Review summary(二)

The high level of English is a standard for a top student.

1. Life is not successful, success is temporary; life is successful, not successful is temporary.”

2. The wind blows as usual. Flowers bloom as usual. The sun rises from the east as before. But something has changed. 

3. Courage isn’t having the strength to go on – it’s going on when you don’t have strength.

4. Autumn paints in colors that summer has never seen.

5. To see the golden sun and the azure sky, the outstretched ocean, to walk on the green earth, and to be a lord of a thousand creatures

6. If you want to tell people the truth, make them laugh, otherwise, they’ll kill you.

7. Wish you a perfect life just like the roundest moon in Mid-Autumn Day

8. I hope you have the courage to advance an inch, and also back a foot of calm.

9.  When life is at this moment to begin your favor, if you do not respond to is a crime 

10. Sometimes it seems that some people have forgiven you. It’s because you have become less important to them.

11. If you feel lost, just take a deep breath and realize that being lost can be a turning point in finding out who you truly are, and what you truly want to do.

12. Nothing succeeds like confidence. When you are truly and justifiably confident, it radiates from you like sunlight and attracts success to you like a magnet. It‘s important to believe in yourself. Believe that you can do it under any circumstances, because if you believe you can, then you really will.

13. Fake friends believe your fake smile, true friends see the tears you‘re hiding inside.

14. It is not because of being great that brings your dreams. It is because of the dream, you become a great man.

15. The healthiest response to life is a joy.

16. The great use of life is to spend it on something that over lasts it. 

17. I don‘t think that when people grow up, they will become more broadminded and can accept everything. Conversely, I think it‘s a selecting process, knowing what‘s the most important and what‘s the least. And then be a simple man. 

18. Not enough time to work hard, There‘s no time to despair.

19 The people who put up with you on your darkest nights should be the ones you spend your brightest days with.

20. The happiness is the care you give and the most beautiful moment in your company.

Robotics and Autonomous Systems (https://ww2.mathworks.cn/solutions/robotics.html)  

MATLAB and Simulink for Robotics:

Convert your robotics ideas and concepts into autonomous systems that work seamlessly in real-world environments.

Robotics researchers and engineers use MATLAB and Simulink to design and tune algorithms, model real-world systems, and automatically generate code – all from one software environment.

With MATLAB and Simulink, you can:

  • Connect to and control your robot with the algorithms you develop.
  • Develop hardware-agnostic algorithms and connect to the Robot Operating System (ROS).
  • Connect to a range of sensors and actuators so you can send control signals or analyze many types of data.
  • Eliminate hand-coding by automatically generating code for embedded targets like microcontrollers, FPGAs, PLCs, and GPUs in many languages such as C/C++, VHDL/Verilog, Structured Text, and CUDA.
  • Connect to low-cost hardware such as Arduino and Raspberry Pi using pre-built hardware support packages.
  • Simplify design reviews by creating shareable code and applications.
  • Work with legacy code and integrate with existing robotics systems.

Path Planning and Navigation for Autonomous Robots

(https://ww2.mathworks.cn/videos/path-planning-and-navigation-for-autonomous-robots-1509457228757.html)

Simplify the complex tasks of robotic path planning and navigation using MATLAB? and Simulink?. This demonstration walks through how to simulate a self-parking car with just three components: a path, a vehicle model, and a path following algorithm. These lessons can be applied to all autonomous robots – not just self-driving cars.

Start in MATLAB, where you can create a map of the environment. Next, you can generate a path for the robot to follow using built-in path planners. Use Simulink to create the vehicle model and customize it to be as complex as you need. Lastly, you can use built-in algorithms and blocks in MATLAB and Simulink to create the path-following algorithm.

Path Planning in Environments of Different Complexity

(https://ww2.mathworks.cn/help/robotics/examples/path-planning-in-environments-of-difference-complexity.html)

This example demonstrates how to compute an obstacle free path between two locations on a given map using the Probabilistic Roadmap (PRM) path planner. PRM path planner constructs a roadmap in the free space of a given map using randomly sampled nodes in the free space and connecting them with each other. Once the roadmap has been constructed, you can query for a path from a given start location to a given end location on the map.

