Data Package Metadata   View Summary

Annual summer single-day measurements of the thermal environment with a bio-meteorological sensor under trees, shade structures, and sun-exposed areas in the Rio Salado Park in Tempe, AZ, USA

General Information
Data Package:
Local Identifier:knb-lter-cap.698.2
Title:Annual summer single-day measurements of the thermal environment with a bio-meteorological sensor under trees, shade structures, and sun-exposed areas in the Rio Salado Park in Tempe, AZ, USA
Alternate Identifier:DOI PLACE HOLDER
Abstract:
We have measured the thermal environment/bio-meteorological conditions under trees, shade structures, and at sun-exposed locations in the Rio Salado Park in Tempe, AZ, USA annually since 2018 on a clear sky, hot, sunny day in June/July to track shade performance of newly planted trees over time. Measurements were taken with a mobile bio-meteorological weather station, known as MaRTy (Middel & Krayenhoff, 2019; DOI: 10.1016/j.scitotenv.2019.06.085). Since the measurement campaign began, some of the trees have died, were removed, or their environment has changed due to external events such as a bridge collapse (2020-07-29).
Publication Date:2022-03-22
Language:english
For more information:
Visit: https://sustainability.asu.edu/caplter/data/data-catalog/view/knb-lter-cap.698.1/xml/
Visit: DOI PLACE HOLDER

Time Period
Begin:
2018-06-22
End:
2021-07-08

People and Organizations
Contact:Information Manager (Central Arizona–Phoenix LTER) [  email ]
Creator:Schneider, Florian A (Arizona State University)
Creator:Middel, Ariane (Arizona State University)
Creator:Hondula, David (Arizona State University)
Creator:Vanos, Jennifer (Arizona State University)
Creator:Wright, Mary (Arizona State University)
Creator:McWest, Lolya (Arizona State University)
Creator:Broadbent, Ashley Mark (National Institute of Water and Atmospheric Research (NIWA) )
Creator:Meltzer, Samuel (Arizona State University)
Creator:Labato, Jianni (Arizona State University)

Data Entities
Data Table Name:
698_rio_salado_bioclimate.csv
Description:
Location-based bio-meteorological measurements from MaRTy at the Rio Salado Park in Tempe, Arizona, USA, partially processed to allow comparison between measurement locations
Detailed Metadata

Data Entities


Data Table

Data:https://pasta-s.lternet.edu/package/data/eml/knb-lter-cap/698/2/14dd873c21a804e14f4551223a8b0e54
Name:698_rio_salado_bioclimate.csv
Description:Location-based bio-meteorological measurements from MaRTy at the Rio Salado Park in Tempe, Arizona, USA, partially processed to allow comparison between measurement locations
Number of Records:438
Number of Columns:30

Time Period
Begin:
2018-06-22
End:
2021-07-07

Table Structure
Object Name:698_rio_salado_bioclimate.csv
Size:96682 bytes
Authentication:5fa228fc9850f9aeb78ae09fa6282e22 Calculated By MD5
Text Format:
Number of Header Lines:1
Record Delimiter:\r\n
Orientation:column
Simple Delimited:
Field Delimiter:,
Quote Character:"

