CN202611860U - Segment-based travel characteristic pneumatic actuator device of turbocharger - Google Patents

Segment-based travel characteristic pneumatic actuator device of turbocharger Download PDF

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Publication number
CN202611860U
CN202611860U CN2012203065080U CN201220306508U CN202611860U CN 202611860 U CN202611860 U CN 202611860U CN 2012203065080 U CN2012203065080 U CN 2012203065080U CN 201220306508 U CN201220306508 U CN 201220306508U CN 202611860 U CN202611860 U CN 202611860U
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China
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auxilliary
core bar
seat
lower shell
shell body
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Withdrawn - After Issue
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CN2012203065080U
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Chinese (zh)
Inventor
王航
桑悟海
郭伦海
杨恒兴
袁道军
曹怀瑞
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Kangyue Technology Co Ltd
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Kangyue Technology Co Ltd
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    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02TCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO TRANSPORTATION
    • Y02T10/00Road transport of goods or passengers
    • Y02T10/10Internal combustion engine [ICE] based vehicles
    • Y02T10/12Improving ICE efficiencies

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Abstract

The utility model discloses a segment-based travel characteristic pneumatic actuator device of a turbocharger. The segment-based travel characteristic pneumatic actuator device of the turbocharger comprises an upper shell and a lower shell, a rubber diaphragm is arranged between the upper shell and the lower shell, the rubber diaphragm divides a hollow cavity between the upper shell and the lower shell into two hollow cavities including a first hollow cavity and a second hollow cavity, the first hollow cavity and the second hollow cavity are not communicated, and a position where the second hollow cavity is closed to the rubber diaphragm is provided with a diaphragm seat. An auxiliary core rod is arranged on the diaphragm seat in connecting mode, and the auxiliary core rod is provided with two springs with different elastic coefficients. The segment-based travel characteristic pneumatic actuator device of the turbocharger is capable of achieving collation of various travel characteristics and adjusting performance of the turbocharger to the best as much as possible.

