PyHook3-1.6.1-cp36-cp36m-win_amd64.whl

BNUEP Offline Judge 北京师范大学珠海分校离线评测系统是在具备题目测试数据的情况下，能无联网自动评测ACM/ICPC模式的源代码评测系统（即本地测试工具、评测机）。它主要有以下功能（所有的功能都无需联网，在本机即可实现）： *评测核心功能： 基本具备Online Judge的判题核心功能，如编译代码、内存限定，时间限定，获取代码长度等； *支持多种语言： 1.0 Beta2版本支持C/C++、Pascal、C#、JAVA； *出题模式 可以在有标准输入数据和标准程序的情况下，由系统产生标准输出数据，并可批量保存，同时自动命名标准输出数据的后缀； *文本高

在Linux操作系统下用C或C++实现经典同步问题：生产者-消费者问题。含源代码和文档。内容：1.一个大小为10的缓冲区，初始状态为空。2.2个生产者，随机等待一段时间，往缓冲区中添加数据，若缓冲区已满，等待消费者取走数据之后再添加，重复10次。3.2个消费者，随机等待一段时间，从缓冲区中读取数据，若缓冲区为空，等待生产者添加数据之后再读取，重复10次。

固高运动控制平台实验软件源代码，GT系列运动控制器编程仿真器，很好用！固高XY平台开发和使用。适合运动控制从业者！固高控制卡XY运动控制平台实验软件源代码，内容详细，对运动控制的朋友非常有用。物有所值，感觉是找到运动控制的最好的资料了。

