WO2014101323A1 - Large-sized digital patternless casting forming machine - Google Patents
Large-sized digital patternless casting forming machine Download PDFInfo
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- WO2014101323A1 WO2014101323A1 PCT/CN2013/070448 CN2013070448W WO2014101323A1 WO 2014101323 A1 WO2014101323 A1 WO 2014101323A1 CN 2013070448 W CN2013070448 W CN 2013070448W WO 2014101323 A1 WO2014101323 A1 WO 2014101323A1
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- motion system
- axis motion
- axis
- molding machine
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Classifications
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B22—CASTING; POWDER METALLURGY
- B22C—FOUNDRY MOULDING
- B22C9/00—Moulds or cores; Moulding processes
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- B—PERFORMING OPERATIONS; TRANSPORTING
- B22—CASTING; POWDER METALLURGY
- B22C—FOUNDRY MOULDING
- B22C23/00—Tools; Devices not mentioned before for moulding
Definitions
- the present invention relates to the field of machining, and more particularly to a dieless casting molding machine.
- the moldless casting CNC forming technology is a system integration of CAD technology, casting technology, numerical control technology, cutting technology and other technologies. It is a brand new rapid casting manufacturing technology.
- the dieless casting molding machine adopting the technology can completely produce a casting sand mold of various shapes without using a mold, and provides a new carrier for solving the single-piece and small-quantity production trial production of the casting, and the use of the equipment can shorten the production cycle. Increase productivity, especially for large, small batch, complex shape molding.
- the dieless casting machine consists of the main part of the multi-axis (three-axis and above) motion system, through or special sand-type cutting tools and sand-discharging systems, and special control software compatible with the sand-cutting process.
- the technology and equipment are already in existence.
- the prototype process of new product prototypes such as engines has been successfully applied.
- it is difficult to process a mold having a large structural size (sand type) due to a bottleneck in mechanical design.
- the prior art forming machines have a problem of low processing efficiency, so that they cannot meet the increasingly high production demands of modern factories.
- the present invention is directed to a large-sized moldless casting molding machine which solves the problem that a prior art moldless casting molding machine cannot process a sand mold (cast type) having a large structural size. Further, the moldless casting molding machine provided by the present invention can solve the problem that the prior art moldless casting molding machine has a long processing time and low processing efficiency.
- a moldless casting molding machine comprising: a multi-axis motion system, the multi-axis motion system including at least an X-axis motion system, a Y-axis motion system, and a z-axis motion system;
- the underside of the shaft motion system; the moldless casting machine further includes: a support beam, a rotary tool system, and a machine tool shield.
- the X-axis motion system includes a first X-axis motion system and a second X-axis motion system arranged side by side in parallel; the first X-axis motion system and the second X-axis motion system are both fixed to the first support beam and the second Above the support beam; the first X-axis motion system is driven by the first X-axis drive and the second X-axis motion system is driven by the second X-axis drive.
- the Y-axis motion system includes a first Y-axis motion system and a second Y-axis motion system respectively disposed separately; the first Y-axis motion system and the second Y-axis motion system respectively pass the sliders on both sides with the first X
- the shaft motion system, the second X-axis motion system is slidably engaged; the first Y-axis motion system is driven by the first Y-axis drive and the second Y-axis motion system is driven by the second Y-axis drive.
- the Z-axis motion system includes a first Z-axis motion system and a second Z-axis motion system that are separately disposed; the first z-axis motion system and the second Z-axis motion system respectively pass the slider and the first Y-axis motion system
- the second Y-axis motion system is slidably coupled; the first z-axis motion system is driven by the first Z-axis drive and the second z-axis motion system is driven by the second Z-axis drive.
- the workbench is disposed under the multi-axis motion system; the size of the workbench is required to be at least 3 meters in the longitudinal direction; and the sand trap is disposed on the front and rear sides of the workbench.
- the moldless casting molding machine further includes a first rotary cutter system mounted on the first z-axis motion system and a second rotary cutter system mounted on the second Z-axis motion Above the system. Further, the moldless casting molding machine further includes a machine tool shield fixed to the periphery of the table.
- the multi-axis motion system of the moldless casting molding machine adopts two sets of motion systems, namely, the first X-axis motion system and the second X-axis motion system, the first Y-axis motion system, and the first The two Y-axis motion system, the first Z-axis motion system, and the second Z-axis motion system thus greatly increase the processing range of the moldless casting molding machine of the present invention in the X-axis direction. That is, with respect to the molding machine described in the prior patent, the processing size range of the mold has been greatly increased, overcoming the problem that the conventional moldless casting molding machine cannot process a mold having a large structural size.
