阅读说明：本技术 一种车床的进刀量调节方法 (Feed amount adjusting method for lathe ) 是由 王力 王春 于 2019-11-28 设计创作，主要内容包括：本发明公开了一种车床的进刀量调节方法,用于调节车床。所述车床的进刀量调节方法,包括以下步骤：S1：对样品进行第一次加工,电子检测表的读数为K<Sub>1</Sub>,得到第一次加工产品；S2：对S1的第一次加工产品进行测量,得到车床的待运行进刀值D<Sub>1</Sub>,得出电子检测表的标准值K,即K＝K<Sub>1</Sub>+D<Sub>1</Sub>,设定车床加工过程中的允差值为Δh,控制器根据车床的待运行进刀值D<Sub>1</Sub>调整滑动机构在机架上的滑动距离；S3：车床第n次空运行,电子检测表的读数为K<Sub>n+1</Sub>,当|K<Sub>n+1</Sub>-K|≤Δh时,车床调节完毕。本发明由于电子检测表能够显示滑动机构在机架上的滑动距离,从而得出车床的待运行进刀值,同时控制器根据车床的待运行进刀值能够调整滑动机构在机架上的滑动距离,调节方便,工作效率高。(The invention discloses a method for adjusting the feed amount of a lathe, which is used for adjusting the lathe. The feed amount adjusting method of the lathe comprises the following steps: s1: the sample was processed for the first time with an electronic test meter reading of K 1 Obtaining a first processed product; s2: measuring the first processed product of S1 to obtain the value D of the to-be-transported moving tool of the lathe 1 Obtaining the standard value K of the electronic detection table, namely K equals to K 1 +D 1 Setting the tolerance value in the machining process of the lathe as delta h, and enabling the controller to move the cutter according to the value D of the to-be-moved cutter of the lathe 1 Adjusting the sliding distance of the sliding mechanism on the rack; s3: the nth idle running of the lathe is carried out, and the reading of the electronic detection meter is K n+1 When | K n+1 When the-K is less than or equal to delta h, the lathe is adjusted. The electronic detection meter can display that the sliding mechanism is arranged on the frameThe sliding distance is further obtained, the to-be-transported cutter value of the lathe is obtained, meanwhile, the controller can adjust the sliding distance of the sliding mechanism on the rack according to the to-be-transported cutter value of the lathe, the adjustment is convenient, and the working efficiency is high.)

1. A method for adjusting the feed amount of a lathe, which is used for adjusting the lathe, is characterized in that: the lathe comprises a rack, a controller arranged on the rack, a sliding mechanism arranged on the rack in a sliding manner and a detection mechanism arranged on the sliding mechanism, wherein an electronic detection meter is arranged on the detection mechanism, the controller is used for adjusting the sliding distance of the sliding mechanism on the rack, and the sliding distance of the sliding mechanism on the rack and the reading of the electronic detection meter are the feed value of the lathe;

the feed amount adjusting method of the lathe comprises the following steps:

s1: taking a sample to be processed for first processing, wherein the reading of the electronic detection meter is K₁Obtaining a first processed product;

s2: measuring the first processed product of S1 to obtain the value D of the to-be-transported moving tool of the lathe₁The standard reading value K of the electronic detection meter can be obtained, namely K is equal to K₁+D₁Setting the tolerance value in the machining process of the lathe to be delta h, and enabling the controller to move the cutter according to the value D of the to-be-moved cutter of the lathe₁Adjusting the sliding distance of the sliding mechanism on the rack;

s3: the lathe runs for the first time in an idle mode, and the reading of the electronic detection meter is K at the moment₂To obtain | K₂-K|＝D₂The value of the tool to be transported of the lathe is D₂When D is present₂When the time is less than or equal to delta h, the lathe is adjusted, and when D is less than or equal to delta h₂When is greater than delta h, the controller is according to D₂The sliding distance of the sliding mechanism on the rack is adjusted again; the nth air transportation of the latheWhile running, the reading of the electronic detection meter is K_n+1To obtain | K_n+1-K|＝D_n+1The value of the tool to be transported of the lathe is D_n+1When D is present_n+1When the time is less than or equal to delta h, the lathe is adjusted, and when D is less than or equal to delta h_n+1When is greater than delta h, the controller is according to D_n+1And adjusting the sliding distance of the sliding mechanism on the rack again.

