Ticket Contents
Description
Downscaled climate projections provide high-resolution (~5–10km) datasets for analyzing climate impacts on agriculture, forests, health, and hazard patterns. By computing metrics such as max/mean rainfall, drought incidence, extreme rainfall, flood incidence, max/mean temperature, and heatwave frequency, stakeholders can assess spatial and temporal trends over the years. Google Earth Engine (GEE) will be used to generate raster outputs, vectorize them at MWS-level, and produce reports for analysis.
Goals
Goals
- Implement downscaled climate projections for AoI and MWS at ~5–10km resolution.
- Compute climate indicators:
- Max/mean rainfall
- Drought incidence
- Extreme rainfall
- Flood incidence
- Max/mean temperature
- Heatwave incidence
- Generate raster outputs for each indicator.
- Vectorize rasters to produce MWS-level polygons summarizing metrics.
- Publish raster and vector outputs as Earth Engine assets with metadata.
- Enable temporal and spatial analysis of climate patterns over multiple years.
- Produce MWS-level reports highlighting trends, changes, and hazard zones.
Expected Outcome
Expected Output
- Raster datasets (~5–10km resolution) for all climate indicators listed.
- Vectorized MWS-level polygons with attributes:
- Indicator name
- Metric value (e.g., total rainfall, max temperature, drought frequency)
- Area (km²)
- Published Earth Engine assets (raster + vector) with metadata (source, resolution, processing date).
- GEE visualizations showing spatial distribution of climate indicators.
- Annual/seasonal reports summarizing trends and hazards.
- Validation report confirming coverage, accuracy, and consistency over years.
Acceptance Criteria
Acceptance Criteria
Data Acquisition
- Downscaled climate datasets (e.g., CORDEX, CHIRPS, ERA5-Land) must be preprocessed and clipped to AoI/MWS boundaries.
- Resolution standardized to ~5–10km.
- Temporal range documented for annual/seasonal projections.
Raster Computation
- Compute all climate indicators per pixel.
- Entire AoI/MWS must be covered without gaps.
- Thresholds and methodologies (e.g., drought index, heatwave criteria) must be documented.
Vectorization
- Raster outputs converted to MWS-level polygons using
reduceToVectors() in GEE.
- Each polygon must include:
- Indicator
- Metric value
- Area (km²)
- Polygons must align with MWS boundaries.
Asset Publishing
- Raster and vector datasets published as Earth Engine assets.
- Metadata includes source datasets, resolution, processing date, and methodology for each indicator.
Quality & Validation
- Coverage check: all AoI/MWS included.
- Accuracy check: raster outputs validated against historical datasets or reference models.
- Attribute check: all polygons include indicator name, metric value, and area.
- Visualization in GEE confirms correct spatial distribution.
- Annual/seasonal trends verified for consistency and plausibility.
Implementation Details
Implementation Details
Data Sources
- Downscaled climate projections (CORDEX, CHIRPS, ERA5-Land)
- AoI and MWS boundary shapefiles
Processing
- Compute raster layers for each indicator at ~5–10km resolution.
- Apply relevant indices for drought, heatwave, and flood detection.
- Clip outputs to AoI/MWS boundaries.
Vectorization & Publishing
- Convert raster outputs into MWS-level polygons using
reduceToVectors().
- Include attributes: indicator, metric value, area.
- Upload raster and vector layers as EE assets with metadata.
Visualization
- Color-coded raster and vector layers in GEE for each climate indicator.
- Overlay with MWS boundaries for hazard and stress assessment.
Validation
- Compare raster outputs with historical data and reference datasets.
- Spot-check vector polygons for correct attribute values.
- Generate validation report documenting coverage, accuracy, and attribute completeness.
Mockups/Wireframes
No response
Product Name
KYL
Organisation Name
C4GT
Domain
No response
Tech Skills Needed
Python
Organizational Mentor
@ankit-work7 @amanodt @kapildadheech
Angel Mentor
No response
Complexity
Medium
Category
Backend
Ticket Contents
Description
Downscaled climate projections provide high-resolution (~5–10km) datasets for analyzing climate impacts on agriculture, forests, health, and hazard patterns. By computing metrics such as max/mean rainfall, drought incidence, extreme rainfall, flood incidence, max/mean temperature, and heatwave frequency, stakeholders can assess spatial and temporal trends over the years. Google Earth Engine (GEE) will be used to generate raster outputs, vectorize them at MWS-level, and produce reports for analysis.
Goals
Goals
Expected Outcome
Expected Output
Acceptance Criteria
Acceptance Criteria
Data Acquisition
Raster Computation
Vectorization
reduceToVectors()in GEE.Asset Publishing
Quality & Validation
Implementation Details
Implementation Details
Data Sources
Processing
Vectorization & Publishing
reduceToVectors().Visualization
Validation
Mockups/Wireframes
No response
Product Name
KYL
Organisation Name
C4GT
Domain
No response
Tech Skills Needed
Python
Organizational Mentor
@ankit-work7 @amanodt @kapildadheech
Angel Mentor
No response
Complexity
Medium
Category
Backend