logo
calendar24 Dekabr 2025
view11
Main language:Russian

Scientific Analysis of the Ultrasonic Method of Fabric Seaming and Development of an Advanced Sewing Machine

Field of Science:EngineeringEngineering (miscellaneous)
National field of science (HAC):01.02.02 — Dynamics and strength of machines, instruments and equipment01.02.03 — Mechanics of soils and rocks01.02.04 — Mechanics of deformable solids01.02.05 — Fluid and gas mechanics01.04.01 — Instruments and methods of experimental physics01.04.04 — Physical electronics01.04.10 — Semiconductor physics04.00.10 — Geotechnology (open-pit, underground and construction)04.00.04 — Hydrogeology and engineering geology04.00.09 — Mine surveying04.00.11 — Well drilling and development technology04.00.12 — Construction and operation of oil and gas pipelines, bases and storage facilities04.00.13 — Development and operation of oil and gas fields04.00.14 — Mineral processing04.00.15 — Technology and engineering of geological exploration04.00.16 — Mining machinery04.00.17 — Physical processes in mining05.01.01 — Engineering geometry and computer graphics. Audio and video technologies05.01.02 — Systems analysis, control and information processing05.01.04 — Mathematical and software support of computers, complexes and computer networks05.01.05 — Information protection methods and systems. Information security05.05.04 — Industrial heat power engineering05.02.03 — Technological machines. Robots, mechatronics and robotic systems05.01.08 — Automation and control of technological processes and productions05.01.10 — Information retrieval systems and processes05.01.11 — Digital technologies and artificial intelligence05.02.02 — Theory of mechanisms and machines. Machine science and machine parts05.02.04 — Standardization and product quality management05.02.05 — Technologies and processes of mechanical and physico-technical machining. Machine tools and equipment05.02.07 — Machines, apparatuses, units and devices of mechanical engineering05.02.06 — Technologies and equipment for processing structural materials05.02.08 — Ground complexes and aircraft05.04.01 — Telecommunication and computer systems, telecommunication networks and devices. Information distribution05.03.02 — Metrology and metrological support05.03.01 — Instruments. Measurement and control methods (by industry)05.05.02 — Electrical engineering. Electric power stations and systems. Electrotechnical complexes and devices05.04.02 — Radio engineering, radionavigation, radiolocation and television systems and devices. Mobile and fiber-optic communication systems05.05.01 — Power systems and complexes05.05.03 — Lighting engineering. Special lighting technologies05.08.03 — Operation of railway transport05.05.08 — Electronics05.05.09 — Nuclear power installations and technologies05.05.10 — Nuclear reactor engineering, machines, units and materials technology of the nuclear industry05.06.01 — Materials science of textile and light industry production05.06.02 — Technology of textile materials and primary processing of raw materials05.06.03 — Technology of leather, fur, footwear and leather haberdashery05.06.04 — Garment technology and costume design05.07.02 — Operation, restoration and repair of agricultural and land-reclamation machinery05.08.01 — Transport systems of the country, its regions, cities and industrial centers. Transport logistics05.08.02 — Railways and track facilities05.08.04 — Navigation and air traffic control05.08.05 — Railway rolling stock, train traction and electrification05.09.01 — Building structures, buildings and constructions05.08.06 — Wheeled and tracked vehicles and their operation05.09.02 — Bases, foundations and underground structures. Bridges and transport tunnels. Roads, metro systems05.09.03 — Heat supply. Ventilation, air conditioning. Gas supply and lighting05.09.04 — Water supply. Sewerage. Construction systems for water body protection05.09.05 — Building materials and products05.10.01 — Occupational safety and human life safety05.10.02 — Safety in emergencies. Fire, industrial, nuclear and radiation safety11.00.06 — Geodesy. Cartography18.00.01 — Theory and history of architecture. Restoration and reconstruction of architectural monuments18.00.02 — Zoning. Urban planning. Planning of rural settlements. Landscape architecture. Architecture of buildings and structures21.01.08 — Armed Forces logistics (including Armed Forces branches, arms of service and special units)21.01.09 — Military command and communication systems21.02.09 — Hydrometeorological and topo-geodetic support of troop combat operations21.02.05 — Engineering equipment of operational (tactical) axes, troop positions and deployment areas, fortification, camouflage21.02.12 — Military cybernetics, systems analysis, operations research, modeling of combat operations and military systems (including Armed Forces branches, arms of service and special units)21.02.25 — Military electronics, military complex equipment21.02.24 — Civil defense. Means and methods of emergency prevention and response01.04.08 — Nuclear and elementary particle physics. Accelerator technology05.05.06 — Power installations based on renewable energy sources04.00.02 — Geology, prospecting and exploration of solid mineral deposits. Metallogeny and geochemistry05.01.06 — Elements and devices of computer engineering and control systems05.02.01 — Materials science in mechanical engineering. Foundry. Thermal treatment and metal forming. Metallurgy of ferrous, non-ferrous and rare metals. Technology of rare, scarce and radioactive elements05.05.05 — Theoretical foundations of thermal engineering05.05.07 — Electrical technologies and electrical equipment in agriculture05.07.01 — Agricultural and land-reclamation machines. Mechanization of agricultural and land-reclamation works05.09.06 — Hydraulic and land-reclamation construction05.09.07 — Hydraulics and engineering hydrology05.09.08 — Construction technology and organization of construction processes21.02.13 — Informatics and computer technologies in military affairs21.02.14 — Armament and military equipment, military complexes and systems (including Armed Forces branches, arms of service and special units)21.02.17 — Operation and restoration of armament and military equipment, technical support (including Armed Forces branches, Armed Forces logistics, arms of service and special units)
pdf