恩智浦智能车竞赛十二届国赛程序，稳定速度3.2m,实验室速度更快，根据个人水平，提升空间还很大。注释详细，适合新手，同样适合老鸟。

微电子电路设计第五版,Richard C. Jaeger, Traveis N. Blalock编著。FIETH EDITIONMICROELECTRONICHM-M- CIRCUIT DESIGNRICHARD C. JAEGERAuburn UniversityTRAVIS N. BLALOCKUniversity of VirginiaMcGrawEducationGrawEducationMICROELECTRONIC CIRCUIT DESIGN. FIFTH EDITIOPublished by McGraw-Hill Education, 2 Penn Plaza, New York, NY 10121 CopyrightC 2016 by McGraw-Hill EducationAll rights reserved. Printed in the United States of America. Previous editions 2011, 2008, and 2004. No part of thispublication may be reproduced or distributed in any form or by any means, or stored in a database or retrieval system,without the prior written consent of McGraw-Hill Education, including, but not limited to, in any network or otherelectronic storage or transmission, or broadcast for distance learninSome ancillaries, including electronic and print components, may not be available to customers outside the United StatesThis book is printed on acid-free pape1234567890DOw/DOw1098765ISBN978-0-07-352960-8MHID0-07-352960-5sident Products markets Kurt LVice President, General Manager, Products Markets: Marty Langece President, Content Design Delivery: Kimberly Meriwether DavidManaging director: Thomas TimpGlobal Publisher Raghu srinivasanDirector. Prodrelopment: RoDirector, Digital Content Development: Thomas Scaife, Ph DProduct develoVincent brashMarketing manager: Nick Mc faddenDirector, Content Design Delivery: Linda avenariusProgram meSchillingContent Project Managers: Jane Mohr, Tammy Juran, and Sandra M. SchneeBuyer: Jennifer PickelDesign: Studio Montage, St Louis, MOContent Licensing Specialist: DeAnna DausenerCompositor: MPS LimitedPrinter.R. DonnellAll credits appearing on page or at the end of the book are considered to be an extension of the copyright pageLibrary of Congress Cataloging-in-Publication DataJaeger. Richard cMicroelectronic circuit design/Richard C. Jaeger, Auburn University,Travis N. Blalock, University of Virginia. --Fifth editionpages cmIncludes bibliographical references and indexISBN978-0-07-352960-8(alk. paper)-ISBN0-07-338045-8(alk. paper)d 1. Integrated circuits--Design and construction. 2. Semiconductors--Design and construction. 3. Electronic circuitesign. I. Blalock, Travis N. Il. TitleTK7874.J3332015621.3815-dc232014040020The Internet addresses listed in the text were accurate at the time of publication. The inclusion of a website does not indicatean endorsement by the authors or McGraw-Hill Education, and McGraw-Hill Education does not guarantee the accuracy ofthe information presented at these siteswww.mhhe.comTOTo Joan, my loving wife and life long partnerRichard C. JaegerIn memory of my father, Professor Theron vaughnBlalock, an inspiration to me and to the countlessstudents whom he mentored both in electronicdesign and in life.Travis n blalockBRIEF CONTENTSPreface xxChapter-by-Chapter Summary XXV12 Operational Amplifier Applications 685PART ONE13 Small-Signal Modeling and LinearSOLID-STATE ELECTRONICS AND DEVICESAmplification 77014 Single-Transistor Amplifiers 8411 Introduction to Electronics 32 Solid-State Electronics 4115 Differential Amplifiers and Operational Amplifier3 Solid-state Diodes and Diode circuits 72Design 9524 Field-Effect Transistors 14416 Analog Integrated Circuit Design Techniques 10315 Bipolar Junction Transistors 21517 Amplifier Frequency Response 111318 Transistor Feedback Amplifiers andPART TWOOscillators 1217DIGITAL ELECTRONICSAPPENDICES6 Introduction to Digital Electronics 2837 Complementary MOS (CMOS) Logic Design 359A Standard Discrete Component Values 12918 MOS Memory Circuits 414B Solid-State Device Models and sPIce simulationParameters 12949 Bipolar Logic Circuits 455C TWo-Port Review 1299PART THREIndex 1303ANALOG ELECTRONICS10 Analog Systems and Ideal OperationalAmplifiers 51711 Nonideal Operational Amplifiers and FeedbackAmplifier Stability 