- each of the motion systems of the moldless casting molding machine of the present invention is driven by a respective driving device, and has two sets of rotary cutter systems, that is, the first rotary cutter system and the second rotary cutter
- the system can thus simultaneously process both sides of the mold (sand type) in the X-axis direction, thereby greatly shortening the processing time and improving the processing efficiency.
- Figure 1 is a view schematically showing the internal structure of a moldless casting molding machine of the present invention
- Figure 2 is a view schematically showing the structure of a rotary cutter system in a moldless casting molding machine of the present invention
- Figure 3 is a view schematically showing the appearance of a moldless casting molding machine of the present invention
- Fig. 4 schematically shows a schematic view of the shaft motion system of the present invention.
- the dieless casting machine includes a multi-axis motion system, Table, support beam, rotary tool system and machine guard.
- the multi-axis motion system is used to mount a machining tool that is provided by the tool system 16. By operating the multi-axis motion system, the cutting motion of the machining tool is controlled, thereby making the sand blank on the table 13 into a sand mold.
- the multi-axis motion system may be a three-axis motion system or a five-axis motion system. As can be seen from FIG. 2, in the preferred embodiment, the multi-axis motion system is exemplified by a three-axis motion system.
- the axis motion system includes an X-axis motion system, a Y-axis motion system, and a Z-axis motion system.
- the X-axis motion system includes a first X-axis motion system 1 and a second X-axis motion system 12 arranged side by side in parallel; the first X-axis motion system 1 and the second X-axis motion system 12 are both fixed to the first support Above the beam 15 and the second support beam 3; the first X-axis motion system 1 is driven by a first X-axis drive 2 and the second X-axis motion system 12 is driven by a second X-axis drive 11.
- first X-axis motion system 1 and the second X-axis motion system 12 are arranged side by side in the X-axis direction, the machining range of the moldless casting molding machine of the present invention in the X-axis direction is greatly increased.
- first X-axis driving device and the second X-axis driving device may be the same servo motor and the speed reducer respectively connected as a power unit, and then the motor-driven timing pulley or the motor driving screw is driven by the connecting rod 21 as The transmission unit achieves the effect of driving the movement of the first X-axis motion system and the second X-axis motion system.
- the Y-axis motion system comprises a first Y-axis motion system 4 and a second Y-axis transport separately provided
- the first Y-axis motion system 4 and the second X-axis motion system 10 are slidably engaged with the first X-axis motion system 1 and the second X-axis motion system 12 by the sliders 20 on both sides;
- the x-axis motion system 4 is driven by a first reel drive unit 14 and the second reel movement system 10 is driven by a second reel drive unit 7.
- first cymbal drive device and the second cymbal drive device may be connected servo motors and reducers as power units, and the motor drives the synchronous pulley or the motor drive screw as the transmission unit to achieve the first drive.
- the cymbal movement system comprises a first yaw motion system 5 and a second yaw motion system 9 which are separately provided; the first yaw motion system 5 and the second yaw motion system 9 respectively and the first through the slider 21
- the first axle motion system 4 is slidably engaged; the first axle motion system 5 is driven by the first axle drive 6 and the second axle motion system 9 is driven by the second axle drive 8 drive.
- the first cymbal drive device and the second cymbal drive device may be connected servo motors and reducers as power units, and the motor drives the synchronous pulley or the motor drive screw as the transmission unit to achieve the first drive.
- the table 13 is disposed under the multi-axis motion system; the size of the table 13 is required to be at least not less than 2.5 meters in the longitudinal direction; and the sand chamber 16 is disposed on the front and rear sides of the table 13.
- the first support beam 15 and the second support beam 3 are respectively fixed to the left and right sides of the table 13 .
- the moldless casting molding machine further includes a first cutter system 17 and a second cutter system 18 that are mounted on the first yaw motion system 5 and the second yaw motion system 9, respectively.
- the moldless casting is performed.
- the forming machine can simultaneously process both sides of the mold (sand type) in the X-axis direction.
- the rotary tool system can employ an electric spindle structure to drive the tool to achieve rotational motion.
- the moldless casting molding machine further includes a machine tool shield 19 fixed around the table.
- the processing size range of the mold has been greatly increased, overcoming the problem that the conventional moldless casting molding machine cannot process a mold having a large structural size.
- the moldless casting molding machine of the present invention can simultaneously process both sides of the mold (sand type) in the X-axis direction, thereby greatly shortening the processing time and improving the processing efficiency.
