Multi-Hopper Smart Pet Feeder With AI Portion Control
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing pet feeding systems fail to provide scheduled feeding for multiple pets with different types and amounts of food, leading to obesity, nutritional imbalances, and behavioral issues due to inconsistent feeding schedules and food competition.
Innovation Solution
A smart pet feeder device with multiple hoppers, motorized dispensing mechanisms, AI-driven pet recognition, and customizable feeding schedules through a mobile app, ensuring precise and timed distribution of different foods based on individual pet profiles.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If a single hopper is used for storing pet food, then the device complexity is reduced, but it cannot provide different types of food for multiple pets with different dietary needs
Solution Approach 1:
The food storage system is divided into multiple independent hoppers (first hopper, second hopper, etc.), each capable of storing different types of pet food. This segmentation allows the device to provide customized food types for different pets while maintaining manageable complexity through modular design
Solution Approach 2:
Each hopper is designed with universal functionality to store different food types (dry food, wet food, treats) and can be configured for different pets. The hoppers share common structural elements (lid, hinge, locking mechanism) while providing differentiated storage solutions
2Reliability
If manual feeding is used, then the device complexity is minimized, but it cannot maintain consistent feeding schedules leading to pet obesity and behavioral issues
Solution Approach 1:
The system enables self-service feeding through automated dispensing mechanisms controlled by pre-programmed schedules. The microprocessor automatically dispenses appropriate food types and portions at scheduled times without human intervention, ensuring consistent feeding routines while reducing the complexity of manual monitoring and intervention
Solution Approach 2:
Feeding schedules and pet profiles are pre-configured through the mobile application before actual feeding occurs. The system performs preliminary setup of feeding parameters (timing, food types, portions) to ensure reliable automated execution without requiring complex real-time decision-making
3Reliability
If multiple hoppers with airtight lids are used to preserve food quality, then food freshness is improved, but the device complexity and manufacturing cost increase
Solution Approach 1:
The food storage system is divided into multiple independent hoppers (first hopper, second hopper, etc.), each capable of storing different types of pet food. This segmentation allows the device to provide customized food types for different pets while maintaining manageable complexity through modular design
Solution Approach 2:
Each hopper is equipped with an airtight lid with hinge and locking mechanism specifically designed to seal that particular hopper opening. This localized protection ensures food freshness at each storage point without requiring a completely different storage system
4Measurement precision
If precise portion control is implemented through sensors and AI recognition, then pet health management is improved, but the device complexity and energy consumption increase
Solution Approach 1:
Weight sensors in the bowls provide continuous feedback to the microprocessor about the amount of food dispensed. This feedback loop enables precise portion control by comparing actual dispensing against scheduled portions and making adjustments as needed, managing complexity through closed-loop control
Solution Approach 2:
The patent replaces manual portion estimation with electronic weight sensors and digital measurement systems. The microprocessor and mobile application substitute for manual monitoring, providing automated tracking and reporting of food consumption with minimal user intervention
Data Source
AI summary
A smart pet feeder device is provided comprising of a housing that accommodates one or more hoppers for storing different types of pet food. Each hopper features an airtight lid, hinge, and locking mechanism to preserve food quality and prevent contamination. A motorized dispensing system, integrated within the housing, uses various mechanisms to distribute precise portions of food into corresponding bowls, managed based on customizable pet profiles accessed via a mobile application. The application facilitates scheduling and portion control, employing wireless communication for remote operation. An AI-driven system, aided by a high-resolution camera, identifies pets using image recognition, ensuring the correct food is dispensed. Embedded sensors in the bowls measure and monitor food portions, while a funnel design minimizes waste, redirecting uneaten food into storage if detected by additional sensors. The device also includes two-way audio communication for interaction and is powered by batteries, with an optional corded power supply.