Brine Maker Hopper Layout for Pipe-Free Salt Dissolution
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Solution Overview
Problem
Existing brine makers face inefficiencies in producing high-concentration brine solutions, are cumbersome to load and clean, and are hindered by internal plumbing that complicates maintenance.
Innovation Solution
A brine maker design featuring a hopper with a sloped floor and side-flow configuration, a partition screen, and no internal plumbing, allowing for efficient dissolution of solute, easy loading, and simplified cleanout, while maintaining a compact footprint.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of repair
If traditional brine maker designs are used, then internal plumbing is required for water distribution, but this complicates maintenance and reduces cleaning efficiency
Solution Approach 1:
The patent removes all internal plumbing from the hopper design. Water is distributed through the hopper floor and walls rather than through internal pipes, eliminating the complex internal plumbing system that difficult to maintain and clean. This extraction of the plumbing system from the hopper interior directly resolves the contradiction by simplifying the device structure while maintaining water distribution functionality.
Solution Approach 2:
The hopper design allows water to flow through and across the salt bed naturally, using gravity and the hopper's own structure for water distribution. The system serves itself by using the hopper floor and walls as the distribution mechanism, eliminating the need for separate plumbing infrastructure that would require maintenance.
2Ease of operation
If hopper designs with internal pipes are used, then water distribution is achieved, but cleaning becomes difficult due to pipe obstructions
Solution Approach 1:
By removing all internal pipes from the hopper, the design eliminates the primary obstruction to cleaning. The hopper interior becomes a clear, open space that can be easily accessed and cleaned with standard equipment, directly improving cleaning efficiency while reducing structural complexity.
Solution Approach 2:
The water distribution function is transferred to the hopper floor and wall surfaces, which are designed with smooth, non-porous coatings that facilitate cleaning. These local areas are optimized for ease of cleaning while maintaining their water distribution function, resolving the contradiction between having water distribution capability and ease of cleaning.
3Productivity
If conventional brine makers are used, then salt dissolution occurs, but the process is inefficient and produces excessive waste
Solution Approach 1:
The design ensures continuous contact between water and salt through the side-flow configuration, where water flows across the entire salt bed rather than through discrete pipe points. This continuous action maximizes dissolution efficiency and minimizes undissolved salt waste, directly improving productivity while reducing substance loss.
Solution Approach 2:
The system uses dynamic water flow across the salt bed rather than static immersion. The moving water current continuously exposes fresh salt surfaces to dissolution, enhancing the dissolution rate and ensuring more complete salt utilization, which improves efficiency and reduces waste.
4Ease of operation
If brine makers with standard footprints are used, then loading capacity is adequate, but the devices are cumbersome and difficult to load
Solution Approach 1:
The hopper features an asymmetric design with a sloped floor that directs salt flow toward the discharge point. This asymmetric geometry optimizes the loading process by guiding material flow naturally, making loading easier while maintaining a compact footprint, thus resolving the contradiction between loading ease and device size.
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 design enables high-concentration brine production with reduced waste, efficient loading, and easy maintenance, enhancing operational efficiency and productivity.
Implementation Method 1
a sloped hopper floor to funnel the solute to ports at the bottom of the hopper
Implementation Method 2
The brine maker converts rock salt into a brine solution
Data Source
AI summary
A brine maker is provided having a substantially cuboid shape. The brine maker may include: a hopper having a top opening configured to receive a solute from above the brine maker; a partition screen separating a solute side of the hopper from a brine side of the hopper; and a plurality of solvent ports located along a bottom floor of the hopper, the solvent ports configured to direct a solvent across the bottom floor of the hopper toward the partition screen.