Top 50 automation companies of 2015

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2015世界五百强企业排行榜【完整榜单】

2015世界五百强企业排行榜【完整榜单】

317 印第纺织/Inditex
西班牙
330 CaixaBank银行/CaixaBank
西班牙
402 曼弗雷保险/Mapfre
西班牙
435 ACS集团/Grupo ACS
西班牙
449 土耳其担保银行/Garanti Bank
土耳其
496 Ko?控股/Ko? Holding
土耳其
225 泰国国家石油/PTT PCL
泰国
116 沙特基础工业公司/Saudi Basic 405 I沙nd特us电tr信ie/sSaudi Telecom
沙特阿拉伯 沙特阿拉伯
474 沙特电力公司/Saudi Electricity 沙特阿拉伯
488 国家商业银行National Commercial 30 B雀an巢k公司/Nestle
378 英国航空航天系统/BAE Systems
英国
404 巴克莱银行/Barclays
英国
419 英国国际航空公司/International 426 A英ir国li天ne空s广播公司/British Sky 430 B苏ro格ad兰ca皇st家i银ng行/Royal Bank of 461 S怡co安tl保an险d/Aon
251 P万ro科pe集rt团ie/sChina Vanke
中国大陆
269 阿里巴巴/Alibaba
中国大陆
273 华夏银行/Huaxia Bank
中国大陆
304 腾讯控股/Tencent Holdings
中国大陆
308 新华人寿保险/New China Life 309 I北ns京ur银an行ce/Bank of Beijing
146 瑞士再保险/Swiss Re

拓斯达 辅机系统 高端智能装备产品说明书

拓斯达 辅机系统 高端智能装备产品说明书

作为中国整厂自动化第一品牌,拓斯达专注于高端智能装备,主张 的品牌价值,即随着技术不断进步与突破,用智能系统替代人工,开拓可替代的应用领域,推动产业进步助力企业发展,同时把制造业从劳动密集型带入完全的自动化,回归到自然,人性,和谐的状态。

新出现的文明与传统的旧工业文明有许多矛盾之处:它既有高度的科学技术,同时又是反工业化的。

As the top brand of complete factory automation in China, TOPSTAR focuses on high-end innovative equipment, proposes the brand value of. We initiate to replacelabor with intelligent systems, expand replaceable application areas and promote industrial progress to help enterprise developing, transform labor intensive type to full automation and return to a natural, human-oriented and harmonious status.Much in this emerging civilization contradicts the old traditional industrial civilization. It is, at one and the same time, highly technological and anti-industrial.摘自《第三次浪潮》——阿尔文·托夫勒from The Third Wave,Alvin Toffler企业简介Guangdong Topstar Technology Co., Ltd.(SZ.300607)is a National High-Tech Enterprise, focusing on the development of industrial robots, manufacturing and sales, dedicated to systems integration, products manufacturing and software development--three in one integration of industrial robot ecosystems and overall automation solution.Since the establishment in 2007, adhering to the brand advocate "Let Industrial Civilization Return To The Natural Beauty” and the core value "one year investment return for the automation solution", the business has maintained a rapid growth. In 2015, Topstar was named “China Industrial Automation Leading Enterprise” by the State Ministry of Information Industry Development Institute. We have served about 4000 customers in domestic and oversea market, including well-known companies from Global 500. Now our sales and service network are all over the country in China and the products have been exported to more than 30 countries in Asia, America, Europe, Africa, etc.In 2014, we were ranked on the 30th as "Potential 100 Non-Listed Chinese Enterprises" by Forbes. In 2015, we were named "China's Most Potential Enterprise" by Ernst & Young with Fudan University, at the same time won the Guangdong Provincial-level Enterprise Technical Center, the Rapid Growth of Small&Medium Enterprises of Guangdong Province, and as the only one robot enterprise selected in Guangdong Province Manufacturing 500, honored “2014 and 2015Annual Golden Globe” by GG Robots, etc. In 2016, was assessed as the first batch of robot key enterprises in Guangdong Province. Our enterprise is highly appreciated by national ministries , provincial and municipal leaders.At present, our shareholders include China Huarong, top PE Shenzhen Fortune Capital, Industrial Securities and Dongguan Sangem Group.Topstar has recruited top R&D experts from Canada, Korea and Taiwan, and carried out long-term research cooperation with Tsinghua University, Huazhong University of Science and Technology, South China University of Technology, Dongguan Institute of Technology and other research institutions and well-known colleges. We have achieved 100 national patents and 10 software copyrights.Three kinds of Robots with independent intellectual property were named Guangdong Provincial Famous Brand and five kinds of machines were named Guangdong High-Tech Products. Many machines have been certified by CE.Company profile广东拓斯达科技股份有限公司(SZ.300607)是国家级高新技术企业,专注于工业机器人的研发、制造、销售,致力于打造系统集成 + 本体制造 + 软件开发三位一体的工业机器人生态系统和整体自动化解决方案。

2015年《财富》世界500强中国公司名单

2015年《财富》世界500强中国公司名单
43611.7
深圳
253
313
中国电力建设集团有限公司(POWER CHINA)
43009.7
北京
258
268
绿地控股集团有限公司(GREENLAND HOLDING GROUP)
42515.1
上海
264
290
山西焦煤集团有限责任公司(Shanxi Coking Coal Group)
41829.8
北京
371
403
中国船舶重工集团公司(CHINA SHIPBUILDING INDUSTRY)
32732.6
北京
373
305
山东能源集团有限公司(SHANDONG ENERGY GROUP)
32551.9
济南
379
386
山西晋城无烟煤矿业集团有限责任公司(Shanxi Jincheng Anthracite Coal Mining Group)
24986.4
杭州
500
310
武汉钢铁(集团)公司(WUHAN IRON & STEEL)
北京
437
--
中国航天科技集团公司(China Aerospace Science & Technology)
27190.4
北京
451
475
鞍钢集团公司(ANSTEEL GROUP)
26212.9
鞍山
457
--
中国保利集团(China Poly Group)
26046.6
北京
464
--
海航集团(HNA Group)
46834.8
上海
228
285
华为投资控股有限公司(HUAWEI INVESTMENT & HOLDING)

艾默生网络能源有限公司简介

艾默生网络能源有限公司简介

艾默生网络能源有限公司简介艾默生公司创建于1890年,总部设在美国密苏里州圣路易斯市,是全球最悠久的跨国公司之一。

经营领域涉及网络能源、过程控制、工业自动化、环境调节、家电和工具五大领域。

公司业务遍布全球150多个国家,在世界各地拥有60多个子公司及11万多名员工,名列世界500强,2006财年实现销售收入201亿美元, 2005年荣获《财富》全美最受赞赏企业之一,更在电子行业中名列第二。

艾默生网络能源有限公司是美国艾默生公司下属子公司,在中国设有28个办事处及29个用户服务中心。

艾默生网络能源有限公司拥有业界最宽、最完整的网络能源产品线,拥有业界领先的网络能源技术、研发、产品制造及服务平台。

艾默生网络能源有限公司致力于将科技与应用工程技术完美结合,致力于为客户提供最有竞争力的端到端一体化整体解决方案,致力于为客户创建竞争优势。

艾默生网络能源产品涉及通信电源、印刷板板装电源、客户定制电源、UPS、机房专用精密空调、户外一体化通信机柜、自动切换开关、动力网络保护产品、蓄电池、低压配电和精密配电柜、动力设备及环境监控系统、电力操作电源、交流变频调速器等领域。

艾默生网络能源有限公司是全球通信/IT行业网络能源产品、动力一体化整体解决方案及一体化服务的主流供应商。

St. Louis-based US Emerson Electric Co., was established in 1890 and has been one of the renowned international companies. Emerson’s expertise covers 5 areas: Process Control; Electronics and Telecommunications; Industrial Automation; Heating, Ventilation and Air Conditioning; and Appliance and Tools. Its innovative solutions have been applied in more than 150 countries. Emerson has 60-plus divisions and 110,000 employees worldwide. Emerson was ranked one of Global Top 500 and realized USD$20.1 billion sales in FY2006. Emerson has been recognized as “World’s Most Admired Companies” by Fortune, and ranked second in the electronics industry category.Emerson Network Power Co., Ltd. is a subsidiary company of American Emerson Electric Co.. It has 28 sales offices and 29 service centers all over China. Emerson Network Power Co., Ltd. uses its industry-leading network power technologies, R&D, manufacturing, global marketing and service platforms, to supply the world with the most comprehensive End-to-End Network Power Total Solution. We bring together technology & engineering to create solutions for the benefit of our customers. The core products include telecom power systems, board mounted power supplies, custom power supplies, UPS, precision air conditionings, outdoor shelter solutions, automatic transfer systems, network power protection products, VRLA batteries, LV & precision distribution cabinets, centralized power and environment monitoring systems, DC power systems and AC motor drive inverters used in electric utility power systems.Emerson Network Power Co., Ltd. is the trusted supplier of network power products and solutions for global IT industry and telecom market.。

Control Systems and Automation

Control Systems and Automation

Control Systems and AutomationControl systems and automation have become an integral part of modern industries, making processes more efficient and reliable. The use of automation has allowed companies to reduce labor costs, improve quality, and increase productivity. However, the implementation of control systems and automation is not without its challenges. In this article, we will explore some of the requirements and challenges associated with control systems and automation.One of the primary requirements for control systems and automation is a thorough understanding of the process being automated. Without this understanding, it is impossible to design a control system that will effectively manage the process. This understanding includes knowledge of the inputs and outputs of the process, the control variables, and the desired outcome. It is also essential to have a good understanding of the equipment used in the process, including its capabilities and limitations.Another requirement for control systems and automation is the selection of the appropriate control system. There are various types of control systems available, including open-loop, closed-loop, and feedback control systems. The selection of the appropriate control system depends on the process being automated, the desired outcome, and the equipment used. For example, a closed-loop control system is suitable for processes that require precise control, while an open-loop control system is suitable for processes that do not require precise control.One of the challenges associated with control systems and automation is the integration of different systems. In many cases, a single process may require the use of multiple control systems, each with its own set of inputs and outputs. Integrating these systems can be challenging, and requires careful planning and coordination. It is essential to ensure that the different systems can communicate with each other and work together seamlessly.Another challenge associated with control systems and automation is the need for maintenance and troubleshooting. While automation can reduce labor costs, it does requiremaintenance and troubleshooting to ensure that it continues to operate effectively. This includes regular inspections, testing, and calibration of the equipment used in the process. It is also essential to have a good understanding of the control system and its components to effectively troubleshoot any issues that may arise.Another challenge associated with control systems and automation is the potential for errors. While automation can improve the quality and reliability of processes, it is not immune to errors. Errors can occur due to a variety of factors, including equipment failure, software bugs, and human error. It is essential to have effective monitoring and control measures in place to detect and correct errors before they cause significant problems.Finally, another challenge associated with control systems and automation is the potential for job displacement. While automation can reduce labor costs, it can also result in job displacement for workers whose jobs are automated. It is essential to have effective training and retraining programs in place to help workers transition to new roles and ensure that they are not left behind.In conclusion, control systems and automation have become an integral part of modern industries, providing numerous benefits, including increased efficiency, improved quality, and increased productivity. However, the implementation of control systems and automation is not without its challenges. These challenges include the need for a thorough understanding of the process being automated, the selection of the appropriate control system, the integration of different systems, the need for maintenance and troubleshooting, the potential for errors, and the potential for job displacement. By addressing these challenges effectively, companies can reap the benefits of control systems and automation while minimizing the risks and challenges associated with their implementation.。

