CN211402089U - Bionic microstructure friction and wear process information acquisition device - Google Patents
Bionic microstructure friction and wear process information acquisition device Download PDFInfo
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- CN211402089U CN211402089U CN201922141807.8U CN201922141807U CN211402089U CN 211402089 U CN211402089 U CN 211402089U CN 201922141807 U CN201922141807 U CN 201922141807U CN 211402089 U CN211402089 U CN 211402089U
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Abstract
An information acquisition device for a friction and wear process of a bionic microstructure belongs to the technical field of friction and wear detection of the bionic microstructure, and a power mechanism is fixedly connected to the front part of a bottom plate of a base of a test bench; two guide rails of the friction mechanism are respectively and fixedly connected to the upper surfaces of two U-shaped plates of the experiment table base; a high-speed camera I of the side monitoring device is fixedly connected to the right rear part of a middle flat plate II of the experiment table base, and an infrared thermal imager is fixedly connected to the left front part of the middle flat plate II of the experiment table base; the loading and overlooking monitoring device is fixedly connected to the front of a vertical plate in the base of the experiment table through the back of the base; the utility model has the advantages that the middle force sensor and the acceleration sensor are complementary, so that the measurement precision of the friction force is improved; the force sensor feeds back in real time, so that accurate loading can be realized; different friction samples can be replaced to explore the influence of different bionic microstructures on the friction performance; different friction plates can be replaced, and the friction mechanical characteristics, abrasion, temperature and stress changes of different samples can be rapidly, accurately and real-timely monitored.
Description
Technical Field
The utility model belongs to bionical micro-structure friction and wear detection area especially relates to a bionical micro-structure friction and wear process information acquisition device.
Background
Tribology is the science of studying the interaction between surfaces during relative motion of objects. It is a cross discipline and relates to the fields of machinery, physics, chemistry and the like. The changes in surface topography, surface composition and structure caused by friction are very complex. Due to the diversity of surface properties, material types, lubrication conditions, and environmental atmosphere effects, the friction interface changes rapidly with time during the experiment, and therefore, immediate in-situ analysis of the friction contact surface is required.
In the process of bionics research, the research on the performance of frictional wear of a bionic form is also a very important research content, and the method has great significance on the evaluation and optimization design of the bionic structure performance. Most of the existing friction test instruments are carried out on a rotating friction sheet, so that the linear speeds of the friction of different positions of a sample are inconsistent, and the speeds have great influence on the abrasion condition. The current friction and wear measuring instrument can not realize the real-time information acquisition and analysis and can not observe the wear condition in the friction process in real time.
In conclusion, the development of the bionic microstructure friction detection technology urgently needs an information acquisition device for the friction and wear process of the bionic microstructure, which can accurately and rapidly test the friction mechanics and wear characteristics of a tested sample and can observe the friction and wear condition of the sample in real time. The bionic microstructure friction and wear process information acquisition device is designed and developed, and has important significance and practical application value.
Disclosure of Invention
An object of the utility model is to provide a bionical micro-structure friction and wear process information acquisition device, the friction mechanics characteristic and the wear characteristic of the different samples of accurate test fast.
The utility model consists of a test bed base A, a power mechanism B, a friction mechanism C, a side monitoring device D and a loading and overlooking monitoring device E, wherein the power mechanism B is fixedly connected on the front part of a bottom plate 1 of the test bed base A through a bearing seat I14, a bearing seat II 20 and a transverse plate 11 of a motor bracket 10; the lower part of a guide rail I30 of the friction mechanism C is fixedly connected to the upper part of a U-shaped plate II 8 of the experiment table base A, and the lower part of a guide rail II 31 of the friction mechanism C is fixedly connected to the upper part of a U-shaped plate I2 of the experiment table base A; a high-speed camera I37 of the side monitoring device D is fixedly connected to the right rear part of a flat plate II 6 in the experiment table base A through a transverse plate of a support I36, and an infrared thermal imager 40 of the side monitoring device D is fixedly connected to the left front part of the flat plate II 6 in the experiment table base A through a vertical rod 38; the loading and overlooking monitoring device E is fixedly connected to the front of the vertical plate 5 in the experiment table base A through the back of the base 53.
