References:

[1] F Yang and R Pitchumani. Nonisothermal healing and interlaminar bond strength evolution during thermoplastic matrix composites processing. Polymer composites, 24(2):263–278, 2003.
[2] Muhammad Amir Khan. Experimental and simulative description of the thermoplastic tape placement process with online consolidation. PhD thesis, Dissertation, Kaiserslautern, Technische Universit
¨at Kaiserslautern, 2010, 2010.
[3] R Rudolf, P Mitschang, M Neitzel, and C Rueckert. Welding of high-performance thermoplastic composites. Polymers & polymer composites, 7(5):309–315, 1999.
[4] Ali Yousefpour, Mehdi Hojjati, and Jean-Pierre Immarigeon. Fusion bonding/welding of thermoplastic composites. Journal of Thermoplastic composite materials, 17(4):303–341, 2004.
[5] Amna Siddique, Zohaib Iqbal, Yasir Nawab, and Khubab Shaker. A review of joining techniques for thermoplastic composite materials. Journal of Thermoplastic Composite Materials, 36(8):3417–
3454, 2023.
[6] H Potente, J Natrop, T Klit Pedersen, and M Uebbing. Comparative investigations into the welding of glass-fiber-reinforced pes. Journal of Thermoplastic Composite Materials, 6(2):147–159, 1993.
[7] Irene Fernandez Villegas, Lars Moser, Ali Yousefpour, Peter Mitschang, and Harald EN Bersee. Process and performance evaluation of ultrasonic, induction and resistance welding of advanced thermoplastic composites. Journal of Thermoplastic Composite Materials, 26(8):1007–1024, 2013.
[8] F Yang and R Pitchumani. Healing of thermoplastic polymers at an interface under nonisothermal conditions. Macromolecules, 35(8):3213–3224, 2002.
[9] Christophe Ageorges, Lin Ye, Yiu-Wing Mai, and Meng Hou. Characteristics of resistance welding of lap shear coupons.: Part ii. consolidation. Composites Part A: Applied Science and Manufacturing,
29(8):911–919, 1998.
[10] G Jandali and PK Mallick. Vibration welding of continuous-fiber thermoplastic matrix composites. Journal of thermoplastic composite materials, 17(4):343–358, 2004.
[11] JP Ibar. Control of polymer properties by melt vibration technology: A review. Polymer Engineering & Science, 38(1):1–20, 1998.
[12] John Vlachopoulos, Nickolas Polychronopoulos, and Marianna Kontopoulou. Basic concepts in polymer melt rheology and their importance in processing. Applied polymer rheology: polymeric fluids
with industrial applications, pages 1–27, 2012.
[13] Instruments, M. A Basic Introduction to Rheology, volume 1. 2016. Ref: BIR-V1.
[14] LSBU Water. Rheology of Polymers. https://water.lsbu.ac.uk/water/rheology.
[15] Moldex3D. Viscosity model for thermoplastic. https://support.moldex3d.com/2022/en/4-7-1-1_viscositymodelforthermoplastic.html, 2022.
[16] Mihail Vladkov and Jean-Louis Barrat. Linear and nonlinear viscoelasticity of a model unentangled polymer melt: Molecular dynamics and rouse modes analysis. Macromolecular theory and simulations, 15(3):252–262, 2006.
[17] Anthony A Collyer. Techniques in rheological measurement. Springer, 1993.
[18] A Deignan, WF Stanley, and MA McCarthy. Insights into wide variations in carbon fibre/polyetheretherketone rheology data under automated tape placement processing conditions. Journal
of Composite Materials, 52(16):2213–2228, 2018.
[19] Ali Harkous, Tomasz Jurkowski, Jean-Luc Bailleul, and Steven Le Corre. Influence of the temperature on the composites’ fusion bonding quality. In AIP Conference Proceedings, volume 1896. AIP
Publishing, 2017.
[20] Roger Vodicka. Thermoplastics for airframe applications: a review of the properties and repair methods for thermoplastic composites. 1996.
[21] Frederic Neil Cogswell. Thermoplastic aromatic polymer composites: a study of the structure, processing and properties of carbon fibre reinforced polyetheretherketone and related materials. Elsevier, 2013.
