This document provides instructions for Task 2 of the robotics competition. It explains that the task involves using image processing to interpret images and extract useful information. Teams must complete two sections - Section A involves answering questions about the task algorithm, while Section B involves modifying code snippets and test images to perform experiments. Teams are instructed to name and submit their solution files according to the provided format, compress them into a zip folder labeled with their team ID, and upload it to the competition portal by the deadline. Plagiarism is strictly prohibited.
ANN Based PID Controlled Brushless DC drive SystemIDES Editor
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Brushless (BLDC) DC motors find many industrial
applications such as process control, robotics, automation,
aerospace etc. Wider usage of this system has demanded an
optimum position control for high efficiency, accuracy and
reliability. Hence for the effective position control, estimation
of dynamic load parameters i.e. moment of inertia and friction
coefficient is necessary. This paper incorporates the estimation
of mechanical parameters such as moment of inertia and
friction coefficient of BLDC motor and load at various load
settings by using simple procedure. To achieve the optimum
position control, PID controller is employed and tuned using
PARR method. ANN training is used for obtaining the
mechanical and PID controller parameters at different load
settings. Closed loop position control system of the BLDC
drive system is created using SIMULINK. Simulation results
of this system are obtained at different load settings. It is
evident from the results that the position control system
responds to the desired position with minimum rise time,
settling time and peak overshoot.
Intelligent autonomous robotics with projects in waayoo.comPraveen Pandey
Â
Six Month Industrial Training Programs at Waayoo.com Lucknow and Noida.
Advanced Robotics
Advanced Embedded Deisgn
Embedded Linux
Embedded Linux Device Drivers
Embedded Qt
Android
Image Processing
RaspberryPi
Visit www.training.waayoo.com
or call us at +91 8587849630, 9807507429
Email -> training@waayoo.com
Taking ground effect into account a longitudinal automatic landing system is designed. Such a system will be tested and implemented on board by using the Preceptor N3 Ultrapup aircraft which is used as technological demonstrator of new control navigation and guidance algorithms in the context of the âResearch Project of National Interestâ (PRIN 2008) by the Universities of Bologna, Palermo, Ferrara and the Second University of Naples. A general mathematical model of the studied aircraft has been built to obtain nonâlinear analytical equations for aerodynamic coefficients both Out of Ground Effect and In Ground Effect. To cope with the strong variations of aerodynamic coefficients In Ground Effect a modified gain scheduling approach has been employed for the synthesis of the controller by using six State Space Models. Stability and control matrices have been evaluated by linearization of the obtained aerodynamic coefficients. To achieve a simple structure of the control system, an original landing geometry has been chosen, therefore it has been imposed to control the same state variables during both the glide path and the flare.
Dynamics and control of a robotic arm having four linksAmin A. Mohammed
Â
Abstract The manipulator control is an important problem
in robotics. To work out this problem, a correct dynamic
model for the robot manipulator must be in hand. Hence, this
work first presents the dynamic model of an existing 4-DOF
robot manipulator based on the EulerâLagrange principle,
utilizing the body Jacobian of each link and the generalized
inertia matrix. Furthermore, essential properties of the
dynamic model are analyzed for the purpose of control. Then,
a PID controller is designed to control the position of the
robot by decoupling the dynamic model. To achieve a good
performance, the differential evolution algorithm is used for
the selection of parameters of the PID controller. Feedback
linearization scheme is also utilized for the position and trajectory
tracking control of the manipulator. The obtained
results reveal that the PID control coupled with the differential
evolution algorithm and the feedback linearization
control enhance the performance of the robotic manipulator.
It is also found out that increasing masses of manipulator
links do not affect the performance of the PID position control,
but higher control torques are required in these cases.
Keywords Robot control · PID · Differential evolution ·
Feedback linearization
Implementation of PID, BangâBang and Backstepping Controllers on 3D Printed A...Mashood Mukhtar
Â
Robot hands have attracted increasing research interest in recent years due to their high demand in industry and wide scope in number of applications. Almost all researches done on the robot hands were aimed at improving mechanical design, clever grasping at different angles, lifting and sensing of different objects. In this chapter, we presented the detail classification of control systems and reviewed the related work that has been done in the past. In particular, our focus was on control algorithms implemented on pneumatic systems using PID controller, Bangâbang controller and Backstepping controller. These controllers were tested on our uniquely designed ambidextrous robotic hand structure and results were compared to find the best controller to drive such devices. The five finger ambidextrous robot hand offers total of 13 â
13â
of freedom (DOFs) and it can bend its fingers in both ways left and right offering full ambidextrous functionality by using only 18 pneumatic artificial muscles (PAMs).