The experiment table base A consists of a bottom plate 1, a U-shaped plate I2, a side plate I3, a flat plate I4, a vertical plate 5, a flat plate II 6, a side plate II 7 and a U-shaped plate II 8, wherein the U-shaped plate I2 is fixedly connected to the right rear part of the bottom plate 1; the lower end of the side plate I3 is fixedly connected to the right side surface of the bottom plate 1, which is close to the rear part; the right end of the flat plate I4 is fixedly connected with the upper end of the side plate I3 at a right angle, and the lower end of the vertical plate 5 is fixedly connected to the upper surface of the left rear part of the flat plate I4; the flat plate II 6 is fixedly connected to the upper end of the side plate II 7 in a T shape; the lower end of the side plate II 7 is fixedly connected to the left side surface of the bottom plate 1, which is close to the rear part; the U-shaped plate II 8 is fixedly connected to the upper surface of the left rear part of the bottom plate 1.
The power mechanism B consists of a motor 9, a motor support 10, an elastic coupling 13, a bearing seat I14, a screw shaft 16, a sliding block 18 and a bearing seat II 20, wherein the support 10 is a right-angle support consisting of a vertical plate 12 and a transverse plate 11, the motor 9 is fixedly connected in front of the vertical plate 12 of the motor support 10, and the output end of the motor 9 is fixedly connected with the front end of the elastic coupling 13; a central threaded hole 17 and a flat plate 19 are arranged on the sliding block 18, and the central threaded hole 17 of the sliding block 18 is in threaded connection with the middle part of the screw shaft 16; the rear end of the lead screw shaft 16 is in interference connection with the inner ring of the bearing II 21 of the bearing seat II 20, the middle of the lead screw shaft 16 is in threaded connection with the central threaded hole of the sliding block 18, the front end of the lead screw shaft 16, which is close to the bearing I15 of the bearing seat I14, is in interference connection with the inner ring of the bearing I14, and the front end of the lead screw shaft 16 is fixedly connected with the rear end of the elastic coupling 13.
The friction mechanism C consists of a reciprocating screw slider connecting piece 22, a force sensor I23, a friction plate mounting plate connecting piece 24, a friction plate 26, a left longitudinal plate 27, a right longitudinal plate 28, a front transverse plate 25, an acceleration sensor 29, a guide rail I30, a guide rail II 31, a slider I32, a slider II 33, a slider III 34, a slider IV 35 and a right longitudinal plate, wherein the friction plate 26 is fixedly connected between the left longitudinal plate 27 and the right longitudinal plate 28, and the acceleration sensor 29 is fixedly connected in the middle of the upper surface of the left longitudinal plate 27; a sliding block I32 is fixedly connected to the lower side of the right longitudinal plate 28 close to the rear, and a sliding block II 33 is fixedly connected to the lower side of the right longitudinal plate 28 close to the front; a sliding block III 34 is fixedly connected to the lower part of the left longitudinal plate 27 close to the rear, and a sliding block IV 35 is fixedly connected to the lower part of the left longitudinal plate 27 close to the front; the sliding block I32 and the sliding block II 33 are in sliding connection with the guide rail II 31, and the sliding block III 34 and the sliding block IV 35 are in sliding connection with the guide rail I30; the front ends of the left longitudinal plate 27 and the right longitudinal plate 28 are fixedly connected with the front transverse plate 25, the guide rail I30, the force sensor I23 and the guide rail II 31 are sequentially arranged from front to back and fixedly connected, and the rear end of the friction plate mounting plate connecting piece 24 is fixedly connected with the front center of the front transverse plate 25.
The side monitoring device D comprises a support I36, a high-speed camera I37, an upright rod 38, a support II 39 and an infrared thermal imager 40, wherein the support I36 is a right-angle plate consisting of a vertical plate and a transverse plate, and the high-speed camera I37 is fixedly connected with the vertical plate of the support I36; the infrared thermal imaging instrument 40 is fixedly connected to the left side of the bracket II 39, and the upright rod 38 is fixedly connected to the lower side of the bracket II 39.
