Discover the SciOpen Platform and Achieve Your Research Goals with Ease.
Search articles, authors, keywords, DOl and etc.
This paper explores the development of a subject called “tribotronics”, the science of actively controlled tribological elements, and considers the potential of tribotronics as part of a revolutionary machine element design for the future. It presents a “state-of-the-art” assessment of some devices that can be considered “tribotronic” and are currently in common use, as well as a review of examples of recent progress in research in tribotronics. It also presents a “perspective” on the future challenges and likely developments in the subject, including the integration of tribotronics with developments in other fields of digital technology, such as Industry 4.0, the “Internet of Things (IoT)”, and machine learning (ML), potentially leading to “cyber tribotronic systems”. In conclusion, tribotronics will contribute significantly to transforming the design of the components and machines of the present day into cyber-physical systems in the future.
Narvaez Rojas C, Alomia Peñafiel G, Loaiza Buitrago D F, Tavera Romero C A. Society 5.0: A Japanese concept for a superintelligent society. Sustainability 13(12): 6567 (2021
Ciulli E. Tribology and industry: From the origins to 4.0. Front Mech Eng 5: 55 (2019
Holmberg K, Erdemir, A. Global impact of friction on energy consumption, economy an environment. FME Trans 43: 181–185 (2015
Glavatskih, S, Höglund, E. Tribotronics—Toward active tribology. Tribol Int 41: 934–939 (2008
Liskiewicz T, Sherrington I, Khan T, Liu Y. Advances in sensing for real-time monitoring of tribological parameters. Tribol Int 189: 108965 (2023
Bogue R. Smart materials: A review of capabilities and applications. Assem Autom 34(1): 16–22 (2014
Seng K P, Ang L M. Embedded intelligence: State-of-the-art and research challenges. IEEE Access 10: 59236–59258 (2022
Yin N, Xing Z G, He K, Zhang Z N. Tribo-informatics approaches in tribology research: A review. Friction 11(1): 1–22 (2023).
Rasiya G, Shukla A, Saran K. Additive manufacturing—A review. Mater Today Proc 47: 6896–6901 (2021
Ashhari P, Rahmani A M, Javadi H H S. Internet of Things applications: A systematic review. Comput Netw 148(15): 241–261 (2019
Uhlmann E, Hohwieler E, Geisert, C. Intelligent production systems in the era of Industrie 4.0—Changing mindsets and business models. J Machine Eng 17(2): 5–24 (2017
Zhang C, Wang Z L. Tribotronics—A new field by coupling triboelectricity and semiconductor. Nano Today 11(4): 521–536 (2016
Breńkacz Ł, Witanowski Ł, Drosińska-Komor M, Szewczuk-Krypa N. Research and applications of active bearings: A state-of-the-art review. Mech Syst Signal Pr 151: 107423 (2021
Rehman W U, Jiang G Y, Luo Y X, Wang Y Q, Khan W, Rehman S U, Iqbal N. Control of active lubrication for hydrostatic journal bearing by monitoring bearing clearance. Adv Mech Eng 10(4): 1–17 (2018
Salazar J G, Santos I F. On the controllability and observability of actively lubricated journal bearings with pads featuring different nozzle-pivot configurations. J Tribol 139(3): 031702 (2017
Tůma J, Šimek J, Mahdal M, Pawlenka M, Wagnerova R. Piezoelectric actuators in the active vibration control system of journal bearings. J Phys Conf Ser 870: 012017 (2017
Li S B, Babin A, Shutin D, Kazakov Y, Liu Y F, Chen Z B, Savin L. Active hybrid journal bearings with lubrication control: Towards machine learning. Tribol Int 175: 107805 (2022