[22] CM Stokes-Griffin. A combined Optical-Thermal Model for Laser-Assisted Fibre Placement of Thermoplastic Composite Materials,|| The Australian National University. PhD thesis, PhD thesis, Canberra,
2015.
[23] Omid Aghababaei Tafreshi, Suong Van Hoa, Farjad Shadmehri, Duc Minh Hoang, and Daniel Rosca. Heat transfer analysis of automated fiber placement of thermoplastic composites using a hot gas torch. Advanced Manufacturing: Polymer & Composites Science, 5(4):206–223, 2019.
[24] Faith A Morrison. Understanding rheology. (No Title), 2001.
[25] Eric Beyeler, Walter Phillips, and Selc¸uk I G¨uc¸eri. Experimental investigation of laser-assisted thermoplastic tape consolidation. Journal of Thermoplastic Composite Materials, 1(1):107–121, 1988.
[26] Chul Rim Choe and Kwang Hee Lee. Nonisothermal crystallization kinetics of poly (etheretherketone)(peek). Polymer Engineering & Science, 29(12):801–805, 1989.
[27] Maxime Roux, Nicolas Egu´emann, Clemens Dransfeld, Fr´ed´eric Thi´ebaud, and Dominique Perreux. Thermoplastic carbon fibre-reinforced polymer recycling with electrodynamical fragmentation: From
cradle to cradle. Journal of Thermoplastic Composite Materials, 30(3):381–403, 2017.
[28] Ozan C¸ elik, Dani¨el Peeters, Clemens Dransfeld, and Julie Teuwen. Intimate contact development during laser assisted fiber placement: Microstructure and effect of process parameters. Composites Part A: Applied Science and Manufacturing, 134:105888, 2020.
[29] Lorenz Zacherl, Farjad Shadmehri, and Klemens Rother. Determination of convective heat transfer coefficient for hot gas torch (hgt)-assisted automated fiber placement (afp) for thermoplastic composites. Journal of Thermoplastic Composite Materials, page 0892705720982363, 2021.
[30] Suong V Hoa. Principles of the manufacturing of composite materials. DEStech Publications, Inc, 2009.
[31] Leonard Hollaway. Polymer composites for civil and structural engineering. Springer Science & Business Media, 2012.
[32] Franc¸ois Lemarchand, Pierre Beauchˆene, Bertrand Laine, and Francisco Chinesta. A multi-scale method for predict residual stress appearance in the process of on-line consolidation of thermoplastic
composites. International Journal of Forming Processes, 10(4):471–498, 2007.
[33] Fazil O Sonmez and H Thomas Hahn. Analysis of the on-line consolidation process in thermoplastic composite tape placement. Journal of Thermoplastic Composite Materials, 10(6):543–572, 1997.
[34] Sridhar Ranganathan, Suresh G Advani, and Mark A Lamontia. A non-isothermal process model for consolidation and void reduction during in-situ tow placement of thermoplastic composites. Journal
of Composite Materials, 29(8):1040–1062, 1995.
[35] Muhammad Amir Khan, Peter Mitschang, and Ralf Schledjewski. Tracing the void content development and identification of its effecting parameters during in situ consolidation of thermoplastic tape
material. Polymers and polymer composites, 18(1):1–15, 2010.
[36] Lin Ye, Meng Lu, and Yiu-Wing Mai. Thermal de-consolidation of thermoplastic matrix composites i. growth of voids. Composites Science and Technology, 62(16):2121–2130, 2002.
[37] Pavel Simacek, Suresh G Advani, Mark Gruber, and Brian Jensen. A non-local void filling model to describe its dynamics during processing thermoplastic composites. Composites Part A: Applied Science and Manufacturing, 46:154–165, 2013.
[38] Matthias Narnhofer, Ralf Schledjewski, Peter Mitschang, and Leonhard Perko. Simulation of the tape-laying process for thermoplastic matrix composites. Advances in Polymer Technology, 32(S1):E705–E713, 2013.
[39] John Tierney and JW Gillespie Jr. Modeling of in situ strength development for the thermoplastic composite tow placement process. Journal of Composite Materials, 40(16):1487–1506, 2006.