The loading and overlooking monitoring device E consists of a friction sample 41, an installation rod 42, a force sensor II 43, a loading rod 44, a nut I46, a sliding table connecting piece 47, a sliding table 48, a screw rod 49, a motor II 50, a base 53, an installation frame II 55 and a high-speed camera II 56, wherein a perforated plate pair 45 is fixedly connected to the front of the sliding table connecting piece 47 close to the left, and the sliding table 48 is fixedly connected to the rear of the sliding table connecting piece 47 close to the right; the base 53 is composed of an upper plate 51, a lower plate 54 and a rear plate 52, the motor II 50 is fixedly connected to the upper plate 51 of the base 53, the upper end of the screw rod 49 is fixedly connected with an output shaft of the motor II 50, the middle part of the screw rod 49 is in threaded connection with a central threaded hole of the sliding table 48, and the bottom end of the screw rod 49 is movably connected with the center of the lower plate 54 of the base 53; the mounting rack II 55 is a right-angle S-shaped plate, the upper end of the mounting rack II 55 is fixedly connected to the rear of the sliding table connecting piece 47 close to the left, and the front of the lower end of the mounting rack II 55 is fixedly connected with a high-speed camera II 56; the friction sample 41, the mounting rod 42, the force sensor II 43 and the loading rod 44 are sequentially arranged and fixedly connected from bottom to top, and the upper part of the loading rod 44 penetrates through a perforated plate pair 45 of a sliding table connecting piece 47 and is fixedly connected through a nut I46.
The bionic microstructure friction sample is made of a transparent material, and the bottom of the bionic microstructure friction sample is provided with a bionic microstructure sample and used for researching the friction and wear performance of different bionic microstructures in a friction experiment.
The working process of the utility model is as follows: before the experiment, the total weight of the reciprocating component friction plate mounting plate connecting piece 25, the sliding block I32, the sliding block II 33, the sliding block III 34, the sliding block IV 35, the friction plate 26, the friction plate mounting plate, the acceleration sensor 29 and the like connected with the rear section of the force sensor I23 needs to be measured. When the experiment is started, the bionic microstructure friction sample 41 is installed on the friction sample installation rod 42, the readings of the force sensor II 43 at the moment are read out, the loading numerical value at the moment is adjusted to be zero, then the load is increased through the motor lead screw module until the readings of the force sensor II 43 reach the specified numerical value, and the signal of the force sensor II 43 is used for feedback adjustment of the control of the motor lead screw module on the load. Then, the motor 9 is started according to the speed required by the experiment to drive the reciprocating screw shaft 16 to rotate, so that the reciprocating screw slider 18 reciprocates, and further the reciprocating screw slider connecting piece 22 is driven to reciprocate, so that the friction plate mounting plate connecting piece 24, the friction plate 26, the friction plate mounting plate and other parts reciprocate. Meanwhile, the force sensor I23 measures the change of force in the friction process, the acceleration sensor 29 measures the change of acceleration in the whole process, and the influence of inertia force on the measurement result of the force sensor I23 can be calculated according to the sum of the weights of the reciprocating parts connected to the back of the force sensor I23 measured before the experiment, so that accurate friction force change data in the friction process can be obtained. In the experimental process, a high-speed camera I37 and a high-speed camera II 56 are used for shooting the abrasion condition of the sample from the side surface and the upper surface respectively; the infrared thermal imager 40 monitors the temperature distribution of the sample in real time.
The beneficial effects of the utility model reside in that: the influence of different bionic microstructures on the friction performance can be researched by replacing different bionic microstructure friction samples; the friction mechanical property and the wear property of the test sample under different friction conditions can be quickly and accurately tested by replacing different friction plates; the friction mechanical property, the abrasion condition, the temperature and the stress change condition of the sample can be monitored in real time; because of reciprocating friction, the speeds of all points rubbed by the tested sample are consistent; the driving mode of a reciprocating screw rod is adopted, so that the speed is stable; the friction force measurement result has high precision by adopting a mutual compensation mode of the force sensor and the acceleration sensor.
