Lung Exercise Apparatus Using Density-Adjusted Liquid
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Solution Overview
Problem
There is a need for an exercise system that can effectively exercise a person's lungs and surrounding muscles without requiring movement of the arms or legs, particularly for individuals with injuries, and that can operate in a gravity-less environment.
Innovation Solution
A lung exercise apparatus with an enclosure holding a density-increased liquid, where a person is partially immersed with their lungs submerged, using a harness to keep the head above the liquid surface, and a pump and heater for temperature control, allowing breathing to exercise the lungs in a gravity-less environment.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Power
If a person exercises lungs through running, jumping, or swimming, then lung exercise intensity increases, but the person cannot exercise if they have leg, knee, or ankle injuries
Solution Approach 1:
The invention separates lung exercise from limb movement by submerging the user in liquid, allowing the lungs to be exercised independently through controlled breathing while the body remains supported by buoyancy, eliminating the need for arm or leg movement
Solution Approach 2:
The liquid medium acts as an intermediary that provides buoyant support to the user's body, replacing the need for limb-based support and enabling lung exercise without stressing injured legs, knees, or ankles
2Power
If traditional exercise systems add stress to arms and legs to increase workout intensity, then exercise intensity increases, but this prevents isolated lung exercise without limb movement
Solution Approach 1:
The liquid provides buoyant force that counteracts gravity's pull on the user's body, allowing the lungs to work against resistance from liquid displacement during breathing without requiring the user to support their body weight through limb movement
Solution Approach 2:
The invention uses hydraulic principles by having the user breathe while submerged in liquid, where the lungs expand and contract against the liquid medium, providing resistance-based lung exercise without mechanical involvement of arms or legs
3Reliability
If the enclosure is filled completely with liquid, then maximum buoyancy is achieved, but the user cannot easily enter or exit the enclosure
Solution Approach 1:
The liquid level in the enclosure is made dynamic rather than static, allowing it to be adjusted between a lower level for easy entry/exit and a higher level for maximum buoyancy during exercise, providing flexibility to meet different operational needs
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
Enables targeted lung exercise and muscle strengthening without arm or leg movement, providing a unique health-enhancing experience in a controlled, gravity-less environment.
Implementation Method 1
An additive to the liquid that increases the first density such that a person in the liquid is more buoyant
Implementation Method 2
a pump connected with the enclosure for circulating the liquid and the additive
Implementation Method 3
a heater connected with the enclosure for heating the liquid
Implementation Method 4
a thermostat connected with the heater for controlling the temperature of the heater
Data Source
AI summary
A lung exercise apparatus and method with an enclosure, with an inside, an outside and an open top, configured to hold a liquid of a first density. An additive to the liquid that increases the first density such that a person in the liquid is more buoyant. Weight removably connectable with the person such that a person in the enclosure is held vertical in the enclosure and partially immersed in the liquid below a surface of the liquid and with some of a person's body above the surface of the liquid. And a harness that is removably connectable with the person to hold some of the person's body above the surface of the liquid where lungs in a person's body are below the surface of the liquid.