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EOSDA MCP. Analyze Geospatial Data & Predict Field Outcomes

Claude Claude
ChatGPT ChatGPT
Cursor Cursor
Gemini Gemini
Windsurf Windsurf
VS Code VS Code
JetBrains JetBrains
Vercel Vercel
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Works with every AI agent you already use

…and any MCP-compatible client

EOSDA MCP on Cursor AI Code Editor MCP Client EOSDA MCP on Claude Desktop App MCP Integration EOSDA MCP on OpenAI Agents SDK MCP Compatible EOSDA MCP on Visual Studio Code MCP Extension Client EOSDA MCP on GitHub Copilot AI Agent MCP Integration EOSDA MCP on Google Gemini AI MCP Integration EOSDA MCP on Lovable AI Development MCP Client EOSDA MCP on Mistral AI Agents MCP Compatible EOSDA MCP on Amazon AWS Bedrock MCP Support

Just plug in your AI agents and start using Vinkius.

EOSDA connects your AI agent to massive satellite data sets, letting you monitor crop health and soil moisture across entire fields.

It calculates key indices like NDVI and EVI, tracks trends over seasons, and generates actionable zoning maps from sources like Sentinel-2 and Landsat.

What your AI agents can do

Create field

Registers a new field boundary and metadata into the monitoring system for future analysis.

Get evi timeseries

Retrieves Enhanced Vegetation Index (EVI) values over time, ideal for tracking dense or tropical canopy growth.

Get fields

Lists all registered fields, providing boundaries, acreage, crop type, and current monitoring status.

+ 9 more capabilities included
Inventory Field Boundaries

List or register specific agricultural fields, including boundaries, crop type, and planting dates.

Track Vegetation Trends

Generate time-series data for various indices (NDVI, EVI, NDMI) to show how a field's health changes over months or seasons.

Assess Soil and Water Levels

Get current soil moisture readings at multiple depths and monitor water stress indicators for irrigation planning.

Generate Predictive Maps

Create zoning maps or visual index renderings that divide a field into management zones based on productivity metrics.

Gather Environmental Context

Access deep historical weather data (1800+ parameters) and predict future conditions up to seven months out.

Supported MCP Clients

Claude Claude
ChatGPT ChatGPT
Cursor Cursor
Gemini Gemini
Windsurf Windsurf
VS Code VS Code
JetBrains JetBrains
Vercel Vercel
+ other MCP clients
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AI Agent

EOSDA: 12 Tools for Geospatial Analysis

These tools give your AI agent direct access to raw satellite imagery, historical weather records, and advanced index calculations for deep field analysis.

create019d7591

create field

Registers a new field boundary and metadata into the monitoring system for future analysis.

get019d7591

get evi timeseries

Retrieves Enhanced Vegetation Index (EVI) values over time, ideal for tracking dense or tropical canopy growth.

get019d7591

get fields

Lists all registered fields, providing boundaries, acreage, crop type, and current monitoring status.

get019d7591

get ndmi timeseries

Tracks the Normalized Difference Moisture Index (NDMI) over time to monitor water content changes in crops.

get019d7591

get ndvi timeseries

Provides a season-long record of NDVI values, showing general trends in vegetation health and growth stages.

get019d7591

get satellite imagery

Downloads raw satellite images (Sentinel-2, Landsat, etc.) for specific fields and date ranges.

get019d7591

get soil moisture

Checks the current soil moisture levels at different depths within a specified agricultural field.

get019d7591

get vegetation index

Calculates various vegetation indices (NDVI, EVI, NDRE, etc.) for a single snapshot in time and location.

get019d7591

get weather data

Retrieves extensive historical weather records, including temperature, wind, and precipitation since 1979.

get019d7591

get weather forecast

Pulls forward-looking weather data for agricultural planning, covering periods from 15 days to 7 months.

get019d7591

get zoning map

Generates a map that divides a field into distinct zones based on productivity or vegetation health metrics.

render019d7591

render index map

Creates a visual, color-coded image of any selected index (like NDVI) overlaid onto the field boundaries for reports.

