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Shows how to use the Animation Metrics APIs. The sample shows the metrics involved in the following scenarios: - Adding an item to a list - Bringing a new page on the screen **Note** The Universal Windows app samples require Visual Studio to build and Windows 10 to execute. ## Build and run the sample

Shows how to store and retrieve data that is specific to each user and app by using the Windows Runtime application data APIs . Application data includes session state, user preferences, and other settings. It is created, read, updated, and deleted when the app is running. ## Build and run the sample 1. If you download the samples ZIP, be sure to unzip the entire archive, not just the folder with the sample you want to build. 2. Start Microsoft Visual Studio and select **File** \> **Open** \> **Project/Solution**. 3. Starting in the folder where you unzipped the samples, go to the Samples subfolder, then the subfolder for this specific sample, then the subfolder for your preferred language (C++, C#, or JavaScript). Double-click the Visual Studio Solution (.sln) file.

Shows how to use the Windows.ApplicationModel.Appointments namespace. ## Build the sample 1. If you download the samples ZIP, be sure to unzip the entire archive, not just the folder with the sample you want to build. 2. Start Microsoft Visual Studio and select **File** \> **Open** \> **Project/Solution**. 3. Starting in the folder where you unzipped the samples, go to the Samples subfolder, then the subfolder for this specific sample, then the subfolder for your preferred language (C++, C#, or JavaScript). Double-click the Visual Studio Solution (.sln) file. 4. Press Ctrl+Shift+B, or select **Build** \> **Build Solution**. ## Run the sample The next steps depend on whether you just want to deploy the sample or you want to both deploy and run it.

Shows how to launch an app to handle a file type or a protocol (also known as custom scheme). ## Build the sample 1. If you download the samples ZIP, be sure to unzip the entire archive, not just the folder with the sample you want to build. 2. Start Microsoft Visual Studio and select **File** \> **Open** \> **Project/Solution**. 3. Starting in the folder where you unzipped the samples, go to the Samples subfolder, then the subfolder for this specific sample, then the subfolder for your preferred language (C++, C#, or JavaScript). Double-click the Visual Studio Solution (.sln) file. 4. Press Ctrl+Shift+B, or select **Build** \> **Build Solution**. ## Run the sample The next steps depend on whether you just want to deploy the sample or you want to both deploy and run it.

This sample shows you how to work with secondary windows in your app. AppWindows are secondary windows that run on the same thread as the CoreWindow, and they share the same core dispatcher. ## Build the sample 1. If you download the samples ZIP, be sure to unzip the entire archive, not just the folder with the sample you want to build. 2. Start Microsoft Visual Studio and select **File** \> **Open** \> **Project/Solution**. 3. Starting in the folder where you unzipped the samples, go to the Samples subfolder, then the subfolder for this specific sample, then the subfolder for your preferred language (C++, C#, or JavaScript). Double-click the Visual Studio Solution (.sln) file. 4. Press Ctrl+Shift+B, or select **Build** \> **Build Solution**. ## Run the sample The next steps depend o

Shows how to use application resources to separate localizable content from app code. ## Build the sample 1. If you download the samples ZIP, be sure to unzip the entire archive, not just the folder with the sample you want to build. 2. Start Microsoft Visual Studio and select **File** \> **Open** \> **Project/Solution**. 3. Starting in the folder where you unzipped the samples, go to the Samples subfolder, then the subfolder for this specific sample, then the subfolder for your preferred language (C++, C#, or JavaScript). Double-click the Visual Studio Solution (.sln) file. 4. Press Ctrl+Shift+B, or select **Build** \> **Build Solution**. ## Run the sample The next steps depend on whether you just want to deploy the sample or you want to both deploy and run it.

