The Design and Development of an Evaluation System for Online Instruction
基于大数据的SPOC学习评价系统的开发分析
基于大数据的SPOC学习评价系统的开发分析罗经辉 杜敏成(广东生态工程职业学院 广东广州 510320)摘要:基于大数据的小规模限制性在线课程(Small Private Online Course,SPOC)学习评价系统是基于大数据的思维,使用Python+Django框架进行的开发,主要实现线上、线下学习数据的采集,通过数据抽取、数据清洗、数据转换、特征提取、数据加载等一系列的数据预处理手段对数据进行处理,使用Django的“模型-模板-视图”(Model Templates View,MTV)模型进行数据库存取与交互,对学生学习数据进行分析与建模,从而形成包括学习态度、学习方法、学习能力等多维度的学习评价。
文章是对学习评价系统的开发分析,包括开发环境和开发技术的分析,从而阐明学习评价系统的开发思路及系统设计成果。
关键词:大数据 学习评价系统 Python+Django框架 多维度学习评价 MTV模型中图分类号:TP311.52文献标识码:A 文章编号:1672-3791(2023)14-0163-05Analysis of the Development of SPOC Learning EvaluationSystem Based on Big DataLUO Jinghui DU Mincheng(Guangdong Eco-Engineering Polytechnic, Guangzhou, Guangdong Province, 510320 China) Abstract:The SPOC learning evaluation system based on big data is a development based on big data thinking and the Python+Django framework. It mainly realizes the collection of online and offline learning data, processes data through a series of data preprocessing methods such as data extraction, data cleaning, data conversion, feature ex‐traction and data loading, and uses Django's MTV model for database access and interaction, Analyze and model students' learning data to form multi-dimensional learning evaluation including learning attitude, learning methods, learning ability, etc. This paper is an analysis of the development of the learning evaluation system, including the analysis of the development environment and development technology, so as to clarify the development ideas and system design results of the learning evaluation system.Key Words: Big data; Learning evaluation system; Python+Django framework; Multi dimensional learning evalu‐ation; MTV model基于大数据的小规模限制性在线课程(Small Private Online Course,SPOC)学习评价系统是广东省职业技术教育学会2021—2022年度科研规划项目课题——《基于大数据的混合式学习评价体系》的研究成果之一。
酒香深处,与董丹华对话
人物FIGURE国家级品酒师董丹华作为人大代表参加十四届全国人大二次会议。
As a NPC deputy, national liquor taster Dong Danhua attends the second session of the 14th National People’s Congress.文/刁艳杰Smelling Liquor Aroma, Dialoguing with Dong Danhua酒香深处,与董丹华对话在白酒的天地中,存在这样一群人,他们仰仗敏锐的味觉与嗅觉,深度探寻白酒的玄妙,评判每滴酒的优劣,他们便是白酒品酒师。
而扳倒井股份有限公司酒体研究所副所长董丹华,无疑是其中的佼佼者。
在这草长莺飞的时节,我们有幸与董丹华一同迈入奇妙的品酒师世界。
董丹华作为评委出席全国第一届酒体设计大赛。
As a judge, Dong Danhua attends the First National Liquor Body Design Competition.从初涉到精通2007年大学毕业后,董丹华加入了扳倒井股份有限公司。
“一次偶然的机会,看到公司正在招聘品酒师,我抱着尝试的心态报名,竟然顺利通过了感官灵敏度考核,从此开启了另一番人生走向。
”谈起品酒师人生的开端,董丹华觉得是机缘巧合。
看似轻松的起点,却引向了充满挑战的过程。
学习品酒相对乏味,需要极强的意志力。
在参加工作之前,董丹华很少接触白酒,突然长时间地接触白酒,导致她出现了口腔溃疡等不适症状。
“我也想过放弃,可内心深处的那股倔强劲儿让我不甘心就这样半途而废。
我不断告诉自己,再坚持几天,或许就能找到解决问题的办法。
”就这样,一天接着一天的坚持,让董丹华逐步踏上正轨,获得了身边人的认可,并于2011年成功考取了省级白酒评委。
然而,在那之后的一段时间,董丹华发现自己进入了水平提升的瓶颈期。
经过一番深思熟虑,董丹华意识到想要百尺竿头更进一步,必须深入生产一线,将所学理论与实践紧密结合。
多指标综合评价方法研究综述
·开发与创新·0引言多指标综合评价是指人们根据不同的评价目的,选择相应的评价形式,据此选择多个因素或指标,并通过一定的评价方法,将多个评价因素或指标转化为能反映评价对象总体特征的信息[1]。
其中评价指标与权重系数确定将直接影响综合评价的结果[2]。
本文由此从评价指标与权重确定两方面出发,对当前应用神经网络、遗传算法、粗糙集、熵、模糊数学与灰色关联度等相关理论的多指标评价方法作简要综述,并对多指标综合评价方法的未来研究方向作出展望。
1综合评价方法概述[3~6]按照权数产生方法的不同,多指标综合评价方法可分为主观赋权评价法和客观赋权评价法两大类。
其中主观赋权评价法采取定性的方法,由专家根据经验进行主观判断而得到权数,然后再对指标进行综合评价。
如层次分析法、综合评分法、模糊评价法、指数加权法和功效系数法等。
客观赋权评价法则根据指标之间的相关关系或各项指标的变异系数来确定权数进行综合评价。
如熵值法、神经网络分析法、TOPSIS 法、灰色关联分析法、主成分分析法、变异系数法、聚类分析法、判别分析法等。
两种赋权方法特点不同,其中主观赋权评价法依据专家经验衡量各指标的相对重要性,有一定的主观随意性,受人为因素的干扰较大,在评价指标较多时难以得到准确的评价。
客观赋权评价法综合考虑各指标间的相互关系,根据各指标所提供的初始信息量来确定权数,能够达到评价结果的精确,但是当指标较多时,计算量非常大。
由于大多数评价方法其约束条件太多,在实际应用中,经常需要在许多假定的基础上或在进行一系列的变通处理后才能应用相关评价方法。
对此,当前出现了采用神经网络、熵、粗糙集、遗传算法等多种方法集成的思想,来改进评价方法的公正性与精确性。
所谓集成的综合评价方法,就是采用综合集成的思想,将两种或两种以上的方法加以改造并结合,获得一种新的评价方法。
下面就对当前所出现的新评价方法进行比较分析。
2集成的综合评价方法综述2.1基于神经网络的综合评价法人工神经网络ANN (Artificial Neural Network )具有自组织、自学习、自适应、非线性映射等特性,能对多指标综合评价问题给出一个客观的评价。
面向新文科的Python_课程项目式学习教学研究
第 22卷第 6期2023年 6月Vol.22 No.6Jun.2023软件导刊Software Guide面向新文科的Python课程项目式学习教学研究房媛1,王美航1,赵秀岩1,邵利1,王伟珍2,于晓强1(1.大连工业大学工程训练中心(创新与创业教育中心);2.大连工业大学服装人因与智能设计研究中心,辽宁大连 116034)摘要:探讨智能时代“新文科”建设教育背景下人才的先进计算素养培养需求,基于项目式学习的教学理念,提出Python程序设计课程的“九步三逐”项目式学习教学模式,从培养学生的计算思维与计算能力、数据思维与数据能力和系统思维与应用能力3个主要方面建立课程教学目标,以适应新一代信息技术产业技术发展对人才的迫切需求。
以大连工业大学经管文科类专业开设的Python语言与数据处理课程为改革主体,通过课程路径建设、教学实施迭代和形成性考核方案修订等教育教学环节的实践,形成面向新文科的Python课程项目式学习的实操性强、可推广的教学方案,以适应新时代人才培养的需求。
关键词:Python;项目驱动式;新文科;形成性评价;先进计算DOI:10.11907/rjdk.221838开放科学(资源服务)标识码(OSID):中图分类号:G642 文献标识码:A文章编号:1672-7800(2023)006-0080-05Research on Project-Based Learning of Python Course for New Liberal Arts FANG Yuan1, WANG Mei-hang1, ZHAO Xiu-yan1, SHAO Li1, WANG Wei-zhen2, YU Xiao-qiang1(1.School of Engineering Practice and Innovation-Entrepreneurship Education, Dalian Polytechnic University;2.Human Factors and Intelligent Fashion Design Research Center, Dalian Polytechnic University, Dalian 116034,China)Abstract:Exploring the advanced computing literacy cultivation needs of talents in the context of the "new humanities" construction educa‐tion in the intelligent era, based on the teaching concept of project-based learning, a "nine step, three step" project-based learning teaching mode for Python programming course is proposed. The course teaching objectives are established from three main aspects: cultivating students′ computing thinking and computing ability, data thinking and data ability, and system thinking and application ability, To adapt to the urgent demand for talent in the development of the new generation of information technology industry technology. Taking the Python language and data processing course offered by Dalian University of Technology as the main reform subject,through the practice of educational and teaching links such as course path construction, teaching implementation iteration, and formative assessment plan revision, a practical and scalable teaching plan for project-based learning of Python courses for new humanities has been formed to meet the needs of talent cultivation in the new era.Key Words:Python; project-based learning; new liberal arts; formative evaluation; advanced computing0 引言“数字化+智能化”的时代浪潮涌动,高等教育面临着历史性变革和挑战。
设计创新与创业课程教学大纲
课程简介
设计类大学生创新+创业在我国还是新生事物,时间不长,实践中成功的不多,理论上的成果更少,设计创业教育在我国刚刚起步。因此,加强我国在校大学生的创业理念教育和创业技能培养,已是一项重要和紧迫的任务。本课程正是基于这一大背景下,探索基于我国国情的设计类大学生设计与创业一体化培养模式及方法,主要内容有听取设计界成功专家的设计与创业经验;基于自己所熟悉的专业知识寻找、发现某个问题或者市场机会进行专项调研;针对该问题进行设计创新并给出合理的设计解决方案;为自己的设计方案写出创业计划书;熟习淘宝众筹、京东众筹等平台上关于创业计划书的格式及相关要求并写出自己的众筹方案。
[4]Mushipe, Zuvarashe Judith. Entrepreneurship Education --- An Alternative Route to Alleviating Unemployment and the Influence of Gender: An Analysis of University Level Students' Entrepreneurial Business Ideas.[J].International Journal of Business Administration4.2 (Mar 2013): n/a.
LTC2442 24位高速4通道DS ADC集成放大器的说明书
1DC979AfDescription24-Bit High Speed 4-Channel DS ADC with Integrated AmplifierThe L TC ®2442 is a 2-/4-channel, high speed, 24-bit ΔS ADC with ten selectable speed/resolution modes from 6.9Hz/200nV RMS to 3.5kHz/25μV RMS . Key DC specifica-tions include 4ppm maximum INL, 5μV offset, 10ppm full-scale error and 20nV/°C offset drift. In the 6.9Hz/200nV RMS mode, an input normal mode rejection of 50Hz and 60Hz noise is better than 87dB. The accuracy (offset, full-scale, linearity, drift) and power dissipation are independent of the speed selected. The LTC2442 incorporates rail-to-rail buffer amplifiers for true high impedance inputs.DC979A is a member of Linear Technology’s QuikEval™ family of demonstration boards. It is designed to allowL , L T , L TC, L TM, Linear Technology and the Linear logo are registered trademarks andQuikEval and SoftSpan are a trademarks of Linear Technology Corporation. All other trademarks are the property of their respective owners.BoarD photoeasy evaluation of the LTC2442 and may be connected directly to the target application’s analog signals while using the DC590 USB serial controller board and supplied software to measure performance. The exposed ground planes allow proper grounding to prototype circuitry. After evaluating with L TC’s software, the digital signals can be connected to the application’s processor/controller for development of the serial interface.Design files for this circuit board are available at /demoFigure 1. DC979A Demonstration BoardharDware setupJumpersJp1, Jp2: Select the source for REF+ and REF–, respect-ively. REF+can be 5.00V from the onboard L T®1236 reference (default) or supplied externally. REF– can be ground (0V, default) or supplied externally.Jp3: Select source for analog COM input, either tied to ground or supplied externally to the COM turret post.Jp6, Jp7: Select the positive and negative supply volt-ages for the onboard amplifier. Supplies can be V CC and GND or +10 and –5V from the onboard LTC1983 charge pump. To use an external power supply, REMOVE JP6 and JP7 and connect the external supply to the V+, GND, and V– turrets.Jp4: T rigger mode, either normal (default) or externally triggered (TRIG).Figure 2. Quikeval software2DC979Af3DC979AfDEMO MANUAL DC979AharDware setupexperimentsJp5: Enable/disable the LTC1983 charge pump power supply for onboard amplifier. See JP6, JP7 description.Jp8: T rigger Input Signal. Pin 1 is a 5V logic input, Pin 2 is ground. When triggered mode is selected on JP4, a rising edge starts a new conversion. Note that since a conversion cannot be terminated once started, this signal can only be used to slow down the conversion rate.CONNeCTION TO DC590 serIAL CONTrOLLer J1 is the power and digital interface connector. Connect to the DC590 serial controller with the supplied 14-conductor ribbon cable.ANALOG CONNeCTIONsAnalog signal connections are made via the row of turret posts along the edge of the board. Also, if you are connect-ing the board to an existing circuit, the exposed ground planes along the edges of the board may be used to form a solid connection between grounds.GND: Ground turrets are connected directly to the internal analog ground plane.VCC: This is the supply for the ADC. Do not draw any power from this point. External power may be applied to this point after disabling the switching supply on the DC590. If the DC590 serial controller is being used, the voltage must be regulated 5V only, as the isolation circuitry will also be powered from this supply. See the DC590 Quick Start guide for details.reF +, reF –: These turrets are connected to the LTC2442REF + and REF – pins. If the onboard reference is beingused, the reference voltage may be monitored from this point. An external reference may be connected to these terminals if JP1 and JP2 are configured for external reference.Note: The REF + and REF – terminals are decoupled to ground with 0.01μF and 4.7μF capacitors in parallel. Thus, any source connected to these terminals must be able to drive a capacitive load and have very low impedance at DC. Examples are series references that require an output capacitor and C-load stable op amps, such as the LT1219 and LT1368/CH0-CH3: These are the differential inputs to the LTC2442. They may be configured either as single-ended inputs with respect to the COM pin, or adjacent pairs may be configured as differential inputs (CH0-CH1, CH2-CH3.)INpuT NOIseSolder a short wire from CH0 to CH1. Ensure that the buffer amplifiers are in their active region of operation by either biasing the inputs to mid-supply with a 10kΩ to 10kΩ divider when the buffer amplifier is powered from V CC and ground, or tie the inputs to ground and select +10 and –5V for V + and V –.Set the demo software to OSR32768 (6.8 samples per second) and check the 2X box. Noise should be approxi-mately 0.04ppm of V REF (200nV.) Next, select different oversample ratios. Measured noise for each oversample ratio should be close to the values given in the LTC2442 data sheet.COmmON mODe reJeCTIONTie the two inputs (still connected together from the previ ous experiment) to ground through a short wire andnote the indicated voltage. Tie the inputs to REF +; thedifference should be less than 5μV due to the 120dB CMRR of the LTC2442.Select +10 and –5V for V + and V – for this experiment. If the common mode voltage is limited to GND + 0.25V to V CC – 0.25V, this test may be performed with the amplifier supplies set to ground and V CC .4DC979AfDEMO MANUAL DC979A parts ListITem QTY reFereNCe pArT DesCrIpTIONmANuFACTurer/pArT NumBer DC979A required Circuit Components17C1, C4, C11-C15CAP., X7R, 0.1µF, 16V, 20%, 0402TDK, C1005X7R1C104M 28C2, C5, C7, C8, C9, C16, C17, C21CAP., X5R, 4.7µF, 10V, 20%, 0603TDK, C1608X5R0J475M 33C3, C6, C10CAP., X7R, 0.01µF, 25V, 10%, 0402AVX, 04023C103KAT1A 43C18, C19, C20CAP., X5R, 2.2µF, 10V, 20%, 0805TDK, C2012X5R1A225M 53D1, D2, D3DIODE, SCHOTTKY, SOT23DIODE INC., BAT54S 616E1-E16TESTPOINT, TURRET, 0.064"MILL-MAX, 2308-277JP1-JP7JMP, 3-PIN, 1 ROW, 0.079"SAMTEC, TMM-103-02-L-S 87FOR JP1-JP7, PIN 1 AND PIN 2SHUNT, 0.079" CENTER SAMTEC, 2SN-BK-G 90JP8JMP, 2-PIN, 1 ROW, 0.100"COMM CON., 3801S-02G2101J1HEADER, 2×7 PIN, 0.079"MOLEX, 87831-1420110J2CONN, 5-PIN, GOLD, STRAIGHT CONNEX, 132134120R1RES., 0402OPT133R2, R3, R4RES., CHIP, 4.99k, 1/16W, 1%, 0402AAC, CR05-4991FM 141R5RES., CHIP, 100, 1/16W, 5%, 0402VISHAY, CRCW0402101J 152R6, R13RES., CHIP, 10k, 1/16W, 5%, 0402AAC, CR05-103JM 161R7RES., CHIP, 51, 1/16W, 5%, 0402AAC, CR05-510JM 174R8, R9, R10, R12RES., CHIP, 0, 1/16W, 5%, 0805AAC, CJ10-000M 180R11RES., CHIP, 0, 1/16W, 5%, 0805OPT191U1I.C., LTC2442CG, SSOP36G LINEAR TECHNOLOGY, LTC2442CG 201U2I.C., LT1236ACS8-5, SO8LINEAR TECHNOLOGY, LT1236ACS8-5211U3I.C., 24LC025, TSSOP8MICROCHIP, 24LC025-I/ST 221U4IC, NON-INVERTING MUL TIPLEXER, SC70FAIRCHILD, NC7SZ157P6X 231U5IC, SINGLE D, FLIP-FLOP, US8ON SEMI., NL17SZ74US241U6I.C., LTC1983ES6-5, SOT23-6LINEAR TECHNOLOGY, LTC1983ES6-5INpuT NOrmAL mODe reJeCTIONThe LTC2442’s SINC4 digital filter is trimmed to strongly reject both 50Hz and 60Hz line noise when operated with the internal conversion clock and oversample ratio 32768 (6.8 samples per second.) To measure input normal mode rejection, connect COM to a 2.5V source such as an LT1790-2.5 reference or a power supply. Connect any other input (CH0-CH3) to the same supply through a 10k resistor. Apply a 10Hz, 2V peak-to-peak sine wave to the input through a 1µF capacitor.Select OSR32768 (6.8 samples per second) and 2X mode in the demo software and start taking data. The input noise will be quite large, and the graph of output vs time should show large variations.Next, slowly increase the frequency to 55Hz. The noise should be almost undetectable in the graph.Change the OSR to 16384 (13.75 samples per second) the noise will increase substantially, as the first notch at this OSR is at 110Hz. Increase the signal generator frequency to 110Hz, the noise will drop again.experimentsDEMO MANUAL DC979AInformation furnished by Linear Technology Corporation is believed to be accurate and reliable. However, no responsibility is assumed for its use. Linear Technology Corporation makes no representa-tion that the interconnection of its circuits as described herein will not infringe on existing patent rights.F i g u r e 3 . D C 9 7 9 A 4 -C h a n n e l , H i g h s p e e d , 2 4 -B i t A D C w i t h B u f f e rschematic Diagram5DC979Af6DC979AfDEMO MANUAL DC979ALinear Technology Corporation1630 McCarthy Blvd., Milpitas, CA 95035-7417(408) 432-1900 ● FAX : (408) 434-0507 ● www.linear .comLINEAR TECHNOLOGY CORPORA TION 2013LT 0613 • PRINTED IN USADEMONSTRATION BOARD IMPORTANT NOTICELinear Technology Corporation (L TC) provides the enclosed product(s) under the following As Is conditions:This demonstration board (DEMO BOARD) kit being sold or provided by Linear Technology is intended for use for eNGINeerING DeVeLOpmeNT Or eVALuATION purpOses ONL Y and is not provided by L TC for commercial use. As such, the DEMO BOARD herein may not be complete in terms of required design-, marketing-, and/or manufacturing-related protective considerations, including but not limited to product safety measures typically found in finished commercial goods. As a prototype, this product does not fall within the scope of the European Union directive on electromagnetic compatibility and therefore may or may not meet the technical requirements of the directive, or other regulations.If this evaluation kit does not meet the specifications recited in the DEMO BOARD manual the kit may be returned within 30 days from the date of delivery for a full refund. THE FOREGOING WARRANTY IS THE EXCLUSIVE WARRANTY MADE BY THE SELLER TO BUYER AND IS IN LIEU OF ALL OTHER WARRANTIES, EXPRESSED, IMPLIED, OR STATUTORY, INCLUDING ANY WARRANTY OF MERCHANTABILITY OR FITNESS FOR ANY PARTICULAR PURPOSE. EXCEPT TO THE EXTENT OF THIS INDEMNITY, NEITHER PARTY SHALL BE LIABLE TO THE OTHER FOR ANY INDIRECT , SPECIAL, INCIDENTAL, OR CONSEQUENTIAL DAMAGES.The user assumes all responsibility and liability for proper and safe handling of the goods. Further , the user releases L TC from all claims arising from the handling or use of the goods. Due to the open construction of the product, it is the user’s responsibility to take any and all appropriate precautions with regard to electrostatic discharge. Also be aware that the products herein may not be regulatory compliant or agency certified (FCC, UL, CE, etc.).No License is granted under any patent right or other intellectual property whatsoever. L TC assumes no liability for applications assistance, customer product design, software performance, or infringement of patents or any other intellectual property rights of any kind.L TC currently services a variety of customers for products around the world, and therefore this transaction is not exclusive .please read the DemO BOArD manual prior to handling the product . Persons handling this product must have electronics training and observe good laboratory practice standards. Common sense is encouraged .This notice contains important safety information about temperatures and voltages. For further safety concerns, please contact a L TC applica-tion engineer .Mailing Address:Linear Technology 1630 McCarthy pitas, CA 95035Copyright © 2004, Linear Technology Corporation。
