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Departmental Results Report

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From the Minister

Headshot of François-Philippe Champagne

The Honourable François-Philippe Champagne

Minister of Innovation, Science and Industry

It is our pleasure to present the Departmental Results Report for the Canadian Space Agency (CSA).

Throughout the past year, the Innovation, Science and Economic Development Canada (ISED) Portfolio worked closely with other government departments and agencies to build a more resilient, sustainable and inclusive economy that benefits all Canadians.

The year was an exciting chapter in our space history, with not one but two missions announced for CSA astronauts. , CSA astronaut Jeremy Hansen was officially announced as part of the crew of the historic Artemis II mission to the Moon, with CSA astronaut Jenni Gibbons acting as his official back-up. Another CSA astronaut, Joshua Kutryk, is slated to undertake Canada's fourth mission to the International Space Station (ISS). Canada is also playing an important role in humanity's return to the Moon. We are notably a partner in the next major international collaboration in human space exploration, a space station called Gateway that will orbit the Moon. Canada's flagship contribution to Gateway is Canadarm3, a sophisticated robotic system that will use cutting-edge software to perform some tasks around the Moon autonomously and without human intervention. We are also building on decades of Canadian expertise in rover technology by developing the very first Canadian rover set to explore the Moon, but also a multi-purpose utility rover to support logistics, crew operations and science on the lunar surface as part of NASA's Artemis program.

This year, much progress was made on delivering on the Satellite Earth Observation (SEO) Strategy, as well as advancing concrete space-based solutions and tackling Earth's greatest challenges. In , an investment of over $1 billion was announced for RADARSAT+ to support immediate and future Earth Observation (EO) data needs. This investment, along with WildfireSat and High-altitude Aerosols, Water vapour and Clouds (HAWC), will help to address the impacts of climate change, responding to natural disasters, and keep Canadians safe and our borders secure.

To continue helping to grow the Canadian space sector, different CSA funding initiatives, like the Space Technology Development Program (STDP), the Lunar Exploration Accelerator Program (LEAP) and the smartEarth initiative, provided opportunities for the Canadian space industry and academia to scale up and compete on the growing global market.

We invite you to read this report to learn more about how the ISED Portfolio is working together with Canadians of all backgrounds and in all regions—urban and rural—to position Canada as a leader in the global economy.

Results – what we achieved

Core responsibilities and internal services

Core responsibility: Canada in Space

Description

The CSA coordinates the space policies and programs of the government of Canada; ensures that other government departments and agencies have access to space data, information, and services to deliver on their mandates; plans, directs and manages projects relating to scientific or industrial space research and the development of space science and technology; promotes the transfer and diffusion of space technology to and throughout Canadian industry; and encourages commercial exploitation of space capabilities, technology, facilities and systems. The CSA also aims to build Canada's capacity and engage the next generation of space scientists and engineers, and provide opportunities to inspire young people to pursue studies and careers in science, technology, engineering and math.

Progress on results

This section presents details on how the agency achieved results and met targets under the Canada in Space core responsibility. Details are presented by departmental result. The table below tracks the CSA's Departmental Result Indicators and the targets identified. The CSA exceeded the target to rank 25th among OECD and BRIC nations in terms of civilian space budget as a share of GDP. Canada's rank declined among OECD nations in terms of the citation score of Canadian space-related publications. The number of Canadian technologies adapted for re-use declined in - after exceeding the target the previous year. Services dependent on data from space increased this year to just below the targeted number. Finally, the space sector's contributions to Canada's economy exceeded targets with incremental growth over last year's metrics.

Table 1: Targets and results for Canada in Space

Table 1 provides a summary of the target and actual results for each indicator associated with the results under Canada in Space

Result 1: Canada remains a leading spacefaring nation
Departmental Result Indicators Target Date to achieve target Actual Results
Canada's rank among Organization for Economic Co-operation and Development nations on the citation score of space-related publications 13
  • : 15 ()
  • : 20 ()
  • : 21 ()
Ranking of Canadian Government civil space budget as a share of GDP among OECD and BRIC nations 25
  • : 27 ()
  • : 22 ()
  • : 21 ()
Result 2: Space information and technologies improve the lives of Canadians
Departmental Result Indicators Target Date to achieve target Actual Results
Number of Canadian space technologies adapted for use on Earth or re-use in space 34
  • : 25 ()
  • : 41 ()
  • : 31 ()
Number of services offered to Canadians dependent on space data 111
  • : 101 ()
  • : 101 ()
  • : 107 ()
Result 3: Canada's investments in space benefit the Canadian economy
Departmental Result Indicators Target Date to achieve target Actual Results
Value of gross domestic product (GDP) of the Canadian space sector $2.7B
  • : $2.7B ()
  • : $2.8B ()
  • : $3.2B ()
Number of employees in the Canadian space sector 11,500
  • : 10,868 ()
  • : 11,629 ()
  • : 12,624 ()

Additional information on the detailed results and performance information for the CSA's Departmental and program inventory is available on GC InfoBase.

Details on results

Investing in space fosters innovation and stimulates economic growth, propelling Canada to a brighter future. Furthermore, space exploration advances technological breakthroughs that can have tangible applications here on Earth, improving the lives of Canadians. This Departmental Results Report focuses on three departmental results that supported the CSA's Canada in Space core responsibility.

The following section compares the actual results for Canada in Space with the planned results set out in the CSA's departmental plan.

Result 1: Canada remains a leading spacefaring nation
Image 1 : Destination Moon
Jeremy Hansen took training to prepare for a potential emergency exit

Credit: NASA/James Blair

Jenni Gibbons takes part in a recovery test

Credit: NASA

Jeremy Hansen and Jenni Gibbons during their training for the Artemis II lunar mission, learning to prepare for a potential emergency exit from the Orion spacecraft after splashdown.

