Taranis MCP. Diagnose crop health from high-res drone imagery.
Works with every AI agent you already use
…and any MCP-compatible client
Just plug in your AI agents and start using Vinkius.
Taranis connects AI agents directly to ultra-high-resolution drone imagery for advanced crop diagnostics. It analyzes field data to pinpoint weeds, diseases, pests, and nutrient deficiencies across entire fields.
Your agent receives detailed maps showing threat locations (GPS coordinates), severity levels, affected areas, and specific action plans needed for targeted scouting or treatment.
What your AI agents can do
Get detections
Returns GPS coordinates and severity for all AI-detected crop threats, including weeds, diseases, pests, and nutrients.
Get disease detections
Retrieves locations of crop diseases, pathogen IDs, severity levels, and suggested fungicide treatments.
Get field details
Gives detailed metadata about a specific field, including its boundaries, crop type, and planting context.
The get_detections tool returns GPS coordinates for weeds, diseases, pests, or nutrient issues, along with severity and estimated affected area.
Use get_disease_detections to pinpoint disease locations, identify pathogens where possible, and receive suggested fungicide treatments.
get_nutrient_detections identifies specific nutrient gaps (like nitrogen) and suggests variable rate fertilization plans for the field.
The get_threats tool provides a high-level summary, including overall severity ratings and trend analysis across the entire monitored area.
Run get_scouting_recommendations to receive prioritized action items, specific patrol patterns, and recommended timing for field teams.
The get_multispectral_imagery tool provides NDVI, NDRE, and GNDVI maps essential for calculating crop vigor across the field.
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Taranis: 12 Tools for Field Scouting Analysis
These tools let you map field boundaries, track flight history, detect multiple crop threats, and generate actionable scouting plans from raw geospatial data.
019d7610get detections
Returns GPS coordinates and severity for all AI-detected crop threats, including weeds, diseases, pests, and nutrients.
019d7610get disease detections
Retrieves locations of crop diseases, pathogen IDs, severity levels, and suggested fungicide treatments.
019d7610get field details
Gives detailed metadata about a specific field, including its boundaries, crop type, and planting context.
019d7610get fields
Lists all monitored farm fields, providing IDs, boundaries, area size, and current crop types for an organization.
019d7610get flight imagery
Gets high-resolution orthomosaic maps, DSMs, and DTMs from a specific drone or aircraft flight mission.
019d7610get flights
Lists all historical flights for a field, including dates, weather conditions, resolution, and data quality metrics.
019d7610get multispectral imagery
Provides vegetation indices (NDVI, NDRE, GNDVI) layers and statistical summaries for assessing crop vigor across the area.
019d7610get nutrient detections
Identifies nutrient deficiency locations, estimates severity, and suggests variable rate fertilization plans.
019d7610get organizations
Lists all farm organizations under your account with basic contact info and total field counts.
019d7610get scouting recommendations
Generates AI-powered action plans, suggesting specific patrol routes, priority areas, and necessary equipment for the field team.
019d7610get threats
Provides a consolidated summary of all threats, including overall severity ratings, affected percentages, and trend analysis per field.
019d7610get weed detections
Pinpoints weed locations, estimates coverage area, classifies species, and gives recommendations for herbicide use.
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What you can do with this MCP connector
Listen up. You need a way to run diagnostics that actually work in the field, not some theoretical model. Taranis MCP Server connects your AI agent straight to ultra-high-resolution drone imagery. This thing analyzes everything—weeds, diseases, pests, nutrients—and gives you precise maps telling you exactly what's wrong and where it is.
It’s built for actionable intelligence.
To start, if you need to know what fields are even in play, your agent can use get_organizations to list every farm organization under your account, giving you contact info and a total field count. For a breakdown of the farms themselves, get_fields lists all monitored areas, providing IDs, boundaries, area size, and current crop types for the whole operation.
You also get context about any specific spot with get_field_details, which provides detailed metadata like its exact boundaries, what's planted there, and the general planting context.
When it comes to the raw data feeding this beast, you’ve got several options. To see what flights have happened historically, run get_flights; that gives you all recorded flight dates, weather conditions, resolution specs, and even data quality metrics for a field. If you need the actual visuals, get_flight_imagery pulls high-resolution orthomosaic maps, along with DSMs and DTMs from any specific drone or aircraft mission.
The server also handles specialized imaging layers. For assessing overall crop vigor across the area, get_multispectral_imagery provides essential vegetation indices—specifically NDVI, NDRE, and GNDVI layers—plus statistical summaries for calculation. You can track nutrient health by running get_nutrient_detections, which pinpoints exact locations of nutrient gaps (like nitrogen), estimates how bad the deficiency is, and even suggests variable rate fertilization plans that you'll need.
