Ag Tech Steps Into Production: Deere, CNH, and Starlink Pilot New Smart Farming Use Cases
In the past month, smart farming moved from proof-of-concept to field-scale pilots as OEMs, connectivity providers, and crop science leaders introduced AI-driven spraying, satellite-to-cell links, and autonomous workflows. New deployments reveal emerging use cases with measurable impact on inputs, labor, and traceability.
Aisha covers EdTech, telecommunications, conversational AI, robotics, aviation, proptech, and agritech innovations. Experienced technology correspondent focused on emerging tech applications.
- Field-scale pilots in December show AI vision, autonomy, and satellite-to-cell connectivity advancing from trials to production, with early adopters reporting 15–35% input savings in targeted spraying and weeding, according to industry sources (Reuters technology coverage).
- Connectivity emerged as a bottleneck and opportunity: Direct-to-cell satellite links began limited service, enabling sensor backhaul without towers, per Starlink.
- Specialty crops are seeing rapid robotization with laser weeding and automated harvest support, as noted by recent company updates from Carbon Robotics and orchard pilots covered by TechCrunch.
- Regenerative agriculture MRV (measurement, reporting, verification) software is being embedded into input platforms to qualify carbon and sustainability premiums, with new integrations announced by Bayer Crop Science and agronomic data providers Arable.
| Company | Emerging Use Case | Status (Nov–Dec 2025) | Source |
|---|---|---|---|
| John Deere | AI vision variable-rate spraying | Field-scale deployments, expanded features | Deere Newsroom |
| CNH Industrial (Raven) | Autonomous harvest cart workflows | Active pilots and seasonal rollouts | CNH Industrial Media |
| Starlink | Direct-to-cell satellite connectivity for farm sensors | Limited service starts, IoT roadmap | Starlink Direct to Cell |
| Carbon Robotics | Laser weeding in specialty crops | Expanded orchard/vegetable pilots | Company Press Updates |
| Trimble Agriculture | Telematics and data interoperability | API and mixed-fleet data initiatives | Product Pages |
| Arable | Field sensing and agronomic analytics | MRV-aligned insights workflows | Company Website |
- John Deere See & Spray Technology Overview - John Deere, December 2025
- Recent News and Updates - John Deere Newsroom, December 2025
- Precision and Autonomy Communications - CNH Industrial Media Center, November–December 2025
- Direct to Cell Service Details - Starlink, December 2025
- Laser Weeding Expansion Updates - Carbon Robotics Press, November–December 2025
- Telematics and Interoperability Solutions - Trimble Agriculture, December 2025
- Field Sensing and Analytics - Arable, December 2025
- Coverage of Precision Agriculture and Connectivity - Reuters Technology, November–December 2025
- Industry Technology Developments - Bloomberg Technology, November–December 2025
- Digital Tools and MRV News - Bayer Crop Science, November–December 2025
About the Author
Aisha Mohammed
Technology & Telecom Correspondent
Aisha covers EdTech, telecommunications, conversational AI, robotics, aviation, proptech, and agritech innovations. Experienced technology correspondent focused on emerging tech applications.
Frequently Asked Questions
What new smart farming use cases emerged in the last 45 days?
Field-scale pilots in December showcased AI vision for variable-rate spraying, autonomous harvest workflows, and direct-to-cell satellite connectivity for remote sensors. John Deere’s See & Spray features advanced targeting, CNH Industrial’s Raven platform expanded autonomous cart operations, and Starlink began limited direct-to-cell service for messaging and IoT data. Specialty crops also saw laser weeding deployments from Carbon Robotics, and MRV integrations for regenerative practice verification from Bayer and Arable.
Where are growers seeing measurable ROI from these deployments?
Growers reported 15–35% reductions in herbicide use with AI-driven spraying compared to broadcast applications, consistent with precision-ag outcomes cited by Reuters. Autonomy reduces operator hours during harvest, while satellite-to-cell links enable sensor backhaul where coverage is poor. MRV and traceability features are unlocking sustainability premiums and reducing audit time, with vendors like Bayer Crop Science and Arable adding integrated reporting workflows.
How does satellite-to-cell improve smart farming connectivity?
Direct-to-cell services, such as Starlink’s offering, connect devices to satellites using standard LTE modems, enabling messaging and IoT data without terrestrial towers. This is critical for distributed sensors, livestock tags, and machine diagnostics across large or remote fields. The December limited service start provides a practical pathway to synchronize telemetry and alerts, filling gaps where rural connectivity has constrained deployments and data-driven decision making.
What challenges remain for scaling these use cases?
Integration across mixed fleets and proprietary data ecosystems remains complex and costly. Vendors like Trimble are addressing this with API-driven interoperability and telematics that centralize data from varied OEMs. Reliability of connectivity—especially during peak seasons—also matters; direct-to-cell can complement terrestrial networks, but bandwidth and device management will need careful planning. Finally, robust MRV requires consistent data capture and standards to satisfy buyers and regulators.
What is the near-term outlook for procurement and deployment?
Procurement cycles over winter are expected to prioritize bundles that pair AI vision sprayers or weeding robots with connectivity and analytics for machine uptime and agronomy. Analysts suggest the fastest near-term wins will be in targeted input reduction, irrigation optimization, and traceability reporting. As pilots convert to production, expect more implement-agnostic control, standardized data pipelines, and satellite-to-cell integrations supporting sensor networks and mixed-fleet operations by the 2026 growing season.