CN105215386A - The two X-axis of numerically controlled lathe is rebored slide saddle member - Google Patents

The two X-axis of numerically controlled lathe is rebored slide saddle member Download PDF

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Publication number
CN105215386A
CN105215386A CN201510742970.3A CN201510742970A CN105215386A CN 105215386 A CN105215386 A CN 105215386A CN 201510742970 A CN201510742970 A CN 201510742970A CN 105215386 A CN105215386 A CN 105215386A
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China
Prior art keywords
saddle
reboring
groove
tool rest
cutter tower
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CN201510742970.3A
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Chinese (zh)
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CN105215386B (en
Inventor
翟佳彬
董威
赵九龙
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Ningbo Haitian Precision Machinery Co Ltd
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Ningbo Haitian Precision Machinery Co Ltd
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B23MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
    • B23QDETAILS, COMPONENTS, OR ACCESSORIES FOR MACHINE TOOLS, e.g. ARRANGEMENTS FOR COPYING OR CONTROLLING; MACHINE TOOLS IN GENERAL CHARACTERISED BY THE CONSTRUCTION OF PARTICULAR DETAILS OR COMPONENTS; COMBINATIONS OR ASSOCIATIONS OF METAL-WORKING MACHINES, NOT DIRECTED TO A PARTICULAR RESULT
    • B23Q1/00Members which are comprised in the general build-up of a form of machine, particularly relatively large fixed members
    • B23Q1/25Movable or adjustable work or tool supports

Abstract

The two X-axis of numerically controlled lathe disclosed by the invention is rebored slide saddle member, comprise cutter tower saddle, cutter tower slide carriage, indexable cutter tower, the first X-axis driving mechanism, saddle of reboring, slide carriage of reboring, rebore tool rest and the second X-axis driving mechanism, the bottom of cutter tower saddle and saddle of reboring is provided with the parallel guide groove along machine Z-axis direction, and guide groove is suitable with the guide rail being arranged on bed piece; This pair of X-axis slide saddle member of reboring adopts modularized design, it is reliably simple for structure, convenient operation, while retaining traditional numeric-control lathe tool tower function completely, significantly can improve numerically controlled lathe deep hole heavy duty boring performance, machining accuracy, working (machining) efficiency and the range of work, be applicable to the work pieces process to different size, and add the collision can effectively stopped man-hour because deep hole boring causes, not only can be applicable to the roughing of part, semifinishing, also can be applicable to the Precision Machining of part, the high-efficiency high-accuracy processing of every profession and trade axial workpiece can be widely used in.

Description

The two X-axis of numerically controlled lathe is rebored slide saddle member
Technical field
The present invention relates to a kind of numerically controlled lathe accessory, specifically the two X-axis of a kind of numerically controlled lathe is rebored slide saddle member.
Background technology
Along with the fast development of modern mechanical manufacturing industry, industry-by-industry, especially engineering machinery and Aero-Space industry propose requirements at the higher level to the boring deep hole machining of macrotype axes series parts on numerically controlled lathe (hereinafter referred to as lathe):
1, for improving machining accuracy, requiring that a deep hole boring puts in place, avoiding the secondary clamping error that workpiece reverses end for end to bring;
2, on a machine tool, complete many sequence processing such as boring deep hole, turning of workpiece as far as possible with clamped one time, while guarantee working (machining) efficiency, ensure the axiality of hole and cylindrical;
3, for raising the efficiency, the requirement of boring processing cutting-in and cutting feeding is improved day by day.
Existing numerically controlled lathe, adopt and on indexable cutter tower (hereinafter referred to as cutter tower), assemble lathe tool and boring bar to meet above requirement simultaneously, but the drawback of this kind of scheme is apparent: on the one hand, along with the degree of depth in boring hole strengthens, the length of required boring bar increases thereupon, under the basic norm meeting boring bar draw ratio, require that boring bar diameter also strengthens thereupon; On the other hand, on machine tool tower, the size of boring cutter bar mount pad is directly by the restriction of cutter tower size and thickness, and cutter tower often specification determine, cannot strengthen.This just brings the contradiction between the demand of large boring bar diameter and clamping length increasing and limited Installing machine tool ability, and constrain the increasing of boring bar length and clamping length on lathe, it is following unfavorable that this just brings to the boring deep hole machining on lathe:
1, boring bar length limited, if workpiece needs the darker blind hole of boring, then cannot process;
2, boring bar length limited, if workpiece needs boring comparatively deep via, means that workpiece can not machine by clamped one time, and can only adopt the method for tune processing, workpiece accuracy cannot ensure;
3, comprise various lathe tool, drill bit, screw tap, boring bar all cutters be installed on cutter tower, interfere with each other, restriction lathe workpiece adaptability; Especially long boring bar, it is longer that it takies Z axis stroke, operates careless slightly, very easily and main spindle box, protect between, the interference such as workpiece, because long boring bar is often very expensive, once collide, will bring about great losses;
4, due to boring bar diameter and clamping length limited, when overhanging longer, often vibration resistance significantly reduces, for preventing the cutter that shakes, existing way be reduce cutting-in and cut feeding, therefore working (machining) efficiency is extremely low.
