WO2016192140A1 - 3d-printing-based mold manufacturing method - Google Patents

3d-printing-based mold manufacturing method Download PDF

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Publication number
WO2016192140A1
WO2016192140A1 PCT/CN2015/082009 CN2015082009W WO2016192140A1 WO 2016192140 A1 WO2016192140 A1 WO 2016192140A1 CN 2015082009 W CN2015082009 W CN 2015082009W WO 2016192140 A1 WO2016192140 A1 WO 2016192140A1
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Prior art keywords
printing
printer
abrasive
manufacturing
abrasive tool
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PCT/CN2015/082009
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French (fr)
Chinese (zh)
Inventor
罗密欧
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亚意达(南京)石材机械有限公司
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Publication of WO2016192140A1 publication Critical patent/WO2016192140A1/en

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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B24GRINDING; POLISHING
    • B24DTOOLS FOR GRINDING, BUFFING OR SHARPENING
    • B24D18/00Manufacture of grinding tools or other grinding devices, e.g. wheels, not otherwise provided for
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B33ADDITIVE MANUFACTURING TECHNOLOGY
    • B33YADDITIVE MANUFACTURING, i.e. MANUFACTURING OF THREE-DIMENSIONAL [3-D] OBJECTS BY ADDITIVE DEPOSITION, ADDITIVE AGGLOMERATION OR ADDITIVE LAYERING, e.g. BY 3-D PRINTING, STEREOLITHOGRAPHY OR SELECTIVE LASER SINTERING
    • B33Y10/00Processes of additive manufacturing

Definitions

  • the invention relates to a method for manufacturing an abrasive tool, in particular to a method for manufacturing an abrasive tool based on 3D printing.
  • the grinding tools on the market are all cast from a mold, and the resin, the abrasive and some auxiliary materials are poured into the mold to form and solidify.
  • the production process generally includes the following processes: molding, batching, compounding, press molding, dry solidification molding or high temperature firing. Since the prior art manufacturing abrasive tools require a mold, the mold must be opened to cast the production, but the mold is opened. The cost is high and the cycle is long, which causes the factory to be mass-produced. This method of high cost, long cycle, and batch production is unable to meet the requirements of today's diversified, diversified and fast-moving markets.
  • the object of the present invention is to solve the problem of manufacturing a mold in a prior art and which is time consuming and costly, and to provide a method for manufacturing an abrasive tool based on 3D printing.
  • the 3D printing-based abrasive manufacturing method of the present invention is achieved by the method of manufacturing a 3D printing-based abrasive tool, comprising the following steps:
  • Configuring a 3D printer including configuring a sensor component of the printer to control the output positioning of the printer; configuring a processor component of the printer to control the printer print path; and configuring a timing component of the printer to control the operation of each processing component time;
  • the independent structures of the grinding tool are split, and the corresponding 3D model entities are separately formed and printed separately.
  • the abrasive and the auxiliary material are selected according to the abrasive tool, and the abrasive and various auxiliary materials are prepared, mixed into a polymer raw material which can be injection molded, blow molded, extruded, etc., and mixed to prepare a consumable for 3D printing. .
  • the environmental conditions of the 3D printer working section including temperature, humidity, gas composition and content, are controlled according to the abrasive forming process.
  • the 3D printing-based abrasive manufacturing method further includes storing a corresponding 3D solid model of the grinding tool through a storage medium.
  • the 3D printing-based grinding tool manufacturing method of the invention can produce various kinds of abrasive tools of various shapes at any time without opening the mold, and it is desirable to wait for several months. No need for mass production, single piece of abrasive can also be made. Low cost, zero inventory. It can be used in factories of all sizes and even in personal households to manufacture the abrasive tools you need. You only need to have a desktop 3D printer. You can print your own 3D printing supplies with abrasive materials. The required abrasive tools.
  • a method for manufacturing an abrasive tool based on 3D printing comprising the following steps:
  • the hardware part thereof comprises a 3D printer and a computer device
  • the computer device is used for designing or receiving a solid model of the abrasive tool of the other carrier, including drawing by the computer equipment installation engineering drawing software
  • the 3D solid model, or the entity scanned by a 3D scanning camera (such as a depth sensing camera) or a 3D physical scanner, is input to a computer, and then processed by a computer to generate a 3D solid model, which is transmitted to a 3D printer for printing.
  • Computer equipment and 3D printers are not limited to stand-alone devices, but can also be integrated with 3D printers to save space.
  • Independent 3D printers and computer devices can perform cross-regional operations, for example, acquiring a 3D solid model in A, and sending it to a 3D printer printed via B, Bluetooth, infrared or storage media.
  • 3D printing consumables According to the molding process of the abrasive tool and the 3D printing process, select the appropriate 3D printing consumables, mix the abrasive and various auxiliary materials, mix them into the polymer raw materials which can be injected, blown, extruded, etc., and mix them to make 3D.
  • Consumables for printing and assembly into 3D printers generally different abrasive tools are made of different materials depending on the environment in which they are used. Different 3D printing consumables are produced according to the environment of different abrasive tools, and different adaptations are made. A variety of abrasive tools.
  • the 3D printer can be produced by itself.
  • the abrasive manufacturer will pre-receive the 3D solid model of the abrasive tool and the configuration requirements to the purchaser.
  • Configuring a 3D printer including configuring a sensor component of the printer to control the output positioning of the printer; configuring a processor component of the printer to control the printer print path; and configuring a timing component of the printer to control the operation of each processing component time;
  • the configuration file can be compatible with different 3D printing systems, in the migration operation, the 3D solid model and configuration requirements need to be matched and applied to different 3D printing system relays.
  • the 3D printer receives the instruction to print the solid abrasive tool, and controls the environmental conditions of the 3D printer working interval according to the abrasive forming process, including temperature, humidity, gas composition and content.