O_TJ.2024.02.2_2d110ea8.pdf

PDF

ARTICLE ANNOTATION

quote
Ultrasonic fabric welding is a highly advanced technology that is revolutionizing the way materials are joined in the textile and medical industries. Our expertise in this field allows us to provide you with the most efficient and sustainable solutions for your welding needs. This method creates exceptionally strong and reliable joints without the need for additional materials such as yarns or adhesives. Furthermore, it ensures a high process speed and minimizes environmental impact. The article thoroughly examines the current research in this field, reviews the fundamental principles and mechanisms of ultrasonic welding, and discusses its potential applications and advantages over traditional fabric joining methods. The language used is assertive and decisive, showcasing the writer's competence and expertise in the subject matter. Diplomatic language is also employed to acknowledge multiple perspectives and show respect for differing opinions. Additionally, a theoretical review of the mechanisms of ultrasonic energy transfer and its effect on tissue materials is included to provide a deeper understanding of the principles of ultrasonic welding. The paper analyzes the welding process parameters, including ultrasonic oscillation frequency, amplitude, pressure, and exposure time, to determine their optimal values for different fabric types. The experimental study applies ultrasonic welding to various textile materials, both synthetic and natural fibers, and identifies the crucial factors that affect seam quality and strength. Ultrasonic welding presents numerous advantages over traditional joining methods. It avoids thermal damage to the fabric, has a high process speed, and can create watertight joints.

AUTHORS

Н.Палванназирова

TOSHKENT TO'QIMACHILIK VA YENGIL SANOAT INSTITUTI

Tags

# innovative technologies# environmental safety# textile industry# process optimization# ultrasonic welding# fabric joining# mechanical vibrations# seam strength# textile materials

SIMILAR ARTICLES

OTHER ARTICLES IN THIS JOURNAL

Rate Article

0
0 ratings
5
4
3
2
1

Article Identifiers

References

Barbosa, L.C.M.; Bortoluzzi, D.B.; Ancelotti, A.C. Analysis of fracture toughness in mode II and fractographic study of composites based on Elium® 150 thermoplastic matrix. Compos. Part B Eng. 2019, 175, 107082. [Google Scholar]

Ultrasonic equipment: https://www.telsonic.com (дата обращения: 25.02.2023).

Advances in Ultrasonic Welding of Thermoplastic Composites: A Review 12 February 2020 https://www.mdpi.com/1996-1944/13/6/1284

Chawla, K.K. Composite Materials, Science and Engineering; New York Inc.: New York, NY, USA, 1998. [Google Scholar]

Khaliullin I.A., Khaliullin A.I. Ultrasonic welding of textile materials // Bulletin of Kazan Technological University. 2013. No8. С. 225-227.

