Kioloa Coastal Campus/sites/prod.science.sca-lws06.anu.edu.au/files/Kioloa%2520%2528Large%2529.jpgThe 348-hectare ANU Kioloa Coastal Campus is one of Australia’s premier field stations, offering a diverse ecology which encourages research across all scientific disciplines.The Kioloa Coastal Campus (KCC), Edith and Joy London Foundation is located on the south coast of New South Wales adjacent to the village of Kioloa. KCC is one of Australia's premier field stations, set on 348 hectares of unique landscape extending from the high tide mark through a diverse ecology to thick bushland. The 348-hectare KCC is one of Australia’s premier field stations, offering a diverse ecology which encourages research across all scientific disciplines.

KCC is on the NSW south coast between Kioloa and Bawley Point villages. It's easy to get here from Canberra, Sydney and Wollongong. KCC has accommodation and research facilities to support short or long-term research, educational field trips, field training courses or other educational activities. Facilities can also be booked for annual retreats, workshops, seminars and meetings.

The site, which includes a laboratory, is also used for training students in fieldwork techniques.

For more information visit the Kioloa Coastal Campus' website.

]]>496 Murramarang Rd, Kioloa NSW 2539

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-35.544956028763, 150.38078094656 ]]>/research/facilities/kioloa-coastal-campus
Waramunga Seismic and Infrasound Research Station/sites/prod.science.sca-lws06.anu.edu.au/files/DJI_0018cropped.jpgThe Warramunga Seismic and Infrasound Research Station near Tennant Creek in the Northern Territory comprises a 24-element broad-band seismic array and an 8-element infrasound array. The Warramunga Seismic and Infrasound Research Station near Tennant Creek in the Northern Territory comprises a 24-element broad-band seismic array and an 8-element infrasound array. Both arrays are certified primary stations under the Comprehensive Nuclear Test Ban Treaty and data is provided by satellite link to the International Data Centre in Vienna, Austria and to Geoscience Australia, in real-time.

]]> -19.801043506775, 134.22775620293 ]]>/research/facilities/waramunga-seismic-and-infrasound-research-station
Mount Stromlo Observatory/sites/prod.science.sca-lws06.anu.edu.au/files/AITC%20and%20School%20Panorama.jpgThe Mount Stromlo Observatory (MSO) is the headquarters of RSAA, located in Canberra in the Australian Capital Territory.Mount Stromlo Observatory is the headquarters of the ANU’s Research School of Astronomy and Astrophysics. Mount Stromlo houses the offices as well as research labs, which includes the Advanced Instrumentation Technology Centre (AITC). The AITC is Australia’s centre for satellites and space infrastructure development and testing. ANU undergrad and postgraduate students regularly use it on projects ranging from developing lasers to remove space junk, to testing small satellites and plasma thrusters engines, as well as high-altitude /near-space balloons.

]]>Cotter Rd, Weston Creek ACT 2611

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-35.32013103649, 149.00798383915 ]]>/research/facilities/mount-stromlo-observatory
ANU North Australia Research Unit/sites/prod.science.sca-lws06.anu.edu.au/files/DSCN0261_0.jpgThe ANU North Australian Research Unit campus is a research facility in the Northern Territory with accommodation and other resources for researchers.The ANU North Australian Research Unit (NARU) campus is a research facility in the Northern Territory with accommodation and other resources for researchers working in north Australia and the surrounding region.

NARU campus is about a 15km drive from Darwin city and about 8km drive from Darwin International Airport.

Fiddler Crab research

The Fiddler Crab researchers from the Backwell lab at the ANU Research Scool of Biology base their field studies from the University’s North Australia Research Unit in Darwin for four months of the year (September - Christmas).

Researchers work and help each other designing experiments and in the field, and there’s time for leisure activities too.

Each season sees a different set of researchers, and some make friends for life with the people they study with in Darwin.

]]>23 Ellengowan Dr, Brinkin NT 0810

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-12.370013553483, 130.8721637 ]]>/research/facilities/anu-north-australia-research-unit
Antarctic remote GPS monitoring/sites/prod.science.sca-lws06.anu.edu.au/files/koms.jpgThe program monitors the post-glacial rebound which may be occurring near the Lambert Glacier, Antarctica since the Last Glacial Maximum. The program monitors the postglacial rebound which may be occurring near the Lambert Glacier, Prince Charles Mountains, Antarctica since the Last Glacial Maximum. A transect of permanent GPS sites has been established from the coast up to 450 km inland. The aim of the project is to estimate absolute vertical velocities of the sites and, coupled with other geophysical data, to discriminate between several different ice models for the Antarctic continent.

