데이터셋 상세
미국
Data from: Shanahan, E., Wright, W.J., K.M. Irvine (2021) Adaptive Monitoring in Action: Reconsidering Design-based Estimators Reveals Underestimation of Whitebark Pine Disease Prevalence in the Greater Yellowstone Ecosystem. Journal of Applied Ecology
Download the Excel file and read worksheet 'Field Descriptions'
연관 데이터
Data from: Shanahan, E., Wright, W.J., K.M. Irvine (2021) Adaptive Monitoring in Action: Reconsidering Design-based Estimators Reveals Underestimation of Whitebark Pine Disease Prevalence in the Greater Yellowstone Ecosystem. Journal of Applied Ecology
공공데이터포털
Download the Excel file and read worksheet 'Field Descriptions'
Summary Data from Greater Yellowstone Ecosystem Interagency Whitebark Pine Long Term Monitoring Program
공공데이터포털
This summary data set in Microsoft Excel format is from the master relational database for whitebark pine pine tree monitoring starting in 2004 at permanent, long term monitoring plots on federally administered lands throughout the Greater Yellowstone Ecosystem.
Summary Data from Greater Yellowstone Ecosystem Interagency Whitebark Pine Long Term Monitoring Program
공공데이터포털
This summary data set in Microsoft Excel format is from the master relational database for whitebark pine pine tree monitoring starting in 2004 at permanent, long term monitoring plots on federally administered lands throughout the Greater Yellowstone Ecosystem.
Data used for : "Effects of culling white-tailed deer on tree regeneration and Microstegium vimineum, an invasive grass" by John Paul Schmit, Elizabeth R. Matthews, and Andrejs Brolis
공공데이터포털
Data used for analysis in publication
Data used for : "Effects of culling white-tailed deer on tree regeneration and Microstegium vimineum, an invasive grass" by John Paul Schmit, Elizabeth R. Matthews, and Andrejs Brolis
공공데이터포털
Data used for analysis in publication
NCCN Forest Vegetation Monitoring Data Package, 2005-2018
공공데이터포털
This data package contains North Coast and Cascades Network (NCCN) Inventory and Monitoring Program forest vegetation tabular data collected during 2005-2018 in Mount Rainier National Park (MORA), North Cascades National Park (NOCA), Olympic National Park (OLYM), and Lewis and Clark National Historical Park (LEWI). The protocol, publications, and all other associated links can be found in the project reference at: https://irma.nps.gov/DataStore/Reference/Profile/2182054. The diverse environmental conditions of the Pacific Northwest support various forest types, from coastal rainforests to subalpine fir forests, often containing mature forests that have not experienced recent stand-replacing disturbances. The North Coast and Cascades Network (NCCN) encompasses eight National Park Service units in the Pacific Northwest, with five parks featuring significant forest areas: Lewis and Clark National Historical Park (LEWI), Mount Rainier National Park (MORA), North Cascades National Park Service Complex (NOCA), Olympic National Park (OLYM), and San Juan Island National Historical Park (SAJH). Mature forests are integral to the character of these parks, and represent essential carbon stores and carbon sequestration potential. As such, forest vegetation has been identified as a key park ecosystem component in the development of NCCN's monitoring protocols. The primary objectives of the NCCN's forest monitoring program include tracking trends in tree recruitment, growth, mortality, and overall forest structure and composition, all as measures of forest health and integrity. Monitoring occurred in permanent one-hectare plots designed to align with the Forest Inventory and Analysis (FIA) program methodologies, incorporating a hierarchy of subplots for efficient data collection. These plots were designed to represent various forest types across the three large parks, focusing on warm-wet, cold-dry, and mid-elevation environments. Additionally, forests in the smaller parks were monitored with broader definitions of forest types. Specific parameters that were monitored include tree dimensions and health indicators, snag density and size, and environmental factors such as soil properties and landscape position. Complete measurements occurred every five years, while previously tagged trees were monitored annually for mortality to be able to detect short-term changes in tree condition. This comprehensive monitoring approach provides insights into the ecological dynamics of forest ecosystems, aiming to minimize the effects of succession while recognizing the significance of changing disturbance patterns (which have been monitored using remotely sensed imagery following a separate protocol, see https://irma.nps.gov/DataStore/Reference/Profile/2097545). This program aimed to detect subtle ecological changes, offering critical data for effective management of Pacific Northwest ecosystems amid ongoing environmental challenges.
