIUMF, Canada's national laboratory for particle and nuclear physics, proudly announce a new collaboration aimed at catalyzing ...<|control11|><|separator|>
  46. [46]
    QUICK FACTS - TRIUMF Operations
    The cyclotron, its supporting structure, and shielding blocks rest on a 12-sided "circular" steel reinforced concrete pad, ~ 65 feet in diameter, which varies ...
  47. [47]
    [PDF] Five-Year Request for Support 2025–2030 | TRIUMF
    Founded in 1968, TRIUMF is host to over 1.5 billion dollars in large-scale scientific and research infrastructure, including recent substantial investments in ...
  48. [48]
    Proton Irradiation Facility (PIF) - TRIUMF
    This makes the TRIUMF cyclotron's variable-energy capability of up to 500 MeV ideal for studies of space effects. Biological studies such as cell irradiations ...
  49. [49]
    [PDF] Properties of the TRIUMF Cyclotron Beam - CERN
    In the TRIUMF cyclotron the highest current so far ac- celerated to 500 MeV has been SO ~ during 100 ~sec pulses ever 10 msec.Missing: strength | Show results with:strength
  50. [50]
    TRIUMF's Rare Isotope Facilities
    TRIUMF's rare isotope facilities cover an industrial-scale complex combining two core elements: The existing Isotope Separator and Accelerator (ISAC) facility.
  51. [51]
    ISAC II – Discover Our Lab - TRIUMF's
    There are three distinct experimental facilities made possible by ISAC II's superconducting linear accelerator. Visit Featured Media for unique virtual access.Missing: details | Show results with:details
  52. [52]
    [PDF] Implementation Plan | TRIUMF
    This will position TRIUMF for success over the next five years in delivering outstanding scientific research, ensuring the completion of ARIEL and IAMI projects ...
  53. [53]
    Advanced Rare Isotope Laboratory (ARIEL) - TRIUMF
    Beamlines: Beamlines are specialized conduits for transporting, purifying and bunching rare isotopes from the target to experiments. · Mass Separators · Charge ...Contact · How It Works · Our Science
  54. [54]
    TRIUMF Centre for Molecular & Materials Science
    TRIUMF, μSR and βNMR, Applying for Beamtime Facility Resources, Running Experiments, Discovery, acceleratedCMMSμSR Beamlines at TRIUMF
  55. [55]
    Centre for Molecular and Materials Science (CMMS)
    The Centre for Molecular and Materials Science (CMMS) provides Canadian and international researchers with intense beams of muons and radioactive nuclides.
  56. [56]
    CMMS - TRIUMF
    Explore TRIUMF's Centre for Molecular and Materials Science (CMMS), where advanced techniques like μSR and βNMR provide unique insights into materials at ...
  57. [57]
    [PDF] Muon Spin Rotation/Relaxation/Resonance (μSR) - cmms triumf
    Such Li-based compounds are promising for use as cathodes materials in rechargeable batteries. The μSR measurements indicate that the onset temperature of ...
  58. [58]
    μSR Beamlines at TRIUMF
    M15 is equipped with dual spin-rotators (Wien filters), which serve both to separate positrons from the beam and to rotate the muon spin perpendicular to the ...
  59. [59]
  60. [60]
    Beta NMR page - TRIUMF
    Jan 23, 2013 · β detected NMR is an exotic form of nuclear magnetic resonance (NMR) in which the nuclear spin precession signal is detected through the beta ...
  61. [61]
    bNMR - TRIUMF
    At TRIUMF's unique βNMR (beta-detected Nuclear Magnetic Resonance) facility, scientists are using radioactive isotopes to take inside-out, atomic-level ...
  62. [62]
    A new high parallel-field spectrometer at TRIUMF's β-NMR facility
    Feb 10, 2023 · Early studies of SRF Nb samples utilized the muon spin rotation (μSR) facility at TRIUMF where magnetic fields were applied perpendicular to ...
  63. [63]
    [PDF] Quantum Materials / Molecular and Materials Science - triumf indico
    Materials Characterization and Computation Centre? • Central facility for quantum materials. • Build on TRIUMF CMMS core competencies in μSR, βNMR and.
