Methods and systems for an intelligent beverage mixing appliance
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Solution Overview
Problem
The beverage industry faces challenges in delivering high-quality beverages that meet individual consumer taste preferences, maintain correct temperature, carbonation levels, and ingredient ratios, while being efficiently stored and safely delivered to consumers in various environments, including homes and offices.
Innovation Solution
A networked soda mixing appliance with intelligent sub-systems for handling beverage components, including a communications facility, sweetener cooling system, gas handling system, and water system, equipped with sensors for remote management and user customization, allowing for precise control over flavor, sweetness, and carbonation levels, and utilizing ice as a cooling mechanism and ingredient.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If beverage components are stored separately in an appliance for home use, then beverage quality and customization are improved, but device complexity and storage space requirements increase
Solution Approach 1:
The beverage appliance is divided into separate functional modules: a water reservoir, a concentrate reservoir, a carbonation system with CO2 tank, and a mixing chamber. Each component is stored and managed independently, allowing for precise control over beverage composition while keeping each module relatively simple in design.
Solution Approach 2:
The appliance employs a nested storage architecture where concentrate bottles are placed inside the appliance body, the CO2 tank is integrated into the housing, and the mixing chamber is positioned to receive components from all storage locations. This nesting approach maximizes space utilization while maintaining organized separation of components.
2Manufacturing precision
If precise control over carbonation levels is implemented, then beverage quality is improved, but device complexity and gas handling requirements increase
Solution Approach 1:
The carbonation system incorporates a pressure sensor that continuously monitors the CO2 pressure in the tank and provides feedback to the control system. The microprocessor adjusts the solenoid valve opening duration and frequency based on this feedback to maintain precise carbonation levels, achieving accurate control without requiring overly complex manual regulation mechanisms.
Solution Approach 2:
The system automatically regulates carbonation delivery through the solenoid valve controlled by the microprocessor, eliminating the need for manual carbonation adjustment by the user. The system self-adjusts based on pre-programmed recipes and sensor feedback, simplifying the user interface while maintaining precise control.
3Reliability
If multiple sensors are integrated for remote monitoring, then beverage delivery reliability is improved, but device complexity and cost increase
Solution Approach 1:
The microprocessor serves multiple functions: it controls the solenoid valve for carbonation, monitors sensor data from water and concentrate levels, manages the mixing process timing, and communicates with remote systems. This multi-functionality consolidates control logic into a single component, reducing overall system complexity while enabling comprehensive monitoring and reliable beverage delivery.
4Temperature
If correct temperature control is maintained throughout storage and mixing, then beverage quality is improved, but energy consumption and cooling system complexity increase
Solution Approach 1:
The water and concentrate are pre-cooled in their respective reservoirs before mixing. The refrigeration system maintains these components at optimal temperatures in advance, so that when mixing occurs, the temperature control burden is reduced. This preliminary cooling action ensures final beverage temperature accuracy without requiring continuous active cooling during the mixing process.
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 appliance ensures high-quality beverages are delivered at the correct temperature and carbonation levels, customizable to individual preferences, while optimizing storage and delivery efficiency, ensuring safety and availability.
Implementation Method 1
a sweetener cooling system for containing at least one type of liquid form sweetener
Implementation Method 2
a gas handling system for accepting CO2 cartridges
Implementation Method 3
at least one of the sweetener cooling system, the gas handling system, the flavor handling system, and the water system includes at least one sensor adapted to deliver sensed information via the communications facility to the remote host
Data Source
AI summary
Provided herein are methods and systems for a networked soda reconstruction appliance, adapted for home or office use, that includes intelligent sub-systems for handling various beverage components, which can be mixed under intelligent control, including local control and control by a remote host system, which may help manage the appliance itself as well as the replenishment supply chains involved in delivering appropriate beverage components to the appliance.