587CONTENTSPreface xxCHAPTER 2Chapter-by-Chapter Summary XXVSOLID-STATE ELECTRONICS 41PART ONE2.1 Solid-State Electronic materials 432.2 Covalent bond model 44SOLID-STATE ELECTRONICS2.3 Drift Currents and mobility inAND DEVICES 1Semiconductors 472.3.1 Drift Currents 47CHAPTER 12.3.2 Mobility 48INTRODUCTION TO ELECTRONICS 32.3.3 Velocity Saturation 482.4 Resistivity of Intrinsic Silicon 491.1 A Brief History of Electronics: From2.5 Impurities in Semiconductors 50Vacuum Tubes to Giga-Scale Integration 52.5.1 Donor Impurities in silicon 511.2 Classification of Electronic Signals 82.5.2 Acceptor Impurities in Silicon 511.2.1 Digital signals 92.6 Electron and hole concentrations in1.2.2 Analog Signals 9Doped semiconductors 511.2.3 A/D and D/A Converters--Bridging2.6.1Type Material (ND >NA)52the analog and Digital2.6.2 p-Type Material (N,A>ND)53Domains 102.7 Mobility and Resistivity in Doped1.3 Notational conventions 12Semiconductors 541.4 Problem-Solving Approach 132.8 Diffusion currents 581.5 Important Concepts from Circuit2. 9 Total Current 59Theory 152.10 Energy Band Model 601.5.1 Voltage and current Division 152.10.1 Electron-Hole pair generation in1.5.2 Thevenin and norton circuitan intrinsic semiconductor 60Representations 162.10.2 Energy Band Model for a Doped1.6 Frequency Spectrum of ElectronicSemiconductor 61Signals 212.10.3 Compensated semiconductors 611.7 Amplifiers 222.11 Overview of Integrated circuit1.7.1 Ideal operational amplifiers 23Fabrication 631.7.2 Amplifier Frequency Response 25Summary 661.8 Element Variations in Circuit Design 26Key Terms 671.8.1 Mathematical modeling ofReference 68Tolerances 26Additional Reading 681.8.2 Worst-Case Analysis 27Problems 688.3 Monte Carlo analysis 291.8.4 Temperature Coefficients 32CHAPTER 31.9 Numeric Precision 34SOLID-STATE DIODES AND DIODE CIRCUITS 72Summary 34Key Terms 353.1 The pn Junction Diode 73References 363.1.1 pn Junction Electrostatics 73Additional Reading 363.1.2 nternal diode currents 77Problems 363.2 The i-v Characteristics of the diode 78VIllContents3.3 The Diode Equation: A Mathematica3.15 Full-Wave Bridge Rectification 123Model for the diode 803.16 Rectifier Comparison and Design3.4 Diode Characteristics under reverse, ZeroTradeoffs 124and forward bias 833.17 Dynamic Switching Behavior of the Diode 1283.4.1 Reverse bias 833.18 Photo diodes, solar cells, and3. 4.2 Zero bias 83Light-Emitting Diodes 1293.4.3 Forward Bias 843.18.1 Photo diodes and3.5 Diode Temperature Coefficient 86Photodetectors 1293.6 Diodes under reverse bias 863.18.2 Power Generation from Solar Cells 1303.6.1 Saturation Current in real3.18. 3 Light-Emitting Diodes(LEDs)13Diodes 87Summary 1323.6.2 Reverse Breakdown 89Key Terms 1333.6.3 Diode model for the breakdownReference 134Region 90Additional Reading 1343.7 pn Junction Capacitance 90Problems 1343.7.1 Reverse bias 903.7.2 Forward Bias 91CHAPTER 43.8 Schottky Barrier Diode 933.9 Diode SPICE Model and layout 93FIELD-EFFECT TRANSISTORS 1443.9.1 Diode Layout 944.1 Characteristics of the MOS Capacitor 1453.10 Diode Circuit Analysis 954.1.1 Accumulation Region 1463.10.1 Load-Line Analysis 964.1.2 Depletion Region 1473.10.2 Analysis Using the Mathematical4.1.3 Inversion Region 147Model for the diode 974.2 The nmos transistor 1473.10.3 The Ideal diode model 1014.2.1 Qualitative i-v Behavior of the3.10.4 Constant Voltage Drop Model 103NMOS Transistor 1483.10.5 Model Comparison and4.2.2 Triode Region Characteristics ofDiscussion 104the nmos transistor 1493.11 Multiple-Diode Circuits 1054.2.3 On Resistance 1523.12 Analysis of Diodes Operating in the4.2.4 Transconductance 153Breakdown Region 1084.2.5 Saturation of the i-v3.12.1 Load-Line Analysis 108Characteristics 1543.12.2 Analysis with the Piecewise4.2.6 Mathematical model in theLinear model 108Saturation (Pinch-off)3.12.3 Voltage regulation 109Region 1553.12.4 Analysis Including Zener4.2.7 Transconductance in saturation 156Resistance 1104.2.8 Channel-Length Modulation 1563.12.5 Line and Load Regulation 1114.2.9 Transfer characteristics and3.13 Half-Wave Rectifier Circuits 112Depletion-Mode MosFETs 1573.13.1 Half-Wave Rectifier with resistor4.2.10 Body Effect or SubstrateLoad 112Sensitivity 1593.13.2 Rectifier Filter Capacitor 1134.3 PMOS Transistors 1603.13.3 Half-Wave Rectifier with rc load 1144.4 MOSFET Circuit Symbols 1623. 