[Morpheus Chair] Create a LineFollower with RGB Camera and ROS #Episode 5

[Morpheus Chair] Create a LineFollower with RGB Camera and ROS #Episode 5

About:
In this video you will learn how to create a line following python script using ROS, OpenCV
and a custom simulation.

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Usefull links:

ROSJECT: Project with all the code one click away:http://www.rosject.io/l/8292943/

Theory: https://en.wikipedia.org/wiki/Differential_wheeled_robot

Git of MorpheusChair Code:
https://bitbucket.org/theconstructcore/morpheus_chair/src/master/

UbuntuMate DownloadPage:
https://ubuntu-mate.org/raspberry-pi/

RPi Motor Driver Board:
https://www.waveshare.com/wiki/RPi_Motor_Driver_Board

How to publish Image Stream in ROS Raspberry Pi:

How to publish Image Stream in ROS Raspberry Pi

———————————————————————–

Here you can find the list of materials that you will need for this session:

RapsBerryPi Kit ( RaspBerry, PowerBrick, microSD16GB, Case, HDMI ) : https://www.amazon.es/Raspberry-Pi-Official-Desktop-Starter/dp/B01CI58722
H Bridge Motor Driver Hats : https://www.amazon.es/gp/product/B071FWNBXG
Batery: https://www.amazon.es/Kuman-expansión-alimentación-Interruptor-Raspberry/dp/B06W9FWDSP
Jumper Wires: https://www.amazon.es/Akozon-Conectores-Macho-Hembra-Macho-Macho-Hembra-Hembra/dp/B07GJLCGG8
Jack Connectors: https://www.amazon.es/gp/product/B06XPVJT1Z
AA Bateries: https://www.amazon.es/Energizer-Set-pilas-alcalinas-unidades/dp/B000IWXV4C
BluetoothKeyBoard: https://www.amazon.es/Rii-Bluetooth-disposición-Smartphone-PlayStation/dp/B0195Y4V5G

Want to learn more about how to Rosify a robot:
https://www.robotigniteacademy.com/en/course/building-and-rosifying-robot-scratch/details/

———————————————————————————
Music:
Original Track:https://youtu.be/FBv6rm1lY0w
Thanks to NewRetroWave for letting us use their music.
Here more info:

New Retro Wave + Bachelor of Hearts Aurora Borealis

Smooth vibes for you retro soul. Listen and enjoy.
OUT NOW on NRW Records:
https://newretrowave.bandcamp.com/album/a-cosmic-funk-odyssey-ep
iTunes: http://apple.co/2r6N1T7

Support:

https://www.facebook.com/BachelorOfHeartsmusic/

Artwork provided by Murryous, who is our featured artist for May. Please support him:
https://www.instagram.com/murryous/

Hang Ups (Want You) 4:04 Otis McDonald Hip hop y rap | Dramática
Puedes usar esta canción en cualquiera de tus vídeos.

———————–

No Copyright Motion Graphics
Motion Graphics provided by https://www.youtubestock.com
YouTube Channel: https://goo.gl/aayJRf

▬▬▬▬▬▬▬▬▬▬▬▬▬▬▬▬▬▬▬

Music:

Futuristik – Like U Say

[Futuristik]
• https://www.facebook.com/FuturistikOf…
• https://twitter.com/FuturistikEU
• https://soundcloud.com/futuristikoffi…

———————–

3D Models:
Orange Robot:
https://www.blendswap.com/blends/view/77718

Sphere Robot:
https://www.blendswap.com/blends/view/80818

Robot Parts:
https://www.blendswap.com/blends/view/78357

Mars Lander:
https://www.blendswap.com/blends/view/81264

#ROS #Robot #rostutorials #Ubuntu #camera #robot linefollower

[Morpheus Chair] Differential drive with RaspBerryPi #Episode 4

[Morpheus Chair] Differential drive with RaspBerryPi #Episode 4

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What will you learn in this post

  • Learn how to create a differential drive with python for RaspBerryPi, using the ROS system.
    This is the first part of a three-part video for creating a line following robot with a camera.