[40] Vivek Agarwal. The role of molecular mobility in the consolidation and bonding of thermoplastic composite materials. University of Delaware, 1991.
[41] Richard P Wool. Polymer entanglements. Macromolecules, 26(7):1564–1569, 1993.
[42] Philip H Dara and Alfred C Loos. Thermoplastic matrix composite processing model. Technical report, 1985.
[43] CA Butler, R Pitchumani, RL McCullough, and AR Wedgewood. Coupled effects of healing and intimate contact during thermoplastic fusion bonding. In Proc. 10th ASM/ESD Advanced Composites
Conf, pages 595–604, 1994.
[44] Aswani Kumar Bandaru, Gear´oid Clancy, Dani¨el Peeters, Ronan M O’Higgins, and Paul M Weaver. Properties of a thermoplastic composite skin-stiffener interface in a stiffened structure manufactured
by laser-assisted tape placement with in situ consolidation. Composite Structures, 214:123–131, 2019.
[45] Z Qureshi, T Swait, R Scaife, and HM El-Dessouky. In situ consolidation of thermoplastic prepreg tape using automated tape placement technology: Potential and possibilities. Composites Part B:
Engineering, 66:255–267, 2014.
[46] F Shadmehri, SV Hoa, J Fortin-Simpson, and H Ghayoor. Effect of in situ treatment on the quality of flat thermoplastic composite plates made by automated fiber placement (afp). Advanced Manufacturing:
Polymer & Composites Science, 4(2):41–47, 2018.
[47] John Tierney and JW Gillespie Jr. Modeling of in situ strength development for the thermoplastic composite tow placement process. Journal of Composite Materials, 40(16):1487–1506, 2006.
[48] Suong Van Hoa, Minh Duc Hoang, and Jeff Simpson. Manufacturing procedure to make flat thermoplastic composite laminates by automated fibre placement and their mechanical properties. Journal of Thermoplastic Composite Materials, 30(12):1693–1712, 2017.
[49] C M Stokes-Griffin and P Compston. Investigation of sub-melt temperature bonding of carbonfibre/peek in an automated laser tape placement process. Composites Part A: Applied Science and
Manufacturing, 84:17–25, 2016.
[50] SK Mazumdar and SV Hoa. Determination of manufacturing conditions for hot-gas-aided thermoplastic tape winding. Journal of Thermoplastic Composite Materials, 9(1):35–53, 1996.
[51] Vivek Agarwal, RL McCullough, and JM Schultz. The thermoplastic laser-assisted consolidation process-mechanical and microstructure characterization. Journal of thermoplastic composite materials,
9(4):365–380, 1996.
[52] Angeliki Chanteli, Aswani Kumar Bandaru, Dani¨el Peeters, Ronan MO’Higgins, and Paul M Weaver. Influence of repass treatment on carbon fibre-reinforced peek composites manufactured using laser assisted
automatic tape placement. Composite Structures, 248:112539, 2020.
[53] Qiuyu Miao, Zhihong Dai, Guangyi Ma, Fangyong Niu, and Dongjiang Wu. Cf/peek interleaved laminates with peek film interleaving manufactured by laser-assisted forming: Microstructure and
interlaminar shear strength. Composites Part A: Applied Science and Manufacturing, 172:107592, 2023.
[54] Xukang Wang, Cheng Chen, Shirui Hu, Zhikun Chen, Wei Jiang, Guancheng Shen, Zhigao Huang, and Huamin Zhou. In-situ infrared annealing for laser-assisted automated fiber placement to enhance
interlaminar properties without sacrificing laydown efficiency. Composites Part A: Applied Science and Manufacturing, 183:108214, 2024.
[55] Yi Luo, Zongbo Zhang, XiaodongWang, and Yingsong Zheng. Ultrasonic bonding for thermoplastic microfluidic devices without energy director. Microelectronic Engineering, 87(11):2429–2436, 2010.
[56] Robert A Grimm. Welding processes for plastics. Advanced materials & processes, 147(3):27–31, 1995.
[57] J Vetter, V Benende, and GW Ehrenstein. Failure behaviour of extrusion welding seams made of thermoplastic plastics. Schweissen und Schneiden(Germany), 52(2):90, 2000.