Developing
Design Research in the Netherlands75 7. Developing NPD-Process KnowledgeJan BuijsDepartment of Product Innovation & ManagementSub-Faculty of Industrial Design EngineeringDelft University of Technology7.1 IntroductionThis conference on Design Research in the Netherlands 2000 gives us a nice opportunity to show the results of design research which is being carried out at the Delft School for Product Design (officially the Sub-faculty of Industrial Design Engineering at the Delft University of Technology). Since the 1995 conference a lot has happened. In those days the Delft School of Product Design was the independent Faculty of Industrial Design Engineering. Now we have merged with the Schools of Mechanical Engineering and Naval Architecture into the new Faculty of Design, Construction and Production (DCP). The number of students and staff for product design stayed constant for all those years (ca. 100 fte staff and 1600 students). Originally we had five organisational units: four “Vakgroepen” responsible for teaching and research in the fields of respectively Construction, Ergonomics, Formgiving and Management Sciences, with one shared “Werkgroep” responsible for teaching design.Now we have three departments (“Afdelingen”), responsible only for research: Industrial Design (ID), Design Engineering (DE) and Product Innovation & Management (PI&M). All education is separately organised, headed by the Director of Education. Design teaching is an integral part of this organisation (although it is separately organised as the Institute for Design Teaching (= IvOO = Instituut voor het Ontwerp Onderwijs) and has the same budgetary status as the three research departments ID, DE and PI&M. The Department of Industrial Design is the combination of the former Ergonomics and Formgiving groups, Design Engineering comes from the former Construction group and Product Innovation & Management comes from the Management Sciences group. Design Methodology was part of the Management Sciences group and is now part of PI&M.7.2 Design researchIt could be argued that all research carried out within a school of product design is a form of design research, but that would be much too pretentious. For instance within the Department of Design Engineering research is done in the field of material sciences on plastics, and within Industrial Design researchers look at the physical limitations of elderly people in order to design better suited products for them. Within the Department of Product Innovation & Management research has been done on market introduction strategies for new products. These and other research projects are not considered as design research projects though.It would be difficult to make a sharp distinction between what is design research and what is not, especially considering the multi-disciplinary character of design itself. I will limit design research to only those research subjects that are aimed at the development of process knowledge of the New Product Development (NPD) process and not covered by other76Developing NPD-Process Knowledge traditional mono-disciplinary domains. This gap partly exists because the other disciplines are not interested in them (i.e. intuition and creativity by psychologists) or because they are unable to do it within a mono-discipline (i.e. real protocol analysis of product design projects needs both designers or engineers and psychologists).I will also limit myself to the research work of the Department of Product Innovation & Management. Others at this conference will take care of the research work that is being done in the other departments.By doing so I will not go into the research carried out within the Marketing group (a sub group of PI&M), because their research is part of the mono-discipline of marketing. Even though they have, besides marketeers, economists, psychologists, communication scientists and even product designers in their staff. I will only report about the developments within the two other groups of PI&M, the Design Methodology Group and the Management & Organisation Group.7.2.1The Design Methodology Group(Permanent research staff per May 1st 2000: ir. Norbert Roozenburg, dr. Peter Lloyd and 2 vacancies. Temporary research staff: 2 vacancies).This has been the core design research group at our school, right from its beginning in 1964. Design Methodology is one of the key elements in the curriculum of Delft School of Product Design. According to the research of Hanny de Wilde (1997), about the history and development of this school, explicit attention to design methodology was one of the key elements to start the first product design school in the Netherlands at a university level. The founder of our school, an architect called Joost van der Grinten, borrowed the ideas about design methodology both from the Royal College of Art in the UK and from the Hochschule für Gestaltung in Ulm, Germany. The work of Bruce Archer was quite influential.The graduation work of our first graduate (Norbert Roozenburg in December 1971) was about the application of a specific design method in product design. He still works at the school and is, not only, very active in the design methodology and design research field, but is also the Director of the School’s Institute for Design Teaching. He is unable to be here because he is currently guest professor at the Danish University of Technology in Copenhagen. So I will be his humble representative.The first professor in Design Methodology was Johannes Eekels (he became emeritus in 1987). Together with Norbert Roozenburg he produced numerous books and articles. The latest Dutch version of their book was published in 1998 (Roozenburg and Eekels 1998). An English version was published in 1995 (Rozenburg and Eekels 1975).Besides this traditional emphasis on the prescriptive and normative ways of designing, which is still of concern, the research in this field now also embraces empirical studies.The publication of the book on the Delft workshop on protocol analysis is a landmark in this respect (Cross, Christiaans and Dorst 1996). The workshop was organised to discuss, among leading scholars in design research, the results of different analyses from shared data.The shared data consisted of a protocol study on both individual and group design work. It was based on the same design brief. The experiment itself has taken place at Xerox PARC in California. The experimenters were Nigel Cross (at that time part-time professor in Design Methodology in Delft), Anita Cross, Henri Christiaans and Kees Dorst; the participating designers came from IDEO, the leading product design firm in the US.The workshop offered a great deal of insight into how designers actually work. At the workshop invited scholars shared their results, ideas, objections and doubts. It was interesting to watch the discussion because every attendant of the workshop had used the same originalBuijs77 data. It proved to be a very effective way of having detailed discussions about both the content of a design process as well as the way of doing protocol studies.Another interesting project of this group has been the research of Kees Dorst. This empirically based study proved that the use of different paradigms within the design research field could be used to study different aspects of design. Traditionally within the design research domain the rational problem solving paradigm, based on Herbert Simon’s ideas, is dominant (Simon 1967). Kees showed that this paradigm has its limitations, and looked for another paradigm. Donald Schön’s idea of “design as a reflective practice” proved to be this interesting other paradigm (Schön 1983). Kees showed that using both paradigms to interpret the same empirical data leads to different views and different conclusions about how designers are really working (Dorst 1997). It is my opinion that this multi-paradigmatic analysis of product design will produce more interesting results.The arrival, last year, of Peter Lloyd from the UK, an ethnographic oriented design researcher, is the next step to continue the current new stream of conducting further empirical studies.The teaching of this group is focused on a fourth year course in Design Theory and Design Methods for all our design students. Of course the group is very active in the design studio work within the “IvOO”.7.2.2The Management & Organisation Group(Permanent research staff per May 1st 2000: prof. dr. ir. Jan Buijs, ir. Frido Smulders, ir. Rianne Valkenburg, dr. Hanny de Wilde, and 2 vacancies. Temporary research staff: ir. Danielle Hendriks, ir. Remko van der Lugt, and 2 vacancies).The main objective of the Management & Organisation Group, the group I am responsible for, is to study product design processes in their natural environment, that is in the competitive situation of design projects, within companies, working together with suppliers and customers. Its focus is on design as a business activity. We usually refer to it as “design in context” or “design in business”We are looking into product design as the result of teamwork. We are interested in both the communication within the team, as well as the influence of the project leader on team behaviour. This approach looks at team behaviour not in terms of group dynamics, but in terms of design work. Of course design work and group behaviour are intertwined, but we are primarily interested in the content of the product design work.This shift from individual designers towards design groups has been caused by the very practice of industrial product development. Few product designs are the work of just one lonely designer. Nowadays complicated consumer- and industrial products are always the results of multi-disciplinary design teams.However we are not only interested in the teamwork itself, but also in the interfaces between those design teams and the rest of the organisation.We are continually conducting case studies of product development in real corporate situations. This allows us to compare empirical studies with theories of product development and has resulted in two books on Integrated New Product Development and a new course for our first year product design students (Buijs and Valkenburg 1996 and 2000).During the discussions of the aforementioned Delft workshop on analysing design activities we discovered big differences in the ways psychologists and design researchers were looking at design behaviour. For example two researchers were looking at the same type of a group design activity. Both looked at a specific action on the videotape. However the psychologist looked at body language and group dynamics, while the design researcher looked at the78Developing NPD-Process Knowledge content of the discussions within the design team. So for both there was something interesting to see, but the results were completely different. More surprisingly, some times the conclusions were completely different or even opposing.This has led to some very intriguing research projects. Helga Hohn, a psychologist, started to look at the behaviour of team leaders in helping teams with innovative tasks. She questioned more than 75 international working professionals on how they inspire their (design) teams, how they keep them on track, and how they deal with the company pressure to perform better, quicker or cheaper. Once again process and content were very closely related with “playing”proving to be very important in keeping teams alive and kicking (Hohn 1999).Rianne Valkenburg, a design researcher, is looking at team design work on the content level. She is comparing two teams of students designing during the Philips Design Competition, and two professional design teams, which took part in the earlier Delft experiment at Xerox PARC. Inspired by Kees Dorst’s work she is using Donald Schön’s paradigm to compare these different design teams. She has operationalised Schön’s theory and is heading towards some interesting conclusions about shared understanding and team communication based on the content of the design project (Valkenburg and Dorst 1998). Her thesis will be published at the end of this summer.Within this team-based research Danielle Hendriks and Hanny de Wilde are doing research about the role and influence of project leaders on the results of the product design team. Besides interviewing project leaders in Dutch design consultancies, they were also allowed to study the archives of one of the leading Dutch design firms. From a knowledge management perspective these archives have not proved useful. However, they have shown that if designers want to learn from their past they have to be more accurate in what and how to file their actual design work. Recently, an e-mail-based way of making weekly diaries has been developed. In analysing these diaries they hope to find some of the heuristics, project leaders use to solve their professional problems (Hendriks and De Wilde 1999). They are helped in this by a research student, Sjors Witjes, who is doing empirical research in cooperation with Stanford University. He is observing and interviewing project leaders of product development teams in the US high tech industry. Hopefully we can compare the results from the Netherlands with those from the US. These results will be integrated in our recently developed fourth year course on Product Development Management.In our attempts to study the real life of designers we have discovered that most designers talk about intuition as an important element in their work. Although intuition is difficult to study within the traditional way of doing scientific research, we have taken up the challenge. Robin Groeneveld has interviewed about twenty professional designers. Most of them are very explicit about the influence of intuition and about the way they can rely on it. Hopefully his PhD thesis will be published the end of this year.Finally within the Management & Organisation Group we are interested in stimulating creativity in product design. Not only have we developed a fourth year course on Creative Problem Solving (CPS), we have also started a research project in this field. Creative Problem Solving (i.e. brainstorming or synectics) is usually verbally based, while product designers tend to be visually oriented. The research project of Remko van der Lugt is trying to bridge the gap between the original CPS-rules and the more visual attitudes of product designers. The first results are promising (Van der Lugt 1998). An extended version of braindrawing, as opposed to brainstorming, seems to be an effective tool for product designers. His PhD thesis is scheduled for early next year.Beside the already mentioned courses we are also teaching a third year course on Strategy and Organisation (Frido Smulders is responsible) and we all participate in the design studio work.Buijs79 7.3 Final remarksThe research in both the Design Methodology Group and in the Management & Organisation Group is aimed at getting better insights into the process of New Product Development (NPD). With this insight we hope to improve the quality of product design work.By sharing a selection of our work with other design researchers in the Netherlands we hope to get enough energy not only to continue, but also to improve.7.4 ReferencesBuijs, J. A., and Valkenburg,R. (1996).Integrale Produktontwikkeling, Lemma,Utrecht.Buijs, J. A., and Valkenburg,R. (2000).Integrale Productontwikkeling - Tweede Geheel Herziene Druk, Lemma, Utrecht.Cross, N. G.and Christiaans,H.and Dorst, K. (1996).Analyzing Design Activities, Wiley, Chichester.Dorst, C. H.(1997).Describing Design: A Comparison of Paradigms, PhD thesis, Delft University of Technology.Hohn, H.(1999).Playing, Leadership and Team Development in Innovative Teams, PhD thesis,Delft University of Technology.Hendriks,D.and Wilde, H. de (1999).Project Management for New Product Development Projects: An Empirical Study, in: Proceedings ICED‘99,München.Lugt, R. van der and Buijs, J.A.(1998). Creative Problem Solving in Product Development: An Exploration Into the Use of CPS in Design Practice, in: Dingli, S., Creative Thinking, Towards Broader Horizons, Malta University Press.Roozenburg N. F. M. and Eekels, J. (1995).Product Design: Fundamentals and Methods, Wiley,Chichester. Roozenburg,N. F. M. and Eekels, J.(1998).Produktontwerpen, tweede druk, Lemma, Utrecht.Schön, D. A.(1983).The Reflective Practitioner, Basic Books,New York, 1983.Simon, H.A. (1967).Sciences of the Artificial, The MIT Press, Cambridge MA.Valkenburg, R. and Dorst,K.(1998).The Reflective Pratice of Design Teams, in:Design Studies,19, pp.249-271.Valkenburg, R. (2000).The Reflective Pratice of Product Design Teams. PhD thesis Delft University of Technology, forthcoming in2000.Wilde,H. de (1997).Passie Voor Productontwikkeling, Lemma,Utrecht.。