Drawings
FIG. 1 is an axonometric view (front right direction) of a bionic microstructure friction wear process information acquisition device
FIG. 2 is an axonometric view (back left direction) of the information acquisition device of the friction and wear process of the bionic microstructure
FIG. 3 is an axonometric view of the base A of the bench (front right direction)
FIG. 4 is an axonometric view of a power mechanism B (front right direction)
FIG. 5 is an isometric view of friction mechanism configuration C (front right)
FIG. 6 is an isometric view of friction mechanism configuration C (rear left)
FIG. 7 is an isometric view of side monitoring device D (rear left)
FIG. 8 is an isometric view (rear left) of the loading and overhead monitoring device E
FIG. 9 is a rear view of the loading and overhead monitoring device E
Wherein: A. the experiment table comprises a base B, a power mechanism C, a friction mechanism D, a side monitoring device E, a loading and overlooking monitoring device 1, a bottom plate 2, a U-shaped plate I3, a side plate I4, a flat plate I5, a vertical plate 6, a flat plate II 7, a side plate II 8, a U-shaped plate II 9, a motor 10, a motor support 11, a horizontal plate 12, a vertical plate 13, an elastic coupling 14, a bearing I with a seat I15, a bearing I16, a reciprocating screw shaft 17, a central threaded hole 18, a reciprocating screw slider 19, a flat plate 20, a bearing II 21, a bearing II 22, a reciprocating screw slider connecting piece 23, a force sensor I24, a friction plate mounting plate connecting piece 25, a front horizontal plate 26, a friction plate 27, a left longitudinal plate 28, a right longitudinal plate 29, an acceleration sensor 30, a guide rail I31, a guide rail II 32, a slider I33, a slider II 34, a slider III. Vertical rod 39, support II 40, infrared thermal imager 41, bionic microstructure friction sample 42, friction sample mounting rod 43, force sensor II 44, loading rod 45, perforated plate pair 46, nut II 47, sliding table connecting piece 48, sliding table 49, lead screw 50, motor II 51, upper plate 52, rear plate 53, base 54, lower plate 55, high-speed camera mounting rack II 56, high-speed camera II
Detailed Description
The present invention will be described with reference to the accompanying drawings.
As shown in fig. 1 to 3, the utility model comprises a test bed base a, a power mechanism B, a friction mechanism C, a side monitoring device D and a loading and overlooking monitoring device E, wherein the power mechanism B is fixedly connected to the front part of the bottom plate 1 of the test bed base a through a bearing seat i 14, a bearing seat ii 20 and a transverse plate 11 of a motor bracket 10; the lower part of a guide rail I30 of the friction mechanism C is fixedly connected to the upper part of a U-shaped plate II 8 of the experiment table base A, and the lower part of a guide rail II 31 of the friction mechanism C is fixedly connected to the upper part of a U-shaped plate I2 of the experiment table base A; a high-speed camera I37 of the side monitoring device D is fixedly connected to the right rear part of a flat plate II 6 in the experiment table base A through a transverse plate of a support I36, and an infrared thermal imager 40 of the side monitoring device D is fixedly connected to the left front part of the flat plate II 6 in the experiment table base A through a vertical rod 38; the loading and overlooking monitoring device E is fixedly connected to the front of the neutral plate 5 of the experiment table base A through the back of the base 53.
As shown in fig. 3, the experiment table base a is composed of a bottom plate 1, a U-shaped plate i 2, a side plate i 3, a flat plate i 4, a vertical plate 5, a flat plate ii 6, a side plate ii 7 and a U-shaped plate ii 8, wherein the U-shaped plate i 2 is fixedly connected to the right rear portion of the bottom plate 1; the lower end of the side plate I3 is fixedly connected to the right side surface of the bottom plate 1, which is close to the rear part; the right end of the flat plate I4 is fixedly connected with the upper end of the side plate I3 at a right angle, and the lower end of the vertical plate 5 is fixedly connected to the upper surface of the left rear part of the flat plate I4; the flat plate II 6 is fixedly connected to the upper end of the side plate II 7 in a T shape; the lower end of the side plate II 7 is fixedly connected to the left side surface of the bottom plate 1, which is close to the rear part; the U-shaped plate II 8 is fixedly connected to the upper surface of the left rear part of the bottom plate 1.
