CN207194300U - Four limbs center pillar bilayer shoulder beam supporting construction - Google Patents

Four limbs center pillar bilayer shoulder beam supporting construction Download PDF

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Publication number
CN207194300U
CN207194300U CN201721225162.0U CN201721225162U CN207194300U CN 207194300 U CN207194300 U CN 207194300U CN 201721225162 U CN201721225162 U CN 201721225162U CN 207194300 U CN207194300 U CN 207194300U
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shoulder beam
lower floor
upper strata
span
mid
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兰涛
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CHINA SHIPBUILDING INDUSTRY Corp ARCHITECTURE DESIGN RESEARCH Institute Co Ltd
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CHINA SHIPBUILDING INDUSTRY Corp ARCHITECTURE DESIGN RESEARCH Institute Co Ltd
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Abstract

The utility model provides a kind of four limbs center pillar bilayer shoulder beam supporting construction, including:Mid-span four limbs lattice column (9), the top surface of mid-span four limbs lattice column are horizontally disposed with lower floor's shoulder beam, the centrally disposed roof leg (7) of lower floor's shoulder beam (2);Limb post (8) in each setting of the Angle Position of right side two of lower floor's shoulder beam;The top surface of interior limb post (8) is horizontally disposed with upper strata shoulder beam, also, the left end of upper strata shoulder beam (1) is fixedly connected with the roof leg (7);The right-hand member of the upper strata shoulder beam (1) is fixedly connected with the interior limb post (8).With advantages below:(1) the utility model can meet bigger lifting capacity, and the biggest lifting capacity of every crane can reach 800 tons;(2) the utility model transmission load is more direct, the load that play hanging object can be transferred directly into mid-span four limbs lattice column;(3) the utility model can reduce engineering-built cost, improve the operating efficiency in high-end equipment manufacturing workshop, and reduce the potential safety hazard of the course of work.