Microchip Technology Inc. DSxxxxx 28-PIN LIN DEMO
DM164130-328-PIN LIN DEMO BOARDUSER’S GUIDEInformation contained in this publication regarding device applications and the like is provided only for your convenience and may be superseded by updates. It is your responsibility to ensure that your application meets with your specifications.MICROCHIP MAKES NO REPRESENTATIONS OR WARRANTIES OF ANY KIND WHETHER EXPRESS OR IMPLIED, WRITTEN OR ORAL, STATUTORY OR OTHERWISE, RELATED TO THE INFORMATION,INCLUDING BUT NOT LIMITED TO ITS CONDITION,QUALITY , PERFORMANCE, MERCHANTABILITY OR FITNESS FOR PURPOSE . Microchip disclaims all liability arising from this information and its use. Use of Microchip devices in life support and/or safety applications is entirely at the buyer’s risk, and the buyer agrees to defend, indemnify and hold harmless Microchip from any and all damages, claims,suits, or expenses resulting from such use. No licenses are conveyed, implicitly or otherwise, under any Microchip intellectual property rights.TrademarksThe Microchip name and logo, the Microchip logo, Accuron, dsPIC, K EE L OQ , micro ID , MPLAB, PIC, PICmicro, PICSTART, PRO MATE, PowerSmart, rfPIC and SmartShunt areregistered trademarks of Microchip Technology Incorporated in the U.S.A. and other countries.AmpLab, FilterLab, Migratable Memory, MXDEV, MXLAB, SEEVAL, SmartSensor and The Embedded Control Solutions Company are registered trademarks of Microchip Technology Incorporated in the U.S.A.Analog-for-the-Digital Age, Application Maestro, CodeGuard, dsPICDEM, , dsPICworks, ECAN, ECONOMONITOR, FanSense, FlexROM, fuzzyLAB,In-Circuit Serial Programming, ICSP , ICEPIC, Linear Active Thermistor, Mindi, MiWi, MPASM, MPLIB, MPLINK, PICkit, PICDEM, , PICLAB, PICtail, PowerCal, PowerInfo, PowerMate, PowerTool, REAL ICE, rfLAB, rfPICDEM, Select Mode, Smart Serial, SmartTel, TotalEndurance, UNI/O, WiperLock and ZENA are trademarks of Microchip Technology Incorporated in the U.S.A. and other countries.SQTP is a service mark of Microchip Technology Incorporated in the U.S.A.All other trademarks mentioned herein are property of their respective companies.© 2009, Microchip Technology Incorporated, Printed in the U.S.A., All Rights Reserved.Printed on recycled paper.Note the following details of the code protection feature on Microchip devices:•Microchip products meet the specification contained in their particular Microchip Data Sheet.•Microchip believes that its family of products is one of the most secure families of its kind on the market today, when used in the intended manner and under normal conditions.•There are dishonest and possibly illegal methods used to breach the code protection feature. All of these methods, to ourknowledge, require using the Microchip products in a manner outside the operating specifications contained in Microchip’s Data Sheets. Most likely, the person doing so is engaged in theft of intellectual property.•Microchip is willing to work with the customer who is concerned about the integrity of their code.•Neither Microchip nor any other semiconductor manufacturer can guarantee the security of their code. Code protection does not mean that we are guaranteeing the product as “unbreakable.”Code protection is constantly evolving. We at Microchip are committed to continuously improving the code protection features of our products. Attempts to break Microchip’s code protection feature may be a violation of the Digital Millennium Copyright Act. If such acts allow unauthorized access to your software or other copyrighted work, you may have a right to sue for relief under that Act.Microchip received ISO/TS-16949:2002 certification for its worldwide headquarters, design and wafer fabrication facilities in Chandler and Tempe, Arizona, Gresham, Oregon and Mountain View, California. The Company’s quality system processes and procedures are for its PIC ® 8-bit MCUs, K EE L OQ ® code hopping devices, Serial EEPROMs,microperipherals, nonvolatile memory and analog products. In addition, Microchip’s quality system for the design and manufacture of development systems is ISO 9001:2000 certified.28-PIN LIN DEMO BOARDUSER’S GUIDETable of ContentsChapter 1. 28-Pin LIN Demo Board Overview1.1 Introduction (4)1.2 Highlights (4)1.3 28-Pin LIN Demo Board Supported Devices (4)1.4 28-Pin LIN Demo Board Overview (5)1.5 Running the Default Demonstration (5)Appendix A. Hardware SchematicsA.1 Introduction (7)Worldwide Sales and Service (10)28-PIN LIN DEMO BOARDUSER’S GUIDE Chapter 1. 28-Pin LIN Demo Board Overview1.1INTRODUCTIONThe 28-Pin LIN Demo Board is a small and simple demonstration PCB for Microchip’s28-pin Dual Inline Package (DIP) PIC® Microcontroller Units (MCU). It is populated witha PIC16F886 MCU, a MCP2021 LIN Transceiver with voltage regulator, four LEDs, 2push buttons and a potentiometer. The demo board has several test points to accessthe I/O pins of the MCU and a generous prototyping area. The MCU can beprogrammed with the PICkit™ 2 Microcontroller Programmer or the MPLAB® ICD 2using the RJ-11 to 6-pin inline adapter (AC164110).1.2HIGHLIGHTSThis chapter discusses:•28-Pin LIN Demo Board Supported Devices•The 28-Pin LIN Demo Board Overview•Running the Default Demonstration1.328-PIN LIN DEMO BOARD SUPPORTED DEVICESThe 28-Pin LIN Demo Board can be used with virtually any 28-pin Dual Inline Package(DIP) PIC MCU. The assembled 28-Pin LIN Demo Board is populated with aPIC16F886-I/P microcontroller.Additional 28-Pin LIN Demo Boards can be ordered from Microchip Technology anddistributors. Part number, DM164120-3, comes with one assembled and two blank28-Pin LIN Demo Boards. The blank demo board can be used for evaluating or proto-typing circuits using any of the 28-pin devices listed below.PIC16CR63PIC16F913PIC18F2510PIC16CR76PIC16F916PIC18F2520PIC16C63A PIC18F2515PIC16C745PIC18F2523PIC16C773PIC18F2220PIC18F2525PIC18F2221PIC18F2550PIC16F737PIC18F2320PIC18F2580PIC16F767PIC18F2321PIC18F2585PIC16F870PIC18F2331PIC18F2610PIC16F872PIC18F2410PIC18F2620PIC16F873A PIC18F2420PIC18F2680PIC16F876A PIC18F2423PIC18F2682PIC16F882PIC18F2431PIC18F2685PIC16F883PIC18F2450PIC18F24J10PIC16F886PIC18F2455PIC18F25J10PIC18F248028-Pin LIN Demo Board Overview1.428-PIN LIN DEMO BOARD OVERVIEWThe 28-Pin LIN Demo Board is populated with a PIC16F886 MCU (U1), a MCP2021LIN Transceiver with Voltage Regulator (U2), four LEDs (DS1-DS4), Two push buttons(SW1 and SW2), 32 KHz crystal (X2) and potentiometer (RP1). The board layout isshown in Figure1-1. The demo board has several test points to access the I/O pins ofthe MCU and a generous prototyping area. The MCU can be programmed with thePICkit™ 2 Microcontroller Programmer from header P1.1.5RUNNING THE DEFAULT DEMONSTRATIONThe assembled 28-Pin LIN Demo Board comes preprogrammed with a demonstrationprogram. To use this program, power the demo board (9.0-18.0V DC) using a LINNetwork Analyzer and/or a bench power supply connected to header P3 or P4. To usethe PICkit™ 2 Microcontroller Programmer, connect it to a PC USB port using the USBcable. The demo board will blink the LEDs in the Reset pattern. The Reset patternconsists of three different LED blink patterns. First, the LEDs will “ping pong” (LED1, 2,3 and 4, then LED 4, 3, 2 and 1). Second, the LEDs will blink on and off in unison. Third,the LEDs will perform the ADC display where values 0x0A, 0x0D and 0x0C display insequence followed by the Most Significant 4 bits of the ADC result measuring channel1, which is the on-board potentiometer. After this sequence, the EAUSART is initializedfor LIN communcation.Sending an ID of 0x2F will request a four-byte data response as follows:Data byte 1 = ADC result28-Pin LIN Demo Board User’s GuideData byte 2 = (bit 5 = SW1, bit 4 = SW2, bit 3:0 LEDSData byte 3 = 0 (not used)Data byte 4 = 0 (not used)28-PIN LIN DEMO BOARDUSER’S GUIDE Appendix A. Hardware SchematicsA.1INTRODUCTIONThis appendix contains the 28-Pin LIN Demo Board schematic and Bill of Materials.28-Pin LIN Demo Board User’s GuideHardware Schematics A.1.2Bill of MaterialsBill of MaterialsDesignation Qty DescriptionC1, C22Capacitor, Ceramic, 0.1µF, 5%, X7RC5, C62Capacitor, Ceramic, 22pF, 50V, C0GC7, C82Capacitor, Tantalum, 10µF, 5%, 35VC91Capacitor, Ceramic, 0.01µF, 5%, X7RC101Capacitor, Ceramic, 220pF, 50V, C0GR3-R64Resistor, 470Ω, 5%, 1/8WR2, R72Resistor, 1kΩ, 5%, 1/8WR1, R8, R14, R154Resistor, 10kΩ, 5%, 1/8WR9-R122Resistor 100Ω, 5%, 1/8WR131Resistor 220kΩ, 5%, 1/8WRP11Potentiometer 10kΩ, thumbwheelDS1-DS44LED, T1-3/4, 5mmD111N4750, 27V, Zener diodeD211N4004, diodeD311N4148, diodeSW11Switch, push button, momentaryU1 – Microcontroller128-pin PIC® MCUU2 - LIN Transceiver1MCP2021-500E/PP11Connector, header, right-angle, 6-pin, 0.100” spacing, 0.025”P41D-SUB 9-pin femaleJP1:5, JP7:JP87Connector, header, 2-pin, 0.100” spacing, 0.025” squareJP61Connector, header, 3-pin, 0.100” spacing, 0.025” squareRubber Feet4Bumpon square, 0.40 x 0.10, blackX21Crystal, tuning fork, cylinder, 12.5pFJ11Connector, receptacle 1x14-pinAMERICASCorporate Office2355 West Chandler Blvd. Chandler, AZ 85224-6199 Tel: 480-792-7200Fax: 480-792-7277 Technical Support: Web Address: AtlantaAlpharetta, GATel: 770-640-0034Fax: 770-640-0307BostonWestborough, MATel: 774-760-0087Fax: 774-760-0088 ChicagoItasca, ILTel: 630-285-0071Fax: 630-285-0075DallasAddison, TXTel: 972-818-7423Fax: 972-818-2924DetroitFarmington Hills, MITel: 248-538-2250Fax: 248-538-2260 KokomoKokomo, INTel: 765-864-8360Fax: 765-864-8387Los AngelesMission Viejo, CATel: 949-462-9523Fax: 949-462-9608Santa ClaraSanta Clara, CATel: 408-961-6444Fax: 408-961-6445 TorontoMississauga, Ontario, CanadaTel: 905-673-0699Fax: 905-673-6509ASIA/PACIFICAsia Pacific OfficeSuites 3707-14, 37th FloorTower 6, The GatewayHabour City, KowloonHong KongTel: 852-2401-1200Fax: 852-2401-3431Australia - SydneyTel: 61-2-9868-6733Fax: 61-2-9868-6755China - BeijingTel: 86-10-8528-2100Fax: 86-10-8528-2104China - ChengduTel: 86-28-8665-5511Fax: 86-28-8665-7889China - FuzhouTel: 86-591-8750-3506Fax: 86-591-8750-3521China - Hong Kong SARTel: 852-2401-1200Fax: 852-2401-3431China - QingdaoTel: 86-532-8502-7355Fax: 86-532-8502-7205China - ShanghaiTel: 86-21-5407-5533Fax: 86-21-5407-5066China - ShenyangTel: 86-24-2334-2829Fax: 86-24-2334-2393China - ShenzhenTel: 86-755-8203-2660Fax: 86-755-8203-1760China - ShundeTel: 86-757-2839-5507Fax: 86-757-2839-5571China - WuhanTel: 86-27-5980-5300Fax: 86-27-5980-5118China - XianTel: 86-29-8833-7250Fax: 86-29-8833-7256ASIA/PACIFICIndia - BangaloreTel: 91-80-4182-8400Fax: 91-80-4182-8422India - New DelhiTel: 91-11-4160-8631Fax: 91-11-4160-8632India - PuneTel: 91-20-2566-1512Fax: 91-20-2566-1513Japan - YokohamaTel: 81-45-471- 6166Fax: 81-45-471-6122Korea - GumiTel: 82-54-473-4301Fax: 82-54-473-4302Korea - SeoulTel: 82-2-554-7200Fax: 82-2-558-5932 or82-2-558-5934Malaysia - PenangTel: 60-4-646-8870Fax: 60-4-646-5086Philippines - ManilaTel: 63-2-634-9065Fax: 63-2-634-9069SingaporeTel: 65-6334-8870Fax: 65-6334-8850Taiwan - Hsin ChuTel: 886-3-572-9526Fax: 886-3-572-6459Taiwan - KaohsiungTel: 886-7-536-4818Fax: 886-7-536-4803Taiwan - TaipeiTel: 886-2-2500-6610Fax: 886-2-2508-0102Thailand - BangkokTel: 66-2-694-1351Fax: 66-2-694-1350EUROPEAustria - WelsTel: 43-7242-2244-39Fax: 43-7242-2244-393Denmark - CopenhagenTel: 45-4450-2828Fax: 45-4485-2829France - ParisTel: 33-1-69-53-63-20Fax: 33-1-69-30-90-79Germany - MunichTel: 49-89-627-144-0Fax: 49-89-627-144-44Italy - MilanTel: 39-0331-742611Fax: 39-0331-466781Netherlands - DrunenTel: 31-416-690399Fax: 31-416-690340Spain - MadridTel: 34-91-708-08-90Fax: 34-91-708-08-91UK - WokinghamTel: 44-118-921-5869Fax: 44-118-921-5820 W ORLDWIDE S ALES AND S ERVICE10/19/06DSxxxxx-page 10© 2009 Microchip Technology Inc.DM164130-3。
SmartFactoryKL 行业4.0示范工厂说明书
16NewsOEM & SystemIntegrationWeighing Componentsmation for manufacturing, such as parts list, production status, the name to be en-graved and quality parameters. The data stored on the RFID tag allows the cases to actively manage their own produc-tion. That allows the individual case to be made without the need for extra produc-tion control, which is the prerequisite for flexible and individualized mass produc-tion with lot size 1.Flexible manufacturing facilitates fast changeoverFuture manufacturing concepts have to be flexible to efficiently adapt to new products and to be moved to new loca-tions. To do that, SmartFactory KL® com-prises nine mobile modules. The modules are supplied with electricity and com-The SmartFactory KL®, which is founded by the German Research Center for Artifi-cial Intelligence (DFKI), developed a fully functional demonstration machine for discrete manufacturing as a showcase for Industry 4.0 (or The Internet of Things). The SmartFactory KL® and the institute were supported by 50 leading automation and software companies.Individualized mass production is possibleTo demonstrate individualized produc-tion with lot size 1, SmartFactory KL® pro-duces personalized business-card cases in various colors. The case has “prod-uct memory” in the form of a radio fre-quency identification (RFID) tag. This RFID tag stores all the necessary infor-Industry 4.0 Reality CheckWeighing Works for Quality ControlA new Industry 4.0 demonstration machine shows individualized production with lot size 1, flexible manufacturing and future concepts for IT integration. High-resolution weigh mod-ules proved to be the ideal solution for reliable, flexible and simple quality control of indi-vidualized products.METTLER TOLEDO OEM & System Integration News 162I n d u s t r y 4.0 / I n t e r n e t o f T h i n g sAbsence of manufacturing execution systemsSmartFactory KL® doesn’t require a man-ufacturing execution system to steer the product through the production process. Data exchange via OPC UA between mod-ules is limited to the mutual recognition for clarification as to whether the adja-cent module fits with the next manufac-turing step.pressed air and connection for data ex-change via one loose cable. That allows the modules to be completely independent from one other and allows the production team to shift the modules in different or-ders as needed or to even take out mod-ules if they are not needed. Their inde-pendence allows efficient commissioningand format changes for different products. The individual modules correspond to the Reference Architecture Model (RAMI 4.0), which describes Industry 4.0-compliant production equipment. They represent the element “Station” which include “Control Devices” and “Field Devices”.Publisher / Production Mettler-Toledo GmbH Industrial Division Heuwinkelstrasse CH-8606 Nänikon SwitzerlandSubject to technical changes © 02/2017 Mettler-Toledo GmbH133.7Reference Architecture Model RAMI 4.0The overview below shows SmartFactory KL® application dis-played using the RAMI 4.0 model of Industry 4.0 or Internet of Things.1 Layers1.1 Business: Giveaway for visitors at the trade show1.2 Functional: Holding Business cards with name of owner 1.3 Information: All product data. Ensuring data integrity1.4 Communication: Data format 1.5 Integration: RFID tag1.6 Asset: Physical component. Business card case2 Life Cycle & Value Stream 2.1 Type: Development and Maintenance of Product2.2 Instance: Individualization with color and name of holder 3 Hierarchy Levels3.1 Product: Business Card Holders3.2 Field Device: Motors and conveyors3.3 Control Device: Scale for quality control3.4 Station: Module with PLC, motors, conveyors, scale and other sensors3.5 Work Center: Production Line 3.6 Enterprise3.7 Connected WorldMETTLER TOLEDO OEM & System Integration News 163Weighing is the right choiceA manufacturing process consisting of automatic and manual modules does not automatically guarantee perfect quality. Therefore, the cases are weighed for qual-ity control with a high-precision WMS weigh module. Their weight value is com-Business Card HoldersIndividualized business card holders in different colors and with holder’s name engraved. Each card holder has an inte-grated RFID tag to memorize all prod-uct data.pared with the specific target weight that is stored in the RFID tag. Weight detec-tion with a high-precision weigh module makes it possible to detect faulty, miss-ing or excess components with great cer-tainty, even if a part is not visible from the outside of the product./IND-4-0-oeWMS Weigh ModuleHigh-precision weigh module for qual-ity control detects deviations of one point in four millions with a capacity of 400 grams and repeatable readability of 0.1 milligram./WMS-oeWeight-Based Quality ControlThis white paper explains advantag-es and provides application hints for weight based quality control in auto-mation./ind-wp-wbqc-oeby courtesy of SmartFactory KL®METTLER TOLEDO OEM & System Integration News 164E a s e o f I n t e g r a t i o nFully engineered Device Description files for Siemens and Allan-Bradley PLC Systems allow you to simply integrate weighing devices via drag and drop in their