As shown in fig. 4, the power mechanism B is composed of a motor 9, a motor bracket 10, an elastic coupling 13, a bearing block i 14, a screw shaft 16, a slider 18 and a bearing block ii 20, wherein the bracket 10 is a right-angle bracket composed of a vertical plate 12 and a transverse plate 11, the motor 9 is fixedly connected in front of the vertical plate 12 of the motor bracket 10, and an output end of the motor 9 is fixedly connected with the front end of the elastic coupling 13; a central threaded hole 17 and a flat plate 19 are arranged on the sliding block 18, and the central threaded hole 17 of the sliding block 18 is in threaded connection with the middle part of the screw shaft 16; the rear end of the lead screw shaft 16 is in interference connection with the inner ring of the bearing II 21 of the bearing seat II 20, the middle of the lead screw shaft 16 is in threaded connection with the central threaded hole of the sliding block 18, the front end of the lead screw shaft 16, which is close to the bearing I15 of the bearing seat I14, is in interference connection with the inner ring of the bearing I14, and the front end of the lead screw shaft 16 is fixedly connected with the rear end of the elastic coupling 13.
As shown in fig. 5 and 6, the friction mechanism C is composed of a reciprocating screw slider connecting piece 22, a force sensor i 23, a friction plate mounting plate connecting piece 24, a friction plate 26, a left vertical plate 27, a right vertical plate 28, a front transverse plate 25, an acceleration sensor 29, a guide rail i 30, a guide rail ii 31, a slide block i 32, a slide block ii 33, a slide block iii 34, a slide block iv 35 and a right vertical plate, the friction plate 26 is fixedly connected between the left vertical plate 27 and the right vertical plate 28, and the acceleration sensor 29 is fixedly connected to the middle of the upper surface of the left vertical plate 27; a sliding block I32 is fixedly connected to the lower side of the right longitudinal plate 28 close to the rear, and a sliding block II 33 is fixedly connected to the lower side of the right longitudinal plate 28 close to the front; a sliding block III 34 is fixedly connected to the lower part of the left longitudinal plate 27 close to the rear, and a sliding block IV 35 is fixedly connected to the lower part of the left longitudinal plate 27 close to the front; the sliding block I32 and the sliding block II 33 are in sliding connection with the guide rail II 31, and the sliding block III 34 and the sliding block IV 35 are in sliding connection with the guide rail I30; the front ends of the left longitudinal plate 27 and the right longitudinal plate 28 are fixedly connected with the front transverse plate 25, the guide rail I30, the force sensor I23 and the guide rail II 31 are sequentially arranged from front to back and fixedly connected, and the rear end of the friction plate mounting plate connecting piece 24 is fixedly connected with the front center of the front transverse plate 25.
As shown in fig. 7, the side monitoring device D comprises a bracket i 36, a high-speed camera i 37, an upright post 38, a bracket ii 39 and an infrared thermal imager 40, wherein the bracket i 36 is a right-angle plate consisting of a vertical plate and a transverse plate, and the high-speed camera i 37 is fixedly connected to the vertical plate of the bracket i 36; the infrared thermal imaging instrument 40 is fixedly connected to the left side of the bracket II 39, and the upright rod 38 is fixedly connected to the lower side of the bracket II 39.
As shown in fig. 8 and 9, the loading and overlooking monitoring device E comprises a friction sample 41, a mounting rod 42, a force sensor ii 43, a loading rod 44, a nut i 46, a sliding table connecting piece 47, a sliding table 48, a screw 49, a motor ii 50, a base 53, a mounting frame ii 55 and a high-speed camera ii 56, wherein a perforated plate pair 45 is fixedly connected to the front of the sliding table connecting piece 47 close to the left, and the sliding table 48 is fixedly connected to the rear of the sliding table connecting piece 47 close to the right; the base 53 is composed of an upper plate 51, a lower plate 54 and a rear plate 52, the motor II 50 is fixedly connected to the upper plate 51 of the base 53, the upper end of the screw rod 49 is fixedly connected with an output shaft of the motor II 50, the middle part of the screw rod 49 is in threaded connection with a central threaded hole of the sliding table 48, and the bottom end of the screw rod 49 is movably connected with the center of the lower plate 54 of the base 53; the mounting rack II 55 is a right-angle S-shaped plate, the upper end of the mounting rack II 55 is fixedly connected to the rear of the sliding table connecting piece 47 close to the left, and the front of the lower end of the mounting rack II 55 is fixedly connected with a high-speed camera II 56; the friction sample 41, the mounting rod 42, the force sensor II 43 and the loading rod 44 are sequentially arranged and fixedly connected from bottom to top, and the upper part of the loading rod 44 penetrates through a perforated plate pair 45 of a sliding table connecting piece 47 and is fixedly connected through a nut I46.
