A low-error calibration model for an electrostatic gas-solid flow sensor fusion obtained via machine learning techniques with experimental data

Research output: Contribution to conferencePaper

Abstract

Sensor fusion is the use of software that intelligently combines data from multiple sensors in
order to improve overall system performance. This technique can be applied to measurement
of mass flow rate of solids in a pipeline with non-intrusive electrostatic techniques. Data fusion
from multiple heterogeneous/homogenous sensors can overcome limitations of an individual
sensor and measured variable. It is shown that the output voltage of a ring-shaped electrode is
predominantly a function of solids mass flow rate, air-solids ratio and particle velocity. By
additionally incorporating measured flow velocity in a proposed mathematical model (obtained
via machine learning), meter output voltage could be predicted/calculated with superior
accuracy, for a range of different flow parameters from numerous experiments with a pneumatic
conveying system. A transposed model utilised in software enables accurate mass flow
measurement with velocity compensation. Accurate mass flow measurement facilitates
enhanced monitoring and controllability of blast furnaces, power stations, chemical reactors
etc. where there is a flow of solid fuel/reactant in pipelines. Optimisation of highly materially
consumptive and energy intensive processes can yield significant reductions in waste and
emissions (CO2, NOx) and increased efficiencies in global production of energy and materials.
Keywords: sensor fusion, machine learning, electrostatic flow measurement, gas-solid flow,
pneumatic conveying, non-linear regression
Original languageEnglish
Publication statusAccepted/In press - 26 Jun 2019
EventInternational Conference on Energy and Sustainable Futures 2019 - Nottingham Trent University, Nottingham, United Kingdom
Duration: 9 Sep 201911 Sep 2019
https://www.ntu.ac.uk/about-us/events/events/2019/09/the-international-conference-on-energy-and-sustainable-futures-icesf-2019

Conference

ConferenceInternational Conference on Energy and Sustainable Futures 2019
Abbreviated titleICESF 2019
CountryUnited Kingdom
CityNottingham
Period9/09/1911/09/19
Internet address

Fingerprint

Flow of solids
Learning systems
Electrostatics
Fusion reactions
Calibration
Sensors
Flow measurement
Gases
Pipelines
Flow rate
Electric potential
Conveying
Blast furnaces
Controllability
Flow velocity
Pneumatics
Mathematical models
Electrodes
Monitoring
Air

Cite this

Kidd, A., Zhang, J., & Cheng, R. (Accepted/In press). A low-error calibration model for an electrostatic gas-solid flow sensor fusion obtained via machine learning techniques with experimental data. Paper presented at International Conference on Energy and Sustainable Futures 2019, Nottingham, United Kingdom.
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title = "A low-error calibration model for an electrostatic gas-solid flow sensor fusion obtained via machine learning techniques with experimental data",
abstract = "Sensor fusion is the use of software that intelligently combines data from multiple sensors inorder to improve overall system performance. This technique can be applied to measurementof mass flow rate of solids in a pipeline with non-intrusive electrostatic techniques. Data fusionfrom multiple heterogeneous/homogenous sensors can overcome limitations of an individualsensor and measured variable. It is shown that the output voltage of a ring-shaped electrode ispredominantly a function of solids mass flow rate, air-solids ratio and particle velocity. Byadditionally incorporating measured flow velocity in a proposed mathematical model (obtainedvia machine learning), meter output voltage could be predicted/calculated with superioraccuracy, for a range of different flow parameters from numerous experiments with a pneumaticconveying system. A transposed model utilised in software enables accurate mass flowmeasurement with velocity compensation. Accurate mass flow measurement facilitatesenhanced monitoring and controllability of blast furnaces, power stations, chemical reactorsetc. where there is a flow of solid fuel/reactant in pipelines. Optimisation of highly materiallyconsumptive and energy intensive processes can yield significant reductions in waste andemissions (CO2, NOx) and increased efficiencies in global production of energy and materials.Keywords: sensor fusion, machine learning, electrostatic flow measurement, gas-solid flow,pneumatic conveying, non-linear regression",
author = "Andrew Kidd and Jianyong Zhang and Ruixue Cheng",
year = "2019",
month = "6",
day = "26",
language = "English",
note = "International Conference on Energy and Sustainable Futures 2019, ICESF 2019 ; Conference date: 09-09-2019 Through 11-09-2019",
url = "https://www.ntu.ac.uk/about-us/events/events/2019/09/the-international-conference-on-energy-and-sustainable-futures-icesf-2019",

