The Influence of Static and Dynamic Platform Characteristics on Hole Quality, Cycle Time and Tool Wear When Drilling Aerospace Metal Alloy Stacks

John McClelland, Michael Morgan, Caroline McClory, Colm Higgins, Rory Collins, Adrian Murphy, Yan Jin

Research output: Chapter in Book/Report/Conference proceedingConference contribution

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Abstract

The need to drill several thousand holes per aircraft through composite and hybrid material stacks is a large challenge for the aerospace assembly process. The ability to produce high quality holes for the lowest tooling costs is at the forefront of requirements for aircraft assembly factories worldwide. Consequently, much research has been conducted into tool design and development, however, the effect of drilling platform characteristics has not been well covered in literature.
Respectively, this research has compared the drilling abilities of a 5-axis precision CNC platform, a hybrid parallel kinematic machine and an articulated robotic arm fitted with a drilling module. In-process force measurement and post process hole and tool analysis methods were used to better understand the effect of static and dynamic platform characteristics on the achievable hole quality, cycle time and tool wear when drilling aerospace metal alloy stacks.
Consequently, tool supplier recommended drilling parameters were found to perform well on the precision CNC platform but were less than optimum for the hybrid parallel kinematic machine and articulated robotic arm fitted with a drilling module. As a result, commercially viable optimised drilling parameters were generated for each platform, leading to improved hole quality, reduced cycle time and a maintained rate of tool wear. This paper has initiated the development of commercially relevant research questions however, further research with more challenging conditions, materials and machining programmes are required as further research.
Original languageEnglish
Title of host publication2017 SAE AeroTech Congress & Exhibition: Proceedings
Number of pages8
Publication statusPublished - 30 Sep 2017
EventSAE AeroTech Congress & Exhibition - Fort Worth, United States
Duration: 26 Sep 201728 Sep 2017

Conference

ConferenceSAE AeroTech Congress & Exhibition
CountryUnited States
CityFort Worth
Period26/09/201728/09/2017

Fingerprint

Drilling
Wear of materials
Metals
Robotic arms
Kinematics
Aircraft
Drilling platforms
Force measurement
Hybrid materials
Industrial plants
Machining
Composite materials
Costs

Keywords

  • drilling
  • aerospace
  • alloy
  • hole quality
  • machine tool

Cite this

@inproceedings{21080f1d6b184a8993594f83f66a959f,
title = "The Influence of Static and Dynamic Platform Characteristics on Hole Quality, Cycle Time and Tool Wear When Drilling Aerospace Metal Alloy Stacks",
abstract = "The need to drill several thousand holes per aircraft through composite and hybrid material stacks is a large challenge for the aerospace assembly process. The ability to produce high quality holes for the lowest tooling costs is at the forefront of requirements for aircraft assembly factories worldwide. Consequently, much research has been conducted into tool design and development, however, the effect of drilling platform characteristics has not been well covered in literature.Respectively, this research has compared the drilling abilities of a 5-axis precision CNC platform, a hybrid parallel kinematic machine and an articulated robotic arm fitted with a drilling module. In-process force measurement and post process hole and tool analysis methods were used to better understand the effect of static and dynamic platform characteristics on the achievable hole quality, cycle time and tool wear when drilling aerospace metal alloy stacks.Consequently, tool supplier recommended drilling parameters were found to perform well on the precision CNC platform but were less than optimum for the hybrid parallel kinematic machine and articulated robotic arm fitted with a drilling module. As a result, commercially viable optimised drilling parameters were generated for each platform, leading to improved hole quality, reduced cycle time and a maintained rate of tool wear. This paper has initiated the development of commercially relevant research questions however, further research with more challenging conditions, materials and machining programmes are required as further research.",
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McClelland, J, Morgan, M, McClory, C, Higgins, C, Collins, R, Murphy, A & Jin, Y 2017, The Influence of Static and Dynamic Platform Characteristics on Hole Quality, Cycle Time and Tool Wear When Drilling Aerospace Metal Alloy Stacks. in 2017 SAE AeroTech Congress & Exhibition: Proceedings. SAE AeroTech Congress & Exhibition , Fort Worth, United States, 26/09/2017.

The Influence of Static and Dynamic Platform Characteristics on Hole Quality, Cycle Time and Tool Wear When Drilling Aerospace Metal Alloy Stacks. / McClelland, John; Morgan, Michael; McClory, Caroline; Higgins, Colm; Collins, Rory; Murphy, Adrian; Jin, Yan.

2017 SAE AeroTech Congress & Exhibition: Proceedings. 2017.

Research output: Chapter in Book/Report/Conference proceedingConference contribution

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