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Abstract
A large-sized digital patternless casting forming machine comprises: a multi-axis motion system, wherein the multi-axis motion system comprises at least an X-axis motion system, a Y-axis motion system and a Z-axis motion system, the X-axis motion system comprises a first X-axis motion system (1) and a second X-axis motion system (12) that are parallelly arranged side by side, the Y-axis motion system comprises a first Y-axis motion system (4) and a second Y-axis motion system (10) that are independently arranged respectively, and the Z-axis motion system comprises a first Z-axis motion system (5) and a second Z-axis motion system (9) that are independently arranged respectively; a workbench (13), which is located below the multi-axis motion system; support beams (3, 15), cutter systems (17, 18) and a machine shield (19). According to the patternless casting forming machine, a processing size range is greatly increased, and two sides of a casting mould can be simultaneously processed in an X-axis direction, greatly reducing processing time and improving processing efficiency.
Description
一种大型数字化无模铸造成形机 Large-scale digital moldless casting machine
技术领域 本发明涉及机械加工领域, 更具体地, 涉及一种无模铸造成形机。 TECHNICAL FIELD The present invention relates to the field of machining, and more particularly to a dieless casting molding machine.
背景技术 Background technique
为了解决传统铸件制造工艺存在制造周期长, 生产成本高, 资源消耗大的 问题,无模铸型数控加工成形技术应运而生。无模铸型数控加工成形技术是 CAD 技术、 铸造技术, 数控技术、 切削技术等技术的***集成, 是一种全新的快速 铸型制造技术。 采用该技术的无模铸造成形机可以完全不用模具, 制造出各种 形状的铸件砂型, 为解决铸件的单件、 小批量的生产试制提供了新的载体, 同 时使用该设备可以缩短生产周期, 提高生产率, 尤其适用于大件、 小批量、 形 状复杂的铸型加工。 In order to solve the problem that the traditional casting manufacturing process has a long manufacturing cycle, high production cost and high resource consumption, the non-molded CNC forming technology has emerged. The moldless casting CNC forming technology is a system integration of CAD technology, casting technology, numerical control technology, cutting technology and other technologies. It is a brand new rapid casting manufacturing technology. The dieless casting molding machine adopting the technology can completely produce a casting sand mold of various shapes without using a mold, and provides a new carrier for solving the single-piece and small-quantity production trial production of the casting, and the use of the equipment can shorten the production cycle. Increase productivity, especially for large, small batch, complex shape molding.
无模铸造成形机由含有多轴 (三轴及以上) 运动***、 通过或专用砂型切 削刀具及排砂***的主题部分和与砂型切削工艺相配套的专用控制软件组成, 该技术及设备已经在发动机等新产品样件铸型的试制过程中得到成功应用。 但 现有技术的无模铸造成形机中, 由于机械设计方面的瓶颈, 难以加工结构尺寸 大的铸型 (砂型)。 同时现有技术的成形机存在加工效率较低的问题, 以至于无 法满足现代工厂日益高涨的生产需要。 另外, 目前对采用数控切削加工设备直 接加工砂型得到铸型的研究非常少, 仅有少数用来切削砂坯的铸型数控切削加 工成形机的相关专利, (其专利申请号为 200710010705.1、 201110127890.9、 201110126546.8 ), 该几种设备因其机械结构设计方面的原因无法加工一些结构 尺寸大的铸型, 同时加工时间较长, 即加工效率都较为低下。 发明内容
本发明旨在提供一种大型无模铸造成形机, 以解决现有技术的无模铸造成 形机无法加工结构尺寸大的砂型 (铸型) 的问题。 另外, 本发明提供的无模铸 造成形机还可以解决现有技术的无模铸造成形机加工时间长, 加工效率低下的 问题。 根据本发明的一个方面, 提供了一种无模铸造成形机, 包括: 多轴运动系 统, 多轴运动***至少包括 X轴运动***、 Y轴运动***和 z轴运动***; 工 作台, 位于多轴运动***的下方; 该无模铸造成形机还包括: 支撑梁、 旋转刀 具***和机床护罩。 进一步地, X轴运动***包括并排平行设置的第一 X轴运动***和第二 X 轴运动***; 第一 X轴运动***和第二 X轴运动***均被固定于第一支撑梁和 第二支撑梁上方; 第一 X轴运动***由第一 X轴驱动装置驱动, 第二 X轴运动 ***由第二 X轴驱动装置驱动。 进一步地, Y轴运动***包括各自单独设置的第一 Y轴运动***和第二 Y 轴运动***; 第一 Y轴运动***和第二 Y轴运动***通过两侧的滑块分别与第 一 X轴运动***、 第二 X轴运动***可滑动地配合; 第一 Y轴运动***由第一 Y轴驱动装置驱动, 第二 Y轴运动***由第二 Y轴驱动装置驱动。 进一步地, Z轴运动***包括各自单独设置的第一 Z轴运动***和第二 Z 轴运动***; 第一 z轴运动***和第二 Z轴运动***通过滑块分别与第一 Y轴 运动***、 第二 Y轴运动***可滑动地配合; 第一 z轴运动***由第一 Z轴驱 动装置驱动, 第二 z轴运动***由第二 Z轴驱动装置驱动。 进一步地, 工作台设置于多轴运动***的下方; 工作台的尺寸要求在长度 方向至少不小于 3米; 工作台前后两侧设置有落砂槽。