}

Kidd, A, Zhang, J & Cheng, R 2019, 'A low-error calibration model for an electrostatic gas-solid flow sensor fusion obtained via machine learning techniques with experimental data', Paper presented at International Conference on Energy and Sustainable Futures 2019, Nottingham, United Kingdom, 9/09/19 - 11/09/19.

A low-error calibration model for an electrostatic gas-solid flow sensor fusion obtained via machine learning techniques with experimental data. / Kidd, Andrew; Zhang, Jianyong; Cheng, Ruixue.

2019. Paper presented at International Conference on Energy and Sustainable Futures 2019, Nottingham, United Kingdom.

Research output: Contribution to conferencePaper

TY - CONF

T1 - A low-error calibration model for an electrostatic gas-solid flow sensor fusion obtained via machine learning techniques with experimental data

AU - Kidd, Andrew

AU - Zhang, Jianyong

AU - Cheng, Ruixue

PY - 2019/6/26

Y1 - 2019/6/26

N2 - Sensor fusion is the use of software that intelligently combines data from multiple sensors inorder to improve overall system performance. This technique can be applied to measurementof mass flow rate of solids in a pipeline with non-intrusive electrostatic techniques. Data fusionfrom multiple heterogeneous/homogenous sensors can overcome limitations of an individualsensor and measured variable. It is shown that the output voltage of a ring-shaped electrode ispredominantly a function of solids mass flow rate, air-solids ratio and particle velocity. Byadditionally incorporating measured flow velocity in a proposed mathematical model (obtainedvia machine learning), meter output voltage could be predicted/calculated with superioraccuracy, for a range of different flow parameters from numerous experiments with a pneumaticconveying system. A transposed model utilised in software enables accurate mass flowmeasurement with velocity compensation. Accurate mass flow measurement facilitatesenhanced monitoring and controllability of blast furnaces, power stations, chemical reactorsetc. where there is a flow of solid fuel/reactant in pipelines. Optimisation of highly materiallyconsumptive and energy intensive processes can yield significant reductions in waste andemissions (CO2, NOx) and increased efficiencies in global production of energy and materials.Keywords: sensor fusion, machine learning, electrostatic flow measurement, gas-solid flow,pneumatic conveying, non-linear regression

AB - Sensor fusion is the use of software that intelligently combines data from multiple sensors inorder to improve overall system performance. This technique can be applied to measurementof mass flow rate of solids in a pipeline with non-intrusive electrostatic techniques. Data fusionfrom multiple heterogeneous/homogenous sensors can overcome limitations of an individualsensor and measured variable. It is shown that the output voltage of a ring-shaped electrode ispredominantly a function of solids mass flow rate, air-solids ratio and particle velocity. Byadditionally incorporating measured flow velocity in a proposed mathematical model (obtainedvia machine learning), meter output voltage could be predicted/calculated with superioraccuracy, for a range of different flow parameters from numerous experiments with a pneumaticconveying system. A transposed model utilised in software enables accurate mass flowmeasurement with velocity compensation. Accurate mass flow measurement facilitatesenhanced monitoring and controllability of blast furnaces, power stations, chemical reactorsetc. where there is a flow of solid fuel/reactant in pipelines. Optimisation of highly materiallyconsumptive and energy intensive processes can yield significant reductions in waste andemissions (CO2, NOx) and increased efficiencies in global production of energy and materials.Keywords: sensor fusion, machine learning, electrostatic flow measurement, gas-solid flow,pneumatic conveying, non-linear regression

M3 - Paper

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Kidd A, Zhang J, Cheng R. A low-error calibration model for an electrostatic gas-solid flow sensor fusion obtained via machine learning techniques with experimental data. 2019. Paper presented at International Conference on Energy and Sustainable Futures 2019, Nottingham, United Kingdom.