表面工程和再制造工程的现状及展望

介绍了表面工程和再制造工程的概念、作用和国内外研究及应用现状,并对其今后的发展进行了展望.结合失效分析、失效预防和控制,阐述了表面工程和再制造工程在产品全寿命周期中的地位和作用,指出失效理论、失效分析是再制造的基础理论之一,表面工程技术和再制造工程技术是对零件进行失效预防和控制的关键手段.     

第十一届全国青年表面工程学术会议第二轮通知

正中国机械工程学会表面工程分会计划于2019年4月26～28日在北京组织召开"第十一届全国青年表面工程学术会议"。本次会议将通过学术研讨、技术交流、产品展示等方式交流我国表面工程与再制造工程研究和应用方面取得的最新成果和进展。大会的主题是"面向军民融合的表面工程与再制造工程"。     

绿色再制造工程的发展现状和未来展望

再制造工程是废旧机电产品高技术修复改造的产业化,是循环经济和节能环保产业的重要技术支撑。中国的再制造工程经历了产业萌生、科学论证和政府推进三个阶段。中国特色的再制造主要基于尺寸恢复和性能提升,并以先进的寿命评估技术、纳米表面工程和自动化表面工程技术为支撑,其重要特征是再制造产品的质量和性能不低于原型新品,成本为新品的50%、节能60%、节材70%,显著改善环保。具有中国特色的再制造模式已逐渐形成,并取得了重要成果。     

第十二届全国表面工程大会暨第十届全国青年表面工程论坛第一轮通知

正会议时间:2018年11月9～12日会议地点:云南昆明云安会都酒店主办单位:中国机械工程学会表面工程分会承办单位:昆明理工大学支持媒体:中国表面工程,摩擦学学报,材料保护,表面工程与再制造经中国机械工程学会表面工程分会第五届四次会议研究决定,第十二届全国表面工程大会暨第十届全国青年表面工程论坛将于2018年11月9～12日在云南昆明举行,这又将是全国表面工程领域的一届行业盛会。     

综合信息

中国机械工程学会表面工程分会增补会员单位的通知中国表面工程技术及行业进步,极大地推动了整体社会经济的发展。中国机械工程学会表面工程分会名誉主任徐滨士院士等倡导的“发展再制造工程构造循环经济建设节约型社会”已被社会各界普遍认可。在表面工程分会第三届一次会议上,委员们研究、讨论了表面工程技术发展方向,为中国表面工程学界更广泛地加强国际交流制订了规划。近期还邀请了英国的T.BELL教授出任学会荣誉委员并与英国《Surface Engineering》杂志就审稿工作达成了合作协议,并成功推荐刘宣勇等10位专家出任《SurfaceEngineer…     

中国机械工程学会表面工程分会 第四届全国表面工程学术交流会征文通知

中国机械工程学会表面工程分会2001年2月6日行业技术信息 随着高新技术的迅猛发展,表面工程技术在材料科学领域、机电制造业和再制造产业中发挥着越来越重要的作用。为了更好地推动表面工程技术发展,互相交流成功应用经验和最新科研成果,不断提高我国表面工程技术水平,中国机械工程学会表面工程分会初步确定于2001年10月在三峡库区召开第四届全国表面工程学术交流会暨第二届表面工程分会全体委员会议,会期三天。请各位委员、专家、教授、工程技术人员、管理人员大力支持,积极撰写论文,发表有关的新思路、新实验、新设备、新材料、新…     

材料专家系列人物之四 徐滨士

徐滨士,祖籍山东招远,出生于黑龙江哈尔滨市。装甲兵T.程学院教授,博士生导师,中国工程院院士,波兰科学院外籍院士。全军英模代表,全军优秀共产党员,长期从事维修工程、表面丁程和再制造工程研究,是我国表面工程学科和再制造工程学科的倡导者和开拓者之一。1954年毕业于哈尔滨工业大学机械制造与燥接专业,1995年当选中国工程院院士。现任装备     

《表面工程与再制造》征订启事

<正>《表面工程与再制造》由武汉材料保护研究所主办,是国内唯一一本以"再制造"命名的国内外公开发行的杂志,为中国核心期刊数据库收录期刊、中国科技期刊数据库收录期刊、中国期刊全文数据库收录期刊、中国学术期刊综合评价数据库收录期刊、中国机械工业联合会优秀期刊、湖北省优秀期刊。本刊采用国际标准大16开本,全彩     

浅谈再制造在汽车用空调压缩机的应用

介绍了一种降低汽车压缩机维修成本的方法一压缩机再制造,并根据压缩机的结构特点,将压缩机再制造按照再制造程度进行分类。本文重点阐述了零配件阶段压缩机再制造的核心问题以及工艺流程。     

硼基材料在表面工程上应用的潜力

全面阐述了硼基材料适于表面工程上应用的各种潜在性能与特点，并分析了其在表面工程上的各种应用前景。     

工程 工程系统 工程系统论与工程科学体系

从分析工程的基本内容、性质和特征人手,引出了工程系统的概念,接着应用一般系统论思想讨论了工程系统论的研究对象和研究方法,并论述了它在整个工程科学体系中的元学科地位。     