进一步地, 第一支撑梁和第二支撑梁分别固定于工作台的左右两侧。 进一步地, 该无模铸造成形机还包括第一旋转刀具***和第二旋转刀具系 统, 第一旋转刀具***安装于第一 z轴运动***上面, 第二旋转刀具***安装 于第二 Z轴运动***上面。 进一步地, 该无模铸造成形机还包括固定于工作台四周的机床护罩。 根据本发明的技术方案, 由于该无模铸造成形机中多轴运动***均采用了 两套运动***, 即第一 X轴运动***和第二 X轴运动***、第一 Y轴运动*** 和第二 Y轴运动***、 第一 Z轴运动***和第二 Z轴运动***, 故此使得本发 明的无模铸造成形机在 X轴方向的加工范围大幅度增加。 即相对于之前专利所 述的成形机, 其铸型的加工尺寸范围得到了大幅度增加, 克服了以往无模铸造 成形机无法加工结构尺寸大的铸型的问题。 另外, 根据本发明的技术方案, 由于本发明的无模铸造成形机的各个运动 ***皆由各自的驱动装置来驱动, 并且具有两套旋转刀具***, 即第一旋转刀 具***和第二旋转刀具***, 故此可以实现在 X轴方向上对铸型 (砂型) 的两 边同时进行加工, 进而大大缩短了加工时间, 提高了加工效率。 附图说明 构成本发明的一部分的附图用来提供对本发明的进一步理解, 本发明的示 意性实施例及其说明用于解释本发明, 并不构成对本发明的不当限定。 在附图 中: The dieless casting machine consists of the main part of the multi-axis (three-axis and above) motion system, through or special sand-type cutting tools and sand-discharging systems, and special control software compatible with the sand-cutting process. The technology and equipment are already in existence. The prototype process of new product prototypes such as engines has been successfully applied. However, in the prior art moldless casting molding machine, it is difficult to process a mold having a large structural size (sand type) due to a bottleneck in mechanical design. At the same time, the prior art forming machines have a problem of low processing efficiency, so that they cannot meet the increasingly high production demands of modern factories. In addition, there are very few studies on the direct processing of sand molds by CNC machining equipment. There are only a few patents related to the casting CNC cutting machine for cutting sand blanks (the patent application number is 200710010705.1, 201110127890.9, 201110126546.8), these several kinds of equipment can not process some molds with large structure size due to the mechanical structure design, and the processing time is longer, that is, the processing efficiency is relatively low. Summary of the invention SUMMARY OF THE INVENTION The present invention is directed to a large-sized moldless casting molding machine which solves the problem that a prior art moldless casting molding machine cannot process a sand mold (cast type) having a large structural size. Further, the moldless casting molding machine provided by the present invention can solve the problem that the prior art moldless casting molding machine has a long processing time and low processing efficiency. According to an aspect of the invention, a moldless casting molding machine is provided, comprising: a multi-axis motion system, the multi-axis motion system including at least an X-axis motion system, a Y-axis motion system, and a z-axis motion system; The underside of the shaft motion system; the moldless casting machine further includes: a support beam, a rotary tool system, and a machine tool shield. Further, the X-axis motion system includes a first X-axis motion system and a second X-axis motion system arranged side by side in parallel; the first X-axis motion system and the second X-axis motion system are both fixed to the first support beam and the second Above the support beam; the first X-axis motion system is driven by the first X-axis drive and the second X-axis motion system is driven by the second X-axis drive. Further, the Y-axis motion system includes a first Y-axis motion system and a second Y-axis motion system respectively disposed separately; the first Y-axis motion system and the second Y-axis motion system respectively pass the sliders on both sides with the first X The shaft motion system, the second X-axis motion system is slidably engaged; the first Y-axis motion system is driven by the first Y-axis drive and the second Y-axis motion system is driven by the second Y-axis drive. Further, the Z-axis motion system includes a first Z-axis motion system and a second Z-axis motion system that are separately disposed; the first z-axis motion system and the second Z-axis motion system respectively pass the slider and the first Y-axis motion system The second Y-axis motion system is slidably coupled; the first z-axis motion system is driven by the first Z-axis drive and the second z-axis motion system is driven by the second Z-axis drive. Further, the workbench is disposed under the multi-axis