机械设计制造及其自动化专业英语part3
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机械设计制造及其自动化英语·Mechanical Design, Manufacturing, and Automation.Introduction.Mechanical design, manufacturing, and automation are crucial fields in modern engineering, driving the progress of industries and revolutionizing production processes. This article delves into the intricacies of these domains, discussing their significance, advancements, and future prospects.Mechanical Design.Mechanical design involves the creation of machines and devices that convert energy into useful work. It encompasses various aspects, such as materials selection, stress analysis, kinematics, dynamics, and thermal design. Designers must consider factors like functionality, durability, cost, and ease of maintenance.With the advent of computer-aided design (CAD) tools, mechanical design has become more efficient and precise. These software applications allow designers to create 3D models, simulate real-world conditions, and optimize designs for optimal performance.Manufacturing.Manufacturing refers to the process of converting raw materials into finished products. It involves various processes such as casting, forging, machining, welding, and assembly. Manufacturing technologies have evolved significantly, leading to increased productivity, cost savings, and better product quality.One of the most significant advancements in manufacturing is the integration of automation. Robotic systems, sensors, and intelligent controllers have transformed manufacturing floors, enabling precise, repeatable, and efficient production.Automation.Automation refers to the use of control systems and machines to perform tasks without human intervention. It plays a pivotal role in mechanical design, manufacturing, and other engineering fields. Automation systems can be programmed to perform complex tasks accurately and reliably, reducing human error and improving operational efficiency.With the advent of artificial intelligence (AI) and machine learning, automation has become even more sophisticated. These technologies enable machines to learn and adapt, optimizing production processes in real-time and responding to changing conditions.Conclusion.Mechanical design, manufacturing, and automation are integral parts of modern engineering, driving industrial progress and revolutionizing production processes. The integration of advanced technologies, such as CAD tools, robotic systems, sensors, AI, and machine learning, hasfurther transformed these fields, making them more efficient, precise, and adaptable.As we look towards the future, the potential forfurther advancements in mechanical design, manufacturing, and automation is immense. We can expect to see even more innovative solutions that will further revolutionize industries, improve production efficiency, and enhance product quality.In conclusion, the fields of mechanical design, manufacturing, and automation are crucial in driving industrial progress and innovation. They are constantly evolving, and the integration of advanced technologies will continue to transform these domains, leading to even greater achievements in the future.。
