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8–13 Jun 2025
America/Regina timezone
Welcome to the 2025 CAP Congress Program website! / Bienvenue au siteweb du programme du Congrès de l'ACP 2025!

Space Weather Ionospheric Network Canada

11 Jun 2025, 11:30
15m
Rm 202 (cap.58) (Arts Bldg., U.Sask.)

Rm 202 (cap.58)

Arts Bldg., U.Sask.

Oral (Non-Student) / Orale (non-étudiant(e)) Symposia Day (DASP - DPAE) - DASP Student Workshop - Space Weather in Our Lives / Atelier pour les étudiants de la DPAE - La météo spatiale dans nos vies (DASP) W1-2 Space Weather Special Session | Session spéciale sur la météorologie spatiale (DPAE)

Speaker

Christopher Watson (University of New Brunswick)

Description

Space Weather Ionospheric Network Canada (SWINCan), formerly the Canadian High Arctic Ionospheric Network (CHAIN), has provided continuous, near-real-time monitoring of the high-latitude ionosphere since 2007. SWINCan is operated by the Radio and Space Physics Laboratory (RSPL) at the University of New Brunswick (UNB). The network currently consists of 10 high-frequency (HF) ionosondes, 30 Global Navigation Satellite System (GNSS) total electron content and scintillation monitors (GISTMs), and 14 “low-cost” GNSS receivers spanning northern sub-auroral, auroral, and polar regions. SWINCan also includes 1 GISTM in sub-auroral Antarctica for interhemispheric and collaborative southern ionosphere studies.

There is growing demand for enhanced capacity to observe the high-latitude ionosphere, largely motivated by renewed urgency for increased Arctic domain awareness in support of governance, security, development, and scientific research among Arctic nations. In response, RSPL is substantially expanding SWINCan to include a total of 131 GISTMs and 21 ionosonde systems across Canada, while modernizing its ionosonde network with deployment of “sanimut”, a state-of-the-art, fully versatile HF platform. The complete SWINCan network will provide continuous, near-real-time (NRT) monitoring of the multi-scale ionospheric structure and dynamics at high-latitudes with unprecedented detail and revolutionize our ability to fundamentally understand the physical mechanisms that drive ionospheric variability and influence the trans-ionospheric propagation of radio waves. Given the continuous and unpredictable structuring of the high-latitude ionosphere over a broad range of spatial scales, SWINCan observations provide essential input for ionosphere assimilations models and other adaptive operational strategies of over-the-horizon-radar (OTHR), radio communication systems, and position, navigation, and timing (PNT) systems.

Keyword-1 Ionosphere
Keyword-2 Space Weather

Author

Christopher Watson (University of New Brunswick)

Co-authors

Abdelhaq M Hamza (University of New Brunswick) Dr Alex Koloskov (University of New Brunswick) Anthony McCaffrey (University of New Brunswick) Anton Kashcheyev (University of New Brunswick) David Themens (University of New Brunswick) Dr Karim Meziane (University of New Brunswick) Ms Marina Schmidt (University of New Brunswick) Mr Philippe Trottier (University of New Brunswick) Mr Richard Chadwick (University of New Brunswick) Richard Langley (University of New Brunswick) Dr Thayyil Jayachandran (University of New Brunswick) Torsten Reuschel (University of New Brunswick)

Presentation materials

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