Continuous Iodide Cutting, Autogenous Fusion, and Iodine Separation Reactor
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Current industrial processes for obtaining refined iodine are inefficient, discontinuous, and face challenges such as limited production capacity, excessive energy consumption, difficulty in controlling and standardizing operational conditions, inefficiency of key equipment, excessive equipment volume and maintenance, iodine losses, and occupational safety risks due to environmental pollution.
Innovation Solution
A continuous process called Iodine Autogenous Fusion (IAF) that combines iodide cutting, melting, and separation in a single reactor, utilizing a preheated iodide solution with an oxidizing agent to achieve instantaneous liquid iodine production, followed by centrifugal or gravitational separation, eliminating the need for bulky equipment and reducing exposure to corrosive conditions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If conventional discontinuous processes are used for iodide cutting and iodine separation, then operational control and standardization are difficult, but equipment volume and maintenance requirements are reduced
Solution Approach 1:
The patent combines multiple discontinuous operations (iodide cutting, iodine melting, and iodine separation) into a single continuous process that occurs within one reactor vessel. This integration eliminates the need for multiple separate equipment units, reducing overall equipment volume while simultaneously improving operational control and standardization through continuous processing.
Solution Approach 2:
The invention implements a continuous process where iodide cutting, iodine generation, and separation occur continuously rather than in batch operations. This continuity enables standardized operational conditions to be maintained consistently, improving ease of operation and control while reducing the equipment volume needed compared to multiple batch processing units.
2Device complexity
If conventional separate operations are used for iodide cutting, melting, and separation, then process simplicity is reduced, but energy consumption is lower
Solution Approach 1:
The patent merges the cutting, melting, and separation operations into a single integrated continuous process within one reactor, significantly simplifying the overall process complexity. Although this integration requires maintaining higher temperatures continuously, it eliminates the need for multiple heating and cooling cycles that would be required in separate batch operations, thereby reducing total energy consumption.
3Productivity
If conventional batch processes are used, then production capacity is limited, but equipment maintenance requirements are reduced
Solution Approach 1:
The invention transitions from batch processing to continuous processing, enabling uninterrupted production that significantly increases production capacity. The continuous operation within a single reactor reduces the frequency of startup and shutdown cycles, thereby reducing wear and maintenance requirements compared to multiple batch processing units that must be repeatedly cycled.
4Loss of substance
If conventional processes are used, then iodine losses occur due to sublimation, but process energy consumption is lower
Solution Approach 1:
The continuous process maintains iodine in a controlled state throughout the reaction and separation phases, preventing the intermittent heating and cooling cycles that cause sublimation losses in batch processes. Although continuous operation requires sustained energy input, it eliminates the thermal shocks and temperature fluctuations that lead to iodine sublimation and loss, thereby reducing overall iodine losses despite higher continuous energy consumption.
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 IAF process significantly enhances production capacity, reduces energy consumption and maintenance, minimizes iodine losses, and improves product purity and safety, enabling automated and efficient operation.
Implementation Method 1
the iodide is reacted 'hot' with an oxidizing reagent
Implementation Method 2
taking advantage of the reaction heat of the cutting, to generate liquid iodine
Implementation Method 3
Iodine Autogenous Fusion (IAF)... iodide cutting, iodine melting and separation thereof
Implementation Method 4
separating reactor equipment (hydrocyclone)
Implementation Method 5
an iodide solution heater
Data Source
AI summary
The present invention relates to a process for obtaining and refining elemental iodine contained in an iodide solution, which specifically comprises the steps of iodide cutting, and iodine melting, which take place simultaneously by reacting the preheated iodide solution with an oxidizing agent for directly producing elemental molten iodine, without passing iodine through a crystalline state; and the step of separating elemental molten iodine from spent melt water by liquid-liquid separation; carrying out all these steps in a single system operated in continuous regime.