机械设计制造及其自动化英语Mechanical design, manufacturing, and its automation are essential aspects of various industries, including automotive, aerospace, electronics, and more. These processes involve the creation of mechanical systems and components, as well as the use of advanced technologies to automate production and improve efficiency.The field of mechanical design encompasses the creation of detailed plans and specifications for machines, tools, and mechanical systems. This involves the use of computer-aided design (CAD) software to create 2D and 3D models, as well as the selection of materials and the consideration of factors such as stress, heat, and other environmental conditions.Manufacturing involves the production of mechanical components and systems using a variety of techniques, including machining, casting, molding, and 3D printing. This process requires a deep understanding of materials, production processes, and quality control to ensure that the final products meet the required specifications and standards.Automation plays a crucial role in modern mechanical design and manufacturing, as it enables the use of robots, computer numerical control (CNC) machines, and other advanced technologies to streamline production processes and increase efficiency. This not only reduces the need for manual labor but also allows for the production of complex components with high precision and consistency.Overall, the integration of mechanical design, manufacturing, and automation is essential for the development of innovative products and the advancement of various industries. By utilizing advanced technologies and expertise in these areas, companies can improve their competitiveness and meet the ever-changing demands of the global market.在机械设计、制造和自动化方面的进展,对各行各业都产生了深远的影响。
介绍机械设计制造及其自动化英语Mechanical design and manufacturing has always been a vital part of the industrial sector. It involves the creation, development, and production of various mechanical equipment and devices. With the advancement of technology, the field of mechanical design and manufacturing has also evolved, leading to the introduction of automation in the production process.Mechanical design is the process of creating detailed drawings and specifications for mechanical devices and equipment. This involves the use of computer-aided design (CAD) software to create 2D and 3D models of the products, allowing for precise and accurate design. The design phase also includes the selection of materials, components, and manufacturing processes to ensure the efficiency and performance of the end product.Manufacturing, on the other hand, involves the actual production of the designed mechanical products. This includes various processes such as machining, casting, forging, and welding, among others. The goal of manufacturing is to produce high-quality products in a cost-effective and efficient manner.In recent years, automation has become an integral part of mechanical design and manufacturing. Automated systems and robotics have revolutionized the production process, allowing for increased productivity, reduced labor costs, and improved quality control. Automation has also enabled manufacturers to carry out complex and repetitive tasks with precision and speed, leading to higher output and reduced lead times.Overall, mechanical design and manufacturing, along with automation, play a crucial role in the development of various products and technologies across different industries. With the continuous advancements in technology, the field is expected to further evolve and improve, leading to more efficient and sustainable production processes.The integration of automation in mechanical design and manufacturing has significantly impacted the industry by improving efficiency, reducing human error, and streamlining production processes. Robotics, computer numerical control (CNC) machines, and other automated systems have transformed the way mechanical products are designed, developed, and manufactured.One of the key advantages of automation in manufacturing is the ability to carry out tasks with a high level of accuracy and consistency. Automated