[58] Yang-Shiau Chen et al. Ir welding of glass filled polyether sulfone composite. Journal of Applied Science and Engineering, 2(4):229–234, 2000.
[59] GN Labeas, GA Moraitis, and Ch V Katsiropoulos. Optimization of laser transmission welding process for thermoplastic composite parts using thermo-mechanical simulation. Journal of composite
materials, 44(1):113–130, 2010.
[60] Vijay K Stokes. Joining methods for plastics and plastic composites: an overview. Polymer Engineering & Science, 29(19):1310–1324, 1989.
[61] CJ Nonhof, M Riepen, and AW Melchers. Estimates for process conditions during the vibration welding of thermoplastics. Polymer Engineering & Science, 36(15):2018–2028, 1996.
[62] VK Stokes. Vibration welding of thermoplastics. part i: Phenomenology of the welding process. Polymer Engineering & Science, 28(11):718–727, 1988.
[63] R Rudolf, M Neitzel, and W Strohfub. Interaction of variables in vibration welding of continuous fiber reinforced thermoplastics. In International Sampe Technical Conference, volume 29, pages
462–474. SAMPE SOCIETY FOR THE ADVANCEMENT OF MATERIAL, 1997.
[64] Phil Bates, Don Couzens, and Jillian Kendall. Vibration welding of continuously reinforced thermoplastic composites. Journal of Thermoplastic Composite Materials, 14(4):344–354, 2001.
[65] Michael Gehde, Michael Giese, and Gottfried W Ehrenstein. Welding of thermoplastics reinforced with random glass mat. Polymer Engineering & Science, 37(4):702–714, 1997.
[66] Daniel M Maguire. Joining thermoplastic composites. SAMPE J., 25(1):11–14, 1989.
[67] H Potente and M Uebbing. Friction welding of polyamides. Polymer Engineering & Science,37(4):726–737, 1997.
[68] Irene Fernandez Villegas. Ultrasonic welding of thermoplastic composites. Frontiers in Materials, 6:291, 2019.
[69] Avraham Benatar and Timothy G Gutowski. Ultrasonic welding of peek graphite apc-2 composites. Polymer Engineering & Science, 29(23):1705–1721, 1989.
[70] NS Taylor and MN Watson. Welding techniques for plastics and composites. 1988.
[71] WE Kenney. Designing plastic parts for ultrasonic assembly. Machine Design(USA), 64(10):65–68, 1992.
[72] AB Strong, DP Johnson, and BA Johnson. Variables interactions in ultrasonic welding of thermoplastic composites. SAMPE quarterly, 21(2):36–41, 1990.
[73] F Contreras, EA Trillo, and LE Murr. Friction-stir welding of a beryllium-aluminum powder metallurgy alloy. Journal of materials science, 37:89–99, 2002.
[74] PM Schaefer, T Guglhoer, Markus GR Sause, and K Drechsler. Development of intimate contact during processing of carbon fiber reinforced polyamide-6 tapes. Journal of Reinforced Plastics and
Composites, 36(8):593–607, 2017.
[75] Roger J Wise. Thermal welding of polymers. 1999.
[76] Vijay K Stokes. Analysis of the friction (spin)-welding process for thermoplastics. Journal of materials science, 23:2772–2785, 1988.
[77] Kailash Chaudhary. A review on advance welding processes. Int. J. Eng. Tech, 3:86–96, 2017.
[78] Xiangchen Meng, Yongxian Huang, Yuming Xie, Junchen Li, Meng Guan, Long Wan, Zhibo Dong, and Jian Cao. Friction self-riveting welding between polymer matrix composites and metals. Composites
Part A: Applied Science and Manufacturing, 127:105624, 2019.
[79] Christophe Ageorges, Lin Ye, and Meng Hou. Advances in fusion bonding techniques for joining thermoplastic matrix composites: a review. Composites Part A: applied science and manufacturing,
32(6):839–857, 2001.
[80] W Suwanwatana, S Yarlagadda, and JW Gillespie Jr. Hysteresis heating based induction bonding of thermoplastic composites. Composites Science and Technology, 66(11-12):1713–1723, 2006.