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Surface melt rivers, streams and lakes on the Lambert Glacier

As part of the Ocean US oceanographic project, two Iridium L-Band transmitters have been provided to RSES for installation at remote GPS sites in Antarctica. These satellite modems will be installed at Dalton Corner and Komsomolskiy Peak, two sites that are too far south for the Inmarsat data transmission system to work reliably. The use of the Iridium satellite modems will permit data to be transmitted from these two remote sites on a daily basis back to RSES.

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Looking south along the Mawson Escarpment, Lambert Glacier to the right
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National Arboretum Canberra research site/sites/prod.science.sca-lws06.anu.edu.au/files/DSC03115.jpgThe National Arboretum Canberra research site provides researchers with a unique environment to investigate climate variability, climate change, water use and precision measurement of trees and forests.The National Arboretum Canberra research site provides researchers with a unique environment to investigate climate variability, climate change, water use and precision measurement of trees and forests.

Biology

The National Arboretum Phenomic Environmental Sensor Array (PESA) at the National Arboretum in Canberra, ACT is a 'NextGen' monitoring  system enabling researchers to understand how extreme weather and climate variability affect tree growth in experimental plots as they mature from individual trees to mature forest ecosystems.

It will allow us to predict drought effects on growth and development for different eucalyptus species and genotypes which has important implications for regenerating forest ecosystems under climate change nationally and globally.

Initial placement of the PESA will be at the ANU Research Forest of the National Arboretum of Canberra, but the  Array design has flexible components to allow sub-sets to be relocated to other sites for comparative analyses and integration over wider geographic scales.

The National Arboretum Phenomic Sensory Array project is conducted by the Borevitz Lab at the Reseach School of Biology. For more information visit the Borevitz Lab website.

Environmental science

The National Arboretum Canberra research site will also help us understand:

For more information visit the Climate Change and Forests project page on the Fenner School of Environment and Society website.

]]>Forest Dr, Molonglo Valley ACT 2611

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-35.10496587382, 148.73006432757 ]]>/research/facilities/national-arboretum-canberra-research-site
Mulligans Flat - Goorooyarroo nature reserves/sites/prod.science.sca-lws06.anu.edu.au/files/Bettongs_0.jpgIn partnership with the ACT Government and CSIRO, ANU researchers are working to improve box-gum grassy woodland for biodiversity at the Mulligans Flat and Goorooyarroo Nature Reserves.In partnership with the ACT Government and CSIRO, ANU researchers are working to improve box-gum grassy woodland for biodiversity at the Mulligans Flat and Goorooyarroo Nature Reserves.

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A line of ACT Parks and Conservation Officers forms to herd kangaroos out of a ‘roo exclosure’ treatment.

Research at this 'outdoor laboratory' is breaking new ground by investigating management manipulations that improve woodlands for biodiversity, such as controlling exotic predators, adding dead wood for habitat and the use of controlled burning.

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A baby bettong at Mulligans Flat Woodland Sanctuary.
]]>Forde Community Centre, Forde ACT

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-35.161729647816, 149.16692555 ]]>/research/facilities/mulligans-flat-goorooyarroo-nature-reserves
Siding Spring Observatory/sites/prod.science.sca-lws06.anu.edu.au/files/siding_spring_aerial.jpgANU maintains two separate locations dedicated to astronomical and space research. Siding Spring Observatory is the ANU’s dark sky site, home to over 60 telescopes. ANU students have access to most, including regular use of Australia’s largest optical telescope, the 3.9m AAT telescope as well as the ANU 2.3m telescope, which is regularly used by ANU undergraduates for their research projects.

]]>Observatory Rd Coonabarabran NSW 2357 Australia

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-31.274823233149, 149.06843167576 ]]>/research/facilities/siding-spring-observatory
Mulloon Creek natural farms/sites/prod.science.sca-lws06.anu.edu.au/files/mulloon_creek.jpgA partnership between the ANU Fenner School of Environment and Society and the Mulloon Institute has allowed ANU students and researchers to study ecological farming principles at Mulloon Creek Natural Farms for 20 years.A partnership between the ANU Fenner School of Environment and Society and the Mulloon Institute has allowed ANU students and researchers to study ecological farming principles at Mulloon Creek Natural Farms for 20 years.