Artemis II will be the first crewed mission to the Moon since . Canadian Jeremy Hansen will be one of the four astronauts to go around the Moon before coming back to Earth. Artemis II will be a key step in advancing the ambitions of Canada and its international partners to support human spaceflight and exploration in lunar orbit and beyond. Canadian astronaut Jenni Gibbons has been announced as Jeremy Hansen's official backup. Crew training began in , and it includes nominal and contingency tasks that allow the astronauts to be successful on their journey to the Moon and back. The astronauts have been learning how to operate and monitor systems of the Orion spacecraft, to perform tasks in microgravity as well as to survive in hostile environments.

In , the design work of Canadarm3 continued. The robotic system will be an integral element of the NASA-led Lunar Gateway, an international space station that will orbit the Moon and that will be essential for supporting a sustained human presence on the Moon. The Government of Canada (GoC)'s Industrial and Technological Benefits Policy was applied to the procurement of Canadarm3 to maximize Canadian know-how and expertise in the design and development of this technology, while stimulating growth in the broader economy.

Image 2 : Preparing to live on the ISS
Joshua Kutryk is in a spacesuit prior to underwater spacewalk training

CSA astronaut Joshua Kutryk in a spacesuit prior to underwater spacewalk training at NASA Johnson Space Center's Neutral Buoyancy Laboratory (NBL). (Credit: NASA/David DeHoyos)

The CSA also supported new cutting-edge Canadian research to help the country remain a leading spacefaring nation through its Research Opportunities in Space Science (ROSS) funding initiative. In , the CSA awarded two dozen grants to post-secondary institutions to advance projects using space data in the fields of planetary science, solar terrestrial sciences, atmospheric science, and Earth system sciences. The project topics range from understanding the exosphere of Mercury and the Moon, to how space weather impacts Canadian society, to how Earth's atmospheric composition and surface processes affect our planet's changing climate.

The CSA has also been leveraging the inspiring nature of its space exploration activities to encourage young Canadians to pursue careers in space. In , the CSA was able to engage 39,807 youth with kindergarten to grade 12 (K-12) focused activities as part of the Objective: Moon initiative. An additional 46,276 youth were reached through 61 school presentations with CSA Astronauts and experts. The CSA's K-12 activities aimed to increase access to space for young minds in equity deserving communities. Considering geography, access to technology, cultural relevance and world views, broadband connectivity as well as gender, the CSA has provided engagement supports to ignite learners' potential and connect to Canada's space endeavours. Speaker presentations reached 20,530 youth from underrepresented communities, 745 of whom were indigenous.

In , Canadian astronaut Joshua Kutryk was announced as a mission specialist to Canada's fourth long-duration mission to the International Space Station (ISS), where he will live and work for a planned period of 6 months. He will be the first CSA astronaut to fly under NASA's Commercial Crew Program, a partnership with the private sector that uses a new-generation spaceship and launcher.

The Canadarm2, Dextre and the Mobile Base System successfully performed inspections and surveys on ISS as well as capture and berthing of visiting vehicles, as demonstrated by a cosmic catch of a cargo ship of over 8,200 pounds of critical supplies, food and equipment for the astronauts on the ISS.

Image 3: Rho Ophiuchi cloud complex
star birth

The James Webb Space Telescope captures images full of detailed, impressionistic texture. The Rho Ophiuchi cloud complex depicted here is the closest star-forming region to Earth. Some stars display the telltale shadow of a circumstellar disk, the makings of future planetary systems. (Credits: Canadian Space Agency, ESA, NASA, STScI, K.Pontoppidan (STScI), Image processing: A. Pagan (STScI))

Image 4: From Earth to Mars
Distances between Earth and the International Space Station, the Moon and Mars

Text version of the infographic entitled Distances between Earth and the International Space Station, the Moon and Mars

This infographic shows the distances between the Earth and the International Space Station as well as the Moon and Mars. It also indicates the communication delay to the Moon and Mars. (Credit: Canadian Space Agency)

Since its launch in , the James Webb Space Telescope (JWST) and its magnificent images have revolutionized our understanding of the cosmos. The JWST allows people around the world to enjoy never-before-seen pictures of cosmic phenomena, invisible to the human eye. Thanks to the CSA's contributions – the Near-Infrared Imager and Slitless Spectrograph (NIRISS) and the Fine Guidance Sensor (FGS) – Canadian astronomers receive a guaranteed share of JWST's observation time, pushing Canadian astronomy to new heights. The CSA continued to support Canadian astronomers through its series of Announcements of Opportunity (AO) for JWST General Observers (GO) projects. The CSA funded 28 new projects for the JWST second cycle of observations, for a total of $1.7 million. The CSA also actively contributes to the successful operation of the JWST by contributing scientific and technical personnel to the mission's operation centre.

Activities continue on Mars with NASA's Curiosity rover, which is exploring the surface of the planet. In , the rover travelled 1075 metres on the Martian surface and the Canadian provided instrument Alpha-Particle X-ray Spectrometer (APXS) analyzed 133 samples and sent back 334 results to Earth. Studying the dust and rock of Mars is bringing us closer to understanding and finding evidence of past conditions that could once have supported life on the planet.

The year also marked the successful return of samples from the OSIRIS‑REx mission after seven years in space. In , the sample return capsule landed on Earth with a sample of the asteroid Bennu. The Canadian instrument OSIRIS‑REx Laser Altimeter (OLA) played a crucial role in this mission: it was used to scan and measure the surface of the asteroid to support the selection of the best site to collect the sample. This contribution earned Canada the opportunity to become the fifth country in the world to obtain a sample collected in space. The CSA worked throughout with Canadian industry to construct a clean room at the John H. Chapman Space Centre, where Canada's portion of the sample will be housed and made available to researchers after .

Space weather events pose a risk to astronauts and satellites, and they can cause serious damage to infrastructure back on Earth. Monitoring the weather conditions in the near-Earth space environment is key to protecting modern infrastructure such as satellites, power grids, pipelines and radio communications towers. Canada plays a key role in space weather science and monitoring due to its proximity to the North Pole. In , the CSA funded the Super Dual Auroral Radar Network (SuperDARN), a network of radars capable of monitoring space weather conditions, and Space Environment Canada (SEC), the world's foremost facility for sensing ionospheric properties and phenomena. These Geospace Observatory (GO) Canada initiatives enabled scientific research and supported the academic community in gathering space weather data from critical locations across the nation which improve our understanding of space weather events.