Table Column Descriptions
 
Column Name:date_time  
DetrendedTime  
Site  
Shade  
ShadeType  
Shade_real  
SurfaceCover  
Latitude  
Longitude  
Altitude_m  
WindSpeed_ms  
WindDir_deg  
Tair_C_detrended  
Tair_C  
RH_percent  
Tsfc_C  
MRT_C_detrended  
MRT_C  
SR_left_Wm2  
SR_right_Wm2  
SR_front_Wm2  
SR_back_Wm2  
SR_up_Wm2  
SR_down_Wm2  
IR_left_Wm2  
IR_right_Wm2  
IR_front_Wm2  
IR_back_Wm2  
IR_up_Wm2  
IR_down_Wm2  
Definition:date and time of observationTime to which all measurements of a transect hour were detrended using a linear detrending factor based on air temperature changes at a reference locationlocation IDGeneral shade or sun-exposure definition of locationType of object shadingShade or sun-exposure of location at time of measurementType of surface at location at which the downward facing sensors are lookingObservation latitude measured with GPS16X Garmin GPS (height: 1.5m; accuracy: less than 3m; reacquisition time: less than 2s)Observation longitude measured with GPS16X Garmin GPS (height: 1.5m; accuracy: less than 3m; reacquisition time: less than 2s)Observation altitude above sea level measured with GPS16X Garmin GPS (height: 1.5m; accuracy: less than 3m; reacquisition time: less than 2s)Wind speed measured with Gill 2D WindSonic (height: 1.7 m; range: 0 to 60 m/s; accuracy +/- 2% at 12 m/s; response time: 0.25 seconds)Wind direction measured with Gill 2D WindSonic (height: 1.7 m; range: 0 to 60 m/s; accuracy +/- 2% at 12 m/s; response time: 0.25 seconds)Linearly detrended air temperature derived from Tair_C by subtracting the linear trend from the observed valuesAir temperature without detrending measured by Campbell Scientific EE181 Temperature and Relative Humidity Probe (height: 1.5 m; range: -40 to 60 C; accuracy: +/- 0.2 C at 23 C; sensor time constant [63% step change (1 m/s air flow at sensor)] is <= 22 s)relative humidity measured by Campbell Scientific EE181 Temperature and Relative Humidity Probe (Height: 1.5 m; Range: 0 to 100%; Accuracy: (1.4 + 0.01 * RH reading) % RH; Sensor Time Constant [63% of a 35 to 80% RH step change (1 m/s air flow at sensor)] Standard PE Filter: ≤22 s)Surface temperature derived from the infrared radiation measurement of the downward facing pyrgeometer (IR_down_Wm2)Linearly detrended mean radiant temperature detrended from MRT_C by subtracting the linear trend from the observed valuesMean radiant temperature without detrending derived value from 3-dimensional solar and infrared radiation observations (Thorsson et al. 2007; https://doi.org/10.1002/joc.1537)solar radiation from the left measured by Hukseflux NR01 Four-Component Net Radiation Sensor (height: 1.1 to 1.3 m; Range: 0 to 2000 W/m2; Accuracy: +/-10%; Response time: 18 s)solar radiation from the right measured by Hukseflux NR01 Four-Component Net Radiation Sensor (height: 1.1 to 1.3 m; Range: 0 to 2000 W/m2; Accuracy: +/-10%; Response time: 18 s)solar radiation from the front measured by Hukseflux NR01 Four-Component Net Radiation Sensor (height: 1.1 to 1.3 m; Range: 0 to 2000 W/m2; Accuracy: +/-10%; Response time: 18 s)solar radiation from the back measured by Hukseflux NR01 Four-Component Net Radiation Sensor (height: 1.1 to 1.3 m; Range: 0 to 2000 W/m2; Accuracy: +/-10%; Response time: 18 s)solar radiation from above measured by Hukseflux NR01 Four-Component Net Radiation Sensor (height: 1.1 to 1.3 m; Range: 0 to 2000 W/m2; Accuracy: +/-10%; Response time: 18 s)solar radiation from below measured by Hukseflux NR01 Four-Component Net Radiation Sensor (height: 1.1 to 1.3 m; Range: 0 to 2000 W/m2; Accuracy: +/-10%; Response time: 18 s)Infrared radiation from the left measured by Hukseflux NR01 Four-Component Net Radiation Sensor and corrected for internal temperature (height: 1.1 to 1.3 m; Range: 0 to 1000 W/m2; Accuracy: +/-10%; Response time: 18 s)Infrared radiation from the right measured by Hukseflux NR01 Four-Component Net Radiation Sensor and corrected for internal temperature (height: 1.1 to 1.3 m; Range: 0 to 1000 W/m2; Accuracy: +/-10%; Response time: 18 s)Infrared radiation from the front measured by Hukseflux NR01 Four-Component Net Radiation Sensor and corrected for internal temperature (height: 1.1 to 1.3 m; Range: 0 to 1000 W/m2; Accuracy: +/-10%; Response time: 18 s)Infrared radiation from the back measured by Hukseflux NR01 Four-Component Net Radiation Sensor and corrected for internal temperature (height: 1.1 to 1.3 m; Range: 0 to 1000 W/m2; Accuracy: +/-10%; Response time: 18 s)Infrared radiation from above measured by Hukseflux NR01 Four-Component Net Radiation Sensor and corrected for internal temperature (height: 1.1 to 1.3 m; Range: 0 to 1000 W/m2; Accuracy: +/-10%; Response time: 18 s)Infrared radiation from below measured by Hukseflux NR01 Four-Component Net Radiation Sensor and corrected for internal temperature (height: 1.1 to 1.3 m; Range: 0 to 1000 W/m2; Accuracy: +/-10%; Response time: 18 s)
Storage Type:date  
date  
string  
string  
string  
string  
string  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
float  
Measurement Type:dateTimedateTimenominalnominalnominalnominalnominalratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratioratio
Measurement Values Domain:
FormatYYYY-MM-DD hh:mm:ss
Precision
Formathh:mm:ss
Precision
Definitionlocation ID
Allowed Values and Definitions
Enumerated Domain 
Code Definition
Code0
Definitionsun-exposure
Source
Code Definition
Code1
Definitionshade
Source
Allowed Values and Definitions
Enumerated Domain 
Code Definition
Codebridge
Definitionbridge
Source
Code Definition
Codeexposed
Definitionexposed
Source
Code Definition
Codegazebo
Definitiongazebo
Source
Code Definition
Codeoverhang
Definitionoverhang
Source
Code Definition
Codetree
Definitiontree
Source
Allowed Values and Definitions
Enumerated Domain 
Code Definition
Code0
Definitionsun-exposure
Source
Code Definition
Code1
Definitionshade
Source
Allowed Values and Definitions
Enumerated Domain 
Code Definition
CodeConcrete
DefinitionConcrete
Source
Code Definition
CodeGrass
DefinitionGrass
Source
Code Definition
CodeSoil
DefinitionSoil
Source
Unitdegree
Typereal
Min33.4314202 
Max33.4323234 
Unitdegree
Typereal
Min-111.9487735 
Max-111.9433104 
Unitmeter
Typereal
Min289.19 
Max380.74 
UnitmeterPerSecond
Typereal
Min0.06 
Max5.71 
Unitdegree
Typereal
Min14.17 
Max347.03 
Unitcelsius
Typereal
Min33.28 
Max42.82 
Unitcelsius
Typereal
Min32.55 
Max42.96 
Unitpercent
Typereal
Min6.58 
Max29.27 
Unitcelsius
Typereal
Min26.2 
Max63.11 
Unitcelsius
Typereal
Min31.49 
Max74.92 
Unitcelsius
Typereal
Min32.7 
Max74.83 
UnitwattPerMeterSquared
Typereal
Min-13.39 
Max834.53 
UnitwattPerMeterSquared
Typereal
Min-13.17 
Max927.41 
UnitwattPerMeterSquared
Typereal
Min-17.14 
Max900.13 
UnitwattPerMeterSquared
Typereal
Min-11.12 
Max796.19 
UnitwattPerMeterSquared
Typereal
Min-16.1 
Max1246.1 
UnitwattPerMeterSquared
Typereal
Min-17.59 
Max275.32 
UnitwattPerMeterSquared
Typereal
Min434.39 
Max606.93 
UnitwattPerMeterSquared
Typereal
Min455.28 
Max611.18 
UnitwattPerMeterSquared
Typereal
Min444.16 
Max605.38 
UnitwattPerMeterSquared
Typereal
Min448.8 
Max613.21 
UnitwattPerMeterSquared
Typereal
Min370.05 
Max552.05 
UnitwattPerMeterSquared
Typereal
Min455.29 
Max724.95 
Missing Value Code:                                                            
Accuracy Report:                                                            
Accuracy Assessment:                                                            
Coverage:                                                            
Methods:                                                            