  64. [64]
    BWXT Cyclotrons - TRIUMF
    The TRIUMF-based facility is one of the world's largest producers of strontium-82 ( 82 Sr), used for high-resolution heart imaging to detect artery disease.Missing: small | Show results with:small
  65. [65]
    ATG Facilities - TRIUMF
    With decades of experience and expertise in cyclotron operation and troubleshooting, the ATG delivers 24/7, 365 day, just-in-time medical isotope production ...
  66. [66]
    Labs — TRIUMF Life Sciences
    These “tracers” can be used for medical imaging (e.g. PET Scan) to diagnose diseases such as cancer or to treat other diseases. Radiochemistry Research Labs.
  67. [67]
    Radiochemistry Laboratories - TRIUMF
    These facilities support three key areas of nuclear medicine research and production: medical isotope production and isolation; innovations in accelerator ...
  68. [68]
    IAMI - TRIUMF
    IAMI is a state-of-the-art facility for research into next-generation, life-saving medical isotopes and radiopharmaceuticals.Contact · Our Science · Triumf
  69. [69]
    None
    ### Summary of Life Sciences Division Plans (2025-2030)
  70. [70]
    ATLAS Tier-1 Centre - TRIUMF
    The Tier-1 Centre is part of TRIUMF's major collaboration in the ATLAS detector at CERN's Large Hadron Collider (LHC), including significant contributions to ...
  71. [71]
    Atlas Tier 1 Data Centre - Simon Fraser University
    The Canadian Tier-1 Data Centre is a state-of-the art facility and provides: Computing capacity for data processing of LHC collisions recorded by ATLAS; ...
  72. [72]
    [PDF] Canadian ATLAS Tier-1 - CERN Indico
    Mar 15, 2021 · Canadian ATLAS Tier-1 Overview. ▫ Key player in large-scale distributed computing (ATLAS experiment only). ▫ Providing 10% of worldwide ...
  73. [73]
    TRIUMF-ATLAS team shares in major Breakthrough Prize in ...
    Apr 10, 2025 · “Physicists and engineers at TRIUMF and across Canada, are playing a pivotal role in constructing the ATLAS detectors for the future, designed ...
  74. [74]
    Irradiation Facilities - Proton & Neutron Radiation Testing - TRIUMF
    This makes the TRIUMF cyclotron's variable-energy capability of up to 500 MeV ideal for studies of space effects. Biological studies such as cell irradiations ...<|control11|><|separator|>
  75. [75]
    Neutron Irradiation Facility (NIF) - TRIUMF
    NIF BEAM SPECIFICATIONS ; Energy. Thermal to 400 MeV. 1/E spectrum to 480 MeV ; Flux (neutrons/cm²/s). 2x10⁶ to 3x10⁶ above 10 MeV. 5x10⁵ thermal energies. 10³ to ...
  76. [76]
    Scientific Computing | TRIUMF – Canada's Particle Accelerator Centre
    As founding members of the Worldwide LHC Computing Grid (WLCG), TRIUMF's ... history, and traditions from one generation to the next on this site.<|control11|><|separator|>
  77. [77]
    When quantum and AI collide - TRIUMF
    Jul 10, 2025 · A cross-Canada team of researchers have brought quantum and generative AI together to prepare for the Large Hadron Collider's next upgrade.The Next Phase Of Collider... · Our Science · Resources
  78. [78]
    Canadian Scientists Pioneer Made-in-Canada Quantum-powered AI ...
    Jul 11, 2025 · Researchers from TRIUMF and Perimeter Institute has developed a quantum-assisted AI model to simulate particle collisions more efficiently.
  79. [79]
    Detectors & Instrumentation | TRIUMF
    Explore TRIUMF's advancements in detector and instrumentation technologies, essential for particle physics, nuclear physics, and materials science research.Darklight Physicists Search... · Research Initiatives · Astroparticle Physics
  80. [80]
    Theory - TRIUMF
    The Theory Department specializes in two areas: nuclear theory and particle theory. TRIUMF's nuclear theorists are leaders in building a first-principles ...
  81. [81]
    Particle Physics - Research - TRIUMF
    Explore TRIUMF's particle physics research, uncovering the fundamental forces and particles that shape our universe. Learn about our contributions to the ...Research Initiatives · High Energy Frontier · Triumf<|control11|><|separator|>
  82. [82]
    Canadian Participation in the T2K Long Baseline Neutrino Experiment
    Nov 23, 2022 · With support from TRIUMF and ComputeCanada, Canadians provide other critical contributions such as the network, slow control, and databases ...
