AITC

Instrumentation

The Research School of Astronomy & Astrophysics (RSAA) at ANU specialises in the research and development of advanced astronomical instrumentation.

About

RSAA has a long history of research and development in astronomical instrumentation, and has constructed a number of precision instruments for our own telescopes, and others around the world. The Advanced Instrumentation Technology Centre (AITC) provides advanced facilities for the instrumentation scientists and engineers of the school, who work on projects in the areas of optics and detector science, integral-field spectroscopy, adaptive-optics technologies, instrumentation for the next generation of ground-based telescopes, and survey astronomy. The AITC is also a unique facilitiy for training instrument science, engineering, and astronomy students.

Astronomical instrumentation

The RSAA has considerable expertise and experience in design and development of advanced instrumentation for astronomy. The school has completed two instruments  for the twin 8m telescopes of the Gemini Observatory:  the Near-infrared Integral-Field Spectrometer (NIFS) and Gemini South Adaptive Optics Imager (GSAOI), in addition to instrumentation for the facilties of MSO: such as the Dual-Beam Spectrograph (DBS), and Wide-Field Spectrograph (WiFeS) instruments for ANU 2.3m Telescope (also built largely in house), and the wide-field, 238 megapixel SkyMapper camera.

The technical program has particular expertise in optical and infrared spectroscopy, integral-field spectroscopy, adaptive optics, and wide-field imaging. 

Adaptive optics

The school has built a core of expertise in the field of adaptive optics (AO), a technology that will be essential to the success of high-resolution observations with the next generation of large ground-based telescopes. AO systems correct for the effects of turbulence in the air of the atmosphere, which causes distortion to the images produced by telescopes on the Earth. RSAA AO scientists are working with industy partners to develop the technologies and techniques required to extend AO capabilities to greater efficacy and for use with extremely-large telescopes (ELTs) such as the Giant Magellan Telescope (GMT). 

The Giant Magellan Telescope

ANU is leading Australia's involvement as a member of the international consortium that will design, build, and use the Giant Magellan Telescope. This facility will have an effective mirror aperture of 24.5m and is scheduled for completion in around 2020. RSAA is building one of the first instruments that will be used with the telescope, the GMT Integral-Field Spectrograph (GMTIFS) and developing adaptive-optics solutions for the project. Our participation ensures that Australian astronomers and students will continue to have access to cutting-edge resources and provides important opportunities for work on advanced instrumentation applications and astronomical research.

Space and satellite applications

The AITC has been designed to be a world-class facility for developing and testing small satellites and space payloads, in addition to astronomical instrumentation. In this capacity it is fast becoming a national hub for Australia's space community, linking industy to researchers and aerospace projects around the world.  

The space research facilities at RSAA will include a large thermal vacuum test chamber  to simulate the space environment, a vibration test facility capable of exerting acceleration forces of several tons on instruments under test, and a small satellite groundstation that was installed as part of the Antarctic Broadband project. 

Collaboration with industry

Our scientists and engineers have a history of industry partnership that dates back to Second World War, when they worked in a successful collaboration with the US to produce specialised optics for the war effort. The school continues to foster close links with government, business and research institutions around the world. 

Currently, our technical team is working with industy and research partners on projects to develop a satellite system for monitoring greenhouse gases, satellite laser ranging technologies, and a new plasma thruster engine for space travel.

Projects

This project involves instrument modelling, science simulation, electro-optical, and system design of a compact spatial heterodyne spectrograph instrument.

Student intake

Open for Bachelor, Honours students

People

When did the first stars and galaxies form? This project will help commission and deploy the world’s most precise radiometer and a purpose-built antenna to search for the elusive global 21-cm signal from Cosmic Dawn, one of the foremost challenges in observational cosmology. Working with researchers at ANU and CSIRO, the student will combine instrumentation, field observations, Bayesian data analysis and astrophysical modelling to detect—or place new constraints on—the signature of the first stars in the early Universe.

Student intake

Open for Master, PhD students

People

  • Emeritus Professor Ravi Subrahmanyan
  • Dr Aaron Chippendale
  • Prof Anastasia Fialkov
  • Dr Luke McKay
  • Prof Ron Ekers

The aim of this research is to determine the correlation of the tip-tilt to confirm that the downlink can be used as a reliable reference source for adaptive optics applied to the uplink signal.

Student intake

Open for Bachelor, Honours, PhD students

People

This project aims to conceptualize a UV astronomical space mission to explore the interstellar medium (ISM) in the Milky Way and nearby Local Group Galaxies. Utilizing recent UV coating and detector advancements, the proposed mission involves high-throughput, compact UV spectroscopic instruments.

Student intake

Open for Bachelor, Honours students

People

We are building a powerful new instrument to work with the Giant Magellan Telescope to record images and spectra ten times sharper than possible with the Hubble Space Telescope.

The ANU Research School of Astronomy and Astrophysics (RSAA) is collaborating with the National Astronomical Observatory Japan to develop a next-generation Ground Layer Adaptive Optics (GLAO) system for installation on the 8-meter optical-infrared Subaru telescope at the summit of Maunakea, Hawaii.

Student intake

Open for Bachelor, Honours, PhD students

People

Members

Professional

Jacob Nowland

Systems Engineering Specialist

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Lead, Detector, Electronics and Controls
Advanced Instrumentation Technology Centre

Academic

Dr Hajime Ogane

Instrumentation Scientist
Advanced Instrumentation Technology Centre

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Instrumentation Scientist
Advanced Instrumentation Technology Centre

Instrumentation scientist
Advanced Instrumentation Technology Centre
Associate Dean, College of Science

News

Over the next few years the AITC will perform the launch certification for a number of Australian satellites.

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Finding a planet the size of Jupiter in the Milky Way is the astronomical equivalent to finding a needle in a haystack. But after a tumultuous year that began with bushfires at the Siding Spring Observatory, collaborators on the HAT-South network have done it – four times!

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To keep size and weight down and communications capacity high, the consortium plans to us use Ka-band (26.5-40 GHz ) radio communication and highly directional transmitting and receiving antennae on the spacecraft.

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The Advanced Instrumentation and Technology Centre at Mount Stromlo Observatory is rapidly becoming one of the most advanced astronomical instrument and spacecraft assembly facilities in the country.

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EOS created a major stir in the aerospace world during 2000 by demonstrating that they could track space junk using a laser - a feat thought to be very difficult, if not impossible by international aerospace companies at the time.

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The decision to fund Australian partnership in the Giant Magellan Telescope will guarantee our astronomers a 10% share in what will be by far the largest and most powerful telescope the world has ever seen.

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