CN204165826U - Hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine - Google Patents
Hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine Download PDFInfo
- Publication number
- CN204165826U CN204165826U CN201420542006.7U CN201420542006U CN204165826U CN 204165826 U CN204165826 U CN 204165826U CN 201420542006 U CN201420542006 U CN 201420542006U CN 204165826 U CN204165826 U CN 204165826U
- Authority
- CN
- China
- Prior art keywords
- cylinder
- reverse ejection
- piston
- small fixture
- line slideway
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Expired - Fee Related
Links
Landscapes
- Investigating Strength Of Materials By Application Of Mechanical Stress (AREA)
Abstract
A kind of hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine, by load cylinder I and II, positional cylinder, 2 pairs of reverse ejection bars, reverse ejection beam I and II, movable intermediate beam, large and small fixture crossbeam, the compositions such as large and small fixture, sample is fixedly mounted on after on jig, when giving cylinder body A portion's oiling of load cylinder I or II, promote piston and drive reverse ejection beam I or II respectively, reverse ejection beam I or II drives large or small fixture crossbeam by reverse ejection bar, drive large or small fixture more respectively respectively or move right left, reach the object that various sample is stretched respectively under different station and different loads, otherwise, when giving cylinder body B portion's oiling of load cylinder, promote piston and make large or small fixture beam return, give cylinder block A portion, location and the oiling of C portion, positioning piston axle return, movable intermediate beam displacement, give location cylinder block B portion's oiling, positioning piston shaft extension goes out, and enters pilot hole, and movable intermediate beam location, reaches the object of the adjustment test space.
Description
Technical field
The invention belongs to metering quality inspection, rubber plastic, iron and steel metallurgy, machine-building, electronic apparatus, automobile production, textile chemical fiber, electric wire, wrappage and food, instrument and meter, medicine equipment, civilian nuclear energy, civil aviation, institution of higher learning, scientific experiment institute, commodity inspection is arbitrated, technical supervision department, building materials pottery, petrochemical complex, etc. the technical field of the Performance Detection of industry, to stretch the performance test to metal and nonmetallic materials in particular to a kind of application, as rubber, plastics, electric wire, optical fiber cable, securing band, safety belt, leather belt compound substance, plastic material, waterproof roll, steel pipe, copper material, section bar, spring steel, bearing steel, stainless steel (and other glass hard steel), foundry goods, steel plate, steel band, the stretching of non-ferrous metal metal wire rod, compression, bending, shear, peel off, tear, the machinery of the multiple tests such as 2 extensions (separately need join extensometer).
Background technology
Cupping machine is a kind of precision optical machinery measuring the mechanical property such as metal material, nonmetallic materials engineering structure under various condition, environment.In the process of research and probe new material, new technology, new technology and new construction, it is also a kind of indispensable important testing apparatus.Current cupping machine is divided into mechanical dynamometry and electronics dynamometry two kinds of modes by dynamometry mode; Non-follow control and microcomputer is divided into control two kinds of modes by control mode; Static and dynamic two kinds is divided into again by load mode.Cupping machine international and domestic is at present that one end is fixed, one end loads, and completes Performance Detection, not yet finds the investigation and application of the machinery and equipment of it being carried out to two-way stretch.And the present invention is the biaxial tensile test machine based on hydraulic pressure transfer, it is the Special test machine for colliery detection industry and the exploitation of non-coal mine detection industry.Vertical test is become horizontal test, which increases stretching space (can be increased to more than 20 meters, this is that vertical test is not accomplished).Meet the test of bulk specimen, full size bar.It is mainly used in the static tensile test of tool at the bottom of wire rope, cable wire, mine car, monocycle chain, ring chain, five rings chain, connecting pin etc.Also can be used for the stretching of various metal material, chain, hanging belt etc., extensively use the fields such as metallic article, building structure, ships, military project.
Summary of the invention
The object of this invention is to provide and a kind of overlap load cylinder by size two and complete loadings respectively, keep load enforcement dynamic process, by means of load cylinder, drive left and right jig crossbeam Precision Linear Moving, reach sample to be stretched, detect the fluid pressure type horizontal-type stretching testing machine of its deformation process and mechanical property.