In this example, the map is represented as an occupancy grid map using imported data. When sampling nodes in the free space of a map, PRM uses this binary occupancy grid representation to deduce free space. Furthermore, PRM does not take into account the robot dimension while computing an obstacle free path on a map. Hence, you should inflate the map by the dimension of the robot, in order to allow computation of an obstacle free path that accounts for the robot‘s size and ensures collision avoidance for the actual robot. Define start and end locations on the map for the PRM path planner to find an obstacle free path.

Mapping With Known Poses

(https://ww2.mathworks.cn/help/robotics/examples/mapping-with-known-poses.html)

This example shows how to create a map of the environment using range sensor readings if the position of the robot is known at the time of sensor reading. This example also shows how to use the conversion functions (such as quat2eul) from Robotics System Toolbox?.

This example creates a map from range sensor readings and known poses of the robot. For the purpose of this example, you will use a MATLAB? based simulator to drive the robot, observe the range sensor readings and the robot poses. You can replace the simulator with either a real robot or a simulated robot in the Gazebo simulator, in which case you will need some means to get the true position of the robot at the time of sensor reading.

Ground Vehicle Algorithms

(https://ww2.mathworks.cn/help/robotics/ground-vehicle-algorithms.html)

These Robotics System Toolbox? algorithms focus on mobile robotics applications (i.e. ground vehicles). These classes help you with the whole mobile robotics workflow. You can create maps of environments using occupancy grids, perform simultaneous localization and mapping (SLAM), develop path planning for robots in a given environment, and tune controllers to follow a set of waypoints. Also, you can perform obstacle avoidance, state estimation, and localization based on sensor data from your robot.

Connect to a ROS-enabled Robot from Simulink?

(https://ww2.mathworks.cn/help/robotics/examples/connect-to-a-ros-enabled-robot-in-simulink.html)

This example shows you how to configure a Simulink model to send and receive information from a separate ROS-based simulator such as Gazebo?.

Introduction

You can use Simulink to connect to a ROS-enabled physical robot or to a ROS-enabled robot simulator such as Gazebo. In this example, you will learn how to:

    • Configure Simulink to connect to a separate robot simulator using ROS
    • Send velocity commands to the simulated robot
    • Receive position information from the simulated robot

Robotics System Toolbox(Features)

(https://ww2.mathworks.cn/products/robotics/features.html

       Key Features

Map utilization, path planning, path following, and state estimation algorithms

Robot localization and environment mapping using lidar sensors

Rigid body tree kinematics and dynamics algorithms

Bidirectional communication with live ROS-enabled robots

rosbag data import, message extraction, and coordinate transformation

Interface to Gazebo and other ROS-enabled simulators

ROS node generation from Simulink? models (with Simulink Coder?)

Road to scientific research

All the open experiences of life, as long as you don‘t try your best, you can‘t turn this page. If you don‘t know what the future is, you might as well go ahead and run, please remember: In the most ordinary life, humility and hard work. One day, you will stand in the brightest place and live the look you have longed for.

原文地址:https://www.cnblogs.com/sancai16888/p/9693965.html

时间: 2024-08-25 22:30:25

Review summary(二)的相关文章

由学习《软件设计重构》所想到的代码review(二)

我们接第一篇由学习<软件设计重构>所想到的代码review(一) 来继续说明在代码review中,有哪些属于"层次结构"中的坏味道. 注:通过上图咱们看到了在层次结构中有九大问题点,咱们就从中找出三个典型的问题点给与分析和解释. 一.缺失的层次结构 问题点: public Insets getBorderInsets(Component c, Insets insets) { if(c instanceof AbstractButton) { margin = ((Abst

Review summary(三)

The high level of English is a standard for a top student. 1. The secret of flowers is to present spring with a fragrant posture, to display her born beauty at the cost of living during each life cycle. 2. Don't confuse my personality with my attitud