  83. [83]
    [PDF] Status of the Canadian group and plan of T2K - triumf indico
    T2K-Canada made essential contribution to T2K. • Break-through concepts ... - Reduction of neutrino flux systematics in T2K. - Reduction in atmospheric ...
  84. [84]
    Dr Akira Konaka wins prestigious award for subatomic physics
    May 31, 2016 · The award was given “for his outstanding contributions to the T2K long-baseline neutrino experiment, including his leadership in establishing ...
  85. [85]
    TRIUMF ALPHA, ALPHA-g, and HAICU Experiments
    With improvements to experimental technique, the number of the trapped antihydrogen atoms in ALPHA has dramatically increased from the start of the ...
  86. [86]
    Laser cooling of antihydrogen atoms - Nature
    Mar 31, 2021 · Important features of ALPHA-2 (compared with the original ALPHA device) include the incorporation of optical access to the trapped antihydrogen ...
  87. [87]
    Precision spectroscopy of the hyperfine components of the 1S–2S ...
    Jan 17, 2025 · Here we report on the simultaneous observation of both accessible hyperfine components of the 1S–2S transition in trapped antihydrogen.
  88. [88]
    TRIUMF ATLAS Experiment
    Based at CERN as part of the Large Hadron Collider (LHC), ATLAS is one of the largest scientific collaborations in history. As part of the 10-institution ATLAS- ...
  89. [89]
    [PDF] Silicon Detectors and Current Developments - triumf indico
    ▷ It is a very active research field, in particle physics, industry, and many other fields. ▷ 3D, SiPM, CMOS MAPS very active in development. ▷ Race is on ...
  90. [90]
    [PDF] The TRIUMF 520 MeV Cyclotron: Recent and Future Developments
    The TRIUMF cyclotron is now routinely producing 150 J..LA protons at 500 MeV for meson production with a maximum available current of 200 J..LA.
  91. [91]
    Nuclear Physics | TRIUMF – Canada's Particle Accelerator Centre
    TRIUMF's nuclear physics research focuses on the study of the atomic nucleus using beams of short-lived, exotic isotopes produced using particle accelerators ...
  92. [92]
    TRIUMF TITAN Facility – TRIUMF
    TITAN, TRIUMF's Ion Trap for Atomic and Nuclear science, is one of the world's fastest and most precise tools for measuring the mass of a single atom.Contact · Our Science · ResourcesMissing: matter | Show results with:matter
  93. [93]
    Precision mass measurements of using the multiple reflection time ...
    We report precision mass measurements of 7 4 − 7 6 S r performed with the TITAN multiple-reflection time-of-flight mass spectrometer.
  94. [94]
    Investigation of nuclear structure via high-precision mass ...
    Jan 9, 2025 · PhD project: Investigation of nuclear structure via high-precision mass measurements at TITAN, TRIUMF. Project description. High-precision mass ...
  95. [95]
    Direct experimental constraints on the spatial extent of a neutrino ...
    Feb 12, 2025 · The spatial extent of the neutrino wavepacket is only loosely constrained by reactor neutrino oscillation data with a spread of 13 orders of magnitude.
  96. [96]
    Rare Isotopes Shed Light on the Size of a Neutrino Wavepacket
    Jun 2, 2025 · This work shows that the size of the neutrino wavepacket must be larger than 6.2 trillionths of a meter, or about 5% the size of a typical atom.
  97. [97]
    TRIUMF UCN Facility
    The TRIUMF UCN facility creates ultracold neutrons for precise measurements, especially the neutron electric dipole moment (nEDM), to explore matter-antimatter ...
  98. [98]
    [2507.05278] Neutron EDM Experiment with an Advanced Ultracold ...
    Jul 4, 2025 · The TRIUMF Ultracold Advanced Neutron (TUCAN) collaboration has been developing a high-intensity ultracold neutron (UCN) source aimed at ...Missing: neutrons | Show results with:neutrons
  99. [99]
    Ultracold Neutron Successfully Produced at TUCAN Experiment
    Jul 7, 2025 · To observe the EDM, ultracold neutrons (UCNs) are used. UCNs are neutrons that have been cooled to extremely low energies—around 100 neV—so they ...
  100. [100]
    TUDA - TRIUMF
    For nuclear astrophysicists working to understand stellar nucleosynthesis, the key is to determine how probable particular charged particle reactions are at a ...