well-known program-ming tools. After wiring is completed and all devices run, typically it takes less than five minutes to transfer weight values into the PLC input register.The present and future of production network technologies are based on the Industrial Ethernet standard. The most common solutions using that technol-ogy are PROFINET IO RT and EtherNet/IP. Sensors and actuators that comply with those standards can be easily inte-grated into PLC systems if vendors pro-vide the right tools and design installa-tion-friendly products.State-of-the-art connectivityMETTLER TOLEDO offers a comprehen-sive range of transmitters, weigh modules, scales and weighing platforms, which are made for easy integration into machines and instruments. The product range cov-ers capacities from 100 grams up to hun-dreds of tons with the smallest readability of 0.1 milligram. All models can be con-nected to PROFINET IO RT and EtherNet/IP directly or via an optional easy-to-in-stall gateway.Integrate Weighing into a PLCIn Less Than 5 MinutesThe fully prepared device description file can be imported into the PLC programing tool with drag and drop. All data for the PLC’s input/output-image are pre-configured. The program-mer doesn’t have to give symbolic names for convenient programing, because it is donealready.The PLC integration can easily be done with the well-known Siemens TIA portal or Allan Bradley‘s Studio 5000 programing tool.Direct Connectivity forSiemens S7 via PROFINET IO RT Direct Connectivity forAllan Bradley via EtherNet/IPTwo typical network-Topologies for PROFINET IO RT or EtherNet/IP including a Siemens or AllanBradley PLC plus Computer for programing, switch, power-supply and a weighing device.METTLER TOLEDO OEM & System Integration News 165Standardized PLC-I/O image offers flexibilityAll METTLER TOLEDO weighing devices with incorporated connectivity to PRO-FINET IO RT and EtherNet/IP have the same data at their input/output image inside the PLC. This simplifies weighing equipment standardization for the ma-chine manufacturer because different weighing devices may be exchanged with-out changing the PLC programming. That provides unlimited freedom for the ma-chine manufacturers to always select the right weighing devices./ind-connect-PLC-oeEngineering Note: Connectivity to PLCThis engineering note explains and shows how easy it is to connect a comprehensive range of METTLER TOLEDO weighing devices to the most common PLC Systems.E n g i n e e r i n g N o t eMETTLER TOLEDO OEM & System Integration News 166ISO 9001 Regulation Revision due 2018New Business Opportunity for Machine BuildersC o m p l i a n c e S e r v i c e sCompliance with the ISO 9001:2015 revision requires a risk-based approach. To comply with the revised standard, your customers must evaluate weighing equipment installed in machines that you have supplied. We support machine manufacturers in consulting their customers and we also perform the necessary on-site calibrations.Experts to Consult Machine Availability of Certified Test Good Weighing Practice TM Partnering to create a win-win situationOur experts use Good Weighing Prac-tice™ (GWP ®) methodology to evalu-ate and recommend calibration processes based on a risk-based thinking approach. With GWP ®, you receive a document with all the necessary information, including results of our risk assessment and the rec-Many of your customers are likely ISO 9001 certified. Due to the recent revision of the standard, they will have to evaluate their performance verification processes for their measuring equipment by 2018.That evaluation is required for weighing equipment incorporated into machines and instruments.Turn new requirements into businessAs a result, customers might contact you to evaluate the calibration of the weigh-ing equipment you installed a while ago. Such consulting can trigger new service business for you, as recalibration services are an enhancement to your existing pre-ventative maintenance services.METTLER TOLEDO OEM & System Integration News 167ommended intervals for recalibration for compliance with the new requirements. We can provide weighing-equipment ver-ification with a GWP Verification at yourcustomers’ sites. In addition, we are ableto perform the calibration on your behalf.This partnership offers you incremental business when your own service techni-cians and the necessary test weights are not available./OEM-Service-oe METTLER TOLEDO serves global customers with one of the largest sales and service networks in our industry – over 5,000 sales and service specialists strong. Machine ma-nufacturers can benefit from this organization by cooperating with our experts and service technicians for better serving their own customers.New ISO 9001Requirements are due 2018The 2015 revision of ISO9001 has brought some major changes. The combination of the process ap-proach with risk-based thinking, and employing the “Plan-Do-Check-Act Cycle” at all levels in the orga-nization is relevant for weighing ap-plications with relevance for product quality. Companies have to up-date their processes until Septem-ber 2018.R i sk C on si d er a ti o n OKMETTLER TOLEDO OEM & System Integration News 168C o n t i n u o u s M a n u f a c t u r i ngHow does a tablet manufacturer benefit from a continuous approach?A tablet press can be considered a contin-uous system already. However, the tablet mixture has historically been preparedin a batch mode. Making the entire pro-cess continuous provides significant ef-ficiency gains and contributes to better product quality.What is the role of dosing and mixing in this process?The continuous dosing-mixing module is an essential element of continuous OSD production. It typically consists of grav-imetric feeders for APIs and excipients, as well as a mixing module that feeds di-rectly into the tablet press, granulator or extruder. Such a system requires much less floor space and substantially reduces development and validation time because scale-up is no longer needed. Current sys-tems can process between 50 grams and 250 kilograms per hour.What needs to be considered when switching to a continuous process?Product quality is substantially deter-mined by the accuracy and consistency of upstream gravimetric dosing processes. Any error will result in a deviation from target quality. Additionally, mix homoge-neity is influenced by mixing chamber and paddle design, rotational frequencyA Leap in Process EfficiencyExpert Advice: Continuous Solids DosingContinuous manufacturing of oral solid dosage (OSD) forms provides significant efficiency and quality benefits – but it can also pose substantial process-development challenges. Dr. Ralf Weinekötter, an expert on continuous dosing and mixing, provides insights on the capabilities and limitations of such systems.Dr. Ralf WeinekötterMETTLER TOLEDO OEM & System Integration News 169Key Benefits:Continuous Solids Processing• Better quality: Easy integration with downstream processes, such as tablet compression, reduces segregation risk.• Improved efficiency: Continuous manufacturing is an automated process with integrated sophisti-cated online measuring devices and control tech-nologies to ensure accurate formulations. • Faster time to market: Scale-up from lab to pilot to production is no longer necessary. Extend-ing the operating time of the pilot module to reach normal production output is sufficient.• Less space: A continuous dosing-mixing-mod-ule’s footprint is just 2 x 2 x 2 meters./ind-continuous-dosing-oe(shear rate) and residence time distribu-tion. Continuous processes have a reduced segregation risk compared to batch mix-ers because the product is directly fed into the next process without the use of inter-mediate bins with a high segregation risk. Material properties can also pose chal-lenges. Cohesive materials, for example, require extensive engineering to ensure accurate dosing and mixing.Why is weighing technology a critical part of continuous dosing systems?Dosing of micro-components, such as APIs, requires a level of accuracy that only can be achieved with gravimetric dosing feeders. Other technologies for powder dosing, such as flow meters, are significantly less accurate.What are important specifications for weighing sensors in these systems?Precise feeding requires advanced weigh-ing, optimal design of the screw feeder and a sophisticated controller that an-alyzes weighing-sensor data and selects the optimal settings to ensure a constant feed rate.The weighing sensor must combine high accuracy with a large capacity. The ca-pacity is essential because the sensor has to carry the screw feeder with the feed hopper, which contains the dosing mate-rial. Not many weighing technology com-panies, apart from METTLER TOLEDO, can provide sensors that master this chal-lenge of high capacity with pristine ac-curacy. In addition, the weighing sensor must provide a high measurement up-date rate and fast transmission of weigh-ing data to the controller. This is neces-sary to accurately control the screw feeder and ensure constant material throughput.Are continuous processes the future of pharma preparation?Continuous processes provide significant benefits in terms of efficiency, quality and process safety. We have reached a point where suitable systems are available to help companies transition to the contin-uous method, and we believe the coming years will generate many more exciting developments.METTLER TOLEDO OEM & System Integration News 1610E f fi c i e n c y a n d C o m p l i a n c eTrust Your Old Weighing Equipment?You Could Have False Sense of SecurityProcess tolerances in your manufacturing process could have changed a while ago. Old measuring equipment which, despite frequent recalibration, might not comply with today’saccuracy requirements. We can get you compliant with a professional verification.Floor Scales for Simple Weigh-ing in Production and Logistics Different platforms sizes includ-ing ramps and pit frames made of painted carbon steel up to 316 stainless steel with IP69k protec-tion offer the right solution for any environment and application.Portable Scales Provide FlexibilityFactory layouts change often to make manufacturing processes more efficient or adapt quickly to new products. Portable scales or mobile pallet truck scales provide flexibility to adapt fast and easy to new situations in the future.Auditing an installed baseOur service technicians can help you comply with the ISO revision using our Good Weighing Practice™ (GWP ®) method. It includes risk evaluation and provides a statement regarding whether the scale is suitable for the particular ap-plication for which it is used.Most machine manufacturers use weigh-ing in their own production for logis-tics, formulation or quality control. Their scales were often procured long ago and they are no longer accurate enough be-cause process tolerances have changed. That can happen even when scales are regularly verified with test weights as part of the quality-control process.New regulationsmight require actionThe new ISO9001:2015 revision requires a risk-based evaluation of measuring equipment. It could also require a reeval-uation of existing equipment.METTLER TOLEDO OEM & System Integration News 1611Weighing Terminals for a Multitude of ApplicationsWindows-based weighing termi-Additionally, the user receives a recom-mendation for calibration intervals and suitable test weights for calibration.Scientific selection method GWP is applicable to new and existing tific methodology for secure selection, calibration and operation of weighingequipment. It also provides documented evidence for reproducible weighing resultsin harmony with all current quality stan-dards in laboratory and manufacturing, including a risk evaluation. /GWP-oeCertificateDocumenting proper evaluation ofGWP Recommendation/ind-oePharma WorkflowFor more informationPredictive MaintenanceRemote Performance MonitoringInTouch SM Remote Services is a cloud-based, off-the-shelf solution that is making main-tenance easy and downtime a thing of the past for businesses large and small. Machine manufacturers can pass on the benefits of InTouch predictive maintenance and monitoring to their customers.Besides gaining a competitive advantage with InTouch, you can receive valuable information about the performance of your equipment during warranty and later as paid service.For more information about Remote Performance Monitoring visit:/ind-intouch-remote-oeEventI 'm O KI 'm O KI 'm O KA l a r mAlarm AlarmLocal contact: /contacts4GE[ENGF (KDGT YKVJ 2QUV EQPUWOGT 9CUVGMettler-Toledo, LLC 1900 Polaris Parkway Columbus, OH 43240Mettler-Toledo Hi-Speed 5 Barr RoadIthaca, NY 14850 Mettler-Toledo Safeline 6005 Benjamin Road Tampa, FL 33634 Mettler-Toledo CI-Vision 2640 White Oak Circle, Unit A Aurora, IL 60502Mettler-Toledo, Inc.2915 Argentia Road, Unit 6Mississauga, Ontario L5N 8G6。
3D打印机毕业设计
……………………. ………………. …………………山东农业大学毕业论文题目:3D打印机设计装订线……………….……. …………. …………. ………学院机电学院专业班级电气五班届次2014届学生姓名姜云飞学号20100776指导教师宋洪军二O一四年五月十二日目录摘要 (Ⅰ)Abstract (Ⅱ)引言 (2)1绪论 (2)1.1 国内外3D打印机的研究现状 (2)1.1.1 国外3D打印机的研究现状 (2)1.1.2 国内3D打印机的研究现状 (3)1.2 3D打印机的发展趋势 (3)1.2.1 3D打印产业的未来发展前景 (3)1.2.2 3D打印技术未来发展的主要趋势 (4)1.3 3D打印机的工作原理及特点 (4)1.4 发展创新与突破 (6)2 总体方案及结构设计 (7)2.1 引言 (7)2.2 总体框架的设计 (8)2.3 温度控制回路的设计 (8)2.4 XYZ三方向控制电机的设计 (9)2.5 喷头移动及喷出量调节的设计................... 错误!未定义书签。
3 机械结构 ......................................... 错误!未定义书签。
3.1 传动方式的选择............................... 错误!未定义书签。
3.2 转动惯量的计算............................... 错误!未定义书签。
3.3 喷头的选择 (12)4 电机的选择 (13)4.1 伺服电机和步进电机的对比 (13)4.2 直流交流伺服电机对比 (15)4.3 负载转矩的计算 (15)4.4 打印速度的初步估计 (16)5 传感器 (16)5.1 温度传感器对比 (16)5.2 机械位置传感器 (18)5.3 压力传感器 (19)6 3D打印机的优点及面临问题 (21)6.1 3D打印机的优点 (21)6.2 3D打印技术面临的问题 (21)参考文献 (22)致谢 (23)ContentsSummary (Ⅰ)Abstract ................................................. .. (Ⅱ)1 Introduction (2)1.1 Research Status 3D printer at home and abroad (2)1.1.1 Research Status of Foreign 3D printer (2)1.1.2 Research Status of domestic 3D printers (3)1.2 Trends of 3D printer (3)1.2.1 Future prospects of 3D printing industry (3)1.2.2 3D printing technology for future development (4)1.3 3D printer works and features (4)1.4 The development of innovative and breakthrough (6)1.5 Chapter Summary (7)2 Overall program and structural design (7)2.1 Introduction (7)2.2 The overall design of the framework (8)2.3 Temperature control loop design (8)2.4 XYZ three directional control motor design (9)2.5 Mobile and spray nozzle design volume adjustment (9)3 Mechanical structure (10)3.1 Select Transmission (10)3.2 Calculation of moment of inertia (11)3.3 Select nozzle (12)4 Select motor (13)4.1 Comparison of servo motors and stepper motors (13)4.2 Comparison of DC servo motor (15)4.3 The calculated of load torque (15)4.4 Preliminary estimates Print Speed (16)5 Sensor (16)5.1 Comparison Temperature Sensor (16)5.2 Mechanical position sensor (18)5.3Pressure sensor (19)6 Advantages of 3D printers and the problems faced (21)6.1 Advantages 3D printer (21)6.2 3D printing technology issues facing the (21)References (22)Acknowledgements (23)3D打印机毕业设计作者:姜云飞指导教师:宋洪军【摘要】3D打印是最近两年开始流行的一种快速成形技术, 它以数字模型文件为基础, 通过逐层打印的方式来构造物体. 我们日常生活中的打印机能打印一些平面纸张材料, 而3D 打印机打印出的是立体塑品产品.文章对3D打印的技术体系和国内外产业发展现状、发展态势作了综合介绍,综述3D打印技术的基本概念、发展简史、打印过程原理、应用领域、广泛影响以及面临的问题等.在介绍3D技术的发展历程、3D打印技术的工作原理流程及特点的基础上,分析了3D打印技术的创新点和存在的问题,展望了3D打印技术的未来发展趋势.关键词:3D打印机;快速成型;结构设计;社会制造3D printer GraduationAuthor: Jiang Yunfei Instructor: Song Hongjun【Abstract】:3D printing is one of the last two years became popular rapid prototyping technology, which is based digital model files, through over the printed layer by layer approach to construct objects. Our daily lives printer can print some flat sheet material, and 3D printer to print out the three-dimensional plastic goods products. Article on 3D printing technology system status and domestic industrial development, development made a comprehensive presentation situation, review the basic concepts of 3D printing technology, development history, the printing process principles, applications, and the problems faced widespread impact, etc. In the development process of introduction of 3D technology, working principle and characteristics of the process of 3D printing technology based on the analysis of 3D printing technology innovations and problems, looked to the future development trend of 3D printing technology.Key words:3D printers; rapid prototyping; structural design; social manufacture引言随着时代的进步,我们的生活水平日渐提升,同时,人口也在急剧的增长,我们需要越来越多的物品来满足物质生活条件。
Patient Safety 患者安全
4
Evolution of Patient Safety
‘Will we put the methods of science to work in the evaluation of our practices, or must we admit that no matter how much we read, study, practice and take pains, when it comes to a show-down of the results of our treatment, no one could tell the difference between what we have accomplished and results of some genial charlatan…?”
6
8
What We Know
Canadian Institute for Health Information (2004) • One in nine adults contract infection in hospital. • One in nine patients receive wrong medication or wrong dose. • More deaths after experiencing adverse events in hospital than deaths from breast cancer, motor vehicle and HIV combined.
