The artistic elements of architectural concepts, engineering drafts, and the building themselves are all key aspects of the rich visual history that make up TRIUMF’s identity.
Titled the TRIUMF Project, the lab’s beginnings were first captured in artistic impressions of the laboratory’s main cyclotron – the defining piece of infrastructure around which TRIUMF was built.
These cutaway drawings provide a unique perspecitve into the facility. Given the era, these illustrations were hand drawn original pieces of art, later followed by a series of hand-built scale models.
More recently, as an extension of the lab’s ongoing site planning process, work was undertaken to update TRIUMF’s physical spaces. Driven by an interest to modernize key buildings and facilities, the laboratory has collaborated with teams of both internal and external experts to generate a vision that aligns TRIUMF’s building and spaces with its modern and vibrant brand identity.
An initial phase of this work revolved around the revitalization of the lobby within TRIUMF’s Main Office Building. As the space that greets thousands of visitors each year, this location offered an ideal opportunity to rebrand and remodel. The principle requirement was to create a functional space, more accommodating of guests, and to modernize through the application of infographic visuals for storytelling. To advance this work, TRIUMF engaged MOTIV Architects to support concept creation and physical space design.
Following the work in the lobby, attention was turned to the external facade of the Main Office Building. With the application of a new paint scheme, complemented by a full-height banner system promoting TRIUMF’s exciting science to outside visitors and the greater community.
The use of colour in both the paint and banner selections brings the exterior of the building in line with TRIUMF’s refreshed brand language. The combined effect of the internal and external changes to the Main Office Building serve to create an entrance that better captures the cutting-edge nature of our facility.
Further to the changes made, TRIUMF worked with MOTIV Architects and other partners to develop a series of site concepts that could be used help inform future projects at the laboratory. This comprehensive design study included several bold visions for the future, including the establishment of new buildings, the redevelopment of existing spaces, and even re-envisioning the natural landscape across the site.
The development and production of components for use in research both domestically and internationally is one of the key roles TRIUMF plays in enabling Canadian contributions to international collaborations. The laboratory’s Science and Technology Facility constructs some of the world’s most sensitive particle detectors – for matter and antimatter alike.
Several specialized facilities for fabrication, testing, and assembly are used for the development and production of components installed at TRIUMF, as well as other major laboratories such as CERN in Europe.
This work is one of the key roles TRIUMF plays in enabling Canadian contributions to international collaborations.
ATLAS is one of several international particle detector projects in which TRIUMF contributes deep expertise in design, construction, installation, operations, and data analysis to support.
ATLAS at CERN’s Large Hadron Collider (LHC), is one of the world’s largest scientific experiments. As part of the ATLAS-Canada collaboration, TRIUMF scientists, engineers, technicians, and students have provided critical expertise to the detector design, construction, installation, and data analysis for this global experiment.
For decades, TRIUMF has served as one of the major portals through which Canadian researchers contribute on and collaborate on major international research projects – and nowhere is this clearer than in the longstanding cooperation with CERN in Switzerland.
In recent years, the Centre has since been upgraded and moved to SFU where it is currently operating as a federation with the TRIUMF site.
The Institute for Advanced Medical Isotopes (IAMI) will be the new home for TRIUMF’s Life Sciences program. Kicked off by Prime Minister Justin Trudeau during his visit to the laboratory in November 2018, this facility equipped with a new 24 MeV medical cyclotron, is under currently under construction.
IAMI will add state-of-the-art laboratory facilities to help grow TRIUMF’s capacity in the life sciences to dramatically increase our ability to help advance isotope-based diagnostic, and therapeutic treatments for a range of diseases, including cancer.
IAMI’s construction is supported by contributions from the Province of British Columbia, the Government of Canada, TRIUMF, BC Cancer, BC Cancer Foundation, and UBC.
In the coming years, TRIUMF will help advance critical research through its capacity to produce world-leading amounts of Ac-225 – a promising cancer fighting isotope.