The present invention designs and has invented the two X-axis of a kind of numerically controlled lathe and to rebore slide saddle member, thoroughly solves above problem.
Summary of the invention
Technical problem to be solved by this invention is, for the deficiencies in the prior art, the two X-axis of a kind of numerically controlled lathe is provided to rebore slide saddle member, it adopts modularized design, reliably simple for structure, convenient operation, while retaining traditional numeric-control lathe tool tower function completely, significantly can improve numerically controlled lathe deep hole heavy duty boring performance, machining accuracy, working (machining) efficiency and the range of work.
The present invention solves the problems of the technologies described above adopted technical scheme: the two X-axis of numerically controlled lathe is rebored slide saddle member, comprise cutter tower saddle, cutter tower slide carriage, indexable cutter tower, first X-axis driving mechanism, to rebore saddle, to rebore slide carriage, to rebore tool rest and the second X-axis driving mechanism, described cutter tower saddle is provided with the first parallel slide rail along lathe X-direction, described cutter tower slide carriage is assemblied on described cutter tower saddle and also can slides along the first described slide rail, described indexable cutter tower is arranged on described cutter tower slide carriage, the output of the first described X-axis driving mechanism is connected with described cutter tower slide carriage, described saddle of reboring is fixedly connected on the right side of described cutter tower saddle, described saddle of reboring is provided with the second parallel slide rail along lathe X-direction, described slide carriage of reboring is assemblied on described saddle of reboring and also can slides along the second described slide rail, described tool rest of reboring is arranged on described rebores on slide carriage, the output of the second described X-axis driving mechanism is connected with described slide carriage of reboring, the bottom of described cutter tower saddle and described saddle of reboring is provided with the parallel guide groove along machine Z-axis direction, described guide groove is suitable with the guide rail being arranged on bed piece, after installation, two X-axis slide saddle member of reboring is assemblied in bed piece and is connected with machine Z-axis screw mandrel.
The two X-axis of numerically controlled lathe of the present invention is rebored slide saddle member, be loaded with the first X-axis and the second X-axis two servo feed axles, its indexable cutter tower can assemble the cutter such as various lathe tool and drill bit, screw tap, short boring bar, can complete the centre bore processing of workpiece, cylindrical and facing manufacturing procedure, and tool rest of reboring is for assembling long boring bar to complete boring or the turnery processing of deep hole of workpiece.After installation, this pair of X-axis slide saddle member integral installation of reboring is assigned in bed piece and is connected with machine Z-axis screw mandrel, trade union college to be processed is after lathe, indexable cutter tower is positioned at lathe headstock side, tool rest of reboring is positioned at tailstock tool side, this pair of X-axis slide saddle member entirety of reboring can be driven by machine Z-axis screw mandrel, moves along Z axis.In workpiece process, indexable cutter tower completes centre bore processing, cylindrical and the facing manufacturing procedure of workpiece, when needing tailstock top tight workpiece, then the second X-axis driving mechanism drives slide carriage of reboring to move along in the second X-axis together with tool rest of reboring, the interference of can avoid reboring tool rest and tailstock; And when carrying out boring or the turnery processing of deep hole of workpiece with tool rest of reboring, need cutter tower slide carriage be driven to move along in the first X-axis together with indexable cutter tower by the first X-axis driving mechanism in advance, cause the interference of indexable cutter tower and chuck, main spindle box and workpiece to avoid indexable cutter tower with the feeding in Z-axis direction chuck direction.To rebore the relative fixing security can guaranteeing the first X-axis and the second X-axis feeding in machine Z-axis direction of saddle and cutter tower saddle.Therefore, the two X-axis of numerically controlled lathe of the present invention is rebored slide saddle member, adopt modularized design, it is reliably simple for structure, convenient operation, while retaining traditional numeric-control lathe tool tower function completely, significantly can improve numerically controlled lathe deep hole heavy duty boring performance, machining accuracy, working (machining) efficiency and the range of work, be applicable to the work pieces process to different size, and add the collision can effectively stopped man-hour because deep hole boring causes, not only can be applicable to the roughing of part, semifinishing, also can be applicable to the Precision Machining of part, the high-efficiency high-accuracy processing of every profession and trade axial workpiece can be widely used in.