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  • Engineering & Computer Science (AREA)
  • Manufacturing & Machinery (AREA)
  • Chemical & Material Sciences (AREA)
  • Materials Engineering (AREA)
  • Mechanical Engineering (AREA)

Abstract

A 3D-printing-based mold manufacturing method comprises the following steps: 1) generating, at a computer terminal, a 3D entity model corresponding to a mold; 2) selecting, according to a mold forming process and a 3D printing process, suitable 3D printing supplies; 3) configuring a 3D printer; and 4) printing a mold entity. The 3D-printing-based mold manufacturing method eliminates the need for building a mold, makes various molds having different shapes and at any time, delivers instant provision, eliminates the need for mass production, is capable of manufacturing only a single mold, and has low costs and zero stock.

Description

一种基于3D打印的磨具制造方法Abrasive tool manufacturing method based on 3D printing 技术领域Technical field
本发明涉及磨具制造方法,特别是一种基于3D打印的磨具制造方法。  The invention relates to a method for manufacturing an abrasive tool, in particular to a method for manufacturing an abrasive tool based on 3D printing.
背景技术Background technique
目前市场上的磨具都是由模具浇注而成,将树脂、磨料及一些辅料浇注进模具固化成型。其制作流程大致包括以下过程:制模、配料、混料、压制成型、干燥固化成型或高温烧制成型,由于现有技术制作磨具都需要模具,所以必须开模具才能浇注生产,但开模具成本高且周期长,造成工厂必须大批量生产。这种成本高、周期长、须批量才能生产的方式已无法适应当今多样化、多元化、快速化市场的要求。 At present, the grinding tools on the market are all cast from a mold, and the resin, the abrasive and some auxiliary materials are poured into the mold to form and solidify. The production process generally includes the following processes: molding, batching, compounding, press molding, dry solidification molding or high temperature firing. Since the prior art manufacturing abrasive tools require a mold, the mold must be opened to cast the production, but the mold is opened. The cost is high and the cycle is long, which causes the factory to be mass-produced. This method of high cost, long cycle, and batch production is unable to meet the requirements of today's diversified, diversified and fast-moving markets.
同时,因为以上制作流程的周期十分长,而工厂需要大批量生产才能保证经济效益,也就造成工厂需要常备大批量的库存以满足生产的需求。但是,磨具中的某些磨料的保质期很短,因此在较短的时间期间内,工厂必须消耗掉所有的库存,否则这些磨料过期后将变成废品,造成工厂的损失。 At the same time, because the cycle of the above production process is very long, and the factory needs mass production to ensure economic benefits, it also requires the factory to maintain a large inventory of large quantities to meet the production needs. However, certain abrasives in abrasive tools have a short shelf life, so in a relatively short period of time, the factory must consume all of the inventory, otherwise the abrasives will become waste after they expire, causing damage to the plant.
技术问题technical problem
由于磨具中各种成分的配比至关重要,各个厂家对自己的配方保密十分严格,所以只有专业的、有多年经验的工厂或工程师才能生产,无法满足广大市场的需求,而当设计出某个新磨具时,必须重新开模,而厂商又要考虑开模成本,在市场需求不足的情况下,厂商一般不会为某个新品单独开模,造成研发和生产滞后,不利于工业生产的发展。 Since the proportion of various components in the abrasive tool is very important, each manufacturer has strict confidentiality of its own formula, so only a professional factory or engineer with many years of experience can produce it, which cannot meet the needs of the vast market, and when designed When a new abrasive tool is used, the mold must be re-opened, and the manufacturer must consider the cost of mold opening. In the case of insufficient market demand, the manufacturer generally does not open a mold for a new product, resulting in lag in research and development and production, which is not conducive to industry. The development of production.
技术解决方案Technical solution
发明目的:本发明的目的是为了解决现有技术中制造模具耗时、耗成本的问题,提供一种基于3D打印的磨具制造方法。OBJECT OF THE INVENTION The object of the present invention is to solve the problem of manufacturing a mold in a prior art and which is time consuming and costly, and to provide a method for manufacturing an abrasive tool based on 3D printing.
