CN101563245B - Axle tower - Google Patents

Axle tower Download PDF

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Publication number
CN101563245B
CN101563245B CN2006800137239A CN200680013723A CN101563245B CN 101563245 B CN101563245 B CN 101563245B CN 2006800137239 A CN2006800137239 A CN 2006800137239A CN 200680013723 A CN200680013723 A CN 200680013723A CN 101563245 B CN101563245 B CN 101563245B
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China
Prior art keywords
axle
compression
side plates
annex
tension side
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Expired - Fee Related
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CN2006800137239A
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Chinese (zh)
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CN101563245A (en
Inventor
内森·M·莱登
理查德·S·霍勒姆
理查德·G·沃格勒
迈克尔·布兰尼根
阿什利·T·达丁
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HENDERIKESEN INTERNATIONAL Inc
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HENDERIKESEN INTERNATIONAL Inc
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Priority claimed from US11/375,247 external-priority patent/US8292705B2/en
Application filed by HENDERIKESEN INTERNATIONAL Inc filed Critical HENDERIKESEN INTERNATIONAL Inc
Priority claimed from PCT/US2006/009655 external-priority patent/WO2006102041A2/en
Publication of CN101563245A publication Critical patent/CN101563245A/en
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Publication of CN101563245B publication Critical patent/CN101563245B/en
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Abstract

The invention is directed to vehicle suspension systems and components thereof including attachment devices for mounting an axle alignment and/or load reacting mechanism to an axle. Disclosed herein are axle towers used for connecting a torque box to an axle. The axle tower of the present invention can include one or more features to absorb and disperse loads to the axle. The axle tower has a morecontoured or curved edge on the side plate that experiences a compressive force than a similar edge on the side plate that experiences a tensile force. Furthermore, the axle tower has appendages that extend out from the side plates providing a large footprint on the axle housing. At least one of the appendages extending from the side plate experiencing a compressive force has a curved or radiused corner. Also, the axle towers include an inner plate having an off-centered slot where the troque box connects. The off-centered slot provides additional material to absorb the compressive force expe rienced on one side of the inner plate.

Description

Axle tower
It is that U.S.'s non-provisional application of 0715-0171.01 is a preceence that the application requires U.S. Provisional Application 60/662,233 that proposed on March 16th, 2005 and the name that proposed on March 15th, 2006 to be called " axle tower " file number.
Background of invention
The present invention relates to components of suspension systems, for example axle location and/or load counteraction mechanism are connected to device on the axle shell.Particularly, the present invention relates to multifunctional axle location and/or load reaction device, for example torque box are connected to the axle tower (Axle Tower) on the axle shell.
Vehicle suspension system provides the comfortable vehicle borne goods transient vibration of taking and prevent for Vehicular occupant.Equally, also very important, suspension system also provides vehicle stability by controlling the various power that are applied on the vehicle bridge, otherwise this power can make vehicle bridge with respect to vehicle frame undesirable position change take place.Especially, this power changes vertical, the horizontal and/or lengthwise position of vehicle bridge with respect to vehicle frame, also can make vehicle bridge move for example inclination, skew and angular oscillation.Each parts of suspension system are reacted and are controlled one or more power.For complexity and the weight that reduces suspension system, the parts of suspension system are related to a plurality of power of control.
The torque box assembly is one of them such multipurpose multifunctional operating system.It is reacted to the vertical air spring load, and opposing braking/accelerating weight has center inclination resistant property, and opposing revolution or lateral load also keeps the position of vehicle bridge with respect to chassis side rail, also helps to prevent unsuitable skew and vehicle bridge angular oscillation.
Usually, the torque box assembly typically comprises the steel rectangular box structure of welding.The front and back end is welded on the round steel pipe.During assembling, continuous rubber bush inserts in these pipes, and the circular metal bar is arranged in axle bush.At an end of torque box, bar with link to each other across the crossbeam between the chassis side rail of vehicle frame.At the other end of torque box, each end of interior circular metal bar is connected on the axle tower successively, and wherein axle tower is connected to torque box on the vehicle bridge by axle shell.The torque box assembly is described in detail in U.S. Pat 6,527, discloses in 286.U.S. Pat 6,527, disclosed content here as a reference in 286.
Clearly, the load paths between axle shell and the torque box is very important.Here said connecting device or axle tower are with the device of these load transfer to the axle shell.These axle towers transfer are vertical, inclination is imported, horizontal and radial weight.Preferably, axle tower can axle shell do not transship and/or the situation of breaking under transmit load.