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What you can do with this MCP connector

Listen up. This server connects your AI client directly to massive satellite data sets, letting you monitor everything—crop health, soil moisture, weather patterns—across entire fields from one spot. You're done jumping between GIS software and spreadsheets; your agent acts like a dedicated agronomist that pulls the exact metrics you need when you ask for 'em.

Inventory Field Boundaries. Need to track something? Start by listing or registering specific agricultural areas. Use create_field to write down a new field boundary and its metadata, which lets the system monitor it for future analysis. You can pull up all your existing plots using get_fields, getting boundaries, acreage, crop type, and the current monitoring status for every piece of land you own.

Track Vegetation Trends. To see how well a crop is doing over months or seasons, you'll use time-series data. For general growth tracking—the kind that shows overall health stages—you've got get_ndvi_timeseries, which pulls the Normalized Difference Vegetation Index (NDVI) record for the whole season. If you’re dealing with really dense or tropical canopies, though, you wanna check out get_evi_timeseries; it tracks Enhanced Vegetation Index (EVI) values over time.

For a quick health snapshot at any given moment and location, get_vegetation_index calculates various indices like NDVI, EVI, and NDRE all in one go.

Assess Soil and Water Levels. Knowing what's under the ground is just as important as looking at the sky. You can check current soil moisture levels at multiple depths within any field using get_soil_moisture. To track water stress itself, use get_ndmi_timeseries, which monitors the Normalized Difference Moisture Index (NDMI) over time so you know exactly when and where irrigation is needed.

When you need raw data to build your own models, get_satellite_imagery downloads full satellite images—Sentinel-2 or Landsat—for specific date ranges and fields.

Generate Predictive Maps. You don't just want numbers; you wanna see the picture. The system can generate a map that divides an entire field into distinct zones based on productivity metrics or vegetation health using get_zoning_map. For reports, you can create visual, color-coded images of any index—like NDVI—overlaid directly onto your field boundaries with render_index_map.

You'll also get deep context from the environment. You can access extensive historical weather records—stuff like temperature, wind, and precipitation going back to 1979 using get_weather_data. If you need to plan ahead, get_weather_forecast pulls forward-looking data for agricultural planning, covering periods that stretch up to seven months out. You'll even get current weather predictions by calling get_weather_forecast for a 15-day window.

It’s comprehensive coverage: from historical context to long-term prediction and real-time field status.

How EOSDA MCP Works

  1. 1 First, use get_fields or create_field to tell the AI which specific agricultural field you need monitored.
  2. 2 Next, ask your agent for a metric—like 'Show me the NDVI trend'—and provide the desired date range. The system calculates and returns the necessary data points.
  3. 3 Finally, if you need actionable output, request a map using get_zoning_map or visualize it with render_index_map. The AI gets back a report and/or a downloadable image.

The bottom line is that your agent handles the complex geospatial math and data retrieval, letting you speak to the system like talking to an expert on-site.

Who Is EOSDA MCP For?

Anyone who makes decisions based on a field's actual condition needs this. It's for the agronomist staring at raw data sheets until 2 AM, or the farm manager trying to decide where to spend limited water resources. If your job involves predicting yield or optimizing inputs, you need this.

Agronomist

Analyzes vegetation indices (like NDRE and EVI) to detect early signs of stress or nutrient deficiencies across multiple fields.

Farm Manager

Uses the system to compare historical weather data against current soil moisture levels, optimizing irrigation schedules and resource allocation.

Agricultural Consultant

Generates productivity zoning maps for clients, advising on variable rate application strategies for fertilizer or seeds.