技术方案:本发明所述的基于3D打印的磨具制造方法,其目的是这样实现的,一种基于3D打印的磨具制造方法,包括以下步骤:Technical Solution: The 3D printing-based abrasive manufacturing method of the present invention is achieved by the method of manufacturing a 3D printing-based abrasive tool, comprising the following steps:
1)在计算机端生成与磨具对应的3D实体模型,包括通过工程绘图软件或3D扫描相机(例如深度传感相机)或3D实体扫描仪构建模具对应的3D实体模型,并将3D实体模型映射到3D打印机的打印软件中;1) Generate a 3D solid model corresponding to the grinding tool on the computer side, including constructing a 3D solid model corresponding to the mold by engineering drawing software or a 3D scanning camera (for example, a depth sensing camera) or a 3D physical scanner, and mapping the 3D solid model To the printing software of the 3D printer;
2)根据磨具的成型工艺和3D打印工艺选择合适的3D打印耗材,并装配到3D打印机中;2) Select appropriate 3D printing consumables according to the molding process of the abrasive tool and the 3D printing process, and assemble into a 3D printer;
3)配置3D打印机,包括配置打印机的传感器组件,用以控制打印机的输出定位;配置打印机的处理器组件,用以控制打印机打印路径;配置打印机的时序组件,用以控制每个处理组件的作业时间; 3) Configuring a 3D printer, including configuring a sensor component of the printer to control the output positioning of the printer; configuring a processor component of the printer to control the printer print path; and configuring a timing component of the printer to control the operation of each processing component time;
4)打印作业,3D打印机接收指令打印实体磨具。4) The print job, the 3D printer receives the command to print the physical grinder.
当磨具具有多个独立的、不相互固接的结构时,在所述步骤1)中,将磨具的这些独立结构进行拆分,单独形成对应的3D模型实体,分别打印。When the grinding tool has a plurality of independent structures that are not fixed to each other, in the step 1), the independent structures of the grinding tool are split, and the corresponding 3D model entities are separately formed and printed separately.
所述步骤2)中,根据磨具选择磨料和辅料,将磨料及各种辅料配制后,混合到可以注塑、吹塑、挤出等的聚合物原料中,混合后制成3D打印用的耗材。In the step 2), the abrasive and the auxiliary material are selected according to the abrasive tool, and the abrasive and various auxiliary materials are prepared, mixed into a polymer raw material which can be injection molded, blow molded, extruded, etc., and mixed to prepare a consumable for 3D printing. .
所述步骤4)中,根据磨具成型工艺控制3D打印机作业区间的环境条件,包括温度、湿度、气体成分及含量。In the step 4), the environmental conditions of the 3D printer working section, including temperature, humidity, gas composition and content, are controlled according to the abrasive forming process.
所述基于3D打印的磨具制造方法,还包括通过存储介质将磨具对应的3D实体模型进行存储。The 3D printing-based abrasive manufacturing method further includes storing a corresponding 3D solid model of the grinding tool through a storage medium.
有益效果Beneficial effect
本发明所述的基于3D打印的磨具制造方法,无须开模,随时可生产出各式各样、各种形状的磨具,立等可取,无须再等上几个月的时间。无须批量生产,单件磨具也可制作。低成本、零库存。适用于各种规模的工厂、甚至个人家用也可以制造出自己所需要的磨具,只需要拥有一台桌面型的3D打印机,采购已混合了磨料进去的3D打印耗材,你就可以随时打印自己所需要的磨具。 The 3D printing-based grinding tool manufacturing method of the invention can produce various kinds of abrasive tools of various shapes at any time without opening the mold, and it is desirable to wait for several months. No need for mass production, single piece of abrasive can also be made. Low cost, zero inventory. It can be used in factories of all sizes and even in personal households to manufacture the abrasive tools you need. You only need to have a desktop 3D printer. You can print your own 3D printing supplies with abrasive materials. The required abrasive tools.
本发明的实施方式Embodiments of the invention
为了加深对本发明的理解,下面将结合实施例对本发明作进一步详述,这些实施例仅用于解释本发明,并不构成对本发明保护范围的限定。The present invention will be further described in detail with reference to the embodiments of the present invention, which are not to be construed as limiting the scope of the invention.
一种基于3D打印的磨具制造方法,包括以下步骤:A method for manufacturing an abrasive tool based on 3D printing, comprising the following steps:
1)在计算机端生成与磨具对应的3D实体模型,其硬件部分包括3D打印机和计算机设备,计算机设备用于设计或接收其它载体的磨具实体模型,包括通过计算机设备安装工程绘图软件绘制的3D实体模型,或通过3D扫描相机(例如深度传感相机)拍摄或3D实体扫描仪扫描的实体输入至计算机,再经过计算机处理生成3D实体模型,该3D实体模型被传输至3D打印机,实现打印。1) generating a 3D solid model corresponding to the grinding tool on the computer side, the hardware part thereof comprises a 3D printer and a computer device, and the computer device is used for designing or receiving a solid model of the abrasive tool of the other carrier, including drawing by the computer equipment installation engineering drawing software The 3D solid model, or the entity scanned by a 3D scanning camera (such as a depth sensing camera) or a 3D physical scanner, is input to a computer, and then processed by a computer to generate a 3D solid model, which is transmitted to a 3D printer for printing. .
计算机设备与3D打印机不限于独立的设备,也可与3D打印机集成,以达到节省空间的目的。而独立的3D打印机和计算机设备可以实现跨区域作业,例如,在甲地获取3D实体模型,通过网路、蓝牙、红外或存储介质发送至乙地的3D打印机打印。Computer equipment and 3D printers are not limited to stand-alone devices, but can also be integrated with 3D printers to save space. Independent 3D printers and computer devices can perform cross-regional operations, for example, acquiring a 3D solid model in A, and sending it to a 3D printer printed via B, Bluetooth, infrared or storage media.
2)根据磨具的成型工艺和3D打印工艺选择合适的3D打印耗材,将磨料及各种辅料配制后,混合到可以注塑、吹塑、挤出等的聚合物原料中,混合后制成3D打印用的耗材,并装配到3D打印机中;一般不同的磨具根据使用环境,其材质也不一样,根据不同磨具的使用环境,结合3D打印工艺制作不同的3D打印耗材,并适配不同种类的磨具。这样,当磨具使用者可以根据需求购买与使用磨具对应的3D打印耗材,结合3D打印机自行生产。当然,磨具制造商会预先将磨具对应的3D实体模型以及配置要求告之购买者。2) According to the molding process of the abrasive tool and the 3D printing process, select the appropriate 3D printing consumables, mix the abrasive and various auxiliary materials, mix them into the polymer raw materials which can be injected, blown, extruded, etc., and mix them to make 3D. Consumables for printing and assembly into 3D printers; generally different abrasive tools are made of different materials depending on the environment in which they are used. Different 3D printing consumables are produced according to the environment of different abrasive tools, and different adaptations are made. A variety of abrasive tools. In this way, when the user of the abrasive tool can purchase 3D printing consumables corresponding to the use of the abrasive tool according to the requirements, the 3D printer can be produced by itself. Of course, the abrasive manufacturer will pre-receive the 3D solid model of the abrasive tool and the configuration requirements to the purchaser.
3)配置3D打印机,包括配置打印机的传感器组件,用以控制打印机的输出定位;配置打印机的处理器组件,用以控制打印机打印路径;配置打印机的时序组件,用以控制每个处理组件的作业时间; 并生产配置要求文件,该配置文件可以兼容于不同的3D打印系统,在移植作业时,需将3D实体模型以及配置要求配套,应用于不同的3D打印系统中转。3) Configuring a 3D printer, including configuring a sensor component of the printer to control the output positioning of the printer; configuring a processor component of the printer to control the printer print path; and configuring a timing component of the printer to control the operation of each processing component time; And the production configuration requirements file, the configuration file can be compatible with different 3D printing systems, in the migration operation, the 3D solid model and configuration requirements need to be matched and applied to different 3D printing system relays.
4)打印作业,3D打印机接收指令打印实体磨具,根据磨具成型工艺控制3D打印机作业区间的环境条件,包括温度、湿度、气体成分及含量。4) The print job, the 3D printer receives the instruction to print the solid abrasive tool, and controls the environmental conditions of the 3D printer working interval according to the abrasive forming process, including temperature, humidity, gas composition and content.
上述实施例只为说明本发明的技术构思及特点,其目的在于让熟悉此项技术的人士能够了解本发明的内容并据以实施,并不能以此限制本发明的保护范围,凡根据本发明精神实质所作的等效变化或修饰,都应涵盖在本发明的保护范围之内。The above embodiments are only intended to illustrate the technical idea and the features of the present invention, and the purpose of the present invention is to enable those skilled in the art to understand the contents of the present invention and to implement the present invention. Equivalent changes or modifications made to the spirit of the spirit should be covered by the scope of the present invention.