The Near-Earth Object Surveillance Satellite (NEOSSat), the world's first telescope dedicated to detecting and tracking orbiting space objects, continued operations throughout . The microsatellite is helping scientists conduct research on techniques to reduce the risk of collisions and to expand our knowledge of exoplanets. NEOSSat data is the most accessed CSA dataset shared via the GoC Open Data portal and used by astronomers, scientists and students across Canada and the world.

In , the CSA continued developing the Quantum Encryption and Science Satellite (QEYSSat) mission, the aim of which is to demonstrate in-space quantum key distribution (QKD), a technology that can support the development of virtually unbreakable encrypted communications. Currently in its implementation phase, this mission will allow Canadian scientists to study how QKD behaves between space and the Earth supporting the exchange of encryption keys over long distances.

In order to remain a leading spacefaring nation, Canada needs to ensure that the next generation of Canadian space specialists have the opportunities they need to develop their expertise. In , under the CUBICS initiative, the CSA awarded nine grants, representing $3.15 million over three years, to Canadian post-secondary institutions to advance space science and technology while training the next generation of space experts. CUBICS provides students the opportunity to work on an end-to-end space mission where they design and build their own miniature satellites. The selected projects aim to increase scientific knowledge to better understand climate change. CUBICS is the successor to the Canadian CubeSat Project (CCP), which was successfully concluded in . The last three CubeSats were finalized at the CSA headquarters in and successfully launched onboard the SpaceX Dragon cargo vehicle at the end of . Through CCP, 14 CubeSats from 12 universities and two colleges were launched, and more than 2,000 Canadian students were trained to be the next generation of space Highly Qualified Personnel (HQP) in Canada.

The Canadian academic community also benefited from the CSA's STRATOS stratospheric balloon program. This program provides flight opportunities to test and validate new technologies and perform scientific experiments in a near-space environment. In , four zero-pressure balloons were launched from the Timmins Stratospheric Balloon Base in Ontario. The Strato-Science campaign allowed teams from five Canadian universities and colleges involving more than 100 students to fly seven Canadian payloads in atmospheric science, astronomy and space surveillance. These teams, composed of professors and their students, with participation from the local community, were able to conduct and validate their research in the field and train the next generation of experts.

The CSA has continued working closely on the NASA-led Atmosphere Observing System (AOS), and more specifically on the Canadian HAWC mission. HAWC is tailored to provide critical data to support the science behind extreme weather prediction, climate observation and monitoring of natural disasters. In , the CSA awarded six contracts to industry and academia to mature the technologies for the mission and prepare universities to manage and integrate data when they become available. Instrument prototypes were also flown on a high-altitude aircraft to collect scientific data and to validate both capabilities and measurement techniques.

The CSA continues to leverage its expertise in Earth Observation (EO) by making Synthetic Aperture Radar (SAR) data available to the international community as part of its commitment to the International Charter "Space and Major Disasters." Specifically, SAR data from the RADARSAT Constellation Mission (RCM) and RADARSAT-2 were shared to support disaster management and relief efforts. Expertise in SAR data positions Canada as a leader through various international partnerships. In , the CSA took on the role of Leading Agency for the International Charter "Space and Major Disasters" alongside the European Organisation for the Exploitation of Meteorological Satellites. Canada provides EO images for over 80% of the charter activations each year and taking on the leadership role for a six-month period further demonstrated Canada's commitment to this humanitarian aid initiative.

Summary of results achieved

  • CSA astronaut Jeremy Hansen was announced as the first Canadian to fly on a ten-day journey to and around the Moon in the Artemis II mission.
  • The CSA continued the development of Canadarm3 for the lunar Gateway, preparing to send humans deeper into space than we have ever been.
  • CSA astronaut Joshua Kutryk was announced as the Canadian astronaut to take part in the long-duration mission to the ISS.
  • Canadian researchers used allocated time of the JWST to study the universe, pushing Canada's world-class expertise in astronomy even further.
  • The OSIRIS-REx sample return capsule successfully landed back on Earth and the CSA is developing a facility to prepare for the proper curation of the sample.
Result 2: Space information and technologies improve the lives of Canadians
Image 5 : RADARSAT at the service of Canadians
Inuit fishermen travelling on ice

RADARSAT data enables faster and safer travel on sea ice for northern communities.

Access to Earth Observation (EO) data is critical for the GoC to make science-based decisions in many fields, such as adapting to climate change, resource management, infrastructure, and disaster response.

Canada's vast territory and remote regions create unique and ongoing EO data. In , RADARSAT + was announced, representing an investment of $1.012 billion over the next 15 years. RADARSAT+ will allow Canada to maintain and increase the availability of SAR data to Canadians by extending the operational life of RCM and carrying out early-stage studies to identify a next-generation SAR satellite system. This investment will help maintain Canada's ability to monitor its territory day and night and in all weather using C-band SAR satellites, and builds on 25 years of Canada's legacy in SAR through RADARSAT-1, RADARSAT-2 and RCM.

CSA representatives joined discussions at the Space Agencies Leaders' Summit on , held during the United Nations Climate Change Conference of Parties under the United Nations Framework Convention on Climate Change to discuss the important role that satellites and space-based science and monitoring play in efforts to monitor and combat the impacts of climate change.

In , the RCM data significantly contributed to services across various sectors. For example, Natural Resources Canada (NRCan) leveraged satellite-derived flood extents to support national and international emergency response, collaborating with federal departments, and provincial emergency agencies to manage disasters. Similarly, Agriculture and Agri-food Canada (AAFC) produces the Annual Space-Based Crop Inventory (ACI), an invaluable tool for mapping Canada's agricultural landscape. This data supported the evaluation of agricultural sustainability, informed the National Inventory Report on greenhouse gases, and aided in drought monitoring and crop yield assessments, ensuring timely responses to weather-related risks. These services reflect the critical role of RCM data in enhancing government capacity to respond effectively to natural disasters, improve resource management, and develop informed policies that benefit Canadians.