Shows several tasks for 3D printing and editing the 3MF file type. Specifically, this sample shows how to: - Create a 3MF printing package programmatically - Create a .3mf file from XML data - Load a 3MF printing package from a .3mf file - Repair a model to make it printable - Save a 3MF printing package to a .3mf file - Launch the 3D print dialog - Open a file in the 3D Builder app

Shows how to load a Unity 3D asset into the Windows 10 3D print dialog. From there, the user can repair the model, make simple modifications, and send it to a local 3D printer or an online 3D print service. # Create the sample We provide only the scripts Print3D.cs and Turn.cs. You will create the scene and the model (fbx model, material, and texture) yourself. 1. Start Unity and create a new 3D project. 2. Import an asset from the [Unity store](https://www.assetstore.unity3d.com/en/ "Unity Store"). For this sample, we will use [Cartoon crucian carp](https://www.assetstore.unity3d.com/en/#!/content/46132 "Fish"). 3. Create an empty GameObject and drag the FBX asset from the All Models folder into the newly-created GameObject. 4. In the Assets\nnj3de_cruscarp folder of ...

Shows how to play 360-degree video. The sample uses the MediaPlayer class for 360-degree playback. For flat devices (PC, Xbox, Mobile) the MediaPlayer handles all aspects of the rendering. The developer need only provide the look direction. For Mixed Reality, this sample shows how to use the MediaPlayer to obtain individual video frames, and render them to a head-mounted display. Specifically, this samples covers: - Creating a hybrid application which works across flat devices (PC, Xbox, Mobile) and Mixed Reality devices (MR headset, Hololens). - Handling various forms of user input including mouse, keyboard and gamepad. - Selecting the playback mode (flat or immersive) based on the environment the app is running in. - Creating multiple windows ...

Shows how to use the [Accelerometer](http://msdn.microsoft.com/library/windows/apps/br225687) class, and allows the user to view the acceleration forces along the X-, Y-, and Z-axes for a 3-axis accelerometer. The sample asks you to choose an accelerometer. - The standard accelerometer reports total acceleration. - The linear accelerometer reports acceleration due to motion. - The gravity accelerometer reports acceleration due to gravity. After choosing your accelerometer, you can choose one of these scenarios: - Accelerometer data events - Accelerometer shake events - Poll accelerometer readings - Accelerometer orientation changed - Accelerometer data events batching

Shows how to use the [ActivitySensor](https://msdn.microsoft.com/library/windows/apps/windows.devices.sensors.activitysensor.aspx) class to interact with the activity detection functionality on the system. You can choose one of four scenarios: - Current activity - History - Events - Background activity ### Current activity Gets the default activity sensor and displays the current activity. ### History Gets the activity history from at most 1 day ago. Displays the first entry, last entry, and count of entries. ### Events Subscribes to reading changed events and displays the updated activity reading. ...

Shows various features of the AdaptiveMediaSource object, used in conjunction with MediaSource, MediaPlaybackItem, MediaPlayer and MediaPlayerElement. This sample demonstrates the following: **Using a simple adaptive streaming URI** **Registering event handlers** **Modify network calls made by the AdaptiveMediaSource** ...

Shows how to use the **Windows.Media.Casting** and **Windows.Media.DialProtocol** namespaces. Also shows how to use the **Windows.UI.ViewManagement.ProjectionManager** and **Windows.Devices.Enumeration.DevicePicker** APIs to render media on a remote device. It covers sending media to various devices: Miracast, DLNA, DIAL, and Bluetooth.

Shows how to use the Altimeter class. This sample allows the user to view the change in altitude reading as a value in meters. You can choose one of two scenarios: - Altimeter Data Events - Polling Altimeter Readings ### Altimeter Data Events When you choose the **Enable** button for the **Data Events** option, the app will begin streaming Altimeter readings in real time. ### Polling Altimeter Readings When you choose the **Get Data** button for the **Polling** option, the app will retrieve the current sensor readings.

Shows how to create apps that use various audio categories.