The technical solution adopted for the present invention to solve the technical problems is:
A kind of hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine, primarily of transverse frame main frame, fixed cross beam, movable intermediate beam, the compositions such as two load cylinder and positional cylinder, it is characterized in that: fixed cross beam I 8, line slideway I 34 and line slideway II 38 are fixed in horizontal framed structure 1, horizontal framed structure 1 there are pilot hole I 32 and pilot hole II 43 totally 3 right, load cylinder I 4 is fixed on fixed cross beam I 8, piston I 6 is arranged in load cylinder I 4, be connected with reverse ejection beam I 2 by piston axle I 3, reverse ejection beam I 2 connects reverse ejection bar I 9 and is being connected with small fixture crossbeam 10 with reverse ejection bar IV 51, small fixture I 11 is fixed on small fixture crossbeam 10, reverse ejection beam I 2 connects roller VI 37, roller VI 37 and line slideway I 34 and line slideway II 38 routing motion, small fixture crossbeam 10 connects roller V 33, roller V 33 and line slideway I 34 and line slideway II 38 routing motion, load cylinder II 23 is fixed on fixed cross beam II 18, piston II 20 is arranged in load cylinder II 23, be connected with reverse ejection beam II 24 by piston axle II 22, reverse ejection beam II 24 connects reverse ejection bar II 17 and is being connected with large jig crossbeam 16 with reverse ejection bar III 42, large jig II 15 is fixed on large jig crossbeam 16, reverse ejection beam II 24 connects roller I 25, roller I 25 and line slideway I 34 and line slideway II 38 routing motion, large jig crossbeam 16 connects roller II 28 and line slideway I 34 and line slideway II 38 routing motion, positional cylinder 31 is fixed on movable intermediate beam 13, movable intermediate beam 13 connects roller III 29 and roller IV 30 and line slideway I 34 and line slideway II 38 routing motion, positioning piston I 40 is connected with positioning piston axle I 39, and positioning piston II 45 and positioning piston axle II 46 are arranged in positional cylinder 31, enter load cylinder II cylinder body B portion 21 from oil hole I 26 oiling, piston II 20 drives piston axle II 22, reverse ejection beam II 24, reverse ejection bar II 17 and reverse ejection bar III 42, large jig crossbeam 16 and large jig II 15 to be moved to the left, and large jig II 15 has coordinated specimen clamping action with large jig I 14, enter load cylinder II cylinder body A portion 19 from oil hole II 27 oiling, piston II 20 drives piston axle II 22, reverse ejection beam II 24, reverse ejection bar II 17 and reverse ejection bar III 42, large jig crossbeam 16 and large jig II 15 to move right, and large jig II 15 has coordinated sample pulling action with large jig I 14, enter load cylinder I cylinder body B portion 5 from oil hole IV 36 oiling, piston I 6 drives piston axle I 3, reverse ejection beam I 2, reverse ejection bar I 9 and reverse ejection bar IV 51, small fixture crossbeam 10 and small fixture I 11 to move right, and small fixture II 12 has coordinated specimen clamping action with small fixture I 11, enter load cylinder I cylinder body A portion 7 from oil hole III 35 oiling, piston I 6 drives piston axle I 3, reverse ejection beam I 2, reverse ejection bar I 9 and reverse ejection bar IV 51, small fixture crossbeam 10 and small fixture I 11 to be moved to the left, and small fixture II 12 has coordinated sample pulling action with small fixture I 11, from oil hole V 47 and oil hole VII 50 respectively oiling enter positional cylinder cylinder body A portion 41 and positional cylinder cylinder C portion 44, positioning piston I 40 and positioning piston II 45 drive positioning piston axle I 39 and positioning piston axle II 46 to shrink in positional cylinder respectively, be separated with pilot hole II 43 or pilot hole I 32, movable intermediate beam 13 can move to the left or to the right, completes the effect in adjustment stretching space, enter positional cylinder cylinder body B portion 48 from oil hole VI 49 oiling, positioning piston I 40 and positioning piston II 45 drive positioning piston axle I 39 and positioning piston axle II 46 to stretch out outside positional cylinder respectively, enter in pilot hole II 43 and pilot hole I 32 respectively, movable intermediate beam 13 is fixed, and carries out bilateral stretching experiment.
Beneficial effect of the present invention: be connected with load cylinder by oil hole, form inlet and outlet of fuel channel, drive piston, piston axle, reverse ejection beam, reverse ejection bar to drive jig crossbeam and jig to both sides or move toward one another respectively, reach clamping sample, to the two-way stretch object of sample.Be connected with positional cylinder by oil hole, form inlet and outlet of fuel channel, drive positioning piston, positioning piston axle reach in pilot hole, fixing moved cross beam, or be separated with pilot hole when retracting, movable intermediate beam motion, adjustment activity intermediate beam and fixed cross beam spacing, adapt to various sample length, carry out the object tested.
accompanying drawing illustrates:
Fig. 1 is structural representation of the present invention;
Fig. 2 is the vertical view of Fig. 1.