Ultrasonic sewing of thermoplastic composites / Minyu Li [et al.] // Composites Part A: Applied Science and Manufacturing. 2018. No1. P. 30-38.

Sattler J., Froschauer L. Investigating the weldability of textiles using ultrasonic welding // Journal of Engineered Fibers and Fabrics. 2020. V.15. P. 1-7.

Kumar A., Suhail A., Ismail N. Optimization of process parameters for ultrasonic welding of polyester woven fabric // Indian Journal of Fibre & Textile Research. 2017. V. 42. P. 425-428.

Bhudolia, S.K.; Kam, K.K.; Perrotey, P.; Joshi, S.C. Effect of fixation stitches on out-of-plane response of textile non-crimp fabric composites. J. Ind. Text. 2019, 48, 1151–1166. [Google Scholar] [CrossRef]

Bhudolia, S.K.; Fischer, S.; He, P.G.; Yue, C.Y.; Joshi, S.C.; Yang, J.L. Design, Manufacturing and Testing of Filament Wound Composite Risers for Marine and Offshore Applications. Mater. Sci. Forum 2015, 813, 337–343. [Google Scholar] https://www.sciencedirect.com/

Bhudolia, S.K.; Perrotey, P.; Joshi, S.C. Enhanced Vibration damping and dynamic mechanical characteristics of composites with novel pseudo-thermoset matrix system. Compos. Struct. 2017. [Google Scholar]

Taillemite, S. Arkema Gains Ground in Composites and Launches a Revolutionary Range of Elium Liquid Resins. Available online: http://www.arkema.com/en/media/news/news-details/Arkema-gains-ground-in-composites-and-launches-a-revolutionary-range-of-Elium-liquid-resins/ (accessed on 12 February 2017).

Matadi Boumbimba, R.; Coulibaly, M.; Khabouchi, A.; Kinvi-Dossou, G.; Bonfoh, N.; Gerard, P. Glass fibres reinforced acrylic thermoplastic resin-based tri-block copolymers composites: Low velocity impact response at various temperatures. Compos. Struct. 2017, 160, 939–951. [Google Scholar] https://www.sciencedirect.com/

Bhudolia, S.K.; Joshi, S.C. Low-velocity impact response of carbon fibre composites with novel liquid Methylmethacrylate thermoplastic matrix. Compos. Struct. 2018, 203, 696–708. [Google Scholar]

Obande, W.; Ray, D.; Ó Brádaigh, C.M. Viscoelastic and drop-weight impact properties of an acrylic-matrix composite and a conventional thermoset composite–A comparative study. Mater. Lett. 2019, 238, 38–41. [Google Scholar]

Kinvi-Dossou, G.; Matadi Boumbimba, R.; Bonfoh, N.; Garzon-Hernandez, S.; Garcia-Gonzalez, D.; Gerard, P.; Arias, A. Innovative acrylic thermoplastic composites versus conventional composites: Improving the impact performances. Compos. Struct. 2019, 217, 1–13. [Google Scholar]

Bhudolia, S.K.; Perrotey, P.; Joshi, S.C. Mode I fracture toughness and fractographic investigation of carbon fibre composites with liquid Methylmethacrylate thermoplastic matrix. Compos. Part B Eng. 2018, 134, 246–253. [Google Scholar]

Shanmugam, L.; Kazemi, M.E.; Rao, Z.; Lu, D.; Wang, X.; Wang, B.; Yang, L.; Yang, J. Enhanced mode I fracture toughness of UHMWPE fabric/thermoplastic laminates with combined surface treatments of polydopamine and functionalized carbon nanotubes. Compos. Part B Eng. 2019. [Google Scholar]

Bhudolia, S.K.; Perrotey, P.; Joshi, S.C. Experimental investigation on suitability of carbon fibre thin plies for racquets. Proc. Inst. Mech. Eng. Part P J. Sports Eng. Technol. 2016, 230, 64–72. [Google Scholar]

Bhudolia, S.K.; Joshi, S.C.; Bert, A.; Yi Di, B.; Makam, R.; Gohel, G. Flexural characteristics of novel carbon methylmethacrylate composites. Compos. Commun. 2019, 13, 129–133. [Google Scholar]