  101. [101]
    Nuclear Astrophysics at TRIUMF
    DRAGON is a facility at TRIUMF used by the Nuclear Astrophysicists to determine nuclear reaction rates for stellar or Big Bang nucleosynthesis.
  102. [102]
    Nuclear reaction experiments at TRIUMF-ISAC - ScienceDirect.com
    3. Reactions for stellar physics & nucleosynthesis. Although Nuclear Astrophysics is considered one of the three research pillars of nuclear physics at ISAC, it ...
  103. [103]
    β-NMR Measurements of Lithium Ion Transport in Thin Films of Pure ...
    May 25, 2014 · β-Detected nuclear spin relaxation of 8 Li + has been used to study the microscopic diffusion of lithium ions in thin films of poly(ethylene oxide) (PEO).
  104. [104]
    Two superconducting states with broken time-reversal symmetry in ...
    Our μSR measurements reveal two different TRSB superconducting states in the phase diagram of FeSe1−xSx.Missing: examples | Show results with:examples
  105. [105]
    Our Research - TRIUMF Life Sciences
    The majority of the tracer compounds produced by the Radiopharmaceutical Production Group at TRIUMF are used for the PET-MRI Imaging Center, a joint UBC/TRIUMF ...
  106. [106]
    TRIUMF and actinium-225 – the 'world's rarest drug'
    Feb 21, 2025 · Founded in 1968, TRIUMF is a major Canadian research facility located in Vancouver, BC. The laboratory is home to a diverse and globally unique ...<|separator|>
  107. [107]
    Nuclear medicine can cure cancer, and Canadian researchers are ...
    May 4, 2023 · “Nuclear medicine has the potential to transform cancer treatment,” said Dr. Bénard. “Radiopharmaceuticals can significantly improve the quality ...Missing: applications | Show results with:applications
  108. [108]
    Expanding the PET radioisotope universe utilizing solid targets on ...
    Sep 21, 2021 · Molecular imaging with medical radioisotopes enables the minimally-invasive monitoring of aberrant biochemical, cellular and tissue-level ...
  109. [109]
    TRIUMF Innovations: 2024 Year in Review
    Jan 24, 2025 · Federal Investment: In April, the Federal Government made an unprecedented $400 million investment in TRIUMF, a pivotal step in bolstering ...Missing: Budget | Show results with:Budget
  110. [110]
    Acquisition of ARTMS, TRIUMF Medical Isotope Spinoff ...
    Apr 17, 2024 · ARTMS, a TRIUMF spin-off, was acquired for US$82M. It produces diagnostic isotopes, and the acquisition shows the value of Canada's research ...<|separator|>
  111. [111]
    ATLAS Collaboration awarded Breakthrough Prize in Fundamental ...
    Apr 7, 2025 · The Breakthrough Prize specifically recognised ATLAS for its precise measurements of the Higgs boson's properties and its exploration of the ...Missing: TRIUMF | Show results with:TRIUMF
  112. [112]
    Canada | International Relations - CERN
    Apr 4, 2025 · In 2018, TRIUMF's Tier-1 centre was transferred to Compute Canada's new state-of-the-art facility at Simon Fraser University. In 2009, a new ...
  113. [113]
    SNO+ - TRIUMF
    Based at SNOLAB, SNO+ is one of five TRIUMF-SNOLAB collaborations involving some of the world's most advanced experiments in neutrino science (nEXO, HALO) ...Missing: contributions | Show results with:contributions
  114. [114]
    [PDF] TRIUMF and SNOLAB-based Astroparticle Physics ... - triumf indico
    argon, located at SNOLAB. • TRIUMF contributions: - DAQ for DEAP/DarkSide-20k. - Photo detector development for Argo. • More details on Ar detectors: P ...
  115. [115]
    Awards & Recognition - SNOLAB
    David Sinclair, Director of Facilities Development for SNOLAB on his receipt of the inaugural CAP-TRIUMF Vogt medal for his contributions to sub-atomic physics.
  116. [116]
    T2K and Hyper-K Experiment - TRIUMF
    T2K (Tokai to Kamioka) is a neutrino experiment designed to investigate how neutrinos change from one flavour to another as they travel (neutrino oscillations).
  117. [117]
    Joint neutrino oscillation analysis from the T2K and NOvA experiments
    Oct 22, 2025 · Here we carry out the first joint analysis of datasets from NOvA and T2K, the two currently operating long-baseline neutrino oscillation ...