Shows how to use the **Windows.Media.Audio** namespace to create audio graphs for audio routing, mixing, and processing scenarios. This sample demonstrates several common scenarios for routing and processing audio with an audio graph: **Scenario 1: File Playback:** **Scenario 2: Device Capture:** **Scenario 3: Frame Input Node:** **Scenario 4: Submix Nodes:** **Scenario 5: In-box Effects:** **Scenario 6: Custom Effects:**

内容概要：本书《使用Code::Blocks进行C++应用开发》是一本简洁实用的指南，旨在帮助开发者快速掌握使用Code::Blocks集成开发环境进行C++应用程序开发的核心技能。书中详细介绍了Code::Blocks的安装、项目创建、多文件管理、外部库集成、调试技术（包括单应用与多应用调试）、Windows平台GUI开发以及使用wxWidgets工具包和wxSmith插件进行跨平台快速应用开发的方法。此外，还涵盖了工作区管理、编译目标配置、Unicode支持、事件驱动编程模型及高级功能如脚本化、文档生成和代码片段管理等内容。; 适合人群：具备C/C++编程基础的开发者，特别是希望提升实际项目开发能力并熟悉现代IDE工具使用的初、中级程序员。; 使用场景及目标：① 学习如何利用Code::Blocks高效构建控制台和图形界面应用程序；② 掌握C++项目结构设计、调试技巧及跨平台GUI开发流程；③ 理解并实践大型项目中的模块化管理和多项目协同调试；④ 利用wxSmith实现可视化快速开发，提高开发效率。; 阅读建议：建议读者在学习过程中结合书中的示例代码动手实践，逐步完成从简单到复杂的项目构建，并充分利用Code::Blocks提供的调试和自动化工具来加深对C++应用开发全流程的理解。

• Chapter 1 : Introduction • Chapter 2 : Linear Algebra • Chapter 3 : Probability and Information Theory • Chapter 4 : Numerical Computation • Chapter 5 : Machine Learning Basics • Chapter 6 : Deep Feedforward Networks • Chapter 7 : Regularization for Deep Learning • Chapter 8 : Optimization for Training Deep Models • Chapter 9 : Convolutional Networks • Chapter 10 : Sequence Modeling: Recurrent and Recursive Nets • Chapter 11 : Practical methodology • Chapter 12 : Applications • Chapter 13 : Linear Factor Models • Chapter 14 : Autoencoders • Chapter 15 : Representation Learning • Chapter 16 : Structured Probabilistic Models for Deep Learning • Chapter 17 : Monte Carlo Methods • Chapter 18 : Confronting the Partition Function • Chapter 19 : Approximate Inference • Chapter 20 : Deep Generative Models

Spartan-6 FPGA Configuration user guide

A summary of useful commands and expressions for the ARM architecture using the GNU assembler is presented briefly in the concluding portion of this Appendix. GNU Assembler Directives for ARM The follow is an alphabetical listing of the more command GNU assembler directives. Machine Dependent Directives .arm Assemble using arm mode .thumb Assemble using thumb mode .code16 Assemble using thumb mode .code32 Assemble using arm mode .force_thumb Force thumb mode (even if not supported) .thumb_func Mark entry point as thumb coded (force bx entry) .ltorg Start a new literal pool Assembler Special Characters / Syntax Register Names Arm Procedure Call Standard (APCS) Conventions Addressing Modes Machine Dependent Directives Opcodes

1 Basic Techniques 2 Basic VL Codes 3 Advanced VL Codes 4 Robust VL Codes 5 Statistical Methods 6 Dictionary Methods 7 Image Compression 8 Wavelet Methods 9 Video Compression 10 Audio Compression 11 Other Methods

