Overview

This workshop invited the Australian community to present science and technology ideas for the post-2030 era that deliver transformational advances with existing or upgraded facilities and new demonstrators in the SKA era.

Inyarrimanha Ilgari Bundara, our Murchison Radio-astronomy Observatory is one of the best sites for radio astronomy observations in the world, and the ATNF should take advantage of its unique environment. With SKA-Mid and SKA-Low telescopes coming online towards the end of the decade for science verification and full operations, and DSA-2000 operating from the late 2020s, it is timely for the community to start planning for post-2030 science and technology pathways.

The ASKAP telescope was built to:

  1. Help establish an observatory site for the SKA Observatory’s SKA-Low telescope, and
  2. Demonstrate SKA survey science technologies.

Following the construction of ASKAP, CSIRO ran an open proposal process, and initiated the 5-year Science Survey Projects, which are still in progress.

The first two aims have been achieved, and the surveys are planned to be completed by the end of the decade.

A document was provided outlining a set of broad facility and technology concepts, and the boundary conditions for the discussion. An ASKAP upgrade path is one of the concepts provided for discussion:

Aims of the Workshop

  • To canvas ideas on the unique and world-leading science that ATNF can do in the 2030s
  • To bring the Australian community into the conversation about the future of mid-high frequency radio astronomy
  • To generate new ideas and collaborations within Australia and internationally.

Organising Committee

  • Cathryn Trott
  • George Hobbs
  • Kelly Gourdji
  • Josh Preston Pritchard
  • Aidan Hotan
  • Nithya Thyagarajan
  • Keith Bannister

Recordings and slides

Day One – Session One

Douglas Bock

Cath Trott

Keith Bannister

Ron Ekers

Stephanie Smith

Max Voronkov

Rebecca Wheadon

Welcome

Overview

R&D Technology Roadmap

ASKAP in Perspective

A view from Engineering

A view from Software/Computing

Site context

Discussion

Day One – Session Two

Aidan Hotan


Nithya Thyagarajan

George Hobbs

Elaine Sadler


Josh Preston Pritchard


Ryan Shannon/Clancy James


Balt Indermuele


Liroy Lourenco

A vision for ASKAP’s continuing mission:​ ​ Progressive, autonomous & rapid synoptic mapping​

ATNF and Next-Generation Aperture Arrays

New dishes in the West

The case for an enhanced ATNF wide-field spectral-line capability below 1.4 GHz

Transient science opportunities with ATNF facilities

Discussion

Maximising fast radio burst science with future ATNF instruments

Satellite RFI and the Post-2030 Radio Astronomy Landscape: Mitigation Strategies and Regulatory Imperatives for Inyarrimanha Ilgari Bundara

Beyond the Quiet Zone: Redefining RFI Strategy for the Next Decade of Radio Astronomy

Day One – Session Three

Daniel Mitchell


Brian Udugama


Tara Murphy

Phil Edwards/Kelly Gourdji

Justin Smallwood


Jishnu Thekkeppattu


Ivy Wong

Gemma Anderson


Natasha Hurley-Walker


Mike Peel

Sparkler – Low-frequency science-data processing and SKA-Low

Sparkler – The Future of Low-energy Radio Astronomy and Lunar Telescopes

Radio transient science and its role in the ATNF’s future

VLBI in the ATNF Future

GPU agility enables new beamforming techniques to meet emerging observing challenges

Ultrafast real-time imaging techniques for next generation aperture arrays

More is more–future HI ambitions

Let’s automate the Australia Telescope National Facility for transient follow-up!

Exploring the Long-period Radio Transients with Future ATNF Facilities

Observing around low earth orbit satellites: threats and possible solutions at radio frequencies

WA-based discussion session

Day Two – Session One


Stuart Ryder

Paul Lasky

Matt Owers

Jimi Green/George Heald

Nick Tothill

Aaron Chippendale


Alex Dunning


John Tuthill


Luke McKay


Vanessa Moss

Marsfield-based discussion session

ATNF in the Rubin Observatory LSST era

A Gravitational-Wave Observatory in Australia

AAT: 2028, 2030 and beyond?

ATNF and SKAO

ATNF and CTAO

GINAN + All-Sky Cosmology with a cm-Wave Aperture Array

ATNF Instrumentation Technologies: Antennas and Receiving Systems

ATNF Instrumentation Technologies: Signal Processing Systems Capabilities

Dynamic RFI mitigation based on Stimulated Brillouin Scattering

Linking the future of ATNF to the 2026-2035 Decadal Plan outcomes

Day Two – Session Two

Dougal Dobie


Taissa Danilovich

Marcus Lower

Mark Walker

Andrew Zic


George Heald


Martin Meyer

Richard Dodson

Radio follow-up capabilities and utility in the era of multi-messenger time domain astronomy

Studying cool evolved stars with ATNF telescopes

Massive-scale pulsar timing with the ATNF

ASKAP 2030: a view from the scintillators

ATNF’s role in the pulsar timing array landscape in the 2030s

Polarimetry as an enabler of high-impact science in ATNF’s Future

Deep HI Studies with ASKAP

Doing More with Less: Lossless and Lossy Compression Options for Radio Interferometric Data

Q&A

Day Two – Session Three

Ashley Stock

Akhil Jaini


Adelle Goodwin


Yuanming Wang


John Morgan

Pulsar Science Enabled by VLBI Capabilities with ASKAP

Precision by Design: Astrometric Pathways for Post-2030 Wide-field Arrays

Broadband radio spectral observations for tidal disruption event and other extra-galactic synchrotron-emitting transient outflows

ASKAP as a transient facility from milliseconds to years timescales

ASKAP for world-class remote sensing of the Heliosphere

Questions / Discussion / Wrap-up