systems can perform intricate operations such as precision machining and assembly with minimal deviations, resulting in products with tight tolerances and high quality. This level of precision is often difficult to achieve through manual processes alone.Moreover, automation has also led to improved workplace safety and reduced labor costs. By automating repetitive and potentially hazardous tasks, workers are less exposed to physical risks and can focus on more skilled and strategic aspects of production. Additionally, automated systems can often operate continuously, leading to greater output while minimizing the need for extensive human intervention.In terms of manufacturing flexibility, automation has allowed forrapid reconfiguration of production processes. Modern manufacturing facilities are equipped with flexible robotic systems that can quickly adapt to changes in product designs or specifications, thereby reducing the time and resources required to retool production lines.Furthermore, automation has played a significant role in enhancing the overall speed of production. Automated machines and robotics are capable of operating at high speeds without compromising accuracy, leading to increased throughput and shorter production cycles. This accelerated pace allows manufacturers to respond more effectively to market demands and customer requirements.Looking ahead, the future of mechanical design and manufacturing is likely to be further shaped by advanced automation technologies such as machine learning, artificial intelligence, and the Internet of Things (IoT). These technologies will enable even greater levels of efficiency, predictive maintenance, and real-time monitoring, transforming the industry and paving the way for the next generation of smart factories and production systems.In conclusion, the integration of automation into mechanical design and manufacturing has revolutionized the industry by enhancing precision, safety, flexibility, and speed. As automation technologies continue to advance, the potential for further improvements in productivity, quality, and sustainability within the mechanical design and manufacturing sector is considerable.。
Mechanical properties of Materials材料的机械特性The materials properties can be classified into three major heading:(i)Physical,(ii)Chemical,(iii)Mechanical。
材料的特性可以分为三个重要的部分:1 是物理特性,2 是化学特性,3 是机械特性。
Physical Properties物理特性Density or specific gravity, moisture content, etc., can be classified under this category.密度或者比重,水分含量等,都被分为这一类的范畴Chemical Properties化学特性Many chemical properties come under this category. These include acidity or alkalinity,许多化学特性都归入到这个范畴。
这些特性包括酸性或碱性reactivity and corrosion. The most important of these is corrosion which 反应性和腐蚀性。
can be explained in layman’s terms as the resistance of the material to decay while in continuous use in a particularatmosphere这些中最重要的是耐腐蚀性,它可以被解释为在外行人看来作为材料在特定大气中长期使用时抵抗腐蚀的能力。
Mechanical Properties(机械特性)Mechanical properties include the strength properties like tensile, compression, shear, torsion, impact, fatigue and creep.机械特性包括拉伸,压缩,剪切,扭转,冲击,疲劳和蠕变等强度特性。