PUMA-560 Robot Manipulator Position Sliding Mode Control Methods Using MATLAB...Waqas Tariq
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This paper describes the MATLAB/SIMULINK realization, modeling and implementation of the PUMA 560 robot manipulator. This paper focuses on robot manipulator analysis and implementation and analyzed. This simulation models are developed as a part of a software laboratory to support and enhance graduate robotics courses, and MATLAB/SIMULINK courses at research and development company (SSP Co.) research center, Shiraz, Iran.
ANN Based PID Controlled Brushless DC drive SystemIDES Editor
Â
Brushless (BLDC) DC motors find many industrial
applications such as process control, robotics, automation,
aerospace etc. Wider usage of this system has demanded an
optimum position control for high efficiency, accuracy and
reliability. Hence for the effective position control, estimation
of dynamic load parameters i.e. moment of inertia and friction
coefficient is necessary. This paper incorporates the estimation
of mechanical parameters such as moment of inertia and
friction coefficient of BLDC motor and load at various load
settings by using simple procedure. To achieve the optimum
position control, PID controller is employed and tuned using
PARR method. ANN training is used for obtaining the
mechanical and PID controller parameters at different load
settings. Closed loop position control system of the BLDC
drive system is created using SIMULINK. Simulation results
of this system are obtained at different load settings. It is
evident from the results that the position control system
responds to the desired position with minimum rise time,
settling time and peak overshoot.
Intelligent autonomous robotics with projects in waayoo.comPraveen Pandey
Â
Six Month Industrial Training Programs at Waayoo.com Lucknow and Noida.
Advanced Robotics
Advanced Embedded Deisgn
Embedded Linux
Embedded Linux Device Drivers
Embedded Qt
Android
Image Processing
RaspberryPi
Visit www.training.waayoo.com
or call us at +91 8587849630, 9807507429
Email -> training@waayoo.com
Taking ground effect into account a longitudinal automatic landing system is designed. Such a system will be tested and implemented on board by using the Preceptor N3 Ultrapup aircraft which is used as technological demonstrator of new control navigation and guidance algorithms in the context of the âResearch Project of National Interestâ (PRIN 2008) by the Universities of Bologna, Palermo, Ferrara and the Second University of Naples. A general mathematical model of the studied aircraft has been built to obtain nonâlinear analytical equations for aerodynamic coefficients both Out of Ground Effect and In Ground Effect. To cope with the strong variations of aerodynamic coefficients In Ground Effect a modified gain scheduling approach has been employed for the synthesis of the controller by using six State Space Models. Stability and control matrices have been evaluated by linearization of the obtained aerodynamic coefficients. To achieve a simple structure of the control system, an original landing geometry has been chosen, therefore it has been imposed to control the same state variables during both the glide path and the flare.
Dynamics and control of a robotic arm having four linksAmin A. Mohammed
Â
Abstract The manipulator control is an important problem
in robotics. To work out this problem, a correct dynamic
model for the robot manipulator must be in hand. Hence, this
work first presents the dynamic model of an existing 4-DOF
robot manipulator based on the EulerâLagrange principle,
utilizing the body Jacobian of each link and the generalized
inertia matrix. Furthermore, essential properties of the
dynamic model are analyzed for the purpose of control. Then,
a PID controller is designed to control the position of the
robot by decoupling the dynamic model. To achieve a good
performance, the differential evolution algorithm is used for
the selection of parameters of the PID controller. Feedback
linearization scheme is also utilized for the position and trajectory
tracking control of the manipulator. The obtained
results reveal that the PID control coupled with the differential
evolution algorithm and the feedback linearization
control enhance the performance of the robotic manipulator.
It is also found out that increasing masses of manipulator
links do not affect the performance of the PID position control,
but higher control torques are required in these cases.
Keywords Robot control · PID · Differential evolution ·
Feedback linearization
Implementation of PID, BangâBang and Backstepping Controllers on 3D Printed A...Mashood Mukhtar
Â
Robot hands have attracted increasing research interest in recent years due to their high demand in industry and wide scope in number of applications. Almost all researches done on the robot hands were aimed at improving mechanical design, clever grasping at different angles, lifting and sensing of different objects. In this chapter, we presented the detail classification of control systems and reviewed the related work that has been done in the past. In particular, our focus was on control algorithms implemented on pneumatic systems using PID controller, Bangâbang controller and Backstepping controller. These controllers were tested on our uniquely designed ambidextrous robotic hand structure and results were compared to find the best controller to drive such devices. The five finger ambidextrous robot hand offers total of 13 â
13â
of freedom (DOFs) and it can bend its fingers in both ways left and right offering full ambidextrous functionality by using only 18 pneumatic artificial muscles (PAMs).