List of resources used in this post

More resources if you want to use the real robot:

Launching the simulation (later the real robot)

The code used in this post will be used to launch the real robot, but if you want to know how things would “before putting in production”, we can use the simulation for that. To launch the simulation, you first click in the ROSject link provided above (http://www.rosject.io/l/8292943/) to get a copy of it.  Once you have it, you then you click on the Open button:

Creating your own robot from Scratch in ROSDS

Creating your own robot from Scratch in ROSDS

 

Now that the ROSject is open, you can run the simulation clicking on Simulations -> Select a Launch file and select under the duckietown_gazebo the file morpheus_chair.launch  :

Launching dickietown_gazebo morpheus_chair.launch in ROSDS

Launching dickietown_gazebo morpheus_chair.launch in ROSDS

We should now have the simulation up and running, more or less like in the image below:

Real Robot with Raspberry PI simulated in ROSDS

Real Robot with Raspberry PI simulated in ROSDS

Analyzing the code using the IDE (Code Editor)

To see the code, you just click Tools -> IDE. With the IDE open, you then open ~/simulation_ws/src/morpheus_chair/morpheus_chair_pkg/scripts/move_with_cmd_vel.py to see the RobotMover class used to move the robot around:

#!/usr/bin/env python
import rospy
import sys
from geometry_msgs.msg import Twist
from motor_driver import MotorDriver

class RobotMover(object):

    def __init__(self, value_BASE_PWM, value_MULTIPLIER_STANDARD, value_MULTIPLIER_PIVOT, value_simple_mode):
        rospy.Subscriber("/morpheus_bot/cmd_vel", Twist, self.cmd_vel_callback)
        self.motor_driver = MotorDriver( i_BASE_PWM=value_BASE_PWM,
                                         i_MULTIPLIER_STANDARD=value_MULTIPLIER_STANDARD,
                                         i_MULTIPLIER_PIVOT=value_MULTIPLIER_PIVOT,
                                         simple_mode=value_simple_mode)
        rospy.wait_for_service('/raspicam_node/start_capture')

        rospy.loginfo("RobotMover Started...")


    def cmd_vel_callback(self, msg):
        linear_speed = msg.linear.x
        angular_speed = msg.angular.z

        # Decide Speed
        self.motor_driver.set_cmd_vel(linear_speed, angular_speed)


    def listener(self):
        rospy.spin()

if __name__ == '__main__':
    rospy.init_node('morpheuschair_cmd_vel_listener', anonymous=True)

    if len(sys.argv) > 5:
        value_BASE_PWM = int(float(sys.argv[1]))
        value_MULTIPLIER_STANDARD = float(sys.argv[2])
        value_MULTIPLIER_PIVOT = float(sys.argv[3])
        value_simple_mode = sys.argv[4] == "true"

        robot_mover = RobotMover(value_BASE_PWM,
                                 value_MULTIPLIER_STANDARD,
                                 value_MULTIPLIER_PIVOT,
                                 value_simple_mode)
        robot_mover.listener()

You can also open the file morpheus_chair/morpheus_chair_pkg/scripts/motor_driver.py to see the class that we use to control the motors:

#!/usr/bin/env python
import rospy
import RPi.GPIO as GPIO
import time

class MotorDriver(object):

    def __init__(self, wheel_distance=0.098, wheel_diameter=0.066, i_BASE_PWM=50, i_MULTIPLIER_STANDARD=0.1, i_MULTIPLIER_PIVOT=1.0, simple_mode = True):
        """
        M1 = Right Wheel
        M2 = Left Wheel
        :param wheel_distance: Distance Between wheels in meters
        :param wheel_diameter: Diameter of the wheels in meters
        """
        self.PIN = 18
        self.PWMA1 = 6
        self.PWMA2 = 13
        self.PWMB1 = 20
        self.PWMB2 = 21
        self.D1 = 12
        self.D2 = 26

        self.PWM1 = 0
        self.PWM2 = 0
        self.BASE_PWM = i_BASE_PWM
        self.MAX_PWM = 100

        self.simple_mode = simple_mode

        # Wheel and chasis dimensions
        self._wheel_distance = wheel_distance
        self._wheel_radius = wheel_diameter / 2.0
        self.MULTIPLIER_STANDARD = i_MULTIPLIER_STANDARD
        self.MULTIPLIER_PIVOT = i_MULTIPLIER_PIVOT