For a comprehensive view of all problems hitting the farm, your agent uses get_threats. This tool gives a high-level summary across the entire field, including overall severity ratings, what percentage of the area is affected by threats, and trend analysis for the whole season. If you want to map every single crop problem in one go—be it weeds, diseases, pests, or nutrient issues—you'll use get_detections, which returns GPS coordinates along with the severity rating and estimated affected area for all AI-detected crop threats.
When dealing with specific problems, there are dedicated tools. You can pinpoint disease locations using get_disease_detections. This tool retrieves precise spots of crop diseases, identifies pathogen IDs if possible, gives severity levels, and suggests recommended fungicide treatments right away. To hunt down weeds, use get_weed_detections; this pinpoints weed locations, estimates how much area is covered, classifies the species, and offers recommendations for herbicide application.
The server also knows exactly where the money's going to go next. Running get_scouting_recommendations generates AI-powered action plans, suggesting specific patrol routes, priority areas that need checking, and necessary equipment timing for your field team.
This setup gives you a full cycle: you start by gathering inventory data via get_organizations and get_fields, then pull the raw visuals using get_flight_imagery or the spectral layers from get_multispectral_imagery. You run specialized diagnoses—like disease mapping with get_disease_detections or nutrient gap analysis with get_nutrient_detections—and finally, you use get_scouting_recommendations to turn all that data into a concrete plan for the crew.
How Taranis MCP Works
- 1 First, run
get_fieldsorget_organizationsto define the exact scope (field ID) of your analysis. - 2 Next, chain multiple detection tools—like running both
get_weed_detectionsandget_disease_detections—to gather all relevant data layers for that field. - 3 Finally, ask your agent to summarize the results using
get_scouting_recommendations, forcing it to combine those disparate reports into one action plan.
The bottom line is you stop manually opening 12 different dashboards and start asking your agent for a single, combined diagnostic report.
Who Is Taranis MCP For?
This server is built for professionals who diagnose crop issues by looking at complex geospatial data. It's for the agronomist who spends too much time cross-referencing drone flight reports and manual field notes, or the farm manager who needs to know exactly where to focus their team's efforts next week.
Analyzes ultra-high-resolution imagery using get_multispectral_imagery and cross-references multiple threat types (weeds, diseases, nutrients) to build a complete diagnostic profile.
Uses get_fields and get_threats to get an executive summary of the entire farm's health status, allowing them to prioritize resources across different sites.
Generates reports for clients by combining historical flight data (get_flights) with current recommendations from get_scouting_recommendations.
What Changes When You Connect
- Targeted scouting becomes efficient. Instead of guessing, let your agent run
get_scouting_recommendationsto get a prioritized patrol route and specific GPS locations for the field team. - You stop comparing spreadsheets. Running
get_multispectral_imageryimmediately provides NDVI/NDRE maps, letting you assess crop vigor across an entire field in minutes. - Know exactly where the money is needed. By calling
get_nutrient_detections, your agent doesn't just say 'Nitrogen is low'; it gives variable rate fertilization plans for specific zones. - Get a single health score. The
get_threatstool summarizes everything—weeds, diseases, nutrients—into one overall severity rating and trend analysis per field. - Pinpoint the problem quickly. If you suspect disease, running
get_disease_detectionsimmediately returns pathogen IDs and suggested fungicides, cutting diagnosis time by hours.
Real-World Use Cases
Post-flight damage assessment
A farm manager needs to know what happened after a major storm. They ask their agent for the overall status. The agent first uses get_flights to find the latest images, then runs get_threats and get_detections. The result is a consolidated report showing all current threats—pests, weeds, etc.—without manual data comparison.
Planning for maximum yield
An agronomist suspects the crop isn't performing well. They run get_multispectral_imagery to check NDVI and then use get_nutrient_detections. The agent combines these, showing a correlation between low vigor (low NDVI) and specific nitrogen deficiency zones, leading directly to a treatment recommendation.
Responding to an outbreak
A field team reports unusual spots. The consultant uses get_disease_detections immediately to map the pathogen spread and severity. They then use get_field_details to confirm the crop type, ensuring the fungicide recommendation is accurate for that specific plant.
Creating a preventative maintenance schedule
A consultant needs to advise a client on future work. The agent first uses get_fields to list all sites and then runs get_scouting_recommendations, giving the client an immediate, prioritized checklist of action items for every single field.
The Tradeoffs
Checking only one threat type
Asking 'What weeds are in Field 1?' and getting a list of weed patches. This ignores potential disease or nutrient issues that might be more urgent.
→
Always check the overall picture first by running get_threats. Then, if needed, drill down into specific reports using get_weed_detections and get_disease_detections to cross-validate.
Forgetting field context
Asking 'What are the nutrient deficiencies?' without specifying a field ID. The server can't know which farm you mean, returning useless or general data.
→
Always start by running get_fields to confirm the correct Field ID before calling any detection tool (e.g., passing the ID from get_fields into get_detections).