With increasing needs for SAR satellite data, the CSA investment in RADARSAT-2 is still supporting government departments' service delivery by fulfilling additional needs that could not be covered by RCM. For example, the Department of Fisheries and Oceans (DFO) utilized RADARSAT-2 data in its Dark Vessel Detection program to identify undetectable vessels engaging in illegal, unreported, and unregulated (IUU) fishing. This capability enhances ocean ecosystem protection and supports Canada's leadership in achieving the United Nations Sustainable Development Goal 14. As RADARSAT-2, the precursor to the RCM, provided invaluable historical insights, it laid the foundation for more advanced monitoring capabilities now realized through the RCM. Additionally, access to some RADARSAT-1 data was also available to public users through NRCan's Earth Observation Data Management System.

Ensuring the continuity of the science and services that depend on Canada's SAR satellites remains a core objective of Canada's Satellite Earth Observation (SEO) Strategy, developed in partnership with Environment and Climate Change Canada (ECCC) and NRCan.

In , the CSA also worked with industry to define the best implementation approach to the WildFireSat mission. The Canadian-developed WildFireSat is being carried out in partnership with ECCC and NRCan. Once operational, WildFireSat will provide near-real-time data at least twice a day in support of wildland fire management and research, improving Canada's ability to defend Canadian communities and better protect our resources, infrastructure, and environment by providing better situational awareness regarding wildfires, particularly near inhabited areas.

Launched in , the NASA/CNES-led Surface Water and Ocean Topography (SWOT) mission monitors 90% of Earth's surface water, and provides high-value data that will help to improve marine safety and security, water management, responsible resource development, environmental monitoring, fisheries, climate change adaptation and marine transportation. The first public release of SWOT data was made in and images from the RCM were used to calibrate and validate SWOT data over inland waters. Through shared investments with ECCC and the Department of Fisheries and Oceans Canada (DFO), the CSA also enabled Canadian scientists to lead field measurement campaigns to validate SWOT data over Canadian waters, including a major campaign in the St. Lawrence estuary. Scientists took ground and airborne measurements that will contribute to the validation of SWOT data over a range of water body types, such as lakes, rivers, estuaries and coastal zones.

In , SCISAT celebrated its 20 years of operations – 10 times the satellite's originally intended lifetime. National and international researchers all reported on the unique measurements used in monitoring international environmental treaties, advancing numerical climate and chemistry models, comparing and merging with multiple other satellite datasets, and in discovering climate and atmospheric chemistry processes. SCISAT continues to provide the most accurate measurements currently available of chemicals that affect ozone, the stratosphere's layer that protects humans and living organisms from the Sun's ultraviolet radiation. Its unique profile data continues to contribute directly to our understanding of ozone recovery, ozone-climate coupling, and helps scientists better understand the interaction between air pollution and ozone chemistry. During , SCISAT data were used to discover a new chemical process that links wildfire smoke to ozone depletion, a process that could delay recovery in a warming world. The mission science team also released a new dataset, which includes multiple new data products focused on HFC substances now regulated by the UN Montreal Protocol, including difluoromethane (HFC-32). SCISAT remains the only satellite in the world with a 20-year data record of multiple atmospheric species, including HFCs.

As Canada prepares to send humans on deep space missions, the CSA is investing in science and technology that will keep astronauts safe and healthy for longer-duration missions while also driving socioeconomic benefits here on Earth. In , the CSA launched and completed two Challenge Prizes: the Deep Space Healthcare Challenge and the Deep Space Food Challenge. This leveraged Canadian expertise in healthcare technologies and food production technologies to prepare for the challenging endeavour of looking after the health and well-being of astronauts on their missions to space. Technologies developed for space exploration have the potential to be adapted for use both in space and on Earth. For example, these technologies could be applied in Northern and remote communities, where distance and harsh environments can lead to similar challenges. In , the winner of the Deep Space Healthcare Challenge was announced. The winning technology, EZResus, is an application that streamlines the information needed by emergency personnel in the critical first hour of resuscitation, from diagnosis to required drug dosage and equipment. As a direct result of the Challenge funding and consultation with Community Advisors from Indigenous Services Canada on the needs and challenges faced by remote community healthcare practitioners, EZResus is now being used to help save lives on Earth. The application will contribute to meaningful detection and diagnosis in space, paving the way for contributions to future human space exploration missions while enhancing healthcare delivery on Earth. The winning technology for the Deep Space Food Challenge was also announced in . The CANGrow Modular Indoor Food Production System uses an innovative approach to grow a variety of produce and high-quality protein sources with minimal resources, and may be the solution to food insecurity in both isolated regions here on Earth and on long-duration missions in space. As a direct result of the Challenge, the winning team founded two companies based on their Challenge solution and raised $2.3 million in first-round investments to expand food production and accelerate its research and development activities. Following the conclusion of the first Deep Space Food and Healthcare Challenges, the CSA launched a new Challenge Prize in called the Aqualunar Challenge. It is being carried out in collaboration with the UK Space Agency and Challenge Works, and it seeks to develop new water purification technologies to remove potential contaminants found in water ice on the Moon – an important endeavour to support sustained human presence on the Moon.

Under the Health Beyond initiative, deep-space healthcare technologies were also demonstrated and assessed via a testing phase. In , prototypes for the flagship Connected Care Medical Module (C²M²) were delivered to the CSA, to advance the concept of a health care delivery system that could solve challenges of astronauts' healthcare in deep space missions. The C²M² is a plug-and-play architecture that will enable multiple configurations of the latest medical technologies so that users can independently detect, diagnose, treat, and/or monitor health conditions in a modular setting. This could help improve the timeliness, quality, and continuity of care, refines clinical decision-making, and could reduce the occurrence of risky and expensive medical transportation of patients from remote regions to urban hospital facilities.

