HydroClimateSight Feature Highlight: Unlock Powerful Insights with HydroClimateSight’s Remote Sensing Map Layers

Modern water and land resource management relies on timely, reliable, and spatially detailed data. Aquanty’s HydroClimateSight platform empowers decision-makers by integrating a diverse set of authoritative datasets into a range of physics-based and machine-learning based hydrologic models. HydroClimateSight provides direct access to many of these datasets through the Remote Sending tab to help users better understand the datasets that go into these models. Let’s review some of the available data layers that give HCS users visual and analytical insights sourced from globally recognized organizations, government agencies, and open-data initiatives.

Figure 1. Accessing Map Layers on HydroClimateSight

Accessing Map Layers

Hover over the Map Layers icon in the upper-right corner of HydroClimateSight, and you’ll find a structured menu organized into four categories: (See Figure 1)

  • Basemaps

  • Satellite Imagery

  • Current Conditions

  • Static Data

Data Layers

Each category includes layers from some of the most trusted geospatial and environmental data providers in the world. Below, we explore these layers and their sources in detail.

1. Basemaps

Basemaps create the spatial backdrop upon which all other layers are displayed. They ensure that users can easily navigate to their area of interest and provide context for interpreting data overlays.

OpenStreetMap (OSM)

Source: OpenStreetMap Contributors

  • OSM is a global collaborative project creating a free, editable map of the world. It is widely used in research, disaster response, and navigation.

  • OSM provides accurate roads, cities, and landmarks, making it a reliable reference layer for identifying precise locations.

ESRI World Imagery

Source: ESRI World Imagery Service

  • ESRI (Environmental Systems Research Institute) is a leader in GIS technology. Their World Imagery layer aggregates high-resolution satellite and aerial imagery, often updated every few years.

  • This layer enables detailed identification of land parcels, natural features, and field boundaries.

Google Hybrid Maps

Source: Google Maps Platform

  • Google Maps is one of the most widely used mapping services globally. Its hybrid view combines satellite imagery with map labels (roads, place names).

  • This hybrid approach is useful for precision navigation and planning, as it provides both imagery detail and clear labeling.

2. Satellite Imagery

Satellite imagery layers deliver up-to-date views of Earth’s surface, enabling users to monitor vegetation, water bodies, and snow cover on a daily basis. These layers provide essential context for weather, climate, and agricultural assessments.

MODIS Terra True Color

Source: NASA GIBS / MODIS

  • NASA’s MODIS (Moderate Resolution Imaging Spectroradiometer) instrument is aboard the Terra satellite and provides near-global coverage with a daily refresh.

  • MODIS True Color imagery helps users assess large-scale conditions like cloud cover, vegetation greenness, and snow cover. Its broad coverage and daily updates make it essential for regional monitoring.

3. Current Conditions: Near Real-Time Environmental Layers

These layers deliver up-to-date measurements for operational decision-making, sourced from authoritative agencies.

SnoDAS (Snow Water Equivalent)

Source: NSIDC SnoDAS Dataset

  • The National Snow and Ice Data Center (NSIDC) at the University of Colorado Boulder curates global cryosphere data. SnoDAS combines ground observations, satellite data, and modelling to estimate snow water equivalent (SWE).

  • SWE is a critical parameter for flood forecasting, water supply planning, and climate studies.

24-Hour Accumulated Precipitation

Source: ECCC HRDPA Dataset

  • Environment and Climate Change Canada (ECCC) provides high-resolution deterministic precipitation analyses through the HRDPA (High Resolution Deterministic Precipitation Analysis) product.

  • Understanding precipitation totals over the past day is vital for hydrologic modelling, flood risk assessment, and agriculture.

Figure 2. SnoDAS, 24-hour Accumulated Precipitation, and 3 Weather Radar Precipitation.

Weather Radar Precipitation

Source: ECCC Radar Geomet Data

  • Radar-based precipitation estimates from ECCC’s national radar network provide near real-time data at 10-minute intervals.

  • This granular temporal resolution supports applications like short-term forecasting, flood warnings, and storm tracking.

(See Figure 2)

4. Static Data

These datasets don’t update daily but form the backbone for environmental and agricultural planning:

Canadian Land Inventory (CLI)

Source: AAFC CLI Database

  • Managed by Agriculture and Agri-Food Canada, the CLI provides a classification system for land capability for agriculture.

  • It helps determine land suitability for mechanized farming and identifies soil limitations.

  • CLI data is regularly incorporated into the HydroGeoSphere models which power Aquanty’s physics-based hydrologic forecasting system – HGSRT.

Note: You can hover over a location on the map to bring up land cover information

Annual Crop Inventory (ACI)

Source: AAFC Crop Mapping Program

  • Based on optical and radar satellite imagery, this dataset maps crop types across Canada with an 85% accuracy target.

  • Useful for monitoring agricultural trends, market planning, and research into land-use change.

  • ACI data is regularly incorporated into the HydroGeoSphere models which power Aquanty’s physics-based hydrologic forecasting system – HGSRT.

Note: You can hover over a location on the map to bring up crop type information

Canadian Detailed Soil Surveys (CDSS)

Source: HydroClimateSight Remote Sensing

  • Aggregated from regional soil survey databases maintained by AAFC and provincial agencies.

  • Provides detailed soil texture, drainage, and classification data essential for hydrologic modeling and agronomic decision-making.

  • CDSS data is regularly incorporated into the HydroGeoSphere models which power Aquanty’s physics-based hydrologic forecasting system – HGSRT.

    Note: You can hover over a location on the map to bring up detailed soil survey data

Global Soil Organic Carbon (GSOC)

Source: ISRIC SoilGrids Database

  • Developed by ISRIC (International Soil Reference and Information Centre), this dataset estimates global soil organic carbon stocks.

  • Key for carbon sequestration studies, soil health assessment, and climate mitigation strategies.

Shaded Relief

Source: Government of Canada Open Data

  • Produced from digital elevation data, this layer visualizes topographic variation across Canada.

  • Helps users interpret terrain and identify elevation-related constraints for infrastructure or hydrology.

Figure 3. Canadian Land Inventory, Annual Crop Inventory, Canadian Deatailed Soil Surveys, and Provincial Digital Elevation Model.

Provincial Digital Elevation Model (DEM)

Sources:

Alberta PDEM

Manitoba PDEM

Ontario PDEM

  • DEM data from provincial governments and federal repositories provide high-resolution elevation grids.

  • Essential for watershed delineation, floodplain modelling, and infrastructure design.

(See Figure 3)

Final Thoughts

HydroClimateSight doesn’t just present data, it ensures that every layer originates from trusted scientific and government agencies, including NASA, NSIDC, AAFC, ECCC, ISRIC, and provincial authorities. These organizations adhere to rigorous quality-control standards, making the data suitable for operational decision-making, research, and policy development. By integrating these layers, HydroClimateSight transforms complex datasets into actionable insights, enabling everything from short-term flood forecasting to long-term climate resilience planning.

Ready to explore these powerful capabilities? Contact Aquanty today at info@aquanty.com for a demo and see how Remote Sensing Map Layers can elevate your decision-making.

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