Assuming fresh imagery is enough
Relying only on the latest flight data without checking historical trends for decline or improvement.
→
Use get_flights to check previous dates. Then, combine that history with get_threats to see if a detected issue (like pests) is trending up, down, or staying stable.
When It Fits, When It Doesn't
Use this server if your diagnosis requires fusing multiple data layers—meaning you need to correlate a physical boundary (get_fields) with spectral health measurements (get_multispectral_imagery), and then map that correlation against specific threat detections (like get_weed_detections). It’s for complex diagnostics, not simple lookups. Don't use it if your only goal is 'List all my fields.' For that, a simpler database query tool is faster and avoids unnecessary API calls. If you just need to know the area or crop type, stick to get_fields first; don't jump straight to detection tools.
Independent Platform Disclaimer: Vinkius is an independent platform and is not affiliated with, endorsed by, sponsored by, verified by, or otherwise authorized by Taranis. 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
Comparing field data across multiple sources used to be an absolute pain.
Before this server, diagnosing a site meant opening three separate dashboards: one for multispectral indices (NDVI), one for historical flight records, and another for weed sightings. You'd manually jump between maps, comparing dates and trying to reconcile why the NDVI map showed stress but the weed detection tool didn't flag it—it was pure comparison hell.
Now, your agent handles that synthesis. You ask for a full threat assessment, and the server runs `get_multispectral_imagery` alongside `get_detections`. It gives you one output: where the stress is *and* what specific pathogen or weed type is causing it.
Taranis MCP Server lets your agent build an action plan from raw data.
The biggest time sink used to be the final report writing. You'd get 10 separate reports: one for disease, one for nutrients, and one for weeds. Then you had to manually read them all and write a summary like, 'Priority is X because Y.'
Now, running `get_scouting_recommendations` generates that executive report instantly. It pulls the data from every detection tool and spits out a clear, prioritized list of actions—no interpretation required on your end.
Common Questions About Taranis MCP
How do I start analyzing threats in Taranis MCP Server? +
You must first call get_fields to confirm the field ID. Once you have that ID, you can then run tools like get_detections or get_threats using the returned identifier.
Can I check for multiple types of problems at once with Taranis MCP Server? +
Yes. You combine calls to different detection endpoints, such as running both get_weed_detections and get_disease_detections in a single agent workflow for comprehensive coverage.
What is the difference between using get_threats and get_detections? +
get_detections gives you the raw, specific data (GPS coordinates, severity) for each threat type. get_threats summarizes that data into a high-level status report with overall trend analysis.
Does Taranis MCP Server handle historical imagery? +
Yes. Use get_flights to list past missions, and then use get_flight_imagery or get_multispectral_imagery to access the specific maps from those dates.
What should I do if my field has nutrient deficiencies? +
Run get_nutrient_detections. The tool provides deficiency locations and, critically, suggests variable rate fertilization plans so you know exactly what product goes where.
How do I ensure my AI agent has access to all farm data using get_organizations? +
You must call get_organizations first. This lists every organization ID you have access to. You need this list to properly scope subsequent calls, like running a field check or detection analysis across multiple sites.
What specific indices are available when I use get_multispectral_imagery? +
It provides key vegetation indices including NDVI (Normalized Difference Vegetation Index), NDRE, and GNDVI. These layers help assess crop vigor levels beyond simple visual checks. The data also includes statistical summaries like mean and standard deviation.
Why is it important to run get_field_details before analysis? +
It establishes the necessary context for any work. This tool returns critical metadata, including boundaries in GeoJSON format, crop type, and growth stage. Running this first ensures your AI agent knows exactly what it's looking at.
Can my AI detect specific weed species in my soybean field from Taranis imagery? +
Yes! Use the get_weed_detections tool with your field ID to get AI-detected weed infestations with species-level identification. Returns weed locations, estimated coverage area, species classification, growth stage, and herbicide resistance indicators. For a comprehensive view of all threats (weeds, diseases, pests, nutrients), use get_detections without a type filter.
How do I get scouting recommendations based on the latest flight imagery? +
Use the get_scouting_recommendations tool with your field ID. Taranis AI analyzes the latest imagery, detected threats, crop growth stage, and field history to generate specific action items including ground truth verification locations, recommended scouting patterns, treatment suggestions, and priority levels. You can also use get_threats first to see the overall threat severity before reviewing recommendations.
What resolution imagery does Taranis capture and how often are flights conducted? +
Taranis captures ultra-high-resolution imagery at sub-millimeter to centimeter level resolution using specialized drone and fixed-wing aircraft. Flight frequency depends on your monitoring plan and crop growth stage — typically every 7-14 days during critical growth periods. Use get_flights to see all flight history for a field, and get_flight_imagery to access specific imagery products (orthomosaics, DSM, NDVI maps) from any flight mission.
Use it with your favorite AI tools
Connect this server to Cursor, Claude, VS Code, and more.
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