自动化专业英语原文和翻译

自动化专业英语原文和翻译

自动化专业英语原文和翻译Automation in the Manufacturing Industry: An OverviewIntroduction:Automation plays a crucial role in the manufacturing industry, revolutionizing production processes and enhancing efficiency. This article provides an in-depth analysis of the concept of automation in the manufacturing sector, highlighting its benefits, challenges, and future prospects. It also includes a translation of the text into English.Section 1: Definition and Importance of AutomationAutomation refers to the use of technology and machinery to perform tasks with minimal human intervention. In the manufacturing industry, automation is essential for streamlining operations, reducing costs, and improving product quality. It allows companies to achieve higher production rates, increased precision, and improved safety standards.Section 2: Benefits of Automation in Manufacturing2.1 Increased ProductivityAutomation enables manufacturers to produce goods at a faster rate, leading to increased productivity. With the use of advanced robotics and machinery, repetitive tasks can be performed efficiently, allowing workers to focus on more complex and creative aspects of production.2.2 Enhanced Quality ControlAutomated systems ensure consistency and accuracy in manufacturing processes, leading to improved product quality. By minimizing human error, automation reduces defects and variations, resulting in higher customer satisfaction and reduced waste.2.3 Cost ReductionAutomation helps in reducing labor costs by replacing manual work with machines and robots. Although initial investment costs may be high, long-term savings are significant due to increased efficiency and reduced dependence on human labor.2.4 Improved Workplace SafetyAutomation eliminates the need for workers to perform hazardous or physically demanding tasks. Robots and machines can handle tasks that pose risks to human health and safety, thereby reducing workplace accidents and injuries.2.5 Increased FlexibilityAutomated systems can be easily reprogrammed to adapt to changing production requirements. This flexibility allows manufacturers to respond quickly to market demands, introduce new products, and customize production processes.Section 3: Challenges in Implementing Automation3.1 Initial InvestmentImplementing automation requires substantial capital investment for purchasing and integrating machinery, software, and training. Small and medium-sized enterprises (SMEs) may face financial constraints in adopting automation technologies.3.2 Workforce AdaptationAutomation may lead to job displacement, as certain tasks previously performed by humans are now handled by machines. Companies need to provide training and re-skilling opportunities to ensure a smooth transition for their workforce.3.3 Technical ComplexityAutomation systems often involve complex integration of various technologies, such as robotics, artificial intelligence, and data analytics. Companies must have skilled personnel capable of managing and maintaining these systems effectively.Section 4: Future Trends in Automation4.1 Collaborative RobotsCollaborative robots, also known as cobots, are designed to work alongside humans, assisting them in tasks that require precision and strength. These robots can improve productivity and safety by working in close proximity to humans without the need for extensive safety measures.4.2 Internet of Things (IoT) IntegrationThe integration of automation systems with the Internet of Things allows for real-time monitoring and control of manufacturing processes. IoT enables seamless communication between machines, sensors, and data analytics platforms, leading to predictive maintenance and optimized production.4.3 Artificial Intelligence (AI)AI technologies, such as machine learning and computer vision, enable automation systems to learn and adapt to new situations. AI-powered robots can analyze data, make decisions, and perform complex tasks with minimal human intervention, revolutionizing the manufacturing industry.Conclusion:Automation has become an integral part of the manufacturing industry, offering numerous benefits such as increased productivity, enhanced quality control, cost reduction, improved workplace safety, and increased flexibility. While challenges exist, such as initial investment and workforce adaptation, the future of automation looks promising with the emergence of collaborative robots, IoT integration, and artificial intelligence. Embracing automation technologies will undoubtedly pave the way for a more efficient and competitive manufacturing sector.Translation:自动化在创造业中的应用:概述简介:自动化在创造业中扮演着重要的角色,革新了生产过程,提高了效率。

Manufacturing Systems and Automation

Manufacturing Systems and Automation

Manufacturing Systems and Automation Manufacturing systems and automation have revolutionized the way products are produced, increasing efficiency and reducing human error. These systems have become essential in modern industrial processes, providing companies with the ability to mass-produce goods at a rapid pace. However, the implementation of automation in manufacturing has also raised concerns about job displacement and the impact on the workforce. One perspective on manufacturing systems and automation is the positive impact it has on productivity and efficiency. By automating repetitive tasks, companies can increase their output and reduce production costs. This allows businesses to remain competitive in the global market and meet customer demands in a timely manner. Automation also improves the quality of products by minimizing human error and ensuring consistency in manufacturing processes. Overall, manufacturing systems and automation have the potential to boost economic growth and drive innovation in various industries. On the other hand, the rise of automation in manufacturing has led to fears of job loss among workers. As machines become more advanced and capable of performing tasks that were once done by humans, there is a concern that automation will lead to unemployment and economic instability. This has sparked debates about the ethical implications of replacing human workers with machines and the need for retraining programs to help displaced workers transition to new roles in the workforce. While automation can create new job opportunities in areas such as maintenance and programming, there is still a significant risk of job displacement in traditional manufacturing roles. Another perspective to consider is the impact of automation on workplace safety. By taking over hazardous tasks that put workers at risk, automation can improve safety conditions in manufacturing facilities. Machines are not susceptible to fatigue or distractions, reducing the likelihood of accidents and injuries on the job. This not only protects workers from harm but also minimizes downtime and production delays caused by workplace incidents. However, it is important for companies to prioritize the safety and well-being of their employees when implementing automation systems, ensuring that propertraining and safety protocols are in place to prevent accidents. In addition to the economic and safety implications, the environmental impact of manufacturingsystems and automation is another important consideration. Automation can help companies reduce their carbon footprint by optimizing energy usage and minimizing waste in the production process. By streamlining operations and reducing resource consumption, automation contributes to sustainable manufacturing practices that benefit the environment. This aligns with the growing trend of corporate social responsibility and the push for greener, more eco-friendly manufacturing processes. Companies that invest in automation technology not only improve their operational efficiency but also demonstrate a commitment to environmental stewardship. Overall, the integration of manufacturing systems and automation presents both opportunities and challenges for businesses and workers alike. While automationcan enhance productivity, quality, and safety in manufacturing processes, it also raises concerns about job displacement and the ethical implications of replacing human workers with machines. Companies must strike a balance between harnessingthe benefits of automation and addressing the potential social and economicimpacts on their workforce. By prioritizing worker training, safety, and environmental sustainability, businesses can navigate the complexities of automation in manufacturing and pave the way for a more efficient and responsible industrial future.。