Canada's participation in the ISS since the year has offered Canadian scientists the opportunity to lead or collaborate on more than 100 research projects conducted in this orbiting laboratory. Much of this research has focused on health issues faced by astronauts in low- or zero-gravity, which can be similar to issues faced by aging or inactive populations on Earth, including impacts on the cardiovascular system, bone loss or brain function. At the same time, the CSA has funded the development of biomedical analysis technologies to help monitor astronauts' health while on the ISS. These technologies can also be used to monitor health in remote regions without clinical infrastructure. These include the TBone2, which refines our understanding of bone loss in microgravity, similar to accelerated osteoporosis; the SANSORI project, which investigates how spaceflight affects vision, and may help to advance research on glaucoma; and the CARDIOBREATH project, which investigates how the interaction of heart, lungs and blood circulation is affected by spaceflight, using real-time monitoring methods. All these experiments currently collect data on ISS crewmembers and will generate new knowledge on health issues faced by humans on Earth. In , commercial spacecraft launched to the ISS to transport equipment, such as the Bio-Monitor and Mobil-O-Graph hardware, for the Canadian Vascular Aging, Vascular Calcium, Space Health and CARDIOBREATH investigations. The launch also included seeds for the CSA-led educational project Tomatosphere™. Seeds from the Tomatosphere project returned to Earth to be distributed to thousands of classrooms across Canada and the United States for students to gain first-hand experience using the scientific method by growing tomato plants.

The space environment presents substantial health risks to astronauts. To mitigate these risks, astronauts must adhere to specially crafted exercise protocols. In , the CSA initiated testing of new exercise measures to counteract and address cardiovascular and metabolic health risks. These new protocols have the potential to significantly reduce the health impacts of sending crew on long-duration missions. Additionally, they will inform guidelines on Earth to address the effects of sedentary lifestyles and enhance rehabilitation after an injury.

Summary of results achieved

  • The GoC announced funding of the RADARSAT+ initiative to ensure SAR data continuity underpinning services to Canadians.
  • Data from the RCM and RADARSAT-2 continued to allow Canada to help support disaster management and relief efforts.
  • The CSA supported the calibration/validation of SWOT data by acquiring and providing the SWOT mission over 100 high-quality SAR images from the RCM.
  • The CSA focused advanced planning and development work to determine the best implementation approach to the WildFireSat mission.
  • The CSA awarded six contracts to industry and academia to help further develop the HAWC mission, which aims to support the science of extreme weather prediction, climate observation and monitoring of natural disasters.
  • The SCISAT mission allowed the discovery of a new chemical process that links wildfire smoke to ozone depletion.
  • The C²M² prototypes were delivered to the CSA, bringing Canada closer to the creation of a health care delivery system in remote environments.
Result 3: Canada's investments in space benefit the Canadian economy

For over 20 years, the CSA's Space Technology Development Program (STDP) has fuelled innovation in Canada's space industry and reduced technological unknowns. In -, the CSA invested $15 million in STDP funding for research and development of innovative space technologies. This funding was awarded to 27 Canadian companies, including 22 Small and Midsize Enterprises (SMEs). This included the first phase of developing concepts for potential Moon infrastructure. Of the seven concept studies that were completed, six were deemed ready to advance to the prototyping phase, with $3 million in funding awarded to four Canadian companies.

Under the Lunar Exploration Accelerator Program (LEAP), the preliminary design of the Lunar Rover Mission (LRM) was completed in . With a scheduled launch in , the LRM aims to explore the lunar south pole, assess lunar surface radiation, and seek water ice. This work also involved the issuance of a request for proposals for a Canadian science instrument. The instrument will conduct science on the lunar surface while advancing technologies that position Canada to play an important role in future lunar exploration missions.

In , the Research Opportunities in Satellite Earth Observation (ROSEO) announcement of opportunities was launched to support Canadian universities and post-secondary institutions working on Satellite Earth Observation application development projects, which use satellite data and contribute to the objectives of Canada's Strategy for Satellite Earth Observation. Through this smartEarth initiative, Canadian academic institutions will be better equipped to train the highly qualified personnel (HQP) of tomorrow and advance the application readiness levels of their projects. Concluded in , the smartWhales initiative enabled Canadian industry to partner with academia and non-governmental organizations to advance innovative solutions using SEO data to enhance the Government of Canada's ability to protect North Atlantic right whales (NARW) in Canadian waters. The CSA also advanced another smartEarth initiative in called smartHarbour. smartHarbour will allow Canadian companies to develop innovative SEO data-based applications that track environmental variables that are important for conserving the biodiversity of natural habitats in support of the Port of Montreal expansion in Contrecœur. Four research and development contracts, totalling $4 million, were awarded to Canadian companies as part of smartHarbour in .

In , the CSA continued to facilitate access to the European market for the Canadian space industry through the Canada‑ESA Cooperation Agreement. Canadian involvement in ESA missions has played an important role in developing Canadian expertise in Earth Observation and in establishing Canada as a world leader in space-based Synthetic Aperture Radar (SAR) technology. In , 52 Canadian organizations participated in ESA projects that involved 199 Highly Qualified Personnel (HQP) of whom 58 were early-career professionals. Furthermore, 36 technologies advanced their Technology Readiness Levels (TRL) or Application Readiness Levels (ARL), demonstrating the ongoing impact of the Canada-ESA partnership in driving technological progress. As an example of this cooperation, Canadian companies have secured $9.9 million in contracts for space technology development and work related to two ESA missions: BIOMASS and FORUM.

Space is congested, contested and competitive. To ensure that Canada's space-related regulations are keeping pace with the rapidly evolving and highly innovative global space sector, the CSA worked with governmental partners to review Canada's regulatory framework for space-related activities. Following a public consultation where Canadians were invited to share their views, the CSA published the What we heard report: Consulting Canadians on a modern regulatory framework for space in .

In , in order to align with a rapidly changing space ecosystem, the CSA continued preparatory and planning work to advance CSA's Space Hub. Its mission is to establish a network of experts and facilities to help Canadian innovators develop their space solutions by connecting scientists and entrepreneurs.

Summary of results achieved

  • Through the STDP, the CSA awarded $15 million to 27 Canadians companies to advance R&D for 28 advanced space technology projects.
  • The CSA completed the preliminary design of the LRM, an instrument that will seek water ice on the surface of the Moon.
  • The CSA launched a new wave of investments under the smartEarth initiative to help support Canadian organizations as well as universities and post-secondary institutions working on Satellite Earth Observation applications.