Asymmetric vehicle bridge is a standard in the North America.Asymmetric finger differential gear box skew axle center line.Asymmetric vehicle bridge is to being a challenge with axle location and/or the design that for example is connected to the connecting device of axle shell for the load reaction device of torque box.Torque box or other devices are usually located at the center between the chassis side rail of vehicle, thereby at the center of the opposite end of vehicle bridge.In order to make torque box or other device to the heart, the connecting device of axle tower and axle center line interval equidistance for example.Therefore, because differential gear box is in axle center, so axle tower is installed on the differential gear box and different distance place at interval, differential gear box line of centers both sides usually.In other words, axle tower is installed in about on the asymmetric point of the line of centers of differential gear box, and the line that connects this point of connection like this is out-of-level.
Like this, axle tower is usually designed to and differs from one another, to adapt to its asymmetric position about differential gear box.Because the installation site of adaptation on differential gear box has different basal body structures, axle tower also has differing heights and is parallel to all the other vehicle bridge with the transverse width that keeps torque box in addition.In other words, because comparable other axle tower of axle tower are positioned at the more high position on the differential gear box, so the axle tower that improves can be shorter than another axle tower, otherwise torque box can be with respect to all the other vehicle bridge deflections.
Axle tower must be able to be kept out the stress that torque box or other allied equipments apply, and this axle tower must absorb and/or disperse the power along axle shell, with the fault that prevents that vehicle bridge and/or differential gear box are possible.
Another connecting device known in the art is the vertical and horizontal torsion bar pylon that often runs on the highway suspension or connection " vee rod " pylon to the axle shell top.Yet it is multi-functional that these device propers do not have axle tower of the present invention and had.The unique distinction of axle tower of the present invention is that it is multi-dimensional, multi-functional structure member, i.e. the structure that the load that acts on many vehicle bridge is reacted, the function singleness of existing apparatus, the i.e. structure that load on the single vehicle bridge is reacted.For above-mentioned functions is provided, the various features that existing structure is improved are included in the axle tower of the present invention.
Will describe in detail as following, when radial weight was applied on the air bellow, torque box was in extended state and reacts by promoting axle tower.Because this cantilevered load in the axle tower, on axle tower, have compressed side (near torque box) and tensile side (with torque box apart from farthest).Therefore these both sides of axle tower can be designed to difference, so that effective design of bearing load to be provided.
In an embodiment of axle tower of the present invention, axle tower can comprise various features.These features will describe in detail below, be summarized as follows.The compressed side that a feature that can comprise is an axle tower is different with the tensile side shape of axle tower.Difformity influences the rigidity of pylon both sides, and improves distribution of pressure and reduce pressure load on the axle shell.Pylon both sides shape difference is that a side of bearing elevated pressures of axle tower has than axle tower opposite side or bigger knuckle-tooth or the profile of tensile side.
Another feature that can comprise is that the groove of interior connecting panel is asymmetric shape.Asymmetric concentrating by material makes stress concentration in groove one side, to be offset this higher stress value.In other words, bear elevated pressures a side have a more material.
Another feature that can comprise is that axle tower is connected to asymmetric impression on the axle shell.The compressed side of axle tower or the side with higher shear degree or sinuousness have at least one radius or round angle.The circle of axle tower compressed side or radius impression weaken axle shell by the dispersive stress load and have the effect of wedge angle.In addition, this impression has sizable width along axle shell.This helps the large tracts of land dispersive stress along vehicle bridge and differential gear box.
It is crooked and be obedient to that to be axle tower allow when vehicle bridge be out of shape under the load effect at the knuckle-tooth of compressed side or profile another feature that can comprise, do not have in the commissure simultaneously to transship.Do not have the structure of knuckle-tooth or profile can be harder, and can not be out of shape when vehicle bridge is out of shape, this can make the weld seam overload.
Another feature is the weldment of axle tower.Weldment is lighter, and cost is lower, and preferably integral body is the ordinary steel foundry goods.In addition, weldment does not need the required following process of foundry goods.Yet, axle tower is made rather than said method does not exceed scope of the present invention yet here by casting.Axle tower of the present invention also can serve as the torsion bar attaching parts.
