Vacuum Multi-Phase Water Distillation System
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Current desalination technologies are energy-intensive and costly, failing to efficiently meet the increasing global demand for freshwater due to their inefficiencies in energy usage and cost-effectiveness.
Innovation Solution
A vacuum-applied multi-phase system that utilizes the natural processes of evaporation and freezing to purify water, leveraging the inherent heat transfer properties across different phases of water to drive the desalination process, incorporating a system with primary and secondary vessels and a vacuum apparatus to evaporate and freeze water portions, separating contaminants and producing purified water.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Use of energy by moving object
If conventional desalination technologies are used, then water purification is achieved, but energy consumption is high and cost is high
Solution Approach 1:
The patent utilizes phase transitions of water (liquid to vapor during evaporation, vapor to liquid during condensation, liquid to solid during freezing) to achieve desalination. The vacuum environment lowers the boiling point, enabling evaporation at lower temperatures and reducing energy consumption while maintaining effective separation of salt and water through phase changes.
Solution Approach 2:
The patent changes the pressure parameter by creating a vacuum environment, which fundamentally alters the phase transition temperatures of water. This parameter change allows evaporation to occur at temperatures below 100°C, significantly reducing the energy input required compared to conventional high-temperature distillation methods while maintaining effective desalination.
2Productivity
If evaporation and freezing methods are used, then energy requirements are reduced, but the rate of freshwater production must be increased
Solution Approach 1:
The patent divides the water body into multiple portions that undergo different phase transitions simultaneously - some water evaporates while other portions freeze. This segmentation allows parallel processing of multiple water portions, increasing the overall freshwater production rate without proportionally increasing energy consumption, as the freezing process releases latent heat that can be utilized.
Solution Approach 2:
The patent establishes a continuous cycle where evaporated water is condensed and collected, while frozen water is melted and collected, with both processes occurring continuously rather than batch-wise. The vacuum apparatus maintains continuous operation, and the system design allows for continuous feed and product removal, maximizing productivity while maintaining low energy requirements through the sustained phase transition processes.
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
This method significantly increases freshwater production while reducing energy requirements, providing a sustainable and cost-effective solution for desalination, applicable to various water sources including seawater, wastewater, and industrial contaminants, enhancing the efficiency and sustainability of water purification processes.
Implementation Method 1
a first water portion is evaporated off a quantity of source water
Implementation Method 2
a vacuum apparatus is used to drive the first water portion, through the vacuum apparatus, and into the second vessel
Implementation Method 3
the vacuum apparatus is used to freeze a second water portion from the quantity of source water within the first vessel
Implementation Method 4
utilizing the inherent heat transfer properties of each phase to drive the functioning of the present invention
Data Source
Figure 1
Figure 2
Figure 3
AI summary
A system and method of distilling/desalinating water in a vacuum-applied multi-phase manner purifies water of its dissolved and/or undissolved contaminants. The system includes at least one primary vessel (1), at least one vacuum apparatus (2), and at least one secondary vessel (3). The primary vessel (1) initially retains a quantity of source water. A vacuum pressure is then generated inside the primary vessel (1) with the vacuum apparatus (2), which evaporates a first water portion off the source water and freezes a second water portion on the source water. The first water portion is then condensed inside the secondary vessel (3). After the remaining source water is drained out of the primary vessel (1), the first water portion in its liquid state is transferred into the primary vessel (1) and poured onto the second water portion in its solid state, which melts the first water portion and the second water portion together to be a quantity of purified water.