Claims (6)
1. The utility model provides a bionical microstructure friction wear process information acquisition device which characterized in that: the device comprises a laboratory bench base (A), a power mechanism (B), a friction mechanism (C), a side monitoring device (D) and a loading and overlooking monitoring device (E), wherein the power mechanism (B) is fixedly connected to the front part of a bottom plate (1) of the laboratory bench base (A) through a bearing seat I (14), a bearing seat II (20) and a transverse plate (11) of a motor support (10) on the power mechanism (B); the lower part of a guide rail I (30) of the friction mechanism (C) is fixedly connected to the upper part of a U-shaped plate II (8) of the experiment table base (A), and the lower part of a guide rail II (31) of the friction mechanism (C) is fixedly connected to the upper part of a U-shaped plate I (2) of the experiment table base (A); a high-speed camera I (37) of the side monitoring device (D) is fixedly connected to the right rear part of a middle flat plate II (6) of the experiment table base (A) through a transverse plate of a support I (36), and an infrared thermal imager (40) of the side monitoring device (D) is fixedly connected to the left front part of the middle flat plate II (6) of the experiment table base (A) through an upright rod (38); the loading and overlooking monitoring device (E) is fixedly connected with the front of the vertical plate (5) in the experiment table base (A) through the back of the base (53).
2. The information acquisition device for the friction and wear process of a bionic microstructure according to claim 1, wherein: the experiment table base (A) is composed of a bottom plate (1), a U-shaped plate I (2), a side plate I (3), a flat plate I (4), a vertical plate (5), a flat plate II (6), a side plate II (7) and a U-shaped plate II (8), wherein the U-shaped plate I (2) is fixedly connected to the right rear part of the bottom plate (1); the lower end of the side plate I (3) is fixedly connected to the right side surface of the bottom plate (1) close to the rear part; the right end of the flat plate I (4) is fixedly connected with the upper end of the side plate I (3) at a right angle, and the lower end of the vertical plate (5) is fixedly connected to the upper surface of the left rear part of the flat plate I (4); the flat plate II (6) is fixedly connected to the upper end of the side plate II (7) in a T shape; the lower end of the side plate II (7) is fixedly connected to the left side surface of the bottom plate (1) close to the rear part; the U-shaped plate II (8) is fixedly connected to the upper surface of the left rear part of the bottom plate (1).
3. The information acquisition device for the friction and wear process of a bionic microstructure according to claim 1, wherein: the power mechanism (B) consists of a motor (9), a motor support (10), an elastic coupling (13), a bearing seat I (14), a screw shaft (16), a sliding block (18) and a bearing seat II (20), wherein the support (10) is a right-angle support consisting of a vertical plate and a transverse plate (11), the motor (9) is fixedly connected in front of the vertical plate of the motor support (10), and the output end of the motor (9) is fixedly connected with the front end of the elastic coupling (13); a central threaded hole (17) and a flat plate (19) are arranged on the sliding block (18), and the central threaded hole (17) of the sliding block (18) is in threaded connection with the middle part of the screw rod shaft (16); the rear end of the lead screw shaft (16) is in interference connection with the inner ring of a bearing II (21) of a bearing seat II (20), the middle of the lead screw shaft (16) is in threaded connection with a central threaded hole of a sliding block (18), the front end of the lead screw shaft (16) close to the bearing I (15) of the bearing seat I (14) is in interference connection with the inner ring of the bearing I (15), and the front end of the lead screw shaft (16) is fixedly connected with the rear end of the elastic coupling (13).