Key risks

The CSA's Corporate Risk Profile (CRP) identifies three key risks facing the organization related to talent, cybersecurity, and innovation.

Talent: The Talent Risk refers to the potential hazard arising from a shortage of qualified resources and challenges in recruiting individuals with the appropriate profiles for various positions at the CSA. Since its identification in , the CSA has implemented a variety of mitigation measures such as a Strategic Workforce Management Plan, a Departmental Recruitment Strategy along with Employment Equity hiring objectives, and the creation of pools of qualified candidates.

Cybersecurity: The risk that aging information technology (IT) infrastructure, cyber attacks on high-tech space assets and data can lead to a disruption of services to Canadians. The CSA's IT security team approach enhanced the CSA's resilience against cyber threats by allowing for the anticipation and mitigation of potential risks before they materialize.

Innovation: Embracing innovation is crucial for maintaining the CSA's relevance and competitiveness in the rapidly evolving space sector. By including the Innovation risk within its CRP, the CSA aimed to foster a culture of innovation and continuous improvement, allowing for the exploration of new ideas and approaches within its internal services. As part of those efforts, the CSA initiated a strategic plan on innovation and experimentation. Additionally, certain business processes are currently being reviewed to enhance efficiency, ensure alignment with strategic objectives, and optimize its operational processes.

Resources required to achieve results

Table 2: Snapshot of resources required for Canada in Space

Table 2 provides a summary of the planned and actual spending and full-time equivalents (FTEs) required to achieve results.

Summary of the planned and actual spending and full-time equivalents (FTEs) required to achieve results
Resource Planned Actual
Spending 476,342,693 371,378,033
Full-time equivalents 466.1 507.7

Complete financial and human resources information for the CSA's program inventory is available on GC InfoBase.

Related government-wide priorities

Program inventory

Canada in Space is supported by the following programs:

  • Space Exploration
  • Space Utilization
  • Space Capacity Development

Additional information related to the program inventory for Canada in Space is available on the Results page on GC InfoBase.

Internal services

Description

Internal services are the services that are provided within a department so that it can meet its corporate obligations and deliver its programs. There are 10 categories of internal services:

  • management and oversight services
  • communications services
  • legal services
  • human resources management services
  • financial management services
  • information management services
  • information technology services
  • real property management services
  • materiel management services
  • acquisition management services

Progress on results

This section presents details on how the agency performed to achieve results and meet targets for internal services.

The CSA continued working on the modernization of tools and infrastructure, automating processes and generating efficiencies in the CSA's operations. Namely, saw the finalization of the migration to a cloud-powered productivity platform, with all users being able to take full advantage from the new functionalities. Guided by the Digital Transformation Strategy, the CSA worked to empower its user base to adopt new digital tools and ways of working. As part of these initiatives, the digitization of over 180 linear feet of paper documents was completed, including key historical documents of past CSA space missions. The launch of the GC Data Strategy brought the opportunity for the CSA to update its Data Strategy and align it with this whole-of-government effort. Work on integrating artificial intelligence in the CSA's operations has started and a community of practice is scheduled to be launched in .

The CSA has developed a new three-year Information Management Plan that supports the access, protection, utilization and sharing of information to facilitate the decision-making process across the CSA. CSA's Open Government Roadmap and CSA's Data Strategy promote access to space data to further support innovation and research in the private sector as well as in academic, public sector, and industry-based research communities.

The competitive Canadian employment market pushes the CSA to be on the lookout for innovative and people-centred ideas. The CSA has engaged in a wide range of activities to support a culture of togetherness and a sense of belonging in the workplace. In , a new Integrated Leadership Framework (ILF) was implemented and became the blueprint for the CSA's leadership development approach, with Character-Based Leadership (CBL) as its central focus. The ILF aims to build a workplace culture that can withstand geopolitical, cultural and social issues, ultimately driving better innovation and higher performance.

In line with the Directive on the Management of Real Property, the CSA has been engaged in efforts to create an optimized, efficient, eco-friendly and technologically advanced workplace. The scope of achievements to date includes the construction of new collaboration areas through optimization of space, new workplace management processes and the implementation of new shared workstations. These new accommodations are designed to enable employees to perform their functions in a productive, secure and safe work environment and to align CSA with the whole-of-government approach towards maximizing the use of our facilities. Major capital investments in accordance with building condition report recommendations have been delivered to preserve the value, reliability and capacity of the CSA's facilities to support space programming. The CSA is on track to deliver a modernized real property portfolio strategy (RPPS) that will guide its investment decisions for the coming decade to ensure sound stewardship and support of the CSA's strategic business objectives.

The CSA has taken decisive steps to advance our progress towards Greening Government Strategy targets. Among these is the development of a action plan to contribute to the CSA's first Departmental Sustainable Development Strategy (DSDS), the securing of project funding through the Greening Government Fund to perform a Life Cycle Assessment (LCA) study on space missions, the delivery of comprehensive waste audits for all of our primary facilities, and the development of a carbon-neutral implementation plan for the John H. Chapman Space Centre. All these activities contribute to greener practices within the CSA's operations to ensure we remain on track to meet prescribed targets as well as annual reporting requirements.

The CSA is committed to fostering a diverse and inclusive workplace that stimulates the growth and development of all individuals, regardless of their physical, cultural or social characteristics. Throughout the year, the CSA continued to apply its Employment Equity, Diversity and Inclusion Action Plan to ensure that the workforce is fair, diverse and inclusive. As of , women made up 49.1% of active CSA employees; members of visible minorities accounted for 22.7%; persons with disabilities accounted for 13.1%; and Indigenous Peoples accounted for 1.8%. The CSA also successfully rolled out its first-ever three-year Accessibility Plan to support the government's ambitious goal of a barrier-free Canada by .

In , in line with the Strategic Workforce Management Strategic Plan, the CSA launched a three-year Mental Health and Wellness Strategy to reposition itself and review its mental health and wellness efforts. The CSA recognizes the importance of mental health and aims to support the mental well-being of its talent and create a supportive work environment. To that end, the CSA has appointed a Mental Health and Wellness champion to promote a respectful and healthy workplace and to regularly share mental health topics with the CSA community.

