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Journal Articles
Journal:
Journal of Tribology
Article Type: Research Papers
J. Tribol. May 2023, 145(5): 051702.
Paper No: TRIB-22-1125
Published Online: January 27, 2023
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 1 Sintering process flow of copper/graphite composite material More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 2 Schematic diagram of electrical contact friction and wear tester: (1) motor, (2) brass disc, (3) nylon disc, (4) disc holder, (5) DC power supply, (6) rolling bearing, (7) pin holder, (8) acceleration sensor, (9) terminal block, and (10) copper sheet More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 3 Wear surface topography of composites CG15 and pure copper under various currents: ( a 1) and ( b 1) 2 A, ( a 2) and ( b 2) 4 A, ( a 3) and ( b 3) 6 A, ( a 4) and ( b 4) 8 A More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 4 Wear surface roughness of composites CG15 and pure copper under different electric currents More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 5 Wear surface topography of composite material and pure copper under the electric current of 2 A: ( a ) CG30, ( b ) CG25, ( c ) CG20, ( d ) CG15, and ( e ) pure copper More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 6 Wear surface roughness of pin sample under the electric current of 2 A and 8 A More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 7 Wear surface topography of five materials under the electric current of 8 A: ( a ) CG30, ( b ) CG25, ( c ) CG20, ( d ) CG15, and ( e ) pure copper More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 8 Friction vibration signals and their probability distribution of CG15 under different electric currents: ( a ) 2 A, ( b ) 4 A, ( c ) 6 A, and ( d ) 8 A More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 9 Probability of vibration amplitude, which is less than 0.5 mm/s 2 of two materials under different currents: ( a ) CG15 and ( b ) pure copper More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 10 Friction vibration signals and their probability distribution of five composites under different electric currents: ( a ) CG30, ( b ) CG25, ( c ) CG20, ( d ) CG15, and ( e ) pure copper More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 11 Probability of vibration amplitude, which is less than 0.5 mm/s 2 of five materials under different currents: ( a ) 2 A and ( b ) 8 A More
Image
in Effect of Electric Current and Graphite Content on the Wear Behaviors of Copper/Graphite Composites
> Journal of Tribology
Published Online: January 27, 2023
Fig. 12 Wear surface topography of CG30 under various electric currents: ( a ) 2 A, ( b ) 4 A, ( c ) 6 A, and ( d ) 8 A More
Journal Articles
Journal:
Journal of Tribology
Article Type: Research Papers
J. Tribol. May 2023, 145(5): 054103.
Paper No: TRIB-22-1335
Published Online: January 27, 2023
Image
in Influence of Real Lubricant Density–Pressure Behavior on the Dynamic Response of Elastohydrodynamic Lubricated Conjunctions
> Journal of Tribology
Published Online: January 27, 2023
Fig. 1 Comparison of the density–pressure response of ASME 55 lubricant with the universal equation of state by Dowson and Higginson More
Image
in Influence of Real Lubricant Density–Pressure Behavior on the Dynamic Response of Elastohydrodynamic Lubricated Conjunctions
> Journal of Tribology
Published Online: January 27, 2023
Fig. 2 ( a ) Equivalent/reduced geometry of a line contact and ( b ) its corresponding computational domain More
Image
in Influence of Real Lubricant Density–Pressure Behavior on the Dynamic Response of Elastohydrodynamic Lubricated Conjunctions
> Journal of Tribology
Published Online: January 27, 2023
Fig. 3 Finite element transient EHL model: ( a ) employed mesh and ( b ) flowchart of general numerical procedure More
Image
in Influence of Real Lubricant Density–Pressure Behavior on the Dynamic Response of Elastohydrodynamic Lubricated Conjunctions
> Journal of Tribology
Published Online: January 27, 2023
Fig. 4 Single degree-of-freedom dynamic model of EHL line contact More
Image
in Influence of Real Lubricant Density–Pressure Behavior on the Dynamic Response of Elastohydrodynamic Lubricated Conjunctions
> Journal of Tribology
Published Online: January 27, 2023
Fig. 5 Force–displacement curves of a spring (left), dashpot (center), and parallel spring-dashpot system (right), assuming linear behavior for all More
Image
in Influence of Real Lubricant Density–Pressure Behavior on the Dynamic Response of Elastohydrodynamic Lubricated Conjunctions
> Journal of Tribology
Published Online: January 27, 2023
Fig. 6 Typical fluid film response subject to an oscillatory external applied loading with F 0 = 1.0 MN/m, u m = 1.0 m/s, A / F 0 = 10%, and ω /2π = 1.0 Hz, over the six covered loading cycles: ( a ) central film thickness variations with time and ( b ) hysteresis loop More