Research at this rural field station focuses on soil regeneration, landscape rehydration and cultivation of biodiversity, with the goal of making holistic landscape management a mainstream practice for sustainable and profitable agricultural business.

]]>3585 Kings Highway, Bungendore NSW 2621

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-35.251397261224, 149.57259345 ]]>/research/facilities/mulloon-creek-natural-farms
Heavy Ion Accelerator Facility/sites/prod.science.sca-lws06.anu.edu.au/files/Image-from-iOS-11-810x608.jpgThe HIAF comprises one of the world’s largest 14UD pelletron accelerators and a superconducting “booster” linear accelerator (LINAC) housed and operated by ANU.The Heavy Ion Accelerator Facility (HIAF) comprises the 14UD pelletron accelerator and a superconducting 'booster' linear accelerator. Tha Facility is housed and operated by the Department of Nuclear Physics in the Research School of Physics at The Australian National University. The HIAF supports Australia's only experimental nuclear physics program, a major accelerator mass spectrometry program and facilities for ion-beam modification and analysis of materials.

The HIAF accelerators provide important infrastructure for the Australian research community, with applications that range from creating and characterising new and innovative materials, resource/energy exploration and waste management, research in environmental, biological and life sciences and investigating climate change, to archaeological and heritage studies, and critical investigations into nuclear science, including fundamental quantum science through systematic inquiry into nuclear behaviour and properties following collisions between atomic nuclei. Watch this video to see inside the Facility.

For more information visit the Heavy Ion Accelerator Facility website..

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SkyMapper/sites/prod.science.sca-lws06.anu.edu.au/files/images/Siding_Spring_Skymapper_StuartHay.jpgSkyMapper is a state-of-the-art automated wide-field survey telescope that represents a new vehicle for scientific discovery.SkyMapper is a state-of-the-art automated wide-field survey telescope that represents a new vehicle for scientific discovery.

It is sited under the dark skies of Siding Spring Observatory near Coonabarabran, in central NSW. SkyMapper's mission is to robotically create the first comprehensive digital survey of the entire southern sky.

The result will be a massively detailed record of more than a billion stars and galaxies, to a sensitivity one million times fainter than the human eye can see.

The survey's data set will be made freely available to the scientific and general community via the internet.

]]>Coonabarabran NSW 2357

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-31.272077509645, 149.06155135 ]]>/research/facilities/skymapper
Science precinct/sites/prod.science.sca-lws06.anu.edu.au/files/19348832930_a3c08e2578_o_0.jpgOur new $240-million science precinct on the ANU campus has state-of-the-art biological and chemical research laboratories, as well as a teaching hub.Our new $240-million science precinct on the ANU campus has state-of-the-art biological and chemical research laboratories, as well as a teaching hub.

The Linnaeus building

The Linnaeus building, completed in 2011, houses state-of-the art laboratory facilities with associated office space.

The building was purpose built to support the full range of molecular and cell biology carried out in the School and accommodates the majority of staff and students in the School's Division of Biomedical Science and Biochemistry and Division of Plant Sciences.

The Linnaeus building houses a wide range of general and specialist research equipment, a large area dedicated to plant growth facilities, and cell culture laboratories that support work in parasitology, virology, immunology and cancer biology.

The Science Teaching and Learning building

The Sciences Teaching Building includes eight teaching wet laboratories for undergraduate and course work students across the Bioscience and Chemistry disciplines, as well 150-seat and 50-seat flexible learning spaces, several outdoor teaching areas and smaller group rooms.

These teaching laboratories have been designed to allow students to develop the skill sets required to conduct higher level research and or work within research and development laboratories of various important industries including pharmacology and the minerals sector.

Other teaching and learning spaces include analytical and instrument laboratories and associated preparation areas.

The Chemical Sciences building

The building is in the heart of the new ANU Science Precinct, bringing together researchers and students from multiple disciplines and driving collaboration between different fields of science.

Construction of the building started in 2009, and culminated in a Public Architecture Award from the ACT Chapter of the Australian Institute of Architects.

