A survey and future predictions for the use of chip breaking in unmanned systems

The International Journal of Advanced Manufacturing Technology

Volumn 3, Issue 4, 1988, Pages 87-104

  Jawahir, I S ^a  

^a UNIVERSITY OF WOLLONGONG   (Australia)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 0343105237     PISSN: 02683768     EISSN: 14333015     Source Type: Journal    
DOI: 10.1007/BF02601836     Document Type: Article

References (168)

1. On the Art of Cutting Metals
2. Recent Investigations in Turning and Planning and a New Form of Cutting Tool
3. Cutting Tools Research Committee Report on Machinability
4. Chip Control when Machining Steel with Carbide
5. An Investigation of Radial Rake Angles in Face Milling
6. Predicting the Angle of Chip Flow for Single-Point Cutting Tools
7. Balanced Design Will Fit the Chip Breaker to the Job: Chip Breaker Dimensions are Critical in Taming Chips
8. Chip Control, How to Determine Tool Feed to Obtain Desirable Chip Form?
9. The Effect of Tool-Chip Contact Area in Metal Machining
10. Controlled Contact Cutting Tools
11. Length of Plastic Contact on Rakeface During Metal Cutting
12. Determination of the Contact Zone between Chip and Rake Face and the Pressure in this Zones
13. Metal Cutting and the Built-Up Nose
14. Some Slip-line Fields for Swaging or Expanding, Indenting, Extruding and Machining for Tools with Curved Dies
15. Selecting the Optimum Size of Chip-breaking Grooves
16. An Analysis for Orthogonal Cutting with Restricted Tool-Chip Contact
17. Chip Curl in Metal Cutting Process
18. A Study on Chip Breaker
19. Pure Bending Test of Chip—An Approach to the Prediction of Cutting Force
20. Using Self-exited Vibrations for Chip Breaking
21. Why and How Does the Chip Curl and Break?
22. Some New Slip-line Solutions for Two-dimensional Steady-State Machining
23. Chip Breaking by Interrupted Feed
24. Chip Breaking by Interrupted Cutting
25. Experiments with Controlled Contact Tools
26. Effects of the Curvature on Work Surface on Metal Cutting
27. Cutting with Tools Having a Rounded Edge—Some Theoretical Consideration
28. The Mechanism of Orthogonal Cutting with Controlled Contact Tools
29. Effects of Dynamic Chip Breaking upon Surface Micro Geometry and Free-Chip Dimension
30. Moderne Methoden der Handhabung von Produktions—abfallen
31. Design of Single Point Cutting Tools-Use of Metal Cutting Theory
32. One Solution for Chip Hazard in Turning-Study on Automatic Programming for Numerically Controlled Machines (1st Report)
33. Investigation of the Tool-Chip Contact Length in Metal Cutting
34. Effect of a Rounded Cutting Edge on Cemented Carbide Tools
35. Break Mechanisms in Cutting with a Chip Breaker
36. Some Aspects of Machining with Negative Rake Tools Simulating Grinding
37. A Comparison of an Ultrasonic Method to Determine the Chip/Tool Contact Length with Some Other Methods
38. The Direction of Chip Flow in Oblique Cutting
39. Origins of Side Curl of Chip in Metal Cutting
40. Effect of Wear on Chip-Breaker-Grooved Tools
41. Effect of Chip Forming Devices on Tool-wear in Metal Cutting
42. Chip Curl and the Action of the Groove Type Chip Former
43. A Study on the Chip-Excluding (1st Report)—An Estimated Method of the Facility of Chip-Excluding with Air
44. Cemented—Carbide Tools for Finish—Turning Steels
45. Surface Integrity, Cutting Forces and Chip Formation When Machining with Double Rake Angle Tools
46. Machining Stability using Controlled Contact Tools
47. The Effect of Rake Face Configuration on the Curvature of the Chip in Metal Cutting
48. Chip Formation in Machining Operation at Small Diameter
49. Kinematic Chip Breaking
50. The Operation and Performance of a Groove-type Chip forming Device