C#运用QRCode生成二维码

在现在的项目中,较多的使用到二维码,现在介绍一个第三方组件,用于生成二维码. 生成二维码:         /// <summary>         /// 生成二维码         /// </summary>         /// <param name="content">带生成二维码的字符串</param>         /// <param name="path">路径</param

微信公众平台开发教程(六)获取个性二维码

微信公众平台开发教程(六)获取个性二维码 一.功能介绍 在进行推广时,我们可以告诉对方,我们的微信公众账号是什么,客户可以去搜索,然后关注.二维码给我们提供了极大的便捷,只要简单一扫描,即可关注. 如果已经关注过,立刻跳入对话画面.在我们进行推广时,不再是简陋的文字,可以是一个有个性的二维码,想必会很生动. 微信对二维码提供了很好的支持,而且还可以根据需要生成不同场景的二维码.下面我们将介绍如何获取和使用二维码. 注意:限服务号,且进行了微信认证,费用300 二.相关接口 为了满足用户渠道推广分

.NET 二维码生成(ThoughtWorks.QRCode)

引用ThoughtWorks.QRCode.dll (源代码里有) 1.简单二维码生成及解码代码: //生成二维码方法一 private void CreateCode_Simple(string nr) { QRCodeEncoder qrCodeEncoder = new QRCodeEncoder(); qrCodeEncoder.QRCodeEncodeMode = QRCodeEncoder.ENCODE_MODE.BYTE; qrCodeEncoder.QRCodeScale = 4

DotNet二维码操作组件ThoughtWorks.QRCode

DotNet二维码操作组件ThoughtWorks.QRCode 在生活中有一种东西几乎已经快要成为我们的另一个电子"身份证",那就是二维码.无论是在软件开发的过程中,还是在普通用户的日常中,几乎都离不开二维码.二维码 (dimensional barcode) ,又称二维条码,是在一维条码的基础上扩展出的一种具有可读性的条码.设备扫描二维条码,通过识别条码的长度和宽度中所记载的二进制数据,可获取其中所包含的信息.相比一维条码,二维码记载更复杂的数据,比如图片.网络链接等. 今天介绍一

二叉索引树BIT

定义     二叉索引树,binary index tree,又名树状数组,或Fenwick Tree,因为本算法由Fenwick创造.     对于数组A,定义Query(i,j) = Ai +Ai+1 + - + Aj.     比较好的做法:使用前缀和,Sum(j) – Sum(i-1)即可得到Query(i,j)     BIT即为解决此类区间查询而大展身手,因为预处理时间为O(n),之后的查询时间为O(1),是属于典型的在线算法(关于在线算法,通俗地可以理解为,做一次预处理,提供多次"

个性二维码开源专题&lt;基础篇&gt;

二维码原理介绍: 二维码为什么是黑白相间的?黑色表示二进制的"1",白色表示二进制的"0" "我们之所以对二维码进行扫描能读出那么多信息,就是因为这些信息被编入了二维码之中."黄海平说,"制作二维码输入的信息可以分成三类,文本信息,比如名片信息:字符信息,比如网址.电话号码:还有图片信息,甚至还可以包括简短的视频."数据信息是怎么被编入的呢?信息输入后,首先要选择一种信息编码的码制.现在常见的二维码都是以QR码作为编码的码制.

向量及其运算(一):二维向量的基本运算

前言 在数学中,几何向量指具有大小(magnitude)和方向的几何对象,它在线性代数中经由抽象化有着更一般的概念.向量在编程中也有着及其广泛的应用,其作用在图形编程和游戏物理引擎方面尤为突出. 本文以二维向量为例,基于面向对象编程语言,我们创建一个二维向量的类(Class),就能够在编程中轻松实现向量的表示及其运算 1.构造函数 1.这里,将类的名称命名为"Vector2D", 2.添加两个属性X和Y,分别表示二维向量的两个分量 3.实现构造函数,实例化时即初始化X,Y的值 Publ