Description

A kind of segmented stroke characteristic pneumatic actuator device of turbosupercharger
Technical field
The utility model relates to a kind of turbosupercharger pneumatic actuator device, relates in particular to a kind of segmented stroke characteristic pneumatic actuator device of turbosupercharger, belongs to field of internal combustion engine.
Background technique
Continuous development along with national Abgasgesetz and user's request; The motor especially supercharging technology of DENG has also had significant progress; The structure of exhaust-gas turbocharger has developed into the exhaust gas bypass structure pressurized machine that can take into account the low engine speed moment of torsion from traditional constant cross-section; Arrived after the enforcement of state III Abgasgesetz; People are more and more stronger for the demand of the engine supercharger that can take into account the high low-speed performance of motor, and variable-area turbocharger becomes the emphasis of domestic and international research and development.On variable-area turbocharger was used, its control was a big problem always, and the traditional, pneumatic final controlling element can not segmentation owing to stroke characteristic; Can only linearity control; Can't realize the Performance Match of full operating mode, and adopt automatically controlled final controlling element, cost can increase a lot; And also there is certain problem in reliability; Researching and developing a kind of segmented stroke characteristic pneumatic actuator, realize the organic unity of variable-area turbocharger Performance Match, cost, reliability, has been the problem that turbosupercharger producer presses for solution.
At present; Pressurized machine pneumatic actuator structure is as shown in Figure 1; Generally comprise upper shell 8, elastomer diaphragm 6, diaphragm seat 7, spring 2, lower shell body 1, core bar 3, valve 10; Upper shell 8 connects together through bolt 5 and elastomer diaphragm 6 with lower shell body 1, and diaphragm seat 7 links together through nut 9 with core bar 3, and whole pneumatic actuator is installed on the pressurized machine through connection screw thread hole 4.During work; The gas that has pressure gets into the closed cavity of upper shell 8 and elastomer diaphragm 6 formation from valve 10; Promote elastomer diaphragm 6 and move to lower shell body 1 direction with diaphragm seat 7, diaphragm seat 7 drives with its core bar that fits together 3 and moves, and realizes the adjusting to pressurized machine.This pneumatic actuator is owing to only lean on single spring to decide final stroke characteristic, so can only be linear motion, stroke characteristic be by the elasticity coefficient decision of spring.
The model utility content
The technical problem that the utility model will solve is the above defective to traditional pressurized machine pneumatic actuator structure, and a kind of segmented stroke characteristic pneumatic actuator device of turbosupercharger of the organic unity that can realize variable-area turbocharger Performance Match, cost, reliability is provided.
For addressing the above problem, the utility model adopts following technological scheme:
A kind of segmented stroke characteristic pneumatic actuator device of turbosupercharger comprises upper shell and lower shell body;
Be provided with elastomer diaphragm between upper shell and the lower shell body;
Elastomer diaphragm is partitioned into two mutual disconnected cavitys with the cavity between upper shell and the lower shell body: first cavity and second cavity;
Position near elastomer diaphragm in second cavity is provided with the diaphragm seat;
Be connected with auxilliary core bar on the said diaphragm seat; On the auxilliary core bar the different spring of twice elasticity coefficient is installed.
Below be the further improvement of the utility model to such scheme:
Be welded with the lock pin assembly on the diaphragm seat, can slide each other between auxilliary core bar and the diaphragm seat, also can lock together motion through last lock pin assembly;
Auxilliary core bar away from an end of diaphragm seat from lower shell body stretch out and and lower shell body between be slidingly connected.
Further improve:
Be connected with main core bar on the said diaphragm seat; A wherein end of said main core bar is fixedly connected with the diaphragm seat, and the other end stretches out and is slidingly connected with lower shell body from lower shell body.
Further improve:
Be connected with main core bar on the said diaphragm seat; A wherein end of said main core bar is fixedly connected with the diaphragm seat, and the other end stretches out and is slidingly connected with lower shell body from lower shell body.
