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1 Spatial Modelling of the Terrestrial Environment - Georeferencial

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268 Index<br />

Bi-spectral InfraRed Detection (BIRD) (cont.)<br />

usefulness <strong>of</strong> higher spatial resolution 189–90,<br />

190<br />

bias, in statistical analysis 116–17, 120<br />

biodiversity, Lake Tanganyika catchment 158<br />

biodiversity monitoring, <strong>of</strong> remote locations 5<br />

biomass burning 177<br />

biomass combustion estimates 182, 184, 184<br />

boundary friction 79<br />

built-form connectivity models 5, 204–11<br />

Kruger’s original model 204–8<br />

recognition <strong>of</strong> built-form constellations 211–18<br />

a region-based, graph-topological implementation<br />

209–11<br />

built-form spatial structure 210–11<br />

built-form connectivity model 209<br />

representation <strong>of</strong> regional morphology/spatial<br />

structure 209–10<br />

pre-processing 211<br />

built-form constellation structure 218–23<br />

built-form unit area 220, 221<br />

mixed land-use categories 220<br />

built-form unit compactness 220–3<br />

built-form unit packing and density 218–19<br />

built-form constellations 211–18<br />

containment relation<br />

analysis <strong>of</strong> for corresponding node set in XRAG<br />

211–12, 213<br />

summary information on for scene as a whole<br />

213–15, 214<br />

depth-first graph-searching algorithm, use <strong>of</strong><br />

215–16<br />

relations encapsulating hierarchical containment<br />

patterns 216–18<br />

Cambridgeshire, UK<br />

building <strong>the</strong> Cambridgeshire model 235–7<br />

calibration data sources 235<br />

land use model 236<br />

transport model 236–7, 236<br />

examination <strong>of</strong> planning strategy (1996–2000) 229<br />

formulating and testing a sustainable policy<br />

package 237–9<br />

environmental problems needing solutions 238<br />

planning problems <strong>of</strong> rapid growth 237–8<br />

modelling emissions impact in 235–41<br />

emissions impact <strong>of</strong> <strong>the</strong> policy scenarios 239–41<br />

reference case and policy case and scenarios 235,<br />

238–9<br />

wide area estimates <strong>of</strong> emissions concentrations<br />

required 234–5<br />

Canadian Meteorological Center 37<br />

catchment-based LSM 250, 259<br />

river channel routing 93<br />

Chavenet principle 121<br />

climate change studies, and snow 35<br />

climate prediction and snow extent/volume 37<br />

climate system, impacts <strong>of</strong> ice sheets on 13–14<br />

cloud masking technique 165, 159–60<br />

coastal zone colour scanner 110<br />

Cold Lands Processes Experiment (CLPX) 54, 267<br />

combustion<br />

chemical equation for 178<br />

combustion efficiency 180<br />

process in a spreading fire 179<br />

in wildfires 178–9<br />

Community Land Model (CLM) 251<br />

coupled land surface and microwave emission models<br />

60–3<br />

MICRO-SWEAT 61–2<br />

emission component based on Wilheit coherent<br />

model 61–2<br />

Dobson et al model 62<br />

time series <strong>of</strong> modelled and measured brightness<br />

temperatures 62–3, 62<br />

Cryosat 14, 32, 265<br />

cryosphere, study <strong>of</strong>, primary objective for satellite<br />

missions, Cryosat and ICESat 14, 31–2<br />

Darcy-Weisbach friction factor 87, 94<br />

data<br />

accuracy, reliability and precision in terms <strong>of</strong> errors<br />

116<br />

distinction between accuracy and bias 116–17<br />

data assimilation 11, 246, 247, 254–6<br />

data assimilation <strong>the</strong>ory 254<br />

hydrologic data assimilation 255<br />

in meterology and oceanography 253–4<br />

see also Land Data Assimilation Systems<br />

Physical-Space Statistical Analysis System (PSAS)<br />

252, 254–5<br />

soil moisture estimation 255<br />

data quality<br />

determination <strong>of</strong> <strong>the</strong> SDE important 117–18<br />

local vs. global measurements <strong>of</strong> 118–19, 135<br />

description <strong>of</strong> surface quality needs careful<br />

thought 118–19<br />

three main issues 118<br />

measured by <strong>the</strong> RMSE (Root Mean Square Error)<br />

117<br />

deforestation, Lake Tanganyika’s 158<br />

DEM quality 113–14<br />

DEMs 111<br />

coarse resolution 124–6, 125, 126<br />

accuracy and error characterization 167, 265<br />

NASA Shuttle Radar Topographic Mission data<br />

265<br />

InSAR-derived 19, 24<br />

error in 116–21<br />

SRA-derived 30, 31

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