Described saddle of reboring is fixedly connected with by saddle bindiny mechanism with described cutter tower saddle, described saddle bindiny mechanism comprises the first tenon, first tongue-and-groove, second tenon, second tongue-and-groove, some first voussoirs and some second voussoirs, the first described tenon is arranged on the right-hand member of described cutter tower saddle, the first described tongue-and-groove is opened in the left side of the first described tenon, the second described tenon is arranged on the left end of described saddle of reboring, the second described tongue-and-groove is opened in the right side of the second described tenon, the first described tenon is embedded in the second described tongue-and-groove, the first described tenon and described reboring between saddle are equipped with some first dog screws, the width of the first described tongue-and-groove is greater than the width of the second described tenon, the second described tenon to be embedded in the first described tongue-and-groove and to abut in the right-hand member of the first described tongue-and-groove, some the first described voussoirs and some the second described voussoirs coordinate also tensioner to be arranged in the first described tongue-and-groove respectively, the first voussoir described in every block abuts in the left end of the first described tongue-and-groove and is fixed on described cutter tower saddle by some second dog screws, the second voussoir described in every block is clamped by the first voussoir described in a piece and described saddle of reboring and is arranged in the first described tongue-and-groove.
The rebore saddle bindiny mechanism of saddle and cutter tower saddle of above-mentioned connection adopts joinery and its construction, and by the first voussoir, the second voussoir location and the first dog screw and the second dog screw location, tensioner fastening, cutter tower saddle can be realized be rigidly connected with the height of saddle of reboring, connect rigidity reliably between the two when ensureing heavily loaded boring, guarantee numerically controlled lathe deep hole high precision overloading boring performance, working (machining) efficiency and the range of work.As further preferably, described cutter tower saddle and described saddle integrally casting of reboring shaping, higher rigidity can be realized.
The first described X-axis driving mechanism comprises the first servomotor and the first ball-screw with the first described servomotor direct connection, the first described ball-screw is connected with described cutter tower slide carriage, the second described X-axis driving mechanism comprises the second servomotor and the second ball-screw with the second described servomotor direct connection, and the second described ball-screw is connected with described slide carriage of reboring.
Described slide carriage of reboring is installed with the first location-plate, second location-plate, divide water block and joint, described point water block and described joint are used for cutting fluid to access long boring bar to realize the central water outlet of boring cutter, described tool rest of reboring respectively by screw fastening in the first described location-plate and the second described location-plate, the bottom surface of described tool rest of reboring is located by the end face of the first described location-plate, the leading flank of described tool rest of reboring is located by the leading flank of the second described location-plate, the top of described tool rest of reboring is compressed by a pressing plate, the side of described pressing plate by screw fastening in described slide carriage of reboring, the opposite side of described pressing plate is pressed on the top of described tool rest of reboring.The design of the first location-plate, the second location-plate and pressing plate, is convenient to assembling, effectively can promote tool rest of reboring simultaneously and press down, raises up and the connection rigidity of Z-direction.