[81] Shridhar Yarlagadda, Hee June Kim, JohnWGillespie Jr, Nicholas B Shevchenko, and Bruce K Fink. A study on the induction heating of conductive fiber reinforced composites. Journal of composite
materials, 36(4):401–421, 2002.
[82] Berend Denkena, Carsten Schmidt, Maximilian Kaczemirzk, and Max Schwinn. Influence of a dynamic consolidation force on in situ consolidation quality of thermoplastic composite laminate. Journal
of Composites Science, 5(3):88, 2021.
[83] Vijay K Stokes. Experiments on the induction welding of thermoplastics. Polymer Engineering & Science, 43(9):1523–1541, 2003.
[84] Chung-Yuan Wu, Stefan Staicovici, and Avraham Benatar. Microwave welding of hdpe using impedance matching system. Journal of reinforced plastics and composites, 18(1):27–34, 1999.
[85] Harry S Ku, Fred Siu, Elias Siores, and James AR Ball. Variable frequency microwave (vfm) processing facilities and application in processing thermoplastic matrix composites. Journal of materials
processing technology, 139(1-3):291–295, 2003.
[86] RJ Wise and ID Froment. Microwave welding of thermoplastics. Journal of materials science, 36:5935–5954, 2001.
[87] D Stavrov and HEN Bersee. Resistance welding of thermoplastic composites-an overview. Composites Part A: Applied Science and Manufacturing, 36(1):39–54, 2005.
[88] M Dube, P Hubert, A Yousefpour, and J Denault. Current leakage prevention in resistance welding of carbon fibre reinforced thermoplastics. Composites Science and technology, 68(6):1579–1587, 2008.
[89] R Pitchumani, S Ranganathan, RC Don, JW Gillespie Jr, and Mark A Lamontia. Analysis of transport phenomena governing interfacial bonding and void dynamics during thermoplastic tow-placement.
International journal of heat and mass transfer, 39(9):1883–1897, 1996.
[90] Woo Il Lee and George S Springer. A model of the manufacturing process of thermoplastic matrix composites. Journal of composite materials, 21(11):1017–1055, 1987.
[91] Bill Rehm, Arash Haghshenas, Amir Saman Paknejad, and Jerome Schubert. Situational problems in mpd. In Managed Pressure Drilling, pages 39–80. Elsevier, 2008.
[92] SF Shuler and SG Advani. Transverse squeeze flow of concentrated aligned fibers in viscous fluids. Journal of Non-Newtonian Fluid Mechanics, 65(1):47–74, 1996.
[93] F Yang and R Pitchumani. A fractal cantor set based description of interlaminar contact evolution during thermoplastic composites processing. Journal of materials science, 36:4661–4671, 2001.
[94] Susan C Mantell and George S Springer. Manufacturing process models for thermoplastic composites. Journal of Composite Materials, 26(16):2348–2377, 1992.
[95] A Majumdar and CL Tien. Fractal characterization and simulation of rough surfaces. Wear, 136(2):313–327, 1990.
[96] F Yang and R Pitchumani. Fractal description of interlaminar contact development during thermoplastic composites processing. Journal of reinforced plastics and composites, 20(7):536–546, 2001.
[97] Michael Victor Berry, ZV Lewis, and John Frederick Nye. On the weierstrass-mandelbrot fractal function. Proceedings of the Royal Society of London. A. Mathematical and Physical Sciences,
370(1743):459–484, 1980.
[98] F Yang and R Pitchumani. Interlaminar contact development during thermoplastic fusion bonding. Polymer Engineering & Science, 42(2):424–438, 2002.
[99] RP Wool. Crack healing in polymers. US Army Research Office, 1983.
[100] Young Hwa Kim and Richard P Wool. A theory of healing at a polymer-polymer interface. Macromolecules, 16(7):1115–1120, 1983.
[101] Stephen Prager and Matthew Tirrell. The healing process at polymer–polymer interfaces. The journal of chemical physics, 75(10):5194–5198, 1981.
[102] LJ Bastien and JW Gillespie Jr. A non-isothermal healing model for strength and toughness of fusion bonded joints of amorphous thermoplastics. Polymer Engineering & Science, 31(24):1720–1730,
1991.
