Automatic beverage machine
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Solution Overview
Problem
Existing beverage-making systems fail to leverage the full potential of pod-based systems, particularly in using frozen beverage pods to create multiple servings efficiently and dynamically adjust brewing parameters based on pod content information.
Innovation Solution
A beverage-making system that includes a pod receiving compartment with a compression mechanism to extract contents from frozen beverage pods, a rotatable blade for mixing with water, and an electronic pod-reader to adjust parameters such as water temperature and blending settings, enabling the creation of customized beverages.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If a compression mechanism is used to extract contents from frozen beverage pods, then the productivity of beverage production is improved, but the device complexity increases
Solution Approach 1:
The patent introduces a compression mechanism as an intermediary device between the frozen beverage pod and the blending system. This mediator applies mechanical pressure to the frozen pod contents, accelerating their release into the blending chamber. The compression mechanism serves as a bridge that converts the solid frozen state into a processable form, resolving the contradiction by enabling rapid extraction without requiring complex heating or manual thawing systems.
Solution Approach 2:
The patent replaces traditional mechanical blending approaches with a compression-based extraction system. Instead of relying solely on high-speed blending to process frozen ingredients, the system uses controlled compression to force the frozen contents through a mesh or filter into the beverage reservoir. This substitution of mechanical action (compression rather than blending) improves productivity while keeping the overall device complexity manageable.
2Adaptability or versatility
If an electronic pod-reader is implemented to detect pod information, then the adaptability of the system is improved, but the device complexity increases
Solution Approach 1:
The patent implements an electronic pod-reader that detects information encoded on or in the beverage pod (such as RFID tags, barcodes, or magnetic identifiers). This detection system provides feedback to the control unit, which then automatically adjusts brewing parameters such as water temperature, volume, and compression force based on the specific pod type detected. The feedback loop enables the system to adapt to different pod varieties without manual intervention, resolving the contradiction by automating the adaptation process through simple sensor-actuator connections.
Solution Approach 2:
The electronic pod-reader enables the system to self-configure for each pod type without requiring user input or programming. When a pod is inserted, the reader automatically identifies it and the system autonomously selects the appropriate parameters from its control logic. This self-service capability improves adaptability while minimizing the complexity burden on the user, as the electronic components work automatically once the pod is inserted.
3Loss of time
If frozen beverage pods are used instead of fresh ingredients, then the loss of time in preparation is reduced, but the manufacturing precision of the beverage quality may worsen
Solution Approach 1:
The patent addresses the quality consistency challenge by dynamically adjusting key parameters when processing frozen pods. The control unit modifies water temperature (typically higher to facilitate melting and extraction), compression force (increased to overcome the frozen state), and blending duration (extended to ensure thorough mixing). These parameter changes compensate for the frozen state of the ingredients, ensuring that the final beverage quality matches that of fresh ingredient processing despite the time efficiency gains.
Solution Approach 2:
The system performs preliminary actions on the frozen pod contents through controlled compression and pre-heating before blending. The compression mechanism applies pressure to pre-soften and pre-extract the frozen ingredients, while the heating element may partially thaw the contents before they enter the blending chamber. These preliminary actions ensure that the frozen ingredients are properly prepared for blending, maintaining quality consistency while preserving the time advantages of using frozen pods.
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
Enables quick and versatile production of beverages from frozen pods, allowing for multiple servings and dynamic adjustments based on pod content, enhancing the efficiency and customization of the beverage-making process.
Implementation Method 1
the compression mechanism is configured to compress the beverage pod. When the compression mechanism compresses the beverage pod within the pod receiving compartment, the beverage pod's contents are emptied into the beverage reservoir
Implementation Method 2
The beverage reservoir includes a rotatable blade (e.g., a blender-like blade), where the rotatable blade is activated to mix water from the water reservoir with the contents of the beverage pod to create the beverage
Implementation Method 3
the method additionally includes the step of heating the beverage reservoir to melt the contents of the beverage pod
Data Source
AI summary
Systems, methods, and apparatuses of a beverage making system. A beverage making system that uses frozen or partially frozen pods to create a serving of a beverage. The system can include multiple reservoirs along with one or more pumps, a blending element, a heater, and various sensors to create a beverage. A method of creating a beverage describes the different steps that the system goes through in creating a beverage, from receiving and compressing a beverage pod, to mixing and dispensing a beverage.