The ISAC I and ISAC II experimental halls contain additional infrastructure that enables the separation, and re-acceleration of isotopes for use in experiments. The three linear accelerators operate sequentially, like the gears in a car, and are engineered differently for precise operating requirements:
In total, ISAC produces a variety of approximately 70 different rare isotopes, separated according to their mass and charge, and delivered on demand to researchers. This one of a kind combination of science and engineering technology is host to nearly 20 separate experimental facilities.
GRIFFIN is a collaboration led by University of Guelph, Simon Fraser University, and TRIUMF.
GRIFFIN is the world’s most powerful tool for decay spectroscopy of rare isotopes. This experiment provides scientists with an unparalleled view of the interplay of forces that create nuclear structure by measuring the gamma rays emitted from the radioactive nuclei of rare isotopes after they decay.
There are three distinct experimental facilities made possible by ISAC II’s superconducting linear accelerator.
ISAC Charged Particle Reaction Spectroscopy Station (IRIS) gives physicists a unique view of the strong force and unusual transformations in nuclear structure when nuclei are pushed to their limits.
The Electromagnetic Mass Analyzer (EMMA) is a recoil detector in nuclear structure reactions, and a core part of TRIUMF’s nuclear astrophysics program.
TRIUMF-ISAC Gamma Ray Suppressed Spectrometer (TIGRESS) is an in-beam gamma ray spectrometer, which has enabled a new era of high-precision nuclear structure experiments with rare isotopes.
The Meson Hall is the first and largest research hall on site. At the height of about four stories (combined with another four stories below ground), this building plays host to the heart of TRIUMF: the laboratory’s 520 MeV cyclotron – certified by the Guinness Book of World Records as the largest accelerator of its type in the world. This machine and the surrounding facilities are the core drivers of TRIUMF’s scientific programs.
Throughout the Meson Hall, the facilities range from supporting fundamental subatomic physics and materials science to enabling radiation testing and life sciences research – both significant examples of applied science with real-world impact.
Some of these include the Proton & Neutron Irradiation Facility (PIF/NIF), the Centre for Molecular & Quantum Materials Science (CMMS), and TRIUMF’s former Proton Therapy (PT) facility. The Ultra-cold Neutron (UCN) facility and Life Sciences’ TR-13 cyclotron are also installed here.
The yellow concrete blocks, sometimes referred to as the lab’s LEGO Bricks, are used throughout the Meson Hall as radiation shielding for the beamlines and facilities connected to TRIUMF’s main cyclotron.
The Advanced Rare Isotope Laboratory (ARIEL) is the most significant expansion project in the lab’s 50-year history, and will be among the few purpose-built multi-user rare isotope facilities in the world.
Funded by the Canada Foundation for Innovation (CFI), six provinces, and with the backing from 21 universities, it will be commissioned and operational in phases between 2020-2026.
Watch our 15-minute Town Hall talks to learn more about how TRIUMF’s Life Sciences research is enabled by ARIEL’s significant capabilities.
The ARIEL facility will massively expand the rare isotope program by providing more exotic isotope species with very high intensities, allowing TRUIMF’s global community of researchers and students to more fully exploit the existing experimental facilities onsite.
Antimatter particles have the same mass as their matter counterparts, but qualities such as electric charge are opposite. Matter and antimatter particles are always produced as a pair and, if they come in contact, annihilate each other.
The DCR serves as the base for all security and safety operations on site. The control room has been expanded to also support e-Linac operations as the ARIEL facility is completed and commissioned over the next few years.
If the main cyclotron is the heart of the TRIUMF, then the Driver Control Room (DCR) is its central nervous system.
The DCR is always occupied by at least two accelerator operators – 24 hours a day, 7 days a week, 365 days a year. Inside, operators monitor 3,000 hardwired devices that produce up to 50,000 signals of information.
While each element has an atomic nucleus with a unique proton number, the neutron number can vary. These different ‘flavours’ of the element are called ‘isotopes.’
