Pet Hydration System With Hydrogen Generation And Gravity Feed
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Solution Overview
Problem
Existing pet hydration systems struggle to provide a consistent supply of hydrogenated water, maintain hydrogen levels, and prevent over-saturation, while also being easy to operate, durable, affordable, and serviceable.
Innovation Solution
A pet hydration system that includes a replaceable water reservoir, a hydrogen-generation assembly integrated into the bowl section, a filter cartridge, and illumination sources to accentuate hydrogen generation, along with a USB port for powering the system components.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If a pet hydration system uses a bowl that is intermittently filled or replenished, then the system can provide water to pets, but the system fails to maintain consistent hydrogen levels and prevent over-saturation
Solution Approach 1:
The patent employs feedback mechanisms through sensors that monitor water levels and hydrogen concentration in the bowl. When the water level drops below a threshold or hydrogen saturation reaches a predetermined level, the system automatically adjusts operation - stopping the hydrogen generator when saturation is reached and controlling when to replenish water from the reservoir. This closed-loop feedback ensures consistent hydrogenated water supply while preventing over-saturation.
Solution Approach 2:
The system is designed to automatically manage hydrogen generation and water replenishment without manual intervention. The hydrogen generator autonomously produces hydrogen when water is present, and the system self-regulates by monitoring bowl water level and reservoir levels, automatically transferring water when needed. This self-service capability maintains reliable hydrogenated water supply while simplifying operation for the user.
2Ease of operation
If the system dynamically supplies water from reservoir to bowl, then water availability is improved, but the complexity of managing water supply increases
Solution Approach 1:
The water supply system operates autonomously using gravity-fed flow from the elevated reservoir to the bowl. Sensors detect when bowl water level drops and automatically trigger water transfer from the reservoir without user intervention. The system also monitors reservoir levels and prompts users to refill only when necessary. This self-service approach ensures continuous water availability while keeping the interface simple for users.
Solution Approach 2:
The reservoir is positioned at a higher elevation than the bowl, creating a gravity-driven water flow system. This height difference establishes a natural potential energy gradient that enables automatic water transfer from reservoir to bowl without requiring pumps or complex mechanical systems, simplifying the water supply mechanism while ensuring continuous availability.
3Productivity
If hydrogen-generation assemblies are integrated into the bowl section, then hydrogen generation is effective, but the device complexity and manufacturing cost increase
Solution Approach 1:
The hydrogen-generation system is divided into separate modular assemblies that can be independently manufactured and then integrated into the bowl section. Each assembly contains specific components (electrodes, housing, connections) that can be produced using standard manufacturing processes. This segmentation allows for specialized hydrogen generation effectiveness while maintaining ease of manufacture through modular construction and assembly.
4Illumination intensity
If illumination sources are added to accentuate hydrogen generation, then visual feedback is improved, but energy consumption and device complexity increase
Solution Approach 1:
The illumination sources operate periodically rather than continuously - activating only during hydrogen generation cycles when visual feedback is needed to indicate active hydrogen production to the user. The lights are controlled to turn on when the hydrogen generator is active and turn off when generation stops or when the bowl needs refilling. This periodic operation provides effective visual feedback while minimizing energy consumption compared to continuous illumination.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system effectively maintains a consistent supply of hydrogenated water, ensures easy operation, and addresses durability, affordability, and serviceability concerns, while preventing over-saturation and maintaining hydrogen levels.
Implementation Method 1
The pet hydration system uses a set of hydrogen-generation assemblies provided in the bowl section which are capable of generating hydrogen gas from the water stored in the bowl section itself
Implementation Method 2
The pet hydration system further includes a set of illumination sources which are aligned along a central hole in each of the set of hydrogen-generation assemblies, such that the set of illumination sources emit light via the central holes to accentuate generation of hydrogen by the set of hydrogen-generation assemblies
Implementation Method 3
The pet hydration system further includes a removable filter cartridge to filter the water before being supplied to the bowl section
Implementation Method 4
The reservoir section may be configured to dynamically supply water from the water reservoir to the bowl section in response to water in the bowl section lowering below a predefined level
Data Source
AI summary
Illustrative configurations of a pet hydration system and methods are disclosed. The pet hydration system includes a bowl section configured to temporarily store water therein. In one configuration, a hydrogen-generation assembly is positioned in the bowl section. The hydrogen-generation assembly generates and introduces hydrogen into the water temporarily stored in the bowl section. In other configurations, methods related to pet hydration are also disclosed.