Nested Brewing Tank Design for Space-Efficient Multi-Step Brewing
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Solution Overview
Problem
The brewing process for beverages like beer is laborious and requires expensive, large equipment and skilled technicians, occupying significant space and involving multiple steps such as mashing, boiling, lautering, and fermenting.
Innovation Solution
A brewing system comprising a tank with an inner cylinder within an outer cylinder, a rotary arm, inlet and outlet pipes, and a fluid coupling system, allowing for efficient mashing, boiling, and transfer of wort between tanks, with automated processes and sensors for temperature and liquid level monitoring.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If traditional brewing equipment is used, then brewing process can be completed, but equipment occupies large floor space and is expensive
Solution Approach 1:
The patent implements nesting by placing the inner cylinder (containing the rotary arm and mashing mechanism) inside the outer cylinder (tank). This nested configuration allows multiple functional components to occupy the same spatial footprint, significantly reducing the floor space required while maintaining full brewing capability. The inner cylinder rotates within the outer cylinder, enabling mashing and mixing operations without requiring additional external equipment.
Solution Approach 2:
The patent merges multiple brewing functions into a single integrated tank assembly. The tank combines mashing (via the rotary arm with flight bars), boiling, and lautering capabilities within one unit. The heating element, temperature sensors, and fluid circulation system are all integrated into the tank structure, eliminating the need for separate equipment for each brewing step and thereby reducing overall space requirements.
2Productivity
If traditional brewing equipment is used, then brewing process can be completed, but equipment cost is high
Solution Approach 1:
The tank is designed as a multi-functional unit that performs mashing, boiling, and lautering operations. The rotary arm with adjustable flight bars can be configured for different operations, and the same tank serves multiple purposes in the brewing process. This universality reduces the need for multiple specialized pieces of equipment, thereby lowering manufacturing costs and making the system more affordable while maintaining complete brewing capability.
Solution Approach 2:
The nested configuration of the inner cylinder within the outer cylinder allows compact integration of multiple functions. The rotary arm assembly, heating element, and fluid circulation components are all housed within the same tank structure, reducing material requirements and manufacturing complexity compared to traditional separate equipment, thereby lowering overall system cost.
3Productivity
If traditional brewing equipment is used, then brewing process can be completed, but process requires qualified brewing technicians
Solution Approach 1:
The system incorporates temperature sensors that continuously monitor the brewing process and provide feedback to the control system. This automatic temperature control eliminates the need for skilled technicians to manually manage heating and cooling operations. The sensors detect temperature changes and automatically adjust heating elements to maintain optimal brewing conditions, simplifying operation and reducing dependency on qualified personnel.
Solution Approach 2:
The rotary arm with flight bars automatically performs mashing and mixing operations through rotation, eliminating the need for manual stirring by technicians. The system self-regulates the brewing process through automated temperature control and fluid circulation, reducing operational complexity and making the system easier to operate without requiring qualified brewing technicians.
4Productivity
If traditional brewing equipment is used, then brewing process can be completed, but process involves multiple steps requiring large equipment
Solution Approach 1:
The patent merges mashing, boiling, and lautering equipment into a single integrated tank assembly. The rotary arm mechanism combines mixing and mashing functions, while the same tank serves as the vessel for boiling and subsequent lautering operations. This consolidation reduces device complexity by eliminating the need for multiple separate large equipment pieces while maintaining the capability to complete all brewing steps.
Solution Approach 2:
The tank is designed as a universal vessel that performs multiple brewing functions. The adjustable rotary arm can be configured for different operations, and the same tank structure is used for mashing, boiling, and lautering. This multi-functionality reduces equipment structure complexity by using a single versatile piece of equipment instead of multiple specialized devices.
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 simplifies the brewing process, reduces equipment size and cost, and enables efficient production of beer with automated steps, improving efficiency and space utilization while maintaining quality control.
Implementation Method 1
a heating element arranged within the first tank and configured for heating water within the first tank to a boiling point
Implementation Method 2
a rotary arm arranged within an upper portion of the first tank... the rotary arm configured for rotating about a vertical axis within the first tank
Data Source
AI summary
A component of a brewing system is provided, comprising a tank; a rotary arm disposed within the tank; an inlet pipe coupled with the rotary arm; and an outlet pipe coupled with a fluid coupling system of the brew system. Additionally, a brewing system is provided, which comprises: a first and a second tank, and a fluid coupling system between the first and second tank, the first tank including: an inner cylinder and an outer cylinder; a rotary arm; an inlet pipe fluidly coupled with the rotary arm; and an outlet pipe. Further, a method is provided, comprising: receiving water into the first tank; boiling the water; receiving malt into the first tank; mashing the malt to form a mash; transferring the mash out of the first tank; receiving wort into the first tank; boiling the wort within the first tank; and transferring the wort out of the first tank.