Described tool rest of reboring comprises tool rest body, described tool rest body offers boring bar installing hole, described tool rest body offers the first groove and the second groove respectively at the upper and lower sides of described boring bar installing hole, the thickness of the first described groove and the second described groove is a, described boring bar installing hole, the length of the first described groove and the second described groove all runs through the length direction setting of described tool rest body, the degree of depth of the first described groove is 1/3 ~ 3/4 of homonymy tool rest base side wall thickness, the whole thickness direction of the depth penetration homonymy tool rest body sidewall of the second described groove, the downside sidewall of described tool rest body is divided into left side wall and right side wall by the second described groove, described left side wall is connected by some first screws with described right side wall, before described tool rest of reboring is installed, boring bar installing hole is reserved with the allowance that size is b, load in the second groove thickness be a+0.020mm from boring plate, again the first screw is passed right side wall, from boring plate and left side wall three be connected and clamp from boring plate, then tool rest of reboring is arranged on rebores on slide carriage, after boring boring goes the size reserved to be the allowance of b, unclamp the first screw, take out from boring plate, the first screw is locked again after loading long boring bar, namely long boring bar is completed in the installation on tool rest of reboring.First groove and the second groove are that space has been reserved in the elastic deformation of tool rest body, the elastic clamping of tool rest body to long boring bar is achieved, the contact area of reboring between tool rest and long boring bar can be increased, significantly improve the clamping rigidity of tool rest to long boring bar of reboring, thus significantly raising numerically controlled lathe deep hole boring adds the cutter rigidity in man-hour, improves endoporus working (machining) efficiency and machining accuracy further.
Compared with prior art, the invention has the advantages that: the two X-axis of numerically controlled lathe provided by the invention is rebored slide saddle member, and adopt modularized design, it is reliably simple for structure, convenient operation; Be loaded with the first X-axis and the second X-axis two servo feed axles, its indexable cutter tower can assemble the cutter such as various lathe tool and drill bit, screw tap, short boring bar, can complete the centre bore processing of workpiece, cylindrical and facing manufacturing procedure, and tool rest of reboring is for assembling long boring bar to complete boring or the turnery processing of deep hole of workpiece; This pair of X-axis rebores slide saddle member while retaining traditional numeric-control lathe tool tower function completely, significantly can improve numerically controlled lathe deep hole heavy duty boring performance, machining accuracy, working (machining) efficiency and the range of work, be applicable to the work pieces process to different size, and add the collision can effectively stopped man-hour because deep hole boring causes, not only can be applicable to the roughing of part, semifinishing, also can be applicable to the Precision Machining of part, the high-efficiency high-accuracy processing of every profession and trade axial workpiece can be widely used in.
Accompanying drawing explanation
Fig. 1 is that two X-axis of embodiment 1 are rebored the outside drawing of slide saddle member;
Fig. 2 be two X-axis of embodiment 1 rebore slide saddle member install on lathe after design sketch;
Fig. 3 is that two X-axis of embodiment 1 are rebored the structure of slide saddle member and operation logic figure;
Fig. 4 is A-A sectional view in the Fig. 3 after amplifying;
Fig. 5 is long boring bar in embodiment 1, rebore tool rest and the rear design sketch of slide carriage of reboring assembling.
Detailed description of the invention
Below in conjunction with accompanying drawing embodiment, the present invention is described in further detail.
The two X-axis of the numerically controlled lathe of embodiment 1 is rebored slide saddle member, as shown in Fig. 1 ~ Fig. 5, comprise cutter tower saddle 1, cutter tower slide carriage 2, indexable cutter tower 3, first X-axis driving mechanism 4, to rebore saddle 5, to rebore slide carriage 6, to rebore tool rest 7 and the second X-axis driving mechanism 8, cutter tower saddle 1 is provided with the first parallel slide rail 11 along lathe X-direction, cutter tower slide carriage 2 is assemblied on cutter tower saddle 1 and also can slides along the first slide rail 11, indexable cutter tower 3 is arranged on cutter tower slide carriage 2, first X-axis driving mechanism 4 comprises the first servomotor 41 and the first ball-screw 42 with the first servomotor direct connection, first ball-screw 42 is connected with cutter tower slide carriage 2, saddle 5 of reboring is fixedly connected on the right side of cutter tower saddle 1, to rebore the second parallel slide rail 51 saddle 5 is provided with along lathe X-direction, slide carriage 6 of reboring is assemblied on saddle 5 of reboring and also can slides along the second slide rail 51, tool rest 7 of reboring is arranged on rebores on slide carriage 6, second X-axis driving mechanism 8 comprises the second servomotor 81 and the second ball-screw 82 with the second servomotor 81 direct connection, second ball-screw 82 is connected with slide carriage 6 of reboring, the bottom of cutter tower saddle 1 and saddle 5 of reboring is provided with the parallel guide groove 55 along machine Z-axis direction, guide groove 55 is suitable with the guide rail 105 being arranged on bed piece 101.