Summary of the invention
One aspect of the present invention provides a kind of axle tower, is used for vehicle suspension component is connected to the vehicle axle with line of centers.This axle tower comprises the compression side plate that is parallel to the tension side plates layout usually, and each compression and tension side plates all have top and the bottom.Each top and the bottom of compression and tension side plates all have the proximal edge than the more close line of centers of distal edge location.First and second annexes extend from compression and tension side plates bottom distal edge respectively, and third and fourth annex extends from the proximal edge of compression and tension side plates bottom respectively.Close and the distal edge of compression and tension side plates bottom has arch section.Inner panel connects and locatees perpendicular to compression and tension side plates.Inner panel has top and the bottom, and the top of inner panel has the groove that is used for axle tower is connected to vehicle suspension component.
In another aspect of this invention, provide a kind of installation component, be used for sprung parts is installed to asymmetric vehicle bridge, this vehicle bridge comprises the differential gear box with line of centers.This installation component comprises first and second axle towers, and it is installed on the described asymmetric vehicle bridge at the opposite side of described line of centers respectively.Each all comprises layout compression parallel to each other and tension side plates first and second axle towers, and each compresses and tension side plates all has top and the bottom.Each top and the bottom all comprises towards the proximal edge of line of centers and the distal edge of line of centers dorsad.First and second annexes extend from the distal edge of compression and tension side plates bottom respectively, and third and fourth annex extends from the proximal edge of compression and tension side plates bottom respectively.Inner panel connects this compression and tension side plates and locatees perpendicular to compression and tension side plates.Each inner panel all has and is used for first and second axle towers are connected to groove on the vehicle suspension component, and each groove all with axle center line same distance at interval.
In another aspect of this invention, provide a kind of suspension system, the vehicle chassis that is used for comprising first and second chassis side raiies of lateral separation longitudinal extension is supported on the horizontal expansion vehicle bridge that comprises line of centers.This suspension system is included in horizontal expansion between first and second chassis side raiies and is connected to crossbeam on first and second chassis side raiies; And the multi-functional sprung parts that end links to each other with crossbeam, the other end links to each other with first and second axle towers.The first and second axle tower lateral separations and be fixed on the vehicle bridge at the opposite side of described line of centers.Each all comprises longitudinal interval and compression and tension side plates parallel to each other first and second axle towers.Each compression and tension side plates all have top and the bottom, and each top and the bottom all has towards the proximal edge of line of centers and the distal edge of line of centers dorsad.First and second annexes extend from the distal edge of compression and tension side plates bottom respectively, and third and fourth annex extends from the proximal edge of compression and tension side plates bottom respectively.Inner panel connects this compression and tension side plates and locatees perpendicular to compression and tension side plates.Each inner panel all has and is used for first and second axle towers are connected to groove on the multi-functional sprung parts.The groove of first and second axle towers and axle center line be same distance at interval.
Description of drawings
Fig. 1 is the transparent view of suspension system of the present invention, and wherein vehicle frame is installed on the vehicle bridge of front and back.
Fig. 2 A is the front elevation of the asymmetric vehicle bridge of forearm of front and back shown in Figure 1 vehicle bridge, and it is equipped with two axle towers of the present invention.
Fig. 2 B is the front elevation of the asymmetric vehicle bridge of postbrachium of front and back shown in Figure 1 vehicle bridge, and it is equipped with two axle towers of the present invention.
Fig. 3 is the lateral plan of forearm vehicle bridge shown in Fig. 2 A.
Fig. 4 A is the transparent view of axle tower one embodiment of the present invention.
Fig. 4 B is the transparent view of another embodiment of axle tower of the present invention.
Fig. 5 A is the front elevation of axle tower shown in Fig. 4 A.
Fig. 5 B is the front elevation of axle tower shown in Fig. 4 B.
Fig. 6 is the section drawing along Fig. 5 A center line 6-6.
Fig. 7 is the section drawing along Fig. 5 B center line 7-7.
Fig. 8 A is the front elevation that axle tower bears the side plate of stretching shown in Fig. 5 A.
Fig. 8 B is that axle tower shown in Fig. 5 A bears pressure and has the front elevation of the side plate of straight annex.
Fig. 9 A is the front elevation that axle tower bears the side plate of stretching shown in Fig. 5 B.
Fig. 9 B is that axle tower shown in Fig. 5 B bears pressure and has the front elevation of the side plate of straight annex.
Figure 10 A is the lateral plan of the inner panel of axle tower shown in Fig. 5 A.