The fixed-site that is positioned at auxilliary core bar one side on the lower shell body is connected with the auxiliary rod parallel with assisting core bar, and the other end of said auxiliary rod is positioned at lower shell body.
Further improve:
Lean on the position, lining to be provided with the first recessed band near the end of an end of diaphragm seat on the said auxiliary rod;
Position near lower shell body on the main core bar is provided with the second recessed band, and the position near the second recessed band on the lower shell body is provided with down the lock pin assembly, and following lock pin assembly is welded on the lower shell body;
Auxilliary core bar is provided with the locking pin-and-hole, to cooperate the locking of assisting core bar with last lock pin assembly, following lock pin assembly.
Further improve: auxilliary core bar is provided with main spring seat and auxilliary spring seat; Main spring seat and auxilliary core bar are through being welded together; Be slidingly connected between auxilliary spring seat and the auxilliary core bar, the spring that the twice elasticity coefficient is different is separately positioned on main spring seat and the auxilliary spring seat.
Further improve: said main spring seat is arranged between auxilliary spring seat and the diaphragm seat.
Further improve: all less than the length and the diameter of auxilliary spring, auxilliary spring housing is contained in the outside of main spring for the length of main spring and diameter.
During work; The gas that has pressure gets into first cavity from valve; Promote elastomer diaphragm and move with the downward housing direction of diaphragm seat, the diaphragm seat is assisted core bar and is compressed main spring through the main spring seat that welds together through the motion that connects together of last lock pin assembly and auxilliary core bar; Main core bar is regulated pressurized machine along with the diaphragm seat moves together.
At this moment, a main spring works, and stroke characteristic is by the elasticity coefficient decision of main spring.Along with the rising of pressure, the diaphragm seat continues to move, when the first recessed band of last lock pin assembly entering auxiliary rod, when the lock pin assembly leaves the second recessed band of main core bar down; The diaphragm seat breaks off with auxilliary core bar and being connected; Simultaneously, auxilliary core bar is no longer participated in motion by locked.
The diaphragm seat continues to promote the auxilliary downward housing direction of spring seat and moves, the auxilliary spring of compression, at this moment, and only auxilliary springs, stroke characteristic is by the elasticity coefficient decision of auxilliary spring.
When pressure reduces, diaphragm seat retraction, when last lock pin assembly leave the first recessed band of auxiliary rod, when the lock pin assembly gets into the second recessed band of main core bar down, the diaphragm seat is connected with auxilliary core bar again;
Simultaneously, auxilliary core bar is locked is opened, and continues to participate in motion, and a main spring works again.Like this, can realize the collocation of various different stroke characteristics, as much as possible booster performance transferred to the best.
The another kind of improvement:
Main spring is identical with the diameter of auxilliary spring, and main spring is arranged between main spring seat and the lower shell body, and auxilliary spring is arranged between main spring seat and the auxilliary spring seat.
During work; The gas that has pressure gets into first cavity of upper shell and elastomer diaphragm formation from valve; Promote elastomer diaphragm and move with the downward housing direction of diaphragm seat, the diaphragm seat is assisted core bar and is compressed main spring through the main spring seat that welds together through the motion that connects together of last lock pin assembly and auxilliary core bar; Main core bar is regulated pressurized machine along with the diaphragm seat moves together.
At this moment, a main spring works, and stroke characteristic is by the elasticity coefficient decision of main spring.
Along with the rising of pressure, the diaphragm seat continues to move, when the first recessed band of last lock pin assembly entering auxiliary rod, when the lock pin assembly leaves the second recessed band of main core bar down; The diaphragm seat breaks off with auxilliary core bar and being connected; Simultaneously, auxilliary core bar is no longer participated in motion by locked.
The diaphragm seat continues to promote the auxilliary downward housing direction of spring seat and moves, the auxilliary spring of compression.At this moment, only auxilliary springs, stroke characteristic is by the elasticity coefficient decision of auxilliary spring.