2. The method for adjusting the feed amount of a lathe according to claim 1, comprising: the lathe further comprises an adjusting mechanism arranged on the sliding mechanism, the adjusting mechanism comprises a base, a moving part arranged on the base in a sliding mode, an adjusting part arranged on the base and matched with the moving part, and a driving part driving the moving part to move, the driving part drives the moving part to slide so that the sliding distance of the adjusting part on the rack can be adjusted, and the sliding distance of the adjusting part on the rack is the sliding distance of the sliding mechanism on the rack.

3. The method of adjusting the feed amount of a lathe according to claim 2, comprising: be provided with the mounting groove on the base, the moving part with regulating part slidable ground sets up in the mounting groove, the moving part is close to one side of regulating part is provided with first inclined plane, be provided with on the regulating part with first inclined plane complex second inclined plane, the driving piece includes the lead screw and sets up the gear motor in lead screw one end, the lead screw is kept away from gear motor's one end with moving part threaded connection, gear motor rotates and drives the lead screw rotates, and then drives the moving part slides, first inclined plane acts on the second inclined plane makes the regulating part is relative the base slides, adjusts promptly the regulating part is in sliding distance in the frame.

4. A method of adjusting a feed amount of a lathe according to claim 3, comprising: the rack is provided with a limiting part corresponding to the adjusting part, and when the adjusting mechanism slides along with the sliding mechanism on the rack, and the adjusting part abuts against the limiting part, the sliding mechanism and the adjusting mechanism stop sliding.

5. The method of adjusting the feed amount of a lathe according to claim 4, comprising: the electronic probe is arranged at one end of the electronic detection meter in a telescopic mode, a positioning piece corresponding to the electronic probe is arranged on the rack, when the sliding mechanism slides on the rack, the adjusting mechanism and the detection mechanism slide synchronously, the electronic probe touches the positioning piece, the electronic probe contracts, when the adjusting piece abuts against the limiting piece, the sliding mechanism stops sliding, and the electronic detection meter displays readings according to the contraction quantity of the electronic probe.

6. A method of adjusting a feed amount of a lathe according to claim 3, comprising: the adjusting mechanism further comprises two elastic pieces, two accommodating grooves are formed in the groove walls of the mounting grooves in a recessed mode, one elastic piece corresponds to one accommodating groove, each elastic piece is accommodated in the corresponding accommodating groove, one end of each elastic piece is elastically abutted to the groove wall of the corresponding accommodating groove, and the other end of each elastic piece is elastically abutted to the adjusting piece.

7. A method of adjusting a feed amount of a lathe according to claim 3, comprising: the movable piece is provided with a containing groove, one end, far away from the speed reduction motor, of the screw rod is arranged in the containing groove, an external thread is arranged on the outer wall of the screw rod, and an internal thread matched with the external thread is arranged on the groove wall of the containing groove.

8. The method of adjusting the feed amount of a lathe according to claim 7, comprising: the groove wall of the containing groove is formed with a fixing groove along the radial depression of the moving part, a fixing sleeve is contained in the fixing groove, the fixing sleeve is sleeved outside the screw rod and is in threaded connection with the screw rod, a fixing part is arranged on one side of the fixing sleeve, and the fixing part sequentially penetrates through the fixing sleeve and the moving part and then is inserted into the moving part.

9. The method of adjusting the feed amount of a lathe according to claim 2, comprising: the sliding mechanism comprises a first sliding plate and a second sliding plate, the first sliding plate is slidably arranged on the machine frame, the second sliding plate is slidably arranged on the first sliding plate, the adjusting mechanism and the detecting mechanism are arranged on the first sliding plate, the lathe further comprises a tool apron arranged on the second sliding plate and a tool rest mounted on the tool apron, the first sliding plate is used for controlling axial feeding of the lathe, and the second sliding plate is used for controlling radial feeding of the lathe.

10. The method of adjusting the feed amount of a lathe according to claim 2, comprising: the base epirelief is equipped with the mounting panel, the driving piece is installed on the mounting panel.

Technical Field

The invention relates to the technical field of bearing ring processing, in particular to a method for adjusting the feed amount of a lathe for processing a bearing ring.

Background

The lathe is used for processing the bearing ring, change the lathe tool or change not unidimensional bearing ring back in the production process of lathe, need carry out readjustment to the slide mechanism's of lathe the amount of feed, current lathe generally adopts the amount of feed of stop screw regulation lathe, because stop screw has the thread clearance, there is the error in the time of other spare parts processing installations simultaneously, need constantly try to process and measure the product, manually adjust stop screw repeatedly according to the result, finally reach the requirement, this regulative mode is higher to operative employee's technical requirement, and adjust the precision and be difficult to reach the requirement, this regulative mode inefficiency simultaneously, working strength is big.