In figure: 1. horizontal framed structure, 2. reverse ejection beam I, 3. piston axle I, 4. load cylinder I, 5. load cylinder I cylinder body B portion, 6. piston I, 7. load cylinder I cylinder body A portion, 8. fixed cross beam I, 9. reverse ejection bar I, 10. small fixture crossbeam, 11. small fixtures I, 12. small fixtures II, 13. movable intermediate beams, 14. large jigs I, 15. large jigs II, 16. large jig crossbeams, 17. reverse ejection bars II, 18. fixed cross beams II, 19. load cylinder II cylinder body A portions, 20. pistons II, 21. load cylinder II cylinder body B portions, 22. piston axles II, 23. load cylinders II, 24. reverse ejection beams II, 25. roller I, 26. oil holes I, 27. oil holes II, 28. roller II, 29. rollers III, 30. rollers IV, 31. positional cylinders, 32. pilot holes I, 33. rollers V, 34. line slideways I, 35. oil holes III, 36. oil holes IV, 37. rollers VI, 38. line slideways II, 39. positioning piston axles I, 40. positioning pistons I, 41. positional cylinder body A portions, 42. reverse ejection bars III, 43. pilot holes II, 44. positional cylinder body C portions, 45. positioning pistons II, 46. positioning piston axles II, 47. oil holes V, 48. positional cylinder body B portions, 49. oil holes VI, 50. oil holes VII, 51. reverse ejection bars IV
embodiment:
Below in conjunction with drawings and Examples, the present invention is further described.
As depicted in figs. 1 and 2, a kind of hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine, primarily of transverse frame main frame, fixed cross beam, movable intermediate beam, the compositions such as two load cylinder and positional cylinder, it is characterized in that: fixed cross beam I 8, line slideway I 34 and line slideway II 38 are fixed in horizontal framed structure 1, horizontal framed structure 1 there are pilot hole I 32 and pilot hole II 43 totally 3 right, load cylinder I 4 is fixed on fixed cross beam I 8, piston I 6 is arranged in load cylinder I 4, be connected with reverse ejection beam I 2 by piston axle I 3, reverse ejection beam I 2 connects reverse ejection bar I 9 and is being connected with small fixture crossbeam 10 with reverse ejection bar IV 51, small fixture I 11 is fixed on small fixture crossbeam 10, reverse ejection beam I 2 connects roller VI 37, roller VI 37 and line slideway I 34 and line slideway II 38 routing motion, small fixture crossbeam 10 connects roller V 33, roller V 33 and line slideway I 34 and line slideway II 38 routing motion, load cylinder II 23 is fixed on fixed cross beam II 18, piston II 20 is arranged in load cylinder II 23, be connected with reverse ejection beam II 24 by piston axle II 22, reverse ejection beam II 24 connects reverse ejection bar II 17 and is being connected with large jig crossbeam 16 with reverse ejection bar III 42, large jig II 15 is fixed on large jig crossbeam 16, reverse ejection beam II 24 connects roller I 25, roller I 25 and line slideway I 34 and line slideway II 38 routing motion, large jig crossbeam 16 connects roller II 28 and line slideway I 34 and line slideway II 38 routing motion, positional cylinder 31 is fixed on movable intermediate beam 13, movable intermediate beam 13 connects roller III 29 and roller IV 30 and line slideway I 34 and line slideway II 38 routing motion, positioning piston I 40 is connected with positioning piston axle I 39, and positioning piston II 45 and positioning piston axle II 46 are arranged in positional cylinder 31, enter load cylinder II cylinder body B portion 21 from oil hole I 26 oiling, piston II 20 drives piston axle II 22, reverse ejection beam II 24, reverse ejection bar II 17 and reverse ejection bar III 42, large jig crossbeam 16 and large jig II 15 to be moved to the left, and large jig II 15 has coordinated specimen clamping action with large jig I 14, enter load cylinder II cylinder body A portion 19 from oil hole II 27 oiling, piston II 20 drives piston axle II 22, reverse ejection beam II 24, reverse ejection bar II 17 and reverse ejection bar III 42, large jig crossbeam 16 and large jig II 15 to move right, and large jig II 15 has coordinated sample pulling action with large jig I 14, enter load cylinder I cylinder body B portion 5 from oil hole IV 36 oiling, piston I 6 drives piston axle I 3, reverse ejection beam I 2, reverse ejection bar I 9 and reverse ejection bar IV 51, small fixture crossbeam 10 and small fixture I 11 to move right, and small fixture II 12 has coordinated specimen clamping action with small fixture I 11, enter load cylinder I