When pressure reduces, diaphragm seat retraction, when last lock pin assembly leave the first recessed band of auxiliary rod, when the lock pin assembly gets into the second recessed band of main core bar down; The diaphragm seat is connected with auxilliary core bar again, and simultaneously, auxilliary core bar is locked is opened; Continue to participate in motion, a main spring works again.
Below in conjunction with accompanying drawing and embodiment the utility model is elaborated.
Description of drawings
Accompanying drawing 1 is the structural representation of pneumatic actuator in the utility model background technique;
Accompanying drawing 2 is right elevations of accompanying drawing 1;
Accompanying drawing 3 is structural representations of pneumatic actuator among the utility model embodiment 1;
Accompanying drawing 4 is right elevations of accompanying drawing 3;
Accompanying drawing 5 is structural representations of pneumatic actuator among the utility model embodiment 2.
Among the figure: the 1-lower shell body; The 2-spring; The 3-core bar; The 4-connection screw thread hole; The 5-bolt; The 6-elastomer diaphragm; 7-diaphragm seat; The 8-upper shell; The 9-nut; The 10-valve; The 11-auxiliary rod; The 12-nut; 13-assists core bar; Lock pin assembly under the 14-; 15-master's core bar; The 16-main spring; 17-assists spring; 18-main spring seat; The 19-bolt; The 20-support arm; 21-assists spring seat; The last lock pin assembly of 22-; The 23-first recessed band; The 24-second recessed band; 25-locking pin-and-hole; 26-first cavity; 27-second cavity.
Embodiment
Embodiment 1, and like Fig. 3, shown in Figure 4, a kind of segmented stroke characteristic pneumatic actuator device of turbosupercharger comprises upper shell 8 and lower shell body 1;
Be provided with elastomer diaphragm 6 between upper shell 8 and the lower shell body 1, upper shell 8 is tightly connected through bolt 5 and elastomer diaphragm 6 with lower shell body 1;
Elastomer diaphragm 6 is partitioned into two mutual disconnected cavitys with the cavity between upper shell 8 and the lower shell body 1: first cavity 26 and second cavity 27.
Said upper shell 8 is provided with the valve 10 that is communicated with first cavity 26.
Position near elastomer diaphragm 6 in second cavity 27 is provided with diaphragm seat 7, is connected with main core bar 15 on the said diaphragm seat 7;
A wherein end of said main core bar 15 is fixedly connected with diaphragm seat 7 through bolt 19, and the other end stretches out and is slidingly connected with lower shell body 1 from lower shell body 1.
Lower shell body 1 is provided with and is used for the connection screw thread hole 4 that is connected with pressurized machine.
Said diaphragm seat 7 is provided with endoporus, is connected with auxilliary core bar 13 in the endoporus;
Be welded with lock pin assembly 22 on the diaphragm seat 7, can slide each other between auxilliary core bar 13 and the diaphragm seat 7, also can lock together motion through last lock pin assembly 22; Last lock pin assembly is made up of lock pin, spring, shell, nature lock pin retraction.
Auxilliary core bar 13 away from an end of diaphragm seat 7 from lower shell body 1 stretch out and and lower shell body 1 between be slidingly connected;
On the auxilliary core bar 13 the different spring of twice elasticity coefficient is installed.
The position that is positioned at auxilliary core bar 13 1 sides on the lower shell body 1 is fixedly connected with the auxiliary rod 11 parallel with auxilliary core bar 13 through nut 12, and the other end of said auxiliary rod 11 is positioned at lower shell body 1, and the support arm 20 that is used for fixing auxiliary rod 11 is installed on the lower shell body 1.
Lean on the position, lining to be provided with first near the end of an end of diaphragm seat 7 on the said auxiliary rod 11 and recessedly be with 23;
Be provided with second near the position of lower shell body 1 on the main core bar 15 and recessedly be with 24, be provided with the identical following lock pin assembly 14 of structure and last lock pin assembly 22 near the second recessed position with 24 on the lower shell body 1, following lock pin assembly 14 is welded on the lower shell body 1.
Auxilliary core bar 13 is provided with locking pin-and-hole 25, with last lock pin assembly 22, lock pin assembly 14 cooperates the locking of assisting core bar 13 down.
Auxilliary core bar 13 is provided with main spring seat 18 and auxilliary spring seat 21; Main spring seat 18 and auxilliary core bar 13 are through being welded together; Be slidingly connected between auxilliary spring seat 21 and the auxilliary core bar 13, the spring that the twice elasticity coefficient is different is separately positioned on main spring seat 18 and the auxilliary spring seat 21.