Disclosure of Invention

The technical problem to be solved by the invention is as follows: in order to overcome the problems in the prior art, a method for adjusting the feed amount of a lathe is provided, which is capable of automatically adjusting and has high adjustment efficiency.

The technical scheme adopted for solving the technical problems is as follows: a lathe feed amount adjusting method is used for adjusting a lathe, the lathe comprises a frame, a controller arranged on the frame, a sliding mechanism arranged on the frame in a sliding mode and a detection mechanism arranged on the sliding mechanism, an electronic detection meter is arranged on the detection mechanism, the controller is used for adjusting the sliding distance of the sliding mechanism on the frame, and the sliding distance of the sliding mechanism on the frame and the reading of the electronic detection meter are the feed value of the lathe;

the feed amount adjusting method of the lathe comprises the following steps:

s1: taking a sample to be processed for first processing, wherein the reading of the electronic detection meter is K₁Obtaining a first processed product;

s2: measuring the first processed product of S1 to obtain the value D of the to-be-transported moving tool of the lathe₁The standard reading value K of the electronic detection meter can be obtained, namely K is equal to K₁+D₁Setting the tolerance value in the machining process of the lathe to be delta h, and enabling the controller to move the cutter according to the value D of the to-be-moved cutter of the lathe₁Adjusting the sliding distance of the sliding mechanism on the rack;

s3: the lathe runs for the first time in an idle mode, and the reading of the electronic detection meter is K at the moment₂To obtain | K₂-K|＝D₂The value of the tool to be transported of the lathe is D₂When D is present₂When the time is less than or equal to delta h, the lathe is adjusted, and when D is less than or equal to delta h₂When is greater than delta h, the controller is according to D₂The sliding distance of the sliding mechanism on the rack is adjusted again; when the lathe runs idle for the nth time, the reading of the electronic detection meter is K_n+1To obtain | K_n+1-K|＝D_n+1The value of the tool to be transported of the lathe is D_n+1When D is present_n+1When the time is less than or equal to delta h, the lathe is adjusted, and when D is less than or equal to delta h_n+1When is greater than delta h, the controller is according to D_n+1And adjusting the sliding distance of the sliding mechanism on the rack again.

Further, the lathe further comprises an adjusting mechanism arranged on the sliding mechanism, the adjusting mechanism comprises a base, a movable member arranged on the base in a sliding manner, an adjusting member arranged on the base and matched with the movable member, and a driving member for driving the movable member to move, the driving member drives the movable member to slide so as to adjust the sliding distance of the adjusting member on the machine frame, and the sliding distance of the adjusting member on the machine frame is the sliding distance of the sliding mechanism on the machine frame.

Further, be provided with the mounting groove on the base, the moving part with regulating part slidable ground sets up in the mounting groove, the moving part is close to one side of regulating part is provided with first inclined plane, be provided with on the regulating part with first inclined plane complex second inclined plane, the driving piece includes the lead screw and sets up the gear motor in lead screw one end, the lead screw is kept away from gear motor's one end with moving part threaded connection, gear motor rotates the drive the lead screw rotates, and then drives the moving part slides, first inclined plane acts on the second inclined plane makes the regulating part is relative the base slides, adjusts promptly the regulating part is in sliding distance in the frame.

Furthermore, a limiting part corresponding to the adjusting part is arranged on the rack, and when the adjusting mechanism slides along with the sliding mechanism on the rack, and the adjusting part abuts against the limiting part, the sliding mechanism and the adjusting mechanism stop sliding.

Further, the detection mechanism further comprises an electronic probe telescopically arranged at one end of the electronic detection meter, a positioning piece corresponding to the electronic probe is arranged on the rack, when the sliding mechanism slides on the rack, the adjusting mechanism and the detection mechanism synchronously slide, the electronic probe touches the positioning piece, the electronic probe contracts, when the adjusting piece abuts against the limiting piece, the sliding mechanism stops sliding, and the electronic detection meter displays a reading according to the contraction quantity of the electronic probe.