PUMA-560 Robot Manipulator Position Sliding Mode Control Methods Using MATLAB...Waqas Tariq
Â
This paper describes the MATLAB/SIMULINK realization, modeling and implementation of the PUMA 560 robot manipulator. This paper focuses on robot manipulator analysis and implementation and analyzed. This simulation models are developed as a part of a software laboratory to support and enhance graduate robotics courses, and MATLAB/SIMULINK courses at research and development company (SSP Co.) research center, Shiraz, Iran.
Ziegler nichols pid controller for effective pay-load torque responses and ti...eSAT Journals
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Abstract Robotic Technology is an imitation for human beingâs. It is an electro mechanical modelling objects are important aspect of manipulator. A Manipulator is a machine able to drive the robot. This paper describes and investigates on effective pay-load torque responses, tip-vibrations. This paper presents modelling and simulation of the double link manipulator using the proposed PID Controller. Here the proposed Ziegler-Nichols proportionalâintegralâderivative controller (PID controller) initiates more advantageous in the view of better performance and flexible operation of manipulator. First, the electro mechanical object was modeled and simulated using State space technique. Here the torque responses and end tip vibrations are assigned by state space variables. The entire two link manipulator topology was investigated and modeled, simulated. The proposed control strategy carries a back âback feed forward controller can be used for flexible operation of manipulator. Here, the simulation was done by using M-File Technique in Control tool box of MATLAB. Keywords: Double Link Manipulator, Ziegler-Nichols PID Controller, Pay-Load Torque Responses, Tip-Vibrations, State space technique, back âback feed forward controller
PID control dynamics of a robotic arm manipulator with two degrees of freedom.popochis
Â
This paper presents a basic example of PID control applied to a robotic manipulator arm with two DOF (degrees of freedom), as well as the design of the dynamic model, explaining in detail each step so that in future work, we can increase the diculty level regardless of DOF of the robot. Also shown how to introduce the PID controller parameters to the equation of the dynamics of the robot, left as future work the implementation of a real-time control of these variables.
Tasks In this assignment you are required to design and imp.pdfacsmadurai
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Tasks In this assignment, you are required to design and implement a system for Department,
Employee and Project (DEP) in Java. This system helps a company to manage employees and
projects. Implementation Your program shall contain at least the following classes for the DEP.
Define a class Department in a source file Department. java that contains private data members: -
dNumber: Department number. It is an integer type. - dName: Department name. It is a String
type. - manager: Department manager. It is an integer type. - budget: Department budget. It is a
double type. - startDate: Manager start date. It is a String type. Implement Java methods in the file
Department. java that include: - Parameterized constructor that assigns values to all data
members. - Public method tostring that returns the string value of all private data members. See
the examples of the processing for the details of the format of the tostring method. Define a class
Employee in a source file Employee. Java that contains private data members: - eNumber:
Employee number. It is an integer type. - eName: Employee name. It is a String type. - dob: Date
of birth. It is a String type. - address: Employee address. It is a String type. - gender: Employee
gender. It is a String type. - salary: Employee salary. It is a double type. - supervisor: Supervisor
number. It is an integer type. - dNumber: Department number. It is an integer type. Implement
Java methods in the file Employee. java that include: - Parameterized const ruct or that assigns
values to all data members. - Public method getNumber that returns the employee number. -
Public method tostring that returns the string value of all private data members. See the examples
of the processing for the details of the format of the tostring method. Define a class Project in a
source file Pro ject. java that contains private data members: - pNumber: Project number. It is a
long integer type.Tasks In this assignment, you are required to design and implement a system for
Department, Employee and Project (DEP) in Java. This system helps a company to manage
employees and projects. Implementation Your program shall contain at least the following classes
for the DEP. Define a class Department in a source file Department. java that contains private data
members: - dNumber: Department number. It is an integer type. - dName: Department name. It is
a String type. - manager: Department manager. It is an integer type. - budget: Department budget.
It is a double type. - startDate: Manager start date. It is a String type. Implement Java methods in
the file Department. java that include: - Parameterized constructor that assigns values to all data
members. - Public method tostring that returns the string value of all private data members. See
the examples of the processing for the details of the format of the tostring method. Define a class
Employee in a source file Employee. Java that contains private data members: - eNumber:
Employee number. It.