Description

Four limbs center pillar bilayer shoulder beam supporting construction
Technical field
The utility model belongs to high-end equipment manufacturing technical field, and in particular to a kind of four limbs center pillar bilayer shoulder beam support knot Structure.
Background technology
High-end equipment manufacture is mainstay of the national economy industry, is the leading force of industrialization and modernization, is to weigh The important symbol of one country synthesized economic strength and international competitiveness.Therefore, China proposed on the 5th in September in 2015 《Made in China 2025》Development outline, clearly propose Development of Marine engineer equipment and high performance ship in outline, including: Greatly develop deep-sea detecting, resources development and utilization, operation on the sea Support Equipment and its critical system and special equipment;Promote deep-sea Space station, the exploitation of very large floating structure and engineering, marine engineering equipment compbined test, detection and identification capacity are formed, It is horizontal to improve ocean exploitation.
Realize that above-mentioned manufacturing technology and high-end marine settings be unable to do without equipment manufacturing workshop, especially for large-scale high-end The crane strength support that the manufacture of equipment is required to double-deck super-tonnage can be realized.
Double-deck crane in existing workshop realizes that such a double-deck crane supports using individual layer shoulder beam+bracket of encorbelmenting Structure, essence still fall within the category of individual layer shoulder beam, have the problem of support strength is limited, can not meet that the large-tonnage of crane rises The demand of weight.
Utility model content
The defects of existing for prior art, the utility model provide a kind of four limbs center pillar bilayer shoulder beam supporting construction, can Effectively solve the above problems.
The technical solution adopted in the utility model is as follows:
The utility model provides a kind of four limbs center pillar bilayer shoulder beam supporting construction, including:Mid-span four limbs lattice column (9), institute State the structure that mid-span four limbs lattice column (9) is the rectangular cross-section surrounded by 4 angle steel;
The top surface of the mid-span four limbs lattice column (9) is horizontally disposed with lower floor's shoulder beam (2), the section of lower floor's shoulder beam (2) For rectangular band fillet structure, its arrangement is identical with the arrangement of the mid-span four limbs lattice column (9), also, it is described under The area of layer shoulder beam (2) is more than the area of the mid-span four limbs lattice column (9), lower floor's shoulder beam (2) is completely covered described The top surface of mid-span four limbs lattice column (9);The centrally disposed roof leg (7) of lower floor's shoulder beam (2), the bottom of the roof leg (7) Face is fixedly connected with the center of lower floor's shoulder beam (2);The Angle Position of right side two of lower floor's shoulder beam (2), respectively sets one Individual interior limb post (8);The height of the roof leg (7) is higher than the height of the interior limb post (8);The top surface water of the interior limb post (8) It is flat that upper strata shoulder beam (1) is set, also, the left end of the upper strata shoulder beam (1) is fixedly connected with the roof leg (7);The upper strata The right-hand member of shoulder beam (1) is fixedly connected with the interior limb post (8);The horizontal length of lower floor's shoulder beam (2) is longer than the upper strata shoulder The horizontal length of beam (1);The right side of lower floor's shoulder beam (2) and the upper strata shoulder beam (1) is located on same vertical line;Under described The left side of layer shoulder beam (2) is located at the outside in the left side of the upper strata shoulder beam (1);
The upper strata crane girder (5) of upper strata crane (3) is positioned over the right part top surface of the upper strata shoulder beam (1), lower floor's crane (4) Lower floor's crane girder (6) be positioned over the left part top surface of lower floor's shoulder beam (2);It is consequently formed lower floor's crane (4) and described The structure that upper strata crane (3) left and right is oppositely arranged;The roof leg (7) directly bears roof system load, and roof system load is transmitted To lower floor's shoulder beam (2), mid-span four limbs lattice column (9) is passed to after the stress check calculation of lower floor's shoulder beam (2);Hang on upper strata After the crane load of car (3) passes sequentially through the upper strata shoulder beam (1), the interior limb post (8) and lower floor's shoulder beam (2), finally It is delivered to the mid-span four limbs lattice column (9);After the crane load of lower floor's crane (4) is delivered to lower floor's shoulder beam (2), The mid-span four limbs lattice column (9) is delivered to after the stress check calculation of lower floor's shoulder beam (2).
