Waist-Shaped Throat Flowmeter for Photon Phase Accuracy
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Solution Overview
Problem
Existing miscible phase flowmeters suffer from inaccuracies in phase fraction measurement due to structural design limitations, particularly in the measurement cross section, affecting the reliability and accuracy of fluid flow detection.
Innovation Solution
A waist-shaped throttling photon quantum miscible phase flowmeter with a flow channel featuring a first and second variable-diameter section connected to a waist-shaped throat section, where the photon quantum source and detector are positioned opposite each other on parallel planar walls, allowing for improved photon quantum penetration and measurement accuracy through a waist-shaped cross section design.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If a conventional circular cross section is used in the measurement cross section, then the structure is simple and easy to manufacture, but the photon quantum penetration distance is limited and measurement accuracy is reduced
Solution Approach 1:
The patent transforms the conventional circular cross-section into a waist-shaped cross-section by introducing a dimensional change in the measurement cross-section geometry. This waist-shaped design with its characteristic narrow waist portion increases the photon quantum penetration distance through the medium, thereby improving phase fraction measurement accuracy while maintaining manufacturing feasibility through standardized forming processes
2Measurement precision
If the measurement cross section structure is simplified, then the manufacturing cost is reduced, but the representativeness of photon quantum linear measurement is compromised
Solution Approach 1:
The patent applies parameter changes by modifying the geometric parameters of the measurement cross-section to create a waist-shaped configuration. This involves changing the cross-sectional area distribution along the flow direction, creating a narrow waist portion that optimizes photon quantum penetration while maintaining a structure that can be manufactured using conventional techniques such as molding or machining
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 waist-shaped cross section enhances photon quantum penetration and representativeness, ensuring accurate phase fraction measurement by reducing geometric representative errors and improving overall measurement accuracy.
Implementation Method 1
a photon quantum detector, wherein the photon quantum detector is provided on the photon quantum phase fraction device, and is distributed opposite to and in parallel with the photon quantum source, and the photon quantum detector is used to detect energy information about a single photon quantum emitted by the photon quantum source
Data Source
AI summary
A waist-shaped throttling photon quantum miscible phase flowmeter includes a photon quantum phase fraction device, a photon quantum source, and a photon quantum detector distributed opposite to the photon quantum source, for detecting an energy signal of a single photon quantum emitted by the photon quantum source. A flow channel inside the photon quantum phase fraction device includes a first variable-diameter section, a waist-shaped throat section having a waist-shaped-hole shaped cross section in a direction perpendicular to an axial direction of the flow channel, and a second variable-diameter section that are connected in sequence. Inner diameters of the first and second variable-diameter sections gradually decrease from an end away from the throat section to an end close to the throat section. The photon quantum source and the photon quantum detector are both provided on the photon quantum phase fraction device and located at the throat section.