Write your standard C++ codes to do the following (for class both inte.pdfAARVEEKNITWEAR
Â
Write your standard C + + codes to do the following (for class both interface and
implementation): 1. Declare a class named Student in C++ syntax to model the object - a student
with the following features (as in a header file): - the private portion of the class Student for
people consisting of an integer for ID and a char pointer to a dynamic array for the name. - the
public member functions in the Student class should include - default constructor for a person
named "John" and ID is 987654321 - constructor to initialize the name and ID by passing the
values - int get_id() const; // accessor to retrieve student's ID - void set_name(char
new_name[]]); // mutator to set or change student's name - destructor; - copy constructor -
overload operator = - a print function to print the Student information in the format: Student's
name (Student's ID), example: John (987654321) 2. Implement all the above member functions
(as in the .cpp file) in the class Student and overload output operator <<.
How to create a simple module in Magento 2.0MageWorld
Â
The beta version of Magento 2 was released several months ago and after that there are some updates on this beta version as well. With developers, Magento 2.0 is quite challenging because resources to learn are very limited.
Understand such difficulties, MageWorld are happy to introduce you a tutorial series on Magento 2.0. We hope you will enjoy them and make use of it easily!
Letâs get started with the first post: âHow to create a simple module in Magento 2.0â
Ziegler nichols pid controller for effective pay-load torque responses and ti...eSAT Journals
Â
Abstract Robotic Technology is an imitation for human beingâs. It is an electro mechanical modelling objects are important aspect of manipulator. A Manipulator is a machine able to drive the robot. This paper describes and investigates on effective pay-load torque responses, tip-vibrations. This paper presents modelling and simulation of the double link manipulator using the proposed PID Controller. Here the proposed Ziegler-Nichols proportionalâintegralâderivative controller (PID controller) initiates more advantageous in the view of better performance and flexible operation of manipulator. First, the electro mechanical object was modeled and simulated using State space technique. Here the torque responses and end tip vibrations are assigned by state space variables. The entire two link manipulator topology was investigated and modeled, simulated. The proposed control strategy carries a back âback feed forward controller can be used for flexible operation of manipulator. Here, the simulation was done by using M-File Technique in Control tool box of MATLAB. Keywords: Double Link Manipulator, Ziegler-Nichols PID Controller, Pay-Load Torque Responses, Tip-Vibrations, State space technique, back âback feed forward controller
PID control dynamics of a robotic arm manipulator with two degrees of freedom.popochis
Â
This paper presents a basic example of PID control applied to a robotic manipulator arm with two DOF (degrees of freedom), as well as the design of the dynamic model, explaining in detail each step so that in future work, we can increase the diculty level regardless of DOF of the robot. Also shown how to introduce the PID controller parameters to the equation of the dynamics of the robot, left as future work the implementation of a real-time control of these variables.
Tasks In this assignment you are required to design and imp.pdfacsmadurai
Â
Tasks In this assignment, you are required to design and implement a system for Department,
Employee and Project (DEP) in Java. This system helps a company to manage employees and
projects. Implementation Your program shall contain at least the following classes for the DEP.
Define a class Department in a source file Department. java that contains private data members: -
dNumber: Department number. It is an integer type. - dName: Department name. It is a String
type. - manager: Department manager. It is an integer type. - budget: Department budget. It is a
double type. - startDate: Manager start date. It is a String type. Implement Java methods in the file
Department. java that include: - Parameterized constructor that assigns values to all data
members. - Public method tostring that returns the string value of all private data members. See
the examples of the processing for the details of the format of the tostring method. Define a class
Employee in a source file Employee. Java that contains private data members: - eNumber:
Employee number. It is an integer type. - eName: Employee name. It is a String type. - dob: Date
of birth. It is a String type. - address: Employee address. It is a String type. - gender: Employee
gender. It is a String type. - salary: Employee salary. It is a double type. - supervisor: Supervisor
number. It is an integer type. - dNumber: Department number. It is an integer type. Implement
Java methods in the file Employee. java that include: - Parameterized const ruct or that assigns
values to all data members. - Public method getNumber that returns the employee number. -
Public method tostring that returns the string value of all private data members. See the examples
of the processing for the details of the format of the tostring method. Define a class Project in a
source file Pro ject. java that contains private data members: - pNumber: Project number. It is a
long integer type.Tasks In this assignment, you are required to design and implement a system for
Department, Employee and Project (DEP) in Java. This system helps a company to manage
employees and projects. Implementation Your program shall contain at least the following classes
for the DEP. Define a class Department in a source file Department. java that contains private data
members: - dNumber: Department number. It is an integer type. - dName: Department name. It is
a String type. - manager: Department manager. It is an integer type. - budget: Department budget.
