CN202762926U - Radial-axial ring rolling experiment testing device - Google Patents
Radial-axial ring rolling experiment testing device Download PDFInfo
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- CN202762926U CN202762926U CN 201220492953 CN201220492953U CN202762926U CN 202762926 U CN202762926 U CN 202762926U CN 201220492953 CN201220492953 CN 201220492953 CN 201220492953 U CN201220492953 U CN 201220492953U CN 202762926 U CN202762926 U CN 202762926U
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Abstract
The utility model discloses a radial-axial ring rolling experiment testing device which comprises a radial rolling mechanism, an axial rolling mechanism and a machine seat. The radial rolling mechanism and the axial mechanism are both movably connected on the machine seat. The radial rolling mechanism comprises a main roller device, a core roller device, two sets of detecting devices I and two sets of driving devices I. The main roller device and the core roller device are respectively connected with the two sets of detecting devices, and the two sets of driving devices respectively drives the core roller device and the main roller device. The axial rolling mechanism comprises an upper cone roller device and a lower cone roller device, an upper cone roller sliding block device, three sets of detecting devices II, four sets of driving devices II and an axial mechanism machine frame. The upper cone roller device is arranged on the upper cone roller sliding block device, and the upper cone roller device and the lower cone roller device are respectively connected with the axial mechanism machine frame. The radial-axial ring rolling experiment testing device has the advantages of being compact in equipment structure, complete in function, large in machine body rigidity, small in transformation, and safe and reliable in using. Electrical control is used in all devices.
Description
Technical field
The utility model relates to a kind of footpath-axial ring experiment test device of rolling over, be used for carrying out the rolling of the small-sized ring of softer metals under the room temperature environment, obtaining the power energy parameters such as axial rolling force, axially rolled moment and radial rolling power, radial rolling moment, is to formulate large ring rolling mill practice, ring rolling theoretical research creation experiment condition.
Background technology
Large ring is rolling to be to make ring produce the continuous local plastic distortion by footpath-axial ring rolling machine, so realize that wall thickness reduces, plastic working technique that enlarged-diameter, cross section profile are shaped.This technique is applicable to produce the annular machine components of various shape and size, such as all kinds of seamless ring shape Forgings such as bearer ring, gear ring, flange, wheel hub, thin-wall tube-shaped element, wind power flange, hubbed flanges.Since footpath-axially rolled technology have energy-conservation, material-saving, efficiently, the technological and economical advantages such as high-quality, decrease the production cost of high-performance large-scale ring, be subject to the extensive concern of every profession and trade.
Directly-and the axial ring rolling machine equipment volume is large, and can't directly obtain forces associated can parameter, the Acquire parameters indirectlies such as hydraulic system pressure value that can only be by equipment and the magnitude of voltage of motor, current value.Because the interference of the factors such as hydraulic pressure leakage, friction can make the parameter of indirectly obtaining have larger error, brings many impacts to research work.Utilize simultaneously footpath-axial ring rolling machine to carry out the experimental cost height, the experiment difficulty is large, can't carry out a large amount of experimental studies.Less for footpath-axially roll over ring research, be not only because the footpath axially milling ring technological process more radially rolles over ring stressing conditions complexity, lacking experimental facilities is the maximum bottleneck that limits its further investigation.
The utility model content
The purpose of this utility model is exactly in order to solve the shortcoming of prior art, a kind of footpath-axial ring experiment test device of rolling over is provided, be used for carrying out the rolling of the small-sized ring of softer metals under the room temperature environment, obtaining the power energy parameters such as axial rolling force, axially rolled moment and radial rolling power, radial rolling moment, is to formulate large ring rolling mill practice, ring rolling theoretical research creation experiment condition.
The purpose of this utility model is achieved through the following technical solutions:
Directly-axially roll over the ring experiment test device, comprise radial rolling mechanism, axially rolled mechanism and support, described radial rolling mechanism and axially rolled mechanism all are movably connected on the support; Described radial rolling mechanism mainly comprises home roll device, core roller arrangement, two cover checkout gear I, two cover drive unit I, described home roll device links to each other with two cover checkout gear I respectively with the core roller arrangement, and described two cover drive unit I drive respectively the horizontal movement of core roller arrangement and home roll device axial rotation; Described axially rolled mechanism comprises the epicone roller arrangement, lower cone roller arrangement, epicone roller slide block device, three cover checkout gear II, quadruplet drive unit II and axial means frame, described epicone roller arrangement is positioned on the epicone roller slide block device, described epicone roller slide block device, lower cone roller arrangement links to each other with the axial means frame respectively, the epicone roller arrangement, lower cone roller arrangement links to each other with three cover checkout gear II respectively with epicone roller slide block device, described quadruplet drive unit II drives respectively the epicone roller arrangement, lower cone roller arrangement rotates, epicone roller slide block device is done and is moved both vertically, and the axial means frame is done horizontal movement.
