Chapter 15 Stephenson and Agapiou
1. Introduction
2. High Throughput Machining
3. Agile Machining Systems
4. Tooling and Fixturing
5. Materials Handling Systems
High-Speed Machining
1st EditionEditors: Kapil Gupta J. Paulo Davim
Academic Press
Published Date: 4th February 2020
Page Count: 318
Preface
Chapter 1. Introduction to high-speed machining (HSM)
Chapter 2. Performance of Sialon/Si3N4 graded ceramic tools at high speed machining
Chapter 3. High speed machining of composite materials
Chapter 4. Advances in cooling and lubrication for high speed machining
Chapter 5. Cooling and machining strategies for high speed milling of titanium and nickel super alloys
Chapter 6. Virtual CNC machine tool modeling and machining simulation in high speed milling
Chapter 7. Modeling and analysis of high speed milling process stability for industry applications
Chapter 8. Cryogenic cooling-based sustainable machining
Chapter 9. Laser-assisted high speed machining of Inconel 718 alloy
Chapter 10. High speed machining of magnesium and its alloys
Chapter 11. Variants of high speed machining
Index
https://www.elsevier.com/books/high-speed-machining/gupta/978-0-12-815020-7
Chapter 1 - Introduction to high-speed machining (HSM)
Ankit Jain Vivek Bajpai
https://www.sciencedirect.com/science/article/pii/B9780128150207000011
Ch-2. https://www.sciencedirect.com/science/article/pii/B9780128150207000023 see for details of more chapters
Oct 2019
High speed machining is use of higher spindle speed of more than 20000rpm and higher feed rates compared to conventional machining and material removal is carried out using small size cutting tools by giving faster and lighter cuts.
https://www.manufacturingtodayindia.com/sectors/5187-machine-matters-for-high-speed-machining
CUTTING TOOLS - EFFECTIVE APPROACH TO HIGH-SPEED MACHINING
May 27, 2019
https://www.industr.com/en/effective-approach-to-high-speed-machining-2376475
Thread: High speed machining aluminum... An open discussion.
2018
https://www.practicalmachinist.com/vb/cnc-machining/high-speed-machining-aluminum-open-discussion-363234/
https://hsmadvisor.com/
Cimskil — High Throughput Manufacturing
DOD Contract Award - High Throughput Manufacturing Manufacturing Programs.
We were awarded Phase III of the DOD High Throughput Manufacturing Program for automation of manufacturing processes for titanium parts.
This contract, valued at $700,000.00 to our company, after cost-sharing with the Department of Defense, follows on from the Hithru Program Phases I and II.
Hithru Phases I and II addressed two major areas:
Automation of manufacturing engineering tasks for machining 5-axis aerospace parts, based upon the recognition of manufacturing features on the as-designed part with subsequent automated processing of all work required to produce the first good part.
Implementation of a means for end-users to easily program their manufacturing practices for use in automated processing.
For details of the highly encouraging results of Hithru to date, please see Hithru Program.
Team Members for Phases I and II, who were also in Phase III:
National Center for Manufacturing Sciences (Program Management)
Warner Robins Air Logistics Center
Sikorsky Aircraft
Cincinnati Machine
Technology Answers
It is appropriate here to record our thanks to the team members who provided us with so much advice and guidance - and criticism when necessary!
New Team Members for Phase III were:
Boeing Defense & Space
Naval Aviation Depot, Cherry Point
Project Objectives for Phase III
The objective of HITHRU phase III is to develop and capture in CimskilTM best manufacturing practices for titanium components, and apply that knowledge to productivity improvement.
Titanium machining is more complex than aluminum machining. The material is much harder, making the selection of tools, inserts, and coatings a critical factor in determining machining parameters such as axial and radial depth of cut, feed rate and spindle RPM. It is also more expensive than aluminum, resulting in a greater need for efficiency in shop cutting tests. Titanium components with long machining cycles, for a given feature, will require a tool change (to overcome tool dulling) before the feature is completed. That means that the machining system must compensate for any inaccuracy introduced via a tool change. The issue is further complicated by the fact that program participants use a mixture of slab and forging stocks. Slab stock can use the fixturing methods developed in HITHRU phase I, but forging stock will require new fixturing strategies.
http://www.cimskil.com/News.htm
Innovations in Advanced Manufacturing - Papers of Seminars
NIST, USA - 2009
http://www.nist.gov/el/upload/whitepapers.pdf
Guide to Hard Milling and High Speed Machining
Dale Mickelson
Industrial Press, Oct 11, 2006 - 400 pages
https://books.google.co.in/books?id=88OjBgAAQBAJ
High Speed Machining Cuts Moldmaking Cycle Time
15,000 rpm
http://www.mmsonline.com/articles/high-speed-machining-cuts-moldmaking-cycle-time
Updated 25 March 2020
7 Apr 2016
11 Apr 2015
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