Data Package Usage Rights

This data package is released to the "public domain" under Creative Commons CC0 1.0 "No Rights Reserved" (see: https://creativecommons.org/publicdomain/zero/1.0/). The consumer of these data ("Data User" herein) has an ethical obligation to cite it appropriately in any publication that results from its use. The Data User should realize that these data may be actively used by others for ongoing research and that coordination may be necessary to prevent duplicate publication. The Data User is urged to contact the authors of these data if any questions about methodology or results occur. Where appropriate, the Data User is encouraged to consider collaboration or coauthorship with the authors. The Data User should realize that misinterpretation of data may occur if used out of context of the original study. While substantial efforts are made to ensure the accuracy of data and associated documentation, complete accuracy of data sets cannot be guaranteed. All data are made available "as is". The Data User should be aware, however, that data are updated periodically and it is the responsibility of the Data User to check for new versions of the data. The data authors and the repository where these data were obtained shall not be liable for damages resulting from any use or misinterpretation of the data. Thank you.

Keywords

By Thesaurus:
LTER controlled vocabularyurban, trees
LTER core areasland use and land cover change, human-environment interactions, climate and heat
Creator Defined Keyword Setradiant, shade, urban climate, human-biometeorological cart, biometeorology
CAPLTER Keyword Set Listcap lter, cap, caplter, central arizona phoenix long term ecological research, arizona, az, arid land, marty

Methods and Protocols

These methods, instrumentation and/or protocols apply to all data in this dataset:

Methods and protocols used in the collection of this data package
Description:
We measured the shade performance of trees that were planted in 2017 in the Rio Salado Park by conducting stop-and-go traverses with the mobile weather station, MaRTy (Middel & Krayenhoff, 2019). MaRTy is equipped with multiple sensors to simultaneously measure all physical variables relevant to the thermal environment: air temperature, humidity, wind speed, and radiant energy flux densities at two-second intervals, while tracking location. For detailed information about each sensor used, refer to the attribute metadata table or Middel & Krayenhoff, 2019. Mean radiant temperature (Tmrt) is calculated using the observations from three net radiometers that are positioned to capture shortwave and longwave radiation from all four cardinal directions, as well as above and below, accounting for the angular factors of a human body, but assuming default clothing characteristics (Thorsson et al., 2007). Each measurement at a given location of interest took 1-minute to minimize sensor lag and measure constant conditions over 30-45 seconds. All locations of interest were measured within one hour. That allows to use a linear detrending process that corrects air and mean radiant temperature based on air temperature changes within the hour at a given reference location. Location-based detrended results are more comparable and consider the temporal changes in air temperature (warming/cooling/stagnant) across the area within the transect hour. - Middel A, Krayenhoff ES. Micrometeorological determinants of pedestrian thermal exposure during record-breaking heat in Tempe, Arizona: Introducing the MaRTy observational platform. Sci Total Environ. 2019 Oct 15;687:137-151. doi: 10.1016/j.scitotenv.2019.06.085. Epub 2019 Jun 7. PMID: 31207504. - Thorsson, S., Lindberg, F., Eliasson, I., & Holmer, B. (2007). Different methods for estimating the mean radiant temperature in an outdoor urban setting. International Journal of Climatology, 27(14), 1983–1993. https://doi.org/10.1002/joc.1537

People and Organizations

Publishers:
Organization:Environmental Data Initiative
Email Address:
info@environmentaldatainitiative.org
Web Address:
https://environmentaldatainitiative.org
Id:https://ror.org/0330j0z60
Creators:
Individual: Florian A Schneider
Organization:Arizona State University
Email Address:
Florian.Schneider@asu.edu
Id:https://orcid.org/0000-0003-4250-5720
Individual: Ariane Middel
Organization:Arizona State University
Email Address:
Ariane.Middel@asu.edu
Id:https://orcid.org/0000-0002-1565-095X
Individual: David Hondula
Organization:Arizona State University
Email Address:
david.hondula@asu.edu
Id:https://orcid.org/0000-0003-2465-2671
Individual: Jennifer Vanos
Organization:Arizona State University
Email Address:
jvanos@asu.edu
Id:https://orcid.org/0000-0003-1854-9096
Individual: Mary Wright
Organization:Arizona State University
Email Address:
Mary.K.Wright@asu.edu
Id:https://orcid.org/0000-0002-5931-0260
Individual: Lolya McWest
Organization:Arizona State University
Email Address:
lmcwest@asu.edu
Individual: Ashley Mark Broadbent
Organization:National Institute of Water and Atmospheric Research (NIWA)
Email Address:
ashley.broadbent@niwa.co.nz
Id:https://orcid.org/0000-0003-1906-8112
Individual: Samuel Meltzer
Organization:Arizona State University
Email Address:
samuel.meltzer@asu.edu
Individual: Jianni Labato
Organization:Arizona State University
Email Address:
jlabato@asu.edu
Contacts:
Organization:Central Arizona–Phoenix LTER
Position:Information Manager
Address:
Arizona State University,
Global Institute of Sustainability and Innovation,
Tempe, AZ 85287-5402 USA
Email Address:
caplter.data@asu.edu
Web Address:
https://sustainability-innovation.asu.edu/caplter/
Metadata Providers:
Individual: Florian A Schneider
Organization:Arizona State University
Email Address:
Florian.Schneider@asu.edu
Id:https://orcid.org/0000-0003-4250-5720