机械设计制造及其自动化专业的英语Mechanical Design and Manufacturing AutomationMechanical Design and Manufacturing Automation is a specialized field that combines principles of mechanical engineering, manufacturing, and automation to design and develop complex manufacturing systems and processes. Graduates of this program are equipped with the knowledge and skills to create innovative solutions for industries such as aerospace, automotive, biomedical, and consumer goods.Curriculum for this program typically covers topics such as computer-aided design (CAD), computer-aided manufacturing (CAM), robotics, materials science, and control systems. Students also learn about project management, quality control, and compliance with industry standards and regulations.Career opportunities for graduates of Mechanical Design and Manufacturing Automation include positions in design engineering, manufacturing engineering, process engineering, and automation engineering. Graduates may also pursue careers in research and development, technical sales, or pursue advanced degrees in related fields.This field is constantly evolving, with new technologies and innovations shaping the future of manufacturing. Graduates who stay current with industry trends and advancements will be well-positioned to succeed and contribute to the growth of this exciting field.The Mechanical Design and Manufacturing Automation program focuses on training students on the design and development ofmechanical systems and their associated manufacturing processes. The curriculum includes courses in engineering mechanics, materials science, thermodynamics, fluid mechanics, computer-aided design and manufacturing, and automation and control systems.Students in this program also learn about modern manufacturing technologies such as CNC machining, rapid prototyping, and robotics. They are trained to use industry-standard software such as SolidWorks, AutoCAD, and CAMWorks to design, simulate, and manufacture mechanical components and systems.Graduates from the Mechanical Design and Manufacturing Automation program are equipped with the skills needed to work as mechanical designers and engineers in a variety of industries such as automotive, aerospace, and industrial manufacturing. They may also pursue careers in research and development, product design, or project management.。
机械设计制造及其自动化专业英语Mechanical Design and Manufacturing and Its Automation MajorIn recent years, with the development of modern industry, the technology and equipment of mechanical manufacturing have made great progress. As the core discipline of mechanical engineering, mechanical design and manufacturing has received increasing attention. It has become an important part of modern industrial production and plays a vital role in promoting the development of the manufacturing industry.In the process of mechanical design and manufacturing, automation technology has gradually become popular and has been widely used. The application of automation technology improves production efficiency, reduces production costs, and enhances the overall competitiveness of products.In the field of mechanical design and manufacturing, there are various advanced technologies, such as computer-aided design (CAD), computer-aided manufacturing (CAM), and computer-aided engineering (CAE). These technologies have greatly improved the precision and efficiency of mechanical design and manufacturing. Furthermore, with the development of the Internet of Things (IoT) and artificial intelligence (AI), the automation level of mechanical manufacturing will be further improved, promoting the development of smart factories and intelligent manufacturing.In conclusion, the mechanical design and manufacturing industry is constantly advancing, and the application of automationtechnology is becoming increasingly important. As a result, the demand for professionals in this field is also growing. Students majoring in mechanical design and manufacturing and its automation should keep abreast of the latest developments and continuously improve their professional skills to meet the needs of the industry.当今,机械设计制造及其自动化专业的毕业生具有广阔的就业前景。