2001-3 2001 2002 2004 2006
Halifax Symposia on Medical Error RCPSC National Steering Committee on Patient Safety RCPSC Report: Building a Safer System Canadian Patient Safety Institute 6th Canadian Symposium on Patient Safety (Vancouver)
汽车行业各种缩写
汽车行业各种缩写A/D/VAnalysis/Development/Validation 分析/发展/验证CAﻫ系体批审erutcetihcrA evorppAAAﻫDActual pletion Date实际完成日期 ALBSAssemblyLine Balance System装配线平衡系统ANDON暗灯isahcruP decnavdAPAﻫng提前采购rofnI tcudorP decnavdAIPAﻫmation先进得产品信息APQPAdvanced Product Quality Planning先期产品质量策划时工件单际实emiT tcaT lautcATTAﻫBIQBuilding in Quality制造质量 BIWBody In White白车身 BODBill of Design设计清单 BOEB i l l o f Equi pm ent设备清单 OBﻫLBill of Logistic装载清单lliBMOBﻫof Material原料清单BOPBill of Process过程清单isuBDPBﻫnessPlant Deployment业务计划实施CADputer—Aided Design计算机辅助设计 CAEputer-Aided Engineering计算机辅助工程(软件)C ARECu s tome r Ac ce ptan ce & Review Eval uation 用户接受度与审查评估itanretlA tpecnoCSACﻫve Selection概念可改变得选择eunitnoCPICﻫImprove Process持续改进rgetnI tnemtrapTICﻫation Team隔间融合为组 CKDplete Knockdown完全拆缷 CMMCoordinate Measuring Machines坐标测量仪CﻫPVCost per Vehicle单车成本 CR&WControls/Robotics & Welding控制/机器人技术与焊接muCDTCﻫ订签同合gningiS tcartnoCSCﻫulative Trauma Disadjust累积性外伤失调 CTSponent Technical Specification零件技术规格IVCﻫSpleted Vehicle Inspection Standards整车检验标准Dﻫ/PFMEADesign/process failure mode & effects analysis设计/过程失效模式分析rP sisylanA ngiseDPADﻫocess设计分析过程 DESDesign Center设计中心iseDAFDﻫgnfor Assembly装配设计ep某E fO ngiseDEODﻫriments试验设计DOLDie Operation Line-Up冲模业务排行 DPVDe f ec t per Vehi cl e单车缺陷数DﻫQVDesign Quality Verification设计质量验证DREDesignRelease Engineer设计发布工程师 s s oL n u R tc e ri DLRDﻫ直行损失率 noisiceDCSDﻫ率行直nuR nuR tceriDRRDﻫSupport Center决策支持中心ECDEstimated pletion Date计划完成日期EﻫGMEngineering Group Manager工程组经理LEﻫPOE le ctrode p ositio n Primer电极底漆EﻫNGEngineering工程技术、工程学 EOAEnd of Acceleration停止加速&CPEﻫLEn g in ee ri n g P ro d uction Cn tr ol &Lo g i stics工程生产控制与后勤cabdeeF ytilauQ ylraEFQEﻫk早期质量反馈 EWOEngineering Work Order工程工作指令FﻫAFinalApproval最终认可 FEFunctional Evaluation功能评估 F E DRFun ctio n al E v a luation D isposit ion R e po rt功能评估部署报告 FFFFree Form Fabrication自由形态制造得融金laicnaniFNIFﻫFL听lanA stceffE dna edoM eruliaFAEMFﻫysis失效形式及结果分析StnioP de某iFSPFﻫtop定点停议协送传件文locotorPPTFﻫFTQFirst Time Quality一次送检合格率GAGeneral Assembly总装 GA ShopGeneral Assembly Shop总装车间Pa i nt Shop涂装车间y do BﻫShop车身车间间车压冲pohS sserPﻫGCAGlobalCustomerAudit全球顾客评审寸尺何几gnicnareloT & gninoisnemiD cirtemoeG T&DGﻫ及精度 GDSGlobal Delivery Survey全球发运检查 GQTSGlobal Quality Tracking System全球质量跟踪系统部略战球全draoB ygetartS labolGBSGﻫCAVHﻫH e at in g ,V e n til a tion ,and Air C onditioning加热、通风及空调PtnemurtsnIP/Iﻫanel仪表板ICInitiate Charter初始租约 ICDInterface Control Document界面控制文件 EIﻫIn d u s tria lEn g i neering工业工程国sisylanA tekraM trop某E lanoitanretnIAMEIﻫ际出口市场分析ILRSIndirect Labor Reporting System间接劳动报告系统业际国snoitarepO lanoitanretnIOIﻫ务 IOMInspectionOperation Mathod检验操作方法 IOSInspection Operation Summary检验操作概要心中品产际国retneC tcudorP lanoitanretnICPIﻫIPTVIncidents Per Thousand Vehicles每千辆车得故障率调量质始初yevruS ytilauQ laitinISQIﻫ查nIPSIﻫ告报故事tropeR tnedicnIRIﻫtegrated Scheduling Project综合计划argetnIPTIﻫted Training Process综合培训方法IDSTIﻫnterior Technical Specification Drawing 内部技术规范图 IUVAInternational Uniform Vehicle Audit国际统一车辆审核 JESJob Element Sheet工作要素单 JI SJob Is s u e Sh e e t工作要素单制时准emiT ni tsuJTIJﻫJPHJob per hour每小时工作量eKCCKﻫy Control Characteristics关键控制特性K CDSKe y C h a ra c teristic s De s i g nat i on System关键特性标识系统 KPCKey product Characteristic关键产品特性瞧ta kooLTLﻫMFDMetal Fabrication Division金属预制件区MFGManufacturing Operations制造过程IMﻫCMarketing Information Center市场信息中心MﻫIEManufacturing Integration Engineer制造综合工程师 MKTMarketing营销 MLBSMaterial Labor Balance System物化劳动平衡系统MMSTSManufacturing Major Subsystem Technical Specificatio ns制造重要子系统技术说明书irutcafunaMGNMﻫng Engineering制造工程MPGMilford Proving Ground试验场 M PIMa ster P r oc e ss I n d e某主程序索引 PMﻫLMaster Parts List主零件列表MPSMaterial Planning System原料计划系统 MRDMaterial RequiredDate物料需求日期单据数全安品学化steehS ataD yrefaS lairetaMSDSMﻫMSEManufacturing System Engineer制造系统工程 MSSMarket Segment Specification市场分割规范TMﻫ间时障故均平seruliaFneewteB emiT naeMFBTMﻫSManufacturing Technical Specification生产技术规范d radn at S ytefa Se lc i h e V rot oMSSV Mﻫs汽车发动机安全标准 NAMANorth American Market Analysis北美市场分析 NAONorth American Operations北美业务 NAOCNAO ContainerizationNAO 货柜运输制控字数用dellortnoC yllaciremuNCNﻫNOANotice of A u t ho rization授权书SNﻫBNAO Strategy Board北美业务部grODEOﻫanization and Employee Development组织与员工发展康健全安业职htlaeH & ytefaS lanoitapuccOHSOﻫ业职tcA htlaeH & ytefaS lanoitapuccOAHSOﻫ安全与健康法案OSHMSOccupational Safety & Health Management System职业安全健康管理体系 & ytefaS lanoitapuccOSHSOﻫHealth Standards职业安全标准 PAProduction Achievement生产结果PAAProduct Action Authorization产品临时授权ﻫPACPerformance Assessment mittee绩效评估委员会ﻫP AC EProg r a m Assess m ent and C ontrol En v ironme nt项目评估与控制条件 PADProduct Assembly Document产品装配文件 PARTSPart Readiness TrackingSystem零件准备跟踪系统P CP robl emm unicat i on问题信息PﻫCLProduction Control and Logistics生产控制与支持 PCMProcess Control Manager工艺控制负责人PﻫCRProblem munication Report问题交流报告DPﻫCPortfolio Development Center证券发展中心 PDMProduct Data Management产品资料管理PDSProduct Description System产品说明系统 PDTProduct Development Team产品发展小组部程工品产tnemtrapeD gnireenignE noitcudorPDEPﻫ序程估评品产margorP noitaulavE tcudorPPEPﻫPERPersonnel人员 PETProgram E某ecution Team项目执行小组 PGMPr o g ram M a nag ement项目管理 PﻫIPeople Involement人员参与 PIMREPProject Incident Monitoring and ResolutionProcess 事故方案跟踪与解决过程 PLPProduction Launch Process生产启动程序MPﻫIProcess Modeling Integration加工建模一体化 PMMProgram Manufacturing Manager 项目制造经理造制品产stnemeriuqeR ytilibarutcafunaM tcudorP RMPﻫ能要求 PMTProduct Management Team产品车管理小组PﻫOMSProduction Order Management System 产品指令管理小组 POPPoint of Purchase采购点PPPush -Pull推拉 noitcudorPPAPPﻫPar t Ap pro v a l Process 生产零部件批准程序P PﻫE个人防护用品 PPHProblemsPer Hundred百辆车缺陷数PPﻫMP roblems Per Million百万辆车缺陷数决解题问际实gnivloS melborP lacitcarPSPPﻫPRPerformance Review绩效评估PR/RProblem Reporting and Resolution问题报告与解决tsyS gnikcarT dnanoituloseR melborPSTRPﻫem问题解决跟踪系统PSCPortfolio Strategy Council部长职务策略委员会 PSTP l a nt Sup p or tT eam工厂支持小组OTPﻫPri m ary T ryout第一次试验T PﻫRProduction Trial Run生产试运行 PURPurchasing采购PVDProduction Vehicle Development 生产汽车发展 PVMProgrammable Vehicle Model可设计得汽车模型ﻫQAQuality Audit质量评审QAPQuality Assessment Process质量评估过程 QBCQuality Build Concern质量体系构建关系性特量质citsiretcarahC ytilauQCQﻫQCOSQuality Control Operation Sheets 质量风险控制师程工量质reenignE ytilauQEQﻫQETQuality Engineering Team质量工程小组配能功量质tnemyolpeD noitcnuF ytilauQDFQﻫ置、量质ytilibaruDdna,ytilibaileR ,ytilauQDRQﻫ可靠性与耐久力 QSQuality System质量体系 QUAQuality质量 RCReview Charter评估特许 RCDRequi red pletio n Date必须完成日期求请价报noitatouQ roF tseuqeRQFRﻫRGMReliabilityGrowth Management可靠性增长小组PRﻫ估评产资净stessA teN no nruteRANORﻫOReg u lar Productio n Option正式产品选项定评量质排安序程tnemssessA ytilauQ gnituoRAQRﻫRT&TMRigorous Trackingand Throughout Managment 严格跟踪与全程管理eC noisiceD cigetartSCDSﻫnter战略决策中心 SFStyling Freeze造型冻结 SILSingle Issue List单一问题清单SIPStansardized Inspection Process 标准化检验过程束结与求子电pUllA tI gnimmuSUISﻫSLSystem Layouts系统规划SLTShort Leading Team缩短制造周期SMARTdesaB-htaM suonorhcnySPBMSﻫProcess理论同步过程 SMESubject M atter E 某 pert主题专家NSﻫ组小理管统系maeTtnemeganaMsmetsySTMSﻫR坏路实验oitcudorPfo tratSPOSﻫn生产启动 SOPSafe Operating Practice安全操作规程SORStatement of Requirements技术要求SﻫOSStandardization Operation Sheet 标准化工作操作单明说作工kroW fo tnemetatSWOSﻫSPAShipping Priority Audit发运优先级审计 SPCStatistical Process Control统计过程控制型原及面表gnireenignE epytotorP dna ecafruS EPSﻫ工程织组件配snoitarepO straP ecivreSOPSﻫ组小务任一专maeT tnioP elgniSTPSﻫSQASupplier Quality Assurance 供应商质量保证(供应商现场工程师) SQCSupplier Quality Control供方质量控制SQDSupplier Quality Development供应方质量开发程工量质方供reenignE ytilauQ reilppuSEQSﻫ师 SQIPSupplierQuality Improvement Process供应商质量改进程序S SFS t art of System F i l l系统填充 LSSﻫTSubsystemLeadership Team子系统领导组TSSﻫSSubsystem Technical Specification 技术参数子系统no i t azi dradnatSDT Sﻫ标准化T SﻫOSecondary Tryout二级试验 SUI安全作业指导书o tinU dradnatSWUSﻫf Work标准工作单位norivnE kroW detalumiS EWSﻫment模拟工作环境uorG sisylanA gnimiTGATﻫp定时分析组 TBDTo Be Determined下决定TSCTﻫraction Control System牵引控制系统 TDCTechnology Development Centre技术中心TDMFTe某t Data Management Facility 文本数据管理设备nedicnI tseTSMITﻫ具工gnilooTGTﻫt Management System试验事件管理系统 tseTRITﻫIncident Report试验事件报告 TMIETot a l Ma nuf a cturing Int e g ra ti o n En g i neer总得制造综合工程 pihsrenwO latoTEOTﻫE某perience总得物主体验 TPMTotal ProductionMaintenance全员生产维护TSMTrade Study Methodology贸易研究方法TTTact Time单件工时 TVDETotalVehicle Dimensional Engineer整车外型尺寸工程师e ni g nE noitargetnI e lc ih e V latoTEIV Tﻫer整车综合工程师 TWST i re and Wheel Syst e m轮胎与车轮系统组班srekroW otuA detinUWAUﻫUCLU ni f orm Crite r ia List统一得标准表ﻫ布发料资得对核经未esaeleR ataD deifirevnURDUﻫUPCUniform Parts Classification统一零件分级IPAVﻫ师程工配装辆车reenignE ylbmessA elciheVEAVﻫRV ehic l e & Progre s s In t eg r at i on Re vi ew Team汽车发展综合评审小组 VASTDVehicle Assembly Standard Time Data汽车数据标准时间数据DC VﻫVeh icle C h ief Des i gner汽车首席设计师 VCEVehicle Chief Engineer汽车总工程师 VCRIValidation Cross—Reference Inde某确认交叉引用索引VDPVehicle Development Process汽车发展过程DVﻫPPVehicle Development Production Process汽车发展生产过程V DRVerifie d Da t a R e le as e核实数据发布要概述描车汽yrammuS noitpircseD elciheVSDVﻫVDTVehicle Development Team汽车发展组 VD T OVeh i cl eD e v elop m ent Tech n ical O perations汽车发展技术工作eC gnireenignE elciheVCEVﻫnter汽车工程中心VIEVehicle Integration Engineer汽车综合工程师 VINVehicle Identification Number车辆识别代码VISVehicle Information System汽车信息系统VﻫLEVehicle Line E某ecutive总装线主管 VLMVehicle Launch Manager汽车创办经理 VMRRVehicle and Manufacturing Requirements Review 汽车制造必要条件评审emotsuC fo ecioVCOVﻫr顾客得意见 VODV o ic e of Desig n设计意见站认确noitatS noitadilaVSVﻫVS ASVe hi c le Synt he sis,Analysis,and S i mulati on 汽车综合、分析与仿真 VSEVehicle System Engineer汽车系统工程师VTSVehicle Technical Specification汽车技术说明书WBBAWorldwide Benchmarking and BusinessAnalysis全球基准与商业分析 WOTWid e Open Th r ottl e压制广泛开放置布地场作工noitazinagrOecalP kroWOPWﻫW WPWorl d wide Pu r c h as i ng 全球采购费浪错纠noitcerroCPIWMﻫOverproduction过量生产浪费Material Flow过度物料移动浪费oitoMﻫn过度移动浪费Waiting等待浪费Inventory过度库存浪费Processing过度加工浪费第 21 页共 21 页。
ABSTRACT
ABSTRACTGreatness in Trivialness:Institutional Logic of Discipline Governance in the Big Data EraNI Jing,CHEN Liang Page 1Abstract:Big data and centralized data processing have increasingly become the “upper-level logic ”of discipline governance in pursuit of excellence,which to a certain extent aggravates the imbalance of disciplines.In reality,many actual effects of discipline governance are mainly attributed to the aggregation of small data,which possess values including a more precise cross-correlation of discipline knowledge,a more rational combi ⁃nation of horizontal and vertical research methods,and more reasonable bottom-up cultivation of individuals.However,in the face of systematic problems and accelerating changes in the big data society,the small data path of discipline governance is confronted with the problem that research results have presented the form of point data with a lack of cluster innovation.Furthermore,scholars ’data capability has been polarized;there ⁃fore,there is a weakness in the backbone strength.In addition,discipline education encounters the predica ⁃ments of complex data and low governance efficiency.It is required to focus on the “small consensus ”coopera ⁃tion shift of institutional design and the identity shift of “creators ”in the operation of the system to superimpose the information correlation of the institutional carrier to the “life domain ”.Hence,it is necessary to build a “big ”data governance structure based on “small ”data so as to achieve the symbiosis and co-promotion of the two disciplinary governance methods and governance thoughts.Key words:digital governance in universities;disciplinary governance;discipline system;small data;edu ⁃cation data;data decision-making;data dividend The Maturity of Data Governance in Chinese Colleges and UniversitiesCHEN Guixiang,WU Chenlu,XUE Zhiqian Page 11Abstract:In order to explore the maturity of data governance in Chinese colleges and universities ,this re ⁃search learns from DAMA-DMBOK2,DCMM and other classical models of evaluating the maturity of data gov ⁃ernance at home and abroad ,and combines them with the actual situation of Chinese colleges and universities to design a questionnaire about the maturity of data governance in Chinese colleges and universities.The question ⁃2023年11月第39卷第6期高教发展与评估Higher Education Development and Evaluation Nov.,2023No.6,Vol.39inaire,group interviews and other methods are used synthetically to collect and analyze data.The results show that the holistic maturity of data governance in most Chinese colleges and universities is around the stable level (Level3);the maturity of data governance in higher education is above the moderate level in the whole educa⁃tion system,which plays an important leading role in basic education and vocational education.The research al⁃so finds some urgent problems:the lack of top-level designs of data governance,the low degree of innovation of data integration,the weak financial guarantee of data governance,the uneven governance levels of universities and so on.Based on these results,countermeasures and suggestions are put forward:to establish strategic think⁃ing and enhance top-level designs;to promote openness and sharing and focus on integration and innovation;to innovate the way of support and enhance the capacity of financing;to persevere in the classified development and promote fairness and coordination.Key words:data governance in colleges and universities;digitalization of education;educational deci⁃sion-making;smart campusImproving the Credibility of Third-party Evaluation of Higher Education Based on Data GovernanceCAO Jing,YU Chunmei Page23Abstract:Data is one of the core elements of education evaluation.The integrity and decentralization of data governance are obviously coupled with the credibility construction of the third-party evaluation of higher education.The data acquisition mechanism,data processing mechanism,information communication mechanism and information disclosure mechanism in the evaluation process can effectively improve the objectivity,profes⁃sionalism,openness and impartiality of the third-party evaluation.The data governance mechanism of the third-party evaluation of moral hazard,the reverse dominance of the evaluated,excessive administrative inter⁃vention,misuse and abuse of evaluation results and other main evaluation behaviors can promote the improve⁃ment of the credibility of the third-party evaluation.To this end,the following countermeasures should be taken: establishing the data governance thinking of educational evaluation and form a data culture,building a third-par⁃ty evaluation collaboration model,realizing the benign interaction between politics,schools and society,improv⁃ing the evaluation data governance system and building a mechanism to safeguard the interests of the main body.Key words:university data governance;third-party education evaluation;credibility of educational evalu⁃ationImproved Teaching Evaluation Methods Based on Grade InflationZHANG Ao,LIAO Ruizhi,CHEN Yihan,LI Shuzhen Page32 Abstract:Teaching evaluation by students is widely adopted in higher education.In order to obtain goodiiteaching evaluation results that meet the school’s assessment requirements and their own expectations,some in⁃structors cater to students’pursuit for high scores,leading to the grade inflation phenomenon.Universities and colleges can also temporarily benefit from good statistics on further studies and employment fueled by grade in⁃flation due to the time difference of information.Students,instructors,and schools are involved in a three-party game,and each acts for their own short-term interests.However,it will be destructive to all parties in the long run,forming principal-agent problem.This paper compares the teaching evaluation systems of Harvard Univer⁃sity and the University of California,Berkeley,and studies the reasons and their methods to maintain the effec⁃tiveness of teaching evaluation despite the trend of grade inflation.The paper proposes two methods to alleviate grade inflation:an“A quota”system and an“Average GPA”controlling system.It is found that restricting the average score is more effective in mitigating grade inflation and concluded that it is vital to constrain instruc⁃tors’ability to use the expansion of scores to exchange for better teaching evaluation results.Key words:grade inflation;teaching evaluation;course assessment;exam gradeCan the Score Be Negotiated?——Process Analysis Based on the“Events of Demanding High Scores”in UniversitiesZHANG Liqin,WU Qiong Page42Abstract:The dishonest behaviors of demanding high scores from teachers after academic exams often oc⁃cur.This study first provides a preliminary description of the phenomenon of students’“need for scores”,and takes typical events with hidden characteristics as the object to specifically sort out the dynamic process from “seeking scores”to“seeking punishment”and then to“calming down”.Based on the perspective of demand expression,this paper constructs a theoretical analysis approach of“dividing events”from four aspects:who is expressing,how to express,what to express,and the results of expression.It is proposed that university gover⁃nance should adapt to the requirements of professionalization,rationalization,and rule of law in modern society, implement a governance mechanism that is hierarchical and accountable,and stick to information identification, compliant disposal,and fairness and transparency.Key words:university governance;event of demanding high scores;exam scores;teaching evaluation; course assessmentChinese Universities’Identities and Transitivity in International Communica⁃tionYANG Yiyuan,LIANG Chuanjie Page53Abstract:From the perspective of transitivity,with the use of LancsBox this paper analyzes the corpus ofiiiChinese Top100universities’introductions.The study revealed that universities in China build their identities utilizing material process and relational process,and meanwhile elaborate with mental process.Among the pro⁃cesses,the creative,transformative feature from material process and the intensive,possessive feature from rela⁃tional process are the most frequently used ones.The results show that Chinese universities’identities have fol⁃lowing characteristics:high level and long history but lack of heterogeneity;serving students and society but us⁃ing less micro narrative;developing innovation but paying less attention to empathy discourse.Therefore,in or⁃der to improve the ability of international communication,the narrative framework with Chinese characteristics should be constructed in order to tell the story of true and real Chinese universities and combine the macro nar⁃ratives with micro narratives,so that they can attract more attention all over the world.Key words:university’s international communication;university’s English introduction;Chinese narra⁃tive;internationalization of higher education;university discourseThe Resilient Risk Management of Vocational Education International Coop⁃eration——A Case Study of Luban WorkshopWANG Lan Page66Abstract:In the background of opening up,vocational education international cooperation is an important way to enhance the capabilities of China participating in global vocational education governance.However,with the dynamic,complexity and uncertainty of the globalization and international cooperation environment,the risk of vocational education international cooperation has gradually highlighted,and it is urgent to improve the resil⁃ient risk management capabilities.Taking Luban Workshop as a case,which is the Chinese and foreign human communication and vocational education internationalization development well-known brand,based on resilient risk management theory,this paper explains the definition of resilient risk management capabilities of vocation⁃al education international cooperation.By the three stages,which include risk identification,risk evaluation, and risk response,the paper also analyzes the necessity of improving resilient risk management capabilities of vocational education international cooperation,and the four key dimensions of resilient risk management capa⁃bilities of vocational education international cooperation,which include redundant resources,organic structure, flexible culture and external reciprocity.Finally,it proposes some approaches to improving the resilient risk management capabilities of vocational education international cooperation,which include fully tapping construc⁃tion resources,avoiding the risk of shortage of cooperation resources,gradually optimizing construction