motion system; the size of the workbench is required to be at least 3 meters in the longitudinal direction; and the sand trap is disposed on the front and rear sides of the workbench. Further, the first support beam and the second support beam are respectively fixed to the left and right sides of the workbench. Further, the moldless casting molding machine further includes a first rotary cutter system mounted on the first z-axis motion system and a second rotary cutter system mounted on the second Z-axis motion Above the system. Further, the moldless casting molding machine further includes a machine tool shield fixed to the periphery of the table. According to the technical solution of the present invention, since the multi-axis motion system of the moldless casting molding machine adopts two sets of motion systems, namely, the first X-axis motion system and the second X-axis motion system, the first Y-axis motion system, and the first The two Y-axis motion system, the first Z-axis motion system, and the second Z-axis motion system thus greatly increase the processing range of the moldless casting molding machine of the present invention in the X-axis direction. That is, with respect to the molding machine described in the prior patent, the processing size range of the mold has been greatly increased, overcoming the problem that the conventional moldless casting molding machine cannot process a mold having a large structural size. Further, according to the technical solution of the present invention, since each of the motion systems of the moldless casting molding machine of the present invention is driven by a respective driving device, and has two sets of rotary cutter systems, that is, the first rotary cutter system and the second rotary cutter The system can thus simultaneously process both sides of the mold (sand type) in the X-axis direction, thereby greatly shortening the processing time and improving the processing efficiency. BRIEF DESCRIPTION OF THE DRAWINGS The accompanying drawings, which are incorporated in FIG. In the drawing:
图 1示意性示出了本发明的无模铸造成形机的内部结构图; Figure 1 is a view schematically showing the internal structure of a moldless casting molding machine of the present invention;
图 2示意性示出了本发明的无模铸造成形机中旋转刀具***的结构; 图 3示意性示出了本发明的无模铸造成形机的外观图;
图 4 示意性示出了本发明的 轴运动***的示意图。 具体实施例 以下结合附图对本发明的实施例进行详细说明, 但是本发明可以由权利要 求限定和覆盖的多种不同方式实施。 参见图 1、 图 2和图 3, 示意性示出了根据本发明提供的一种无模铸造成形 机的优选实施例, 如图所示, 该无模铸造成形机包括多轴运动***、 工作台、 支撑梁、 旋转刀具***和机床护罩。 多轴运动***用于安装加工刀具, 该加工刀具由刀具*** 16提供。通过操 作多轴运动***的动作, 控制加工刀具的切削运动, 从而将工作台 13上的砂坯 制造成砂型。 该多轴运动***可以是三轴运动***, 也可以是五轴运动***, 由图 2中可以看出, 在本优选实施例中, 该多轴运动***以三轴运动***为例, 该三轴运动***包括 X轴运动***、 Y轴运动***和 Z轴运动***。 优选地, X轴运动***包括并排平行设置的第一 X轴运动*** 1和第二 X 轴运动*** 12; 第一 X轴运动*** 1和第二 X轴运动*** 12均被固定于第一 支撑梁 15和第二支撑梁 3上方; 第一 X轴运动*** 1 由第一 X轴驱动装置 2 驱动, 第二 X轴运动*** 12由第二 X轴驱动装置 11驱动。 由于第一 X轴运动 *** 1和第二 X轴运动*** 12是在沿 X轴方向并排设置, 故此本发明的无模 铸造成形机在 X轴方向的加工范围得到大幅度增加。 另外, 第一 X轴驱动装置 和第二 X 轴驱动装置可以是各自相连接的同一伺服电机和减速机做为动力单 元, 然后通过连接杆 21以电机驱动同步带轮或者电机驱动丝杠做为传动单元, 达到驱动第一 X轴运动***和第二 X轴运动***移动的效果。 Figure 2 is a view schematically showing the structure of a rotary cutter system in a moldless casting molding machine of the present invention; Figure 3 is a view schematically showing the appearance of a moldless casting molding machine of the present invention; Fig. 4 schematically shows a schematic view of the shaft motion system of the present invention. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The embodiments of the present invention are described in detail below with reference to the drawings, but the invention may be practiced in various different ways defined and covered by the claims. Referring to Figures 1, 2 and 3, there is shown a preferred embodiment of a dieless casting machine provided in accordance with the present invention. As shown, the dieless casting machine includes a multi-axis motion system, Table, support beam, rotary tool system and machine guard. The multi-axis motion system is used to mount a machining tool that is provided by the tool system 16. By operating the multi-axis motion system, the cutting motion of the machining tool is controlled, thereby making the sand blank on the table 13 into a sand mold. The multi-axis motion system may be a three-axis motion system or a five-axis motion system. As can be seen from FIG. 2, in the preferred embodiment, the multi-axis motion system is exemplified by a three-axis motion system. The axis motion system includes an X-axis motion system, a Y-axis motion system, and a Z-axis motion system. Preferably, the X-axis motion system includes a first X-axis motion system 1 and a second X-axis motion system 12 arranged side by side in parallel; the first X-axis motion system 1 and the second X-axis motion system 12 are both fixed to the first support Above the beam 15 and the second support beam 3; the first X-axis motion system 1 is driven by a first X-axis drive 2 and the second X-axis motion system 12 is driven by a second X-axis drive 11. Since the first X-axis motion system 1 and the second X-axis motion system 12 are arranged side by side in the X-axis direction, the machining range of the moldless casting molding machine of the present invention in the X-axis direction is greatly increased. In addition, the first X-axis driving device and the second X-axis driving device may be the same servo motor and the speed reducer respectively connected as a power unit, and then the motor-driven timing pulley or the motor driving screw is driven by the connecting rod 21 as The transmission unit achieves the effect of driving the movement of the first X-axis motion system and the second X-axis motion system.
优选地, Y轴运动***包括单独设置的第一 Y轴运动*** 4和第二 Y轴运
动*** 10;第一 Y轴运动*** 4和第二 Υ轴运动*** 10通过两侧的滑块 20分 别与第一 X轴运动*** 1、第二 X轴运动*** 12可滑动地配合;第一 Υ轴运动 *** 4由第一 Υ轴驱动装置 14驱动,第二 Υ轴运动*** 10由第二 Υ轴驱动装 置 7驱动。 同样, 第一 Υ轴驱动装置和第二 Υ轴驱动装置可以是相连接的伺服 电机和减速机做为动力单元, 以电机驱动同步带轮或者电机驱动丝杠做为传动 单元, 达到驱动第一 Υ轴运动***和第二 Υ轴运动***移动的效果。 Preferably, the Y-axis motion system comprises a first Y-axis motion system 4 and a second Y-axis transport separately provided The first Y-axis motion system 4 and the second X-axis motion system 10 are slidably engaged with the first X-axis motion system 1 and the second X-axis motion system 12 by the sliders 20 on both sides; The x-axis motion system 4 is driven by a first reel drive unit 14 and the second reel movement system 10 is driven by a second reel drive unit 7. Similarly, the first cymbal drive device and the second cymbal drive device may be connected servo motors and reducers as power units, and the motor drives the synchronous pulley or the motor drive screw as the transmission unit to achieve the first drive. The effect of the movement of the Υ-axis motion system and the second 运动-axis motion system.
优选地, Ζ轴运动***包括单独设置的第一 Ζ轴运动*** 5和第二 Ζ轴运 动*** 9; 第一 Ζ轴运动*** 5和第二 Ζ轴运动*** 9通过滑块 21分别与第一 Υ轴运动*** 4、 第二 Υ轴运动*** 10可滑动地配合; 第一 Ζ轴运动*** 5由 第一 Ζ轴驱动装置 6驱动, 第二 Ζ轴运动*** 9由第二 Ζ轴驱动装置 8驱动。 同样, 第一 Ζ轴驱动装置和第二 Ζ轴驱动装置可以是相连接的伺服电机和减速 机做为动力单元, 以电机驱动同步带轮或者电机驱动丝杠做为传动单元, 达到 驱动第一 Ζ轴运动***和第二 Ζ轴运动***移动的效果。 Preferably, the cymbal movement system comprises a first yaw motion system 5 and a second yaw motion system 9 which are separately provided; the first yaw motion system 5 and the second yaw motion system 9 respectively and the first through the slider 21 The first axle motion system 4 is slidably engaged; the first axle motion system 5 is driven by the first axle drive 6 and the second axle motion system 9 is driven by the second axle drive 8 drive. Similarly, the first cymbal drive device and the second cymbal drive device may be connected servo motors and reducers as power units, and the motor drives the synchronous pulley or the motor drive screw as the transmission unit to achieve the first drive. The effect of the movement of the Ζ-axis motion system and the second 运动-axis motion system.