        GPIO.setmode(GPIO.BCM)
        GPIO.setwarnings(False)
        GPIO.setup(self.PIN, GPIO.IN, GPIO.PUD_UP)
        GPIO.setup(self.PWMA1, GPIO.OUT)
        GPIO.setup(self.PWMA2, GPIO.OUT)
        GPIO.setup(self.PWMB1, GPIO.OUT)
        GPIO.setup(self.PWMB2, GPIO.OUT)
        GPIO.setup(self.D1, GPIO.OUT)
        GPIO.setup(self.D2, GPIO.OUT)
        self.p1 = GPIO.PWM(self.D1, 500)
        self.p2 = GPIO.PWM(self.D2, 500)
        self.p1.start(self.PWM1)
        self.p2.start(self.PWM2)

    def __del__(self):
        GPIO.cleanup()

    def set_motor(self, A1, A2, B1, B2):
        GPIO.output(self.PWMA1, A1)
        GPIO.output(self.PWMA2, A2)
        GPIO.output(self.PWMB1, B1)
        GPIO.output(self.PWMB2, B2)

    def forward(self):
        self.set_motor(0, 1, 0, 1)

    def stop(self):
        self.set_motor(0, 0, 0, 0)


    def reverse(self):
        self.set_motor(1, 0, 1, 0)


    def left(self):
        self.set_motor(0, 1, 0, 0)

    def left_reverse(self):
        self.set_motor(1, 0, 0, 0)

    def pivot_left(self):
        self.set_motor(1, 0, 0, 1)


    def right(self):
        self.set_motor(0, 0, 0, 1)

    def right_reverse(self):
        self.set_motor(0, 0, 1, 0)

    def pivot_right(self):
        self.set_motor(0, 1, 1, 0)

    def set_M1M2_speed(self, rpm_speedM1, rpm_speedM2, multiplier):

        self.set_M1_speed(rpm_speedM1, multiplier)
        self.set_M2_speed(rpm_speedM2, multiplier)

    def set_M1_speed(self, rpm_speed, multiplier):

        self.PWM1 = min(int((rpm_speed * multiplier) * self.BASE_PWM), self.MAX_PWM)
        self.p1.ChangeDutyCycle(self.PWM1)
        print("M1="+str(self.PWM1))

    def set_M2_speed(self, rpm_speed, multiplier):

        self.PWM2 = min(int(rpm_speed * multiplier * self.BASE_PWM), self.MAX_PWM)
        self.p2.ChangeDutyCycle(self.PWM2)
        print("M2="+str(self.PWM2))

    def calculate_body_turn_radius(self, linear_speed, angular_speed):
        if angular_speed != 0.0:
            body_turn_radius = linear_speed / angular_speed
        else:
            # Not turning, infinite turn radius
            body_turn_radius = None
        return body_turn_radius

    def calculate_wheel_turn_radius(self, body_turn_radius, angular_speed, wheel):

        if body_turn_radius is not None:
            """
            if angular_speed > 0.0:
                angular_speed_sign = 1
            elif angular_speed < 0.0:
                angular_speed_sign = -1
            else:
                angular_speed_sign = 0.0
            """
            if wheel == "right":
                wheel_sign = 1
            elif wheel == "left":
                wheel_sign = -1
            else:
                assert False, "Wheel Name not supported, left or right only."

            wheel_turn_radius = body_turn_radius + ( wheel_sign * (self._wheel_distance / 2.0))
        else:
            wheel_turn_radius = None

        return wheel_turn_radius

    def calculate_wheel_rpm(self, linear_speed, angular_speed, wheel_turn_radius):
        """
        Omega_wheel = Linear_Speed_Wheel / Wheel_Radius
        Linear_Speed_Wheel = Omega_Turn_Body * Radius_Turn_Wheel
        --> If there is NO Omega_Turn_Body, Linear_Speed_Wheel = Linear_Speed_Body
        :param angular_speed:
        :param wheel_turn_radius:
        :return:
        """
        if wheel_turn_radius is not None:
            # The robot is turning
            wheel_rpm = (angular_speed * wheel_turn_radius) / self._wheel_radius
        else:
            # Its not turning therefore the wheel speed is the same as the body
            wheel_rpm = linear_speed / self._wheel_radius

        return wheel_rpm

    def set_wheel_movement(self, right_wheel_rpm, left_wheel_rpm):

        #print("W1,W2=["+str(right_wheel_rpm)+","+str(left_wheel_rpm)+"]")

        if right_wheel_rpm > 0.0 and left_wheel_rpm > 0.0:
            #print("All forwards")
            self.set_M1M2_speed(abs(right_wheel_rpm), abs(left_wheel_rpm), self.MULTIPLIER_STANDARD)

            if self.simple_mode:
                # We make it turn only on one wheel
                if right_wheel_rpm > left_wheel_rpm:
                    #print("GO FORWARDS RIGHT")
                    self.right()
                if right_wheel_rpm < left_wheel_rpm:
                    #print("GO FORWARDS LEFT")
                    self.left()
                if right_wheel_rpm == left_wheel_rpm:
                    #print("GO FORWARDS")
                    self.forward()
            else:
                #print("GO FORWARDS")
                self.forward()