In embodiment 1, tool rest 7 of reboring comprises tool rest body, tool rest body offers boring bar installing hole 73, tool rest body offers the first groove 71 and the second groove 72 respectively at the upper and lower sides of boring bar installing hole 73, the thickness of the first groove 71 and the second groove 72 is 3.0mm, boring bar installing hole 73, the length of the first groove 71 and the second groove 72 all runs through the length direction setting of tool rest body, the degree of depth of the first groove 71 is 1/2 of homonymy tool rest base side wall thickness, the whole thickness direction of the depth penetration homonymy tool rest body sidewall of the second groove 72, the downside sidewall of tool rest body is divided into left side wall 74 and right side wall 75 by the second groove 72, left side wall 74 is connected by some first screw (not shown)s with right side wall 75, before tool rest 7 of reboring is installed, boring bar installing hole 73 is reserved with the allowance that size is 2.0mm, in the second groove 72 load thickness be 3.020mm from boring plate (not shown), again the first screw is passed right side wall 75, from boring plate and left side wall 74 three be connected and clamp from boring plate, then tool rest 7 of reboring is arranged on rebores on slide carriage 6, after boring boring goes the size reserved to be the allowance of 2.0mm, unclamp the first screw, take out from boring plate, the first screw is locked again after loading long boring bar 9, namely long boring bar 9 is completed in the installation on tool rest 8 of reboring.
In embodiment 1, saddle 5 of reboring is fixedly connected with by saddle bindiny mechanism with cutter tower saddle 1, saddle bindiny mechanism comprises the first tenon 12, first tongue-and-groove 13, second tenon 52, second tongue-and-groove 53, four piece of first voussoir 14 and four piece of second voussoir 15, first tenon 12 is arranged on the right-hand member of cutter tower saddle 1, first tongue-and-groove 13 is opened in the left side of the first tenon 12, second tenon 52 is arranged on the left end of saddle 5 of reboring, second tongue-and-groove 53 is opened in the right side of the second tenon 52, first tenon 12 is embedded in the second tongue-and-groove 53, first tenon 12 and rebore between saddle 5 and be equipped with some first dog screws 54, the width of the first tongue-and-groove 13 is greater than the width of the second tenon 52, second tenon 52 to be embedded in the first tongue-and-groove 13 and to abut in the right-hand member of the first tongue-and-groove 13, four piece of first voussoir 14 and four piece of second voussoir 15 coordinate also tensioner to be arranged in the first tongue-and-groove 13 one by one, every block first voussoir 14 abuts in the left end of the first tongue-and-groove 13 and is fixed on cutter tower saddle 1 by two the second dog screws 16, every block second voussoir 15 is clamped by one piece of first voussoir 14 and saddle 5 of reboring and is arranged in the first tongue-and-groove 13.
In embodiment 1, rebore on slide carriage 6 and be installed with the first location-plate 61, second location-plate 62, divide water block 63 and joint 64, divide water block 63 and joint 64 for cutting fluid being accessed long boring bar 9 to realize the central water outlet of boring cutter, rebore tool rest 7 respectively by screw fastening in the first location-plate 61 and the second location-plate 62, the rebore bottom surface of tool rest 7 is located by the end face of the first location-plate 61, the leading flank of tool rest 7 of reboring is located by the leading flank of the second location-plate 62, the rebore top of tool rest 7 is compressed by a pressing plate 65, the side of pressing plate 65 by screw fastening in slide carriage 6 of reboring, the opposite side of pressing plate 65 is pressed on the top of tool rest 7 of reboring.
The rebore structure of slide saddle member and operation logic figure of two X-axis of embodiment 1 is shown in Fig. 3.In Fig. 3, L is that workpiece 10 needs bore hole hole depth, design long boring bar 9 length L1 >=L, L1 determines size (L2 >=4 Φ of long boring bar 9 diameter of phi and long boring bar 9 clamping length L2 simultaneously, for reducing specification, L2 can design by the longest clamping length), in addition, for preventing long boring bar 9 front end and indexable cutter tower 3 from interfering, answer preset clearance S between the two.Because saddle bindiny mechanism size is fixed, therefore, the saddle 5 variable-length L3 that rebores is determined by L1, that is, the two X-axis of the present invention rebore slide saddle member Z-direction size can completely needed for workpiece the maximum hole depth L of boring determine, in actual applications, only need carry out the workpiece requirement of satisfied different boring depth according to the length requirement change of the L size of L3 on saddle of reboring, all the other each is all general, therefore the two X-axis of the present invention rebore the flexibility of slide saddle member and part adaptability extremely strong.
