Data from: Transport of magma in granitic mush systems; An example from the Götemar pluton, Sweden

SND-ID: 2023-206. Version: 1. DOI: https://doi.org/10.58141/3w7y-3n17

Citation

Creator/Principal investigator(s)

Tobias Mattsson - Stockholm University, Department of Geological Sciences orcid

William McCarthy - University of St Andrews, School of Earth and Environmental Sciences orcid

Tobias Schmiedel - TU Delft, Faculty of Civil Engineering and Geosciences orcid

Research principal

Stockholm University - Department of Geological Sciences rorId

Description

Data collected for a study on magma transport in the Götemar mushy granite pluton.

The data were generated for the study:
Mattsson, T., McCarthy, W., & Schmiedel, T. (2024). Transport of magma in granitic mush systems; an example from the Götemar pluton, Sweden. Geochemistry, Geophysics, Geosystems, 25, e2023GC011061. https://doi.org/10.1029/2023GC011061

Description of the data, variables and file format are provided in attached the README file and Variable codebook.

Below follow a short description of the methods used to collect the data.
We mapped magma transport features by tracing magma sheet contacts with tracks using a handheld GPS. The orientation (strike and dip) of magma transport features was measured with an electronic compass using an Iphone 8. 53 granite samples were collected from the Götemar granite. Between six and 27 (avg. 15 per sample), 25 mm × 22 mm core (sub)specimens were extracted from each of the oriented block samples and were used for rock magnetic analysis undertaken at the M3Ore lab at the University of St. Andrews. The cores were analysed with Anisotropy of Magn

... Show more..
Data collected for a study on magma transport in the Götemar mushy granite pluton.

The data were generated for the study:
Mattsson, T., McCarthy, W., & Schmiedel, T. (2024). Transport of magma in granitic mush systems; an example from the Götemar pluton, Sweden. Geochemistry, Geophysics, Geosystems, 25, e2023GC011061. https://doi.org/10.1029/2023GC011061

Description of the data, variables and file format are provided in attached the README file and Variable codebook.

Below follow a short description of the methods used to collect the data.
We mapped magma transport features by tracing magma sheet contacts with tracks using a handheld GPS. The orientation (strike and dip) of magma transport features was measured with an electronic compass using an Iphone 8. 53 granite samples were collected from the Götemar granite. Between six and 27 (avg. 15 per sample), 25 mm × 22 mm core (sub)specimens were extracted from each of the oriented block samples and were used for rock magnetic analysis undertaken at the M3Ore lab at the University of St. Andrews. The cores were analysed with Anisotropy of Magnetic Susceptibility using a KLY-5 Kappabridge using a 3D automatic spinning holder in a field 400 A/m and with a frequency of 1440 Hz. To characterise the magnetic mineralogy we used several different remanent magnetization techniques on the cores including, Isothermal remanent magnetization and demagnetization, Anhysteretic remanent magnetization and demagnetization, Natural remanent demagnetization and 3-component demagnetization measurements. Core specimen magnetization was measured in a shielded room with a Agico JR-6a Magnetometer. Core specimens were magnetized with a Magnetic Instruments pulse magnetizer and Agico PAM pulse and anhysteretic magnetizer. Core specimens were demagnetized with a LDA5 Agico Alternating Field demagnetizer and a MMTD thermal demagnetizer. Show less..