Preferably, the upper strata shoulder beam (1) is 8 side shape structures, including:It is small in (8.1) and it is big while (8.2), small side (8.1) It is symmetrical horizontally disposed with big side (8.2);It is small in (8.1) and it is big while (8.2) both sides symmetrically connect left side and right edge, Formed from it is small while (8.1) to it is big while (8.2) structure for extending out, wherein, by from it is small while (8.1) to it is big while (8.2) direction, left side Include successively with right edge:1st horizontal sides (8.3), extend out hypotenuse (8.4) and the 2nd horizontal sides (8.5);Wherein, the 1st water The length of flat side (8.3) is more than the length for extending out hypotenuse (8.4);The length for extending out hypotenuse (8.4) is more than the described 2nd The length of horizontal sides (8.5).
Four limbs center pillar bilayer shoulder beam supporting construction provided by the utility model has advantages below:
(1) the utility model can meet bigger lifting capacity, and the biggest lifting capacity of every crane can reach 800 tons;
(2) the utility model transmission load is more direct, the load that play hanging object can be transferred directly into mid-span four limbs lattice Post;
(3) the utility model can reduce engineering-built cost, improve the operating efficiency in high-end equipment manufacturing workshop, and reduce The potential safety hazard of the course of work.
Brief description of the drawings
Fig. 1 is the overall structure diagram of four limbs center pillar bilayer shoulder beam supporting construction provided by the utility model;
Fig. 2 is lower floor's shoulder beam diagrammatic cross-section of four limbs center pillar bilayer shoulder beam supporting construction provided by the utility model;
Fig. 3 is the upper strata shoulder beam diagrammatic cross-section of four limbs center pillar bilayer shoulder beam supporting construction provided by the utility model.
Embodiment
In order that technical problem, technical scheme and beneficial effect that the utility model solves are more clearly understood, below With reference to drawings and Examples, the utility model is further elaborated.It should be appreciated that specific implementation described herein Example only to explain the utility model, is not used to limit the utility model.
Double-deck crane in original workshop is using individual layer shoulder beam+bracket of encorbelmenting realization, the sheet of such a double-deck crane Matter still falls within the category of individual layer shoulder beam, and its operation principle is that individual layer shoulder beam is placed in the top of mid-span four limbs lattice column, is undertaken The large tonnage crane load in upper strata, lower floor's crane is arranged at mid-span four limbs lattice column side and encorbelmented on the bracket, is undertaken The less crane load of tonnage, above-mentioned design construction are only capable of meeting the situation that lower floor's crane tonnage is less than 75 tons, and in workshop Portion causes part is indoor to use limited space, and the cantilever span of bracket due to encorbelmenting the presence of bracket four limbs lattice column side Can not be long, otherwise the degree of safety of structure can decrease.With the appearance of Large-Scale Equipment, such a structural form can not meet existing There is the use demand in high-end equipment manufacturing workshop, to promote the development of the high-end equipment manufacture in China, solve conventional double crane The defects of elevating capacity is insufficient, lifting scope is too small and degree safe to use is not high, it is double that the utility model provides a kind of four limbs center pillar Layer shoulder beam supporting construction, its advantage are that the biggest lifting capacity of every crane can reach 800 tons, and the load for playing hanging object is direct Mid-span four limbs lattice column is transferred to, and reduces the potential safety hazard of construction costs and the course of work, improves high-end equipment manufacturing The operating efficiency in workshop.
With reference to figure 1- Fig. 3, including:Mid-span four limbs lattice column 9, mid-span four limbs lattice column 9 are the section surrounded by 4 angle steel For the structure of rectangle;
The top surface of mid-span four limbs lattice column 9 is horizontally disposed with lower floor's shoulder beam 2, the rectangular cross-section band fillet knot of lower floor's shoulder beam 2 Structure, its arrangement is identical with the arrangement of mid-span four limbs lattice column 9, also, the area of lower floor's shoulder beam 2 is more than mid-span four limbs The area of lattice column 9, make lower floor's shoulder beam 2 that the top surface of mid-span four limbs lattice column 9 be completely covered;The centrally disposed room of lower floor's shoulder beam 2 Lid limb 7, the bottom surface of roof leg 7 are fixedly connected with the center of lower floor shoulder beam 2;The Angle Position of right side two of lower floor's shoulder beam 2, respectively sets Put an interior limb post 8;The height of roof leg 7 is higher than the height of interior limb post 8;The top surface of interior limb post 8 is horizontally disposed with upper strata shoulder beam 1, Also, the left end of upper strata shoulder beam 1 is fixedly connected with roof leg 7;The right-hand member of upper strata shoulder beam 1 is fixedly connected with interior limb post 8;Lower floor's shoulder The horizontal length of beam 2 is longer than the horizontal length of upper strata shoulder beam 1;The right side of lower floor's shoulder beam 2 and upper strata shoulder beam 1 is located at same vertical line On;The left side of lower floor's shoulder beam 2 is located at the outside in the left side of upper strata shoulder beam 1;