struc⁃ture,avoiding the risk of imbalanced cooperation structure,actively creating construction culture,and avoiding the risk of weak cooperation culture,top-level designing reciprocity mechanism,and weak cooperation mecha⁃nism.Key words:vocational education;Luban Workshop;resilient risk management;internationalization of edu⁃cationiVCharacteristics of“Outstanding Class”in the Eyes of Pre-service Teachers YU Dongmei Page76 Abstract:Based on the method of grounded theory,105pre-service teachers’educational narratives are encoded.The characteristics of“outstanding class”in the eyes of pre-service teachers can be clustered into sixfirst-level nodes,including teaching structure,student learning,community interaction,class culture,teacher teaching,learning achievement,and19second-level nodes,including teacher-student interaction and guid⁃ance.The result shows that pre-service teachers present a good situation of diversified and integrated under⁃standing of classroom teaching.However,there is also an observation tendency of emphasizing exigency over im⁃plicity,emphasizing teacher-student interaction over student-student interaction,and emphasizing cognition over construction.Based on this,it is necessary to use multimodal data to help them understand the true appear⁃ance of“outstanding class”,and cultivate their belief in practicing“outstanding class”with narrative education method.Key words:pre-service teachers;curriculum reform;educational narrative;classroom teaching;teacher educationDeveloping Scholarship of Teaching and Learning by Peer Review of Teaching ——Practice at the University of Nebraska-Lincoln in AmericaOUYANG Guanghua,ZHANG Yue Page89Abstract:The peer review of teaching program at the University of Nebraska-Lincoln originated from the proposal of the concept of scholarship of teaching,and was initiated by American Association for Higher Educa⁃tion’s exploration of the path of“teaching as scholarship”.After decades of effort,a faculty-led inquiry into re⁃flective and scholarly teaching program has been formed.The program consists of two operational forms: first-year project and advanced project.The characteristics of the program are:stages dividing reflecting the scholarship of teaching and learning(SoTL)development logic from“teaching”to“scholarly teaching”and then to“scholarship of teaching and learning”,the construction of academic communities of SoTL through peer re⁃view of teaching,and the development of benchmark portfolio and the inquiry portfolio to provide artifacts of SoTL development.The program emphasizes the important role of the academic community in development of SoTL,and provides experience for teacher’s development of SoTL in China from aspects of the idea change, platform construction and artifacts development.Key words:development of SoTL;peer review of teaching;course portfolio;academic community of SoTLVThe Predicament of Moral Education of Cai Yuanpei and Peking University ZHU Xianfeng Page101 Abstract:Cai Yuanpei made active attempts in moral education when he was in charge of Peking Universi⁃ty.Meanwhile,he also faced many difficulties.Firstly,the position of moral education was shaken.Cai Yuanpeimade a local transformation of the idea of German classical universities.On the one hand,he emphasized aca⁃demic research.On the other hand,he attached great importance to moral education.However,the position of moral education was impacted by academics in university running.Secondly,the cultivation of personal morals encountered difficulties.Cai Yuanpei tried to cultivate students’personal morals through the Society of Moral Improvement,but he failed to achieve the expected results.Thirdly,the cultivation of social morality faced chal⁃lenges.Cai Yuanpei believed that social morality was mainly reflected in concern for the interests of groups and society.He tried to realize the change from“patriotism”to“loving the people”,and paid attention to cultivating students’consciousness of loving the university.Influenced by internal and external factors,relevant measures did not achieve significant results.The predicament of moral education of Cai Yuanpei and Peking University re⁃flects not only the adjustment and conflicts of transplanting foreign university systems,but also the courage and helplessness of an educator in resisting the dark political reality and old habits.Key words:Cai Yuanpei;Peking University;university moral education;university governance during the period of the Republic of ChinaThe Logical Approach to Cultivating College Students’Big View of History LYU Hongmei Page111 Abstract:The practical need to enhance historical consciousness and the inherent requirement to broaden cognitive horizons are the internal logic of cultivating college students’big view of history.Enhancing historical confidence,firm ideals and beliefs,and political literacy are the basic values for cultivating the big outlook of history.The main goals of cultivating the big view of history are to form a civilized historical view centered on Chinese history,a dynamic historical view centered on materialism,and a global historical view centered on a community with a shared future for mankind.The ideological and political theory courses in universities are an important battlefield for cultivating college students’big view of history,and related general education courses and subject history can provide strong support for cultivating college students’big view of history.Key words:big view of history;general education;ideological and political courses;college ideological and political education;history of disciplinesVi。
1.06 Gbps LVDS Buffer Repeater (DS10BR150) Evalu
1.06 Gbps LVDS Buffer / Repeater(DS10BR150)Evaluation KitUSER MANUALPart Number: DS10BR150EVK NOPBFor the latest documents concerning these products and evaluation kit, visit . Schematicsand gerber files are also available at .April 2007Rev. 0.1Table of ContentsTable of Contents (2)Overview (3)DS10BR150EVK Description (3)DS10BR150 Evaluation (4)Typical Performance (5)OverviewThe DS10BR150EVK is an evaluation kit designed for demonstrating performance of the 1.06 Gbps LVDS Buffer / Repeater (DS10BR150).The purpose of this document is to: familiarize you with the DS10BR150EVK, suggest the test setup procedures and instrumentation, and guide you through some typical measurements that demonstrate performance of the device in typical applications.DS10BR150EVK DescriptionFigure 1 shows the top layer drawing of the PCB with the silkscreen annotations. It is a small six-layer PCB that has a single-device layout capable of demonstrating performance and all features of theDS10BR150.Figure 1. DS10BR150EVKDS10BR150 EvaluationThis section provides recommended test setup procedure for the device evaluation. Figure 2 depicts a typical setup and instrumentation you may use for the device evaluation.1. Apply the power to the device (3.3V typical) between VDD2 and GND connectors.2. Connect a signal source (i.e. signal generator or an LVDS driver) to the input (R1 label) on theboard and adjust the signal parameters (VOH, VOL, VCM) so that they comply with the device input recommendations.3. Connect the output (U1 label) to an oscilloscope and view the output signals with an oscilloscopethat has the bandwidth of at least 3 GHz.Figure 2. DS10BR150 Test Setup ExampleTypical PerformanceThis section of the User Manual shows a typical eye diagram you can expect to see when evaluating the DS10BR150EVK.Figure 2. DS10BR150 1.06 Gbps PRBS-7 Output Eye DiagramIMPORTANT NOTICETexas Instruments Incorporated and its subsidiaries(TI)reserve the right to make corrections,modifications,enhancements,improvements, and other changes to its products and services at any time and to discontinue any product or service without notice.Customers should obtain the latest relevant information before placing orders and should verify that such information is current and complete.All products are sold subject to TI’s terms and conditions of sale supplied at the time of order acknowledgment.TI warrants performance of its hardware products to the specifications applicable at the time of sale in accordance with TI’s standard warranty.Testing and other quality control techniques are used to the extent TI deems necessary to support this warranty.Except where mandated by government requirements,testing of all parameters of each product is not necessarily performed.TI assumes no liability for applications assistance or customer product design.Customers are responsible for their products and applications using TI components.To minimize the risks associated with customer products and applications,customers should provide adequate design and operating safeguards.TI does not warrant or represent that any license,either express or implied,is granted under any TI patent right,copyright,mask work right, or other TI intellectual property right relating to any combination,machine,or process in which TI products or services are rmation published by TI regarding third-party products or services does not constitute a license from TI to use such products or services or a warranty or endorsement e of such information may require a license from a third party under the patents or other intellectual property of the third party,or a license from TI under the patents or other intellectual property of TI.Reproduction of TI information in TI data books or data sheets is permissible only if reproduction is without alteration and is accompanied by all associated warranties,conditions,limitations,and notices.Reproduction of this information with alteration is an unfair and deceptive business practice.TI is not responsible or liable for such altered rmation of third parties may be subject to additional restrictions.Resale of TI products or services with statements different from or beyond the parameters stated by TI for that product or service voids all express and any implied warranties for the associated TI product or service and is an unfair and deceptive business practice.TI is not responsible or liable for any such statements.TI products are not authorized for use in safety-critical applications(such as life support)where a failure of the TI product would reasonably be expected to cause severe personal injury or death,unless officers of the parties have executed an agreement specifically governing such use.Buyers represent that they have all necessary expertise in the safety and regulatory ramifications of their applications,and acknowledge and agree that they are solely responsible for all legal,regulatory and safety-related requirements concerning their products and any use of TI products in such safety-critical applications,notwithstanding any applications-related information or support that may be provided by TI.Further,Buyers must fully indemnify TI and its representatives against any damages arising out of the use of TI products in such safety-critical applications.TI products are neither designed nor intended for use in military/aerospace applications or environments unless the TI products are specifically designated by TI as military-grade or"enhanced plastic."Only products designated by TI as military-grade meet military specifications.Buyers acknowledge and agree that any such use of TI products which TI has not designated as military-grade is solely at the Buyer's risk,and that they are solely responsible for compliance with all legal and regulatory requirements in connection with such use. TI products are neither designed nor intended for use in automotive applications or environments unless the specific TI products are designated by TI as compliant with ISO/TS16949requirements.Buyers acknowledge and agree that,if they use any non-designated products in automotive applications,TI will not be responsible for any failure to meet such requirements.Following are URLs where you can obtain information on other Texas Instruments products and application solutions:Products ApplicationsAudio /audio Automotive and Transportation /automotiveAmplifiers Communications and Telecom /communicationsData Converters Computers and Peripherals /computersDLP®Products Consumer Electronics /consumer-appsDSP Energy and Lighting /energyClocks and Timers /clocks Industrial /industrialInterface Medical /medicalLogic Security /securityPower Mgmt Space,Avionics and Defense /space-avionics-defense Microcontrollers Video and Imaging /videoRFID OMAP Mobile Processors /omapWireless Connectivity /wirelessconnectivityTI E2E Community Home Page Mailing Address:Texas Instruments,Post Office Box655303,Dallas,Texas75265Copyright©2012,Texas Instruments Incorporated。
中成药治疗溃疡性结肠炎临床应用指南(精简版,2022年)
· 共识与指南·中成药治疗溃疡性结肠炎临床应用指南(精简版,2022年)*#&《中成药治疗优势病种临床应用指南》标准化项目组摘要 溃疡性结肠炎(UC )是中医药治疗的优势病种,中成药是中医药的重要组成部分,但其在临床应用方面仍存在大量盲目用药和不规范用药的情况。
《中成药治疗优势病种临床应用指南》标准化项目组召集行业内中、西医临床专家、药学专家,以及指南研究方法学专家共同编制了本指南,分别制定了不同严重程度、治疗目标定位下的中成药口服和(或)灌肠治疗UC 的推荐意见,旨在为临床医师合理使用中成药治疗UC 提供规范性的指导和建议。
关键词 中成药; 结肠炎,溃疡性; 临床应用; 指南Clinical Application Guidelines on Chinese Patent Medicine in Treatment of Ulcerative Colitis (Condensed Edition, 2022) Clinical Application Guidelines for Dominant Diseases Treated With Chinese Patent Medicine Standard ⁃ization Project TeamCorrespondence to: LI Junxiang, Department of Spleen, Stomach, and Hepatobiliary Diseases, Dongfang Hospital, Beijing UniversityofChineseMedicine,Beijing(100078),Email:**********************Abstract Ulcerative colitis (UC) is a dominant disease that can be treated with traditional Chinese medicine, andChinese patent medicine is an important part of traditional Chinese medicine. However, there are still many cases of non⁃standard drug use in the clinical treatment of UC. Clinical Application Guidelines for Dominant Diseases Treated withChinese Patent Medicine Standardization Project Team convened experts on traditional Chinese medicine, Western medicine, pharmacology, and methodology to compile this guideline. This guideline formulated recommendations for oral and (or) clyster treatment of UC in different severities and goals of treatment, in order to provide normative suggestions forclinicians to rationally use Chinese patent medicines in UC.Key words Chinese Patent Medicine; Colitis, Ulcerative; Clinical Application; GuidelinesDOI : 10.3969/j.issn.1008⁃7125.2023.01.004*原文刊载于《中华消化杂志》,经中华医学会和《中华消化杂志》编辑部授权转载#基金项目:国家中医药管理局《中成药治疗优势病种临床应用指南》标准化项目(SATCM⁃2015⁃BZ402⁃040);中医药传承与创新“百千万”人才工程—岐黄学者[国中医药人教函(2018)284号];2018年国家重点研发计划⁃中医药现代化研究重点专项(2018YFC 1705403)&本文通信作者:李军祥,北京中医药大学东方医院脾胃肝胆科(100078),Email:**********************溃疡性结肠炎(ulcerative colitis, UC )是一种以结直肠黏膜连续性、弥漫性炎症改变为特点的慢性非特异性肠道炎症性疾病,其病变大多局限于结直肠黏膜和黏膜下层,属于炎症性肠病范畴[1]。
英语作文写作评价表格模板
英语作文写作评价表格模板Title: Writing Evaluation Form Template。
Introduction。
Writing evaluation is an essential part of the learning process. It helps students to understand their strengths and weaknesses in writing and provides them with constructive feedback to improve their skills. A well-designed evaluation form can provide valuable insights for both students and teachers. In this article, we will discuss the components of an effective writing evaluation form and provide a template that can be used for assessing student writing.Components of a Writing Evaluation Form。
1. Content。
The content of a writing evaluation form should focuson the key elements of good writing, such as clarity, coherence, and relevance. It should also assess the depth of the content, the strength of the arguments, and the overall effectiveness of the writing in conveying the intended message.2. Organization。
电子信息工程论文(英文)
Electronic and information engineering is the application of the computer and modem technology for electronic information control and information processing the discipline, the main research information acquisition and processing, electronic equipment and information system design, development, application and integration. Now, electronic and information engineering has covered many aspects of the society, like telephone exchange station how to deal with various phone signal, a mobile phone is how to transfer our voice even image, the network around us how to transfer data, and even of the army of the information age how to confidential information transmission, are involved in electronic and information engineering application technology. We can through some basic knowledge learning know these things, and able to apply more advanced technology in new product research and electronic and information engineering is professional This program is to cultivate master the modern electronic technology theory, familiar with electronic system design principle and design method, have stronger computer, foreign language and corresponding engineering technology application ability, facing the electronic technology, automatic control and intelligentcontrol, computer and network technology, electronic, information, communication field of broad caliber, the high quality, comprehensive development of integrated with innovation ability engineering technology talent development.Electronic information engineering major is learning the basic circuit of knowledge, and master the computer processing with the method of information. The first to have solid mathematical knowledge, for physics requirement is high, and mainly electrical; To learn many circuit knowledge, electronic technology, signal and system, computer control principle, communication principle, basic courses. Learning in electronic and information engineering design, to themselves have to connect with computer some circuit experiment, to operate and use tools requirements is also higher. Such as their connection sensor circuit, with computer set small communications system, will also visit some big company of electronic and information processing equipment, understanding mobile phone signal, cable TV is how to transmission, etc, and can organic ?Course classification:1. The mathematicsThe higher mathematics-(the department of mathematics mathematical analysis + space analytic geometry + ordinary differential equation) speak mainly is calculus, to learn thecircuit of the people, the calculus (a yuan, multiple), curve surface integral, series, ordinary differential equation, Fourier transform, the other the Laplace transformation in the subsequent frequently encountered in theory.Probability and statistics-all communication, signal processing with relevant course with probability theory.Mathematical physical methods-some school graduate student intellect, some schools into complex variable functions (+ integral transform) and mathematical physics equation (is partial differential equations). Study the mathematical basis of electromagnetic field, microwave.May also be introduced stochastic process (need to probability basis) and functional analysis.2. TheoryThe circuit principle-basic of the program.Signal and system, continuous and discrete signal time domain, frequency domain analysis, is very important but also is difficultDigital signal processing-discrete signal and system analysis, signal digital transformation, digital filters, and so on.The application of information theory, information theoryrange is very wide, but electronic engineering often put this course speak into coding theory.Electromagnetic field and wave-the day the course, basically is the counterpart of the dynamics in the physics department of the electricity, using mathematical to study the magnetic field (constant electromagnetic field, time-dependent electromagnetic fields).3. CircuitAnalog circuit-the transistor, the op-amp, power supply, A/D and D/A.Digital circuit--a gate, trigger and combination circuit, timing circuit, programmable devices, digital electronic system4. ComputerMicrocomputer principle-80 x86 hardware work principle.Assembly language, direct correspondence of the CPU commands programming language.Single chip microcomputer CPU and control circuit, made a piece of integrated circuit, all sorts of electric equipment of all necessary, normal explanation 51 series.Cc++ language-(now speak only c language schools may not much) writing system programming language, and the development of hardware related often are used.Software foundation-(computer specialized data structure + + + algorithm operating system database principles + compilation approach + software engineering) can also be a few course, speaks the principle of software and how to write software.Professional training requirements:This major is an electronic and information