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49. Nordal D (2017) Development and analysis of tools for hybrid friction stir channeling.
Dissertation for the Degree of Master of Science in Mechanical Engineering, Espoo
50. Vilaça P, Vidal C (2011) Modular adjustable tool and correspondent process for opening
continuous internal channels in solid components. National patent pending Nº 105628T
51. Balasubramanian N et al (2007) Preliminary study of pressure drop and heat transfer through
a friction stir channel. In: Proceedings of IMECE2007, 2007 ASME international mechanical
engineering congress and exposition, November 11–15, Seattle, Washington, USA
52. Balasubramanian N et al (2009) Friction stir channeling: characterization of the channels. J
Mater Proces Technol 209(2009):3696–3704
53. Balasubramanian N et al (2011) Process forces during friction stir channeling in an aluminum
alloy. J Mater Process Technol 211:305–311
54. Balasubramanian N et al (2010) Development of a mechanistic model for friction stir
channeling. J Manuf Sci Eng 132:054504-1-4
55. Pandya S et al (2019) Channel formation during friction stir channeling process—a material
flow study using X-ray micro-computed tomography and optical microscopy. J Manuf Process
41:48–55
56. Pandya S et al (2020) Effect of axial conduction in integral rough friction stir channels: experimental thermo-hydraulic characteristics analyses, Heat and Mass Transfer. Springer-Verlag
GmbH Germany, Part of Springer Nature, Berlin
57. Vidal C et al (2020) Monitoring of the mechanical load and thermal history during friction
stir channelling under constant position and constant force control modes. J Manuf Proces
49:323–334
58. Vidal C et al (2012) Mechanical characterization of friction stir channels under internal pressure
and in-plane bending. Key Eng Mater 488–489:105–108
59. Vidal C et al (2012) Metallographic characterization of friction stir channels. Material Science
Forum 730–732:817–822
60. Rashidi A et al (2013) Channel formation in modified friction stir channeling. Appl Mech
Mater 302:371–376
61. Rashidi A et al (2013) Modified friction stir channeling: a novel technique for fabrication of
friction stir channel. Appl Mech Mater 302:365–370
62. Rashidi A, Mostafapour A (2014) Influence of machine parameters on material flow behaviour
during channeling in modified friction stir channeling. Int J Mater Form
63. Rashidi A, Mostafapour A (2015) Influence of tool pin geometry and moving paths of tool on
channel formation mechanism in modified friction stir channeling technique. Int J Adv Manuf
Technol 80(5):1087–1096
64. Karvinen H et al (2017) New development and testing of FS channeling technique: hybrid FSC.
In: 10th international conference on trends in welding research and 9th international welding
symposium of Japan Welding Society (9WS), pp 376–379
65. Karvinen H et al, Application of hybrid friction stir channeling technique to improve the cooling
efficiency of electronic components. Weld World. https://doi.org/10.1007/s40194-018-0576-8
P. Sarkar et al.
49. Nordal D (2017) Development and analysis of tools for hybrid friction stir channeling.
Dissertation for the Degree of Master of Science in Mechanical Engineering, Espoo
50. Vilaça P, Vidal C (2011) Modular adjustable tool and correspondent process for opening
continuous internal channels in solid components. National patent pending Nº 105628T
51. Balasubramanian N et al (2007) Preliminary study of pressure drop and heat transfer through
a friction stir channel. In: Proceedings of IMECE2007, 2007 ASME international mechanical
engineering congress and exposition, November 11–15, Seattle, Washington, USA
52. Balasubramanian N et al (2009) Friction stir channeling: characterization of the channels. J
Mater Proces Technol 209(2009):3696–3704
53. Balasubramanian N et al (2011) Process forces during friction stir channeling in an aluminum
alloy. J Mater Process Technol 211:305–311
54. Balasubramanian N et al (2010) Development of a mechanistic model for friction stir
channeling. J Manuf Sci Eng 132:054504-1-4
55. Pandya S et al (2019) Channel formation during friction stir channeling process—a material
flow study using X-ray micro-computed tomography and optical microscopy. J Manuf Process
41:48–55
56. Pandya S et al (2020) Effect of axial conduction in integral rough friction stir channels: experimental thermo-hydraulic characteristics analyses, Heat and Mass Transfer. Springer-Verlag
GmbH Germany, Part of Springer Nature, Berlin
57. Vidal C et al (2020) Monitoring of the mechanical load and thermal history during friction
stir channelling under constant position and constant force control modes. J Manuf Proces
49:323–334
58. Vidal C et al (2012) Mechanical characterization of friction stir channels under internal pressure
and in-plane bending. Key Eng Mater 488–489:105–108
59. Vidal C et al (2012) Metallographic characterization of friction stir channels. Material Science
Forum 730–732:817–822
60. Rashidi A et al (2013) Channel formation in modified friction stir channeling. Appl Mech
Mater 302:371–376
61. Rashidi A et al (2013) Modified friction stir channeling: a novel technique for fabrication of
friction stir channel. Appl Mech Mater 302:365–370
62. Rashidi A, Mostafapour A (2014) Influence of machine parameters on material flow behaviour
during channeling in modified friction stir channeling. Int J Mater Form
63. Rashidi A, Mostafapour A (2015) Influence of tool pin geometry and moving paths of tool on
channel formation mechanism in modified friction stir channeling technique. Int J Adv Manuf
Technol 80(5):1087–1096
64. Karvinen H et al (2017) New development and testing of FS channeling technique: hybrid FSC.
In: 10th international conference on trends in welding research and 9th international welding
symposium of Japan Welding Society (9WS), pp 376–379
65. Karvinen H et al, Application of hybrid friction stir channeling technique to improve the cooling
efficiency of electronic components. Weld World. https://doi.org/10.1007/s40194-018-0576-8