Claims (1)

  1. 1.一种基于3D打印的磨具制造方法,其特征在于,包括以下步骤:A method for manufacturing an abrasive tool based on 3D printing, comprising the steps of:
    1)在计算机端生成与磨具对应的3D实体模型,并将3D实体模型映射到3D打印机的打印软件中;1) generating a 3D solid model corresponding to the abrasive tool on the computer side, and mapping the 3D solid model to the printing software of the 3D printer;
    2)根据磨具的成型工艺和3D打印工艺选择合适的3D打印耗材,并装配到3D打印机中;2) Select appropriate 3D printing consumables according to the molding process of the abrasive tool and the 3D printing process, and assemble into a 3D printer;
    3)配置3D打印机,包括配置打印机的传感器组件,用以控制打印机的输出定位;配置打印机的处理器组件,用以控制打印机打印路径;配置打印机的时序组件,用以控制每个处理组件的作业时间; 3) Configuring a 3D printer, including configuring a sensor component of the printer to control the output positioning of the printer; configuring a processor component of the printer to control the printer print path; and configuring a timing component of the printer to control the operation of each processing component time;
    4)打印作业,3D打印机接收指令打印实体磨具。4) The print job, the 3D printer receives the command to print the physical grinder.
    2.根据权利要求1所述的基于3D打印的磨具制造方法,其特征在于,所述步骤1)中,将磨具的这些独立结构进行拆分,单独形成对应的3D模型实体,分别打印。2 . The 3D printing-based abrasive manufacturing method according to claim 1 , wherein in the step 1), the independent structures of the abrasive tools are split, and the corresponding 3D model entities are separately formed and printed separately. .
    3.根据权利要求1所述的基于3D打印的磨具制造方法,其特征在于,所述步骤2)中,根据磨具选择磨料和辅料,将磨料及各种辅料配制后,混合到可以注塑、吹塑、挤出等的聚合物原料中,混合后制成3D打印用的耗材。3 . The 3D printing-based abrasive manufacturing method according to claim 1 , wherein in the step 2), the abrasive and the auxiliary material are selected according to the abrasive tool, and the abrasive and various auxiliary materials are prepared and mixed to be injection-molded. The polymer raw materials such as blow molding and extrusion are mixed to prepare a consumable for 3D printing.
    4.根据权利要求1所述的基于3D打印的磨具制造方法,其特征在于,所述步骤4)中,根据磨具成型工艺控制3D打印机作业区间的环境条件,包括温度、湿度、气体成分及含量。4 . The 3D printing-based abrasive manufacturing method according to claim 1 , wherein in the step 4), the environmental conditions of the 3D printer working section are controlled according to the abrasive forming process, including temperature, humidity, and gas composition. 4 . And content.
    5.根据权利要求1所述的基于3D打印的磨具制造方法,其特征在于,所述基于3D打印的磨具制造方法,还包括通过存储介质将磨具对应的3D实体模型进行存储。5 . The 3D printing-based abrasive tool manufacturing method according to claim 1 , wherein the 3D printing-based abrasive tool manufacturing method further comprises storing a 3D solid model corresponding to the abrasive tool through a storage medium. 6 .
PCT/CN2015/082009 2015-06-03 2015-06-23 3d-printing-based mold manufacturing method WO2016192140A1 (en)

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CN201510299041.XA CN104924499A (en) 2015-06-03 2015-06-03 Abrasive tool manufacturing method based on 3D printing
CN201510299041.X 2015-06-03

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