A linear particle accelerator increases the velocity of charged subatomic particles or ions by subjecting them to a series of oscillating electric potentials along a linear beamline
Decay spectroscopy is a set of techniques used to determine the decay properties of radioactive nuclei by observing the particles emitted from a nucleus
Gamma rays have the smallest wavelengths and the most energy on the electromagnetic spectrum. On Earth, gamma rays can be generated by nuclear explosions, lightning, and radioactive decay.
The informal name for all elements with 93 or more protons in their nucleus, some of which can be produced artificially as part of accelerator-based experiments
A superconductor is a material that can conduct electricity with zero resistance. Most superconducting materials must be in an extremely low energy state (very cold) to become superconductive
Quantum materials are solids with unique physical properties that stem from unexpected interactions of their electrons
An elementary particle similar to an electron but are 207x heavier. because of this mass, muons are a primary applied science particle in TRIUMF’s molecular and quantum science division
Developed in the early 1970’s, the Standard Model of particle physics classifies the known building blocks of the universe, elementary particles, and explains their interactions with both each other and with 3 of 4 fundamental forces.
The Big Bang should have created equal amounts of matter and antimatter, but everything we see from in the universe is made almost entirely of matter. There is not much antimatter to be found. What happened to the antimatter?
A measure of the separation of positive and negative electrical charges within a system. The dipole moment’s size is affected by the difference in electronegativity and the distance between the charges
A liquid that has zero viscosity – superfluids can flow across a surface without losing energy due friction with the surface
A subatomic particle that carries a positive electrical charge; also the atomic nucleus of hydrogen
A subatomic particle that carries no electric charge; neutrons join with protons to create the nuclei of all atoms
The 520 MeV cyclotron was declared commissioned in February 1976. Despite the pinwheel shape, the 520 MeV cyclotron doesn’t spin. An electric field changes direction 23 million times per second to accelerate charged particles to 224,000 kilometres per second inside a high vacuum chamber.
To put this into perspective, travelling at this speed would send you to the moon and back in 3.4 seconds.
Key capabilities that set the TRIUMF cyclotron apart have allowed it to remain on the forefront of science after 45-years in operation.
In this case H-minus ions cross the edges of the magnets at extremely low angles reaching 72 degrees at the outer orbits. High magnetic fields at high energies will detach the extra electron. For this reason the peak field is low making the cyclotron anomalously large for its top energy. This combination creates a huge advantage in extraction flexibility.
The cyclotron colors were selected by Canadian artist, B.C. Binning, making it TRIUMF’s first Arts & Culture collaboration. The colors were intended to serve as a wayfinding and safety countermeasure at the time, supporting visual orientation within a large and symmetrical structure.
Over the past five decades, researchers and technicians have leveraged the cyclotron’s capabilities in several ways to produce real-world impact.
Cosmic Rays are a significant source of radiation here on earth. For example, during a flight at an altitude of 10,000 metres, you’re bombarded by 25x more neutron radiation than you are on the ground.
Using particle beams from our main cyclotron, scientists are able to simulate the effect of cosmic radiation on electronics. Replicating years of radiation exposure in space or high altitude environments allows scientists and engineers to test and improve radiation hardness in devices before they are installed in commercial airlines or launched into orbit.
Within the Proton Therapy facility, cancer was treated using TRIUMF’s 520 MeV cyclotron. In partnership with BC Cancer, beams of protons were used for the treatment of ocular melanoma, a rare cancer of the eye.
Today, there are several proton therapy centres in North America, and while TRIUMF’s Proton Therapy facility has ceased operations, TRIUMF and BC Cancer continue their collaboration on several other existing and future facilities.
Decommissioned in 2019, TRIUMF provided this service for 25 years treating over 200 patients from both Canadian and abroad.
TRIUMF’s 13 MeV cyclotron is the smallest cyclotron on site, and is similar to those installed in most urban hospitals used for the production of medical isotopes for clinical use.