Engineering and Philosophy of Engineering

Philosophy of engineering lays the philosophical foundation of recognition, understanding and management of engineering. Being the kernel of philosophy of engineering, engineering ontology becomes the master key to understanding of engineering. The paper proposes and interprets the principal theses of engineering ontology, which differs from understanding of engineering in separate elements. Engineering ontology believes that engineering is the direct, realistic productivity that runs dynamically and feasibly and creates values. Engineering involves the relationship between human beings and the nature as well as the relationship between human beings and the society, and it has been a basic motive force and a basic way of promoting the social development, so that engineering gains the ontological status and fundamental value in social existence and social development. From the historical point of view, the engineering appears before the emergence of technology and science. Engineering has its own basis for existence, its own structure and its own laws for movement and evolution. Engineering should not be simply regarded as the ramification and derivative from science or technology. Engineering ontology is the theoretical basis of the triism of “science, technology, and engineering”. To understand and handle the mutual relationship among engineering, technology and science, by the evaluation criteria of engineering as the direct productivity, the process and effect of engineering-centered selection, integration and construction must be emphasized and the characteristic and mechanism of selection, integration and construction must be paid high attention. Under no circumstance may the engineering be deemed as an unchanged matter, which is constantly evolving and developing, so the studies on engineering ontology are closely and internally related with the theory of engineering evolution.     

Membrane Engineering for Green Process Engineering

Green process engineering, which is based on the principles of the process intensification strategy, can provide an important contribution toward achieving industrial sustainable development. Green process engineering refers to innovative equipment and process methods that are expected to bring about substantial improvements in chemical and any other manufacturing and processing aspects. It includes decreasing production costs, equipment size, energy consumption, and waste generation, and improving remote control, information fluxes, and process flexibility. Membrane-based technology assists in the pursuit of these principles, and the potential of membrane operations has been widely recognized in the last few years. This work starts by presenting an overview of the membrane operations that are utilized in water treatment and in the production of energy and raw materials. Next, it describes the potential advantages of innovative membrane-based integrated systems. A case study on an integrated membrane system (IMS) for seawater desalination coupled with raw materials production is presented. The aim of this work is to show how membrane systems can contribute to the realization of the goals of zero liquid discharge (ZLD), total raw materials utilization, and low energy consumption.     

当代工程观与工程教育

当代工程观反映了当代工程科学和工程技术与社会、经济、文化、生态交叉融合、协调构建的新趋势,对于开展工程教育和培养中国现代化建设的工程人才有重要意义。文章分析了在当代学科交叉渗透的趋势下当代工程观的基本内容;探讨了传统工程教育中的存在过分强调科学理性和技术理性的问题;提出了以综合理性为主导,融合当代工程观的当代工程教育理念。     

Chaos,Engineering, and Engineering Education

A comparison is made between a deterministic scientific paradigm and one that is chaos-based. Possible implications of the incorporation of the chaos-based paradigm into the engineering profession as well as into engineering education are discussed.     

工程制图课程的工程性改革实践

在教学内容上,分析了现代工程图学的教学要求,提出了工程制图课程新的教学体系.在教材上,以贯彻国家标准为出发点,重新组织了相关教学内容.在教学过程中,强调了制图课程的工程性,调动了学生学习工程知识和进行工程实践的积极性.     

工程与工程管理的哲学思考

当前,我国正处于经济建设快速发展时期,许多重大工程相继建成并投入使用,凸现工程活动的重要地位和工程管理的巨大作用,标志着我国已经进入工程时代。工程时代呼唤工程哲学,工程建设管理活动离不开哲学思想指导,大力开展工程哲学研究既是哲学发展的必然,又是时代的迫切要求。文章在分析工程哲学的形成、发展及主要研究内容的基础上,提出了工程的哲学内涵与本质：物质性、变化性和时空性,进而对工程管理的理念、价值观、方法论、组织与创新等方面的哲学内涵进行了探讨,以促进我国工程管理理论的发展和管理水平的提高。     

The Engineering Science of Industrial Engineering: A Viewpoint of the Industrial Engineering Curriculum

This paper outlines the scientific underpinnings of Industrial Engineering and proposes an approach to educating the Industrial Engineer based on this engineering science. The proposed definition of the “Industrial Engineering science” rests on the premise that IE is made up of three main functional areas: (1) production engineering, (2) operational science, and (3) ergonomics/human factors engineering. This paper outlines the various IE activities that fall into these three functional categories, and attempts to show the relationships of those areas to six underlying science bases; namely, (1) Industrial Engineering sciences, (2) general engineering sciences, (3) life sciences, (4) physical sciences, (5) behavioral and social sciences, and (6) mathematics.     

Engineering ceramics

The applications are clear, the required properties are known and, in principle, are attainable. The important question is can the necessary refinements be developed in fabrication techniques to facilitate their utilisation.