The two X-axis of the numerically controlled lathe of embodiment 2 is rebored slide saddle member, can see Fig. 1 ~ Fig. 5, comprise cutter tower saddle 1, cutter tower slide carriage 2, indexable cutter tower 3, first X-axis driving mechanism 4, to rebore saddle 5, to rebore slide carriage 6, to rebore tool rest 7 and the second X-axis driving mechanism 8, cutter tower saddle 1 is provided with the first parallel slide rail 11 along lathe X-direction, cutter tower slide carriage 2 is assemblied on cutter tower saddle 1 and also can slides along the first slide rail 11, indexable cutter tower 3 is arranged on cutter tower slide carriage 2, first X-axis driving mechanism 4 comprises the first servomotor 41 and the first ball-screw 42 with the first servomotor direct connection, first ball-screw 42 is connected with cutter tower slide carriage 2, saddle 5 of reboring is fixedly connected on the right side of cutter tower saddle 1, to rebore the second parallel slide rail 51 saddle 5 is provided with along lathe X-direction, slide carriage 6 of reboring is assemblied on saddle 5 of reboring and also can slides along the second slide rail 51, tool rest 7 of reboring is arranged on rebores on slide carriage 6, second X-axis driving mechanism 8 comprises the second servomotor 81 and the second ball-screw 82 with the second servomotor 81 direct connection, second ball-screw 82 is connected with slide carriage 6 of reboring, the bottom of cutter tower saddle 1 and saddle 5 of reboring is provided with the parallel guide groove along machine Z-axis direction, guide groove is suitable with the guide rail being arranged on bed piece.
In embodiment 2, saddle 5 of reboring is fixedly connected with by saddle bindiny mechanism with cutter tower saddle 1, saddle bindiny mechanism comprises the first tenon 12, first tongue-and-groove 13, second tenon 52, second tongue-and-groove 53, four piece of first voussoir 14 and four piece of second voussoir 15, first tenon 12 is arranged on the right-hand member of cutter tower saddle 1, first tongue-and-groove 13 is opened in the left side of the first tenon 12, second tenon 52 is arranged on the left end of saddle 5 of reboring, second tongue-and-groove 53 is opened in the right side of the second tenon 52, first tenon 12 is embedded in the second tongue-and-groove 53, first tenon 12 and rebore between saddle 5 and be equipped with some first dog screws 54, the width of the first tongue-and-groove 13 is greater than the width of the second tenon 52, second tenon 52 to be embedded in the first tongue-and-groove 13 and to abut in the right-hand member of the first tongue-and-groove 13, four piece of first voussoir 14 and four piece of second voussoir 15 coordinate also tensioner to be arranged in the first tongue-and-groove 13 one by one, every block first voussoir 14 abuts in the left end of the first tongue-and-groove 13 and is fixed on cutter tower saddle 1 by two the second dog screws 16, every block second voussoir 15 is clamped by one piece of first voussoir 14 and saddle 5 of reboring and is arranged in the first tongue-and-groove 13.
In embodiment 2, rebore on slide carriage 6 and be installed with the first location-plate 61, second location-plate 62, divide water block 63 and joint 64, divide water block 63 and joint 64 for cutting fluid being accessed long boring bar 9 to realize the central water outlet of boring cutter, rebore tool rest 7 respectively by screw fastening in the first location-plate 61 and the second location-plate 62, the rebore bottom surface of tool rest 7 is located by the end face of the first location-plate 61, the leading flank of tool rest 7 of reboring is located by the leading flank of the second location-plate 62, the rebore top of tool rest 7 is compressed by a pressing plate 65, the side of pressing plate 65 by screw fastening in slide carriage 6 of reboring, the opposite side of pressing plate 65 is pressed on the top of tool rest 7 of reboring.
