Parkes observations for project P878 semester 2014OCTS

Measuring the magnetic field and electron density of the solar wind is essential in order to understand the properties of solar corona. Detection of dispersion measure (DM) and Faraday rotation measure (RM) of linearly polarized radio sources occulted by the solar wind provides a unique opportunity...

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Other Authors: xiaopeng You (hasPrincipalInvestigator), CSIRO (isManagedBy)
Format: Dataset
Language:unknown
Published: Commonwealth Scientific and Industrial Research Organisation
Subjects:
Online Access:https://researchdata.ands.org.au/parkes-observations-project-semester-2014octs/663496
id ftands:oai:ands.org.au::663496
record_format openpolar
spelling ftands:oai:ands.org.au::663496 2023-05-15T18:22:45+02:00 Parkes observations for project P878 semester 2014OCTS xiaopeng You (hasPrincipalInvestigator) CSIRO (isManagedBy) Temporal: From 2014-10-01 to 2015-03-31 https://researchdata.ands.org.au/parkes-observations-project-semester-2014octs/663496 unknown Commonwealth Scientific and Industrial Research Organisation https://researchdata.ands.org.au/parkes-observations-project-semester-2014octs/663496 102.100.100/21627 https://data.csiro.au/dap/ pulsars neutron stars interstellar medium in and around the Milky Way magnetic fields Astronomical and Space Sciences not elsewhere classified PHYSICAL SCIENCES ASTRONOMICAL AND SPACE SCIENCES dataset ftands 2020-01-05T20:51:54Z Measuring the magnetic field and electron density of the solar wind is essential in order to understand the properties of solar corona. Detection of dispersion measure (DM) and Faraday rotation measure (RM) of linearly polarized radio sources occulted by the solar wind provides a unique opportunity to measure these properties. Pulsars are therefore ideal sources for such study, especially for millisecond pulsars which can be used to obtain high timing precision to measure the DM variations caused by the solar wind. Two millisecond pulsars, PSRs J1730-2304 and J1824-2452A with ecliptic latitude of only 0.19 and -1.55 degree are ideal for this work as the line-of-sight to these pulsars goes very close to the Sun; the closest approach is only 0.8 and 5.8 solar radii respectively. We can use these two pulsars detect the different regions of the solar coronal, such as solar equator and south pole region. We also propose a unique study of the solar corona on small physical scales using the lines-of-sight to multiple pulsars in the M28 globular cluster. Dataset South pole Research Data Australia (Australian National Data Service - ANDS) Faraday ENVELOPE(-64.256,-64.256,-65.246,-65.246) Milky Way ENVELOPE(-68.705,-68.705,-71.251,-71.251) South Pole
institution Open Polar
collection Research Data Australia (Australian National Data Service - ANDS)
op_collection_id ftands
language unknown
topic pulsars
neutron stars
interstellar medium in and around the Milky Way
magnetic fields
Astronomical and Space Sciences not elsewhere classified
PHYSICAL SCIENCES
ASTRONOMICAL AND SPACE SCIENCES
spellingShingle pulsars
neutron stars
interstellar medium in and around the Milky Way
magnetic fields
Astronomical and Space Sciences not elsewhere classified
PHYSICAL SCIENCES
ASTRONOMICAL AND SPACE SCIENCES
Parkes observations for project P878 semester 2014OCTS
topic_facet pulsars
neutron stars
interstellar medium in and around the Milky Way
magnetic fields
Astronomical and Space Sciences not elsewhere classified
PHYSICAL SCIENCES
ASTRONOMICAL AND SPACE SCIENCES
description Measuring the magnetic field and electron density of the solar wind is essential in order to understand the properties of solar corona. Detection of dispersion measure (DM) and Faraday rotation measure (RM) of linearly polarized radio sources occulted by the solar wind provides a unique opportunity to measure these properties. Pulsars are therefore ideal sources for such study, especially for millisecond pulsars which can be used to obtain high timing precision to measure the DM variations caused by the solar wind. Two millisecond pulsars, PSRs J1730-2304 and J1824-2452A with ecliptic latitude of only 0.19 and -1.55 degree are ideal for this work as the line-of-sight to these pulsars goes very close to the Sun; the closest approach is only 0.8 and 5.8 solar radii respectively. We can use these two pulsars detect the different regions of the solar coronal, such as solar equator and south pole region. We also propose a unique study of the solar corona on small physical scales using the lines-of-sight to multiple pulsars in the M28 globular cluster.
author2 xiaopeng You (hasPrincipalInvestigator)
CSIRO (isManagedBy)
format Dataset
title Parkes observations for project P878 semester 2014OCTS
title_short Parkes observations for project P878 semester 2014OCTS
title_full Parkes observations for project P878 semester 2014OCTS
title_fullStr Parkes observations for project P878 semester 2014OCTS
title_full_unstemmed Parkes observations for project P878 semester 2014OCTS
title_sort parkes observations for project p878 semester 2014octs
publisher Commonwealth Scientific and Industrial Research Organisation
url https://researchdata.ands.org.au/parkes-observations-project-semester-2014octs/663496
op_coverage Temporal: From 2014-10-01 to 2015-03-31
long_lat ENVELOPE(-64.256,-64.256,-65.246,-65.246)
ENVELOPE(-68.705,-68.705,-71.251,-71.251)
geographic Faraday
Milky Way
South Pole
geographic_facet Faraday
Milky Way
South Pole
genre South pole
genre_facet South pole
op_source https://data.csiro.au/dap/
op_relation https://researchdata.ands.org.au/parkes-observations-project-semester-2014octs/663496
102.100.100/21627
_version_ 1766202167224434688