Publisher: Prentice Hall PTR Pub Date: September 15, 2003 ISBN: 0-13-066946-6 Pages: 608 Section 2.7. The Spectrum of an Ideal Square Wave Section 2.8. From the Frequency Domain to the Time Domain Section 2.9. Effect of Bandwidth on Rise Time Section 2.10. Bandwidth and Rise Time Section 2.11. What Does "Significant" Mean? Section 2.12. Bandwidth of Real Signals Section 2.13. Bandwidth and Clock Frequency Section 2.14. Bandwidth of a Measurement Section 2.15. Bandwidth of a Model Section 2.16. Bandwidth of an Interconnect Section 2.17. Bottom Line Chapter 3. Impedance and Electrical Models Section 3.1. Describing Signal-Integrity Solutions in Terms of Impedance Section 3.2. What Is Impedance? Section 3.3. Real vs. Ideal Circuit Elements Section 3.4. Impedance of an Ideal Resistor in the Time Domain Section 3.5. Impedance of an Ideal Capacitor in the Time Domain Section 3.6. Impedance of an Ideal Inductor in the Time Domain Section 3.7. Impedance in the Frequency Domain Section 3.8. Equivalent Electrical Circuit Models Section 3.9. Circuit Theory and SPICE Section 3.10. Introduction to Modeling Section 3.11. The Bottom Line Chapter 4. The Physical Basis of Resistance Section 4.1. Translating Physical Design into Electrical Performance Section 4.2. The Only Good Approximation for the Resistance of Interconnects Section 4.3. Bulk Resistivity Section 4.4. Resistance per Length Section 4.5. Sheet Resistance Section 4.6. The Bottom Line Chapter 5. The Physical Basis of Capacitance Section 5.1. Current Flow in Capacitors Section 5.2. The Capacitance of a Sphere Section 5.3. Parallel Plate Approximation Section 5.4. Dielectric Constant Section 5.5. Power and Ground Planes and Decoupling Capacitance Section 5.6. Capacitance per Length Section 5.7. 2D Field Solvers Section 5.8. Effective Dielectric Constant Section 5.9. The Bottom Line Chapter 6. The Physical Basis of Inductance Section 6.1. What Is Inductance? Section 6.2. Inductance Principle #1: There Are Circular Magnetic-Field Line Loops Around All Currents Section 6.3. Inductance Principle #2: Inductance Is the Number of Webers of Field Line Loops Around a Conductor per Amp of Current Through It Section 6.4. Self-Inductance and Mutual Inductance Section 6.5. Inductance Principle #3: When the Number of Field Line Loops Around a Conductor Changes, There Will Be a Voltage Induced Across the Ends of the Conductor Section 6.6. Partial Inductance Section 6.7. Effective, Total, or Net Inductance and Ground Bounce Section 6.8. Loop Self- and Mutual Inductance Section 6.9. The Power-Distribution System (PDS) and Loop Inductance Section 6.10. Loop Inductance per Square of Planes Section 6.11. Loop Inductance of Planes and Via Contacts Section 6.12. Loop Inductance of Planes with a Field of Clearance Holes Section 6.13. Loop Mutual Inductance Section 6.14. Equivalent Inductance Section 6.15. Summary of Inductance Section 6.16. Current Distributions and Skin Depth Section 6.17. High-Permeability Materials Section 6.18. Eddy Currents Section 6.19. The Bottom Line Chapter 7. The Physical Basis of Transmission Lines Section 7.1. Forget the Word Ground Section 7.2. The Signal Section 7.3. Uniform Transmission Lines Section 7.4. The Speed of Electrons in Copper Section 7.5. The Speed of a Signal in a Transmission Line Section 7.6. Spatial Extent of the Leading Edge Section 7.7. "Be the Signal" Section 7.8. The Instantaneous Impedance of a Transmission Line Section 7.9. Characteristic Impedance and Controlled Impedance Section 7.10. Famous Characteristic Impedances Section 7.11. The Impedance of a Transmission Line Section 7.12. Driving a Transmission Line Section 7.13. Return Paths Section 7.14. When Return Paths Switch Reference Planes Section 7.15. A First-Order Model of a Transmission Line Section 7.16. Calculating Characteristic Impedance with Approximations Section 7.17. Calculating the Characteristic Impedance with a 2D Field Solver Section 7.18. An n-Section Lumped Circuit Model Section 7.19. Frequency Variation of the Characteristic Impedance Section 7.20. The Bottom Line Chapter 8. Transmission Lines and Reflections Section 8.1. Reflections at Impedance Changes Section 8.2. Why Are There Reflections? Section 8.3. Reflections from Resistive Loads Section 8.4. Source Impedance Section 8.5. Bounce Diagrams Section 8.6. Simulating Reflected Waveforms Section 