Said main spring seat 18 is arranged between auxilliary spring seat 21 and the diaphragm seat 7.
All less than the length and the diameter of auxilliary spring 17, auxilliary spring 17 is sleeved on the outside of main spring 16 for the length of main spring 16 and diameter.
During work; The gas that has pressure gets into first cavity 26 from valve 10; Promote elastomer diaphragm 6 and move to lower shell body 1 direction with diaphragm seat 7, diaphragm seat 7 is through the motion that connects together of last lock pin assembly 22 and auxilliary core bar 13, and auxilliary core bar 13 compresses main springs 16 through the main spring seat 18 that welds together; Main core bar 15 is regulated pressurized machine along with diaphragm seat 7 moves together.
At this moment, a main spring 16 works, and stroke characteristic is by the elasticity coefficient decision of main spring 16.Along with the rising of pressure, diaphragm seat 7 continues to move, when last lock pin assembly 22 gets into the first recessed with 23, lock pin assembly 14 leaves the second recessed when being with 24 of main core bar 15 down of auxiliary rods 11; Diaphragm seat 7 breaks off with auxilliary core bar 13 and being connected; Simultaneously, auxilliary core bar 13 is no longer participated in motion by locked.
Diaphragm seat 7 continues to promote auxilliary spring seat 21 and moves to lower shell body 1 direction, the auxilliary spring 17 of compression, and at this moment, only auxilliary spring 17 works, and stroke characteristic is by the elasticity coefficient decision of auxilliary spring 17.
When pressure reduces, diaphragm seat 7 retraction, when last lock pin assembly 22 leaves the first recessed with 23, lock pin assembly 14 gets into the second recessed when being with 24 of main core bar 15 down of auxiliary rod 11, diaphragm seat 7 is connected with auxilliary core bar 13 again;
Simultaneously, auxilliary core bar 13 locked being opened continue to participate in motion, and a main spring 16 works again.Like this, can realize the collocation of various different stroke characteristics, as much as possible booster performance transferred to the best.
Embodiment 2, and is as shown in Figure 5, and in the foregoing description 1, main spring 16 is identical with the diameter of auxilliary spring 17, and main spring 16 is arranged between main spring seat 18 and the lower shell body 1, and auxilliary spring 17 is arranged between main spring seat 18 and the auxilliary spring seat 21.
During work; The gas that has pressure gets into first cavity 26 of upper shell 8 and elastomer diaphragm 6 formation from valve 10; Promote elastomer diaphragm 6 and move to lower shell body 1 direction with diaphragm seat 7, diaphragm seat 7 is through the motion that connects together of last lock pin assembly 22 and auxilliary core bar 13, and auxilliary core bar 13 compresses main springs 16 through the main spring seat 18 that welds together; Main core bar 15 is regulated pressurized machine along with diaphragm seat 7 moves together.
At this moment, a main spring 16 works, and stroke characteristic is by the elasticity coefficient decision of main spring 16.
Along with the rising of pressure, diaphragm seat 7 continues to move, when last lock pin assembly 22 gets into the first recessed with 23, lock pin assembly 14 leaves the second recessed when being with 24 of main core bar 15 down of auxiliary rods 11; Diaphragm seat 7 breaks off with auxilliary core bar 13 and being connected; Simultaneously, auxilliary core bar 13 is no longer participated in motion by locked.
Diaphragm seat 7 continues to promote auxilliary spring seat 21 and moves to lower shell body 1 direction, the auxilliary spring 17 of compression.At this moment, only auxilliary spring 17 works, and stroke characteristic is by the elasticity coefficient decision of auxilliary spring 17.
When pressure reduces; Diaphragm seat 7 retraction, when last lock pin assembly 22 leaves the first recessed with 23, lock pin assembly 14 gets into the second recessed when being with 24 of main core bar 15 down of auxiliary rod 11, diaphragm seat 7 is connected with auxilliary core bar 13 again; Simultaneously; Auxilliary core bar 13 locked being opened continue to participate in motion, and a main spring 16 works again.
Like this, can realize the collocation of various different stroke characteristics, as much as possible booster performance transferred to the best.
We have carried out detailed explanation according to the national patent method to model utility now, can discern the improvement or the replacement of specific embodiment disclosed herein for those skilled in the art.These modifications are in spirit of the utility model and scope.

