Jon Everett | University of NSW (original) (raw)

Papers by Jon Everett

Research paper thumbnail of Performance of the autonomous PLATO Antarctic Observatory over two full years

Proceedings of SPIE, Jul 16, 2010

Research paper thumbnail of The Gattini Cameras for Optical Sky Brightness Measurements at Dome C, Antarctica

Eas Publications Series, 2007

Research paper thumbnail of Airglow and Aurorae at Dome A, Antarctica

Publications of the Astronomical Society of the Pacific, Jun 1, 2012

Research paper thumbnail of Precipitable Water Vapor above Dome A, Antarctica, Determined from Diffuse Optical Sky Spectra

Publications of the Astronomical Society of the Pacific, 2012

Research paper thumbnail of SNODAR: measuring the height of the Antarctic atmospheric boundary layer

The EGU General Assembly, 2008

Research paper thumbnail of The PLATO Robotic Antarctic observatory design and development program

Astronomical Society of India Conference Series, 2012

Research paper thumbnail of THz Astrophysics from Dome A

EAS Publications Series, 2009

Research paper thumbnail of Astrophysics from Dome A

EAS Publications Series, 2008

Research paper thumbnail of The Dome C gattini sky brightness cameras: Results from the first year of operation

The Gattini-DomeC project, part of the IRAIT site testing campaign and ongoing since January 2006... more The Gattini-DomeC project, part of the IRAIT site testing campaign and ongoing since January 2006, consists of two cameras for the measurement of optical sky brightness, large area cloud cover, and auroral detection above the DomeC site, home of the French-Italian Concordia station. The cameras are transit in nature and are virtually identical except for the nature of the lenses.

Research paper thumbnail of PLATO–a robotic observatory for the Antarctic plateau

EAS Publications Series, 2009

Research paper thumbnail of Dome A site testing and future plans

EAS Publications Series, 2009

Research paper thumbnail of Demonstration of an Application-Aware Resilience Mechanism for Dynamic Heterogeneous Networks

2007 9th International Conference on Transparent Optical Networks, 2007

Research paper thumbnail of Dome A, Antarctica: Prospectives for Terahertz Astronomy from the Ground

Research paper thumbnail of The AASTINO: Automated Astrophysical Site Testing International Observatory

Proceedings of the …, 2003

Research paper thumbnail of The PLATO Dome A Site-Testing Observatory: Instrumentation and First Results

Publications of the Astronomical Society of the Pacific, 2009

Research paper thumbnail of Airglow and Aurorae from Dome A, Antarctica

Proceedings of the International Astronomical Union, 2012

Despite the absence of artificial light pollution at Antarctic plateau sites such as Dome A, othe... more Despite the absence of artificial light pollution at Antarctic plateau sites such as Dome A, other factors such as airglow, aurorae and extended periods of twilight have the potential to adversely affect optical observations. We present a statistical analysis of the airglow and aurorae at Dome A using spectroscopic data from Nigel, an optical/near-IR spectrometer operating in the 300–850 nm range. The median auroral contribution to theB,VandRphotometric bands is found to be 22.9, 23.4 and 23.0 mag arcsec−2respectively. We are also able to quantify the amount of annual dark time available as a function of wavelength; on average twilight ends when the Sun reaches a zenith distance of 102.6°.

Research paper thumbnail of The PLATO observatory: robotic astronomy from the Antarctic plateau

Proceedings of the International Astronomical Union, 2009

PLATO is a 6 tonne completely self-contained robotic observatory that provides its own heat, elec... more PLATO is a 6 tonne completely self-contained robotic observatory that provides its own heat, electricity, and satellite communications. It was deployed to Dome A in Antarctica in January 2008 by the Chinese expedition team, and is now in its second year of operation. PLATO is operating four 14.5cm optical telescopes with 1k × 1k CCDs, a wide-field sky camera with a 2k × 2k CCD and Sloan g, r, i filters, a fibre-fed spectrograph to measure the UV to near-IR sky spectrum, a 0.2m terahertz telescope, two sonic radars giving 1m resolution data on the boundary layer to a height of 180m, a 15m tower, meteorological sensors, and 8 web cameras. Beginning in 2010/11 PLATO will be upgraded to support a Multi Aperture Scintillation Sensor and three AST3 0.5m schmidt telescopes, with 10k × 10 CCDs and 100TB/annum data requirements.