The CSA also developed a Departmental Security Plan (DSP) that is targeted to be implemented between and . The DSP is a three-year plan that provides a comprehensive overview of all departmental security requirements and highlights the pivotal role of security throughout the organization's activities and priorities. The DSP serves as the foundation for the development of an annual work plan and project plans that support the implementation of approved strategies and priorities outlined in the plan and that encompass the entire organization.

The CSA has also expanded its cybersecurity governance processes to ensure readiness for implementing the Government of Canada's cybersecurity strategy. As part of this endeavour, the CSA has engaged with other space agencies to anticipate forthcoming developments. As such, the CSA aims to fortify the Agency's cybersecurity posture while preserving collaborative opportunities with partners and reinforcing Canada's competitive edge in the global space industry.

Resources required to achieve results

Table 3: Resources required to achieve results for internal services this year

Table 3 provides a summary of the planned and actual spending and full-time equivalents (FTEs) required to achieve results.

Table provides a summary of the planned and actual spending and full-time equivalents (FTEs) required to achieve results
Resource Planned Actual
Spending 61,059,544 79,369,177
Full-time equivalents 362.2 429.3

The complete financial and human resources information for the CSA's program inventory is available on GC InfoBase.

Contracts awarded to Indigenous businesses

Government of Canada departments are to meet a target of awarding at least 5% of the total value of contracts to Indigenous businesses each year. This commitment is to be fully implemented by the end of .

The CSA's result for :

Table 4: Total value of contracts awarded to Indigenous businessesFootnote 1

As shown in the Table 4, the CSA awarded 3.83% of the total value of all contracts to Indigenous businesses for the fiscal year.

Table provides the total value of contracts awarded to Indigenous businesses
Contracting performance indicators - Results
Total value of contracts awarded to Indigenous businessesFootnote 2 (A) $1,537,061
Total value of contracts awarded to Indigenous and non‑Indigenous businessesFootnote 3 (B) $184,045,095
Value of exceptions approved by deputy headFootnote 4 (C) $143,870,545
Proportion of contracts awarded to Indigenous businesses [A / (B−C) × 100] 3.83%

In its Departmental Plan, the agency forecasted that, by the end of , it would award 4.26% of the total value of its contracts to Indigenous businesses. To this end, the CSA continued to implement the federal Procurement Strategy for Indigenous Business (PSIB) aimed at developing the capacity of Indigenous businesses in the space and R&D sectors.

In , the CSA completed its annual Procurement Strategy for Indigenous Businesses (PSIB) including the use of conditional or voluntary set asides to increase contract awards to Indigenous businesses and Indigenous Participation Plans (IPPs) to grow industry capacity.

Throughout the year, CSA's procurement officers continued to receive training on matters such as identifying Comprehensive Land Claims Areas and searching the Indigenous Business Director. Furthermore, a Contract Review Committee examined procurement plans and evaluation criteria to ensure that they were not overly restrictive to prevent disadvantaged groups from encountering unnecessary challenges. Improvements to the internal procurement system have been made to improve analysis and increase the participation of Indigenous businesses.

Through the Grants and Contributions Program, the CSA awarded funds for projects reaching at least 660 Indigenous youth in . To name a few, the Saskatchewan Polytechnic created and hosted Camp Artemis, a one-day experience for Indigenous youth to engage in Space STEM learning, the Dalhousie University's Supernova team hosted their ATLAS (Atlantic Academy of Space) summer camp that included indigenous youth from the Halifax area and the H.R. MacMillan Space Centre in Vancouver animated online programs for youth in Nunavut and connected with cultural consultants to include local indigenous astronomy in narratives of their planetarium shows. Other contributions funds recipients such as Let's Talk Science, Digital Moment, and Wilfred Laurier University offered activities reaching Indigenous youth in .

Spending and human resources

Spending

This section presents an overview of the department's actual and planned expenditures from to .

Graph 1 and 2 : Actual spending by core responsibility in

Graph 1 and 2 present how much the department spent in to carry out core responsibilities and internal services.

Graph 1. Text version below: Graph 2. Text version below:

Budgetary performance summary

Table 5: Actual three-year spending on core responsibilities and internal services (dollars)

Table 5 presents how much money the CSA spent over the past three years to carry out its core responsibilities and for internal services.

Table presents how much money the CSA spent over the past three years to carry out its core responsibilities and for internal services.
Core responsibilities and internal services Main Estimates total authorities available for use Actual spending over three years (authorities used)
Canada in Space 476,342,693 562,175,378
  • : 307,943,051
  • : 425,072,047
  • : 371,378,033
Subtotal 476,342,693 562,175,378 1,104,393,131
Internal services 61,059,544 67,717,123
  • : 60,165,098
  • : 73,163,448
  • : 79,369,177
Total 537,402,237 629,892,501 1,317,090,854

More financial information from previous years is available on the Finances section of GC Infobase.

Table 6 Planned three-year spending on core responsibilities and internal services (dollars)

Table 6 presents how much money the CSA plans to spend over the next three years to carry out its core responsibilities and for internal services.

Table presents how much money the CSA plans to spend over the next three years to carry out its core responsibilities and for internal services
Core responsibilities and internal services planned spending planned spending planned spending
Canada in space 349,012,257 255,954,383 251,985,840
Subtotal 349,012,257 255,954,383 251,985,840
Internal services 64,955,212 63,415,530 62,390,290
Total 413,967,469 319,369,913 314,376,130

More detailed financial information from previous years is available on the Finances section of GC Infobase.

Table 7: Budgetary actual gross and net planned spending summary (dollars)

Table 7 reconciles gross planned spending with net spending for .

Table reconciles gross planned spending with net spending for .
Core responsibilities and internal services actual gross spending actual revenues netted against expenditures actual net spending (authorities used)
Canada in space 371,378,033 0 371,378,033
Subtotal 371,378,033 0 371,378,033
Internal services 79,369,177 0 79,369,177
Total 450,747,210 0 450,747,210

Information on the alignment of the CSA's spending with Government of Canada's spending and activities is available on GC InfoBase.