Figure 10 B is that inner panel shown in Figure 10 A rotates 90 ° front elevation.
Figure 11 is the front elevation of axle tower inner panel shown in Fig. 5 B.
The specific embodiment
Before the embodiment of explanation axle tower of the present invention, once suspension system, vehicle bridge and vehicle frame are described.Axle tower of the present invention can be used for other suspension systems, vehicle axle and vehicle frame, can not influence general idea of the present invention.
Front and back vehicle bridge, vehicle suspension system and vehicle frame are represented with mark 10 in Fig. 1 usually.Each vehicle bridge all comprises axle tower of the present invention.Vehicle bridge and suspension system 12 are forearm vehicle bridge types, and vehicle bridge and suspension system 14 are postbrachium types.Each shown vehicle bridge and suspension system 12,14 all are installed on the vehicle frame 16 of the chassis side rail 18,20 that comprises longitudinal extension.Chassis side rail 18,20 is by a pair of longitudinal interval, horizontal expansion and parallel crossbeam 21,23 captive joints.Crossbeam 21,23 can be connected on each chassis side rail 18,20 by any appropriate device, and has mounting bracket usually.
Forearm suspension system 22 and postbrachium suspension system 24 are supported on vehicle frame 16 on the vehicle bridge 26,28 respectively.The major part of brief description postbrachium suspension system 24, it is equally applicable to forearm suspension system 22.The top of air bellow 30 is installed on the chassis side rail 18,20, and its bottom is connected on the liner 32 of axle seat 34.Axle seat 34 is connected on each end of vehicle bridge 26,28.At an end of each axle seat 34 relative with liner 32, torsion bar 36 utilizes pin being connected rotationally with axle bush.The other end of torsion bar 36 also utilizes pin and axle bush to be rotatably connected on the V-arrangement hanger 38, and this hanger is installed on the chassis side rail 18,20.
One end of shock absorber 40 is connected on the chassis side rail 18 by support, and the other end is rotatably connected on torsion bar 36.One end of torque box 42 is connected on the chassis side rail 18,20 by the part that is rotatably connected at the horizontal expansion bar (not shown) two ends on the crossbeam 23.At the other end of torque box 42, an end of horizontal expansion bar 44 is connected on the axle tower 46, and the other end of bar 44 is connected on the axle tower 48.Bar 44 is clipped between the clamp end 50, and passes through bolt.Bar can be connected on the axle tower by other devices.
Vehicle bridge 26,28th shown in Fig. 2 A and the 2B, approximately uniform asymmetric vehicle bridge, and be preceding arm configuration or rear arm structure vehicle bridge Rotate 180 ° according to them.Vehicle bridge is that asymmetric reason is because the line of centers A of the differential gear box part 52 skew vehicle bridge 26,28 of each vehicle bridge 26,28.Since the line of centers of differential gear box skew vehicle bridge and since registration device and/or load reaction device usually with respect to vehicle bridge to the heart, so axle tower 46,48 is fixed on the axle shell 54 the asymmetric position along differential gear box 52.In other words, be positioned at differential gear box 53 lower positions away from differential gear box line of centers D and the axle tower 46 that contacts less impression, and axle tower 48 that contact more impression nearer apart from differential gear box line of centers D is positioned at differential gear box 52 higher positions.Because along the asymmetric localization of differential gear box 52, the axle tower 46,48 shown in Fig. 4 A and the 4B can have different project organization (comprising the impression or the zone that contact housing) and height, to keep torque box attachment point horizontal alignment.Yet, do not need to make axle tower to have different structures, especially when they are fixed on the axle shell under the situation that does not contact differential gear box or they are when symmetric position contact differential gear box.In fact, for symmetrical axles, can use the axle tower of two mirror images of each other symmetries; Be specially and use the looking-glass symmetry of axle tower 46 and axle tower 46 that torque box is connected on the symmetrical axles.
Fig. 3 represents to act on some the power/loads on vehicle bridge 26 and the axle tower 46.Arrow A L represents the load that the air bellow (not shown) applies, and SL represents the load that axle 56 applies, and TR represents the load that the torsion bar (not shown) applies, and TB represents the load that the torque box (not shown) applies.As shown in Figure 3, the torque box (not shown) is in extended state and applies load along arrow TB direction.Therefore, this load makes axle tower 46 side plates 58 pressurizeds near torque box, makes axle tower side plate 60 tensions away from torque box.