Research paper thumbnail of Operation of the Near Infrared Sky Monitor at the South Pole

Publications of the Astronomical Society of Australia, 2002

The near infrared sky spectral brightness has been measured at the South Pole with the Near Infra... more The near infrared sky spectral brightness has been measured at the South Pole with the Near Infrared Sky Monitor (NISM) throughout the 2001 winter season. The sky is found to be typically more than an order of magnitude darker than at temperate latitude sites, consistent with previous South Pole observations. Reliable robotic operation of the NISM, a low power, autonomous instrument, has been demonstrated throughout the Antarctic winter. Data analysis yields a median winter value of the 2.4μm (Kdark) sky spectral brightness of ˜120μJy arcsec−2 and an average of 210 ± 80μJy arcsec−2. The 75%, 50%, and 25% quartile values are 270 ± 100, 155 ± 60, and 80 ± 30μJy arcsec−2, respectively.

Research paper thumbnail of Pre-HEAT: submillimeter site testing and astronomical spectra from Dome A, Antarctica

Research paper thumbnail of Future development of the PLATO observatory for Antarctic science

PLATO is a self-contained robotic observatory built into two 10-foot shipping containers. It has ... more PLATO is a self-contained robotic observatory built into two 10-foot shipping containers. It has been successfully deployed at Dome A on the Antarctic plateau since January 2008, and has accumulated over 730 days of uptime at the time of writing. PLATO provides 0.5–1 kW of continuous electrical power for a year from diesel engines running on Jet-A1, supplemented during the summertime with solar panels. One of the 10-foot shipping containers houses the power system and fuel, the other provides a warm environment for instruments. Two Iridium satellite modems allow 45 MB/day of data to be transferred across the internet. Future enhancements to PLATO, currently in development, include a more modular design, using lithium iron-phosphate batteries, higher power output, and a light-weight low-power version for field deployment from a Twin Otter aircraft. Technologies used in PLATO include a CAN (Controller Area Network) bus, high-reliability PC/104 computers, ultracapacitors for starting t...

Research paper thumbnail of Performance of the autonomous PLATO Antarctic Observatory over two full years

Proceedings of SPIE, Jul 16, 2010

Research paper thumbnail of The Gattini Cameras for Optical Sky Brightness Measurements at Dome C, Antarctica

Eas Publications Series, 2007

Research paper thumbnail of Airglow and Aurorae at Dome A, Antarctica

Publications of the Astronomical Society of the Pacific, Jun 1, 2012

Research paper thumbnail of Precipitable Water Vapor above Dome A, Antarctica, Determined from Diffuse Optical Sky Spectra

Publications of the Astronomical Society of the Pacific, 2012

Research paper thumbnail of SNODAR: measuring the height of the Antarctic atmospheric boundary layer

The EGU General Assembly, 2008

Research paper thumbnail of The PLATO Robotic Antarctic observatory design and development program

Astronomical Society of India Conference Series, 2012

Research paper thumbnail of THz Astrophysics from Dome A

EAS Publications Series, 2009

Research paper thumbnail of Astrophysics from Dome A

EAS Publications Series, 2008

Research paper thumbnail of The Dome C gattini sky brightness cameras: Results from the first year of operation

The Gattini-DomeC project, part of the IRAIT site testing campaign and ongoing since January 2006... more The Gattini-DomeC project, part of the IRAIT site testing campaign and ongoing since January 2006, consists of two cameras for the measurement of optical sky brightness, large area cloud cover, and auroral detection above the DomeC site, home of the French-Italian Concordia station. The cameras are transit in nature and are virtually identical except for the nature of the lenses.