The upper strata crane girder 5 of upper strata crane 3 is positioned over the right part top surface of upper strata shoulder beam 1, lower floor's crane girder of lower floor's crane 4 6 are positioned over the left part top surface of lower floor's shoulder beam 2;It is consequently formed the structure that lower floor's crane 4 and upper strata crane 3 or so are oppositely arranged;Room Lid limb 7 directly bears roof system load, and roof system load is transferred into lower floor's shoulder beam 2, is transmitted after the stress check calculation of lower floor's shoulder beam 2 To mid-span four limbs lattice column 9;After the crane load of upper strata crane 3 passes sequentially through upper strata shoulder beam 1, interior limb post 8 and lower floor's shoulder beam 2, It is eventually transferred to mid-span four limbs lattice column 9;After the crane load of lower floor's crane 4 is delivered to lower floor's shoulder beam 2, through lower floor's shoulder beam 2 Mid-span four limbs lattice column 9 is delivered to after stress check calculation.
In addition, for the mid-span four limbs lattice column 9 of rectangular cross-section structure, the utility model is to lower floor's shoulder beam and upper strata shoulder The shape and arrangement of beam have carried out further Fine design, using following lower floor shoulders corresponding with mid-span four limbs lattice column Beam and upper strata shoulder beam, lot of experiments checking is carried out through the utility model people, the support that can effectively improve overall double-deck shoulder beam is strong Degree, so as to meet the use demand of double-deck large tonnage crane.
Lower floor's shoulder beam 2 uses the rectangle corresponding with mid-span four limbs lattice column cross sectional shape it can be seen from Fig. 2 and Fig. 3 Band angle of circumference planar structure, the area and shape of lower floor's shoulder beam 2 are slightly larger than the area and shape in the section of mid-span four limbs lattice column, When lower floor's shoulder beam being positioned over the top surface of mid-span four limbs lattice column, the top surface of mid-span four limbs lattice column can be covered comprehensively, from And effectively transmit load to mid-span four limbs lattice column.Certainly, in practical application, lower floor's shoulder beam can use with mid-span four limbs lattice column Welding manner is fixed.
Upper strata shoulder beam 1 is 8 side shape structures, including:It is small while 8.1 and it is big while 8.2, it is small while 8.1 and it is big while 8.2 symmetrical water It is flat to set;It is small while 8.1 and it is big while 8.2 both sides symmetrically connect left side and right edge, formed from it is small while 8.1 to it is big while 8.2 outside The structure of expansion, wherein, by from it is small while 8.1 to it is big while 8.2 directions, left side and right edge include successively:It is 1st horizontal sides 8.3, outer Expand the horizontal sides 8.5 of hypotenuse 8.4 and the 2nd;Wherein, the length of the 1st horizontal sides 8.3 is more than the length for extending out hypotenuse 8.4;Extend out hypotenuse 8.4 length is more than the length of the 2nd horizontal sides 8.5.Wherein, interior limb post and upper strata shoulder beam are welded and fixed a little to be located at and extend out hypotenuse The intersecting position of 8.4 and the 2nd horizontal sides 8.5.The upper strata shoulder beam 1 of form is adopted the structure, roof leg 7 uses box-type section, The setting quantity of interior limb post 8 is two, with being welded and fixed a little positioned at the both ends on the right side of upper strata shoulder beam for upper strata shoulder beam, i.e., close The position on big side 8.2, and upper strata crane girder 5 is positioned over the top surface of upper strata shoulder beam 1 and close to the position on small side 8.1, such a stress Distribution mode, stress balance can be haveed the function that, realize that upper strata shoulder beam effectively transmits the load and upper strata crane of roof leg 7 The load of beam 5, so as to improve the support strength of upper strata shoulder beam.
Furthermore, it is necessary to, it is emphasized that because the double-deck shoulder beam of the utility model design is the mid-span for rectangular cross-section Four limbs lattice column 9 and design, when the lower floor's shoulder beam and upper strata shoulder beam of shape shown in design drawing 2 and Fig. 3, roof leg 7 and interior The quantity of limb post 8 and position are also required to carry out Fine design, so as to effectively improve the support strength of overall double-deck shoulder beam, i.e.,: The design quantity of roof leg 7 is 1, and the center of lower floor's shoulder beam and the left end of upper strata shoulder beam are fixed with roof leg 7 and welded;And And to realize the effect of upper strata shoulder beam and lower floor's shoulder beam dislocation, the horizontal length of lower floor's shoulder beam is longer than the level length of upper strata shoulder beam Degree.The design quantity of interior limb post 8 is 2, and fixation is respectively welded in its bottom and the right side two corners of lower floor's shoulder beam, its top and upper strata It is welded and fixed on the right side of shoulder beam, by roof leg 7, upper strata crane load and roof load is delivered to lower floor's shoulder beam;Lower floor's shoulder The levels crane load and roof load that bear are passed to mid-span four limbs lattice column by beam again.