It is a double type. - startDate: Manager start date. It is a String type. Implement Java methods in
the file Department. java that include: - Parameterized constructor that assigns values to all data
members. - Public method tostring that returns the string value of all private data members. See
the examples of the processing for the details of the format of the tostring method. Define a class
Employee in a source file Employee. Java that contains private data members: - eNumber:
Employee number. It.
Write your standard C++ codes to do the following (for class both inte.pdfAARVEEKNITWEAR
Â
Write your standard C + + codes to do the following (for class both interface and
implementation): 1. Declare a class named Student in C++ syntax to model the object - a student
with the following features (as in a header file): - the private portion of the class Student for
people consisting of an integer for ID and a char pointer to a dynamic array for the name. - the
public member functions in the Student class should include - default constructor for a person
named "John" and ID is 987654321 - constructor to initialize the name and ID by passing the
values - int get_id() const; // accessor to retrieve student's ID - void set_name(char
new_name[]]); // mutator to set or change student's name - destructor; - copy constructor -
overload operator = - a print function to print the Student information in the format: Student's
name (Student's ID), example: John (987654321) 2. Implement all the above member functions
(as in the .cpp file) in the class Student and overload output operator <<.
How to create a simple module in Magento 2.0MageWorld
Â
The beta version of Magento 2 was released several months ago and after that there are some updates on this beta version as well. With developers, Magento 2.0 is quite challenging because resources to learn are very limited.
Understand such difficulties, MageWorld are happy to introduce you a tutorial series on Magento 2.0. We hope you will enjoy them and make use of it easily!
Letâs get started with the first post: âHow to create a simple module in Magento 2.0â
(Module: Capturing requirements : importing a document)
At the end of this lab you will be able to import requirements that were captured in an external CSV document, and create individual artifacts within the requirements management project.
Given
âș The JKE Banking Money That Matters project
Description
âș In this lab, you are Bob the analyst. You sent out a spreadsheet to your team collecting new requirements. The team filled in the spreadsheet and handed it back. You will import those requirements, into the JKE project.
Exercise Tasks
In this exercise, you will complete the following tasks:
âș Task 1: Import requirements that were captured in an external CSV document
1. ERTS LAB
IIT-Bombay
www.e-yantra.org
Robotics Competition Plus
2015
Read Me - Task 2: Path Planning
The objective of this task is to help understand thoroughly the use of image processing to
interpret the given image to find useful information.
The task is divided into 2 sections. Please find the following folders in the folder
âCS_Task_2â:
ï· âCS_Task2_Algorithmâ
ï· âCS_Task2_Experimentsâ
Section A: Algorithm
ï· The folder âCS_Task2_Algorithmâ consists of a document
âCS_Task2_Algorithm.docâ. This document consists of questions pertaining to
Task2. Teams need to answer these questions as per the instructions given in the
document.
Section B: Experiments
ï· The folder âCS_Task2_Experimentsâ consists of 2 files and 1 folder:
o File: âCS_Task2_Experiments.pdfâ â contains detailed instructions related
to the experiments
o File: âCS_Task2_Experiments.pyâ â contains the code snippets to be
modified
o Folder: âTest_Imagesâ â contains 5 test images
Submission Instructions:
Teams upload the solutions to Section A and Section B as follows:
ï· Section A: Algorithm
o Please save the modified document âCS_Task2_Algorithm.docâ file as
âeYRCPlus_CS<teamid>_Task2_Algorithm.pdfâ.
ï· Section B: Experiments
o Please save the modified code âCS_Task2_Experiments.pyâ file as
âeYRCPlus_CS<teamid>_Task2_Experiments.pyâ.
ï· Example of naming files:
o If student Team ID is â350â then name of files to be submitted will be as
follows:
ï§ eYRCPlus_CS350_Task2_Algorithm.pdf
ï§ eYRCPlus_CS350_Task2_Experiments.py
ï· Put the above two files into âeYRCPlus_CS<teamid>_Task2â folder and compress
into zip format. Upload the âeYRCPlus_CS<teamid>_Task2.zipâ at the âUploadâ
tab on the Portal Interface. For example, if student Team ID is â350â then name of
folder and zip file to be submitted will be as follows:
ï§ eYRCPlus_CS350_Task2
ï§ eYRCPlus_CS350_Task2.zip
2. ERTS LAB
IIT-Bombay
www.e-yantra.org
Robotics Competition Plus
2015
Warning:
ï· IMPORTANT: The document you submit should be in YOUR OWN WORDS. To
avoid any copyright violations, you must NOT copy phrases directly from manuals or
web.
ï· The team should NOT mail or upload the zip file anywhere else except on the portal.
ï· e-Yantra WILL NOT entertain any request for extension of deadline for uploading the
zip file.