What Changes When You Connect

  • See seasonal trends, not just snapshots. Use get_ndvi_timeseries or get_evi_timeseries to track how a crop's health changes over the entire growing season, catching stress early.
  • Know exactly when and where to water. The get_soil_moisture tool provides depth-specific data, while pairing it with get_ndmi_timeseries helps you optimize irrigation timing.
  • Go beyond simple maps. get_zoning_map breaks a field into management zones (e.g., high yield vs. low yield) so you can apply fertilizer only where it's needed.
  • Plan for the long haul. Access 7-month forecasts via get_weather_forecast, letting you adjust planting or harvest schedules months ahead of time, which is critical planning data.
  • Visualize everything instantly. Instead of complex GIS layers, use render_index_map to generate a shareable, color-coded PNG map for client reports and team meetings.

Real-World Use Cases

01

Detecting Early Nutrient Deficiency

An agronomist suspects a nutrient issue in the southwest quadrant. Instead of guessing, they ask their agent to compare current get_vegetation_index results (specifically NDRE) against historical data from last year's harvest. The agent flags a sharp drop, suggesting immediate soil testing.

02

Optimizing Water Use Across the Farm

A farm manager needs to allocate water across three fields with different crops. They run get_soil_moisture on all three and cross-reference it with a 15-day forecast from get_weather_forecast. The agent advises delaying irrigation in Field B because rain is predicted, saving resources.

03

Planning Variable Rate Fertilization

A consultant needs to advise on fertilizer spread rates. They use the get_zoning_map tool with NDVI data. The resulting map shows four distinct zones: high, medium, low productivity. This allows them to recommend precise variable application rates instead of blanket treatment.

04

Comparing Past vs. Present Yield Potential

Before planting a new crop, the team wants to compare the last season's performance. They run get_ndvi_timeseries for the previous year and then use get_weather_data to pull all the historical rainfall data from that period, giving them a full context report.

The Tradeoffs

Using current weather instead of history

Relying only on get_weather_data for last week's rain. This misses seasonal trends or multi-year climate shifts that affect growth.

Don't just check the last few days; use get_weather_data to pull a 10-year average of rainfall and compare it to the current year's totals for better context.

Confusing index types

Running get_vegetation_index and getting only one number. This is too generic; you need to know why that number changed.

If you suspect water issues, don't just run the general index. Run the specific get_ndmi_timeseries for a dedicated moisture check.

Forgetting field boundaries

Asking for an index calculation without defining the area first. The API can't calculate anything without knowing where to look.

Always start by ensuring your field is registered using get_fields or create_field so the system knows exactly which boundaries to analyze.

When It Fits, When It Doesn't

Use this server if you need data that tells a story over time, or if you need an actionable map. Don't use it if you just want a quick check of one number—for instance, using get_vegetation_index is fine for a single snapshot, but if the goal is to know if the crop health has gotten worse since last month, you must jump straight to get_ndvi_timeseries. Similarly, if your primary concern is water management, do not use general weather data alone; combine it with both get_soil_moisture and get_ndmi_timeseries. If you are doing field inventory checks before starting a project, skip the complex tools first and just run get_fields; that gives you the foundation. This server is for analysis and prediction, not simple data retrieval.

Independent Platform Disclaimer: Vinkius is an independent platform and is not affiliated with, endorsed by, sponsored by, verified by, or otherwise authorized by EOSDA. All third-party trademarks, logos, and brand names are the property of their respective owners. Their use on this website is strictly for informational purposes to identify service compatibility and interoperability.

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Works with Claude, ChatGPT, Cursor, and more

The Model Context Protocol standardizes how applications expose capabilities to LLMs. Instead of operating in isolation, your AI gains direct access to external platforms, live data, and real-world actions through secure, standardized connections.

This server provides 12 capabilities that interface natively with Claude, ChatGPT, Cursor, and any MCP client. No middleware. No custom integration required.

Available Capabilities

create_field get_evi_timeseries get_fields get_ndmi_timeseries get_ndvi_timeseries get_satellite_imagery get_soil_moisture get_vegetation_index get_weather_data get_weather_forecast get_zoning_map render_index_map

Staring at dashboards full of confusing metrics all day long?

Today, analyzing a field means cross-referencing five different tabs: the weather log, the historical yield reports in Excel, the soil test PDF, and three separate GIS layers just for NDVI. You spend hours copy-pasting data points and trying to manually spot when the numbers start trending down.