Axle tower 46 comprises compression side plate 58 and tension side plates 60, and axle tower 48 comprises compression side plate 62 and tension side plates 64, and as Fig. 4 A, 4B is shown in 5A and the 5B.Each side plate 58,60,62,64 all has two annexes 66,68,70,72,74,76,78,80 and top and the bottom 82,84,86,88,90,92,94,96 respectively.Selectively, replace two annexes 66 and 70 and side plate 58,60 monolithic moldings, comprise that the single annex of annex 66 and 70 can be welded on the side plate 58,60.This alternative structure also can be used for annex 74,78 and 76,80 and side plate 62,46 on.
Each all has two openings 89,91,93,95 respectively side plate 58,60. Opening 89,91 respectively with 93,95 pairs of hearts of opening, and be used for the bar 44 of torque box 42 is connected to axle tower 46. Side plate 62,64 also has pair of openings 97,99,101,103 respectively, and arranges in the same manner for the same purpose.
Side plate 58,60,62,64 can link to each other by inner panel 98,100 respectively.Inner panel 98,100 also has top and the bottom 102,104,106,108 respectively. Side plate 58,60,62,64 and inner panel 98,100 can constitute by hard and high strength material, for example steel, and weld together comprises being welded to annex 66 on the annex 70 and annex 74 is welded on 78.Selectively, whole axle tower structure also can be by cast form.
Bottom 84,88,92,96 have respectively line of centers A dorsad or towards the edge 110,112,114,116 of nearest axle.As described above, side plate 58,62 bears torque box or other loads counteraction/axle location applied pressure, and side plate 60,64 bears stretching.For suitable absorption with disperse this pressure, edge 110 and 114 can have profile or knuckle-tooth.Edge 112,116 also can have profile or have curvature.Wish that also edge 110,114 has respectively profile or the knuckle-tooth bigger than edge 112,116.In other words, edge 110,114 is more close with the interval at edge 142,150 than edge 112,116 respectively with the interval at edge 138,146, and as Fig. 8 A, 8B is shown in 9A and the 9B.
110,114 annexes 66 that extend and 76 are can be respectively crooked and have a radial angle towards side plate 60,64 from the edge respectively.When side plate 58,62 bore pressure, these radial angle reduced or spread load on vehicle bridge and the differential gear box, otherwise these loads are concentrated on the wedge angle.In addition, radial angle reduces axle tower is connected to the stress concentration of the commissure on the axle shell.
As in Fig. 6 and 7, clearlying show that annex 66,76 crooked about 90 ° of angles.In other words, the second portion 126,128 and third part 122 of the bending of first 118,120 by connecting first 118,120 and third part 122,124 respectively, 124 one-tenth about 90 °. Annex 66,76 long enoughs are to intersect and welding with annex 70,80.In addition, third part 122,124 intersects about 90 ° of angles with annex 70,80, and first 118,120 is parallel to annex 70,80 and extends.In fact, the annex shown in Fig. 8 B and the 9B 66,74 and 76 bends in advance or is crooked.
Because axle tower 48 is positioned at the differential gear box higher position, and bears higher stress usually in annex 74,78 zones, so annex 74 also can be towards annex 78 bendings and long enough to intersect and welding with annex 78.The also crooked about 90 ° of angles of annex 74, like this first 130 by connect first and the second portion 134 of the bending of third part 130,132 and third part 132 at an angle of 90.Third part 132 intersects about 90 ° of angles with annex 78, and first 130 is parallel to annex 78 extensions.In addition, annex 68 and 72 can extend parallel to each other shown in Fig. 4 A, perhaps is connected to each other in described other modes to annex.
Top and the bottom 82,84,86,88 also have the edge 136,138,140,142 towards line of centers A, shown in Fig. 8 A and 8B.Similarly, top and the bottom 90,92,94,96 have the edge 144,146,148,150 towards line of centers A.Edge 136,140,144,148 are approximately linear, and edge 138,142,146,150 has curvature.Approximate identical with edge 142 of the curvature at edge 138 or radius of curvature, and the curvature at edge 146 or radius of curvature are similar to identical with edge 150.