具体地, 工作台 13设置于多轴运动***的下方; 工作台 13 的尺寸要求在 长度方向至少不小于 2.5米; 工作台 13前后两侧设置有落砂槽 16。 具体地, 第一支撑梁 15和第二支撑梁 3分别固定于工作台 13的左右两侧。 具体地,该无模铸造成形机还包括分别安装于第一 Ζ轴运动*** 5和第二 Ζ 轴运动*** 9上面的第一刀具*** 17和第二刀具*** 18。 由于 Υ轴运动*** 和 Ζ轴运动***都由各自的驱动装置来驱动, 而且第一 Ζ轴运动*** 5和第二 Ζ轴运动*** 9都安装有旋转刀具*** 17和 18, 故此该无模铸造成形机可以在 X 轴方向上实现铸型 (砂型) 的两边同时加工。 优选地, 旋转刀具***可以采 用电主轴结构来带动刀具实现旋转运动。
具体地, 该无模铸造成形机还包括固定于工作台四周的机床护罩 19。 综上所述, 本发明具有如下优点: 本发明的无模铸造成形机在 X轴方向的 加工范围大幅度增加。 即相对于之前专利所述的成形机, 其铸型的加工尺寸范 围得到了大幅度增加, 克服了以往无模铸造成形机无法加工结构尺寸大的铸型 的问题。 另外, 本发明的无模铸造成形机可以实现在 X轴方向上对铸型(砂型) 的两边同时进行加工, 进而大大缩短了加工时间, 提高了加工效率。 以上所述仅为本发明的优选实施例而已, 并不用于限制本发明, 对于本领 域的技术人员来说, 本发明可以有各种更改和变化。 凡在本发明的精神和原则 之内, 所作的任何修改、 等同替换、 改进等, 均应包含在本发明的保护范围之 内。
Specifically, the table 13 is disposed under the multi-axis motion system; the size of the table 13 is required to be at least not less than 2.5 meters in the longitudinal direction; and the sand chamber 16 is disposed on the front and rear sides of the table 13. Specifically, the first support beam 15 and the second support beam 3 are respectively fixed to the left and right sides of the table 13 . Specifically, the moldless casting molding machine further includes a first cutter system 17 and a second cutter system 18 that are mounted on the first yaw motion system 5 and the second yaw motion system 9, respectively. Since the yaw axis motion system and the yaw axis motion system are both driven by respective driving devices, and both the first yaw motion system 5 and the second yaw motion system 9 are equipped with the rotary cutter systems 17 and 18, the moldless casting is performed. The forming machine can simultaneously process both sides of the mold (sand type) in the X-axis direction. Preferably, the rotary tool system can employ an electric spindle structure to drive the tool to achieve rotational motion. Specifically, the moldless casting molding machine further includes a machine tool shield 19 fixed around the table. As described above, the present invention has the following advantages: The processing range of the moldless casting molding machine of the present invention in the X-axis direction is greatly increased. That is, with respect to the molding machine described in the prior patent, the processing size range of the mold has been greatly increased, overcoming the problem that the conventional moldless casting molding machine cannot process a mold having a large structural size. Further, the moldless casting molding machine of the present invention can simultaneously process both sides of the mold (sand type) in the X-axis direction, thereby greatly shortening the processing time and improving the processing efficiency. The above is only the preferred embodiment of the present invention, and is not intended to limit the present invention, and various modifications and changes can be made to the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and scope of the present invention are intended to be included within the scope of the present invention.
Claims
1. 一种大型无模铸造成形机, 包括: 多轴运动***,所述多轴运动***至少包括 X轴运动***、 Y轴运动系 统和 Z轴运动***; 工作台, 位于所述多轴运动***的下方; 其特征在于,该无模铸造成形机还包括:支撑梁、刀具***和机床护罩。 A large-scale moldless casting molding machine, comprising: a multi-axis motion system including at least an X-axis motion system, a Y-axis motion system, and a Z-axis motion system; a table located in the multi-axis motion The lower part of the system; characterized in that the moldless casting forming machine further comprises: a support beam, a tool system and a machine tool shield.