[103] Khaled Yassin and Mehdi Hojjati. Processing of thermoplastic matrix composites through automated fiber placement and tape laying methods: A review. Journal of Thermoplastic Composite Materials,
31(12):1676–1725, 2018.
[104] NS Taylor, SB Jones, M Weld, et al. The feasibility of welding thermoplastic composite materials. Construction and Building Materials, 3(4):213–219, 1989.
[105] D Bell, David M Binding, and K Walters. The oscillatory squeeze flow rheometer: comprehensive theory and a new experimental facility. Rheologica acta, 46:111–121, 2006.
[106] Sara L Wingstrand, Nicolas J Alvarez, Ole Hassager, and John M Dealy. Oscillatory squeeze flow for the study of linear viscoelastic behavior. Journal of Rheology, 60(3):407–418, 2016.
[107] Gerard M Swallowe. Mechanical Properties and Testing of Polymers: an A–Z reference, volume 3. Springer Science & Business Media, 1999.
[108] Zheng Yan, Kai Zhi Shen, Jie Zhang, Li Min Chen, and Chixing Zhou. Effect of vibration on rheology of polymer melt. Journal of Applied Polymer Science, 85(8):1587–1592, 2002.
[109] Arash Khodaei and Farjad Shadmehri. Intimate contact development for automated fiber placement of thermoplastic composites. Composites Part C: Open Access, 8:100290, 2022.
[110] Zlate Dimkovski. Characterization of a cylinder liner surface by roughness parameters analysis, 2006.
[111] Brian Griffiths. Manufacturing surface technology: surface integrity & functional performance. CRC Press, 2001.
[112] Gwidon W Stachowiak and Andrew W Batchelor. Engineering tribology. Butterworth-heinemann, 2013.
[113] Omid Aghababaei Tafreshi, Suong Van Hoa, Farjad Shadmehri, Duc Minh Hoang, and Daniel Rosca. Determination of convective heat transfer coefficient for automated fiber placement (afp) for thermoplastic
composites using hot gas torch. Advanced Manufacturing: Polymer & Composites Science, 6(2):86–100, 2020.
[114] Thermoplastic composite material handbook, cytec engineered materials. 1999.
[115] Frederic Neil Cogswell. Thermoplastic aromatic polymer composites: a study of the structure, processing and properties of carbon fibre reinforced polyetheretherketone and related materials. Elsevier, 2013.
[116] HM Hsiao and IM Daniel. Effect of fiber waviness on stiffness and strength reduction of unidirectional composites under compressive loading. Composites science and technology, 56(5):581–593,
1996.
[117] Farjad Shadmehri and Suong Van Hoa. Digital image correlation applications in composite automated manufacturing, inspection, and testing. Applied Sciences, 9(13):2719, 2019.
[118] Ebrahim Oromiehie, Asit Kumar Gain, and B Gangadhara Prusty. Processing parameter optimisation for automated fibre placement (afp) manufactured thermoplastic composites. Composite Structures,
272:114223, 2021.
[119] Jiping Chen, Kunkun Fu, and Yan Li. Understanding processing parameter effects for carbon fibre reinforced thermoplastic composites manufactured by laser-assisted automated fibre placement (afp).
Composites Part A: Applied Science and Manufacturing, 140:106160, 2021.
[120] Kamran Rezvani Jorshari. Non-linear viscoelastic behavior of polymer modified asphalt. 2000.
[121] Milad Khatibi, Nikita Potokin, and Rune W Time. Experimental investigation of effect of salts on rheological properties of non-newtonian fluids. Annual Transactions of the Nordic Rheology Society,
24:117–126, 2016.
[122] D ASTM. Standard test method for lap shear adhesion for fiber reinforced plastic (frp) bonding. Standard No. D5868-01 (2014), 2014.
[123] Chadurvedi Venkatesan, Faiz Zulkifli, and Arlindo Silva. Effects of processing parameters of infrared based automated fiber placement on mechanical performance of carbon fiber-reinforced thermoplastic
composite. Composite Structures, 309:116725, 2023.