Furthermore, the adjusting mechanism further comprises two elastic pieces, two accommodating grooves are formed in the groove wall of the mounting groove in a recessed mode, one elastic piece corresponds to one accommodating groove, each elastic piece is accommodated in the corresponding accommodating groove, one end of each elastic piece elastically abuts against the groove wall of the corresponding accommodating groove, and the other end of each elastic piece elastically abuts against the adjusting piece.

Furthermore, a containing groove is formed in the movable piece, one end, far away from the speed reduction motor, of the screw rod is arranged in the containing groove, external threads are formed in the outer wall of the screw rod, and internal threads matched with the external threads are formed in the groove wall of the containing groove.

Furthermore, a fixed groove is formed in the groove wall of the containing groove along the radial direction of the moving part in a concave mode, a fixed sleeve is contained in the fixed groove, the fixed sleeve is sleeved outside the screw rod and is in threaded connection with the screw rod, a fixing part is arranged on one side of the fixed sleeve, and the fixing part penetrates through the fixed sleeve and the moving part in sequence and then is inserted into the moving part.

Further, the sliding mechanism includes a first sliding plate slidably disposed on the machine frame and a second sliding plate slidably disposed on the first sliding plate, the adjusting mechanism and the detecting mechanism are disposed on the first sliding plate, the lathe further includes a tool holder disposed on the second sliding plate and a tool holder mounted on the tool holder, the first sliding plate is used for controlling axial feeding of the lathe, and the second sliding plate is used for controlling radial feeding of the lathe.

Further, the base is convexly provided with a mounting plate, and the driving piece is mounted on the mounting plate.

The invention has the beneficial effects that: according to the lathe feed amount adjusting method provided by the invention, the electronic detection meter can display the sliding distance of the sliding mechanism on the rack, so that the to-be-transported moving tool value of the lathe is obtained, and meanwhile, the controller can continuously adjust the sliding distance of the sliding mechanism on the rack according to the to-be-transported moving tool value of the lathe, so that the lathe runs and is debugged in an idle mode, the operation is simple, the adjustment is convenient, and the working efficiency is high.

Drawings

The invention is further illustrated by the following figures and examples.

FIG. 1 is a schematic view of the construction of the lathe of the present invention;

FIG. 2 is a schematic view of the adjustment mechanism of the lathe of FIG. 1;

FIG. 3 is a cross-sectional view of the adjustment mechanism of FIG. 2;

fig. 4 is a process flow diagram of the lathe adjustment method of the present invention.

In the figure: the lathe 100, the frame 10, the sliding mechanism 20, the tool post 30, the adjusting mechanism 40, the detecting mechanism 50, the limiting member 11, the positioning member 12, the mounting block 13, the first sliding plate 21, the second sliding plate 22, the base 41, the movable member 42, the adjusting member 43, the elastic member 44, the driving member 45, the mounting groove 411, the communicating groove 412, the accommodating groove 413, the mounting plate 414, the first inclined surface 421, the accommodating groove 422, the second inclined surface 431, the screw 451, the speed reducing motor 452, the fixing groove 4221, the fixing sleeve 423, the fixing member 424, the fixing seat 51, the electronic detecting meter 52 and the electronic probe 53.

Detailed Description

The present invention will now be described in detail with reference to the accompanying drawings. This figure is a simplified schematic diagram, and merely illustrates the basic structure of the present invention in a schematic manner, and therefore it shows only the constitution related to the present invention.

Referring to fig. 1, the present invention provides a lathe 100, the lathe 100 includes a frame 10, a controller disposed on the frame 10, a sliding mechanism 20 slidably disposed on the frame 10, a tool holder 30 and an adjusting mechanism 40 disposed on the sliding mechanism 20, and a detecting mechanism 50.

The rack 10 is rectangular plate-shaped, and a limiting member 11 and a positioning member 12 are disposed on the rack 10, specifically, a mounting block 13 is disposed on one side of the rack 10, and the limiting member 11 and the positioning member 12 are disposed on the mounting block 13, in this embodiment, the limiting member 11 is a limiting screw, and the positioning member 12 is a positioning block.

The sliding mechanism 20 includes a first sliding plate 21 slidably disposed on the frame 10 and a second sliding plate 22 slidably disposed on the first sliding plate 21, the tool holder 30 is disposed on the second sliding plate 22, and the adjusting mechanism 40 and the detecting mechanism 50 are disposed on the first sliding plate 21. The first slide 21 is used to control the axial feed of the lathe 100, the second slide 22 is used to control the radial feed of the lathe 100, and the tool holder 30 is used to mount a turning tool for machining a bearing ring.

