IoT$-$Based B$2$C Business Model: Tractor Autonomous Steering System

Business Model Summary:

This business model focuses on IoT$-$enabled tractors, ensuring perfect, straight, and precise rows during tasks such as planting, plowing, and weeding. In essence, it applies autonomous driving technology, typically used in straight line from one end of the field to the other, without deviating from the planted rows. The system incorporates components such as a mobile app, sensors$,$ satellite systems, and camera systems.

Business Model Layers:

Digital Layer:

Cloud Satellite Systems:

Data from all fields is accessed through the land registry system application.

Mobile Application:

This app works in synchronization with AI to control which row and direction the tractor should follow.

$3.$ AI$/$ML Algorithms:

Detects any abnormal deviations in the row sequence, providing feedback and making steering corrections when necessary

Physical Layer $($Hardware$)$:

Camera:

High$-$resolution cameras with day and night vision, integrated with AI$,$ capture the tractor's surroundings and guide it along the correct path.

Actuators:

Actuators receive data from the cameras and adjust the tractor's steering system accordingly to ensure accurate direction.

Central Hub:

A small computer inside the tractor cabin that manages all system controls and ensures smooth communication between components. The hub allows for route planning and control via an

accessible interface.

Connection Layer $($Network$)$:

wi$-$Fi:

Ensures the simultaneous transfer of satellite images and data to the computer onboard the tractor for real$-$time analysis and action.

Cybersecurity:

Includes software systems designed to prevent unauthorized access and ensure secure operation of the entire system

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Customer Value Proposition $($CVP$)$:

Convenience:

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Hardware Devices:

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Customer Support:

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Key Processes:

Device Manufacturing:

Manufacturing of sensors$,$ cameras, and satellite systems, ensuring flawless synchronization

with the satellite system.

$2.$ System Maintenance and Updates:

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$3.$ Customer Training:

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Product Sales:

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their tractors

Subseription Sales:

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Potential Opportunities for Growth:

Subscription$-$Based Services:

Transition to subscription models for additional services like cloud$-$based data analysis of

$2.$ Advanced Data Analytics and AI:

Continuous collection and analysis of field data can be used to optimize farming practices and

Next$-$Generation Sensors:

The development of more advanced sensors can provide deeper insights into environment

IoT$-$Based B$2$C Business Model: Tractor Autonomous Steering System

Business Model Summary:

This business model focuses on IoT$-$enabled tractors, ensuring perfect, straight, and precise rows during tasks such as planting, plowing, and weeding. In essence, it applies autonomous driving technology, typically used in straight line from one end of the field to the other, without deviating from the planted rows. The system incorporates components such as a mobile app, sensors$,$ satellite systems, and camera systems.

Business Model Layers:

Digital Layer:

Cloud Satellite Systems:

Data from all fields is accessed through the land registry system application.

Mobile Application:

This app works in synchronization with AI to control which row and direction the tractor should follow.

$3.$ AI$/$ML Algorithms:

Detects any abnormal deviations in the row sequence, providing feedback and making steering corrections when necessary

Physical Layer $($Hardware$)$:

Camera:

High$-$resolution cameras with day and night vision, integrated with AI$,$ capture the tractor's surroundings and guide it along the correct path.

Actuators:

Actuators receive data from the cameras and adjust the tractor's steering system accordingly to ensure accurate direction.

Central Hub:

A small computer inside the tractor cabin that manages all system controls and ensures smooth communication between components. The hub allows for route planning and control via an

accessible interface.

Connection Layer $($Network$)$:

wi$-$Fi:

Ensures the simultaneous transfer of satellite images and data to the computer onboard the tractor for real$-$time analysis and action.

Cybersecurity:

Includes software systems designed to prevent unauthorized access and ensure secure operation of the entire system

$q,$

Customer Value Proposition $($CVP$)$:

Convenience:

$q,$

$q,$

Hardware Devices:

$q,$

Customer Support:

$q,$

Key Processes:

Device Manufactu

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