[124] Shota Kawasaki, Kimiyoshi Naito, Osuke Ishida, Takehiro Shirai, and Kiyoshi Uzawa. Infrared thermography measurement of temperature distribution in carbon fiber–reinforced polypropylene
during ultrasonic welding. Composites Part A: Applied Science and Manufacturing, 177:107887, 2024.
[125] J Barroeta Robles, M Dube, P Hubert, and A Yousefpour. Healing study of poly (ether-imide) and poly ether ether ketone using resin films and a parallel plate rheometer. Composites Part A: Applied
Science and Manufacturing, 174:107736, 2023.
[126] Abdelkader Mojtabi and Michel O Deville. One-dimensional linear advection–diffusion equation: Analytical and finite element solutions. Computers & Fluids, 107:189–195, 2015.
[127] John Crank. The mathematics of diffusion. Oxford university press, 1979.
[128] J Barroeta Robles, M Dub´e, P Hubert, and A Yousefpour. Repair of thermoplastic composites: An overview. Advanced Manufacturing: Polymer & Composites Science, 8(2):68–96, 2022.
[129] Xinran Xiao1, Suong V Hoal, and Kenneth N Street. Repair of thermoplastic resin composites by fusion bonding. Composites bonding, 1227:30, 1994.
[130] K Jud, HH Kausch, and JG Williams. Fracture mechanics studies of crack healing and welding of polymers. Journal of Materials Science, 16:204–210, 1981.
[131] R. Walsh, M. Vedula, and M.J. Koczak. Sampe quarterly. pages 15–19, July 1989.
[132] A. Benatar and T.G. Gutowski. Sampe quarterly. 18(1):34–41, October 1986.
[133] Edward M Liston. Plasma treatment for improved bonding: A review. The journal of adhesion, 30(1-4):199–218, 1989.
[134] AJ Smiley,MChao, and JW Gillespie Jr. Influence and control of bondline thickness in fusion bonded joints of thermoplastic composites. Composites Manufacturing, 2(3-4):223–232, 1991.
[135] M.W. Heimerdinger. 79th meeting of the agard structures and materials panel on “composite repair of military aircraft structures”. In Proceedings of the 79th Meeting of the AGARD Structures and
Materials Panel, number 550 in AGARD-CP, pages 15–1–15–12, Seville, Spain, October 3–5 1994. AGARD.
[136] C-L Ong, M-F Sheu, and Y-Y Liou. 34th international sampe symposium 1989. pages 458–469, 1989.
[137] W. Unger, H. Ko, E. Altus, and J. S. Hansen. Title of the article. Canadian Aeronautics and Space Journal, 34(4):233–238, December 1988.
[138] Adrian Korycki, Christian Garnier, Margot Bonmatin, Elisabeth Laurent, and France Chabert. Assembling of carbon fibre/peek composites: Comparison of ultrasonic, induction, and transmission
laser welding. Materials, 15(18):6365, 2022.
[139] Benjamin S Hsiao and Bryan B Sauer. Glass transition, crystallization, and morphology relationships in miscible poly (aryl ether ketones) and poly (ether imide) blends. Journal of Polymer Science Part
B: Polymer Physics, 31(8):901–915, 1993.
[140] Christophe Ageorges, Lin Ye, and Meng Hou. Experimental investigation of the resistance welding of thermoplastic-matrix composites. part ii: optimum processing window and mechanical performance. Composites Science and Technology, 60(8):1191–1202, 2000.
[141] Margot Bonmatin, France Chabert, G´erard Bernhart, Thierry Cutard, and Toufik Djilali. Ultrasonic welding of cf/peek composites: Influence of welding parameters on interfacial temperature profiles
and mechanical properties. Composites Part A: Applied Science and Manufacturing, 162:107074, 2022.
[142] Emad Pourahmadi, Farjad Shadmehri, and Rajamohan Ganesan. Interlaminar shear strength of carbon/peek thermoplastic composite laminate: Effects of in-situ consolidation by automated fiber placement
and autoclave re-consolidation. Composites Part B: Engineering, 269:111104, 2024.
[143] H Madhi and G Mohammed. Detection of brain tumors in brain images based on pseudo coloring and spatial methods. journal of engineering and applied sciences, 13(I5):6123–6129, 2018.