Silva H A P, Nicoletti R. Rotor vibration control using tilting-pad journal bearing with active pads—Numerical and experimental results. J Sound Vib 546: 117441 (2023
Scamarcio A, Gruber P, De Pinto S, Sorniotti A. Anti-jerk controllers for automotive applications: A review. Annu Rev Control 50: 174–189 (2020
Nezhadali V, Eriksson L. A framework for modeling and optimal control of automatic transmission systems. IFAC-PapersOnLine 48(15): 285–291 (2015
Srivastava N, Haque I. A review on belt and chain continuously variable transmissions (CVT): Dynamics and control. Mech Mach Theory 44(1): 19–41 (2009
Gunjal D, Khaire R, Deore K, Gund N, Dange B S. Cone ring traction drive. Int Res Jnl Eng and Technol 5(1): 1293–1296 (2018
Verbelen F, Derammelaere S, Sergeant P, Stockman K. A comparison of the full and half toroidal continuously variable transmissions in terms of dynamics of ratio variation and efficiency. Mech Mach Theory 121: 299–316 (2018
Akehurst S, Parker D A, Schaaf S. CVT rolling traction drives—A review of research into their design, functionality, and modeling. J Mech Design 128(5): 1165–1176 (2006
Lee H, Kim H. Optimal engine operation by shift speed control of CVT. KSME Int J 16: 882–888 (2002
Montague R, Bingham C, Atallah K. Servo control of magnetic gears. IEEE/ASME Trans Mechatron 17(2): 269–278 (2012
El-Fatah A, Sharkawy A N, Ghazaly N M, Moaaz A. Comparative study of different control methods for anti-lock braking system (ABS). SVU Int J Eng Sci and Applications 2(1): 27–34 (2021
Busch K, Hochmuth C, Pause B, Stoll A, Wertheim R. Investigation of cooling and lubrication strategies for machining high-temperature alloys. ProcCIRP 41: 835–840 (2016
Morgan W J, Chu H Y. An unsupervised vibration noise reduction approach and its application in lubrication condition monitoring. Lubricants 11(2): 90 (2023
Marchetti M, Jones Jr W R, Pepper S V, Jensen M J, Predmore R E. In situ, on-demand lubrication system for space mechanisms. Tribol T 46: 452–459 (2003
Chen Z, He X, Xiao C, Kim S H. Effect of humidity on friction and wear—A critical review. Lubricants 6(3): 74 (2018
Kato K, Umehara N, Adachi K. Friction, wear and N2-lubrication of carbon nitride coatings: A review. Wear 254(11): 1062–1069 (2003
Adachi K, Wakabayashi T, Kato K. The effect of sliding history on the steady state friction coefficient between CN x coatings under N2 lubrication. Tribology and Interface Engineering Series 48: 673–677 (2005
Shen C, Oda Y, Matsubara M, Yabuki J, Yamanaka S, Abe H, Naito M, Muramatsu A, Kanie K. Magnetorheological fluids with surface-modified iron oxide magnetic particles with controlled size and shape. ACS Appl Mater Inter 13(17): 20581–20588 (2021
Park B J, Fang F F, Choi H J. Magnetorheology: Materials and application. Soft Matter 6(21): 5246 (2010
van der Wal K, van Ostayen R A J, Lampaert S G E. Ferrofluid rotary seal with replenishment system for sealing liquids. Tribol Int 150: 106372 (2020
Kuznetsov N M, Kovaleva V V, Belousov S I, Chvalun S N. Electrorheological fluids: From historical retrospective to recent trends. Mater Today Chem 26: 101066 (2022
Gao Y, Ma L R, Luo J B. Temperature-controlled friction coefficient lubricated by liquid crystal. Liq Cryst 49(1): 66–71 (2022
Jana P K, Chen W, Alava M J, Laurson L. Nanoscale liquid crystal lubrication controlled by surface structure and film composition. Phys Chem Chem Phys 20(27): 18737–18743 (2018
Cognard, J. Lubrication with liquid crystals. ACS Sym Ser 441: 1–47 (1990).