Referring to fig. 2 and 3, the adjusting mechanism 40 includes a base 41, a movable member 42 slidably disposed on the base 41, an adjusting member 43 disposed on the base 41 and engaged with the movable member 42, two elastic members 44 disposed between the adjusting member 43 and the base 41, and a driving member 45 for driving the movable member 42 to move.

The base 41 is substantially rectangular, a mounting groove 411 is formed in the base 41, a communication groove 412 communicated with the mounting groove 411 is further formed in the base 41, two accommodating grooves 413 are formed in the groove wall of the mounting groove 411 in a recessed mode, the two accommodating grooves 413 are located on two opposite sides of the communication groove 412, one accommodating groove 413 corresponds to one elastic element 44, the base 41 is arranged on the first sliding plate 21, each elastic element 44 is accommodated in the corresponding accommodating groove 413, one end of each elastic element 44 elastically abuts against the groove wall of the corresponding accommodating groove 413, the other end of each elastic element 44 elastically abuts against the adjusting element 43, and the movable element 42 is arranged between the adjusting element 43 and the groove wall of the mounting groove 411.

One side of the movable member 42 close to the adjusting member 43 is provided with a first inclined surface 421, and the movable member 42 is provided with an accommodating groove 422. The adjusting member 43 is provided with a second inclined surface 431 engaged with the first inclined surface 421.

The driving member 45 comprises a screw rod 451 and a speed reducing motor 452 arranged at one end of the screw rod 451, which is far away from the speed reducing motor 452, is arranged in the accommodating groove 422, an external thread is arranged on the outer wall of the screw rod 451, an internal thread matched with the external thread on the screw rod 451 is arranged on the groove wall of the accommodating groove 422, the screw rod 451 rotates under the rotation of the speed reducing motor 452, due to the matching effect of the screw thread between the screw rod 451 and the moving member 42, the moving member 42 moves along the axial direction of the screw rod 451 in the mounting groove 411, and the speed reducing. It will be appreciated that in other embodiments, not shown, the reduction motor 452 may be replaced by a rotary cylinder or wheel handle or the like that is capable of rotating the lead screw 451. In the present embodiment, the mounting plate 414 is projected from the base 41, and the reduction motor 452 is mounted on the mounting plate 414.

In one embodiment, a groove wall of the accommodating groove 422 is recessed along a radial direction of the movable element 42 to form a fixing groove 4221, a fixing sleeve 423 is accommodated in the fixing groove 4221, the fixing sleeve 423 is sleeved outside the screw rod 451 and is in threaded connection with the screw rod 451, a fixing element 424 is arranged on one side of the fixing sleeve 423, the fixing element 424 penetrates through the fixing sleeve 423 and the movable element 42 in sequence and then is inserted into the movable element 42 to fix the fixing sleeve 423 on the movable element 42, and the fixing sleeve 423 is arranged to enhance the connection strength between the movable element 42 and the driving element 45.

The detection mechanism 50 comprises a fixed seat 51, an electronic detection meter 52 arranged on the fixed seat 51 and an electronic probe 53 telescopically arranged at one end of the electronic detection meter 52, the other end of the electronic probe 53 extends out of the fixed seat 51, the electronic probe 53 corresponds to the positioning member 12, when the electronic probe 53 touches the positioning member 12, the electronic probe 53 contracts, and corresponding reading is displayed on the electronic detection meter 52 according to the contraction amount of the electronic probe 53.

The speed reducing motor 452 is started, the speed reducing motor 452 drives the screw rod 451 to rotate, the movable member 42 moves in the mounting groove 411 along the axial direction of the screw rod 451 due to the threaded fit connection between the screw rod 451 and the movable member 42, and meanwhile, due to the cooperation effect of the first inclined surface 421 and the second inclined surface 431, the movable member 42 pushes the adjusting member 43 to compress the elastic member 44 and move towards the direction of the communicating groove 412, so that the distance between the adjusting member 43 and the inner wall of the mounting groove 411 is adjusted.