  118. [118]
    KEK hold the 6th TRIUMF-KEK Scientific Symposium
    Feb 25, 2025 · The 6th TRIUMF-KEK Scientific Symposium was held on January 29 and 30, 2025 at the KEK Tsukuba campus. It was the first symposium with the current management ...
  119. [119]
    TRIUMF and CNRS create joint Canada-France NPAT laboratory for ...
    Nov 5, 2024 · TRIUMF and CNRS create joint Canada-France NPAT laboratory for research in nuclear physics and astrophysics. November 5, 2024|John Biehler.Who We Are · Our Science · Triumf
  120. [120]
    CNRS and TRIUMF join forces to create the French-Canadian NPAT ...
    Nov 14, 2024 · On 4 November 2024, the French research organization CNRS and TRIUMF, Canada's particle accelerator centre, signed a partnership agreement ...
  121. [121]
    International Partners - TRIUMF
    TRIUMF holds more than 30 work- and research agreements with the world's top science labs and academic institutions as part of a broad, global network of ...
  122. [122]
    Evaluation of TRIUMF 2023-24 - summary report
    Oct 26, 2023 · The evaluation assessed TRIUMF's scientific excellence, social and economic impact, relevance, capacity, competency, facilities and governance.About The Laboratory · Social And Economic Impact · Governance<|control11|><|separator|>
  123. [123]
    TRIUMF Users Group (TUG)
    Current TUEC Members (2024) ; Chair: Pascal Reiter (Edinburgh) ; Past Chair: Katherine Pachal (TRIUMF), role covered by Christian Diget (York) until May 2025.
  124. [124]
    [PDF] TRIUMF Users' Group - triumf indico
    The TRIUMF Users' Group is an organization of scientists and engineers with special interest in the use of the TRIUMF facility. Its purpose is:.
  125. [125]
    TRIUMF Experimenter Portal | Proposal Submission & Beam Time ...
    The TRIUMF Users Group (TUG) is an organization for TRIUMF users who have a special interest in the use of the lab's infrastructure and facilities for the ...
  126. [126]
    MMS-EEC Submission Process - TRIUMF
    Reports on beam developments will also be given to the TRIUMF Users Group at their Annual General Meeting (TUG AGM). For a list of beams available, please ...
  127. [127]
    Beam Requests and Allocations
    Beam time is usually allocated in quanta of "weeks" - 5-7 days (8-14 shifts) of 24-hour-per-day operation - separated by maintenance days during which any ...Missing: process | Show results with:process
  128. [128]
    Evaluation of TRIUMF 2023-24 - National Research Council Canada
    Sep 27, 2023 · Advanced Rare Isotope Laboratory (ARIEL). With an anticipated completion date in 2027, the ARIEL is expected to be one of the world's only ...
  129. [129]
    Education Programs | TRIUMF – Canada's Particle Accelerator Centre
    Explore TRIUMF's educational programs designed to inspire and train the next generation of scientists. From high school outreach to undergraduate and graduate ...Missing: summer | Show results with:summer
  130. [130]
    TRISEP2025 (16-27 June 2025): Overview - triumf indico
    TRISEP is intended for graduate students of all levels who have taken an advanced quantum mechanics class and an introductory particle physics class.Missing: training outreach
  131. [131]
    GRIDS2025 - TRIUMF
    GRIDS is a summer school that was started in 2018 for graduate students and new post-docs in nuclear, particle, and astroparticle physics to get hands-on ...Missing: outreach | Show results with:outreach
  132. [132]
    YES Fellowship - TRIUMF
    Jul 1, 2025 · The YES Fellowship is a six-week summer research program at TRIUMF for graduating BC students, offering a $4,500 award, travel, and housing for ...Missing: outreach | Show results with:outreach<|control11|><|separator|>
  133. [133]
    K-12 Students and Teachers | UBC Physics & Astronomy
    Triumf Education and Outreach: Triumf hosts several outreach activities, including the Saturday Morning Lecture Series, the High School Internship Program, and ...
  134. [134]
    Equity, Diversity, and Inclusion - TRIUMF
    Learn about TRIUMF's commitment to equity, diversity, and inclusion. Discover our initiatives, resources, and action plans aimed at fostering a diverse and ...Missing: 2025-2030 | Show results with:2025-2030