The inner panel 98 of the axle tower 46 shown in Figure 10 A and the 10B has top and the bottom 102,104 respectively.As shown in figure 11, the inner panel 100 of axle tower 48 also has top and the bottom 106,108.Top and the bottom 102,104 can tilt relative to each other, and have about 160 ° to 170 ° angle.In the embodiment shown in Figure 10 A and the 10B, about 165 ° of angles are intersected in top and the bottom.This helps to strengthen the zone of side plate 58,62 from inner panel 98 bottoms 104 to annex 68,72 ends, shown in Fig. 5 A.Top and the bottom 106,108 can be shown in Fig. 5 B linear arrangement, particularly in the zone of side plate 62,64 from inner panel 100 bottoms 174 to annex 74,78 ends.
For torque box 42 is connected on the axle tower 46,48, inner panel 98,100 can comprise groove 160,162 (referring to accompanying drawing 10 and 11), to hold the bar 44 shown in Fig. 1 and 3.Be appreciated that other modes known in the art that load counteraction mechanism/axle location can not exceed the scope of the invention are connected on the axle tower.
The fork configuration on top 102,106 forms V-shaped groove 160,162, and this groove has opens end 164,166 and closed end 168,170.The closed end 168,170 of V-shaped groove 160,162 can be setovered.Form the zone 172,174 that increases material like this.Inner panel 98,100 is connected respectively to side plate 58,60,62,64, and the material of Zeng Jiaing is near side plate 60,64, to provide additional strength to the inner panel sidepiece that bears pressure shown in Figure 3 like this.In addition, groove 160,162 can have same size and shape, like this when torque box 42 when being connected on the axle tower 46,48, and the transverse width maintenance of torque box and the parallel relation of ground or all the other vehicle bridge.
The top 102 of inner panel 98 is connected on the top 82,86 of proximal edge 136,140, and inner panel 98 extends on the matrix 172 of axle tower 46.Similarly, the top 106 of inner panel 100 is connected to the top 90,94 of proximal edge 144,148, and inner panel 100 extends on the matrix 174, and as Fig. 4 A, 4B is shown in 5A and the 5B.Because axle tower 46 is positioned at the bottom of differential gear box 52, axle tower 48 is positioned at the top of differential gear box 52, and inner panel 98 is longer or high than inner panel 100.In addition, because the tilt relationship of top 102 and bottom 104, so inner panel 98 will be grown.In order to make torque box and vehicle bridge (between chassis side rail) to the heart, the top of inner panel, particularly groove should be equidistant with the line of centers of vehicle bridge.
Axle tower 46,48 can be welded on the corresponding axle shell of vehicle bridge 26,28.Weld seam forms along the matrix of each side plate, annex and inner panel.Because axle tower 46,48 can be welded to respectively on the axle shell, annex 66,76 can be welded to respectively on the annex 70,80, so axle shell and axle tower can form the closed volume of collecting water.Therefore, shown in Fig. 4 A and 4B, recess 175,177 can be included in respectively on the annex 66,76, to help to discharge unnecessary water.In addition, shown in Figure 10 B and 11, inner panel 104,108 can comprise respectively that hole 179,181 is to help to discharge unnecessary water.
Though with reference to previous embodiment the present invention has been described, other improvement and distortion all do not exceed design of the present invention and scope.Be appreciated that among the illustrated here without limits embodiment of the present invention.In fact, scope of the present invention is limited by claims of the gamut of each the element equivalent that comprises each claim.

Claims (20)

1. an axle tower is used for vehicle suspension component is connected to the vehicle axle with line of centers, and this axle tower comprises:
Be parallel to the compression side plate that tension side plates is arranged, each compression and tension side plates all have the upper and lower, and each upper and lower of compression and tension side plates all has the proximal edge than the more close line of centers of distal edge location;
First and second annexes extend from compression and tension side plates bottom distal edge respectively;
Third and fourth annex extends from the proximal edge of compression and tension side plates bottom respectively;
Near and the distal edge of compression and tension side plates bottom has arch section; And
Inner panel connects compression and tension side plates and locatees perpendicular to compression and tension side plates, and inner panel has the upper and lower, and the top of inner panel has the groove that is used for axle tower is connected to vehicle suspension component.
2. according to the axle tower of claim 1, it is characterized in that: first annex comprises from distal edge along vehicle bridge the first of extending, extend from first along vehicle bridge and towards the second portion of tension side plates bending and the third part of extending from second portion along vehicle bridge, third part is connected near on second annex of one end and perpendicular to the first and second annex.
3. according to the axle tower of claim 2, it is characterized in that: the antermarginal arch section of compression and tension side plates has equal curvature, the arch section of compression side plate distal edge and proximal edge interval first distance of compressing side plate, the arch section of tension side plates distal edge and the proximal edge of tension side plates be second distance at interval, and this first distance is less than second distance.