Krim J. Controlling friction with external electric or magnetic fields: 25 examples. Front Mech Eng 5: 22 (2019
Amann T, Dold C, Kailer A. Rheological characterization of ionic liquids and ionic liquid crystals with promising tribological performance. Soft Matter 8(38): 9840–9846 (2012
Ploss M A, Rutland M W, Glavatskih S. Influence of electric potential on the apparent viscosity of an ionic liquid: Facts and artifacts. Phys Chem Chem Phys 18(38): 26609–26615 (2016
Guerrero-Sanchez C, Lara-Ceniceros T, Jimenez-Regalado E, Raşa M, Schubert U S. Magnetorheological fluids based on ionic liquids. Adv Mater 19(13): 1740–1747 (2007
Prodius D, Smetana V, Steinberg S, Wilk-Kozubek M, Mudryk Y, Pecharsky V K, Mudring A V. Breaking the paradigm: Record quindecim charged magnetic ionic liquids. Mater Horiz 4(2): 217–221 (2017
Fedorov M V, Kornyshev A A. Ionic liquids at electrified interfaces. Chem Rev 114(5): 2978–3036 (2014
Li S C, Pilkington G A, Mehler F, Hammond O S, Boudier A, Vorobiev A, Glavatskih S, Rutland M W. Tuneable interphase transitions in ionic liquid/carrier systems via voltage control. J Colloid Interf Sci 652: 1240–1249 (2023
Li S C, Hammond O S, Nelson A, de Campo L, Moir M, Recsei C, Shimpi M R, Glavatskih S, Pilkington G A, Mudring A V, et al. Anion architecture controls structure and electroresponsivity of anhalogenous ionic liquids in a sustainable fluid. J Phys Chem B 128(17): 4231–4242 (2024
Hjalmarsson N, Wallinder D, Glavatskih S, Atkin R, Aastrup T, Rutland M W. Weighing the surface charge of an ionic liquid. Nanoscale 7(38): 16039–16045 (2015
Seed C M, Acharya B, Krim J. QCM study of tribotronic control in ionic liquids and nanoparticle suspensions. Tribol Lett 69(3): 83 (2021
Hjalmarsson N, Bergendal E, Wang Y L, Munavirov B, Wallinder D, Glavatskih S, Aastrup T, Atkin R, Furó I, Rutland M W. Electro-responsive surface composition and kinetics of an ionic liquid in a polar oil. Langmuir 35(48): 15692–15700 (2019
Radiom M, Pedraz P, Pilkington G, Rohlmann P, Glavatskih S, Rutland MW. Anomalous interfacial structuring of a nonhalogenated ionic liquid: Effect of substrate and temperature. Colloids and Interfaces 2(4): 60 (2018
An R, Wei Y D, Qiu X H, Dai Z Y, Wu M Q, Gnecco E, Shah F U, Zhang W L. Ionic liquids on uncharged and charged surfaces: In situ microstructures and nanofriction. Friction 10(11): 1893–1912 (2022
Li H, Rutland M W, Atkin R. Ionic liquid lubrication: Influence of ion structure, surface potential and sliding velocity. Phys Chem Chem Phys 15(35): 14616–14623 (2013
Watanabe S, Pilkington G A, Oleshkevych A, Pedraz P, Radiom M, Welbourn R, Glavatskih S, Rutland M W. Interfacial structuring of non-halogenated imidazolium ionic liquids at charged surfaces: Effect of alkyl chain length. Phys Chem Chem Phys 22(16): 8450–8460 (2020
Pilkington G A, Harris K, Bergendal E, Reddy A B, Palsson G K, Vorobiev A, Antzutkin O N, Glavatskih S, Rutland M W. Electro-responsivity of ionic liquid boundary layers in a polar solvent revealed by neutron reflectance. The Journal of Chemical Physics 148(19): 193806 (2018
Pilkington G A, Oleshkevych A, Pedraz P, Watanabe S, Radiom M, Reddy A B, Vorobiev A, Glavatskih S, Rutland M W. Electroresponsive structuring and friction of a non-halogenated ionic liquid in a polar solvent: Effect of concentration. Phys Chem Chem Phys 22(34): 19162–19171 (2020
Pilkington G A, Welbourn R, Oleshkevych A, Watanabe S, Pedraz P, Radiom M, Glavatskih S, Rutland M W. Effect of water on the electroresponsive structuring and friction in dilute and concentrated ionic liquid lubricant mixtures. Phys Chem Chem Phys 22(48): 28191–28201 (2020
Wang Y L, Shimpi M R, Sarman S, Antzutkin O N, Glavatskih S, Kloo L, Laaksonen A. Atomistic insight into tetraalkylphosphonium bis(oxalato)borate ionic liquid/water mixtures. 2. Volumetric and dynamic properties. J Phys Chem B 120(30): 7446–7455 (2016
Sarman S, Wang Y L, Rohlmann P, Glavatskih S, Laaksonen A. Rheology of phosphonium ionic liquids: A molecular dynamics and experimental study. Phys Chem Chem Phys 20(15): 10193–10203 (2018