Described radial rolling mechanism and axially rolled mechanism all are installed in support by guide rail slide block.
Described home roll device comprises home roll and home roll seat, and described home roll is installed on the home roll seat, and the home roll seat is fixedly connected with support; Described two cover checkout gear I comprise the torque sensor I, the pressure sensor I; Described two cover drive unit I comprise servomotor I and servomotor II; Described servomotor II links to each other with the torque sensor I by servo deceleration machine, shaft coupling; Described torque sensor I links to each other with home roll by shaft coupling;
Described core roller arrangement comprises core roller and core roller support, and described core roller is installed on the core roller support, and core roller support is installed on the support by guide rail slide block; Described core roller support links to each other with the servomotor I by shaft coupling, leading screw, and described servomotor I drives core roller support and does horizontal movement; Described leading screw links to each other with the pressure sensor I by feed screw nut.
Described three cover checkout gear II comprise torque sensor II, torque sensor III, pressure sensor II; Described quadruplet drive unit II comprises servomotor III, servomotor IV, servomotor V and servomotor VI; Described epicone roller slide block links to each other with the axial means frame by guide rail slide block, and described epicone roller slide block moves both vertically under the driving of servomotor III by leading screw; Described leading screw links to each other with the pressure sensor II by feed screw nut.
Described epicone roller arrangement comprises the epicone roller, and described epicone roller connects the torque sensor II by shaft coupling, and described torque sensor II links to each other with the servomotor IV with the servo deceleration machine by shaft coupling, and the driving epicone roller of described servomotor IV rotates.
Described lower cone roller arrangement comprises lower cone roller, and described lower cone roller connects the torque sensor III by shaft coupling, and described torque sensor III links to each other with the servomotor V with the servo deceleration machine by shaft coupling, and described servomotor V drives lower cone roller and rotates.
Described servomotor VI links to each other with leading screw with the servo deceleration machine by shaft coupling, and described leading screw links to each other with the axial means frame by feed screw nut.
Described lower cone roller arrangement is installed on the axial rack, can not move both vertically.
Described axially rolled mechanism is by leading screw horizontal movement under the driving of servomotor.The axially rolled moment that axially rolled mechanism produces obtains by torque sensor, and axial rolling force measures by the pressure sensor that feed screw nut connects.
Torque sensor and pressure sensor are installed, for detection of the radial rolling power that produces in the operation of rolling and radial rolling moment in the radial rolling mechanism.Torque sensor and pressure sensor are installed, for detection of the axial rolling force that produces in the operation of rolling and axially rolled moment in the axially rolled mechanism.
The radial rolling moment that ring rolls in described radial rolling mechanism can measure by torque sensor, and the radial rolling power that ring rolls in radial rolling mechanism measures by the pressure sensor that feed screw nut connects.
The beneficial effects of the utility model are: compact equipment, and multiple functional, stiffness of fuselage is large, distortion is little, safe and reliable, equipment all adopts electrical control, does not adopt any hydraulic pressure drive control system, and is simple in structure, be easy to control, experimental implementation is simple and convenient, and is safe and reliable.Can realize carrying out under the indoor room temperature environment the rolling of small-sized softer metals ring, obtain axial rolling force, axially rolled moment and radial rolling power, radial rolling moment, for experiment condition is created in the ring rolling theoretical research.
Description of drawings
Fig. 1 is equipment structure chart of the present utility model;
Fig. 2 is radial rolling of the present utility model mechanism;
Fig. 3 is the front view of axially rolled mechanism of the present utility model;
Fig. 4 is the top view of axially rolled mechanism of the present utility model.
Among the figure, 1, radial rolling mechanism; 2, axially rolled mechanism; 3, support; 101, home roll seat; 102, core roller support; 103, pressure sensor I; 104, leading screw; 105, shaft coupling; 106, servomotor I; 107, home roll; 108, core roller; 109, shaft coupling; 110, torque sensor I; 111, shaft coupling; 112, servo deceleration machine; 113, servomotor II; 201, leading screw; 202, lower cone roller; 203, epicone roller; 204, epicone roll bearing seat; 205, shaft coupling; 206, epicone roller slide block; 207, pressure sensor II; 208, servomotor III; 209, torque sensor II; 210, shaft coupling; 211, servo deceleration machine; 212, servomotor IV; 213, leading screw; 214, axial means frame; 215, servomotor VI; 216, guide rail; 217, slide block.
