TY - GEN
T1 - Performance analysis of a tri-adjustable automated heavy-duty handling system designed on industry 4.0 principles
AU - Mafokwane, S. Z.
AU - Von Kallon, Daramy Vandi
N1 - Publisher Copyright:
© IEOM Society International.
PY - 2021
Y1 - 2021
N2 - Over the years, many South African industries have been using Forklift trucks to move bigger loads from one point to another till today. The use of large forklift trucks within indoor manufacturing processes poses OHS risks to workers as its Internal Combustion Engine (ICE) produces fumes (Carbon Monoxide, CO) when in operation and exhaust fumes, (CO), are harmful to human’s health. On this basis, a new system design is recommended to eliminate the use of MHS that relies on ICE power source to prevent OHS risks in indoor manufacturing industries. In this project, Autodesk Inventor Professional software was used for design development of technical drawings and simulation as well as validation of the new system’s structure. Vehicle Dynamics’ principles and equations are used to determine the overall Rolling Resistance, Tractive Effort of the new system, wheel torque, and the power required to drive the system under 20-ton load capacity. The new system design has been developed to operate using a Hydraulic Power pack source, where it consists of four hydraulic wheel hubs for driving the system, four hydraulic cylinders for lifting & lowering, and a double rod end hydraulic cylinder for steering. Electro-Hydraulic circuit systems were developed and proposed using electronics and fluid mechanics phenomena. Again, principles, laws and equations of Strength of Materials has been carried out for validation of the material selection of the new design system’s structure as well as verifying buckling, deflection & bending stresses, and moments.
AB - Over the years, many South African industries have been using Forklift trucks to move bigger loads from one point to another till today. The use of large forklift trucks within indoor manufacturing processes poses OHS risks to workers as its Internal Combustion Engine (ICE) produces fumes (Carbon Monoxide, CO) when in operation and exhaust fumes, (CO), are harmful to human’s health. On this basis, a new system design is recommended to eliminate the use of MHS that relies on ICE power source to prevent OHS risks in indoor manufacturing industries. In this project, Autodesk Inventor Professional software was used for design development of technical drawings and simulation as well as validation of the new system’s structure. Vehicle Dynamics’ principles and equations are used to determine the overall Rolling Resistance, Tractive Effort of the new system, wheel torque, and the power required to drive the system under 20-ton load capacity. The new system design has been developed to operate using a Hydraulic Power pack source, where it consists of four hydraulic wheel hubs for driving the system, four hydraulic cylinders for lifting & lowering, and a double rod end hydraulic cylinder for steering. Electro-Hydraulic circuit systems were developed and proposed using electronics and fluid mechanics phenomena. Again, principles, laws and equations of Strength of Materials has been carried out for validation of the material selection of the new design system’s structure as well as verifying buckling, deflection & bending stresses, and moments.
KW - Finite Element Methods
KW - Hydraulics
KW - Internal Combustion Engine
KW - Manufacturing
KW - Material Handling System
KW - Occupational Health & Safety
UR - http://www.scopus.com/inward/record.url?scp=85121138892&partnerID=8YFLogxK
M3 - Conference contribution
AN - SCOPUS:85121138892
SN - 9781792361258
T3 - Proceedings of the International Conference on Industrial Engineering and Operations Management
SP - 2910
EP - 2921
BT - Proceedings of the International Conference on Industrial Engineering and Operations Management, 2021
PB - IEOM Society
T2 - 2nd South American Conference on Industrial Engineering and Operations Management, IEOM 2021
Y2 - 5 April 2021 through 8 April 2021
ER -