Swatloski R P, Holbrey J D, Rogers R D. Ionic liquids are not always green: Hydrolysis of 1-butyl-3-methylimidazolium hexafluorophosphate. Green Chem 5(4): 361–363 (2003
Rohlmann P, Watanabe S, Shimpi M R, Leckner J, Rutland M W, Harper J B, Glavatskih S. Boundary lubricity of phosphonium bisoxalatoborate ionic liquids. Tribol Int 161: 107075 (2021
Rohlmann P, Black J J, Watanabe S, Leckner J, Shimpi M R, Rutland M W, Harper J B, Glavatskih S. Tribochemistry of imidazolium and phosphonium bis(oxalato) borate ionic liquids: Understanding the differences. Tribol Int 181: 108263 (2023
de la Presilla R, Leckner J, Glavatskih S. Grease lubricity in the fretting contact: Are ionic liquids the solution. Tribol Int 185: 108509 (2023
Cooper P K, Li H, Rutland M W, Webber G B, Atkin R. Tribotronic control of friction in oil-based lubricants with ionic liquid additives. Phys Chem Chem Phys 18(34): 23657–23662 (2016
Fang H L, Li Y, Zhang S W, Ding Q, Hu L T. Lubricating performances of oil-miscible trialkylanmmonium carboxylate ionic liquids as additives in PAO at room and low temperatures. Appl Surf Sci 568: 150922 (2021
Qu J, Bansal D G, Yu B, Howe J Y, Luo H M, Dai S, Li H Q, Blau P J, Bunting B G, Mordukhovich G, et al. Antiwear performance and mechanism of an oil-miscible ionic liquid as a lubricant additive. ACS Appl Mater Inter 4(2): 997–1002 (2012
Somers A E, Khemchandani B, Howlett P C, Sun J Z, MacFarlane D R, Forsyth M. Ionic liquids as antiwear additives in base oils: Influence of structure on miscibility and antiwear performance for steel on aluminum. ACS Appl Mater Inter 5(22): 11544–11553 (2013
Reddy A B, Munavirov B, Pilkington G A, Calderon Salmeron G, Rutland M W, Glavatskih S. Micro- to nano-and from surface to bulk: Influence of halogen-free ionic liquid architecture and dissociation on green oil lubricity. ACS Sustain Chem Eng 9(40): 13606–13617 (2021
Reddy A B, Shah F U, Leckner J, Rutland M W, Glavatskih S. Ionic liquids enhance electrical conductivity of greases: An impedance spectroscopy study. Colloid Surface A 683: 132875 (2024
Reddy A B, Pilkington G A, Rutland M W, Glavatskih S. Tribotronic control of an ionic boundary layer in operando extends the limits of lubrication. Sci Rep 12(1): 20479 (2022
Laurent G J, Moon H. A survey of non-prehensile pneumatic manipulation surfaces: Principles, models and control. Intel Serv Robot 8(3): 151–163 (2015
Hooijschuur R H T, Saikumar N, HosseinNia S H, van Ostayen R A J. Air based contactless Wafer precision positioning system. Appl Sci 11(16): 7588 (2021
Lampaert S G E, Spronck J W, van Ostayen R A J. Load and stiffness of a planar ferrofluid pocket bearing. P I Mech Eng J-J Eng 232(1): 14–25 (2018
Lampaert S G E, Fellinger B J, Spronck J W, van Ostayen R A J. In-plane friction behaviour of a ferrofluid bearing. Precis Eng 54: 163–170 (2018
Boots A S T, Krijgsman L E, de Ruiter B J M, Lampaert S G E, Spronck J W. Increasing the load capacity of planar ferrofluid bearings by the addition of ferromagnetic material. Tribol Int 129: 46–54 (2019
Van den Toorn S M W, Spronck J W, van Ostayen R A J, Lampaert S G E. Design of a passive alternative for long stroke linear aerostatic stages based on ferrofluid bearings. Precis Eng 67: 428–437 (2021
Calderbank G, Smith E H, Sherrington I. Experimental measurement of the time-based development of oil film thickness, lubricating film extent and lubricant transport in crosshead engines. Lubricants 9(1): 4 (2020
Liu C L, Guo F, Li X M, Li S Y, Han S L, Wan Y. Experimental study of elastohydrodynamic lubrication behaviour under single oil droplet supply. Tribol Int 118: 432–440 (2018
Van der Kruk W M, Smit S A, Segers T J, Li X M, Venner C H. Drop-on-demand printing as novel method of oil supply in elastohydrodynamic lubrication. Tribol Lett 67(3): 95 (2019
Zhu X L, Zhong C, Zhe J. Lubricating oil conditioning sensors for online machine health monitoring–A review. Tribol Int 109: 473–484 (2017
237
Views
54
Downloads
0
Crossref
0
Web of Science
0
Scopus
0
CSCD
Altmetrics
This is an open access article under the terms of the Creative Commons Attribution 4.0 International License (CC BY 4.0, http://creativecommons.org/licenses/by/4.0/).