In collaboration with partners such as the University of British Columbia (UBC), the TR-13 creates short-lived isotopes (such as Carbon-11 and Fluorine-18) that can be transported to UBC Hospital via high pressure pneumatic “Rabbit Line”.
The rabbit line sends isotopes to the hospital 2 kilometers away at speeds over 100 km/hour making the journey from TRIUMF in approximately 2 minutes.
TRIUMF’s PARTICLE BEAMS APPLIED TO COMMERCIAL SCIENCE HAVE CREATED REAL-WORLD IMPACT FOR MORE THAN 25 YEARS
This centre is one of only a few in the world that uses particle beams of muons and rare isotopes to characterize the electronic and magnetic properties of advanced quantum materials under a range of conditions.
As researchers develop new materials and new applications for existing materials, it’s often necessary to understand and understand the materials’ characteristics at the atomic-level.
Each year more than 150 Canadian and international scientists bring their material samples to CMMS for testing, most notably in areas of magnetic materials, and high temperature superconductors research.
This facility produces fast neutrons by stopping a beam of protons in a block of tungsten. These fast neutrons are slowed by scattering in heavy water at room temperature, then slowed further in superfluid (liquid) helium. At this speed, neutrons can be trapped inside special “bottles” and observed.
The flagship experiment for the UCN facility will be a world-leading search for the neutron electric dipole moment of the neutron, which may help us better understand matter-antimatter asymmetry and progress research beyond the Standard Model of particle physics.
This facility is capable of capturing neutrons at observable speeds of 7 metres per second or 25km per hour.
The dense cores of atoms, which are made of protons and neutrons (with the exception of hydrogen)
Beamlines are evacuated pipes that enable the transport of particle beams without interactions or collisions with air
As part of the ATLAS-Canada collaboration, TRIUMF has provided critical expertise to the detector design, construction, installation for this global experiment.
This facility is managed by TRIUMF staff and played an essential role in the Higgs Boson discovery, enabling the data analysis, data reduction, and modelling that confirmed its existence in 2012.
IAMI add new state-of-the-art laboratory facilities, to dramatically increase TRIUMF’s ability to help advance isotope based diagnostic and therapeutic treatments for a range of diseases such as cancer.
The third stage of ISAC’s infrastructure is the superconducting linear accelerator that links these two research halls and feeds several high-energy research apparatus.
The isotope separation and acceleration research halls include three linear accelerators operate sequentially, like the gears in a car, and are engineered differently for precise operating requirements.
The Meson Hall is the first and largest research hall on site. At the height of about four stories (combined with another four stories below ground), this building plays host to the heart of TRIUMF.
ARIEL, among the few purpose-built multi-user rare isotope facilities in the world. Powered by a built-in-Canada linear electron accelerator enabling world-class research and discovery.
The base for all security and safety operations on site, and is staffed 24 hours a day, 7 days a week, 365 days a year by at least two accelerator operators.
This machine, declared The Guinness Book of World Records: world’s largest Cyclotron of its kind, accelerates H- particles to 75% the speed of light through the use of magnets and electric fields.
Using particle beams from the main cyclotron, scientists are able to simulate the effect of cosmic radiation on electronics, leveraging the cyclotron’s capabilities in several ways with real-world impact.
Electrons in the outermost shell of an atom that can participate in the formation of chemical bonds with other atoms
Innovative life science treatments and critical isotope production capabilities are more ways TRIUMF’s main cyclotron accelerator has created lasting value with global impact.
Mesons are short-lived, unstable subatomic particles – composed of one quark and one antiquark bound together by strong interactions – that were of particular interest to researchers in the 1960’s and 1970’s.
One of the few facilities in the world that uses particle beams of muons and rare isotopes to characterize the electronic and magnetic properties of advanced quantum materials under a range of conditions.
Aiming to be the world’s highest-density source of ultra-cold neutrons. The flagship experiment for this facility will be a world-leading search for the neutron electric dipole moment of the neutron.