Temporal, Geographic and Taxonomic Coverage

Temporal, Geographic and/or Taxonomic information that applies to all data in this dataset:

Time Period
Begin:
2018-06-22
End:
2021-07-08
Geographic Region:
Description:Rio Salado Park in Tempe, Arizona, USA - part of the CAP LTER study area
Bounding Coordinates:
Northern:  33.4323Southern:  33.4314
Western:  -111.9488Eastern:  -111.9433

Temporal, Geographic and/or Taxonomic information that applies to Data Table: 698_rio_salado_bioclimate.csv


Time Period
Begin:
2018-06-22
End:
2021-07-07

Project

Parent Project Information:

Title:Central Arizona–Phoenix Long-Term Ecological Research Project
Personnel:
Individual: Daniel Childers
Organization:Arizona State University
Email Address:
dan.childers@asu.edu
Id:https://orcid.org/0000-0003-3904-0803
Role:Principal Investigator
Individual: Nancy Grimm
Organization:Arizona State University
Email Address:
nbgrimm@asu.edu
Id:https://orcid.org/0000-0001-9374-660X
Role:Co-principal Investigator
Individual: Sharon Hall
Organization:Arizona State University
Email Address:
sharonjhall@asu.edu
Id:https://orcid.org/0000-0002-8859-6691
Role:Co-principal Investigator
Individual: Billie Turner II
Organization:Arizona State University
Email Address:
Billie.L.Turner@asu.edu
Id:https://orcid.org/0000-0002-6507-521X
Role:Co-principal Investigator
Individual: Abigail York
Organization:Arizona State University
Email Address:
Abigail.York@asu.edu
Id:https://orcid.org/0000-0002-2313-9262
Role:Co-principal Investigator
Abstract:Phase IV of the Central Arizona-Phoenix LTER (CAP) continues to focus on the question: How do the ecosystem services provided by urban ecological infrastructure (UEI) affect human outcomes and behavior, and how do human actions affect patterns of urban ecosystem structure and function and, ultimately, urban sustainability and resilience? The overarching goal is to foster social-ecological urban research aimed at understanding these complex systems using a holistic, ecology of cities perspective while contributing to an ecology for cities that enhances urban sustainability and resilience. This goal is being met through four broad programmatic objectives: (1) use long-term observations and datasets to articulate and answer new questions requiring a long-term perspective; (2) develop and use predictive models and future-looking scenarios to help answer research questions; (3) employ existing urban ecological theory while articulating new theory; and (4) build transdisciplinary partnerships to foster resilience and enhance sustainability in urban ecosystems while educating urban dwellers of all ages and experiences. CAP IV research is organized around eight interdisciplinary questions and ten long-term datasets and experiments, and researchers are organized into eight Interdisciplinary Research Themes to pursue these long-term research questions.
Funding: NSF Awards: CAP I: DEB-9714833, CAP II: DEB-0423704, CAP III: DEB-1026865, CAP IV: DEB-1832016
Additional Award Information:
Funder:National Science Foundation
Funder ID:https://ror.org/021nxhr62
Number:1832016
Title:LTER: CAP IV - Investigating urban ecology and sustainability through the lens of Urban Ecological Infrastructure
URL:https://nsf.gov/awardsearch/showAward?AWD_ID=1832016&HistoricalAwards=false

Maintenance

Maintenance:
Description:this dataset is complete and or updates are not anticipated
Frequency:notPlanned
Other Metadata

EDI is a collaboration between the University of New Mexico and the University of Wisconsin – Madison, Center for Limnology:

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