8.7. Measuring Reflections with a TDR Section 8.8. Transmission Lines and Unintentional Discontinuities Section 8.9. When to Terminate Section 8.10. The Most Common Termination Strategy for Point-to-Point Topology Section 8.11. Reflections from Short Series Transmission Lines Section 8.12. Reflections from Short-Stub Transmission Lines Section 8.13. Reflections from Capacitive End Terminations Section 8.14. Reflections from Capacitive Loads in the Middle of a Trace Section 8.15. Capacitive Delay Adders Section 8.16. Effects of Corners and Vias Section 8.17. Loaded Lines Section 8.18. Reflections from Inductive Discontinuities Section 8.19. Compensation Section 8.20. The Bottom Line Chapter 9. Lossy Lines, Rise-Time Degradation, and Material Properties Section 9.1. Why Worry About Lossy Lines Section 9.2. Losses in Transmission Lines Section 9.3. Sources of Loss: Conductor Resistance and Skin Depth Section 9.4. Sources of Loss: The Dielectric Section 9.5. Dissipation Factor Section 9.6. The Real Meaning of Dissipation Factor Section 9.7. Modeling Lossy Transmission Lines Section 9.8. Characteristic Impedance of a Lossy Transmission Line Section 9.9. Signal Velocity in a Lossy Transmission Line Section 9.10. Attenuation and the dB Section 9.11. Attenuation in Lossy Lines Section 9.12. Measured Properties of a Lossy Line in the Frequency Domain Section 9.13. The Bandwidth of an Interconnect Section 9.14. Time-Domain Behavior of Lossy Lines Section 9.15. Improving the Eye Diagram of a Transmission Line Section 9.16. Pre-emphasis and Equalization Section 9.17. The Bottom Line Chapter 10. Cross Talk in Transmission Lines Section 10.1. Superposition Section 10.2. Origin of Coupling: Capacitance and Inductance Section 10.3. Cross Talk in Transmission Lines: NEXT and FEXT Section 10.4. Describing Cross Talk Section 10.5. The SPICE Capacitance Matrix Section 10.6. The Maxwell Capacitance Matrix and 2D Field Solvers Section 10.7. The Inductance Matrix Section 10.8. Cross Talk in Uniform Transmission Lines and Saturation Length Section 10.9. Capacitively Coupled Currents Section 10.10. Inductively Coupled Currents Section 10.11. Near-End Cross Talk Section 10.12. Far-End Cross Talk Section 10.13. Decreasing Far-End Cross Talk Section 10.14. Simulating Cross Talk Section 10.15. Guard Traces Section 10.16. Cross Talk and Dielectric Constant Section 10.17. Cross Talk and Timing Section 10.18. Switching Noise Section 10.19. Summary of Reducing Cross Talk Section 10.20. The Bottom Line Chapter 11. Differential Pairs and Differential Impedance Section 11.1. Differential Signaling Section 11.2. A Differential Pair Section 11.3. Differential Impedance with No Coupling Section 11.4. The Impact from Coupling Section 11.5. Calculating Differential Impedance Section 11.6. The Return-Current Distribution in a Differential Pair Section 11.7. Odd and Even Modes Section 11.8. Differential Impedance and Odd-Mode Impedance Section 11.9. Common Impedance and Even-Mode Impedance Section 11.10. Differential and Common Signals and Odd- and Even-Mode Voltage Components Section 11.11. Velocity of Each Mode and Far-End Cross Talk Section 11.12. Ideal Coupled Transmission-Line Model or an Ideal Differential Pair Section 11.13. Measuring Even- and Odd-Mode Impedance Section 11.14. Terminating Differential and Common Signals Section 11.15. Conversion of Differential to Common Signals Section 11.16. EMI and Common Signals Section 11.17. Cross Talk in Differential Pairs Section 11.18. Crossing a Gap in the Return Path Section 11.19. To Tightly Couple or Not to Tightly Couple Section 11.20. Calculating Odd and Even Modes from Capacitance- and Inductance-Matrix Elements Section 11.21. The Characteristic Impedance Matrix Section 11.22. The Bottom Line Appendix A. 100 General Design Guidelines to Minimize Signal-Integrity Problems Section A.1. Minimize Signal-Quality Problems on One Net Section A.2. Minimize Cross Talk Section A.3. Minimize Rail Collapse Section A.4. Minimize EMI Appendix B. 100 Collected Rules of Thumb to Help Estimate Signal-Integrity Effects Section B.1. Chapter 2 Section B.2. Chapter 3 Section B.3. Chapter 4 Section B.4. Chapter 5 Section B.5. Chapter 6 Section B.6. Chapter 7 Section B.7. Chapter 8 Section B.8. Chapter 9 Section B.9. Chapter 10 Section B.10. Chapter 11 Appendix C. Selected References About the Author