With this MCP server, you ask your agent one question—like 'How has this field's health changed since June?'—and it runs `get_ndvi_timeseries` automatically. It spits out a clear trend line showing peak growth, dips in stress, and when the system predicts harvest readiness. No clicking through layers; just an answer.

Get Zoning Map: Use get_zoning_map to assign resources with precision.

The old way was treating a whole section of 10 acres the same. You'd fertilize or irrigate everywhere, wasting resources in areas that were already doing fine—or worse, neglecting a low-performing zone because it was 'just part of the field.'

Now, run `get_zoning_map`. The server analyzes productivity and divides your field into distinct zones (e.g., Zone A: Needs 30% more nitrogen; Zone B: Optimal). You get an immediate plan for variable rate application. It changes resource management from 'blanket' to surgical.

Common Questions About EOSDA MCP

How do I see the trend of my crop health over a season using get_ndvi_timeseries? +

You provide your field ID and the start/end dates. The tool returns an array of NDVI values tied to specific satellite pass dates, letting you plot the full growth curve instantly.

Is get_vegetation_index better than get_ndvi_timeseries? +

No. get_vegetation_index gives a single value for one point in time (a snapshot). Use get_ndvi_timeseries when you need to see the historical progression of that index over weeks or months.

Can I get raw imagery using get_satellite_imagery? +

Yes. This tool retrieves the actual, un-processed satellite bands (like Sentinel-2) for a specific date range and field boundary, letting you do advanced analysis outside the server.

What data does get_soil_moisture provide? +

It delivers soil moisture readings at different depths—surface, root zone, and deep soil. This is critical for determining if irrigation needs to reach deeper than just the top layer.

What specific information is required when I use the `create_field` tool? +

You must provide a GeoJSON polygon or coordinates for the field boundary. Beyond that, you need to specify the crop type and the planting date. This data lets the system accurately track your boundaries and start monitoring new fields.

How far back can I analyze historical weather trends using `get_weather_data`? +

The tool provides historical records dating back to 1979. You can access over 1800 parameters, including temperature, wind speed, and solar radiation for long-term analysis.

Does the `render_index_map` tool support different file formats? +

Yes, it generates rendered raster images in JPEG, PNG, or GeoTIFF format. This flexibility lets you choose the best output for field reports, presentations, or GIS software.

What is the practical purpose of using `get_zoning_map`? +

The map divides your field into distinct management zones based on average index values. This lets you apply variable rate applications—like targeted fertilizer or water—instead of treating the whole area uniformly.

Can my AI calculate NDVI for my corn field and show me the vegetation health trend over the growing season? +

Yes! Use the get_ndvi_timeseries tool with your field ID and the growing season date range (e.g., date_from=2025-04-01, date_to=2025-10-31). This returns NDVI values for each satellite overpass, showing vegetation health progression from planting through harvest. You can also use get_vegetation_index with index=NDVI for point-in-time analysis, or render_index_map to generate a visual color-coded NDVI map of your field.

How do I get weather forecasts and soil moisture data to plan irrigation for my fields? +

Use get_weather_forecast with your field ID and forecast_range=15_days or 1_month to get upcoming precipitation and temperature forecasts. Combine this with get_soil_moisture to check current soil moisture levels at root zone depth. Together these tools help you determine if and when irrigation is needed. For historical context, use get_weather_data with past dates to understand rainfall patterns and evapotranspiration trends.

Can I generate a zoning map to identify low and high productivity areas within my field? +

Yes! Use the get_zoning_map tool with your field ID. You can specify the vegetation index (NDVI is most common), number of zones (3-5 recommended), and date for analysis. The API returns zone boundaries, average index values per zone, area percentages, and management recommendations. This is essential for variable rate application (VRA), precision fertilization, and targeted irrigation planning.

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Claude Claude
ChatGPT ChatGPT
Cursor Cursor
Gemini Gemini
Windsurf Windsurf
VS Code VS Code
JetBrains JetBrains
Vercel Vercel
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