        elif right_wheel_rpm > 0.0 and left_wheel_rpm == 0.0:
            #print("Right Wheel forwards, left stop")
            self.set_M1M2_speed(abs(right_wheel_rpm), abs(left_wheel_rpm), self.MULTIPLIER_STANDARD)
            self.left()

        elif right_wheel_rpm > 0.0 and left_wheel_rpm < 0.0:
            #print("Right Wheel forwards, left backwards --> Pivot left")
            self.set_M1M2_speed(abs(right_wheel_rpm), abs(left_wheel_rpm), self.MULTIPLIER_PIVOT)
            self.pivot_left()
        elif right_wheel_rpm == 0.0 and left_wheel_rpm > 0.0:
            #print("Right stop, left forwards")
            self.set_M1M2_speed(abs(right_wheel_rpm), abs(left_wheel_rpm), self.MULTIPLIER_STANDARD)
            self.right()

        elif right_wheel_rpm < 0.0 and left_wheel_rpm > 0.0:
            #print("Right backwards, left forwards --> Pivot right")
            self.set_M1M2_speed(abs(right_wheel_rpm), abs(left_wheel_rpm), self.MULTIPLIER_PIVOT)
            self.pivot_right()
        elif right_wheel_rpm < 0.0 and left_wheel_rpm < 0.0:
            #print("All backwards")
            self.set_M1M2_speed(abs(right_wheel_rpm), abs(left_wheel_rpm), self.MULTIPLIER_STANDARD)

            if self.simple_mode:
                # We make it turn only on one wheel
                if abs(right_wheel_rpm) > abs(left_wheel_rpm):
                    #print("GO BACKWARDS RIGHT")
                    self.right_reverse()
                if abs(right_wheel_rpm) < abs(left_wheel_rpm):
                    #print("GO BACKWARDS LEFT")
                    self.left_reverse()
                if right_wheel_rpm == left_wheel_rpm:
                    #print("GO BACKWARDS")
                    self.reverse()
            else:
                self.reverse()




        elif right_wheel_rpm == 0.0 and left_wheel_rpm == 0.0:
            #print("Right stop, left stop")
            self.set_M1M2_speed(abs(right_wheel_rpm), abs(left_wheel_rpm), self.MULTIPLIER_STANDARD)
            self.stop()
        else:
            assert False, "A case wasn't considered==>"+str(right_wheel_rpm)+","+str(left_wheel_rpm)
            pass

    def set_cmd_vel(self, linear_speed, angular_speed):

        body_turn_radius = self.calculate_body_turn_radius(linear_speed, angular_speed)

        wheel = "right"
        right_wheel_turn_radius = self.calculate_wheel_turn_radius(body_turn_radius,
                                                                   angular_speed,
                                                                   wheel)

        wheel = "left"
        left_wheel_turn_radius = self.calculate_wheel_turn_radius(body_turn_radius,
                                                                  angular_speed,
                                                                  wheel)

        right_wheel_rpm = self.calculate_wheel_rpm(linear_speed, angular_speed, right_wheel_turn_radius)
        left_wheel_rpm = self.calculate_wheel_rpm(linear_speed, angular_speed, left_wheel_turn_radius)


        self.set_wheel_movement(right_wheel_rpm, left_wheel_rpm)


Explaining all the details of the code above in this post can be time-consuming. Then, we recommend watching the live version of this post in youtube, following the link at the end of this post if you want to know the tiny details of the file.

Moving the robot around

In order to move the robot, we first have to launch the motor drivers using the command below in the shell. If you don’t know to open the shell, click Tools -> Shell.  Then run the command:

roslaunch morpheus_chair_pkg motor_driver_start.launch

Now that the drivers are up and running, we can control it through the command below:

roslaunch morpheus_chair_pkg keyboard_teleop.launch

Then follow the instructions that will be presented in the shell to move the robot (like pressing keys k,j,o, etc)

Making the real robot move

Now that we can move the robot using simulation, we want to move the real robot.

You first need to access your robot with SSH with something like:

ssh USERNAME@IP_ADDRESS

where USERNAME is your username in the robot, and IP_ADDRESS is the IP Address of the real robot.