克罗韦尔 1756 ControlLogix 集成运动技术 数据表

克罗韦尔 1756 ControlLogix 集成运动技术 数据表

Technical Data1756 ControlLogix Integrated Motion Modules SpecificationsSERCOS Motion Catalog Numbers 1756-M03SE, 1756-M08SE, 1756-M16SE, 1756-M08SEG Analog Motion Catalog Numbers 1756-M02AE, 1756-M02AS, 1756-HYD02The controller can control servo drives through these motion interfaces.Some servo drives are supported through communication interface modules. The controller can communicate with these servo drives over these networks.For more information, see the Motion Analyzer CD to size your motion application and to make final component selection. Download the software from /motion/software/analyzer.htmlTopicPage SERCOS Interface Modules 3Analog Motion Modules5ApplicationCatalog Number Rockwell Automation SERCOS interface drives1756-M16SE 1756-M08SE 1756-M03SESERCOS interface drives that are Extended Pack Profile compliant 1756-M08SEG Analog servo interface drives with quadrature feedback 1756-M02AE Analog hydraulic servo interface drives LDT feedback 1756-HYD02 Analog servo interface drives with SSI feedback1756-M02ASDrives (1)EtherNet/IP ControlNet DeviceNet Universal Remote I/O RS-232 Serial DH-4852098 Ultra3000 DeviceNet servo driveNo No Yes No No No 2098 Ultra5000 intelligent positioningNoNoYesNoYesNo(1)Each drive has different options you order for its supported communication networks. See the appropriate catalog or selection information for a drive to make sure you select the appropriate option when specifying a drive for a specific network.1756 ControlLogix Integrated Motion Modules SpecificationsImportant User InformationSolid state equipment has operational characteristics differing from those of electromechanical equipment. Safety Guidelines for the Application, Installation and Maintenance of Solid State Controls (publication SGI-1.1 available from your local Rockwell Automation sales office or online at /literature/) describes some important differences between solid state equipment and hard-wired electromechanical devices. Because of this difference, and also because of the wide variety of uses for solid state equipment, all persons responsible for applying this equipment must satisfy themselves that each intended application of this equipment is acceptable.In no event will Rockwell Automation, Inc. be responsible or liable for indirect or consequential damages resulting from the use or application of this equipment.The examples and diagrams in this manual are included solely for illustrative purposes. Because of the many variables and requirements associated with any particular installation, Rockwell Automation, Inc. cannot assume responsibility or liability for actual use based on the examples and diagrams.No patent liability is assumed by Rockwell Automation, Inc. with respect to use of information, circuits, equipment, or software described in this manual.Reproduction of the contents of this manual, in whole or in part, without written permission of Rockwell Automation, Inc., is prohibited.Throughout this manual, when necessary, we use notes to make you aware of safety considerations.Rockwell Automation, Rockwell Software, Allen-Bradley, TechConnect, ControlLogix, Kinetix, Ultra3000, and Ultra5000 are trademarks of Rockwell Automation, Inc.Trademarks not belonging to Rockwell Automation are property of their respective companies.WARNINGIdentifies information about practices or circumstances that can cause an explosion in a hazardous environment, which may lead to personal injury or death, property damage, or economic loss.IMPORTANTIdentifies information that is critical for successful application and understanding of the product.ATTENTIONIdentifies information about practices or circumstances that can lead to personal injury or death, property damage, or economic loss. Attentions help you identify a hazard, avoid a hazard, and recognize the consequenceSHOCK HAZARDLabels may be on or inside the equipment, for example, a drive or motor, to alert people that dangerous voltage maybe present.Labels may be on or inside the equipment, for example, a drive or motor, to alert people that surfaces may reach dangerous temperatures.1756 ControlLogix Integrated Motion Modules SpecificationsSERCOS Interface ModulesThe SERCOS interface modules use a single, digital fiber-optic link, which eliminates as many as 18 digital wires per axis. Detailed drive-statusinformation can be sent from drive to controller and from controller to drive.The SERCOS interface modules can connect to these servo drives:•2093 Kinetix 2000 multi-axis servo drive •2094 Kinetix 6000 multi-axis servo drive •2099 Kinetix 7000 high-power servo drive •2098 Ultra3000 SERCOS servo driveTechnical Specifications - 1756 SERCOS Interface ModulesAttribute1756-M03SE 1756-M08SE 1756-M16SE 1756-M08SEGNumber of drives, max 3 8168 (Extended Pack Profile compliant)SERCOS data rate4 Mbps 8 MbpsSERCOS cycle time @ 4 Mbps0.5 ms, up to 2 drives (1)1 ms, up to 4 drives 2 ms, up to 8 drives SERCOS cycle time @ 8 Mbps0.5 ms, up to 4 drives (1) 1 ms, up to 8 drives 2 ms, up to 16 drives Drive control modes Position, velocity, and torque Position onlyCurrent draw @ 5.1V DC 760 mA Current draw @ 24V DC 2.5 mA Power dissipation 5.0 W Slot width 1Module location Chassis-based, any slotChassis1756-A4, 1756-A7, 1756-A10, 1756-A13, 1756-A17Power supply, standard 1756-PA72/C, 1756-PA75/B, 1756-PB72/C, 1756-PB75/B, 1756-PC75/B, 1756-PH75/B Power supply, redundant 1756-PA75R, 1756-PB75R, 1756-PSCA2Plastic fiber-optic cables2090-SCEP xx -0 non-jacketed, chlorinated polyethylene 2090-SCVP xx -0 standard jacket, polyvinyl chloride 2090-SCNP xx -0 nylon jacketGlass fiber-optic cables 2090-SCVG xx -0 standard jacket, polyvinyl chloride Enclosure type ratingNone (open-style)(1)Kinetix 6000 drives let you use a 0.5 ms cycle time.Environmental Specifications - 1756 SERCOS Interface ModulesAttribute1756-M03SE, 1756-M08SE, 1756-M16SE, 1756-M08SEG Temperature, operatingIEC 60068-2-1 (Test Ad, Operating Cold),IEC 60068-2-2 (Test Bd, Operating Dry Heat),IEC 60068-2-14 (Test Nb, Operating Thermal Shock)0…60 °C (32…140 °F)Temperature, storageIEC 60068-2-1 (Test Ab, Unpackaged Nonoperating Cold),IEC 60068-2-2 (Test Bb, Unpackaged Nonoperating Dry Heat),IEC 60068-2-14 (Test Na, Unpackaged Nonoperating Thermal Shock) -40…85 °C (-40…185 °F)Relative humidityIEC 60068-2-30 (Test Db, Unpackaged Nonoperating Damp Heat)5…95% noncondensing1756 ControlLogix Integrated Motion Modules SpecificationsVibrationIEC 60068-2-6 (Test Fc, Operating)2 g @ 10…500 HzShock, operatingIEC 60068-2-27 (Test Ea, Unpackaged Shock)30 gShock, nonoperatingIEC 60068-2-27 (Test Ea, Unpackaged Shock)50 gEmissions CISPR 11: Group 1, Class AESD immunity IEC 61000-4-24 kV contact discharges 8 kV air dischargesRadiated RF immunity IEC 61000-4-310V/m with 1 kHz sine-wave 80% AM from 80... 2000 MHz 10V/m with 200 Hz 50% Pulse 100% AM @ 900 MHz10V/m with 200 Hz 50% Pulse 100% AM @ 1890 MHzEnvironmental Specifications - 1756 SERCOS Interface ModulesAttribute1756-M03SE, 1756-M08SE, 1756-M16SE, 1756-M08SEGCertifications - 1756 SERCOS Interface ModulesCertification(1)1756-M03SE, 1756-M08SE, 1756-M16SE, 1756-M08SEGc-UL-us UL Listed Industrial Control Equipment, certified for US and Canada. See UL File E65584.UL Listed for Class I, Division 2 Group A,B,C,D Hazardous Locations, certified for U.S. and Canada. See UL FileE194810.CE European Union 2004/108/IEC EMC Directive, compliant with:•EN 61326-1; Meas./Control/Lab., Industrial Requirements•EN 61000-6-2; Industrial Immunity•EN 61000-6-4; Industrial EmissionsEN 61131-2; Programmable Controllers (Clause 8, Zone A & B)C-Tick Australian Radiocommunications Act, compliant with:AS/NZS CISPR 11; Industrial Emissions(1)When marked. See the Product Certification link at for Declarations of Conformity, Certificates, and other certification details.1756 ControlLogix Integrated Motion Modules SpecificationsAnalog Motion ModulesThe ControlLogix family of analog servo modules is a cost effective option for closed-loop or open-loop motion control of devices that support an analogmotion interface. The analog servo modules provide a ±10V analogoutput-command reference and support a variety of position feedback devices. As many as two axes can be controlled per module, and multiple modules can be used to provide as many as 32 axes of control per ControlLogix controller.Technical Specifications - 1756 Analog Motion ModulesAttribute1756-M02AE 1756-HYD021756-M02ASNumber of axes per module, max 2Servo loop typeNested PI digital position and velocity servoProportional, integral, and differential (PID) with feed-forwards and directional scalingExternal drive = torquePosition loop: PID with velocity feed-forwardsVelocity loop: PI with accel feed-forwards (nested); with directional scaling and friction compensationExternal drive = velocity or hydraulic Position loop: PID with velocityfeed-forwards and accel feed-forwards with directional scaling and friction compensationVelocity loop: N/A (handled by drive or valve)Gain resolution 32-bit floating pointAbsolute position range ±1,000,000,000 encoder counts 230,000 LDT counts 232 (4,294,967,296) transducer counts Rate5 kHz 500 Hz…4 kHz (selectable)500 Hz, 666.7 Hz, 1 kHz, 2 kHz, 4 kHz (selectable)Current draw @ 5.1V DC 700 mA Current draw @ 24V DC 2.5 mA Power dissipation 5.5 W Thermal dissipation — 18.77 BTU/hr18.77 BTU/hrIsolation voltage — 30V continuous, user to system30V continuous, user to systemRemovable terminal block 1756-TBCH 1756-TBS6H Slot width 1Module location Chassis-based, any slotChassis1756-A4, 1756-A7, 1756-A10, 1756-A13, 1756-A17Power supply, standard 1756-PA72/C, 1756-PA75/B, 1756-PB72/C, 1756-PB75/B, 1756-PC75/B, 1756-PH75/B Power supply, redundant 1756-PA75R, 1756-PB75R, 1756-PSCA2Wire size 0.324…2.08 mm 2 (22…14 AWG) stranded, 1.2 mm (3/64 in.) insulation max (1)Wire category 1(2)2(1)2(1)Wire typeCopper CopperCopperEnclosure type ratingNone (open-style)(1)Maximum wire size requires extended housing, catalog number 1756-TBE,(2)Use this conductor category information for planning conductor routing as described in the system level installation manual. See the Industrial Automation Wiring and Grounding Guidelines, publication 1770-4.1.1756 ControlLogix Integrated Motion Modules SpecificationsInput Specifications1756-M02AE 1756-HYD02 1756-M02ASInput Type Encoder input: Incremental AB quadraturewith marker LDT input: PWM, Start/Stop rising orfalling edgeSSI input: Synchronous Serial InterfaceEncoder mode 4X quadrature — —Encoder rate, max 4 MHz counts per second — —Resolution — <0.001 in. with single recirculation 8…31 bitsElectrical interface Optically isolated, 5V differential Isolated 5V differential (RS-422 signal) Isolated 5V differential (RS-422 signal)On-state voltage range 3.4…5.0V — —Off-state voltage range 0…1.8V — —Input impedance 531 Ω differential 215 Ω differential 215 Ω differentialOutput load, min — 100 Ω min 100 Ω minTransducer — Must use External Interrogation signal Binary or gray codeClock frequency — — 208 kHz or 625 kHzRegistration Input Type Optically isolated, current sinking24V on-state voltage, min 18.5V DC24V on-state voltage, max 26.4V DC24V off-state voltage, max 3.5V DC24V input impedance 9.5 kΩ 1.2 kΩ9.5 kΩ5V on-state voltage, min 3.7V DC5V on-state voltage, max 5.5V DC5V off-state voltage, max 1.5V DC5V input impedance 1.2 kΩ9.5 kΩ 1.2 kΩResponse time (position latched) 1 μs 1 servo update period(1) 1 servo update period(1)Other Input Type Optically isolated, current sinkingInput voltage, nom 24V DCOn-state voltage, min 17V DCOn-state voltage, max 26.4V DCOff-state voltage, max 8.5V DCInput impedance 7.5 kΩ(1)Servo update period is the period at which the position and/or velocity feedback is sampled and a new servo loop is closed to generate a new servo output. The time of this period is a user-defined setting from 250…2000 μs.1756 ControlLogix Integrated Motion Modules SpecificationsOutput Specifications1756-M02AE1756-HYD02 1756-M02ASServo Output Type Analog voltageIsolation 200 kΩ— —Voltage range ±10VVoltage resolution 16 bitsOutput load, min 5.6 kΩ resistiveOutput offset, max 25 mVOutput gain error ±4%Other Outputs Solid-state isolated relay contactOperating voltage, nom 24V DC (Class 2 source) 24V DC 24V DCOperating voltage, max 26.4V DCOperating current 75 mAEnvironmental Specifications - 1756 Analog Motion ModulesAttribute1756-M02AE1756-HYD02, 1756-M02AS Temperature, operatingIEC 60068-2-1 (Test Ad, Operating Cold),IEC 60068-2-2 (Test Bd, Operating Dry Heat),IEC 60068-2-14 (Test Nb, Operating Thermal Shock)0…60 °C (32…140 °F) 0…60 °C (32…140 °F)Temperature, storageIEC 60068-2-1 (Test Ab, Unpackaged Nonoperating Cold),IEC 60068-2-2 (Test Bb, Unpackaged Nonoperating Dry Heat),IEC 60068-2-14 (Test Na, Unpackaged Nonoperating Thermal Shock)-40…85 °C (-40…185 °F) -40…85 °C (-40…185 °F)Relative humidityIEC 60068-2-30 (Test Db, Unpackaged Nonoperating Damp Heat)5…95% noncondensing 5…95% noncondensingVibrationIEC 60068-2-6 (Test Fc, Operating)— 2 g @ 10…500 HzShock, operatingIEC 60068-2-27 (Test Ea, Unpackaged Shock)—30 gShock, nonoperatingIEC 60068-2-27 (Test Ea, Unpackaged Shock)—50 gEmissions—CISPR 11: Group 1, Class AESD immunity IEC 61000-4-2— 6 kV contact discharges8 kV air dischargesRadiated RF immunity IEC 61000-4-3—10V/m with 1 kHz sine-wave 80% AM from80... 2000 MHz10V/m with 200 Hz 50% Pulse 100% AM @900 MHzEFT/B immunityIEC 61000-4-4—±2 kV at 5 kHz on signal portsSurge transient immunity IEC 61000-4-5—±2 kV line-line (DM) and ±2 kV line-earth (CM)on signal portsConducted RF immunity IEC 61000-4-6—10Vrms with 1 kHz sine-wave 80% AM from150 kHz...80 MHz1756 ControlLogix Integrated Motion Modules Specifications1756 Removable Terminal BlocksCertifications - 1756 Analog Motion ModulesCertification (1)1756-M02AE1756-HYD02, 1756-M02ASUL UL Listed Industrial Control Equipment, certified for US and Canada.UL Listed Industrial Control Equipment, certified for US and Canada.CSACSA Certified Process Control Equipment for Class I, Division 2 Group A,B,C,D.CSA Certified Process Control EquipmentCSA Certified Process Control Equipment for Class I, Division 2 Group A,B,C,D Hazardous LocationsCE Marked for applicable directives.European Union 89/336/EEC EMC Directive, compliant with:•EN 50082-2; Industrial Immunity•EN 61326; Meas./Control/Lab., Industrial Requirements •EN 61000-6-2; Industrial Immunity •EN 61000-6-4; Industrial EmissionsC-TickMarked for applicable acts.Australian Radiocommunications Act, compliant with:AS/NZS CISPR 11; Industrial Emissions(1)When marked. See the Product Certification link at for Declarations of Conformity, Certificates, and other certification details.Attribute 1756-TBCH1756-TBS6H1756-TBEDescription 36-pin cage-clamp removable terminal block with standard housing 36-pin spring-clamp removable terminal block with standard housingExtended depth terminal block housing Screw torque 0.4 N•m (4.4 lb•in) —Screwdriver width8 mm (5/16 in.) max1756 ControlLogix Integrated Motion Modules Specifications Notes:Publication 1756-TD004B-EN-E - May 2010Rockwell Automation SupportRockwell Automation provides technical information on the Web to assist you in using its products. At/support/, you can find technical manuals, a knowledge base of FAQs, technical and application notes, sample code and links to software service packs, and a MySupport feature that you can customize to make the best use of these tools.For an additional level of technical phone support for installation, configuration, and troubleshooting, we offer TechConnect support programs. For more information, contact your local distributor or Rockwell Automation representative, or visit /support/.Installation AssistanceIf you experience an anomaly within the first 24 hours of installation, review the information that is contained in this manual.You can contact Customer Support for initial help in getting your product up and running.New Product Satisfaction ReturnRockwell Automation tests all of its products to ensure that they are fully operational when shipped from the manufacturing facility. However, if your product is not functioning and needs to be returned, follow these procedures.Documentation FeedbackYour comments will help us serve your documentation needs better. If you have any suggestions on how to improve this document, complete this form, publication RA-DU002, available at /literature/.United States or Canada 1.440.646.3434Outside United States or CanadaUse the Worldwide Locator at /support/americas/phone_en.html , or contact your local Rockwell Automation representative.United States Contact your distributor. You must provide a Customer Support case number (call the phone number above to obtain one) to your distributor to complete the return process.Outside United StatesPlease contact your local Rockwell Automation representative for the return procedure.。