Research paper thumbnail of PLATO–a robotic observatory for the Antarctic plateau

EAS Publications Series, 2009

Research paper thumbnail of Dome A site testing and future plans

EAS Publications Series, 2009

Research paper thumbnail of Demonstration of an Application-Aware Resilience Mechanism for Dynamic Heterogeneous Networks

2007 9th International Conference on Transparent Optical Networks, 2007

Research paper thumbnail of Dome A, Antarctica: Prospectives for Terahertz Astronomy from the Ground

Research paper thumbnail of The AASTINO: Automated Astrophysical Site Testing International Observatory

Proceedings of the …, 2003

Research paper thumbnail of The PLATO Dome A Site-Testing Observatory: Instrumentation and First Results

Publications of the Astronomical Society of the Pacific, 2009

Research paper thumbnail of Airglow and Aurorae from Dome A, Antarctica

Proceedings of the International Astronomical Union, 2012

Despite the absence of artificial light pollution at Antarctic plateau sites such as Dome A, othe... more Despite the absence of artificial light pollution at Antarctic plateau sites such as Dome A, other factors such as airglow, aurorae and extended periods of twilight have the potential to adversely affect optical observations. We present a statistical analysis of the airglow and aurorae at Dome A using spectroscopic data from Nigel, an optical/near-IR spectrometer operating in the 300–850 nm range. The median auroral contribution to theB,VandRphotometric bands is found to be 22.9, 23.4 and 23.0 mag arcsec−2respectively. We are also able to quantify the amount of annual dark time available as a function of wavelength; on average twilight ends when the Sun reaches a zenith distance of 102.6°.

Research paper thumbnail of The PLATO observatory: robotic astronomy from the Antarctic plateau

Proceedings of the International Astronomical Union, 2009

PLATO is a 6 tonne completely self-contained robotic observatory that provides its own heat, elec... more PLATO is a 6 tonne completely self-contained robotic observatory that provides its own heat, electricity, and satellite communications. It was deployed to Dome A in Antarctica in January 2008 by the Chinese expedition team, and is now in its second year of operation. PLATO is operating four 14.5cm optical telescopes with 1k × 1k CCDs, a wide-field sky camera with a 2k × 2k CCD and Sloan g, r, i filters, a fibre-fed spectrograph to measure the UV to near-IR sky spectrum, a 0.2m terahertz telescope, two sonic radars giving 1m resolution data on the boundary layer to a height of 180m, a 15m tower, meteorological sensors, and 8 web cameras. Beginning in 2010/11 PLATO will be upgraded to support a Multi Aperture Scintillation Sensor and three AST3 0.5m schmidt telescopes, with 10k × 10 CCDs and 100TB/annum data requirements.

Research paper thumbnail of Operation of the Near Infrared Sky Monitor at the South Pole

Publications of the Astronomical Society of Australia, 2002

The near infrared sky spectral brightness has been measured at the South Pole with the Near Infra... more The near infrared sky spectral brightness has been measured at the South Pole with the Near Infrared Sky Monitor (NISM) throughout the 2001 winter season. The sky is found to be typically more than an order of magnitude darker than at temperate latitude sites, consistent with previous South Pole observations. Reliable robotic operation of the NISM, a low power, autonomous instrument, has been demonstrated throughout the Antarctic winter. Data analysis yields a median winter value of the 2.4μm (Kdark) sky spectral brightness of ˜120μJy arcsec−2 and an average of 210 ± 80μJy arcsec−2. The 75%, 50%, and 25% quartile values are 270 ± 100, 155 ± 60, and 80 ± 30μJy arcsec−2, respectively.

Research paper thumbnail of Pre-HEAT: submillimeter site testing and astronomical spectra from Dome A, Antarctica

Research paper thumbnail of Future development of the PLATO observatory for Antarctic science

PLATO is a self-contained robotic observatory built into two 10-foot shipping containers. It has ... more PLATO is a self-contained robotic observatory built into two 10-foot shipping containers. It has been successfully deployed at Dome A on the Antarctic plateau since January 2008, and has accumulated over 730 days of uptime at the time of writing. PLATO provides 0.5–1 kW of continuous electrical power for a year from diesel engines running on Jet-A1, supplemented during the summertime with solar panels. One of the 10-foot shipping containers houses the power system and fuel, the other provides a warm environment for instruments. Two Iridium satellite modems allow 45 MB/day of data to be transferred across the internet. Future enhancements to PLATO, currently in development, include a more modular design, using lithium iron-phosphate batteries, higher power output, and a light-weight low-power version for field deployment from a Twin Otter aircraft. Technologies used in PLATO include a CAN (Controller Area Network) bus, high-reliability PC/104 computers, ultracapacitors for starting t...