In practical application, interior limb post 8 and roof leg 7 it is Height Adjustable, and then adjust the height of upper strata crane 3.Upper strata The end of crane girder 5 is additionally provided with upper strata crane braking system 10;The end of lower floor's crane girder 6 is additionally provided with lower floor's crane braking System 11.
Mid-span four limbs lattice column 9 can use following structure type:Including be arranged at corner etc. height post limb, adjacent pillars Batten plate is set between limb;In the top surface of post limb, abacus is set.
In addition, to improve the support force of mid-span four limbs lattice column 9, mid-span four limbs lattice column can be connected by shaped steel with batten plate The combination cylinder connect, shaped steel are the angle steel formed with steel plate rolling, and it subtracts than the angle steel of the dual-layer welding of same thickness Room, no welding deformation and the rigidity that ensure that angle steel are overlapped less;Stake holes is dug on ground, the concrete perfusion base in post holes Plinth, the bottom of shaped steel is drilled into the inside of concrete foundation, and finally pours, and the bottom of shaped steel is firmly tied with concrete foundation Close, improve the support strength of shaped steel.Batten plate part includes moment reinforcement;Moment reinforcement is connected between adjacent shaped steel, is used Moment reinforcement is as the benefit of batten plate:Lattice column can be made when bearing horizontal force, there is enough bearing capacitys and resistance to become Shape ability, the deformation by sewing part reaches good lateral resisting energy consumption effect, while steel using amount is reduced, and building cost reduces.
As can be seen here, one kind provided by the utility model is used for high-end equipment manufacturing workshop center pillar upper support bilayer crane The primary structure member of beam, by two stiffness layers, greatly horizontal shoulder beam, inner prop limb and roof leg collectively constitute, and its operation principle is:On Lower two layers of crane girder can be placed directly in the top surface of every layer of shoulder beam, and roof leg directly bears roof system load, and roof system load is straight Connect and be transferred to four limbs lattice column;Upper strata shoulder beam mainly undertakes upper strata crane load.Lower floor's shoulder beam mainly undertakes lower floor's crane load And the roof load that roof leg transmission comes, suitable for the high-end equipment manufacturing workshop of double-deck super-tonnage crane, both sides are risen Hanging object can be lifted by crane simultaneously by double-deck shoulder beam, and played hanging object and do not limited by locus, can solve the problem that overweight object is adding Work and the lifting problem in manufacturing process;Wherein, the lifting capacity of upper strata crane can according to interior limb away from size and lower floor's shoulder beam Rigidity be adjusted.
Mid-span four limbs lattice column bilayer shoulder beam has advantages below compared with traditional individual layer crane+bracket of encorbelmenting construction:
(1) compared with traditional individual layer crane+bracket of encorbelmenting construction, the utility model can meet bigger lifting capacity, often The biggest lifting capacity of platform crane can reach 800 tons;
(2) compared with traditional individual layer crane+bracket of encorbelmenting construction, the utility model transmission load is more direct, can incite somebody to action The load for playing hanging object is transferred directly to mid-span four limbs lattice column;
(3) compared with traditional individual layer crane+bracket of encorbelmenting construction, the utility model can reduce engineering-built cost, carry The operating efficiency in high high-end equipment manufacturing workshop, and reduce the potential safety hazard of the course of work.
Therefore, mid-span four limbs lattice column bilayer shoulder beam be it is a kind of can completely replace with conventional monolayers shoulder beam+bracket of encorbelmenting Structure type, its applicable surface is more extensive, has higher promotional value in high-end equipment manufacturing workshop.
Described above is only preferred embodiment of the present utility model, it is noted that for the common skill of the art For art personnel, on the premise of the utility model principle is not departed from, some improvements and modifications can also be made, these improve and Retouching should also regard the scope of protection of the utility model.