4. according to the axle tower of claim 3, it is characterized in that: the 3rd annex comprises and extending from the first that proximal edge is extended, from the first of the 3rd annex along vehicle bridge and towards the second portion of tension side plates bending and the third part of extending along vehicle bridge from the second portion of the 3rd annex, and third part is connected near on the 4th annex of one end and perpendicular to the first and the 4th annex of the 3rd annex.
5. according to the axle tower of claim 3, it is characterized in that: the top of inner panel comprises the yoke end that limits groove, and this groove has opens end and closed end, compares the more close tension side plates of closed end with the compression side plate.
6. according to the axle tower of claim 5, it is characterized in that: the top of inner panel is connected on compression and the tension side plates, near the proximal edge place on stretching and compression side plate top.
7. according to the axle tower of claim 6, it is characterized in that: the bottom of inner panel is with respect to upper angled.
8. an installation component is used for sprung parts is installed to asymmetric vehicle bridge, and this vehicle bridge comprises the differential gear box with line of centers, and this installation component comprises:
A) first and second axle towers, it is installed on the described asymmetric vehicle bridge at the opposite side of described line of centers respectively, and each all comprises first and second axle towers:
I) compression of layout parallel to each other and tension side plates, and each compression and tension side plates all have the upper and lower, and each upper and lower all comprises towards the proximal edge of described line of centers and the distal edge of described line of centers dorsad;
Ii) respectively from first and second annexes of compression and the extension of the distal edge of tension side plates bottom;
Iii) respectively from third and fourth annex of compression and the extension of the proximal edge of tension side plates bottom; And
Iv) an inner panel connects this compression and tension side plates, and perpendicular to compression and tension side plates location, and each inner panel all has and is used for first and second axle towers are connected to groove on the vehicle suspension component, and each groove all with axle center line interval same distance.
9. installation component according to Claim 8 is characterized in that:
A) each proximal edge of the compression of second axle tower and tension side plates bottom all has arch section, and the radius of curvature of the arch section of the compression side plate of second axle tower equals the radius of curvature of arch section of the tension side plates of second axle tower;
B) each distal edge of compression and tension side plates bottom all has arch section;
C) each arch section of the compression side plate of first and second axle towers all respectively with the proximal edge of the compression side plate of first and second axle towers one first distance at interval;
D) each arch section of the tension side plates distal edge of first and second axle towers all respectively with the proximal edge of the tension side plates of first and second axle towers second distance at interval; And
E) this first distance is less than second distance.
10. according to the installation component of claim 9, it is characterized in that: each first annex of first and second axle towers all comprises from the first that the distal edge of corresponding compression side plate bottom is extended, from the extension of corresponding first and towards the second portion of the corresponding second annex bending and the third part of extending from corresponding second portion, third part is connected near on corresponding second annex of one end, and perpendicular to corresponding first and corresponding second annex.
11. installation component according to claim 10, it is characterized in that: the 3rd annex of second axle tower comprises the first of extending from the proximal edge of the bottom of second axle tower compression side plate, extend and towards the second portion of the tension side plates bending of second axle tower from the first of the 3rd annex of second axle tower, and the third part of extending from the second portion of the 3rd annex of second axle tower, the third part of the 3rd annex is connected on the 4th annex near second axle tower of one end, and perpendicular to the first of the 3rd annex of second axle tower and the 4th annex of second axle tower, wherein third and fourth annex of first axle tower extends parallel to each other.
12. installation component according to claim 11, it is characterized in that: each inner panel of first and second axle towers all has the upper and lower, each top all comprises the yoke end that limits groove, each groove all has opens end and closed end, compare all more close corresponding tension side plates of each closed end with corresponding compression side plate.
13. installation component according to claim 12, it is characterized in that: the top of each inner panel all is connected on compression and the tension side plates, near the proximal edge place on stretching and compression side plate top, the wherein groove of first and second axle towers and axle center line interval equidistance.
14. the installation component according to claim 13 is characterized in that: the inner panel lower of first axle tower is with respect to the inner panel upper angled of first axle tower.
15. installation component according to claim 14, it is characterized in that: first and second annexes of first axle tower extend one the 3rd distance along vehicle bridge, first and second annexes of second axle tower extend one the 4th distance along vehicle bridge, the 3rd distance is less than the 4th distance, wherein third and fourth annex of first axle tower extends one the 5th distance along vehicle bridge, third and fourth annex of second axle tower extends one the 6th distance along vehicle bridge, and the 5th distance is less than the 6th distance.
