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Home»TRIZ Case»Dynamic Pressure Regulation for Oxygen Control Systems

Dynamic Pressure Regulation for Oxygen Control Systems

May 25, 20264 Mins Read
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Dynamic Pressure Regulation for Oxygen Control Systems

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Summary

Problems

Existing oxygen control systems for applications like CBRN respirators cannot utilize high-pressure air or oxygen sources effectively, as they typically require low air pressure to operate, limiting their applicability.

Innovation solutions

An oxygen control system with a control device that includes a first inlet for high-pressure gas, a second inlet for atmospheric air, and a pressure regulator operable in multiple modes to reduce input pressure to suitable outlet pressures, allowing for air dilution and pressure adjustment, enabling the system to function with high-pressure sources and providing a breathable gas mixture.

TRIZ Analysis

Specific contradictions:

duration of oxygen supply
vs
applicability to low pressure applications

General conflict description:

Duration of action of moving object
vs
Adaptability or versatility
TRIZ inspiration library
15 Dynamics
Try to solve problems with it

Principle concept:

If a high-pressure gas source is used, then the duration of oxygen supply is extended, but the system cannot be used in applications requiring low air pressure

Why choose this principle:

The pressure regulator is designed to dynamically switch between two operating modes: a first mode for reducing pressure to a first outlet pressure suitable for low-pressure applications, and a second mode for reducing pressure to a second outlet pressure for high-pressure applications. This dynamic adaptability allows the system to use high-pressure gas sources while maintaining compatibility with applications requiring low air pressure.

TRIZ inspiration library
35 Parameter changes
Try to solve problems with it

Principle concept:

If a high-pressure gas source is used, then the duration of oxygen supply is extended, but the system cannot be used in applications requiring low air pressure

Why choose this principle:

The system changes the pressure parameter of the supply gas by using a pressure regulator with two distinct outlet pressure settings. The regulator reduces the input pressure from the high-pressure source to either the first outlet pressure or the second outlet pressure, depending on the application requirements, thereby enabling versatility across different pressure conditions.

Application Domain

oxygen control pressure regulation engineering innovation

Data Source

Patent US20230081989A1 Oxygen control system with improved pressure regulator
Publication Date: 16 Mar 2023 TRIZ 电器元件
FIG 01
US20230081989A1-D00001
FIG 02
US20230081989A1-D00002
FIG 03
US20230081989A1-D00003
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AI summary:

An oxygen control system with a control device that includes a first inlet for high-pressure gas, a second inlet for atmospheric air, and a pressure regulator operable in multiple modes to reduce input pressure to suitable outlet pressures, allowing for air dilution and pressure adjustment, enabling the system to function with high-pressure sources and providing a breathable gas mixture.

Abstract

Described are oxygen control systems that utilize compressed air or oxygen. The oxygen control systems may include a control device having a first inlet that enables the flow of a supply gas from a high pressure gas source at an input pressure into the control device. The control device also includes a second inlet that enables a flow of atmospheric air into the control device and an outlet in fluid communication with the first inlet and the second inlet. The control device also includes a pressure regulator that is operable in a first mode and a second mode. In the first mode, the pressure regulator reduces input pressure of the gas to a first outlet pressure at the outlet, and, in the second mode, the pressure regulator reduces the input pressure of the gas to a second outlet pressure at the outlet that is greater than the first outlet pressure.

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    engineering innovation oxygen control pressure regulation
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    Table of Contents
    • Dynamic Pressure Regulation for Oxygen Control Systems
      • Summary
      • TRIZ Analysis
      • Data Source
      • Accelerate from idea to impact
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