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Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor

Research output: Contribution to conference - Without ISBN/ISSN Abstractpeer-review

Published

Standard

Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor. / Celik, H Kursat; Cinar, Recep; Rennie, Allan Edward Watson et al.
2018. 213-213 Abstract from XIX. World Congress of CIGR, Antalya, Turkey.

Research output: Contribution to conference - Without ISBN/ISSN Abstractpeer-review

Harvard

Celik, HK, Cinar, R, Rennie, AEW, Ucar, M & Akinci, I 2018, 'Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor', XIX. World Congress of CIGR, Antalya, Turkey, 22/04/18 - 25/04/18 pp. 213-213.

APA

Celik, H. K., Cinar, R., Rennie, A. E. W., Ucar, M., & Akinci, I. (2018). Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor. 213-213. Abstract from XIX. World Congress of CIGR, Antalya, Turkey.

Vancouver

Celik HK, Cinar R, Rennie AEW, Ucar M, Akinci I. Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor. 2018. Abstract from XIX. World Congress of CIGR, Antalya, Turkey.

Author

Celik, H Kursat ; Cinar, Recep ; Rennie, Allan Edward Watson et al. / Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor. Abstract from XIX. World Congress of CIGR, Antalya, Turkey.1 p.

Bibtex

@conference{07a2defb4cfe4435a523e530b459afa4,
title = "Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor",
abstract = "This study describes a finite element method (FEM) based deformation simulation procedure for a power take off (PTO) shaft in an agricultural tractor. The agricultural tractor is a mobile power source in agricultural fields. The Agricultural tractor transmits power to the working implement through several systems independently. Most especially, rotary elements used in agricultural machinery take the required power and movement from the tractor take off (PTO) shaft. During this operation, the PTO shaft experiences a high dynamic loading condition such as excessive instant (impact) loading. This may cause an undesired failure case for the PTO shaft. In order to prevent such undesired failures, loading condition and stress distribution on the component should be described properly, however, an accurate description of the structural stress distribution on the shaft becomes an important problem. In this content, a case study was carried out on a failed PTO shaft, as described in this paper. The aim of this case study is to exhibit the stress distribution on the PTO shaft through finite element analysis under a torsional loading case which may be considered as the main cause of the failure. Visual outputs from the simulation results revealed a better understanding of the failure zone on the shaft. The maximum equivalent stress magnitude obtained from the simulation was 632.08 [MPa] (which was lower than the fracture point) on the shaft under maximum PTO torque, however, it was concluded that the main reason for the failure was excessive shock torsional loading. This work contributes to further research into usage of numerical method based deformation simulation studies for the transmission elements used in agricultural tractors/machinery.",
keywords = "design of agricultural machinery, finite element analysis, stress analysis, engineering simulation, PTO shaft failure, shock loading",
author = "Celik, {H Kursat} and Recep Cinar and Rennie, {Allan Edward Watson} and Mehmet Ucar and Ibrahim Akinci",
year = "2018",
month = apr,
day = "22",
language = "English",
pages = "213--213",
note = "XIX. World Congress of CIGR, CIGR 2018 ; Conference date: 22-04-2018 Through 25-04-2018",

}

RIS

TY - CONF

T1 - Finite Element Analysis of a PTO Shaft used in an Agricultural Tractor

AU - Celik, H Kursat

AU - Cinar, Recep

AU - Rennie, Allan Edward Watson

AU - Ucar, Mehmet

AU - Akinci, Ibrahim

N1 - Conference code: XIX

PY - 2018/4/22

Y1 - 2018/4/22

N2 - This study describes a finite element method (FEM) based deformation simulation procedure for a power take off (PTO) shaft in an agricultural tractor. The agricultural tractor is a mobile power source in agricultural fields. The Agricultural tractor transmits power to the working implement through several systems independently. Most especially, rotary elements used in agricultural machinery take the required power and movement from the tractor take off (PTO) shaft. During this operation, the PTO shaft experiences a high dynamic loading condition such as excessive instant (impact) loading. This may cause an undesired failure case for the PTO shaft. In order to prevent such undesired failures, loading condition and stress distribution on the component should be described properly, however, an accurate description of the structural stress distribution on the shaft becomes an important problem. In this content, a case study was carried out on a failed PTO shaft, as described in this paper. The aim of this case study is to exhibit the stress distribution on the PTO shaft through finite element analysis under a torsional loading case which may be considered as the main cause of the failure. Visual outputs from the simulation results revealed a better understanding of the failure zone on the shaft. The maximum equivalent stress magnitude obtained from the simulation was 632.08 [MPa] (which was lower than the fracture point) on the shaft under maximum PTO torque, however, it was concluded that the main reason for the failure was excessive shock torsional loading. This work contributes to further research into usage of numerical method based deformation simulation studies for the transmission elements used in agricultural tractors/machinery.

AB - This study describes a finite element method (FEM) based deformation simulation procedure for a power take off (PTO) shaft in an agricultural tractor. The agricultural tractor is a mobile power source in agricultural fields. The Agricultural tractor transmits power to the working implement through several systems independently. Most especially, rotary elements used in agricultural machinery take the required power and movement from the tractor take off (PTO) shaft. During this operation, the PTO shaft experiences a high dynamic loading condition such as excessive instant (impact) loading. This may cause an undesired failure case for the PTO shaft. In order to prevent such undesired failures, loading condition and stress distribution on the component should be described properly, however, an accurate description of the structural stress distribution on the shaft becomes an important problem. In this content, a case study was carried out on a failed PTO shaft, as described in this paper. The aim of this case study is to exhibit the stress distribution on the PTO shaft through finite element analysis under a torsional loading case which may be considered as the main cause of the failure. Visual outputs from the simulation results revealed a better understanding of the failure zone on the shaft. The maximum equivalent stress magnitude obtained from the simulation was 632.08 [MPa] (which was lower than the fracture point) on the shaft under maximum PTO torque, however, it was concluded that the main reason for the failure was excessive shock torsional loading. This work contributes to further research into usage of numerical method based deformation simulation studies for the transmission elements used in agricultural tractors/machinery.

KW - design of agricultural machinery

KW - finite element analysis

KW - stress analysis

KW - engineering simulation

KW - PTO shaft failure

KW - shock loading

M3 - Abstract

SP - 213

EP - 213

T2 - XIX. World Congress of CIGR

Y2 - 22 April 2018 through 25 April 2018

ER -