Unit 1 Metals金属Unit 2 Selection of Construction Materials工程材料的选择Unit 3 Mechanical Properties of MaterialsUnit5 Design of machine and machine elements机器和机器零件的设计Machine design机器设计1 Machine design is the art of planning or devising new or improved machines to accomplish specific purposes. In general, a machine will consist of a combination of several different mechanical elements properly designed and arranged to work together, as a whole. During theinitial planning of a machine, fundamental decisions must be made concerning loading, type of kinematic elements to be used, and correct utilization of the properties of engineering materials. Economic considerations are usually of prime importance when the design of new machinery is undertaken. In general, the lowest over-all costs are designed. Consideration should be given not only to the cost of design, manufacture the necessary safety features and be of pleasing external appearance. The objective is to produce a machine which is not only sufficiently rugged to function properly for a reasonable life, but is at the same time cheap enough to be economically feasible.机器设计为了特定的目的而发明或改进机器的一种艺术。
机械设计制造及其自动化英文专业Mechanical Design, Manufacturing and Automation is a branch of engineering that deals with the creation and development of machines and other mechanical systems. It involves designing, analyzing, fabricating, and maintaining mechanical systems to be efficient, effective, and safe from a variety of perspectives. Mechanical engineers work hard to ensure the products they design are both safe and durable.Mechanical Design and Manufacturing is a comprehensive field that encompasses all aspects of the design and creation of machinery. Among its many areas of coverage, some of the most critical processes are product design, mechanical design, and manufacturing processes. The key aim of mechanical design and manufacturing is to create a valuable, safe, useful product that meets market demand.Product Design is a fundamental part of mechanical engineering that begins with conceptualizing and designing the essential elements of a product. It involves researching the product’s intended use, functio nality, target audience, and the cost involved in its production. Having a clear understanding of all these aspects helps in the design process by creating a product that meets the needs of users and is affordable from a manufacturing perspective.Mechanical Design, on the other hand, involves engaging in the actual breakdown of the product design into essential components and systems. By breaking down the product design into smaller, simpler parts, it becomes easier to analyze the product’s behavior, optim ize the design, and improve overall functionality. During the mechanical design process, engineers look atfactors such as structural integrity, material strength, and the operation of different equipment systems. In addition, mechanical design engineers may also work to add features, such as increasing amachine’s efficiency, reducing waste or energy consumption, and improving its overall performance.Manufacturing Processes involves turning the design into reality. It is crucial to have the ability to convert a design into a finished product without any loss in functionality or performance. In particular, manufacturing involves fabricating, testing, and refining the product using mathematical calculations, manufacturing simulations, and similar evaluation tools. Several manufacturing processes are used to bring products to life, including CNC machining, welding, 3D printing, and other modern technologies.Automation in the mechanical design and manufacturing process is an emerging area of interest that aims to