cylinder body A portion 7 from oil hole III 35 oiling, piston I 6 drives piston axle I 3, reverse ejection beam I 2, reverse ejection bar I 9 and reverse ejection bar IV 51, small fixture crossbeam 10 and small fixture I 11 to be moved to the left, and small fixture II 12 has coordinated sample pulling action with small fixture I 11, from oil hole V 47 and oil hole VII 50 respectively oiling enter positional cylinder cylinder body A portion 41 and positional cylinder cylinder C portion 44, positioning piston I 40 and positioning piston II 45 drive positioning piston axle I 39 and positioning piston axle II 46 to shrink in positional cylinder respectively, be separated with pilot hole II 43 or pilot hole I 32, movable intermediate beam 13 can move to the left or to the right, completes the effect in adjustment stretching space, enter positional cylinder cylinder body B portion 48 from oil hole VI 49 oiling, positioning piston I 40 and positioning piston II 45 drive positioning piston axle I 39 and positioning piston axle II 46 to stretch out outside positional cylinder respectively, enter in pilot hole II 43 and pilot hole I 32 respectively, movable intermediate beam 13 is fixed, and carries out bilateral stretching experiment.
Claims (1)
1. a hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine, primarily of transverse frame main frame, fixed cross beam, movable intermediate beam, the compositions such as two load cylinder and positional cylinder, it is characterized in that: fixed cross beam I (8), line slideway I (34) and line slideway II (38) are fixed in horizontal framed structure (1), horizontal framed structure (1) there are pilot hole I (32) and pilot hole II (43) totally 3 right, load cylinder I (4) is fixed on fixed cross beam I (8), piston I (6) is arranged in load cylinder I (4), be connected with reverse ejection beam I (2) by piston axle I (3), reverse ejection beam I (2) connects reverse ejection bar I (9) and is being connected with small fixture crossbeam (10) with reverse ejection bar IV (51), small fixture I (11) is fixed on small fixture crossbeam (10), reverse ejection beam I (2) connects roller VI (37), roller VI (37) and line slideway I (34) and line slideway II (38) routing motion, small fixture crossbeam (10) connects roller V (33), roller V (33) and line slideway I (34) and line slideway II (38) routing motion, load cylinder II (23) is fixed on fixed cross beam II (18), piston II (20) is arranged in load cylinder II (23), be connected with reverse ejection beam II (24) by piston axle II (22), reverse ejection beam II (24) connects reverse ejection bar II (17) and is being connected with large jig crossbeam (16) with reverse ejection bar III (42), large jig II (15) is fixed on large jig crossbeam (16), reverse ejection beam II (24) connects roller I (25), roller I (25) and line slideway I (34) and line slideway II (38) routing motion, large jig crossbeam (16) connects roller II (28) and line slideway I (34) and line slideway II (38) routing motion, positional cylinder (31) is fixed on movable intermediate beam (13), movable intermediate beam (13) connects roller III (29) and roller IV (30) and line slideway I (34) and line slideway II (38) routing motion, positioning piston I (40) is connected with positioning piston axle I (39), and positioning piston II (45) and positioning piston axle II (46) are arranged in positional cylinder (31), enter load cylinder II cylinder body B portion (21) from oil hole I (26) oiling, piston II (20) drives piston axle II (22), reverse ejection beam II (24), reverse ejection bar II (17) and reverse ejection bar III (42), large jig crossbeam (16) and large jig II (15) to be moved to the left, and large jig II (15) has coordinated specimen clamping action with large jig I (14), enter load cylinder II cylinder body A portion (19) from oil hole II (27) oiling, piston II (20) drives piston axle II (22), reverse ejection beam II (24), reverse ejection bar II (17) and reverse ejection bar III (42), large jig crossbeam (16) and large jig II (15) to move right, and large jig II (15) has coordinated sample pulling action with large jig I (14), enter load cylinder I cylinder body B portion (5) from oil hole IV (36) oiling, piston I (6) drives piston axle I (3), reverse ejection beam I (2), reverse ejection bar I (9) and reverse ejection bar IV (51), small fixture crossbeam (10) and small fixture I (11) to move right, and small fixture II (12) has coordinated specimen clamping action with small fixture I (11), enter load cylinder