13.4 Ripple Voltage and Conduction4.5 Capacitances in MOS Transistors 165Interval 1154.5.1 NMOs Transistor Capacitances in3.13.5 Diode Current 117the Triode region 1653.13.6 Surge Current 1194.5.2 Capacitances in the Saturation3.13.7 Peak-Inverse-Voltage(PlV)Rating 119Region 1663.13.8 Diode Power Dissipation 1194.5.3 Capacitances in Cutoff 1663.13.9 Half-Wave Rectifier with Negative4.6 MOSFET Modeling in SPICE 167Output Voltage 1204.7 MOS Transistor Scaling 1683.14 Full-Wave Rectifier Circuits 1224.7.1 Drain Current 1693. 14.1 Full-Wave Rectifier with Negative4.7.2 Gate Capacitance 169Output Voltage 1234.7.3 Circuit and power densities 169ContentsIX4.7.4 Power-Delay Product 1705.3 The pnp Transistor 2234.7.5 Cutoff Frequency 1705.4 Equivalent Circuit Representations for the4.7.6 High Field Limitations 171Transport Models 2254.7.7 The unified mos transistor model5.5 The i-v Characteristics of the bipolarIncluding High Field Limitations 172Transistor 2264.7.8 Subthreshold conduction 1735.5.1 Output Characteristics 2264.8 MOs Transistor Fabrication and layout5.5.2 Transfer characteristics 227Design Rules 1745.6 The Operating Regions of the Bipolar4.8.1 Minimum Feature size andTransistor 227Alignment Tolerance 1745.7 Transport Model Simplifications 2284.8.2 Mos Transistor Layout 1745.7.1 Simplified Model for the Cutoff4.9 Biasing the NMOS Field-EffectRegion 229Transistor 1785.7.2 Model Simplifications for the4.9.1 Why Do We Need Bias? 178Forward-Active Region 2314.9.2 Four-Resistor Biasing 1805.7.3 Diodes in Bipolar Integrated4.9.3 Constant Gate-Source VoltageCircuits 237Bias 1845.7.4 Simplified Model for the4.9.4 Graphical analysis for theReverse-Active Region 238Q-Point 1845.7.5 Modeling Operation in the4.9.5 Analysis Including Body Effect 184Saturation Region 2404.9.6 Analysis Using the Unified5.8 Nonideal Behavior of the bipolarModel 187Transistor 2434.10 Biasing the PMos Field-Effect Transistor 1885.8.1 Junction Breakdown Voltages 2444.11 The junction Field-Effect Transistor5.8.2 Minority-Carrier Transport in theUFET190Base Region 2444.11.1 The JFET With Bias Applied 195.8.3 Base Transit time 2454.11.2 JFET Channel with Drain-Source5.8.4 Diffusion Capacitance 247Bias 1935.8.5 Frequency Dependence of the4.11.3 n-Channel jfet i-v Characteristics 193Common-Emitter current gain 2484.11.4 The p-Channel JFET 1955.8.6 The Early Effect and Early4.11.5 Circuit Symbols and JFET ModelVoltage 248Summary 1955.8.7 Modeling the Early Effect 2494.11.6 JFET Capacitances 1965.8.8 Origin of the Early Effect 2494.12 JFET Modeling in Spice 1965.9 Transconductance 2504.13 Biasing the JFET and Depletion-Mode5.10 Bipolar Technology and sPiCe Model 251MOSFET 1975.10.1 Qualitative Description 251Summary 2005.10.2 SPICE Model Equations 252Key Terms 2025.10.3 High-Performance BipolarReferences 202Transistors 253Problems 2035.11 Practical bias circuits for the bjt 2545.11.1 Four-Resistor bias network 256CHAPTER 55.11.2 Design Objectives for theBIPOLAR JUNCTION TRANSISTORS 215Four-Resistor bias network 2585.11.3 terative Analysis of the5.1 Physical Structure of the BipolarFour-Resistor bias circuit 262Transistor 2165.12 Tolerances in bias circuits 2625.2 The Transport Model for the npn5. 12.1 Worst-Case Analysis 263Transistor 2175. 12.2 Monte Carlo Analysis 2655.2.1 Forward Characteristics 218Summary 2685.2.2 Reverse Characteristics 220Key Terms 2705.2.3 The Complete Transport ModelReferences 270Equations for Arbitrary BiasProblems 271Conditions 221