improve efficiency and accuracy while reducing costs. Automation involves using machines, sensors, and various computer systems to perform repetitive, time-consuming manufacturing tasks without human intervention. It leads to a vast improvement in the design process,speeding up the product development process while ensuring high-quality output.In conclusion, Mechanical Design, Manufacturing, and Automation is a critical field that has a significant impact on every aspect of modern life. It affects everything we use, from simple household appliances to complex machines and aircraft. The goal of mechanical design and manufacturing is to create innovative products that are both profitable and beneficial, with a focus on safety, functionality, and accessibility to the end consumer. The integration of new and emerging technologies such as automation has a significant role to play in delivering efficiency and faster production timeframes. As technology continues to evolve, there will be greater opportunities for advancements in mechanical design, manufacturing, and automation that will result in significant progress in various industries’ productivity and profitability.。
机械设计制造及其自动化英文Mechanical Design, Manufacturing and AutomationMechanical design, manufacturing, and automation are essential components of the modern industrial economy. These fields encompass the creation and production of a wide variety of products, from consumer goods to high-tech machinery.In mechanical design, engineers utilize computer-aided design (CAD) software to develop and optimize the design of mechanical components and systems. This allows for the creation of precise and efficient designs that can be easily modified and tested before production begins.Once the design phase is complete, manufacturing processes take over to bring the design to life. This involves a combination of traditional machining techniques and advanced manufacturing technologies such as 3D printing and robotic assembly. The goal of manufacturing is to efficiently produce high-quality products at scale, while minimizing waste and cost.Automation plays a crucial role in both the design and manufacturing phases. Automated systems and robotics are widely used to streamline production processes, increase precision, and improve overall efficiency. This can include automated assembly lines, robotic machining, and computer-controlled quality control systems.Overall, the integration of mechanical design, manufacturing, and automation has revolutionized the way products are created andproduced. By leveraging the latest technologies and technical expertise, businesses are able to innovate and bring new productsto market more quickly and efficiently than ever before.当今的机械设计、制造和自动化技术也在不断创新。
机械设计制造及其自动化专业英语part3Unite24 计算机数字控制数字控制本世纪我们可以看到机器变得更加自动化,因此消除机器工作过程中的人工干预。
然而,随着自动化的发展,机器变得更加专业化。
一个高度自动化的机床(一天能够生产2万件)通常只能生产一种零件。
直到最近原型和小批量零件通常在传统的机床上手工制造。
随着新的难以加工的材料的出现以及对公差精度的要求达到万分之一,最好的操作工已达到他们能力的极限。
这些需求,以及对零件加工柔性的需求,导致了自动控制机器的出现。
通常叫做数字控制(通常缩写为NC,)NC的历史开始于19世纪50年代后期,当john提出一种自动机器控制方法(控制机床的铣刀产生光滑的曲线)正如他所设想,坐标点在穿孔卡片上进行编码并送给机床控制器(使经改进的铣床以小增量步长运动从而得到所需轨迹)在1949年,美国空军委托伺服机构实验室(麻省理工学院)开发一种可工作的数控系统(基于parson概念)M.I.T的科学家和工程师选择穿孔的纸带作为通讯介质。
最初构建两轴的点对点的系统(在坐标系中确立钻头的位置)。
后来,一个更复杂的连续路径的铣床被制造出来,独立的机床制造商随后开发了现在的这种系统。
到1957年第一台成功的数控机床在生产中得到应用。
然而,许多用户都在将零件程序输入机床控制器中经历困难,为了改变这种情形,MIT的专家开始开发了基于计算机零件编程语言的刀具控制程序自动编制系统。
目标是以直接的方式确定数学关系。
在1962年第一台APT自动编程系统发布(对于一般工业应用)数控技术的开发在两个主要方面进行,硬件开发集中在对控制系统和机床刀具的改进。
复杂的数控机床和控制系统在1965年之前对于每个主要的机床工具结构都可应用。
软件的开发集中在APT语言的改进和其他NC编程系统的开发。
总体基本原理的变化开始于70年代。
数控之后被看做更大的一个概念——计算机辅助制造。
CAM不仅包含数控也包括生产控制和监控、物料管理和工艺编制。
计算机在制造过程中应用的强调从而产生新的数控形式:CNC和DNC。