4. The information acquisition device for the friction and wear process of a bionic microstructure according to claim 1, wherein: the friction mechanism (C) consists of a reciprocating screw slider connecting piece (22), a force sensor I (23), a friction plate mounting plate connecting piece (24), a friction plate (26), a left longitudinal plate (27), a right longitudinal plate (28), a front transverse plate, an acceleration sensor (29), a guide rail I (30), a guide rail II (31), a slider I (32), a slider II (33), a slider III (34), a slider IV (35) and a right longitudinal plate, wherein the friction plate (26) is fixedly connected between the left longitudinal plate (27) and the right longitudinal plate (28), and the acceleration sensor (29) is fixedly connected to the middle of the upper surface of the left longitudinal plate (27); a sliding block I (32) is fixedly connected to the lower side of the right longitudinal plate (28) close to the rear, and a sliding block II (33) is fixedly connected to the lower side of the right longitudinal plate (28) close to the front; a slide block III (34) is fixedly connected to the lower part of the left longitudinal plate (27) close to the rear, and a slide block IV (35) is fixedly connected to the lower part of the left longitudinal plate (27) close to the front; the sliding block I (32) and the sliding block II (33) are in sliding connection with the guide rail II (31), and the sliding block III (34) and the sliding block IV (35) are in sliding connection with the guide rail I (30); the front ends of the left longitudinal plate (27) and the right longitudinal plate (28) are fixedly connected with a front transverse plate, the guide rail I (30), the force sensor I (23) and the guide rail II (31) are sequentially arranged from front to back and fixedly connected, and the rear end of the friction plate mounting plate connecting piece (24) is fixedly connected with the front center of the front transverse plate.
5. The information acquisition device for the friction and wear process of a bionic microstructure according to claim 1, wherein: the side monitoring device (D) is composed of a support I (36), a high-speed camera I (37), an upright rod (38), a support II (39) and an infrared thermal imager (40), the support I (36) is a right-angle plate composed of an upright plate and a transverse plate, and the high-speed camera I (37) is fixedly connected to the upright plate of the support I (36); an infrared thermal imaging instrument (40) is fixedly connected to the left surface of the bracket II (39), and the upright rod (38) is fixedly connected to the lower surface of the bracket II (39).
6. The information acquisition device for the friction and wear process of a bionic microstructure according to claim 1, wherein: the loading and overlooking monitoring device (E) consists of a friction sample (41), an installation rod (42), a force sensor II (43), a loading rod (44), a nut I (46), a sliding table connecting piece (47), a sliding table (48), a lead screw (49), a motor II (50), a base (53), an installation frame II (55) and a high-speed camera II (56), wherein a perforated plate pair (45) is fixedly connected to the front of the sliding table connecting piece (47) close to the left, and a sliding table (48) is fixedly connected to the rear of the sliding table connecting piece (47) close to the right; the base (53) consists of an upper plate (51), a lower plate (54) and a rear plate (52), the motor II (50) is fixedly connected to the upper plate (51) of the base (53), the upper end of the screw rod (49) is fixedly connected with an output shaft of the motor II (50), the middle part of the screw rod (49) is in threaded connection with a central threaded hole of the sliding table (48), and the bottom end of the screw rod (49) is movably connected with the center of the lower plate (54) of the base (53); the mounting rack II (55) is a right-angle S-shaped plate, the upper end of the mounting rack II (55) is fixedly connected to the rear of the sliding table connecting piece (47) close to the left, and the front of the lower end of the mounting rack II (55) is fixedly connected with a high-speed camera II (56); the friction sample (41), the mounting rod (42), the force sensor II (43) and the loading rod (44) are sequentially arranged and fixedly connected from bottom to top, and the upper part of the loading rod (44) penetrates through a perforated plate pair (45) of the sliding table connecting piece (47) and is fixedly connected through a nut I (46).
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN110779864A (en) * | 2019-12-04 | 2020-02-11 | 吉林大学 | Bionic microstructure friction and wear process information acquisition device |
| CN112129096A (en) * | 2020-09-23 | 2020-12-25 | 新兴铸管股份有限公司 | Be used for rotary kiln wheel belt anticreep device |
| CN114383965A (en) * | 2022-01-10 | 2022-04-22 | 吉林大学重庆研究院 | Fixed-load multi-grinding-surface type porous material sliding friction wear testing device and method |
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2019
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| Publication number | Priority date | Publication date | Assignee | Title |
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| CN110779864A (en) * | 2019-12-04 | 2020-02-11 | 吉林大学 | Bionic microstructure friction and wear process information acquisition device |
| CN110779864B (en) * | 2019-12-04 | 2024-10-15 | 吉林大学 | Bionic microstructure friction and wear process information acquisition device |
| CN112129096A (en) * | 2020-09-23 | 2020-12-25 | 新兴铸管股份有限公司 | Be used for rotary kiln wheel belt anticreep device |
| CN114383965A (en) * | 2022-01-10 | 2022-04-22 | 吉林大学重庆研究院 | Fixed-load multi-grinding-surface type porous material sliding friction wear testing device and method |
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