16. a suspension system, the vehicle chassis that is used for comprising first and second chassis side raiies of lateral separation longitudinal extension is supported on the horizontal expansion vehicle bridge that comprises line of centers, and this suspension system comprises:
A) in horizontal expansion between first and second chassis side raiies and be connected to crossbeam on first and second chassis side raiies;
B) the multi-functional sprung parts that an end links to each other with crossbeam, the other end links to each other with first and second axle towers; And
C) the first and second axle tower lateral separations and be fixed on the vehicle bridge at the opposite side of described line of centers, each all comprises first and second axle towers:
I) longitudinal interval and compression and tension side plates parallel to each other, each compression and tension side plates all have the upper and lower, and each upper and lower all has towards the proximal edge of line of centers and the distal edge of line of centers dorsad;
Ii) first and second annexes extend from the distal edge of compression and tension side plates bottom respectively;
Iii) third and fourth annex extends from the proximal edge of compression and tension side plates bottom respectively; And
The inner panel that iv) connects this compression and tension side plates and locate perpendicular to compression and tension side plates, each inner panel all has and is used for first and second axle towers are connected to groove on the multi-functional sprung parts, and the groove of first and second axle towers and centreline space are every same distance.
17. the suspension system according to claim 16 is characterized in that:
A) each distal edge of compression and tension side plates bottom all has arch section;
B) each arch section of the compression side plate of first and second axle towers all respectively with the proximal edge of the compression side plate of first and second axle towers one first distance at interval;
C) each arch section of the tension side plates distal edge of first and second axle towers all respectively with the proximal edge of the tension side plates of first and second axle towers second distance at interval; And
D) this first distance is less than second distance.
18. suspension system according to claim 17, it is characterized in that: each first annex of first and second axle towers all has first, second and third part, each first all extends from corresponding distal edge, each second portion is all from the extension of corresponding first and towards corresponding tension side plates bending, each third part is all extended and is connected near on corresponding second annex of one end from corresponding second portion, and each third part is all perpendicular to corresponding first and corresponding second annex location.
19. suspension system according to claim 18, it is characterized in that: the 3rd annex of second axle tower comprises the first of extending from the proximal edge of the bottom of second axle tower compression side plate, extend and towards the second portion of the tension side plates bending of second axle tower from the first of the 3rd annex of second axle tower, and the third part of extending from the second portion of the 3rd annex of second axle tower, the third part of the 3rd annex of second axle tower is connected on the 4th annex near second axle tower of one end, and perpendicular to the first of the 3rd annex of second axle tower and the 4th annex location of second axle tower.
20. the suspension system according to claim 19 is characterized in that:
A) each inner panel all has the upper and lower, and each top all comprises the yoke end that limits groove, and each groove all has opens end and closed end, compares all more close corresponding tension side plates of each closed end with corresponding compression side plate; And
B) top of each inner panel of first and second axle towers all is connected in the compression and tension side plates of first and second axle towers, near the proximal edge place on compression and tension side plates top.
CN2006800137239A 2005-03-16 2006-03-16 Axle tower Expired - Fee Related CN101563245B (en)

Applications Claiming Priority (5)

Application Number Priority Date Filing Date Title
US66223305P 2005-03-16 2005-03-16
US60/662,233 2005-03-16
US11/375,247 2006-03-15
US11/375,247 US8292705B2 (en) 2005-03-16 2006-03-15 Electronic apparatus, fan unit, and subrack
PCT/US2006/009655 WO2006102041A2 (en) 2005-03-16 2006-03-16 Axle tower

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CN106335445A (en) * 2016-09-30 2017-01-18 宁波信泰机械有限公司 Air outlet of fender of car
CN107175992B (en) * 2017-07-07 2023-11-10 徐州徐工矿业机械有限公司 Axle housing of mining truck axle
CN107696818B (en) * 2017-11-08 2023-11-21 吉林大学 Hydro-pneumatic suspension system capable of realizing quasi-zero rigidity of balance position
JP2023047656A (en) * 2021-09-27 2023-04-06 いすゞ自動車株式会社 vehicle

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CN101563245A (en) 2009-10-21
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JP5175174B2 (en) 2013-04-03

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