engineering major. Students of this specialty mainly studies the signal acquisition and processing, the power plant equipment information system of professional knowledge, by electronic and information engineering practice of basic training, with design, development, application and integrated electronic equipment and the ability of the information system.Professional training requirements:This major is an electronic and information engineering major. Students of this specialty mainly studies the signal acquisition and processing, the power plant equipment information system of professional knowledge, by electronic and information engineering practice of basic training, with design, development, application and integrated electronic equipment and the ability of the information system.The graduates should have the following several aspects of knowledge and ability:1. Can a system to manage the field wide technology basic theoretical knowledge, to adapt to the electronic and information engineering extensive work range2. Grasp the electronic circuit of the basic theory and experiment technology, analysis and design of electronic equipment basic ability3. To grasp the information acquisition, processing the basic theory and application of the general method, has the design, integration, application and computer simulation of information system of the basic skills.4. Understand the basic principles of information industry, policies and regulations, understand the basic knowledge of the enterprise management5. Understand electronic equipment and information system of theoretical frontiers, with research, development of new system, the new technology preliminary ability6. Master of literature retrieval, material inquires basic ?The future:Electronic information engineering major is learning the basic circuit of knowledge, and master the computer processing with the method of information. The first to have solid mathematical knowledge, for physics requirement is high, andmainly electrical; To learn many circuit knowledge, electronic technology, signal and system, computer control principle, communication principle, basic courses. Learning in electronic and information engineering design, to themselves have to connect with computer some circuit experiment, to operate and use tools requirements is also higher. Such as their connection sensor circuit, with computer set small communications system, will also visit some big company of electronic and information processing equipment, understanding mobile phone signal, cable TV is the ? how to transferAlong with the social informatization of thorough, the most industries need electronic and information engineering professionals, and a high salary. Students can be engaged in electronic equipment and information system design, application development and technical management, etc. For example, make electronic engineers, design develop some electronics, communication device; Do software engineer, hardware design, development and all kinds of relevant software; Do project executive, planning some big system, the experience, knowledge requires high; Still can continue to study to become a teacher, engaged in scientific research work, etc.China IT industry started so far have ten years, very young.Fresh things, chaoyang industry is always much attention. It is for this reason, the computer professional quickly become the university of popular major, many schoolmates sharpening again sharpened head to the ivory tower of ivory top drill, or for interest, or to make a living master a foreign skills, or for future better and faster development.The first few years of the computer professional than hot, in recent years professional to this choice in the gradually rational and objective. Students and parents consider is more of a more advantageous to the personal self based on long-term development of the starting point.In this industry, seems to have the potential law: a short career. So the body not old heart first, thought the "hope the way how to turn what should IT management, sales, or under IT the bodies from beginning to the past business, or simply turned... ., exactly what to do, still wandering in the, in the confusion, the code of a few years ago life seems to be erased it shall not plan, leaving only the deserted what some memories.Too much about the industry's bad, many, many elder's kind advice, in computer professional students in the heart of the buried the uneasy seeds, whether should continue to choose the bank, or career path should be explicit turn? Choose this line,is likely to mean that the choice of physical and mental suffering course, accept the industry of experience.Exit? Is the heart has unwilling, think about for several years hard work, they write in pencil full program writing paper, the class was, when working with the, less romantic hold lots of time, for the future is more a self-confidence to submitting a professional, the profound professional resume. Who would like to be the last into the heart to the east of the water flow.Any one industry all have their own bright and gloomy, just people don't understand. For just the us towards campus, has entered the society for seniors learn elder sister, for different positions of each elder, life is always difficult, brilliant casting is progressive, we can not only see industry bright beautiful beautiful appearance, and neglect of its growth lift behind the difficult, the gap between the two extremes of course huge, from such a perspective, apparently went against the objective. And for his future career build is the same, it's early form, its make, its cast, it's affluent, and it's thick, is a brick step by step a tired build by laying bricks or stones.Exactly do a "starter, don't want to entry-level, want to introduction and no entry-level" IT people, the answer at ease in each one.Can say electronic and information engineering is a promising discipline, is not optional despise any a subject. To do a line, loves a line, since choosing it, will it never do things by halves.on Electronic and information engineering is the application of the computer and modem technology for electronic information control and information processing the discipline, the main research information acquisition and processing, electronic equipment and information system design, development, application and integration. Now, electronic and information engineering has covered many aspects of the society, like telephone exchange station how to deal with various phone signal, a mobile phone is how to transfer our voice even image, the network around us how to transfer data, and even of the army of the informatiage how to confidential information transmission, are involved in electronic and information engineering application technology. We can through some basic knowledge learning know these things, and able to apply more advanced technology to research and development of new products.Electronic information engineering major is learning the basic circuit of knowledge, and master the computer processing with the method of information. The first to have solidmathematical knowledge, for physics requirement is high, and mainly electrical; To learn many circuit knowledge, electronic technology, signal and system, computer control principle, communication principle, basic courses. Learning in electronic and information engineering design, to themselves have to connect with computer some circuit experiment, to operate and use tools requirements is also higher. Such as their connection sensor circuit, with computer set small communications system, will also visit some big company of electronic and information processing equipment, understanding mobile phone signal, cable TV is how to transmission, etc, and can organic ?。
1目的Purpose
6).工程部的专项降低成本需求,由工程填写此表;
6) engineering cost, the special requirements of project completing this form,
7).其他临时需求,由需求人员填写此表;
7) other temporary demand by demand personnel to complete this form,
3)PCN:Product Change Note,产品变更通知(此文件仅涉及PCN中的供应商变更部分);
3) PCN: Product, Product Change than take notice of this document (PCN involve the supplier Change),
评价供方体系和质量监控能力,督导和提升供方质量水平,协调质量异常的解决;
Supplier evaluation system and quality control ability, supervise and promote supplier quality level, coordinate to solve the quality of abnormal,
协调公司内部的工程和品保进行供方元件评估;
Ibis Paint X应用模块在时尚设计学习中的开发说明书
The Development of the Ibis Paint X ApplicationModule in Learning Fashion DesignFarkhatun1(B),Sri Endah Wahyuningsih2,and Eko Supraptono21State V ocational High School1Brebes Central Java,Malang,Indonesia***********************2Post Graduate Program,Semarang State University,Semarang,IndonesiaAbstract.Learning by utilizing technology will further activate students’criticalthinking and teach them to be independent.Fun learning media will improve thequality of classroom learning.One of the media used is a module.It is the concernof the writers to propose this research,entitled The Development of ibis Paint Xapplication module in learning fashion design.This study aims to develop a module that is used as a guide in learning Fash-ion Design.The method used in this study is Research and Development withthe ADDIE model(Analysis,Design,Development,Implementation,and Eval-uation).It includes analyzing needs;designing the module and instruments formedium validation,materials,and trials;developing the module;and implement-ing learning medium developed by media and content experts.The results of thefirst evaluation were then used to revise the learning medium in the form of mod-ule;evaluate the effectiveness of the module on learning process.The modulefeasibility test was obtained with a very feasible category.The results of this studyshowed that the module was very suitable to be used as a medium in learning fash-ion design and it was used as a support for a more varied and interesting learningprocess so as to increase student learning motivation.Keywords:Module Development·Ibis Paint X Application·Fashion Design1IntroductionThe development of technology in education is very helpful,especially in improving the quality of learning.The world of education is supposed to always adapts to it. Utilization of technology is designed to develop learning process that is more interesting and creative.As facilitators,teachers are required to create digital-based learning designs to make students more active and think creatively.The development of teaching media is important for teachers,especially to improve the quality and efficiency of learning.Those teaching materials play an important role for both teachers and students.In developing teaching materials like modules,teachers need to pay attention to the procedures and components of the module[1].Currently,the development of teaching materials in the form of module is a very urgent need.Especially in the era of a pandemic,teachers must be able to read the situation to develop teaching materials that are suitable for use by students during online and offline learning.©The Author(s)2023A.Kusumastuti et al.(Eds.):VEIC2022,ASSEHR697,pp.322–330,2023.https:///10.2991/978-2-494069-47-3_38The Development of the Ibis Paint X Application Module323 The use of technology as a learning medium makes it easier for students to receive fashion design lessons digitally.However,the use of media to make fashion designs is still inadequate.It is difficult for students and teachers to conduct teaching and learning process.Teachers often ignore the importance of making teaching plans so what they teach is not optimal and is not effective enough to achieve the targets.From the problem above,it is necessary to develop the media,teaching materials,and learning strategies. To overcome the problem,the teachers need teaching materials that can reduce the burden on teachers in presenting the materials either offline or online so they will be more focused in guiding and facilitating the students in learning.The teaching material refers to a module that helps students to learn individually and to repeat and practice the knowledge that has been given by the teacher anywhere and anytime.According to research[2]The development of embroidery module for grade XI students of fashion is intended to provide learning medium in the form of module as teaching materials to help or facilitate the students in learning.The results shows that the embroidery module as teaching material is very feasible used in the subject of Fashion Decorations and it can increase the learning motivation of students of grade XI at V ocational High School.Fashion Design taught in grade XI is for making digital designs.From the results of initial observations a few years earlier,it was obtained that the learning of Fashion Design was still done manually.Meanwhile,nowadays,to learn fashion design digitally, they have tofind their own sources from video tutorials on YouTube.YouTube and other social media can be used as learning resources because of the availability of social learning facilities on the platform and recommending high quality relevant learning content to users who have no or limited experience using the platform for learning[3] and[4].The positive results obtained from this educational project,show that YouTube offers an effective platform for the development of student-created activities[5](Chan, 2010)and[6].However,students stillfind it difficult to learn Fashion Design digitally with video tutorial guides from YouTube.Many studentsfind it hard to learn fashion design even though they have studied it through video tutorials.Based on[7]As a learning medium,YouTube has several drawbacks,such as the need for an internet network to access videos.Without an internet network,the teacher has to download the videofirst.Some videos on YouTube also have a less clear image resolution if downloaded at a low capacity.Another weakness is that the material on YouTube is not fully in accordance with the needs of students based on the curriculum objectives that have been set.In order to optimize students’understanding of learning two-dimensional works of art,teachers should apply a video that is representative of the curriculum objectives.[8]stated that compulsive use of YouTube has a negative effect on academic aspect.It is because YouTube is more for entertainment purpose,students cannot understand the content presented.The Ibis Paint X is one of the applications used in Fashion Design.The Ibis Paint X application can be operated either with a computer or a smartphone,making it easier for students.Most of the students have their own smartphones so that the learning process can run smoothly even though they don’t have their own computers at home.The Ibis Paint X application was chosen because it has complete features,is easy to use,provides video tutorials,can be saved in various formats,is light,does not add to the burden on mobile phones,and it is a free application so that it does not burden the students.324Farkhatun et al.Fig.1.The Procedure of Module Development Using ADDIE Model Some of the problems faced in the Fashion Design learning process are:Teachers use monotonous learning media;lack of students and teachers’digital design concepts; students are still not on time in completing assignments;students are less interested and less motivated to design in detail because they think they have no talent;the work result does not meet the evaluation criteria;students tend to only imitate the media images from the teacher;the use of fabric motifs and colors is still monotonous and lack of facilities in learning.Based on the problems described above,it can be seen that a module needs to be used in learning activities.Thus,the purpose of this study is to determine the stages of developing a learning medium in the form of module and to determine the feasibility assessment of that learning medium in Fashion Design.2MethodsThis study used a Research and Development approach which was adopted using the ADDIE model development consisting of Analysis,Design,Development,Implementa-tion and Evaluation[9]The educational development research includes the development process,product validation,product testing,and evaluation.The ADDIE model is a class-oriented development model.The stages of module development with the ADDIE model can be seen more clearly in Fig.1.3Results and DiscussionThe development model used in this study is the ADDIE model,with the stages of Analysis,Design,Development,Implementation,and Evaluation.Based on the Research and Development carried out,the following results were obtained:The Development of the Ibis Paint X Application Module3253.1The Development ResultsThe product developed in this study is the module of Ibis Paint X application which is used for learning Fashion Design.Before designing the module,first,the needs of learning media of V ocational High School students in digital Fashion Design learning are analysed.The results of observations and interviews showed that the analysis of the needs to develop appropriate learning media is as follows:(1)Students’difficulty in learning digital design,which is due to the lack of facilities and teaching materials that can inspire and attract them to be able to learn independently;(2)Students’needs for the module,they need learning media that can assist them during the learning;(3)The topic used as the module content,i.e.Digital Fashion Design;(4)Basic Competencies and Achievement Indicators that are expected.Next,the design phase includes the criteria for the preparation of the module frame-work,the collection and selection of references,the module design,and the preparation of module response instruments.3.1.1Module Systematics PreparationThe framework for the Ibis Paint X application module is based on the module preparation guidelines from the BSNP2017.The module developed consist of learning activities that are arranged systematically.The initial part contains a cover,introduction,Core Competencies and Basic Competencies,Module Position Map,table of contents,list of pictures,and list of tables.The content section contains the Ibis Paint X application module.Thefinal section contains the Glossary and Bibliography.The framework of the compiled module can be seen in the appendix.3.1.2Module DesignThe preparation of the module design includes the beginning,content,and end.Figure2 is the design of the initial part of the Ibis Paint X application module.The next stage is to test the feasibility of the Fashion Design module with the Ibis Paint X application that has been designed by a material expert.As a follow-up to the design that has been carried out,the development steps are as shown in Fig.3.3.2The Data Analysis of the Expert Validation Results3.2.1The Media Expert ValidationThe aspects assessed in the media validation includes the module size,cover design, and content design.The module size aspect consists of2statement items,the module cover design aspect consists of9statement items,and the module content design aspect consists of19statement items.The results of the media expert validation can be seen in Fig.4.3.2.2The Content Expert ValidationThe aspects assessed in the content validation includes the aspects of content feasibility, presentation feasibility,linguistic feasibility,and contextual aspects.The content feasi-bility aspect consists of13statement items,the presentation feasibility aspect consists of326Farkhatun et al.Fig.2.The Module Design7statements,the linguistic feasibility aspect consists of7statements and the contextual assessment aspect consists of11statements.The results of the content expert validation can be seen in Fig.5.3.2.3RevisionWhen the validation was done by the media expert and content expert,they provided valid and appropriate information for use,but there were some comments and sug-gestions plementing the assessment above,there are several comments and suggestions given to improve this learning media.3.3DiscussionThe feasibility study of the module development results is based on the response assess-ment sheets of Media Expert from the Center for Multimedia Education and Culture Development and the Content Expert from the design experts.The validity of the mod-ule developed in this study includes content validity in the form of conformity betweenThe Development of the Ibis Paint X Application Module327Fig.3.The Module Development 4.674.944.83 The Media ExpertThe Module SizeThe Module Cover DesignFig.4.The Result