2015全球新能源企业500强

2015全球新能源企业500强

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明阳新能源投资控股集团有限公司 LG Chem., Ltd. SKC Inc. Toshiba Corporation ZF Friedrichshafen AG SunEdison Inc. Applied Materials Inc. NextEra Energy Inc. 英利集团有限公司 Kyocera Corporation Sharp Corporation 天合光能有限公司 ORIX Corporation Green Plains Renewable Energy Inc. 中国粮油控股有限公司 Energex Ltd. Nordex SE 江苏爱康实业集团有限公司 中国国际能源集团控股有限公司 BP Alternative Energy Flint Hills Resources, LLC Royal Dutch Shell plc Elkem A.S. 晶澳太阳能有限公司 AMEC plc DuPont Solar Danmark A.S. Covanta Energy Corporation 中国电力投资集团公司 Cosan Ltd. 晶科能源控股有限公司 Xcel Energy Dong Energy A.S. Berkshire Hathaway Energy MetsäGroup 浙江昱辉阳光能源有限公司 EDP Renová veis S.A. 国电联合动力技术有限公司 Noble Group Sumitomo Corporation Ergon Energy Louis Dreyfus Commodities B.V. Actividades de Construcció n y Servicios S.A.

克罗韦尔 MagneMotion 节点控制器,NC-E B 系列 数据表

克罗韦尔 MagneMotion 节点控制器,NC-E B 系列 数据表

Rockwell Automation Publication MMI-TD052A-EN-P - June 20231Node Controller NC-E Series BCatalog Number: MMI-NC-ENET-01. Dimensions are in millimeters [inches].•Manages commands and responses from the host controller to any Ethernet enabled QuickStick® motor.•Coordinates vehicle movements.•Tracks errors in the system.•Programs and configures each motor.•Supports up to 16 nodes based on configuration.•Digital I/O (8 bits in/8 bits out) available for user-supplied external devices.•CE Certified, UL Recognized. See rok.auto/pec for certification information.•Mounting kit supplied for DIN or rail/wall mounting.Electrical SpecificationsFor pinout configuration of NC-E Series A and B, see the MagneMotion Node Controller Interface User Manual, publication MMI-UM001.Physical SpecificationsEnvironmental SpecificationsDimensions (1)(1)All dimensions are millimeters [inches].140.0W x 110.0L x 58.0H[5.51W x 4.33L x 2.28H]Ambient Temperature 0 °C…50 °C [32 °F…122 °F]Relative Humidity ~95% @ 40 °C [104 °F] (noncondensing)Weight0.95kg [2.06lb]Power Dissipation40W maxNetwork Standard 10/100/1000BASE-TX (auto-MDIX, auto-negotiation), Ethernet (RJ45, Socket). Only Ethernet 1 is active.Power Rating 6…36V DC, 40 W (3P pluggable connector with latch (GND, V-, V+) (1)).(1)Rockwell Automation requires grounding the NC-E Series B through the chassis ground connection on the power connector.ConsoleFor connection of user-supplied terminal for setting the initial IP address (DE-9, Plug).Digital I/O 8 optically isolated digital input bits and 8 optically isolated digital output bits (DA-26, Socket).Technical DataOriginal Instructions[5.51]140.0NOTE: Connectors depicted in gray are not used.DC InDigital I/OPublication MMI-TD052A-EN-P - June 2023Copyright © 2023 Rockwell Automation, Inc. All rights reserved. Printed in the U.S.A.Rockwell Otomasyon Ticaret A.Ş. Kar Plaza İş Merkezi E Blok Kat:6 34752, İçerenköy, İstanbul, Tel: +90 (216) 5698400 EEE Yönetmeli ğine UygundurAllen-Bradley, expanding human possibility, MagneMotion, MagneMover LITE, QuickStick, QuickStick HT, and Rockwell Automation are trademarks of Rockwell Automation, Inc.Trademarks not belonging to Rockwell Automation are property of their respective companies.Waste Electrical and Electronic Equipment (WEEE)Rockwell Automation maintains current product environmental compliance information on its website at rok.auto/pec .At the end of life, this equipment should be collected separately from any unsorted municipal waste.Rockwell Automation SupportUse these resources to access support information.Documentation FeedbackYour comments help us serve your documentation needs better. If you have any suggestions on how to improve our content, complete the form at rok.auto/docfeedback .Technical Support CenterFind help with how-to videos, FAQs, chat, user forums, Knowledgebase, and product notification updates.rok.auto/support Local Technical Support Phone Numbers Locate the telephone number for your country.rok.auto/phonesupport Technical Documentation Center Quickly access and download technical specifications, installation instructions, and user manuals.rok.auto/techdocs Literature LibraryFind installation instructions, manuals, brochures, and technical data publications.rok.auto/literature Product Compatibility and Download Center (PCDC)Download firmware, associated files (such as AOP, EDS, and DTM), and access product release notes.rok.auto/pcdcAdditional ResourcesThese documents contain additional information concerning related products from Rockwell Automation. You can view or download publications at rok.auto/literature .ResourceDescriptionMagneMotion QuickStick and QuickStick HT Design Guide, publication MMI-RM001This manual explains how to design and configure the track layout and QuickStick® transport system.MagneMotion System Configurator User Manual, publication MMI-UM046This manual explains how to use the QuickStick Configurator to create and modify the Node Controller Configuration File (Configuration File) for the QuickStick (QS) transport system.MagneMotion Node Controller Interface User Manual, publication MMI-UM001This manual explains how to use the supplied interfaces to configure and administer node controllers that are used with transport systems. This manual also provides basic troubleshooting information.MagneMotion LSM Synchronization Option User Manual, publication MMI-UM005This manual explains how to install, operate, and maintain the LSM Synchronization Option for use with transport systems.MagneMotion NCHost TCP/IP Interface Utility User Manual, publication MMI-UM010This manual explains how to use the NCHost TCP/IP Interface Utility to run a transport system for testing and debugging. This manual also explains how to develop Demo Scripts to automate vehicle motion for that testing.MagneMotion Host Controller TCP/IP Communication Protocol User Manual, publication MMI-UM003These manuals describe the communication protocols between the high level controller and a host controller. These manuals also provide basic troubleshooting information.MagneMotion Host Controller EtherNet/IP Communication Protocol User Manual, publication MMI-UM004MagneMotion Host Controller Communication Protocols User Manual, publication MMI-UM100This manual describes the communication protocols between the high level controller and a host controller. This manual also provides basic troubleshooting information.MagneMover LITE User Manual, publication MMI-UM002This manual explains how to install, operate, and maintain the MagneMover® LITE™ transport system. This manual also providesinformation about basic troubleshooting.QuickStick 100 User Manual, publication MMI-UM006This manual explains how to install, operate, and maintain the QuickStick 100 transport system. This manual also provides information about basic troubleshooting.QuickStick 150 User Manual, publication MMI-UM047This manual explains how to install, operate, and maintain the QuickStick 150 motors and magnet arrays. This manual also provides information about basic troubleshooting.QuickStick ® HT ™ User Manual, publication MMI-UM007This manual explains how to install, operate, and maintain the QuickStick High Thrust (QSHT) transport system. This manual also provides information about basic troubleshooting.。