专利撰写参考样例，可以参考写。机械相关领域的专利，都可以参考。CN201482299U说明书1/2页多功能组合式带式压滤机技术领域[0001]本实用新型涉及一种环保领域水处理系统中,适用于污泥处理的多功能组合式带式压滤机。背景技术[000]环保领域水处聞系统中的污泥处理设备中,带式压滤机是)泛采用的设备。目前带式脱水设备形式很多,但是由于各种使用原因,都存在有污泥分离过程中,混合、絮凝不充分,影响了带式压滤机使用效果,无形中增加了污泥处理的费川实用新型内容[0003]本实用新型要解决的技术问题是提供一种集絮凝、浓缩、布料及脱水于一体的多功能组合式带式压滤机,解决混合、絮凝不充分,滤液中仍含有大量污泥,布料不均匀等缺陷。[000为了解决上述问题,本实用新型提供了一种由絮凝装置、浓缩装置、宽带布料装置、脱水装置组成的多功能组合式带式压滤机。泥浆浓度小于1%时采用絮凝装置、浓缩装置、脱水装冒组合,浓度大于1%时采用絮凝装置、宽带布料装置、脱水装詈组合,絮凝装置安装在脱水装置上部左端;浓缩装置安装在脱水装置上部中间;宽带布料装置安装在脱水装置上部中间。[0005絮凝装置是絮凝筒和裝仼絮凝筒上部的搅拌机组成的装置;所述絮凝装置的搅拌机为螺旋提升式搅拌机。[000]浓缩装置是浓缩装置驱动电机减速机安装在浓缩装置的左端,其右侧安装1~3只浓缩网筒,浓缩装置的右下端安装1~3只小布料器组成的装置。[000宽带布料裝置是分配槽和安装在分配槽上部的布料筒组成的装置[0008脱水装置是重力脱水区位于脱水装置的上端左侧,重力脱水区右侧依次安装上滤带清洗装冒、上调偏装置、脱水裝置驱动电机减速机:主动辊安装在脱水装置的右端,主动辊之间右侧形成剥离区,剥离区左侧的S形区域是S挤压脱水区,S挤压脱水区左侧是上滤带和下滮带形成的楔形脱水区,转向辊安装在脱水设备的左端,下调偏裝置安装在脱水裝置的下部右侧,下滤带清洗装置安装在下调偏装置左侧组成的装置。附图说明[0009下面结合附图和具体实施方式对本实用新型作进一步详细的说明[0010]图1是本实用新型多功能组合式带式压滤机的第一种实施方式的示意图。[0011图2是木实用新型多功能组合式带式压滤机的第二种实施方式的示意图具体实施方式[0012]本实用新型工作情况是这样的:CN201482299U说明书2/2页[0013]如图1所示,经过加药后的原低浓度泥浆由泥浆口20进入絮凝装置23,泥浆在絮凝筒2屮絮凝,通过螺旋提升式的搅拌机1搅拌加速泥浆与药剂的反应,形成较大的絮凝团,然后自流到浓缩装置4中。由浓缩装置驱动电杋减速杋3带动不锈钢浓缩网筒5旋转,泥浆在浓缩网筒5中进行浓缩,浓缩后的泥浆通过配套的小布料器7均匀分布在上滤带19上。脱水装置驱动电机减速机10带动主动辊11转动,主动辊11带动上滤带19和下滤带16移动。泥浆在上滤带19带动通过重力脱水区6,稳压阀提供恒定压力的转向辊18,转向落到下滤带l6上,然后在楔形脱水区17预挤,最后在S挤压脱水区13挤压脱水,并形成泥饼,泥饼最终在剥离区12分离出脱水装置25。上滤带19通过射沇阀控制的上调偏装置⑨调整滤带的位置。上滤带凊洗装置8对上滤带19进行凊洗。下滤带16通过射流阀控制的下调偏装置14调整滤带的位置。下滤带清洗装置15对下滤带16进行清洗.[0014]如图2示的经过加药后的原低浓度泥浆由泥浆∏20进入絮凝裝置23,泥浆在絮凝筒2中絮凝,通过螺旋提升式的搅拌机1搅拌加速泥浆与药剂的反应,形成较大的絮凝团,然后自流到宽带布料装置24,在布料筒21中混凝,用由分配槽22均匀分布到上滤带19。脱水装置驱动电机减速机10带动主动辊11转动,主动辊11带动上滤带19和下滤带16移动泥浆在上滤带19带动通过重力脱水区6,稳压阀提供恒定压力的转向辊18,转向落到下滤带16上,然后在楔形脱水区17预挤压,最后在S挤压脱水区13挤压脱水,并形成泥饼,泥饼最终在剥离区12分离岀脱水装置25。上滤带19通过射沇阀控制的上调偏装9调整滤带的位萓。上滤带清洗装萓8对上滤带19进行凊洗。下滤带16通过射流阀控制的下调偏装置14调整滤带的位置。下滤带淸洗装置15对下滤带16进行清洗CN201482299U说明书附图1/2页89252310182N相12171613图15CN201482299U说明书附图2/2页252019TIINT18a尺G)12161415EADZARSEADE图6

用数字图像处理的方法检测铁轨表面的缺陷并进行分类，适合钢轨自动检测范畴

软考网络工程师模拟考试软件软考网络工程师模拟考试软件软考网络工程师模拟考试软件带序列号，

亚像素harris，可以精确到亚像素，网上很少有的，需要的下来看看，基于matlab的

结合维纳滤波的小波域去噪，在Matlab下实现的，有原文对应的原理的讲解。