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National Computational Infrastructure/sites/prod.science.sca-lws06.anu.edu.au/files/images/Raijin.jpgThe National Computational Infrastructure (NCI) is home to the Southern Hemisphere’s most highly-integrated supercomputer and filesystems, Australia’s highest performance research cloud, and one of the nation’s largest data catalogues—all supported by an expert team.The National Computational Infrastructure (NCI) is home to the Southern Hemisphere’s most highly-integrated supercomputer and filesystems, Australia’s highest performance research cloud, and one of the nation’s largest data catalogues—all supported by an expert team.

NCI is supported by the Australian Government’s National Collaborative Research Infrastructure Strategy, with operational funding provided through a formal collaboration incorporating CSIRO, Bureau of Meteorology, The Australian National University, Geoscience Australia the Australian Research Council, and a number of research intensive universities and medical research institutes.

Visit the National Computational Infrastructure Facility website for further information.

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Advanced Instrumentation and Technology Centre/sites/prod.science.sca-lws06.anu.edu.au/files/images/AITC.jpgThe Advanced Instrumentation and Technology Centre (AITC) at the University’s Mount Stromlo Observatory is a world-class facility for the design, manufacturing, assembly, integration and testing of ground-based and space-based instruments, and small satellites.The $30-million Advanced Instrumentation and Technology Centre (AITC) at the University’s Mount Stromlo Observatory is a world-class facility for the design, manufacturing, assembly, integration and testing of ground-based and space-based instruments, and small satellites.

It includes the only space simulation facility in the southern hemisphere, the Wombat XL, which mimics the airlessness of space, as well as the dramatic temperature changes experienced by satellites moving in and out of the Earth’s shadow.

For more information visit the Advanced Instrumentation and Technology Centre page on the Research School of Astronomy & Astrophysics website.

]]>Mount Stromlo Observatory Weston ACT 2611

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-35.321534386261, 149.0063803935 ]]>/research/facilities/advanced-instrumentation-and-technology-centre
Compounds ANU (CANU)/sites/prod.science.sca-lws06.anu.edu.au/files/images/O2OkAmY4axxqT0bDBcm89Jpz7MKCsRGyBQ.jpgCompounds ANU (CANU) aims to directly link the leading synthetic chemistry capabilities within the RSC to ANU medical and biological research programs primarily conducted within the RSB and JCSMR.Compounds ANU (CANU) aims to directly link the leading synthetic chemistry capabilities within the RSC to ANU medical and biological research programs primarily conducted within the RSB and JCSMR.

The CANU library is curated by Compounds Australia and is a collection of structurally unique small molecules and peptides synthesised by researchers at the RSC. For more information on the library, including sample submission protocols, visit the Compounds ANU website.

For details on compound screening, please visit The ANU Centre for Therapeutic Discovery.

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Podcast Studio/sites/prod.science.sca-lws06.anu.edu.au/files/images/podcast-studio.jpgThe CPAS Podcast Studio is open to staff and students throughout ANU (not just scientists!) to record and grow podcast series. Your success is our success: we want to help you make the biggest and best podcast series in the world.  The CPAS Podcast Studio is open to staff and students throughout ANU (not just scientists!) to record and grow podcast series. Your success is our success: we want to help you make the biggest and best podcast series in the world.  

What we provide

More information

]]>Peter Baume Building #42A

Linnaeus Way

Acton ACT 2601 Australia

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-35.275825461234, 149.11753325 ]]>/research/facilities/podcast-studio
Wood Library/sites/prod.science.sca-lws06.anu.edu.au/files/images/Fenner%2520School%2520Xylarium-3k-B_5659_preview.jpegDesigned by Eggleston, MacDonald and Secomb, the Forestry Building (#48) was officially opened on 16 May 1968 by HRH the Duke of Edinburgh with the unveiling of a wooden sculpture in the building’s main foyer.The Fenner School’s Wood Collection is used in forestry and wood science education and research. The collection has a high degree of historical and research significance. It contains material for resampling for investigative purposes by wood anatomists, archaeologists, anthropologists, furniture and decorative arts conservators, art historians and forensic scientists.

]]>48 Linnaeus Way, Acton ACT 2601

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-35.277834961235, 149.11587855 ]]>/research/facilities/wood-library
Makerspace/sites/prod.science.sca-lws06.anu.edu.au/files/images/makerspace.jpgThe ANU MakerSpace is an initiative by the Research School of Physics and Engineering, where we know people learn by doing.  The ANU MakerSpace is an initiative by the Research School of Physics and Engineering, where we know people learn by doing.  

