Keane, B.; Ineson, P.

Soil respiration under Miscanthus x giganteus and an adjacent barley crop

Data collected during a field experiment investigating the differences between greenhouse gas (GHG) fluxes under a bioenergy crop Miscanthus x giganteus and a conventional arable crop, barley (Hordeum vulgare) on adjacent fields. Measurements taken include soil respiration (Rs) measured using Licor automated chambers and infrared gas analyser (IRGA), from collars excluding aboveground vegetation but not roots. Ancillary measurements included meteorological variables (air temperature and solar radiation) and soil variables (soil moisture and temperature at 5 cm depth). Data were collected between May and September 2013.

Publication date: 2017-03-09

Get the data

Download the data

Supporting documentation

Format of the dataset : Comma-separated values (CSV)

This dataset is made available under the terms of the Open Government Licence

You must cite: Keane, B.; Ineson, P. (2017). Soil respiration under Miscanthus x giganteus and an adjacent barley crop. NERC Environmental Information Data Centre. https://doi.org/10.5285/c397d6f4-96f4-4967-a0df-c64ef35ea572

 

The following copyright statement is also required: "© University of York"

Where/When

Study area
Temporal extent
2013-05-01    to    2013-09-30

Provenance & quality

Soil respiration (Rs) was measured using automated chambers and infrared gas analysers (IRGA, Licor LI-8100-101A, Lincoln NE, USA) with multiplexers (Electronic workshops, Department of Biology, University of York, York UK) beneath a seven year-old stand of Miscanthus and an April-sown spring barley in adjacent fields on a farm in the east of the United Kingdom, with one IRGA and one multiplexer deployed in each crop. Chambers (n= 6) were placed at random within separate plots at least 1.5 m apart in the two fields and were seated over PVC collars (diameter 20 cm, height 10 cm) which were inserted ca. 2 cm into the soil in order to minimise the effect of cutting fine roots and these remained in situ throughout the study, which was undertaken from May to August 2013. The chambers were programmed to close for two minutes during measurement, with a 30 second 'dead band' to allow for mixing of the headspace, in a continuous cycle between chambers. Collars did not exclude roots and no above-ground vegetation was included. Soil temperature and moisture at 5 cm depth were also measured every 15 minutes adjacent to each chamber collar and averaged over hourly intervals using vertically-installed sensors (Delta-T DL2 and GP1 loggers, SM200 soil moisture probes and ST1 temperature probes; Delta-T, Cambridge UK), and hourly meteorological data (solar radiation, air temperature) were recorded onsite using a weather station (WP1, Delta-T, Cambridge UK). Rs fluxes were calculated as linear regressions of CO2 concentration against time and corrected for volume and temperature using the manufacturer's software (see manufacturer's manual https://www.licor.com/documents/jtpq4vg358reu4c8r4id.pdf).

Correspondence/contact details

Ben Keane
University of York
Stockholm Environment Institute at York
York
UK
ben.keane@york.ac.uk

Authors

Keane, B.
University of York
Ineson, P.
University of York

Other contacts

Custodian
Environmental Information Data Centre
eidc@ceh.ac.uk
Publisher
NERC Environmental Information Data Centre
eidc@ceh.ac.uk

Spatial

Spatial representation type
Spatial reference system
EPSG::CRS:84

Tags

Topic categories
Environment , Geoscientific Information
Keywords
barley,  carbon dioxide (CO2),  diurnal patterns,  greenhouse gas (GHG),  Lincolnshire Miscanthus x giganteus PAR,  photosynthesis,  Soil respiration,  solar radiation
INSPIRE Theme
Soil