数控继续发展,在科幻小说中出现的可能性现在被看做可以达到的目标。
数控表现最好的地方其他专业自动化的机床表现不好。
NC是一个能解释预先以符号形式录制的指令的系统。
它能够使被控机床执行指令并监控执行的结果,从而保持所需要的精度和功能。
NC并不是一种机床而是一种技术(控制大量机床)。
由于这个原因,NC被应用到装配机器、检测设备、绘图机、打字机、木工机器(仅仅列出几种应用)以及金属加工机床。
因为NC最开始是为机床开发的,并且因为NC金属切削机床构成NC应用的大部分,因此我们文章中专指数控机床。
数控系统形成一种通讯联系(和传统工艺有许多的相似性)一个简化的示意图(大多数重要的数控系统元件)。
如图所示。
符号指令被输入到控制单元(解码。
进行所需要的逻辑运算并输出精确指令控制机床的运行)。
许多NC系统包括检测装置(将机床状态传回指令控制单元)。
正是这一个反馈使得控制能够验证机床操作与输入符号指令一致。
Unite25 机器人工业机器人变为现实。
在60年代早期,当时约瑟夫和乔治联合成立的叫做通用机械手公司。
机器人并不是简单的另外一种自动化机器。
自动化开始于工业革命期间,在这期间由及其完成以前人类完成的工作。
然而,这种机器只能做设计专一的工作,而机器人可以完成多种工作。
机器人必须有手臂,这个手臂能够要再现人类工作者在装卸自动化机器的工作。
喷漆机器人、焊接机器人完成成千上百的工作(由传统自动化机器不容易完成的)机器人定义机器人工业协会发布关于机器人的定义,试图澄清哪种机器是简单自动化机器,哪种机器时真正的机器人。
RIA给出的定义如下:机器人是一种可重新编程的、多功能的机械手,为实现各种任务设计成通过可改变的程序动作来移动材料、零部件、工具或专用装置。
这个定义,RIA在本书最后的词汇表中给出的解释更加广义。
是机器人的最准确定义。
我们将逐字看这个定义。
为了理解哪种机器实际上是机器人,那种机器不过是自动化机床。
首先,机器人是一个可重复编程的功能机械手。
在这个词组里,RIA告诉我们机器人可以学习(可重复编程)不只做一种工作。
通过改变存储器里面的信息,机器人可通过再编程实现从机床上装卸物料、焊接并且能做其他多种工作(多功能的)。
机器人是一个机械手。
操作手是一个可以捡起和移动东西的手。
基于这点我们知道机器人是一个可以学习做不同工作的手臂。
机器人被设计移动物料、零件、工具或专用设备的定义继续叙述。
这些材料包括木料、钢材、塑料、纸板——常在产品制造中用到的东西。
机器人也能处理已经制造好的零件。
例如,机器人可以把一块钢材装到自动车床并把车床上加工好的零件取下来。
除了处理物料和零件,机器人还能够和磨床。
缓冲器、螺丝刀以及焊接工具配合完成有用的工作。
机器人还能够和专业化仪器或设备配合在制造厂做专业的工作。
机器人能够和电视摄像头配合对零件或产品进行检查。
他们能过和激光配合精确测量被加工零件的尺寸。
RIA定义以这样的词组解释“通过可变程序的动作完成多种工作”这话强调,机器人可以在制造厂做多种不同的事实。
机器人能够做的工作的多样性仅仅受应用工程师创造性的限制。
机器人的工作机器人所做的工作主要分成两大类:有害的工作和重复的工作。
有害工作许多机器人做对人类有害的工作。
这种工作被认为是有害的是因为毒烟、被处理材料的重量、温度,危险的工作靠近回转机械或钻床或环境中包含过高辐射。
重复工作除了承担有害工作,机器人非常适合于做完全重复性工作(在制造厂里是必须的)制造厂的许多工作需要一个人表现得更像机器人而不是人。
工作可能是把一个东西从这里建起来放到那里。
同样的工作一天完成上千次,工作几乎不需判断和技术,这不是对做这种工作的人的批判,而是想简单的指出工厂里面确实存在这么多的工作是完成产品必须做的。
机器人能够放在这个这个工位很好地完成这个工作,没有埋怨,不会疲劳或厌烦。
Unite27 柔性制造系统制造系统的发展可以用图形方式表示,如图。
制造工艺过程和系统处于从手工操作到最终完全实现集中制造的过渡状态。
在计算机集成制造之前的状态称为柔性制造。
柔性是现代制造装备的一个重要特征,它意味着制造系统是万能的。
适应的同时能够处理生产率较高的生产线。
一个柔性制造系统的通用性在于它能生产多种零件。
它的适应性在于它能够通过快速改进生产完全不同的轮廓。
这种灵活性是这个竞争的国际市场决定成败。
它是一个有关平衡的问题。
独立数控机床具有高度的柔性,但是只适用于相对小批量的生产线。
另一方面,自动线适合大批量生产线,但是他们的灵活性不够。
柔性制造试图使用这样一种技术以获得灵活性和流水线生产之间的最佳平衡。
这些技术包括自动化物料处理、成组技术和计算机分布式控制。
FMS是具有自动送料系统的单台机器或机组。
自动送料系统由计算机控制,并具有操作工具的能力。
因为其具有操作工具的能力和计算机控制。
这种系统能不断地调控来制造各种各样零件。
这就是他被称为FMS的原因。
称为FMS的制造系统必须的关键因素如下:1.计算机控制。
2. 自动化送料能力。
3.刀具处理功能。
柔性制造代表向完全集成制造系统的目标迈出了一大步,在于它涉及自动化生产过程的集成。
在柔性制造中,自动化制造机床(车床、铣床、钻床)以及自动物料处理系统通过计算机网络共享即时通讯。
这是小规模的集成。
柔性制造概述:柔性制造通过集成一些自动化制造概念向完全集成制造的目标迈出了一大步。
1.单台机床的计算技数控。
2.制造系统的分布式数控。
3.自动物料处理系统。
4.成组技术(相似零件)当这些自动工艺过程,机器和概念在一个集成系统中集成在一起,就产生了FMS人和计算机在FMS中起重要作用。
当然人的劳动量和手工操作制造系统相比是很小的。
然而,让人依然在FMS操作过程中起关键作用,人的任务包括以下几个方面:1.设备故障排除、维护和修理。
2。
工具更换与设置。
3.对系统的加载与卸载。
4.数据输入5.零件程序的改变。
6。
程序开发柔性制造系统设备与所有制造装备一样,必须出在监控下当一个问题被发现,维修工人必须确定他的原因并且给出改正措施。
人也执行提出的方案或维修故障的设备。
即使所有的系统都正常工作,周期性的保养也是必须的。
操作工人在必要的时候也设置机床,更换刀具,重新配置系统。
FMS的刀具处理能力降低并没有根除刀具更换和设置中的人工干预,同样FMS的加载和卸载也一样。
一旦原料被加载到自动化物料处理系统中,它按照规定路径在系统中流动。
然而,物料处理系统原始的加载仍然由人工操作者完成。
最终产品的卸载也是如此。
人类也需要和计算机交互。
人类开发零件程序(通过计算机控制FMS)。
他们也在必要的时间更换程序,当需要重新调整FMS制造另一类零件,在制造操作中,人类也输入FMS 需要的数据,人在FMS中扮演并劳动不大的角色,但是作用仍然是重大的。
FMS中各个层次的控制由计算机提供。
FMS中单台机床由CNC控制,总的系统由DNC控制。
自动物料处理系统有计算机控制,其他功能包括数据采集、系统的监控、刀具的控制、运输及控制也是如此。
人机交互是FMS柔性的关键。
Unite28计算机集成制造国际竞争与制造业国际竞争促使能够在全球市场竞争的高质量产品的需求。
组着日益激烈竞争的结果,加快了产品和系统开发的步伐,从而使得制造商进入这样一个时代。
在这个时代持续不断改善产品的质量不在单纯是竞争的优势。
而只是生存的手段。
随着产品的寿命周期降低,对质量的要求提高,人们把注意力集中在提高产品质量,提升公司的竞争力(通过好的设计、制造、管理和市场)。
显然的,提高制造效率,改进产品质量将会是分享国际市场的最重要因素。
全球制造业现在正经历一场快速的结果转换。
随着这个过程的持续,我们的制造工业正经受困难。
因为它面对一个变化的,更具竞争力的环境和市场。
显然,我们不能维持我们的工业基础和生活水平(没有一个有效的制造工业)为了加入全球竞争,为了分享国际市场的份额,以及增加我们总的生产要素的生产和制造劳动生茶率,我们的制造业要实行两大策略。
第一个是改变我们现在做事的方式。
比如改进企业的管理。
第二个是开发应用高科技。
比如,计算机集成制造技术和集成信息管理。
计算机辅助设计在一个显示屏上定义描述产品。
计算机辅助工程分析生产性能和生产率,CAM使车间工艺实现自动化。
结果,更快,更便宜,更安全,更好的生产和运行能够达到,制造工业的发展广泛认为工业化过程实质上是自动化过程。
从自动化观点来看,工业自动化的发展可以分为四个阶段:第一阶段、劳动密集型工业。
在这个阶段,产品效率和质量主要依赖于人类操作者运用简单机器(没有自动化控制和操作)的技能。
设备维护主要依靠个人经验。
第二阶段、设备密集型工业。
自动化设备在产品竞争中占据主导作用。