Funding

This section provides an overview of the department's voted and statutory funding for its core responsibilities and for internal services. For further information on funding authorities, consult the Government of Canada budgets and expenditures.

Graph 3: Approved funding (statutory and voted) over a six-year period

Graph 3 summarizes the department's approved voted and statutory funding from to .

Graph 3. Text version below:

For further information on the CSA's departmental voted and statutory expenditures, consult the Public Accounts of Canada.

Financial statement highlights

The CSA's complete financial statements (unaudited or audited) for the year ended , are available online.

Table 8 Condensed Statement of Operations (unaudited or audited) for the year ended (dollars)

Table 8 summarizes the expenses and revenues for which net to the cost of operations before government funding and transfers.
Financial information actual results planned results Difference (actual results minus planned)
Total expenses 558,365,757 576,567,895 (18,202,138)
Total revenues 122,839 19,755 103,084
Net cost of operations before government funding and transfers 558,242,918 576,548,140 (18,305,222)

Total planned expenses for were $576.6M, a variance of $18.2M (3.3%) when compared to actual results of $558.4M. The variance between planned and actual expenses is mainly explained by the following:

  • Amortization expenses of assets under construction, planned to be capitalized to capital assets in , being lower than projected ($−18M), as well as the extension of the remaining useful life of the International Space Station's assets ($−26M);
  • Salaries and employee benefits expenses, being higher than projected ($+30.7M).

The planned results information is provided in the CSA's Future-Oriented Statement of Operations and Notes .

Table 9 summarizes actual expenses and revenues which net to the cost of operations before government funding and transfers.
Financial information actual results actual results Difference (- minus -)
Total expenses 558,365,757 544,050,316 14,315,441
Total revenues 122,839 28,657 94,182
Net cost of operations before government funding and transfers 558,242,918 544,021,659 14,221,259

In , total expenses were $558.4M: an increase of $14.3M (2.6%) when compared with the previous year's total expenses of $544.1M. This increase is primarily attributable to the following:

  • An increase in salaries and employee benefits by $21.7M.
  • An increase in amortization expenses, mainly related to the capitalization of the JWST, by $5.1M.
  • A decrease in total transfer payments by $12.3M, mainly associated with transfer payments under the agreement with the European Space Agency.

The CSA's total revenues were $0.12M in ($0.03M in ), which represents the re-spendable portion of overall revenues of $1.2M. Most of these revenues are reported under the sale of goods and services provided by the DFL, i.e., sale of goods and services to private businesses or other Government of Canada departments, and location and use of public property.

Table 10 Condensed Statement of Financial Position (unaudited or audited) as of (dollars)

Table 10 provides a brief snapshot of the department's liabilities (what it owes) and assets (what the department owns), which helps to indicate its ability to carry out programs and services.

Table provides a brief snapshot of the department's liabilities (what it owes) and assets (what the department owns), which helps to indicate its ability to carry out programs and services.
Financial information Actual fiscal year () Previous fiscal year () Difference ( minus )
Total net liabilities 146,920,926 188,342,171 (41,421,245)
Total net financial assets 135,913,131 178,503,620 (42,590,489)
Departmental net debt 11,007,795 9,838,551 1,169,244
Total non-financial assets 1,225,955,647 1,325,194,597 (99,238,950)
Departmental net financial position 1,214,947,852 1,315,356,046 (100,408,194)

Total net liabilities of $146.9M consist mainly of accounts payable and accrued liabilities. These represent goods and services that were received at year-end but that have not yet been paid by the Agency. The $41.4M (65.1%) variance from to is normal, as payment schedules may vary from one year to another, especially those related to space programs.

Total assets were $1,361.9M at the end of ($135.9M in net financial assets and $1,226M in non-financial assets): a decrease of $141.8M, mainly attributable to the decrease in the "Due from the Consolidated Revenue Fund (CRF)," which represents the net amount of cash that the Agency is entitled to draw from the CRF without further authorities to discharge its liabilities and the decrease in tangible capital assets.

Non-financial assets are mainly composed of space-related assets ($1.05B over $1.23B or 85.6%).

Human resources

This section presents an overview of the department's actual and planned human resources from to .

Table 11: Actual human resources for core responsibilities and internal services

Table 11 shows a summary of human resources, in full-time equivalents (FTEs), for the CSA's core responsibilities and for its internal services for the previous three fiscal years.

Table shows a summary of human resources, in full-time equivalents (FTEs), for the CSA's core responsibilities and for its internal services for the previous three fiscal years.
Core responsibilities and internal services actual FTEs actual FTEs actual FTEs
Canada in Space 434.1  459.5 507.7
Subtotal 434.1 459.5 507.7
Internal services 332.1 373.9 429.3
Total 766.2 833.4 937.0

Table 12: Human resources planning summary for core responsibilities and internal services

Table 12 shows information on human resources, in full-time equivalents (FTEs), for each of the CSA's core responsibilities and for its internal services planned for the next three years. Human resources for the current fiscal year are forecasted based on year to date.

Table shows information on human resources, in full-time equivalents (FTEs), for each of the CSA's core responsibilities and for its internal services planned for the next three years. Human resources for the current fiscal year are forecasted based on year to date.
Core responsibilities and internal services planned FTEs planned FTEs planned
FTEs
Canada in Space 492.9 499.0 490.8
Subtotal 492.9 499.0 490.8
Internal services 386.8 393.0 395.1
Total 879.7 892.0 885.9

Corporate information

Supplementary information tables

The following supplementary information tables are available on the CSA's website:

Federal tax expenditures

The tax system can be used to achieve public policy objectives through the application of special measures such as low tax rates, exemptions, deductions, deferrals and credits. The Department of Finance Canada publishes cost estimates and projections for these measures each year in the Report on Federal Tax Expenditures. This report also provides detailed background information on tax expenditures, including descriptions, objectives, historical information and references to related federal spending programs as well as evaluations and GBA Plus of tax expenditures.

Definitions

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