2015年世界500强企业排名

2015年世界500强企业排名

排名公司国家/地区销售额(亿美元)利润(亿美元)资产(亿美元)市值(亿美元)1中国工商银行/ICBC中国大陆16684483322027832中国建设银行/ChinaConstruction Bank中国大陆13053702698921293中国农业银行/AgriculturalBank of China中国大陆12922912574818994中国银行/Bank of China中国大陆12032752458319915伯克希尔哈撒韦/BerkshireHathaway美国1947199534635486摩根大通/JPMorgan Chase美国978212259362255 7埃克森美孚/Exxon Mobil美国376232534953571 8中国石油/PetroChina中国大陆333417438773346 9通用电气/General Electric美国148515264832535 10富国银行/Wells Fargo美国904231170142783 11丰田汽车/Toyota Motor日本252219138972390 12苹果/Apple美国19944452619741813荷兰皇家壳牌集团/Royal DutchShell荷兰42041493531195414大众集团/Volkswagen Group德国268514442501260 15汇丰控股/HSBC Holdings英国811135263411677 16雪佛龙/Chevron美国191819226602010 16沃尔玛/Wal-Mart Stores美国485716420372613 18三星电子/Samsung Electronics韩国195921920961994 19花旗银行/Citigroup美国93972184601567 20中国移动/China Mobile中国香港104117720902715 21安联保险/Allianz德国128483979082022威瑞森通信/VerizonCommunications美国1271962327202523美国银行/Bank of America美国97048211411632 24中国石化/Sinopec中国大陆42767723391210 25微软/Microsoft美国93320717483408 26戴姆勒公司/Daimler德国17239222951033 27美国电报电话公司/AT&T美国13246229281730 27俄罗斯天然气公司/Gazprom俄罗斯15802413560625 29安盛集团/AXA Group法国15386310166642 30雀巢公司/Nestle瑞士100115813432473 31桑坦德银行/Banco Santander西班牙5647715323109432平安保险集团/Ping AnInsurance Group中国大陆753646457113833三菱日联金融集团/MitsubishiUFJ Financial日本4921062328590934强生/Johnson & Johnson美国74216313112757 35道达尔/Total法国21144222981202 36宝洁/Procter & Gamble美国8179513632243 37中国人寿/China Life Insurance中国大陆7145236211605 2015福布斯全球企业500强38中国交通银行/Bank ofCommunications中国大陆5361071010471239谷歌/Google美国66013713113676 40沃达丰/Vodafone英国6637742005880 41英国石油/BP英国3528352843120842美国国际集团/AmericanInternational Group美国67576515675042伊塔乌联合银行控股公司/ItaúUnibanco Holding巴西76692424063744国际商用机器公司/IBM美国93412011751602 45宝马集团/BMW Group德国1066771873814 46康卡斯特/Comcast美国6888415931478 47联邦银行/Commonwealth Bank澳大利亚3968169621171 48辉瑞制药/Pfizer美国4969116932117 49高盛集团/Goldman Sachs Group美国401858562865 50必和必拓/BHP Billiton澳大利亚63110014611195 50美国大都会人寿保险/MetLife美国705639023573 52诺华/Novartis瑞士5361011258272653加拿大皇家银行/Royal Bank ofCanada加拿大38983857089354西门子/Siemens德国97467131697755中国招商银行/China MerchantsBank中国大陆45591762764056保诚集团/Prudential英国990365645645 57百威英博/Anheuser-Busch InBev比利时471921449204658日本电报电话公司/NipponTelegraph & Tel日本104752172271559俄罗斯石油公司/Rosneft俄罗斯129090150051160西太平洋银行集团/WestpacBanking Group澳大利亚35669674594261布拉德斯科银行/Banco Bradesco巴西667654031514 62软银集团/Softbank日本806581688703 63本田汽车/Honda Motor日本1171561487614 64通用汽车/General Motors美国155939177759065联合健康集团/UnitedHealthGroup美国130556864112066多伦多道明银行集团/TD BankGroup加拿大32770851980467英特尔/Intel美国5591179201472 68法国电力公司/EDF法国967473243463 69福特汽车/Ford Motor美国1441322085636 70德国电信/Deutsche Telekom德国831391565850 71巴斯夫/BASF德国98668902935 72波音公司/Boeing美国908549921056 73兴业银行/Industrial Bank中国大陆394766508579 73瑞银集团/UBS瑞士3983910693747 75澳新银行/ANZ澳大利亚326676767776 76思科系统/Cisco Systems美国481871049139077三井住友金融集团/SumitomoMitsui Financial日本348771465454878苏黎世保险集团/ZurichInsurance Group瑞士73039390051879民生银行/China 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Controls美国42913317332313瑞典商业银行/SvenskaHandelsbanken瑞典92223598291314汉高/Henkel德国21822254492 315WPP集团/WPP英国19018417301 316雷神/Raytheon美国22823279335 317印第纺织/Inditex西班牙237331741034 318伊顿公司/Eaton爱尔兰22618335322 319富邦金融/Fubon Financial中国台湾136191708190319加拿大鲍尔集团/Power Corp ofCanada加拿大386123217124319瑞典银行/Swedbank瑞典92242710276 322埃森哲/Accenture爱尔兰32830170635 323BB&T公司/BB&T美国97221884283 324国泰金融/Cathay Financial中国台湾137162188202 325新加坡电信/SingTel新加坡134******** 326太平洋煤气电力/PG&E美国17115619259327卡地纳健康集团/CardinalHealth美国93911272297328老年互助保险/Old Mutual英国2559.582186167329标准银行集团/Standard BankGroup南非122171645231330CaixaBank银行/CaixaBank西班牙1538.224098282 331戴文能源/Devon Energy美国176******** 332保利地产/Poly Real Estate中国大陆176******** 333爱默生电气/Emerson Electric美国24522237391334三菱重工/Mitsubishi HeavyIndustries日本35614440188335阿默普莱斯金融/AmeripriseFinancial美国121161488236336诺斯古曼/Northrop Grumman美国24021266320 337银瑞达集团/Investor AB瑞典10574413308 338达美航空/Delta Air Lines美国403 6.59541344 339伍尔沃斯/Woolworths澳大利亚55522207280 340道明尼资源/Dominion 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Financial Group韩国156132805137 368法国巴黎银行/BNP Paribas法国1245 2.0825142784 369丰益国际/Wilmar International新加坡43112436152370自动化数据处理公司/AutomaticData美国11614435410371马来亚银行/Maybank马来西亚81211831245372哈特福德金融服务/HartfordFinancial Services美国1857.982478178373丹斯克银行/Danske Bank丹麦149 6.385611277 374历峰集团/Richemont瑞士14624221473 375哈门那/Humana美国48511241267 376HDFC银行/HDFC Bank印度8414843416 377房地美/Freddie Mac美国709771945516 378英国航空航天系统/BAE Systems英国25412309248 379芬莎/Femsa墨西哥20913255338 380喜力控股/Heineken Holding荷兰25510429209381卡塔尔国民银行/Qatar NationalBank卡塔尔61291336367382爱迪生国际/EdisonInternational美国134********383阿联酋电信/Etisalat阿联酋133******** 384CSX公司/CSX美国12719331330385格力电器/Gree ElectricAppliances中国大陆21221260216386挪威电信/Telenor挪威175********387丸红株式会社/Marubeni日本74112667101 388浦项制铁/Posco韩国618 5.63776190 389EXOR公司/EXOR意大利1583 6.371894114 389麦格理集团/Macquarie Group澳大利亚110121420200391葡萄牙电力/EDP-Energias dePortugal葡萄牙21615519141392哥伦比亚广播公司/CBS美国14130241304 393赫斯/Hess美国135******** 394汤森路透/Thomson Reuters美国12619306332 395南非移动/MTN Group南非135******** 396太阳信托银行/SunTrust Banks美国81181903216 397第一兰德/FirstRand南非8319846269397诺福克南方公司/NorfolkSouthern美国11620336320399赫斯基能源/Husky Energy加拿大21911345214 399PPL公司/PPL美国11517489229 401布伊格建设集团/Bouygues法国44011422137 402宝钢股份/Baoshan Iron & Steel中国大陆3049.4370192 402曼弗雷保险/Mapfre西班牙27911773117 404巴克莱银行/Barclays英国530-2.8721173637405沙特电信/Saudi Telecom 沙特阿拉伯12329242328406加拿大运输/TransCanada加拿大9317509307 407通用磨房/General Mills美国176********408德纳加国家电力/TenagaNasional 马来西亚136********409威廉姆斯公司/Williams Cos美国7621506376 410卡夫食品/Kraft Foods美国182******** 411日本钢铁工程控股/JFE Holdings日本36313380136 411梅西百货/Macy's美国28115215233 413巴西淡水河谷/Vale巴西375 4.051164290 414诺和诺德/Novo Nordisk丹麦158471251470 415米其林集团/Michelin Group法国25914271190 416巴西石油股份有限公司/Petrobras巴西1437-752987444417麦格纳国际公司/MagnaInternational加拿大36619181222418德州仪器/Texas Instruments美国130********419英国国际航空公司/InternationalAirlines英国26713286182420丰田工业/Toyota Industries日本199********421三井住友信托控股/SumitomoMitsui Trust日本88153811163422马拉松原油/Marathon Oil美国11630360188423富士重工/Fuji HeavyIndustries日本26120172267424伊利诺伊工具/Illinois ToolWorks美国14530177365424维亚康姆/Viacom美国139********426英国天空广播公司/British SkyBroadcasting英国134********427爱尔兰联合银行/Allied IrishBanks爱尔兰61121304567427桑普公司/Sampo芬兰8920418294 429嘉信理财/Charles Schwab美国61131546394430苏格兰皇家银行/Royal Bank ofScotland英国356-4616384602431印度国家火电公司/NTPC印度12919354202 432中信证券/Citic Securities中国大陆5718773594 433三井不动产/Mitsui Fudosan日本1528.09403301 434华润置地/China Resources Land中国香港11519426190 435ACS集团/Grupo ACS西班牙4639.51476114 436美的集团/Midea Group Co. Ltd.中国大陆22917194233437信安金融集团/PrincipalFinancial Group美国105112191151438CenturyLink公司/CenturyLink美国1807.72501200439富士胶片控股/FujifilmHoldings日本23411295190439保乐力加集团/Pernod Ricard法国10613363325 441康宁公司/Corning美国9725301284 442Voya金融公司/Voya Financial美国114232305100 443中国南车/CSR中国大陆1938.62243351 444Talanx集团/Talanx德国3779.88173883445高露洁棕榄集团/Colgate-Palmolive美国173********446金伯利-克拉克/Kimberly-Clark美国20915155392 447联想集团/Lenovo Group中国香港4438.87292160 448安普公司/AMP澳大利亚1567.971104148 449土耳其担保银行/Garanti Bank土耳其95171040147 450先正达/Syngenta瑞士151********451凯斯纽荷兰工业集团/CNHIndustrial美国3309.17544115451中国中冶/Metallurgical Corpof China中国大陆341 6.45526158453JBS公司/JBS巴西5128.65312147 454小松公司/Komatsu日本189******** 455塞莫拉能源/Sempra Energy美国11012397273 456韩国SK电讯/SK Telecom韩国16317254203457印尼人民银行/Bank RakyatIndonesia印尼6920648249458亚马逊/美国890-2.415631751 458TJX公司/TJX Cos美国29122111474 460星巴克/Starbucks美国17025124709 461怡安保险/Aon英国12014298274462英联食品/Associated BritishFoods英国21413170339463PPG工业/PPG Industries美国15421176306464公共服务企业集团/Public ServiceEnterprise Group美国11715353215465中国水电/Sinohydro Group中国大陆2477.57455154466泰科电子/TE Connectivity瑞士14119202289 467雅虎/Yahoo美国4675620409 468意昂集团/E.ON德国1480-421521303 469三菱地产/Mitsubishi Estate日本1039.67407331 470瑞士通讯/Swisscom瑞士12819211308 471欧力士/Orix日本6524949192 472飞利浦/Philips荷兰297 5.51343277 473H&M瑞典2232999678 474统一爱迪生/Consolidated Edison美国12911443180474沙特电力公司/Saudi Electricity 沙特阿拉伯1039.63847188476中国北车/China CNR中国大陆1698.91240333 476富士通/Fujitsu日本4519.25268146 478索尼/Sony日本769-151358342 479万事达信用卡/MasterCard美国95361531009 479铃木汽车/Suzuki Motor日本2849.91254172481中国信达资产管理股份有限公司/China Cinda Asset Management中国大陆6919877190482西南航空/Southwest Airlines美国186********483切萨皮克能源公司/ChesapeakeEnergy美国20319408101484普莱克斯/Praxair美国12317198353 485印度住房开发金融公司/HDFC印度6814519337485塔塔咨询服务公司/TataConsultancy Services印度151********487帕卡公司/Paccar美国19014206220488国家商业银行NationalCommercial Bank沙特阿拉伯50231159319489T&D控股/T&D Holdings日本2088.84123797 490曼迪利银行/Bank Mandiri印尼7117690220 490印度煤炭公司/Coal India印度11723178367 492金巴斯集团/Compass Group英国28314141294 493日本国际石油开发公司/Inpex日本11917372163 494前进保险/Progressive美国19413265159 495西路控股/CRH爱尔兰2517.72266215 496Ko?控股/Ko? Holding土耳其31412274124 496西斯科公司/Sysco美国4818.72180224 498艺康公司/Ecolab美国14312195341 499泰森食品/Tyson Foods美国3969.19238158500恒大地产/Evergrande RealEstate中国大陆1832776573。