英文版书籍的内容，你懂的 高清，pdf 真正做到Cadence精通，从这里开始： OrCAD Capture User’s Guide 目录 Before you begin 1. Basic elements of Capture design 2. Opening a project 3. Opening and developing part libraries 4. Working with designs 5. Placing parts and pins 6. Establishing connectivity 7. Editing the design 8. Assigning properties 9. Functional simulation 10. Synthesis and place-and-route 11. Timing simulation 12. Board-level simulation. 13. Generating output 14. Using Capture with PCB Editor 15. Designing for other EDA applications 16. Saving and archiving 17. Project manager command reference 18. Schematic page editor and part editor command reference 19. Session log command reference 20. Dialog box descriptions 21. Window descriptions 22. Toolbar and tool palette descriptions

1.常用电子元件封装介绍 2.常用封装尺寸 3.各种IC封装含义及区别 4.各种IC封装形式图片 5.SMT常见贴片元器件封装类型识别 6.OrCAD/protel封装名参考 7.OrCAD/Protel封装库名称查询表

Essential Linux Device Drivers，linux设备驱动，经典书籍

%--------------------------------------------------- %>>>>>>>>>>>>>>>>>>初始化数据>>>>>>>>>>>>>>>>>>>>> %--------------------------------------------------- clc,clear,close all; fs = 30000; Time_Hold_On = 0.1; Num_Unit = fs * Time_Hold_On; one_Level = zeros ( 1, Num_Unit ); two_Level = ones ( 1, Num_Unit ); three_Level = 2*ones ( 1, Num_Unit ); four_Level = 3*ones ( 1, Num_Unit ); A = 1; % the default ampilitude is 1 w1 = 300; %初始化载波频率 w2 = 600; w3=900; w4=1200; %--------------------------------------------------- %>>>>>>>>>>>>>>>>>>串并转换>>>>>>>>>>>>>>> %---------------------------------------------------

北斗产业依托移动通信、汽车制造和互联网等大产业，能快速做大做强，实现跨越式发展； 北斗产业具有广泛的产业关联度和工具开拓型功能特征，是改造一系列传统产业的利器，是实现多种多样产业向服务型结构转型的重要途径；卫星导航能够推进科技创新，实现新系统、新技术、新应用和新服务，带动新兴的科技和产业集群的发展。

Chapter 1: Introduction to LoRa and LoRaWAN Chapter 2: Obtaining and  Preparing Hardware Chapter 3: Setting Up the  Software Development Environment Chapter 4: Building a Peer-to-Peer Channel Chapter 5: Building a LoRa Gateway Chapter 6: Connecting with  IoT Servers Using a RESTful API Chapter 7: Connecting with IoT Servers Using MQTT Chapter 8: GPS Tracking Appendix A: LoRaWAN Channel Plans

下载文件内含破解说明 Modelsim 10.1c SE crack x64

电路板 原理图仿真教程 英文版 pdf 高清 Cadence电路仿真精通必备

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