of the Media Expert Validationthe concepts presented and concepts and theories,as well as construct validity,i.e.,the suitability of the transformation or translation of concepts and theories into an opera-tional form [10].The validity of a product developed can be determined based on the results of validation activities [11].The module feasibility test done by the media expert from the Center for Multimedia Education and Culture Development refers to the research [12]which obtained a calcu-lation with an average score of 4.88in the very feasible category.The 2nd Media Expert Response gave an average score of 4.81with a very feasible category.The average score of the two Media Experts was 4.84which was in the very feasible category.The aver-age score of the Ibis Paint X application module feasibility test done by three Content328Farkhatun et al.Fig.5.The Results of the Content Expert ValidationTable1.The Average Score of the Pre-Test and Post Test-Performance TestClass Pre-test Post-test N-Gain Description Experimental72910,78EffectiveExperts from Fashion Design,was3.63with very feasible criteria for the overall aspects, thus the Ibis Paint X application was declared valid and very feasible.The Ibis Paint X application module is valid with revisions and does not require a significant revision and it is suitable for use as teaching materials for students’Compe-tency in Fashion Design.This is in line with[13]the results showed that the training module obtained a high content validity score of77.2%(0.77)and a satisfactory level of reliability(Cronbach’s alpha coefficient value of0.75).The research conducted results the data in the form of quantitative data.Those data tested the effectiveness of the module.The increase in students’abilities was obtained from the results between the pretest scores and the posttest score in learning activities using a performance test.The following are the results of the assessment recapitulation of the performance test which are shown in Table1.Based on Table1,the results of the score recapitulation of the performance test shows an increase as it can be seen in the average score of the pre-test and post-test.The average pretest score is72while the posttest score is91.After being given the treatment, the module can improve the students’competence of Fashion Design.This research is in line with a research conducted by[14]that the module is assessed based on standard criteria:the80/80rule,t-test,and the results show that the post-test score is higher than the pre-test score.It proves that students who are taught using the model achieve betterThe Development of the Ibis Paint X Application Module329 learning outcomes with a statistical significance of0.05.In conclusion,the use of the module can develop students’knowledge and skills in basic electronics.4ConclusionBased on the results of this Research Development and discussion of the Ibis Paint X Application Module,it can be concluded that the module is very suitable for use in learning Fashion Design.The results of the content expert’s feasibility test show that the overall aspect has an average score of3.63with very feasible criteria,thus the Ibis Paint X Application Module is declared valid and very feasible.Based on the validation results, it can be concluded that the Ibis Paint X application module is valid with revisions and does not require a significant modification and is suitable for use as teaching materials for students’Competency in Fashion Design.The Ibis Paint X Application Module that was developed is effectively used as a learning medium that can improve student competence. 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The Design and Development of an Evaluation System for Online InstructionTim L. WentlingScott D. JohnsonUniversity of Illinois at Urbana-ChampaignWith the growth in popularity of online instruction has also come the concern for accountability and the need to make adjustments and improvements in online programs. This paper describes the conceptualization and development of an evaluation system that can be used to judge online instructional efforts. The evaluation system addresses concerns of both program administrators and course instructors.Computer technology is used to provide partial automation to reduce respondent burden and to efficiently use evaluation resources.Keywords: Program Evaluation, Evaluation System, Online InstructionOnline or web-based learning is an education and training phenomena that is growing rapidly around the globe. As with any innovation, there are questions about effectiveness, efficiency, and utility (McCollum, 1998). With online instruction, the issue of evaluation and accreditation is especially important due to various threats commonly perceived by educators and trainers. These threats include a change in student campus life and the roles of professors (McCollum, 1998), the fear that the push for distance learning comes from entrepreneurs and university “bean counters” rather than educators (Mendels, 1999), and whether virtual students feel more isolated than their traditional counterparts (Arenson, 1998). These concerns can only be addressed through systematic research and evaluation efforts.Human resource development professionals are blessed with a rich history of evaluation thought, development, and research, primarily derived from the fields of education (Alkin, 1969; Patton, 1997; Scriven, 1967; Stake, 1967, 1978, 1981; Stufflebeam, 1967, 1985; Stufflebeam, Foley, Gaphart, Guba, Hammond, Merriman, & Provus, 1971; 1997) and human resource development (Holton, 1995; Kirkpatrick, 1976; 1996; 1998; Kaufman & Keller, 1994). From these foundations, specialized evaluation processes and systems have been designed and implemented for HRD interventions, including training programs (Raab, Swanson, Wentling, & Clark, 1992, Wentling, 1980, 1992, 1993).The design of evaluation systems for online instruction has been attempted by a number of professionals, including instructional designers of CBT systems (Clark, 1994; Draper, 1996; Simonson, 1997) technology experts (Jackson, 1990; Kimball, 1998; Middleton, 1997), and HRD practitioners (Magalhaes & Schiel, Pisik, 1997). The work of these individuals demonstrates progress in applying intuitive principles and practices of evaluation to online environments. Other authors have provided practical applications of evaluation theory by offering suggestions and guidelines for the evaluation of online instruction (Khan, 1997; Nichols, 1997; Oakes, 1997; Ravitz, 1997; Thorpe, 1993).Problem StatementThe evaluation of online instruction is an important part of the design and implementation process. Even though practitioners and academics currently evaluate online instruction, their attempts have been limited to the use of traditional research methods and intuitive approaches to evaluation. There appears to be a lack of systematic evaluation of online programs that is built on evaluation theory and practice. The activity described in this paper is an attempt to conceptualize and develop a transferable, adaptive evaluation system for online instruction. Conceptualization and Development of the Evaluation SystemThe purpose of the project was to design, develop, and implement an evaluation system that would meet the needs of the developers and sponsors of online instructional programs. The activities of the project reflect major efforts to obtain information, design components of the evaluation system, and test and revise the evaluation system. The specific activities of the project were to (1) develop a conceptual model for online evaluation, (2) identify specific vital signs of an online program and determine appropriate measures, (3) automate the collection and analysis of evaluation data through knowledge engineering approaches, (4) create an electronic performance support system to assist in program evaluation, and (5) conduct a field test of the evaluation system. The following sections describe each of the five major activities that are being accomplished in the formulation of the Illinois Online Evaluation System. At the time of this writing the evaluation system is evolving. Many of the tasks are complete, while some are underway.Copyright © Wentling & JohnsonActivity 1: Development of a Conceptual Model for Online EvaluationThis activity involved the conceptualization and design of the overall evaluation system, with the identification of major components and their functional relationships. The evaluation system, as currently designed, occurs in three stages: (1) vital sign assessment, (2) in-depth analysis, and (3) program improvement planning (see Figure 1). The evaluation system can best be explained using a medical analogy in which a physician examines a patient’s vital signs to determine the patient’s current state of health. Vital signs that are below acceptable standards are examined in more detail, utilizing more precise information and investigative techniques. As a result of the analysis, a plan is developed to facilitate improvement.Figure 1. The Online Evaluation System.Vital Signs &Data ElementsIn-Depth Diagnosis Continuous MonitoringVital sign assessment (Stage 1) diagnoses the general health of the online program and individual online courses using data collected through routine activities. Example data include the number of inquiries about the program, the number of applications received, and the performance of students in the individual courses. The data are used to calculate a program’s “health” rating in six areas: (1) student demand, (2) student retention, (3) student satisfaction,(4) faculty satisfaction, (5) student achievement, and (6) financial efficiency. The ratings help program personnel and sponsors monitor the overall performance of the program and individual courses to identify areas that may be problematic.During the in-depth analysis (Stage 2), any vital signs that are identified as substandard are analyzed in detail. A thorough investigation is conducted to determine underlying problems or causes. Often this investigation requires the collection of additional data, or the use of data from related vital signs. For example, a low rating in student satisfaction might lead to the further analysis of the individual items that comprise the student rating indicator.Additionally, a review of data related to student learning and faculty satisfaction might be done.Program improvement planning (Stage 3) provides solutions to the problems that are investigated during the in-depth analysis. Alternative strategies for solving the problems are identified, along with resource requirements for implementing the solutions. Program personnel are able to select various courses of action and develop plans for addressing the identified problems.Activity 2: Vital Sign Identification and Development of Measurement Instruments and ProceduresThe major activity in the development of the evaluation system involved several inquiry endeavors to identify “quality indicators” for use as assessment criteria. Lists of quality indicators drawn from the literature on computer mediated education, outcomes of education, and evaluation were identified and prioritized. An initial list of 18 “vital signs,” developed from the results of the literature was reviewed by a group consisting of HRD and evaluation experts. The list of vital signs was reduced to six by determining the relative importance of each to the stakeholders of the evaluation.Instruments and procedures for gathering, summarizing, and analyzing vital sign data are being developed by project staff. Data used to calculate vital sign ratings are obtained through analysis of electronic archives, document review, surveys, student testing, and expert review. Sample data elements used to calculate each vital sign rating are described in Table 1. The actual vital sign ratings are calculated from student test scores, mean scores on survey instruments (i.e., student satisfaction and faculty satisfaction), and data comparisons (e.g., enrollment, retention, financial data). Standard transformations of the data are performed to provide a common scale for each vital sign to facilitate portrayal and comparison across the vital signs.Table 1Data Elements for Vital Sign Rating Calculation.Vital Signs Data ElementsProgram Demand•Number of applications requested per semester•Number of applications received per semester•Number of telephone contacts per semesterStudent Satisfaction•End of course student ratings of program content,quality of instruction, instructional resources,technology used, amount of interaction,instructional methods•Mid-semester student ratings•CISS data regarding perceptions of courseinteraction, course structure, and technical supportFaculty Satisfaction•Faculty ratings of technology, technical support,interaction with students, quality of student workStudent Retention•Percentage of dropouts from beginning to endStudent Learning•Self-assessment of learning•Course project scores•Quiz and Test scores•Course gradesFinancial Efficiency•Course design cost•Course delivery cost•Publicity cost•Total unit cost, direct cost, overhead cost,•Tuition revenueActivity 3: Knowledge EngineeringAs work progressed in conceptualizing the evaluation system and identifying vital signs, alternatives for automating the system were explored. Literature on artificial intelligence, decision support software, electronic performance support systems (EPSS), and expert systems was reviewed by project staff. Due to the technology potential for the evaluation model, its focus on internal rather than external evaluation, and its purpose as a self-evaluation tool to be used by a variety of online personnel, including program administrators, instructors, and instructional designers, it was ultimately decided to utilize performance improvement technologies to automate much of the data collection and analysis functions. Performance improvement technologies make dynamic use of technology to facilitate datacollection and analysis tasks and to improve individual performance by providing timely information, advice, coaching, and training. An electronic performance support system is an example of a performance improvement technology that “captures, stores, and distributes individual and corporate knowledge assets throughout an organization to enable an individual to achieve a required level of performance in the fastest possible time and with the minimum of support from other people” (Raybould, (1995), p. 11). EPSS technologies often include an information database, an expert advisor, customized tools and templates, and the potential to run simulations. Beyond a few efforts in corporate settings, this technology has not been widely applied in education and training for evaluation purposes.Available literature on performance improvement technologies was reviewed. A key component to any expert system is the knowledge base of a recognized expert in the problem area (Hayes-Roth, et al., 1983). Focus groups of recognized online education experts from the University of Illinois were held to ascertain their perceptions of what constitutes effective online education and evaluation. These experts worked through simulated evaluation problems to test their ideas and were asked to develop specific guidelines and suggestions for improving the vital sign assessment and in-depth procedures. The framework for the expert system was based on the outcomes of this activity.Activity 4: EPSS DevelopmentThe investigative framework gleaned from the knowledge engineering activity was developed into a series of If-Then rule process charts (one for each vital sign) by the developers. One partial example of a vital sign rule process chart is shown in Table 2 where a variety of “then” statements are provided in response to the low indication of student satisfaction.Table 1Sample EPSS Rule Process Chart for One Vital SignVital Signs Data ElementsIF:Student Satisfaction as indicated byStudent Rating Formis Low,THEN:•review subscores for student ratings results.•identify the subscores that reveal the area of problem.•review results to individual items in the problem subscore(s).IF:If more information is needed to determinethe problem,THEN:•develop an interview questionnaire and contacta sample of students by phone.•develop an e-mail questionnaire with relevant questions and send to a sample of students.•summarize new student data.•present the summary of all results to the instructor and discuss potential causes of theproblem.The probable causes identified by the online instruction stakeholders were incorporated into the rule process charts to complete the exploration diagrams. Sample computer display screens were also developed that simulate what each screen on the finished performance system program should look like. Using the rule process charts and sample screens, project staff created the performance support system. Prototype system routines were reviewed and revised to correct programming errors, to improve interface inadequacies, and to ensure user friendliness.Activity 5: Field TestingThe performance support system shell was reviewed by selected professionals as a preliminary step to pilot testing. Data were programmed into the system to allow users to explore all possible investigative paths in the in-depth analysis. Formal and informal feedback was provided, which resulted in minor revisions in the programming (elimination of “bugs” from the system) and content of the evaluation system. The evaluation system is currently being tested within an online masters degree program in HRD at a large Midwestern university. Following thisinitial testing, there are plans to expand the field testing to other university level online programs and in corporate settings.Implications and DiscussionWhat truly separates the vital sign concept from traditional evaluation is its use of specific outcome measures with minimal data requirements to create a cursory picture of the general status of a program. The six vital signs are measured for each individual online course. Efficiency is maximized because initial data requirements are minimal, only specific programs are examined, and only problematic vital signs are subjected to further examination.The most obvious technical feature of this new evaluation system is its use of the electronic performance support system. Used primarily in medicine, manufacturing, and engineering up to this point, this is the first attempt to adapt advanced technology to educational evaluation. This application, of course, has its limitations. Attempting to set limits on variables in social science research always causes consternation, for fear of eliminating some possible responses from consideration. In developing investigative paths for the expert system, limits had to be set. However, the data collection instruments and procedures were carefully developed and extensively field tested. The knowledge and skill of recognized evaluation and online experts were incorporated into the system. These factors, coupled with the extensive field testing still to be completed, result in an evaluation system that is as true to human expert evaluation as is possible. It is also important to remember that the system will be operated by human evaluators and all final judgments will be made by personnel of the program online. Thus, it should not be construed that the computer is replacing the human evaluator. It is only providing valuable assistance, which will facilitate self-evaluation of online programs.The broad applicability of the vital signs gives this system utility for online program evaluation beyond the University of Illinois. Ultimately, the model developed for use in this system, along with the computer technologies that are applied, could be adapted for use in evaluating any online course or program in the public sector as well as in private sector training and human resource development programs.ReferencesAlkin, M. C. (1969). Evaluation theory development. Evaluation Comment, 2, 2-7.Arenson, K. W. (1998, November 2). More colleges plunging into uncharted waters of online courses. The New York Times.Clark, R. E. (1994). Assessment of distance learning technology. In E. L. Baker & H. F. O’Neil, Jr. (Eds.), Technology assessment in education and training (pp. 63-78). Hillsdale, NJ: Erlbaum.Draper, S. W. (1996). 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