MBA研究生英语综合教程(第二版)课件:Globalization

MBA研究生英语综合教程(第二版)课件:Globalization

18 Useful Expressions
tariff 关税
America wants to eliminate tariffs on items such as electronics. 美国想要取消电子类产品的关税。
19 Useful Expressions
subsidy 补贴金
European farmers are planning a massive demonstration against farm subsidy cuts. 欧洲的农场主们正在策划一场反对削 减农场补贴的大游行。
for after-market support are not made before product development begins? What technical processes does globalization comprise? What does internationalization mean? How is localization defined in the passage?
31 Useful Expressions
displace 取代,替代
These factories have displaced tourism as the country’s largest source of foreign exchange. 这些工厂已经取代了旅游业而成为该 国最大的外汇来源。
dramatically 显著地,引人注目地
Not only have we overcome them all, Buffett pointed out, but our standard of living has increased dramatically – nearly sevenfold in the last century. 巴菲特指出,我们不仅完全克服了他 们而且在这个世纪末我们的生活标准戏 剧性地增长了近七倍。

管理信息系统(原书第15版) _CH05_Case1_Rockwell-REV[3页]

管理信息系统(原书第15版) _CH05_Case1_Rockwell-REV[3页]

Management Information Systems 15eKENNETH C. LAUDON AND JANE P . LAUDONCHAPTER 5IT INFRASTRUCTURE AND EMERGING TECHNOLOGIES CASE 1 Rockwell Automation Fuels the Oil and Gas Industry with IoTSUMMARY An industrial manufacturer, Microsoft, and the Internet of Things combine to provideinnovative improvements to the worldwide oil and gas supply chain.Rockwell Automation fuels the oil and gas industry with IoT URL CASE Rockwell Automation, Inc. is the world’s largest provider of industrial automation and informa-tion solutions headquartered in Milwaukee, Wisconsin. Rockwell employs over 22,500 people and serves customers in more than 80 countries. Rockwell is part of the Fortune 500 andreported $6.3 billion in revenues in 2015. The company is organized into two major business segments: Architecture and Software, and Control Products and Solutions. Rockwell offers a diverse array of products, including information software for manufacturing intelligence, control systems for process automation, safety technology, sensors and switches, and network technology. The company also offers services associated with these automation products,including repair, asset management, and remote support.Rockwell’s products are essential to many areas of the global oil and gas supply chain.Companies involved in the mining, moving, refining, and selling of oil and gas depend on Rockwell’s products and services to keep their equipment running smoothly and with aminimum of maintenance. Many oil and gas drilling sites are in remote, inhospitable areas, making continued maintenance difficult and placing extra emphasis on reliable products that rarely malfunction. With challenges like these and with such a diverse array of clientsand customers, performing repair and support services was a difficult undertaking forRockwell. To make matters worse, many tasks associated with the maintenance and repair of Rockwell products had traditionally been paper-based.Today, Rockwell uses Microsoft Azure to dramatically improve their efficiency and to revolu-tionize the petroleum supply chain. Like Amazon Web Services and Google Cloud Platform, Microsoft Azure is a cloud computing platform and infrastructure created for building, deploying, and managing applications and services through a global network of Microsoft data centers. These technologies are known as infrastructure-as-a-service (IaaS), and are increasingly popular among companies of all shapes and sizes. Because Microsoft, Amazon, and Google operate at a larger scale than nearly any other company, and because comput-ing resources have become more powerful and less costly over time, they have the tech-nological capability to provide server space and computing power to thousands of other companies, including those with significant needs like Rockwell.Another advantage of these IaaS platforms is that they are centralized via the cloud, which makes it a perfect hub for the Internet of Things. The Internet of Things (IoT) refers to the growing network of objects equipped with sensors and connectivity to the Internet. These objects are accessible via other connected devices and generate a steady stream of data over time that can yield valuable insights into how resources are used and how they canbe optimized. “Smart” appliances, medical and healthcare systems, various methods of transportation, and infrastructure equipped with sensors such as roads and bridges are all examples of the growth of the Internet of Things. These items are constantly communicat-ing information which is increasingly stored on the servers of the major IaaS providers like Amazon and Microsoft.For Rockwell, the Internet of Things represents a way to provide unprecedented service for their automation products. The most important services Rockwell offers customers who buy its automation products are repair, asset management, and remote support. Usingthe Internet of Things, the company is able to provide these services more efficiently and successfully than ever before. Using Microsoft Azure as its data warehouse, Rockwell prod-ucts now generate data in real time via sensors that allow the company to predict and even prevent problems before they happen. For example, Rockwell electrical pumps, oil-transfer platforms known as “skids”, and fueling station appliances all send data to the cloud, where Rockwell can analyze and act on that data using Azure IoT services. Rockwell can monitor the performance and inventory of these systems remotely, improving operational perfor-mance for its customers.Rockwell’s IoT services have strengthened the company’s competitive advantage in the oil and gas industry and have reduced downtime and maintenance for its products via predic-tive analytics and preventive maintenance. When individual pump failures can lead to losses of hundreds of thousands of dollars per day at a typical oil-drilling platform, any advantages in maintenance pay off very quickly. And when those savings are passed on to individuals at the gas pump, everyone wins.1. What is Rockwell Automation’s relationship with the oil and gas industry?2. How has the Internet of Things changed the oil and gas industry?3. Why was Microsoft Azure a good choice for Rockwell?4. What business problems did Rockwell’s partnership with Microsoft and implementationof IoT technologies solve or alleviate?5. What are some other common applications for the Internet of Things?VIDEO CASE QUESTIONS COPYRIGHT NOTICECopyright © 2017 Kenneth Laudon.This work is protected by United States copyright laws and is provided solely for the use of instructors in teaching their courses and assessing student learning. Dissemination or sale of any part of this work (including on the World Wide Web) will destroy the integrity of the work and is not permitted. The work and materials from this site should not be made available to students except by instructors using the accompanying text in their classes. All recipients of this work are expected to abide by these restrictions and to honor the intended pedagogical purposes and the needs of other instructors who rely on these materials.。

高科技企业 英文分类

高科技企业 英文分类

高科技企业英文分类High-Technology Enterprises1. Electronics companies- Companies that specialize in producing electronic products, such as computer hardware, home electronics, and audio-visual equipment.2. Engineering firms- Companies that specialize in providing engineering services, such as design and development, manufacturing, and construction.3. Software companies- Companies that specialize in the production and sale of software, including operating systems, applications, and gaming software.4. Telecommunications companies- Companies that specialize in providing telecommunications services, such as cell phone services, internet access, and data transmission.5. Internet companies- Companies that specialize in providing internet-related services, including search engine optimization, web hosting, and online marketing.6. Biotech companies- Companies that specialize in biotechnology, such as developing and commercializing new medicines and treatments.7. Automation companies- Companies that specialize in providing automation solutions, such as robotic processautomation and machine learning.8. Aerospace companies- Companies that specialize in aerospace engineering and design, such as the development of aircraft and spacecraft.9. Defense contractors- Companies that specialize in providing products and services to government entities, such as the Pentagon, for national security and defense purposes.10. Nanotechnology companies- Companies that specialize in the development and production of nanotechnology-based products, such as medical and industrial devices.。

2015世界五百强公司排名完整榜单(前50余家均为中国公司)

2015世界五百强公司排名完整榜单(前50余家均为中国公司)
20
中国农业银行/Agricultural Bank of China
中国大陆
1292
291
21
中国银行/Bank of China
中国大陆
1203
275
22
中国建筑/China State Construction Engineering
中国大陆
1203
39
23
上汽集团/SAIC Motor
中国大陆
中国香港
446
98
6
联想集团/Lenovo Group
中国香港
443
8.87
7
怡和集团/Jardine Matheson
中国香港
399
17
8
和记黄埔/Hutchison Whampoa
中国香港
351
87
9
友邦保险集团/AIA Group
中国香港
254
34
10
华润置地/China Resources Land
1117
22
103
意大利国家电力公司/Enel
意大利
973
6.86
104
意大利联合圣保罗银行/Intesa Sanpaolo
意大利
352
18
105
意大利联合信贷集团/UniCredit Group
意大利
305
27
106
意大利电信/Telecom Italia
意大利
286
18
107
梯瓦制药/Teva Pharmaceutical Inds
西班牙
153
8.22
123
Ko?控股/Ko? Holding