The two X-axis of above-mentioned numerically controlled lathe is rebored after slide saddle member installs on lathe, and integral installation is assigned in bed piece 101 and is connected with machine Z-axis screw mandrel (not shown), can be driven, move along Z axis by machine Z-axis screw mandrel.After workpiece 10 to be processed is installed on lathe, indexable cutter tower 3 is positioned at lathe headstock 102 side, and tool rest 7 of reboring is positioned at tailstock tool 103 side, and this pair of X-axis slide saddle member entirety of reboring can be driven by machine Z-axis screw mandrel, moves along Z axis.The cutter 31 such as various lathe tool or drill bit, screw tap, short boring bar can be assembled on indexable cutter tower 3 after installation, and assemble long boring bar 9 reboring on tool rest 7.In workpiece 10 process, indexable cutter tower 3 completes centre bore processing, cylindrical and the facing manufacturing procedure of workpiece 10, when needing tailstock 103 top tight workpiece 10, then the second X-axis driving mechanism 8 drives slide carriage 6 of reboring to move along in the second X-axis together with tool rest 7 of reboring, the interference of can avoid reboring tool rest 7 and tailstock 103; And when carrying out boring or the turnery processing of deep hole of workpiece with tool rest 7 of reboring, need cutter tower slide carriage 2 be driven to move along in the first X-axis together with indexable cutter tower 3 by the first X-axis driving mechanism 4 in advance, cause the interference of indexable cutter tower 3 and chuck 104, main spindle box 102 and workpiece 10 to avoid indexable cutter tower 3 with the feeding in Z-axis direction chuck 104 direction.

Claims (6)

1. the two X-axis of numerically controlled lathe is rebored slide saddle member, it is characterized in that comprising cutter tower saddle, cutter tower slide carriage, indexable cutter tower, first X-axis driving mechanism, to rebore saddle, to rebore slide carriage, to rebore tool rest and the second X-axis driving mechanism, described cutter tower saddle is provided with the first parallel slide rail along lathe X-direction, described cutter tower slide carriage is assemblied on described cutter tower saddle and also can slides along the first described slide rail, described indexable cutter tower is arranged on described cutter tower slide carriage, the output of the first described X-axis driving mechanism is connected with described cutter tower slide carriage, described saddle of reboring is fixedly connected on the right side of described cutter tower saddle, described saddle of reboring is provided with the second parallel slide rail along lathe X-direction, described slide carriage of reboring is assemblied on described saddle of reboring and also can slides along the second described slide rail, described tool rest of reboring is arranged on described rebores on slide carriage, the output of the second described X-axis driving mechanism is connected with described slide carriage of reboring, the bottom of described cutter tower saddle and described saddle of reboring is provided with the parallel guide groove along machine Z-axis direction, described guide groove is suitable with the guide rail being arranged on bed piece, after installation, two X-axis slide saddle member of reboring is assemblied in bed piece and is connected with machine Z-axis screw mandrel.
2. the two X-axis of numerically controlled lathe according to claim 1 is rebored slide saddle member, it is characterized in that described saddle of reboring is fixedly connected with by saddle bindiny mechanism with described cutter tower saddle, described saddle bindiny mechanism comprises the first tenon, first tongue-and-groove, second tenon, second tongue-and-groove, some first voussoirs and some second voussoirs, the first described tenon is arranged on the right-hand member of described cutter tower saddle, the first described tongue-and-groove is opened in the left side of the first described tenon, the second described tenon is arranged on the left end of described saddle of reboring, the second described tongue-and-groove is opened in the right side of the second described tenon, the first described tenon is embedded in the second described tongue-and-groove, the first described tenon and described reboring between saddle are equipped with some first dog screws, the width of the first described tongue-and-groove is greater than the width of the second described tenon, the second described tenon to be embedded in the first described tongue-and-groove and to abut in the right-hand member of the first described tongue-and-groove, some the first described voussoirs and some the second described voussoirs coordinate also tensioner to be arranged in the first described tongue-and-groove respectively, the first voussoir described in every block abuts in the left end of the first described tongue-and-groove and is fixed on described cutter tower saddle by some second dog screws, the second voussoir described in every block is clamped by the first voussoir described in a piece and described saddle of reboring and is arranged in the first described tongue-and-groove.
3. the two X-axis of numerically controlled lathe according to claim 1 is rebored slide saddle member, it is characterized in that described cutter tower saddle and described saddle integrally casting of reboring shaping.
4. the two X-axis of numerically controlled lathe according to claim 1 is rebored slide saddle member, it is characterized in that the first described X-axis driving mechanism comprises the first servomotor and the first ball-screw with the first described servomotor direct connection, the first described ball-screw is connected with described cutter tower slide carriage, the second described X-axis driving mechanism comprises the second servomotor and the second ball-screw with the second described servomotor direct connection, and the second described ball-screw is connected with described slide carriage of reboring.