When the lathe 100 of the present invention is used to process a bearing ring, the first sliding plate 21 slides on the machine frame 10 along the axial direction of the machine frame 10 so as to facilitate the tool holder installed on the tool holder 30 to process the bearing ring, the adjusting mechanism 40 and the detecting mechanism 50 are driven by the first sliding plate 21 to move in the directions close to the position limiting member 11 and the position positioning member 12, respectively, when the adjusting mechanism 40 is close to the position limiting member 11, the position limiting member 11 can extend into the installation slot 411 through the communicating slot 412, and simultaneously the electronic probe 53 touches the position positioning member 12 and contracts constantly, when the position limiting member 11 extends into the installation slot 411 and abuts against the adjusting member 43, the first sliding plate 21 stops sliding, at this time, the electronic detecting meter 52 displays a reading, which is the feed value of the lathe 100, the feed value of the lathe 100 is the sliding distance of the tool holder 30 in the axial direction of the machine frame 10, by adjusting the distance between, namely, the distance between the adjusting part 43 and the limiting part 11 can be adjusted, so that the sliding distance of the adjusting mechanism 40 in the axial direction of the machine frame 10 can be adjusted, and further, the sliding distance of the first sliding plate 21 in the axial direction of the machine frame 10, that is, the sliding distance of the tool apron 30 in the axial direction of the machine frame 10, can be adjusted, so that the machining precision of the tool apron on the bearing ring can be accurately adjusted.

The controller is configured to control a sliding distance of the sliding mechanism 20 on the frame 10, that is, a distance between the adjusting element 43 and a groove wall of the mounting groove 411 can be obtained according to a feed value of the lathe 100, and a number of rotation turns of the speed reduction motor 452 can be obtained through conversion of the controller, so that a distance between the adjusting element 43 and an inner wall of the mounting groove 411 is adjusted under rotation of the speed reduction motor 452, that is, a sliding distance of the sliding mechanism 20 on the frame 10, that is, a sliding distance of the tool apron 30 in an axial direction of the frame 10 is adjusted.

A method for adjusting the feed amount of the lathe 100, please refer to fig. 4, which includes the following steps:

s1: taking a sample to be processed for the first processing, electronically checking meter 52The reading is recorded as K₁Obtaining a first processed product;

s2: measuring the first processed product of S1 to obtain the value D of the to-be-transported moving tool of the lathe 100₁The standard reading value K of the electronic test meter 52 can be obtained, i.e. K ═ K₁+D₁Setting the tolerance value of the lathe 100 during machining to be delta h, and the controller controls the lathe 100 to run the feed value D according to the running speed₁Adjusting the sliding distance of the sliding mechanism 20 on the frame 10;

s3: the lathe is idle for the first time, at which time the electronic test meter 52 reads K₂To obtain | K₂-K|＝D₂That is, the value of the tool to be transported of the lathe 100 is D₂When D is present₂When the distance is less than or equal to delta h, the lathe 100 finishes the adjustment, and when D is less than or equal to delta h₂When is greater than delta h, the controller is according to D₂The sliding distance of the sliding mechanism 20 on the frame 10 is adjusted again; the nth idle run of the lathe 100 results in a K reading for the electronic gauge 52_n+1To obtain | K_n+1-K|＝D_n+1That is, the value of the tool to be transported of the lathe 100 is D_n+1When D is present_n+1When the distance is less than or equal to delta h, the lathe 100 finishes the adjustment, and when D is less than or equal to delta h_n+1When is greater than delta h, the controller is according to D_n+1The sliding distance of the sliding mechanism 20 on the frame 10 is adjusted again.

In S2, the controller determines the sliding distance of the sliding mechanism 20 on the frame 10, i.e. the sliding distance of the adjusting mechanism 40 on the frame 10, and the sliding distance of the adjusting mechanism 40 on the frame 10, i.e. the sliding distance of the adjusting member 43 on the frame 10, according to the feed value D to be operated₁The distance between the adjusting member 43 and the limiting member 11 can be adjusted by converting the rotation number of the speed reducing motor 452 into the rotation number, so as to adjust the sliding distance of the adjusting mechanism 40 on the rack 10.

According to the adjusting method of the lathe 100, the electronic detection meter 52 can display the sliding distance of the sliding mechanism 20 on the rack 10, so that the to-be-transported tool feeding value of the lathe 100 is obtained, and meanwhile, the controller can adjust the sliding distance of the sliding mechanism 20 on the rack 10 according to the to-be-transported tool feeding value of the lathe 100, so that the lathe 100 runs and is debugged in an idle mode, the operation is simple, the adjustment is convenient, and the working efficiency is high.

In light of the foregoing description of preferred embodiments in accordance with the invention, it is to be understood that numerous changes and modifications may be made by those skilled in the art without departing from the scope of the invention. The technical scope of the present invention is not limited to the contents of the specification, and must be determined according to the scope of the claims.