Steam Iron Tip Steam Routing With Dual-Chamber Pressure Control
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Existing steam irons face challenges in optimizing steam application options without increasing weight or cost, particularly in providing sufficient steam at the ironing tip while maintaining ease of use and handling.
Innovation Solution
A steam iron design that uses a common steam generation chamber for both soleplate and jet steam outlet functions, with a mechanism allowing for continuous steam generation and a burst of steam, utilizing a drip valve and water pump to control steam output, and labyrinthine passages for increased steam speed, allowing the same actuating button to control both functions for space-saving and user-friendly operation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Device complexity
If a common steam generation chamber is used for both soleplate and jet steam outlet functions, then device complexity is reduced and space is saved, but steam delivery to the ironing tip area is insufficient
Solution Approach 1:
The steam generation chamber is segmented into a first steam generation chamber for continuous steam supply to the soleplate and a second steam generation chamber for burst steam supply to the jet outlet. This segmentation allows each chamber to be optimized for its specific function, ensuring sufficient steam delivery to the ironing tip area while maintaining overall system simplicity.
Solution Approach 2:
The system dynamically switches between continuous steam generation mode (first chamber) and burst steam generation mode (second chamber) based on operational needs. The control unit activates the second chamber when jet steam is required, providing dynamic adaptability that ensures sufficient steam delivery to the ironing tip area while maintaining simple chamber configuration during normal operation.
2Quantity of substance
If separate steam generation chambers are used for soleplate and jet steam outlet functions, then steam delivery to the ironing tip is improved, but device complexity and weight increase
Solution Approach 1:
The steam generation system is segmented into two functional chambers: a first chamber dedicated to continuous steam supply for the soleplate and a second chamber dedicated to burst steam supply for the jet outlet. This segmentation ensures optimized steam delivery to the ironing tip area while keeping each chamber relatively simple in design.
Solution Approach 2:
Both steam generation chambers share common control elements and can operate independently or in combination. The control unit manages both chambers, and the steam distribution system routes steam from either chamber to the appropriate outlet, providing multi-functionality that reduces overall system complexity despite having separate chambers.
3Speed
If water is injected into the second steam generation chamber via water pump, then steam burst speed is increased, but weight and acquisition cost increase
Solution Approach 1:
The system replaces the electric pump mechanism with a manual water injection system. Users can manually inject water into the second steam generation chamber through a fill opening, eliminating the need for a motor-driven pump. This substitution significantly reduces weight and acquisition cost while still enabling burst steam generation when water is injected and rapidly evaporated.
Solution Approach 2:
The second steam generation chamber is designed to be manually refillable through a fill opening, allowing users to service the system themselves. This self-service approach eliminates complex automated pumping mechanisms, reducing both weight and cost while maintaining the capability for rapid steam burst when needed.
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 design enhances steam application efficiency by directing at least 60% of the steam to the ironing tip area, improving wrinkle-smoothing effectiveness while maintaining ease of use and reducing weight and cost compared to prior designs.
Implementation Method 1
a heating element arranged in the steam chamber body, which has a steam generation chamber for steam generation
Implementation Method 2
a heating element arranged in the steam chamber body, which has a steam generation chamber for steam generation
Implementation Method 3
The first steam routing area can be continuously supplied with water via a drip valve for correspondingly continuous steam generation
Implementation Method 4
utilizing a drip valve and water pump to control steam output, and labyrinthine passages for increased steam speed
Data Source
AI summary
A steam iron has steam outlets (19) in the sole, augmented by additional outlets (47) near the tip of the sole and a steam jet (32) spraying ahead of the iron. The distribution can be altered by the setting of a control knob (14) and a plastic membrane valve (34). The steam for the tip outlets (47) and the jet (32) is generated in a common secondary chamber (26) and fed through distribution branches (29, 36). Water is supplied from the main tank (16) by a manually operated pump (24). The steam for the sole outlets (19) is generated in a main chamber (45), with a continuous water supply from a drip valve, optionally augmented by a push button valve. The secondary chamber (26) contains labyrinth passages to generate a higher pressure. About 75 % of the steam generated there is fed to the tip outlets (47).