Claims (10)

1. the segmented stroke characteristic pneumatic actuator device of a turbosupercharger comprises upper shell (8) and lower shell body (1);
Be provided with elastomer diaphragm (6) between upper shell (8) and the lower shell body (1);
Elastomer diaphragm (6) is partitioned into two mutual disconnected cavitys with the cavity between upper shell (8) and the lower shell body (1): first cavity (26) and second cavity (27);
Position near elastomer diaphragm (6) in second cavity (27) is provided with diaphragm seat (7);
It is characterized in that:
Be connected with auxilliary core bar (13) on the said diaphragm seat (7); On the auxilliary core bar (13) the different spring of twice elasticity coefficient is installed.
2. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 1 is characterized in that:
Be welded with lock pin assembly (22) on the diaphragm seat (7), can slide each other between auxilliary core bar (13) and the diaphragm seat (7), also can lock together motion through last lock pin assembly (22);
Auxilliary core bar (13) away from an end of diaphragm seat (7) from lower shell body (1) stretch out and and lower shell body (1) between be slidingly connected.
3. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 2 is characterized in that:
Be connected with main core bar (15) on the said diaphragm seat (7); A wherein end of said main core bar (15) is fixedly connected with diaphragm seat (7), and the other end stretches out and is slidingly connected with lower shell body (1) from lower shell body (1).
4. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 3 is characterized in that:
Be connected with main core bar (15) on the said diaphragm seat (7); A wherein end of said main core bar (15) is fixedly connected with diaphragm seat (7), and the other end stretches out and is slidingly connected with lower shell body (1) from lower shell body (1).
5. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 4 is characterized in that:
The fixed-site that is positioned at auxilliary core bar (13) one sides on the lower shell body (1) is connected with the auxiliary rod (11) parallel with assisting core bar (13), and the other end of said auxiliary rod (11) is positioned at lower shell body (1).
6. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 5 is characterized in that:
Said auxiliary rod (11) is gone up near the end of an end of diaphragm seat (7) and is leaned on the position, lining to be provided with the first recessed band (23);
The position that main core bar (15) is gone up near lower shell body (1) is provided with the second recessed band (24), and the position that lower shell body (1) is gone up near the second recessed band (24) is provided with down lock pin assembly (14), and following lock pin assembly (14) is welded on the lower shell body (1);
Auxilliary core bar (13) is provided with locking pin-and-hole (25), to cooperate the locking of assisting core bar (13) with last lock pin assembly (22), following lock pin assembly (14).
7. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 6 is characterized in that:
Auxilliary core bar (13) is provided with main spring seat (18) and auxilliary spring seat (21); Main spring seat (18) and auxilliary core bar (13) are through being welded together; Be slidingly connected between auxilliary spring seat (21) and the auxilliary core bar (13), the spring that the twice elasticity coefficient is different is separately positioned on main spring seat (18) and the auxilliary spring seat (21).
8. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 7 is characterized in that:
Said main spring seat (18) is arranged between auxilliary spring seat (21) and the diaphragm seat (7).
9. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 8 is characterized in that:
All less than the length and the diameter of auxilliary spring (17), auxilliary spring (17) is sleeved on the outside of main spring (16) for the length of main spring (16) and diameter.
10. the segmented stroke characteristic pneumatic actuator device of a kind of turbosupercharger according to claim 8 is characterized in that:
Main spring (16) is identical with the diameter of auxilliary spring (17), and main spring (16) is arranged between main spring seat (18) and the lower shell body (1), and auxilliary spring (17) is arranged between main spring seat (18) and the auxilliary spring seat (21).
CN2012203065080U 2012-06-28 2012-06-28 Segment-based travel characteristic pneumatic actuator device of turbocharger Withdrawn - After Issue CN202611860U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN2012203065080U CN202611860U (en) 2012-06-28 2012-06-28 Segment-based travel characteristic pneumatic actuator device of turbocharger

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN2012203065080U CN202611860U (en) 2012-06-28 2012-06-28 Segment-based travel characteristic pneumatic actuator device of turbocharger

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102767427A (en) * 2012-06-28 2012-11-07 康跃科技股份有限公司 Sectional travel characteristic pneumatic actuator device of turbocharger

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN102767427A (en) * 2012-06-28 2012-11-07 康跃科技股份有限公司 Sectional travel characteristic pneumatic actuator device of turbocharger
CN102767427B (en) * 2012-06-28 2014-03-19 康跃科技股份有限公司 Sectional travel characteristic pneumatic actuator device of turbocharger

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