The MakerSpace community and tools are accessible to ALL current ANU staff & students. We believe that inter-disciplinary environments breed creativity, and that everyone has something they can teach everyone else. 

Projects undertaken in the ANU MakerSpace can be linked to education, research & personal hobbies. We are a commons for curiosity - a truly research-led environment, furnished with resources for people to experiment, investigate, prototype, and solve problems. Our aim is to empower users with confidence to be life-long self-learners and makers.

]]>Bld, 38 Science Rd, Acton ACT 2602

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-35.274462761233, 149.1183281 ]]>/research/facilities/makerspace
Geophysical Fluid Dynamics Lab/sites/prod.science.sca-lws06.anu.edu.au/files/images/gfd.jpgThe Geophysical Fluid Dynamics laboratory is a purpose-built 400 sq. m laboratory for experimental fluid dynamics.The Geophysical Fluid Dynamics laboratory is a purpose-built 400 sq. m laboratory for experimental fluid dynamics.

This laboratory is designed for studies of fluid flow processes relevant to both solid earth geological processes and ocean-atmosphere dynamics.

It includes a well-controlled temperature isolation room (stable at temperatures between 5 and 30°C), which is used in studies of solidification, melting, convection or flows having temperature-dependent viscosity.

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Controlled Environment Facility/sites/prod.science.sca-lws06.anu.edu.au/files/images/080430ANURSBS-34.jpgThe Controlled Environment Facility (CEF) houses 20 walk in growth rooms as well as 47 free standing growth chambers, two communal laboratories and two autoclaves.The Controlled Environment Facility (CEF) houses 20 walk in growth rooms as well as 47 free standing growth chambers, two communal laboratories and two autoclaves. This allows control over many aspects of the growing environment such as temperature, humidity, light and carbon dioxide.

Fully qualified staff provide services such as environmental monitoring, watering, pest and disease control as well as horticultural advice.

For more information visit the Controlled Environment Facility page on the Research School of Biology website.

]]>46c Sullivans Creek, Canberra ACT 2600, Australia

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-35.278132661235, 149.1172451 ]]>/research/facilities/controlled-environment-facility
Australian Phenomics Facility/sites/prod.science.sca-lws06.anu.edu.au/files/images/cryopreservation.jpgThe Australian Phenomics Facility supports open access large-scale phenotyping of humans and mice to uncover the biological drivers in human disease.The Australian Phenomics Facility (APF) supports open access large-scale phenotyping of humans and mice to uncover the biological drivers in human disease.

The Australian Phenomics Facility specialises in the development, characterising and archiving of mouse models of human disease. It has an experienced genomics and bioinformatics capability focussed on the identification of single nucleotide polymorphisms and the phenotyping capability to make the biological associations with probable human disease traits. its goals are to firstly derive the underlying genetic mechanisms, and then look to extend this across the population and better understand cohort differences and responses.

The facility was established in 2005 and receives funding from the Australian Government’s NCRIS, Super Science and CRIS programmes through the Australian Phenomics Network and contributions from the Australian National University.

For more information visit the APF website.

]]>Australian Phenomics Facility
The Australian National University
Hugh Ennor Building 117
Garran Road
Canberra ACT 2601

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Nuclear Magnetic Resonance/sites/prod.science.sca-lws06.anu.edu.au/files/images/NMR_Centre_Small.jpgNMR has applications in all fields of the experimental sciences. It is the single most powerful technique available to chemists for studying the composition, structure and function of molecules.Nuclear Magnetic Resonance has applications in all fields of the experimental sciences. It is the single most powerful technique available to chemists for studying the composition, structure and function of molecules. It is an important supplementary technique for many of the natural and life sciences including biological chemistry, macromolecular and surface science, medicine and physics.

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NMR Facility

The NMR Centre at ANU is one of the most advanced in Australia, boasting equipment worth over eight million dollars and catering for over 100 staff and students in six Schools and Faculties. ANU was a joint recipient of an Australian Research Council grant for the purchase of an 800 MHz NMR spectrometer and a cryoprobe. The Centre now has one of the most sophisticated NMR spectrometers in Australia. This complements six other spectrometers operating at field strengths between 4.7 and 14.1 Tesla.

For more information visit the Nuclear Magnetic Resonance page on the Research School of Chemistry website.