NCCN Forest Vegetation Monitoring Data Package, 2005-2018
공공데이터포털
This data package contains North Coast and Cascades Network (NCCN) Inventory and Monitoring Program forest vegetation tabular data collected during 2005-2018 in Mount Rainier National Park (MORA), North Cascades National Park (NOCA), Olympic National Park (OLYM), and Lewis and Clark National Historical Park (LEWI). The protocol, publications, and all other associated links can be found in the project reference at: https://irma.nps.gov/DataStore/Reference/Profile/2182054. The diverse environmental conditions of the Pacific Northwest support various forest types, from coastal rainforests to subalpine fir forests, often containing mature forests that have not experienced recent stand-replacing disturbances. The North Coast and Cascades Network (NCCN) encompasses eight National Park Service units in the Pacific Northwest, with five parks featuring significant forest areas: Lewis and Clark National Historical Park (LEWI), Mount Rainier National Park (MORA), North Cascades National Park Service Complex (NOCA), Olympic National Park (OLYM), and San Juan Island National Historical Park (SAJH). Mature forests are integral to the character of these parks, and represent essential carbon stores and carbon sequestration potential. As such, forest vegetation has been identified as a key park ecosystem component in the development of NCCN's monitoring protocols. The primary objectives of the NCCN's forest monitoring program include tracking trends in tree recruitment, growth, mortality, and overall forest structure and composition, all as measures of forest health and integrity. Monitoring occurred in permanent one-hectare plots designed to align with the Forest Inventory and Analysis (FIA) program methodologies, incorporating a hierarchy of subplots for efficient data collection. These plots were designed to represent various forest types across the three large parks, focusing on warm-wet, cold-dry, and mid-elevation environments. Additionally, forests in the smaller parks were monitored with broader definitions of forest types. Specific parameters that were monitored include tree dimensions and health indicators, snag density and size, and environmental factors such as soil properties and landscape position. Complete measurements occurred every five years, while previously tagged trees were monitored annually for mortality to be able to detect short-term changes in tree condition. This comprehensive monitoring approach provides insights into the ecological dynamics of forest ecosystems, aiming to minimize the effects of succession while recognizing the significance of changing disturbance patterns (which have been monitored using remotely sensed imagery following a separate protocol, see https://irma.nps.gov/DataStore/Reference/Profile/2097545). This program aimed to detect subtle ecological changes, offering critical data for effective management of Pacific Northwest ecosystems amid ongoing environmental challenges.
Weather Suitability, 2010-2099, Greater Yellowstone Ecosystem Study Area
공공데이터포털
Estimates of weather suitability for the occurrence of mortality in whitebark pine from mountain pine beetles as determined from a logistic generalized additive model of the presence of mortality as functions of the number of trees killed last year, the percent whitebark pine in each cell, minimum winter temperature, average fall temperature, avverage April-Aug temperature, and cummulative current and previous year summer precipitation. Analysis done at a 1km grid cell resolution. Weather suitability index calculated by summing the weather terms in the model. Calculated for 2010 through 2099 based on downscaled data from various emissions scenarios. GCMs include: BCC, CanESM, CCSM, CESM, CESM-BGC, CMCC, CNRM, Had-CC, Had-ES, and IPSL. RCPs vary from 2.6 to 8.5 depending on run. GCM/RCP combination is listed in the filename. Data are a list of points in comma separated text format. Point coordinates are the center of each 1km grid cell. GCM data from the NASA NEX DCP30 data base
Greater Yellowstone Ecosystem Weather Suitability 1901 2009
공공데이터포털
Estimates of weather suitability for the occurrence of mortality in whitebark pine from mountain pine beetles as determined from a logistic generalized addtitive model of the presence of mortality as functions of the number of trees killed last year, the percent whitebark pine in each cell, minimum winter temperature, average fall temperature, avverage April-Aug temperature, and cummulative current and previous year summer precipitation. Analysis done at a 1km grid cell resolution. Weather suitability index calculated by summing the weather terms in the model. Calculated for 1991 through 2009 based on 800 meter PRISM weather data. Data are a list of points in comma separated text format. Point coordinates are the center of each 1km grid cell.