2. 根据权利要求 1所述的无模铸造成形机, 其特征在于, 所述 X轴运动***包括并排平行设置的第一 X轴运动***( 1 )和第二 X轴 运动*** (12); 所述第一 X轴运动*** (1) 和第二 X轴运动*** (12) 均被固定于第一支撑梁 (15) 和第二支撑梁 (3) 上方; 所述第一 X轴运动 *** (1) 由第一 X轴驱动装置 (2) 驱动, 所述第二 X轴运动*** (12) 由第二 X轴驱动装置 (11) 驱动。 2. The moldless casting molding machine according to claim 1, wherein the X-axis motion system comprises a first X-axis motion system (1) and a second X-axis motion system (12) arranged side by side in parallel; The first X-axis motion system (1) and the second X-axis motion system (12) are both fixed above the first support beam (15) and the second support beam (3); the first X-axis motion system (1) Driven by a first X-axis drive (2), the second X-axis motion system (12) is driven by a second X-axis drive (11).
3. 根据权利要求 1所述的无模铸造成形机, 其特征在于, 所述 Y轴运动***包括单独设置的第一 Y轴运动***(4)和第二 Y轴运动 *** (10); 所述第一 Y轴运动*** (4) 和第二 Y轴运动*** (10) 通过 两侧的滑块 (20) 分别与第一 X轴运动*** (1)、 第二 X轴运动*** (12) 可滑动地配合; 所述第一 Y轴运动*** (4) 由第一 Y轴驱动装置 (14) 驱 动, 所述第二 Y轴运动*** (10) 由第二 Y轴驱动装置 (7) 驱动。 3. The moldless casting molding machine according to claim 1, wherein the Y-axis motion system comprises a first Y-axis motion system (4) and a second Y-axis motion system (10) that are separately provided; The first Y-axis motion system (4) and the second Y-axis motion system (10) respectively pass the sliders (20) on both sides with the first X-axis motion system (1) and the second X-axis motion system (12) Slidably mated; the first Y-axis motion system (4) is driven by a first Y-axis drive (14), and the second Y-axis motion system (10) is driven by a second Y-axis drive (7) .
4. 根据权利要求 1所述的无模铸造成形机, 其特征在于, 所述 Z轴运动***包括单独设置的第一 Z轴运动*** (5) 和第二 Z轴运动 ***(9); 所述第一 Z轴运动***(5)和第二 Z轴运动***(9)通过滑块 (21) 分别与第一 Y轴运动*** (4)、 第二 Y轴运动*** (10) 可滑动地 配合; 所述第一 Z轴运动***(5) 由第一 Z轴驱动装置(6)驱动, 所述第 二 Z轴运动*** (9) 由第二 Z轴驱动装置 (8) 驱动。
4. The moldless casting molding machine according to claim 1, wherein the Z-axis motion system comprises a first Z-axis motion system (5) and a second Z-axis motion system (9) separately provided; The first Z-axis motion system (5) and the second Z-axis motion system (9) are slidably coupled to the first Y-axis motion system (4) and the second Y-axis motion system (10) through the slider (21), respectively. Cooperating; the first Z-axis motion system (5) is driven by a first Z-axis drive (6), and the second Z-axis motion system (9) is driven by a second Z-axis drive (8).
5. 根据权利要求 1所述的无模铸造成形机, 其特征在于, 所述工作台 (13) 设 置于多轴运动***的下方; 所述工作台 (13) 的尺寸要求在长度方向至少不 小于 3米; 所述工作台 (13) 前后两侧设置有落砂槽 (16)。 The moldless casting molding machine according to claim 1, wherein the table (13) is disposed under the multi-axis motion system; and the size of the table (13) is required to be at least not in the length direction. Less than 3 meters; the sand table (16) is arranged on the front and rear sides of the table (13).
6. 根据权利要求 1所述的无模铸造成形机,其特征在于,所述第一支撑梁(15) 和第二支撑梁 (3) 分别固定于工作台 (13) 的左右两侧。 The moldless casting molding machine according to claim 1, wherein the first support beam (15) and the second support beam (3) are respectively fixed to left and right sides of the table (13).
7. 根据权利要求 1所述的无模铸造成形机,其特征在于,所述第一刀具***( 17) 安装于第一 Z轴运动*** (5) 上面, 所述第二刀具*** (18) 安装于第二 Z轴运动*** (9) 上面。
7. The dieless casting machine according to claim 1, wherein the first tool system (17) is mounted on a first Z-axis motion system (5), and the second tool system (18) Mounted on the second Z-axis motion system (9).
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CN114101594B (en) * | 2021-11-29 | 2024-04-19 | 北京机科国创轻量化科学研究院有限公司 | Intelligent high-efficiency dieless casting precision forming machine |
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