Robotics and Automation

Robotics and Automation

Robotics and AutomationRobotics and automation have significantly impacted various industries, revolutionizing the way tasks are performed and improving efficiency. However,this technological advancement has also raised concerns about potential job displacement and ethical implications. In this response, we will explore the multifaceted effects of robotics and automation from different perspectives, considering the benefits, challenges, and ethical considerations associated with these technologies. From a business perspective, robotics and automation offer numerous benefits, including increased productivity, cost savings, and improved quality control. By implementing robotic systems in manufacturing and assembly lines, companies can streamline production processes, reduce human error, and achieve higher output rates. This not only enhances operational efficiency but also allows businesses to remain competitive in the global market. Additionally, automation can lead to significant cost savings in the long run, as it minimizes the need for manual labor and reduces the risk of workplace injuries. As a result, companies can allocate resources to other areas of the business, such as research and development, innovation, and employee training, ultimately driving growth and sustainability. Moreover, robotics and automation have the potential to create new job opportunities and drive economic growth. While there is a common fear that automation will lead to widespread job displacement, it is important to recognize that these technologies also create demand for skilled workers who can design, program, operate, and maintain robotic systems. As industries continue to adopt automation, there will be a growing need for individuals with expertise inrobotics engineering, software development, and technical support. This presents an opportunity for workforce development and the emergence of new career paths in the field of robotics and automation. Furthermore, the increased efficiency and productivity resulting from automation can lead to the expansion of businesses, the development of new markets, and the stimulation of economic activity. On the other hand, the widespread adoption of robotics and automation has raised concerns about the potential displacement of human workers and the ethical implications of delegating tasks to machines. Many fear that automation will lead to job losses, particularly in industries that heavily rely on manual labor. This has sparkeddebates about the ethical responsibility of businesses to prioritize human employment and the social impact of widespread automation. While it is true that some jobs may become obsolete due to automation, it is essential to consider the potential for job creation in new industries and the need for upskilling and reskilling programs to prepare the workforce for the jobs of the future. Additionally, the ethical considerations surrounding robotics and automation extend to the impact on society as a whole. As these technologies become more integrated into everyday life, there are concerns about privacy, security, and the potential for autonomous systems to make decisions that may have ethical implications. For example, the use of autonomous vehicles raises questions about the safety and liability of these systems in the event of accidents. Similarly, the deployment of robotic systems in healthcare and elder care settings raises ethical concerns about the delegation of caregiving tasks to machines and the potential implications for human dignity and empathy. It is crucial for businesses and policymakers to address these ethical considerations and establish guidelines for the responsible development and deployment of robotic and automated systems. In conclusion, the impact of robotics and automation is multifaceted, with both benefits and challenges that must be carefully considered. From a business perspective, these technologies offer opportunities for increased productivity, cost savings, and job creation in new industries. However, concerns about job displacement and ethical implications require thoughtful consideration and proactive measures to mitigate potential negative effects. Ultimately, the responsible integration of robotics and automation into various industries requires a collaborative effort among businesses, policymakers, and the workforce to ensure that these technologies are leveraged in a way that maximizes their benefits while addressing the associated challenges.。

automation in construction decision in process

automation in construction decision in process

automation in construction decision inprocessAutomation in Construction Decision in Process: Benefits, Challenges, and Implementation StrategiesThe construction industry has been known for being slow to adopt innovative technologies and automation compared to other sectors. However, with the increasing demand for cost andtime-efficient solutions, there is a growing interest in integrating automation in construction processes. Automation can improve productivity, reduce labor costs, and enhance safety, among other benefits. However, the implementation of automation in construction decision processes requires careful consideration, planning, and preparation. In this article, we will explore the benefits, challenges, and implementation strategies for automation in construction decision processes.Benefits of Automation in Construction Decision Processes1. Improved ProductivityAutomation can improve productivity by reducing repetitivemanual work, human error, and delays caused by factors such as vacation, illness, and strikes. With automation, tasks such as material handling, concrete pouring, and bricklaying can be done faster and with higher precision. Automation can also increase the speed of data processing and communication, enabling faster decision-making and project completion.2. Cost ReductionAutomation can significantly reduce labor costs, which is one of the most significant expenses in construction. By automating repetitive tasks, contractors can free up employees to focus on complex tasks that require critical thinking and problem-solving skills. Additionally, automation can reduce waste, improve inventory management, and cut down on the need for rework, contributing to cost reduction.3. Enhanced SafetyConstruction is a hazardous industry, with accidents and injuries being common occurrences. Automation can improve safety by reducing the need for workers to perform dangerous tasks. Forexample, autonomous equipment can be used to transport heavy loads, reducing the risk of injuries associated with manual material handling. Additionally, automation can reduce the risk of accidents caused by human error in operating equipment.4. Improved QualityAutomation can ensure consistency in quality by eliminating variability resulting from human error. A robotic arm or 3D printer can lay bricks or produce precast concrete elements with a higher degree of precision and accuracy than human workers. By reducing errors, automation can improve the overall quality of the construction project.Challenges of Automation in Construction Decision Processes1. High Initial InvestmentThe cost of acquiring and integrating automation technologies in the construction sector can be significant. The high initial investment required can be a barrier to entry for many construction firms, particularly small and medium-sized enterprises. Additionally,the cost of maintenance and repair can be high, adding to the total cost of ownership.2. Lack of Skilled WorkforceAutomation technologies require a specialized skill set that may not be available in the construction industry. The lack of skilled workers capable of operating and maintaining automation technologies can be a challenge. This can result in higher labor costs for companies that need to hire skilled workers or provide training for their existing workforce.3. Resistance to ChangeThe construction industry has been slow to adopt new technologies and automation. Resistance to change from workers and management can be a significant challenge. Additionally, some workers may fear that automation will replace their jobs, leading to pushback against its implementation.4. Integrating Automation with Existing ProcessesIntegrating automation technologies with existing construction processes requires planning and preparation. Companies need to ensure that the new technology is compatible with their existing infrastructure and workflows. Failure to integrate automation technologies correctly can result in inefficiencies, redundancies, and reduced productivity.Implementation Strategies for Automation in Construction Decision Processes1. Conduct a Feasibility StudyBefore implementing automation technologies, companies should conduct a feasibility study to assess the costs, benefits, and risks associated with automation. The study should include an analysis of the company's existing infrastructure, workforce capabilities, and potential cost savings resulting from automation.2. Develop and Implement a Comprehensive PlanA comprehensive plan should be developed that outlines the steps required to implement automation technologies successfully. Theplan should specify the technologies to be adopted, the expected outcomes, the timeline for implementation, and the resources required.3. Provide Training and Support for WorkersCompanies should provide training and support for workers to ensure they have the necessary skills to operate and maintain automation technologies. Adequate training and support can reduce the resistance to change and help employees embrace the new technology.4. Implement Automation Technologies in PhasesInstead of implementing automation technologies in one go, companies should introduce them in phases. This will allow them to test and refine the processes, identify and address any issues, and make changes where necessary.ConclusionAutomation in construction decision processes can have significantbenefits for the construction industry, including improved productivity, cost reduction, enhanced safety, and improved quality. However, there are also challenges associated with the integration of automation technologies, including high initial investment, lack of skilled workers, resistance to change and integrating automation technologies with existing processes. Companies that adopt automation technologies should conduct a feasibility study, develop and implement a comprehensive plan, provide training and support for workers, and implement the technologies in phases. By doing so, they can increase their chances of success and reap the full benefits of automation.。

automation in construction endnote

automation in construction endnote

automation in construction endnote Automation in ConstructionAutomation in construction refers to the use of advanced technology and robotics to perform tasks and processes that were previously done manually in the construction industry. This includes tasks such as site preparation, material handling, building erection, and even maintenance and repair. The goal of automation in construction is to increase efficiency, productivity, and safety while reducing costs and reliance on human labor. In this article, we will explore the various aspects of automation in construction and its implications for the industry.1. Introduction to Automation in ConstructionConstruction is traditionally a labor-intensive industry, requiring a significant amount of manual work. However, with advancements in technology, automation is becoming increasingly prevalent in the field. Automation in construction involves the use of machinery, robots, and computer-controlled systems to carry out construction tasks. These technologies can be used for various purposes, such as excavation, handling and transportation of materials, buildingassembly, and quality control.2. Advantages of Automation in ConstructionAutomation in construction offers several advantages, both for construction companies and the overall industry. Firstly, automation can significantly improve productivity. Machines and robots can carry out tasks quickly and efficiently, reducing the time required to complete projects. This leads to cost savings and increased profitability for construction companies.Secondly, automation can enhance safety in construction. Construction sites are inherently dangerous, and automation can help reduce the risk of accidents. By replacing manual labor in hazardous activities, such as heavy lifting or working at heights, automation can protect workers from injury and even save lives.Furthermore, automation can improve the quality of construction projects. By using computer-controlled systems, construction processes can be closely monitored and controlled, leading to higher precision and accuracy. This results in buildings and infrastructure that are built to exact specifications and meetstringent quality standards.3. Technologies in AutomationThere are several key technologies that are driving automation in construction. One of these technologies is Building Information Modeling (BIM). BIM is a digital representation of a building or infrastructure project that contains information about its design, materials, and construction. BIM allows for better coordination and communication among stakeholders, reducing errors and rework. It also enables the simulation and optimization of construction processes before they are implemented, ensuring efficiency and cost-effectiveness.Another technology is robotic systems. Robots can perform tasks such as bricklaying, concrete pouring, and even welding. These systems are designed to be highly accurate and efficient, allowing for faster construction and improved quality. They can also work in hazardous or challenging environments, reducing risks to human workers.Additionally, automation in construction includes the use of dronesfor surveying and inspection purposes. Drones can capturehigh-resolution images and videos of construction sites, providing valuable data for decision-making and monitoring progress. This technology allows for faster and more accurate surveys, reducing costs and improving project management.4. Challenges and Future TrendsDespite the numerous benefits of automation in construction, there are also challenges and concerns that need to be addressed. One of the main concerns is the displacement of workers. As automation replaces manual labor, there is a risk of job losses in the construction industry. However, it is important to note that automation also creates new job opportunities, particularly in the areas of technology maintenance and operation.Another challenge is the initial investment required for automation technology. Implementing automated systems can be expensive, and smaller construction companies may find it difficult to adopt these technologies. However, as the technology continues to evolve and become more accessible, the initial costs are gradually decreasing, making it more feasible for a wider range ofcompanies.In terms of future trends, automation in construction is expected to continue growing and evolving. Advancements in artificial intelligence, robotics, and 3D printing are likely to lead to even more sophisticated automation systems in the future. These technologies will enable faster construction, increased customization, and further improvements in safety and quality.In conclusion, automation in construction is transforming the industry by increasing productivity, enhancing safety, and improving quality. Through the use of advanced technologies such as BIM, robotics, and drones, construction processes are becoming more efficient, cost-effective, and precise. While there are challenges to overcome, automation in construction is set to become even more widespread in the future, driving innovation and reshaping the way buildings and infrastructure are built.。