The specific embodiment
A kind of footpath-axially roll over the ring experiment test device, as shown in Figure 1, it mainly is comprised of radial rolling mechanism 1, axially rolled mechanism 2 and support 3, and radial rolling mechanism 1 and axially rolled mechanism 2 all are installed on the support 3 by guide rail slide block.The frame of support 3, axial rack and radial rolling mechanism 1 all adopts square steel to be welded, and whole device is installed with bolts the forming of combination.Radial rolling mechanism 1 mainly is comprised of home roll device, core roller arrangement, and torque sensor I 110 and pressure sensor 103 are installed in the radial rolling mechanism 1, for detection of the radial rolling power that produces in the operation of rolling and radial rolling moment.Axially rolled mechanism 2 mainly is comprised of upper and lower cone roller arrangement, epicone roller slide block 206, and torque sensor II 209 and pressure sensor II 207 are installed in the axially rolled mechanism 2, for detection of the axial rolling force that produces in the operation of rolling and axially rolled moment.
Radial rolling mechanism mainly carries out radial rolling to ring as shown in Figure 2, detects simultaneously radial rolling power and radial rolling moment in the ring operation of rolling.It mainly is comprised of home roll 107, core roller 108 and transmission device thereof.Home roll 107 is installed on the home roll seat 101, home roll seat 101 is fixedly connected with frame 3 it can not be moved, home roll 107 is connected with torque sensor I 110 by shaft coupling 109, and servomotor 113 connects servo deceleration machine 112 and is connected with torque sensor I 110 by shaft coupling 111.Core roller 108 is installed on the core roller support 102, and core roller support 102 is installed on the support 3 by guide rail slide block, and core roller support 102 drives 108 horizontal movements of core roller by leading screw 104 under the driving of servomotor I 106.In the operation of rolling of ring, the radial rolling moment that ring rolls in radial rolling mechanism 1 can measure by torque sensor I 110, and the radial rolling power that ring rolls in radial rolling mechanism 1 measures by the pressure sensor I 103 that feed screw nut connects.
Axially rolled mechanism mainly carries out axially rolledly as shown in Figure 3 to ring, detect simultaneously axial rolling force and axially rolled moment in the ring operation of rolling.It mainly is comprised of epicone roller 203, lower cone roller 202, epicone roller slide block 203, axial means frame 214.Epicone roller 203 is installed on the epicone roll bearing seat 204, and epicone roller 203 connects torque sensor II 209 by shaft coupling 205, and servomotor IV 212 connects servo deceleration machine 211 and is connected with torque sensor II 209 by shaft coupling 210, and band mantle roller rotates.Epicone roller transmission device is installed on the epicone roller slide block 206, and epicone roller slide block 206 links to each other with axial means frame 214, and moves both vertically under the driving of servomotor III 208 by leading screw 213 by guide rail 216, slide block 217.Lower cone roller transmission device is identical with epicone roller transmission device, and lower cone roller transmission device is installed on the axial rack 214, can not move both vertically.Whole axially rolled mechanism 2 is by leading screw 201 horizontal movement under the driving of servomotor VI 215, and the speed of motion makes the cone roller contact all the time with the ring end face by the decision of pushing the speed of ring diameter, guarantees the rolling quality of ring end face.The axially rolled moment that axially rolled mechanism 2 produces obtains by torque sensor II 209, and axial rolling force measures by the pressure sensor II 207 that feed screw nut connects.
Claims (8)
1. the footpath-axially rolling encircles experiment test device, comprises radial rolling mechanism, axially rolled mechanism and support, and described radial rolling mechanism and axially rolled mechanism all are movably connected on the support; Described radial rolling mechanism mainly comprises home roll device, core roller arrangement, two cover checkout gear I, two cover drive unit I, described home roll device links to each other with two cover checkout gear I respectively with the core roller arrangement, and described two cover drive unit I drive respectively the horizontal movement of core roller arrangement and home roll device axial rotation; Described axially rolled mechanism comprises the epicone roller arrangement, lower cone roller arrangement, epicone roller slide block device, three cover checkout gear II, quadruplet drive unit II and axial means frame, described epicone roller arrangement is positioned on the epicone roller slide block device, described epicone roller slide block device, lower cone roller arrangement links to each other with the axial means frame respectively, the epicone roller arrangement, lower cone roller arrangement links to each other with three cover checkout gear II respectively with epicone roller slide block device, described quadruplet drive unit II drives respectively the epicone roller arrangement, lower cone roller arrangement rotates, epicone roller slide block device is done and is moved both vertically, and the axial means frame is done horizontal movement.