Data contains personal data

No

Language

Method and outcome

Time period(s) investigated

2020-06-15 – 2023-06-17

Variables

160

Data format / data structure

Data collection

Data collection 1

  • Mode of collection: Observation
  • Description of the mode of collection: Measuring geological structures
  • Time period(s) for data collection: 2020-08-17 – 2022-11-13
  • Instrument: Compass (Technical instrument(s))
  • Instrument: Electronical compass - Iphone 8 gyrometer and accelerometer

Data collection 2

  • Mode of collection: Measurements and tests
  • Description of the mode of collection: Anisotropy of magnetic susceptibility
  • Time period(s) for data collection: 2020-10-10 – 2022-08-16
  • Instrument: Kappabridge KLY5 (Technical instrument(s)) - Magnetic susceptibility magnetometer

Data collection 3

  • Mode of collection: Measurements and tests
  • Description of the mode of collection: Magnetic Remanence
  • Time period(s) for data collection: 2021-01-31 – 2022-08-17
  • Instrument: Agico LDA5 (Technical instrument(s)) - Alternating current demagnetizer
  • Instrument: Magnetic Measurements Pulse Magnetizer (Technical instrument(s)) - Pulse Magnetizer
  • Instrument: JR6-a magnetometer (Technical instrument(s)) - Spinner magnetometer for measuring magnetic remanence
  • Instrument: MMTD Magnetic Measurements Thermal Demagnetizer (Technical instrument(s)) - Furnace for thermal demagnetizing of sample
  • Instrument: PAM1 Pulse and Anhysteretic Magnetizer (Technical instrument(s)) - Pulse and Anhesteretic Magnetizer
... Show more..

Data collection 1

  • Mode of collection: Observation
  • Description of the mode of collection: Measuring geological structures
  • Time period(s) for data collection: 2020-08-17 – 2022-11-13
  • Instrument: Compass (Technical instrument(s))
  • Instrument: Electronical compass - Iphone 8 gyrometer and accelerometer

Data collection 2

  • Mode of collection: Measurements and tests
  • Description of the mode of collection: Anisotropy of magnetic susceptibility
  • Time period(s) for data collection: 2020-10-10 – 2022-08-16
  • Instrument: Kappabridge KLY5 (Technical instrument(s)) - Magnetic susceptibility magnetometer

Data collection 3

  • Mode of collection: Measurements and tests
  • Description of the mode of collection: Magnetic Remanence
  • Time period(s) for data collection: 2021-01-31 – 2022-08-17
  • Instrument: Agico LDA5 (Technical instrument(s)) - Alternating current demagnetizer
  • Instrument: Magnetic Measurements Pulse Magnetizer (Technical instrument(s)) - Pulse Magnetizer
  • Instrument: JR6-a magnetometer (Technical instrument(s)) - Spinner magnetometer for measuring magnetic remanence
  • Instrument: MMTD Magnetic Measurements Thermal Demagnetizer (Technical instrument(s)) - Furnace for thermal demagnetizing of sample
  • Instrument: PAM1 Pulse and Anhysteretic Magnetizer (Technical instrument(s)) - Pulse and Anhesteretic Magnetizer

Data collection 4

  • Mode of collection: Measurements and tests
  • Description of the mode of collection: GPS trace of microgranite sheet contact
  • Time period(s) for data collection: 2021-03-17 – 2022-08-17
  • Instrument: GPS (Technical instrument(s))
Show less..
Geographic coverage

Geographic spread

Geographic location: Oskarshamn Municipality, Misterhult Parish, Misterhult Parish, Oskarshamn Parish

Geographic description: Data from the Götemar granite pluton north of Oskarshamn

Administrative information

Responsible department/unit

Department of Geological Sciences

Funding

  • Funding agency: Swedish Research Council rorId
  • Funding agency's reference number: 2019-06300
  • Project name on the application: Deformation and melt extraction from magma chambers
Topic and keywords

Research area

Geology (Standard för svensk indelning av forskningsämnen 2011)

Geoscientific information (INSPIRE topic categories)

Publications

Mattsson, T., McCarthy, W., & Schmiedel, T. (2024). Transport of magma in granitic mush systems; an example from the Götemar pluton, Sweden. Geochemistry, Geophysics, Geosystems, 25, e2023GC011061. https://doi.org/10.1029/2023GC011061
DOI: https://doi.org/10.1029/2023GC011061

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Published: 2023-10-06
Last updated: 2024-01-08