]]>Building 138 Linnaeus Way

Acton, ACT 2601

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-35.12870373701, 148.74692649555 ]]>/research/facilities/nuclear-magnetic-resonance
Joint Mass Spectrometry Facility/sites/prod.science.sca-lws06.anu.edu.au/files/images/Mass_Spec_1.jpgThe Joint Mass Spectrometry Facility (JMSF) was created in 2016 by the Research School of Chemistry and Research School of Biology to consolidate and grow mass spectrometry facilities at ANU.The Joint Mass Spectrometry Facility (JMSF) was created in 2016 by the Research School of Chemistry and Research School of Biology to consolidate and grow mass spectrometry facilities at ANU. In partnership with the CSIRO Black Mountain campus, the JMSF is supporting research in the greater Canberra region as an important aspect of the Science and Industry Endowment Fund (SIEF) supported Analytical Precinct.

The JMSF is focusing on three main application areas using a variety of mass spectrometry instruments. These application areas include:

For more information visit the Joint Mass Spectrometry Facility page on the research School of Chemistry website.

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Sensitive High Resolution Ion Microprobe (SHRIMP)/sites/prod.science.sca-lws06.anu.edu.au/files/images/SHRIMP%2520II.jpgThe Sensitive High Resolution Ion MicroProbe (SHRIMP) is a mass spectrometer used for in-situ analysis of geological materials.The Sensitive High Resolution Ion Microprobe (SHRIMP) is a mass spectrometer used for in-situ analysis of solids, especially geological materials. Developed at ANU, SHRIMP has revolutionised geochronology and is an important tool for understanding early Earth history. Recent developments of the SHRIMP-SI have make it world-leading in the analysis of O, C and S isotopes to understand past environments.

SHRIMP is typically used for determining ion ratios in geologic materials. Probe pits are typically 10-30 µm in diameter and a few micrometers deep. As such SHRIMP allows virtually nondestructive in-situ isotopic analysis of geologic materials. Such materials include polished grain mounts and thin sections. Samples are generally characterized with visual and electron imaging prior to analysis.

Applications include U-Pb geochronology, trace element geochemistry, stable isotope analysis, and measurement of cosmochemical effects in extraterrestrial samples. Three SHRIMP instruments are currently in use (SHRIMP SI, II, RG).

For more information visit the Sensitive High Resolution Ion Microprobe (SHRIMP) website.

]]>Jaeger 5 Building

Research School of Earth Sciences

Acton, 2601

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Giant Magellan Telescope/sites/prod.science.sca-lws06.anu.edu.au/files/images/GMT-2015-Aerial1%2520hi-res.jpgThe Giant Magellan Telescope will be the world’s most powerful telescope, with a resolution ten times better than the Hubble Space Telescope.We have a ten per cent share in the Giant Magellan Telescope under construction in Chile. When it’s completed, it will be the world’s most powerful telescope, with a resolution ten times better than the Hubble Space Telescope.

This makes ANU, in cooperation with Astronomy Australia Limited (AAL), the major Australian partner for this ground-breaking facility which will lead to unprecedented insight into our universe.

For more information visit the Giant Magellan Telescope page on the Research School of Astronomy and Astrophysics website.

]]>Vallenar, La Higuera, Atacama, Chile

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Centre for Advanced Microscopy/sites/prod.science.sca-lws06.anu.edu.au/files/images/JEOL2100F_LSmillie_1.jpgThe Centre for Advanced Microscopy (CAM) provides state-of-the art microscopy and microanalysis equipment to researchers, students and industry partners.The Centre for Advanced Microscopy and the CTLab form the ANU node of Microscopy Australia (formerly the Australian Microscopy & Microanalysis Research Facility, AMMRF), established under the Commonwealth Government's National Collaborative Research Infrastructure Strategy (NCRIS).

The Centre for Advanced Microscopy (CAM) provides state-of-the art microscopy and microanalysis equipment to researchers, students and industry partners.

Our specialist staff will guide users towards appropriate sample preparation techniques and instrument allocation and support their research across all material and life science disciplines.

Together, CAM and the CTLab form the Advanced Imaging Precinct and the ANU node of the Microscopy Australia (formerly the Australian Microscopy and Microanalysis Research Facility (AMMRF)).

]]>Centre for Advanced Microscopy
131 Garran Road
The Australian National University
Acton, ACT 2601

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-35.281961569596, 149.11462331223 ]]>/research/facilities/centre-advanced-microscopy