Claims (2)

  1. A kind of 1. four limbs center pillar bilayer shoulder beam supporting construction, it is characterised in that including:Mid-span four limbs lattice column (9), the mid-span Four limbs lattice column (9) is the structure of the rectangular cross-section surrounded by 4 angle steel;
    The top surface of the mid-span four limbs lattice column (9) is horizontally disposed with lower floor's shoulder beam (2), and the section of lower floor's shoulder beam (2) is square Shape band fillet structure, its arrangement is identical with the arrangement of the mid-span four limbs lattice column (9), also, lower floor's shoulder The area of beam (2) is more than the area of the mid-span four limbs lattice column (9), makes lower floor's shoulder beam (2) that the mid-span be completely covered The top surface of four limbs lattice column (9);The centrally disposed roof leg (7) of lower floor's shoulder beam (2), the bottom surface of the roof leg (7) with The center of lower floor's shoulder beam (2) is fixedly connected;The Angle Position of right side two of lower floor's shoulder beam (2), it is each to set in one Limb post (8);The height of the roof leg (7) is higher than the height of the interior limb post (8);The top surface level of the interior limb post (8) is set Upper strata shoulder beam (1) is put, also, the left end of the upper strata shoulder beam (1) is fixedly connected with the roof leg (7);The upper strata shoulder beam (1) right-hand member is fixedly connected with the interior limb post (8);The horizontal length of lower floor's shoulder beam (2) is longer than the upper strata shoulder beam (1) Horizontal length;The right side of lower floor's shoulder beam (2) and the upper strata shoulder beam (1) is located on same vertical line;Lower floor's shoulder The left side of beam (2) is located at the outside in the left side of the upper strata shoulder beam (1);
    The upper strata crane girder (5) of upper strata crane (3) is positioned over the right part top surface of the upper strata shoulder beam (1), under lower floor's crane (4) Layer crane girder (6) is positioned over the left part top surface of lower floor's shoulder beam (2);It is consequently formed lower floor's crane (4) and the upper strata The structure that crane (3) left and right is oppositely arranged;The roof leg (7) directly bears roof system load, and roof system load is transferred into institute Lower floor's shoulder beam (2) is stated, mid-span four limbs lattice column (9) is passed to after the stress check calculation of lower floor's shoulder beam (2);Upper strata crane (3) it is final to pass after crane load passes sequentially through the upper strata shoulder beam (1), the interior limb post (8) and lower floor's shoulder beam (2) It is delivered to the mid-span four limbs lattice column (9);After the crane load of lower floor's crane (4) is delivered to lower floor's shoulder beam (2), warp The mid-span four limbs lattice column (9) is delivered to after the stress check calculation of lower floor's shoulder beam (2).
  2. 2. four limbs center pillar bilayer shoulder beam supporting construction according to claim 1, it is characterised in that the upper strata shoulder beam (1) For 8 side shape structures, including:It is small in (8.1) and it is big while (8.2), it is small in (8.1) and it is big while (8.2) it is symmetrical horizontally disposed;It is small While (8.1) and it is big while (8.2) both sides symmetrically connect left side and right edge, formed from it is small while (8.1) to it is big while (8.2) extend out Structure, wherein, by from it is small while (8.1) to it is big while (8.2) direction, left side and right edge include successively:1st horizontal sides (8.3) hypotenuse (8.4) and the 2nd horizontal sides (8.5), are extended out;Wherein, the length of the 1st horizontal sides (8.3) is more than described extend out The length of hypotenuse (8.4);The length for extending out hypotenuse (8.4) is more than the length of the 2nd horizontal sides (8.5).
CN201721225162.0U 2017-09-22 2017-09-22 Four limbs center pillar bilayer shoulder beam supporting construction Active CN207194300U (en)

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CN201721225162.0U CN207194300U (en) 2017-09-22 2017-09-22 Four limbs center pillar bilayer shoulder beam supporting construction

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Application Number Priority Date Filing Date Title
CN201721225162.0U CN207194300U (en) 2017-09-22 2017-09-22 Four limbs center pillar bilayer shoulder beam supporting construction

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN108360747A (en) * 2018-04-24 2018-08-03 机械工业第六设计研究院有限公司 Steel pipe concrete lattice column for large-tonnage bilayer crane mill building

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN108360747A (en) * 2018-04-24 2018-08-03 机械工业第六设计研究院有限公司 Steel pipe concrete lattice column for large-tonnage bilayer crane mill building

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