Theoretical and Experimental Analysis of Strain in a Tire Under Static Loading and Steady-State Free-Rolling Conditions. Krithivasan, V. April 2011. Accepted: 2011-04-11T20:02:52Z
Paper abstract bibtex This main objective of this work is to predict the operating conditions or the state of a tire based on a wireless sensor suit. First a three dimensional finite element model of a standard reference test tire (SRTT) was developed to better understand the tire deformation under separate cases of static loading, steady state free-rolling and steady-state rolling conditions. A parametric study of normal loading, slip angle and slip ratio was carried out to capture the influence of these parameters. The numerical analysis techniques such as the Fouier analysis, Weibull curve fitting and slope curve method were explored to relate the tire strains to the various loads on the tire. The advantages and disadvantages of the various methods, mentioned above, for strain analysis is also presented. A wireless sensor suite comprising of analog devices (strain, pressure and temperature sensors) was developed to capture the tire deformation under loading conditions similar to those used in the finite element model. This sensor suite formed the basis for experimentally verifying the trends captured by the finite element model on a custom built tire test stand with capabilities of mimicking real-time conditions (under static loading scenario) of a tire in contact with road and steady state conditions on a FlatTrac test bed. Using the results from the experiments and the finite element model an empirical model was developed which demonstrates how the strains measured on the inner surface of the tire could be used to quantify desired parameters such as slip angle, lateral force, slip ratio, longitudinal force and normal load. This resulting empirical equations relate measured strains to the normal load, slip angle, slip ratio, lateral force and longitudinal force.
@unpublished{krithivasan_theoretical_2011,
title = {Theoretical and {Experimental} {Analysis} of {Strain} in a {Tire} {Under} {Static} {Loading} and {Steady}-{State} {Free}-{Rolling} {Conditions}},
copyright = {EMBARGO\_NOT\_AUBURN},
url = {https://etd.auburn.edu//handle/10415/2522},
abstract = {This main objective of this work is to predict
the operating conditions or the state of a tire based on a
wireless sensor suit. First a three dimensional finite element
model of a standard reference test tire (SRTT) was developed to
better understand the tire deformation under separate cases
of static loading, steady state free-rolling and steady-state rolling conditions. A
parametric study of normal loading, slip angle and slip ratio was carried
out to capture the influence of these parameters. The numerical analysis techniques such as the Fouier analysis,
Weibull curve fitting and slope curve method were explored to relate the tire strains to the various loads on the tire. The advantages and disadvantages of the various
methods, mentioned above, for strain analysis is also presented.
A wireless sensor suite comprising of analog devices (strain, pressure and temperature sensors)
was developed to capture the tire deformation under loading
conditions similar to those used in the finite element model.
This sensor suite formed the basis for experimentally verifying
the trends captured by the finite element model on a custom
built tire test stand with capabilities of mimicking real-time
conditions (under static loading scenario) of a tire in contact
with road and steady state conditions on a FlatTrac test bed.
Using the results from the experiments and the finite element
model an empirical model was developed which demonstrates how
the strains measured on the inner surface of the tire could be
used to quantify desired parameters such as slip angle, lateral
force, slip ratio, longitudinal force and normal load. This resulting empirical equations relate
measured strains to the normal load, slip angle, slip ratio, lateral force and longitudinal force.},
language = {en},
urldate = {2024-06-25},
author = {Krithivasan, Vijaykumar},
month = apr,
year = {2011},
note = {Accepted: 2011-04-11T20:02:52Z},
}
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The numerical analysis techniques such as the Fouier analysis, Weibull curve fitting and slope curve method were explored to relate the tire strains to the various loads on the tire. The advantages and disadvantages of the various methods, mentioned above, for strain analysis is also presented. A wireless sensor suite comprising of analog devices (strain, pressure and temperature sensors) was developed to capture the tire deformation under loading conditions similar to those used in the finite element model. This sensor suite formed the basis for experimentally verifying the trends captured by the finite element model on a custom built tire test stand with capabilities of mimicking real-time conditions (under static loading scenario) of a tire in contact with road and steady state conditions on a FlatTrac test bed. Using the results from the experiments and the finite element model an empirical model was developed which demonstrates how the strains measured on the inner surface of the tire could be used to quantify desired parameters such as slip angle, lateral force, slip ratio, longitudinal force and normal load. 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First a three dimensional finite element\nmodel of a standard reference test tire (SRTT) was developed to\nbetter understand the tire deformation under separate cases\nof static loading, steady state free-rolling and steady-state rolling conditions. A\nparametric study of normal loading, slip angle and slip ratio was carried\nout to capture the influence of these parameters. The numerical analysis techniques such as the Fouier analysis, \nWeibull curve fitting and slope curve method were explored to relate the tire strains to the various loads on the tire. The advantages and disadvantages of the various \nmethods, mentioned above, for strain analysis is also presented. \n\nA wireless sensor suite comprising of analog devices (strain, pressure and temperature sensors)\nwas developed to capture the tire deformation under loading\nconditions similar to those used in the finite element model.\nThis sensor suite formed the basis for experimentally verifying\nthe trends captured by the finite element model on a custom\nbuilt tire test stand with capabilities of mimicking real-time\nconditions (under static loading scenario) of a tire in contact\nwith road and steady state conditions on a FlatTrac test bed.\nUsing the results from the experiments and the finite element\nmodel an empirical model was developed which demonstrates how\nthe strains measured on the inner surface of the tire could be\nused to quantify desired parameters such as slip angle, lateral\nforce, slip ratio, longitudinal force and normal load. 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