51. ‘Determination of Plastic Contact Length Between Chip and Tool in Machining’, Technical Briefs
52. Tool Failure and Chip Form as Restriction when Selecting Cutting Data
53. Analysis of Swarf Breaking Devices
54. The Mechanics of Machining—An Investigation of the Primary Mode of Deformation
55. Reducing the Temperture at Tool-Chip-Work Contact by Changing the Effective Thermal Conductivity of the Tool
56. On the Non-Uniqueness of the Machining Process
57. A New Model for Initial Chip Curl in Continuous Cutting
58. Basic Rules on the Form on Chip in Metal Cutting
59. Finish Turning of Interactable Alloys using Tools with a Finishing Edge
60. An Explanation of the Different Regimes of Friction and Wear using Asperity Deformation Models
61. The Effect of Chip Breaker Constraints on the Mechanics of the Machining Process
62. On the Mechanism of Chip Breaking
63. Present Knowledge of Chip Control
64. Predicting Breaking with Groove Type Breakers
65. Chip Curl, Chip Breaking and Chip Control of the Difficult-to-Cut Materials
66. Effect of Rake Face Design on Cutting Tool Temperature Distribution
67. Some Aspects of Chip Control in Profile Boring
68. A Solution of the Oblique Controlled Contact Continuous Cutting Problems
69. The Effect on Cutting Tool-wear of Various Types of Chip Control Device
70. Cutting Tools with Curved Rake Face—A Means for Breaking Thin Chips
71. Chip Breaking Device for Turning
72. Effect of Stress Distribution on the Shear Angle in Controlled Contact Orthogonal Cutting
73. Cutting Tools with Restricted Contact
74. Turning with Modern Indexable Insert Tooling
75. ‘Machinability: A Mechanics of Machining Approach’ (Invited paper to ASME in honour of F. W. Taylor)
76. The Utilisation of Restricted Rake Face Contact Turning Tools
77. A Practical Method for Estimating Machining Forces from Tool-Chip Contact Areas
78. Material Behaviour During Chip Formation
79. A Study of Some Aspects of Metal Machining Using Controlled Contact Length Tools
80. Chip Control in Metal Cutting
81. Analysis of the Life of Controlled Contact Tools via Flank Contact Temperature Estimation
82. Experimental Research of the Chip Flow Direction and its Application to the Chip Control
83. Chip Control Research Through High-Speed Motion Analysis
84. ‘Chip Formation at High-Cutting Speeds’, Proc. Conf. on High Speed Machining, New Orleans, Louisiana, USA (9–14 Dec. 1984)
85. Simple Vision System Monitors Tools and Swarf
86. Towards Integrated Manufacturing Systems—Manufacturing Cells and Their Subsystems
87. Surface Integrity in Machining Solution—Treated and Aged 2024 Aluminium Alloy Using Natural and Controlled Contact Length Tools. I— Unlubricated Conditions
88. Surface Integrity in Machining Solution—Treated and Aged 2024 Aluminium Alloy Using Natural and Controlled Contact Length Tools. II —Lubricated Conditions
89. The Ledge Tool: A New Cutting Tool Insert
90. Chip Disposability and Tool Wear in Ferritic Steels Mixed with Martensite
91. A Study on Surface Finishing Using a High Feed-Rate Turning-Disposal of Chips and Finishing Surface
92. Trends in the Geometry of Machining Tools
93. Selection of the Cutting Conditions Considering Quality of Chip Disposal
94. A Contribution to Chip Forming Problems in Automated Production
95. Chip Removal and Coolant Filtration on Machine Tools
96. A Study of Continuous/Discontinuous Chip Formation Using Acoustic Emission
97. Chip Control by Means of Specially Designed Helicoidal Faced Cutting Tool
98. Analysis of Oblique Cutting with Controlled Contact Tools
99. Shapes of Chip Formers and their Application Possibilities
100. Methods of Design of Chip Shaper for Interchangeable Cutting Tips
101. Allowing for Nose Radius Effects in Predicting the Chip Flow Direction and Cutting Forces in Bar Turning