I cylinder body A portion (7) from oil hole III (35) oiling, piston I (6) drives piston axle I (3), reverse ejection beam I (2), reverse ejection bar I (9) and reverse ejection bar IV (51), small fixture crossbeam (10) and small fixture I (11) to be moved to the left, and small fixture II (12) has coordinated sample pulling action with small fixture I (11), from oil hole V (47) and oil hole VII (50) respectively oiling enter positional cylinder cylinder body A portion (41) and positional cylinder cylinder C portion (44), positioning piston I (40) and positioning piston II (45) drive positioning piston axle I (39) and positioning piston axle II (46) to shrink in positional cylinder respectively, be separated with pilot hole II (43) or pilot hole I (32), movable intermediate beam (13) can be moved to the left or to the right, completes the effect in adjustment stretching space, enter positional cylinder cylinder body B portion (48) from oil hole VI (49) oiling, positioning piston I (40) and positioning piston II (45) drive positioning piston axle I (39) and positioning piston axle II (46) to stretch out outside positional cylinder respectively, enter in pilot hole II (43) and pilot hole I (32) respectively, movable intermediate beam (13) is fixed, and carries out bilateral stretching experiment.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201420542006.7U CN204165826U (en) | 2014-09-19 | 2014-09-19 | Hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201420542006.7U CN204165826U (en) | 2014-09-19 | 2014-09-19 | Hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN204165826U true CN204165826U (en) | 2015-02-18 |
Family
ID=52539504
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201420542006.7U Expired - Fee Related CN204165826U (en) | 2014-09-19 | 2014-09-19 | Hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN204165826U (en) |
-
2014
- 2014-09-19 CN CN201420542006.7U patent/CN204165826U/en not_active Expired - Fee Related
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN104101539A (en) | Hydraulic type two-way stretching test machine | |
| CN103900910B (en) | Lead screw gear driven type biaxial tensile test machine | |
| CN204086023U (en) | Hydraulic double cylinder difference loaded horizontal type cupping machine | |
| CN201331438Y (en) | Hydraulic horizontal tension tester | |
| CN204924818U (en) | Metal wire draws composite testing machine of turning round | |
| CN104215507A (en) | Hydraulic two-cylinder differential-load horizontal tensile test machine | |
| CN106918417B (en) | Steel plate membrane stress tests force application apparatus | |
| CN209589707U (en) | For testing the testing machine of pulling force and pressure | |
| CN204086021U (en) | Fluid pressure type biaxial tensile test machine | |
| CN106769426A (en) | A kind of automatic clamping steel cable stretching force testing machine and its test method | |
| CN106769001A (en) | The unidirectional loading running in machine of planetary roller screw pair | |
| CN105319135B (en) | Crankling vibration experimental machine | |
| CN204165826U (en) | Hydraulic pressure three cylinder bilateral adjustable pitch difference loaded horizontal type cupping machine | |
| CN205749125U (en) | A kind of multi-axis electronic formula universal testing machine | |
| CN205175828U (en) | Tensile testing machine | |
| CN202974605U (en) | Rolling linear guide rail pair static stiffness measuring device | |
| CN204142560U (en) | Hydraulic pressure three cylinder adjustable pitch difference loaded horizontal type cupping machine | |
| CN117571063A (en) | Reinforcing steel bar performance detection device and detection method thereof | |
| CN210347362U (en) | Compensator constant pressure fatigue testing machine | |
| CN102809607B (en) | Two-ends-telescopic internally-externally-synchronous automatic ultrasonic diagnostic machine for large-scale cylindrical shell section parts | |
| CN203949822U (en) | Bending combination experiment machine | |
| CN201917497U (en) | Swing fatigue testing machine | |
| CN203610957U (en) | Automatic door lock assembling and inspection machine | |
| CN204630857U (en) | Horizontal single rod double acting steel concrete supporting multifunctional test machine | |
| CN206270161U (en) | A kind of automatic clamping steel cable stretching force testing machine |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| CF01 | Termination of patent right due to non-payment of annual fee | ||
| CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20150218 Termination date: 20200919 |