Pitot-Static-Tube-Based Waterflow Sensor for Marine Biologging via Inside Sealing of an Incompressible Liquid

This article presents a waterflow sensor for marine biologging. Although biologging methods have attracted attention in evaluating marine animals' swimming performance, it has been difficult to directly measure the long-term waterflow velocity against a swimming animal. This is because the sens...

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Veröffentlicht in:IEEE sensors journal 2021-09, Vol.21 (18), p.19806-19814
Hauptverfasser: Kishimoto, Takuto, Saito, Ryosuke, Tanaka, Hiroto, Takahashi, Hideotoshi
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container_end_page 19814
container_issue 18
container_start_page 19806
container_title IEEE sensors journal
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creator Kishimoto, Takuto
Saito, Ryosuke
Tanaka, Hiroto
Takahashi, Hideotoshi
description This article presents a waterflow sensor for marine biologging. Although biologging methods have attracted attention in evaluating marine animals' swimming performance, it has been difficult to directly measure the long-term waterflow velocity against a swimming animal. This is because the sensors require strict specifications, such as sufficient sensitivity and accuracy, small size and light weight, ability to move between water and air for breathing, and sufficient water pressure resistance. Here, we propose a waterflow sensor based on a closed-inlet Pitot-static tube structure that satisfies these requirements. The tube is filled with incompressible liquid. Silicone membranes are attached to the inlets to prevent air bubble infiltration. A differential pressure sensor chip, which works as the Pitot-static tube's sensing element, is built into the tube housing to measure the pressure difference between the inlets. Due to the fluid incompressibility, the required pressure resistance is realized. The developed sensor responded to waterflow from 0.2 m/s to 1.6 m/s with sufficiently high sensitivity. Therefore, the proposed sensor can be utilized for the biologging of marine animals.
doi_str_mv 10.1109/JSEN.2021.3094565
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Although biologging methods have attracted attention in evaluating marine animals' swimming performance, it has been difficult to directly measure the long-term waterflow velocity against a swimming animal. This is because the sensors require strict specifications, such as sufficient sensitivity and accuracy, small size and light weight, ability to move between water and air for breathing, and sufficient water pressure resistance. Here, we propose a waterflow sensor based on a closed-inlet Pitot-static tube structure that satisfies these requirements. The tube is filled with incompressible liquid. Silicone membranes are attached to the inlets to prevent air bubble infiltration. A differential pressure sensor chip, which works as the Pitot-static tube's sensing element, is built into the tube housing to measure the pressure difference between the inlets. Due to the fluid incompressibility, the required pressure resistance is realized. 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subjects Air bubbles
Animals
biologging
Biology
Biomembranes
Biosensors
Differential pressure
Flow sensor
Fluid flow
Incompressibility
Incompressible flow
incompressible liquid
Inlets
Marine animals
Marine biology
Mechanical sensors
pitot-static tube
Pressure sensors
Sea measurements
Sensitivity
Sensor phenomena and characterization
Sensors
Swimming
Water pressure
waterflow velocity
Weight reduction
title Pitot-Static-Tube-Based Waterflow Sensor for Marine Biologging via Inside Sealing of an Incompressible Liquid
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