Assessing high-impacts of climate change: spatial characteristics and relationships of hydrological ecosystem services in Northern Japan (Teshio river watershed)
Min Fan1, 3*, Hideaki Shibata2,Li Chen1
Journal: Mitigation and Adaptation Strategies for Global Change
(*) Corresponding Author:
Min Fan
School of Environment andResource
Southwest University of Science and Technology
Number 59, Middle of Qinglong Road, Fucheng District, Mianyang621-010, Sichuan, China
Tel: +8608166089459; Fax: +8608166089453
E-mail:
This document contains supplementary materials for the article “ Assessing high-impacts of climate change: spatial characteristics and relationships of hydrological ecosystem services in Northern Japan (Teshio river watershed) ”. All figures are from lacunarity estimation, tradeoffs and synergies of multiple ecosystem services under climate change.
Figures
Fig. A-1The individual and multiple scale maps of inorganic-N retention (kg N ha-1) under climate change
Fig. A-2Lacunarity curves of individual grey scale ecosystem services under climate change. Lacunarity variation (Y) based on window size (X, ×100 m)
Fig. A-3Spatial patterns of six hydrological ecosystem services (Water yield unit: mmH2O ha-1, Inorganic-N retention unit: kg N ha-1, Inorganic-P retention unit: kg P ha-1, sediment retention unit: Mg ha-1, Organic-N retention unit: kg N ha-1, Organic-P retention unit: kg P ha-1) under climate change
Fig. A-4The relationships of tradeoffs and synergies among multiple ecosystem services under climate change
Tables
TableA-1The detailed setting information on individual and multiple grey scale maps of hydrolgocial ecosystem services
(a) Individual scale map(with class one category scale legend) / (b) Individual scale map
(with class two category scale legend)
(c) Individual scale map
(with class three category scale legend) / (d) Individual scale map
(with class four category scale legend)
(e) Multiple scale maps
(with class one ~ class four categories four scales legends)
Fig. A-1The individual and multiple scale maps of inorganic-N retention (kg N ha-1) under climate change
(a) Inorganic-N retention(b) Inorganic-P retention
(c) Organic-N retention
(d) Organic-P retention
(e) Sediment retention
(f) Water yield
Fig. A-2Lacunarity curves of individual grey scale ecosystem services under climate change. Lacunarity variation (Y) based on window size (X, ×100 m)
(a) Water yield / (b) Inorganic-N retention(c) Inorganic-P retention / (d) Sediment retention
(e) Organic-N retention / (f) Organic-P retention
Fig. A-3Spatial patterns of six hydrological ecosystem services (Water yield unit: mmH2O ha-1, Inorganic-N retention unit: kg N ha-1, Inorganic-P retention unit: kg P ha-1, sediment retention unit: Mg ha-1, Organic-N retention unit: kg N ha-1, Organic-P retention unit: kg P ha-1) under climate change
(a) Tradeoff between inorganic-N retention and organic-N retention(b) Tradeoff between inorganic-N retention and organic-P retention
(c) Tradeoff between inorganic-N retention and water yield
(d) Tradeoff between inorganic-P retention and organic-N retention
(e) Tradeoff between inorganic-P retention and organic-P retention
(f) Tradeoff between inorganic-P retention and sediment retention
(g) Tradeoff between inorganic-P retention and water yield
(h) Synergy between organic-N retention and water yield
(i) Synergy between organic-P retention and sediment retention
(j) Synergy between organic-P retention and water yield
(k) Synergy between sediment retention and water yield
Fig. A-4.The relationships of tradeoffs and synergies among multiple ecosystem services under climate change
Table A-1 The detailed setting information on individual and multiple grey scale maps of hydrolgocial ecosystem services under baseline climate conditions and climate change
Ecosystem service / Grey scaleIndividual grey scale (with only one scale legend) / Multiple grey scale (with four scales legends)
Individual classified ecosystem service category / All four classified ecosystem services categories
Inorganic-N retention
(kg N/ha) / Class one inorganic-N retention category / Class one ~ four inorganic-N retention categories
Class two inorganic-N retention category
Class three inorganic-N retention category
Class four inorganic-N retention category
Inorganic-P retention
(kg P/ha) / Class one inorganic-P retention category / Class one ~ four inorganic-P retention categories
Class two inorganic-P retention category
Class three inorganic-P retention category
Class four inorganic-P retention category
Organic-N retention
(kg N/ha) / Class one organic-N retention category / Class one ~ four organic-N retention categories
Class two organic-N retention category
Class three organic-N retention category
Class four organic-N retention category
Organic-P retention
(kg P/ha) / Class one organic-P retention category / Class one ~ four organic-P retention categories
Class two organic-P retention category
Class three organic-P retention category
Class four organic-P retention category
Sediment retention (Mg/ha) / Class one sediment retention category / Class one ~ four sediment retention categories
Class two sediment retention category
Class three sediment retention category
Class four sediment retention category
Water yield (mmH2O/ha) / Class one water yield category / Class one ~ four water yield categories
Class two water yield category
Class three water yield category
Class four water yield category
Note: The individual grey scale maps of hydrological ecosystem services meant each classified level of hydrololgical ecosystem services (with only one scale legend), however, the multiple grey scale maps of hydrological ecosystem services meant all four classified level of hydrological ecosystem services (with four scales legend). For each climate change scenario, the numbers of individual and multiple grey scale maps of hydrological ecosystem services were 24 and 6, respectively. Therefore, the total number of individual and multiple grey scale maps of hydrological ecosystem services under baseline climate conditions and climate change was 60.