2. footpath as claimed in claim 1-axially rolling encircles experiment test device, and it is characterized in that: described radial rolling mechanism and axially rolled mechanism all are installed in support by guide rail slide block.
3. footpath as claimed in claim 1-axially rolling encircles experiment test device, and it is characterized in that: described home roll device comprises home roll and home roll seat, and described home roll is installed on the home roll seat, and the home roll seat is fixedly connected with support; Described two cover checkout gear I comprise the torque sensor I, the pressure sensor I; Described two cover drive unit I comprise servomotor I and servomotor II; Described servomotor II links to each other with the torque sensor I by servo deceleration machine, shaft coupling; Described torque sensor I links to each other with home roll by shaft coupling.
4. footpath as claimed in claim 3-axially rolling encircles experiment test device, and it is characterized in that: described core roller arrangement comprises core roller and core roller support, and described core roller is installed on the core roller support, and core roller support is installed on the support by guide rail slide block; Described core roller support links to each other with the servomotor I by shaft coupling, leading screw, and described servomotor I drives core roller support and does horizontal movement; Described leading screw links to each other with the pressure sensor I by feed screw nut.
5. footpath as claimed in claim 1-axially rolling encircles experiment test device, it is characterized in that: described three cover checkout gear II comprise torque sensor II, torque sensor III, pressure sensor II; Described quadruplet drive unit II comprises servomotor III, servomotor IV, servomotor V and servomotor VI; Described epicone roller slide block links to each other with the axial means frame by guide rail slide block, and described epicone roller slide block moves both vertically under the driving of servomotor III by leading screw; Described leading screw links to each other with the pressure sensor II by feed screw nut.
6. footpath as claimed in claim 5-axially rolling encircles experiment test device, it is characterized in that: described epicone roller arrangement comprises the epicone roller, described epicone roller connects the torque sensor II by shaft coupling, described torque sensor II links to each other with the servomotor IV with the servo deceleration machine by shaft coupling, and the driving epicone roller of described servomotor IV rotates.
7. footpath as claimed in claim 5-axially rolling encircles experiment test device, it is characterized in that: described lower cone roller arrangement comprises lower cone roller, described lower cone roller connects the torque sensor III by shaft coupling, described torque sensor III links to each other with the servomotor V with the servo deceleration machine by shaft coupling, and described servomotor V drives lower cone roller and rotates.
8. footpath as claimed in claim 5-axially rolling encircles experiment test device, and it is characterized in that: described servomotor VI links to each other with leading screw with the servo deceleration machine by shaft coupling, and described leading screw links to each other with the axial means frame by feed screw nut.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201220492953 CN202762926U (en) | 2012-09-21 | 2012-09-21 | Radial-axial ring rolling experiment testing device |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201220492953 CN202762926U (en) | 2012-09-21 | 2012-09-21 | Radial-axial ring rolling experiment testing device |
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| Publication Number | Publication Date |
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| CN202762926U true CN202762926U (en) | 2013-03-06 |
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| Application Number | Title | Priority Date | Filing Date |
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| CN 201220492953 Expired - Fee Related CN202762926U (en) | 2012-09-21 | 2012-09-21 | Radial-axial ring rolling experiment testing device |
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| CN (1) | CN202762926U (en) |
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102861841A (en) * | 2012-09-21 | 2013-01-09 | 济南大学 | Experiment test device and experiment test method of radial-axial ring rolling |
| CN106111858A (en) * | 2016-07-25 | 2016-11-16 | 燕山大学 | A kind of Oscillating Tooth Gear Reducer flank profil near-net-shape device |
| CN111093856A (en) * | 2017-09-08 | 2020-05-01 | 许勒压力机有限责任公司 | Radial-axial ring rolling device for rolling ring |
-
2012
- 2012-09-21 CN CN 201220492953 patent/CN202762926U/en not_active Expired - Fee Related
Cited By (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102861841A (en) * | 2012-09-21 | 2013-01-09 | 济南大学 | Experiment test device and experiment test method of radial-axial ring rolling |
| CN106111858A (en) * | 2016-07-25 | 2016-11-16 | 燕山大学 | A kind of Oscillating Tooth Gear Reducer flank profil near-net-shape device |
| CN106111858B (en) * | 2016-07-25 | 2018-07-06 | 燕山大学 | A kind of Oscillating Tooth Gear Reducer flank profil near-net-shape device |
| CN111093856A (en) * | 2017-09-08 | 2020-05-01 | 许勒压力机有限责任公司 | Radial-axial ring rolling device for rolling ring |
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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 |
Granted publication date: 20130306 Termination date: 20150921 |
|
| EXPY | Termination of patent right or utility model |