The Future of Work Automation and AI

The Future of Work Automation and AI

The Future of Work Automation and AI The future of work is rapidly changing with the advancement of automation and artificial intelligence (AI). These technologies have the potential to revolutionize industries, increase efficiency, and create new job opportunities. However, there are also concerns about the impact of automation on employment and the workforce. One perspective on automation and AI in the workplace is that they will lead to job displacement. Many fear that robots and AI systems will replace human workers, leading to mass unemployment. While it is true that some jobs may become obsolete due to automation, it is also important to consider the new job opportunities that will be created as a result. For example, the development and maintenance of AI systems will require skilled workers in areas such as data science and programming. Another perspective is that automation and AI will lead to a more efficient and productive workforce. By automatingrepetitive tasks, workers can focus on more creative and strategic work. This can lead to increased innovation and productivity in the workplace. Additionally, AI systems can analyze large amounts of data quickly and accurately, providing valuable insights for decision-making. Overall, automation and AI have the potential to streamline processes and improve overall efficiency in various industries. However, there are also concerns about the ethical implications of automation and AI in the workplace. For example, there are concerns about bias in AI systems, as they are only as good as the data they are trained on. This can lead to discriminatory outcomes in areas such as hiring and promotions. Additionally, there are concerns about the impact of automation on income inequality, as those with the skills to work with AI systems may benefit more than those without. It is important for companies and policymakers to address these ethical concerns and ensure that automation and AI are used responsibly in the workplace. From a personal perspective, the future of work automation and AI can be both exciting and daunting. As someone who works in a field that may be impacted by automation, there is a sense of uncertainty about what the future holds. However, there is also excitement about the potential for new opportunities and advancements in technology. It is important to stay informed about the latest developments in automation and AI, and to continuously update skills to remaincompetitive in the changing workforce. In conclusion, the future of work automation and AI is complex and multifaceted. While there are concerns about job displacement and ethical implications, there are also opportunities for increased efficiency and productivity. It is important for companies, workers, and policymakers to work together to navigate the challenges and opportunities presented by automation and AI in the workplace. By staying informed and adaptable, we can embrace the future of work with optimism and resilience.。

介绍自动化的英语作文

介绍自动化的英语作文

介绍自动化的英语作文Automation is the process of using technology to control and monitor tasks that were once performed by humans. This can include anything from industrial processes to household chores. Automation has become an essential part of many industries, including manufacturing, agriculture, and transportation.One of the key benefits of automation is increased efficiency. By automating tasks, companies can reduce the amount of time and resources required to complete them. This can lead to cost savings and increased productivity. Automation can also improve the quality and consistency of products and services. Machines are not subject to human error and can perform tasks with a high level of precision.Another benefit of automation is improved safety. By using machines to perform dangerous or repetitive tasks,companies can reduce the risk of injury to their employees. For example, automation is commonly used in manufacturing to handle hazardous materials or heavy machinery.Automation can also lead to increased competitiveness. Companies that invest in automation technologies can improve their speed and flexibility, allowing them to respond more quickly to changes in the market. This can give them a competitive edge over their rivals.Despite these benefits, there are also challenges associated with automation. One of the main concerns is the potential impact on jobs. Automation can lead to job displacement as machines take over tasks that were once performed by humans. However, it can also create new job opportunities in industries that support automation technologies.Another challenge is the initial cost of implementing automation. Companies must invest in technology and trainingto successfully automate their processes. This can be a significant financial burden, especially for small businesses.In conclusion, automation is a powerful tool that canbring many benefits to companies. However, it is importantfor businesses to carefully consider the costs and challenges associated with automation before implementing it. By doing so, they can maximize the advantages of automation while minimizing potential drawbacks.。

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positioned for recovery:Top 50 automation companies of 2015The biggest global and North American process control and automation suppliers jockey to be in the right spot when their markets revive.Fans of our annual ranking of the Top 50 suppliers by automation and control revenue probably already know that automation supplier revenues missed a curve in fiscal 2015. Both global and North American revenues are down significantly from 2014.Even now, persistently low oil prices combined with persistently high supply continue to drag down the process side of the business. Though some suppliers have seen favorable exchange rates, currency woes continue to plague the business overall. Power generation is the largest consumer of process automation worldwide, and the push away fromcoal-fired conventional central station generation to renewables like wind and solar had an adverse impact on the process business. Those suppliers involved in the nuclear business, however, experienced moderate growth. Oil and gas is a significant portion of the automation market. Large, integrated oil companies worldwide continued to reduce capital spending in the upstream sector by double digits, and we don’t expect this sector to recover in 2016. According to ARC Advisory Group’s market assessment, we don’t expect a major turnaround in the oil and gas sector un tilmid-2017—barring any major geopolitical upheaval. The oil and gas bubble burst hit some of the state-owned oil and gas companies particularly hard. Good downstream, hybrid newsThe picture isn’t all bleak for process automation, however. Even in 2015, some oil and gas sectors performed well. The midstream sector, particularly gas processing and pipelines, showed some pockets of growth. Even with looming oversupply in the LNG sector, many projects are continuing.The downstream sector of refining and petrochemical fared much better than the upstream sector. Increased investment in this area was well publicized through some very large projects, such as the Sadara petrochemicals venture between Dow and Saudi Aramco, as well as the Reliance Industries Jamnagar Refinery expansion project in India. Both of these megaprojects established new benchmarks for scope and complexity.How do our top leaders stack up against previous years? Find out.Some industries in the hybrid manufacturing space, which combine process and discrete automation functionality, actually experienced moderate growth in 2015. These include both food/beverages andwater/wastewater. Other hybrid industries such as lifesciences/pharmaceuticals and fine/specialty chemicals experiencedpockets of growth.The discrete side of the automation business also fared better in 2015. According to ARC’s most recent report on capital expenditures, automotive industry capex has pretty much increased steadily since 2010. After a quick rebound, that growth gradually slowed, but both growth and investment continue—despite a negative exchange rate for many auto manufacturers. The electronics industry suffered in 2014, but started to recover throughout 2015. Increased investment here pushed the automation markets.Mergers, acquisitions driven by IoTAdverse market conditions can make good hunting for acquisitions, but we also see many suppliers paying a premium for companies that can add key capabilities for cloud functionality, analytics capabilities, and anything that can provide a path to the Industrial Internet of Things (IIoT). As many automation suppliers also begin to formulate and execute their IIoT strategies, we’ll see more acquisitions in the software business, but also in the automation asset space—the “things” in the IIoT. The GE acquisition of the Alstom turbines business is the biggest example of this to date, with GE paying close to $10 billion for what mostly boils down to access to the valuable annuity of servicing and ostensibly connecting the vast installed base of Alstom turbines to the IIoT through GE’s Predix platform.Though it’s not represented in the 2015 numbers, Emerson Process Management’s acquisition of Pentair Valves and Controls is another example of an automation supplier expanding its reach intoproduction-related assets that so far haven’t been very intelligent or connected. The Pentair deal was valued at more than $3 billion, and cements Emerson as the largest valve supplier with the potential toconnect and provide intelligent diagnostics for a significant number of valves. Emerson has already embedded wireless monitoring and intelligence into its Enardo series of pressure relief valves, and this gives us a good indication of what will probably happen with Pentair.The 2015 numbers also show the effect of the acquisition of Invensys Operations Management bySchneider Electric, which was completed in January of 2014. Clearly, the big automation suppliers seem to be getting bigger, both through large and small acquisitions. ABB, for example, acquired 100% ownership of control room designer and specialized control room furniture manufacturer CGM in August 2015. The sophisticated ergonomic approach of CGM has already led to some big orders for advanced control rooms from its major end users like Dow.Push to IIoT changing product portfoliosIIoT is also leading to major changes in supplier product portfolios, both organically and through acquisitions. Siemens and Honeywell Process Solutions both announced new industrial cloud platforms in the past year—Siemens with its MindSphere industrial cloud powered by SAP Hana, and Honeywell with its Sentience cloud platform. Honeywell and Siemens also began to introduce new apps for the cloud in the past year (although again, th ese are not reflected in the 2015 numbers). So far, GE’s Predix has probably received the most press for industrial cloud platforms and, even as we write this article, it just announced its new Predix-enabled Industrial Internet Control System.Honeywell Sentience is the new cloud-based infrastructure it introduced at this year’s Honeywell User Group (HUG) meeting in San Antonio. Other company divisions are also leveraging Honeywell Sentience, including building automation and aerospace. Siemens continues to leverage its Comos digital engineering portfolio to create a common digital footprint for plants in the process and other industries, creating a dynamically changing digital model, not just for design but also for advanced 3-D simulation and plant optimization.Yokogawa made some interesting investments in acquisitions in the past year, which also boost its capabilities in IIoT and its new “data as a service” model for IIoT in industrial plants. Yokogawa acquired software supplier Industrial Evolution in January 2016, and created its Industrial Knowledge business unit, which is focused on providing data as a service to end users in the process industries. This year, Yokogawa also invested in FogHorn Systems, a fog-computing startup in Silicon Valley.But the push to IoT doesn’t just involve software. As we’ve seen with the Pentair and Alstom acquisitions, there’s a drive to end devices and “edge” devices. Honeywell introduced a new IIoT-ready ControlEdge PLC at HUG this year. Also, ABB released a Bluetooth-enabled smart sensor for motors. Emerson is increasingly adding wireless diagnostic capabilities to formerly“dumb” sensors like pressure relief valves and steam traps.Likewise, Rockwell Automation is pushing into smart sensor technologies for discrete industries, and its Connected Enterprise strategy heavily leverages its connections to end devices in manufacturing from motor control centers and drives to process field devices through its alliance with Endress+Hauser. Rockwell Automation has made many announcements related to its Connected Enterprise in the past year, but one lesser publicized endeavor is its mobility collaboration project with Microsoft for industrial environments, where wireless network connections aren’t always reliable. This is driven by industrial workers, who are increasingly turning to mobile devices to help improve productivity and collaboration, but need interfaces tailored to specific devices. Dubbed Project Stanton, the toolkit emerging from this collaboration enables Rockwell Automation offerings with a consistent web-based user interface for a specific device, such as tablet, smartphone or desktop PC, and now includes a prototype app. The two companies demonstrated the product toolkit and the app prototype at the most recent Automation Fair.What to expect next yearARC expects that next year’s analysis will see a lot more appl ications moving to the cloud. This is the natural evolution after the adoption of overall cloud platforms by the major suppliers. Most of these applications will reside in the Level 3 space, targeting applications like alarm management, asset management, intelligent device management, and other MES/production management applications. Cloud-based historians are also going to be required, and we’re already seeing movement towards them by suppliers like OSIsoft, Schneider Electric/Wonderware, Iconics, GE and others. The move to IIoT and the cloud is creating a new wave of mobile apps as well, from monitoring alarms to condition monitoring of automation assets to business-level KPI analysis. Just about every major automation supplier has released mobile apps over the past year.We’re also going to see more changes in automation systems, especially as ExxonMobil, the Open Group and Lockheed Martin forge ahead with their new standard for open automation systems. Offerings for configurable and modular I/O will also increase in scope, with suppliers like Schneider Electric introducing new solutions at this year’s user group meeting and other suppliers not far behind with their own offerings. It will be interesting to see what impact the Next Generation Open Automation System initiative will have on supplier development plans, since the group has a pretty ambitious goal of commercial product availability by 2020.These are all part of the shrinking product lifecycles and rapid development efforts that increasingly favor open, modular and standard hardware with a big focus on creating value in software and services. This combination of new product innovations and rapid adoption of new technologies shouldleave suppliers well positioned for a turnaround in the market. In A RC’s view, however, we have to wait another year before that turnaround becomes a reality.。

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