5. the two X-axis of numerically controlled lathe according to claim 1 is rebored slide saddle member, it is characterized in that described slide carriage of reboring is installed with the first location-plate, second location-plate, divide water block and joint, described point water block and described joint are used for cutting fluid to access long boring bar to realize the central water outlet of boring cutter, described tool rest of reboring respectively by screw fastening in the first described location-plate and the second described location-plate, the bottom surface of described tool rest of reboring is located by the end face of the first described location-plate, the leading flank of described tool rest of reboring is located by the leading flank of the second described location-plate, the top of described tool rest of reboring is compressed by a pressing plate, the side of described pressing plate by screw fastening in described slide carriage of reboring, the opposite side of described pressing plate is pressed on the top of described tool rest of reboring.
6. the two X-axis of numerically controlled lathe according to claim 1 is rebored slide saddle member, it is characterized in that described tool rest of reboring comprises tool rest body, described tool rest body offers boring bar installing hole, described tool rest body offers the first groove and the second groove respectively at the upper and lower sides of described boring bar installing hole, the thickness of the first described groove and the second described groove is a, described boring bar installing hole, the length of the first described groove and the second described groove all runs through the length direction setting of described tool rest body, the degree of depth of the first described groove is 1/3 ~ 3/4 of homonymy tool rest base side wall thickness, the whole thickness direction of the depth penetration homonymy tool rest body sidewall of the second described groove, the downside sidewall of described tool rest body is divided into left side wall and right side wall by the second described groove, described left side wall is connected by some first screws with described right side wall, before described tool rest of reboring is installed, boring bar installing hole is reserved with the allowance that size is b, load in the second groove thickness be a+0.020mm from boring plate, again the first screw is passed right side wall, from boring plate and left side wall three be connected and clamp from boring plate, then tool rest of reboring is arranged on rebores on slide carriage, after boring boring goes the size reserved to be the allowance of b, unclamp the first screw, take out from boring plate, the first screw is locked again after loading long boring bar, namely long boring bar is completed in the installation on tool rest of reboring.
CN201510742970.3A 2015-11-04 2015-11-04 Dual-X-axis re-boring saddle assembly of numerically-controlled lathe Active CN105215386B (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110842567A (en) * 2019-12-02 2020-02-28 金华愉悦机械科技有限公司 Machine tool for manufacturing internal hexagonal wrench

Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH04141302A (en) * 1990-10-01 1992-05-14 Seiko Seiki Co Ltd Nc compound automatic lathe
CN102161159A (en) * 2011-04-20 2011-08-24 杭州大天数控机床有限公司 Vertical-horizontal combined machining centre
CN103170653A (en) * 2013-03-12 2013-06-26 盛焕君 Double-lathe-head full-automatic numerically-controlled lathe
CN203124747U (en) * 2013-02-21 2013-08-14 东莞精科自动化科技有限公司 Double-tool-tower numerical control lathe
CN104096861A (en) * 2014-07-04 2014-10-15 福建成功机床有限公司 Double-tool-rest dual-channel numerically-controlled vertical lathe
CN104259512A (en) * 2014-08-26 2015-01-07 北京海普瑞森科技发展有限公司 Two end boring machine
CN205110824U (en) * 2015-11-04 2016-03-30 宁波海天精工股份有限公司 Smooth saddle spare of two X gross rail load on axle borings of numerical control lathe

Patent Citations (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPH04141302A (en) * 1990-10-01 1992-05-14 Seiko Seiki Co Ltd Nc compound automatic lathe
CN102161159A (en) * 2011-04-20 2011-08-24 杭州大天数控机床有限公司 Vertical-horizontal combined machining centre
CN203124747U (en) * 2013-02-21 2013-08-14 东莞精科自动化科技有限公司 Double-tool-tower numerical control lathe
CN103170653A (en) * 2013-03-12 2013-06-26 盛焕君 Double-lathe-head full-automatic numerically-controlled lathe
CN104096861A (en) * 2014-07-04 2014-10-15 福建成功机床有限公司 Double-tool-rest dual-channel numerically-controlled vertical lathe
CN104259512A (en) * 2014-08-26 2015-01-07 北京海普瑞森科技发展有限公司 Two end boring machine
CN205110824U (en) * 2015-11-04 2016-03-30 宁波海天精工股份有限公司 Smooth saddle spare of two X gross rail load on axle borings of numerical control lathe

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN110842567A (en) * 2019-12-02 2020-02-28 金华愉悦机械科技有限公司 Machine tool for manufacturing internal hexagonal wrench

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