There you clone the repository in your catkin_ws:

mkdir -p ~/catkin_ws/src
git clone https://bitbucket.org/theconstructcore/morpheus_chair ~/catkin_ws/src/

Then you launch the motor drivers just like we did in the simulation:

source ~/catkin_ws/devel/setup.bash 
roslaunch morpheus_chair_pkg motor_driver_start.launch

Now in a different shell of the real robot, you launch the script used to move the robot:

source ~/catkin_ws/devel/setup.bash
roslaunch morpheus_chair_pkg keyboard_teleop.launch

Your real robot now should be moving.

Youtube Video

We hope you liked the post. If you prefer, we also have a live version of it in YouTube with all the details. Please have a look following the link below:

 

More Resources


New Retro Wave + Bachelor of Hearts Aurora Borealis

Smooth vibes for you retro soul. Listen and enjoy.
OUT NOW on NRW Records:
https://newretrowave.bandcamp.com/album/a-cosmic-funk-odyssey-ep
iTunes: http://apple.co/2r6N1T7

Support:

https://www.facebook.com/BachelorOfHeartsmusic/

Artwork provided by Murryous, who is our featured artist for May. Please support him:
https://www.instagram.com/murryous/

Hang Ups (Want You) 4:04 Otis McDonald Hip hop y rap | Dramática
Puedes usar esta canción en cualquiera de tus vídeos.

———————–

No Copyright Motion Graphics
Motion Graphics provided by https://www.youtubestock.com
YouTube Channel: https://goo.gl/aayJRf

———————–

Explosion Sounds from:
https://www.youtube.com/channel/UCr9ibM1ESxixN5egOyh94mQ

———————–

Explosion Video from:

———————–
3D Models:
Orange Robot:
https://www.blendswap.com/blends/view/77718

Sphere Robot:
https://www.blendswap.com/blends/view/80818

Robot Parts:
https://www.blendswap.com/blends/view/78357

Mars Lander:
https://www.blendswap.com/blends/view/81264

#ROS #RaspberryPi #Robot #rostutorials #Ubuntu #camera #ssh #ROS in RaspberryPi #kinetic #differential drive

How to build a Raspberry Pi & ROS Camera Robot | Ep.3

How to build a Raspberry Pi & ROS Camera Robot | Ep.3

About

In this video, you will learn how to mount the robot in an autonomous system. We will learn:
– How to install the Raspberry Pi Camera.
– How to do ssh to Raspberry Pi, remote desktop and install ROS kinetic in Raspberry Pi Ubuntu Mate.
– How to start a roslaunch that will allow us to move with the keyboard through ssh the robot
– How to see the images published in ROS of the camera.

List of materials

Useful links

3D Models

#ROS #RaspberryPi #Robot #rostutorials #Ubuntu #camera #ssh #ROS in RaspberryPi #kinetic

[Morpheus Chair] Move DC Motors for a robot with RaspBerryPi Episode 2

[Morpheus Chair] Move DC Motors for a robot with RaspBerryPi Episode 2

About:
In this video, you will learn how to install the UbuntuMate OS in RaspBerry pi to then move using a MotorDriver Hat
two DC motors directly from RaspberryPi.

———————————————————————–

Here you can find the list of materials that you will need for this session:

RapsBerryPi Kit ( RaspBerry, PowerBrick, microSD16GB, Case, HDMI ) : https://www.amazon.es/Raspberry-Pi-Official-Desktop-Starter/dp/B01CI58722
H Bridge Motor Driver Hats : https://www.amazon.es/gp/product/B071FWNBXG
Jumper Wires: https://www.amazon.es/Akozon-Conectores-Macho-Hembra-Macho-Macho-Hembra-Hembra/dp/B07GJLCGG8
Jack Connectors: https://www.amazon.es/gp/product/B06XPVJT1Z
AA Bateries: https://www.amazon.es/Energizer-Set-pilas-alcalinas-unidades/dp/B000IWXV4C
BluetoothKeyBoard: https://www.amazon.es/Rii-Bluetooth-disposición-Smartphone-PlayStation/dp/B0195Y4V5G

Want to learn more about how to Rosify a robot:
https://www.robotigniteacademy.com/en/course/building-and-rosifying-robot-scratch/details/

———————————————————————————

Usefull links:

Git of MorpheusChair Code:
https://bitbucket.org/theconstructcore/morpheus_chair/src/master/

UbuntuMate DownloadPage:
https://ubuntu-mate.org/raspberry-pi/

RPi Motor Driver Board:
https://www.waveshare.com/wiki/RPi_Motor_Driver_Board

How to publish Image Stream in ROS Raspberry Pi:

How to publish Image Stream in ROS Raspberry Pi

How to install UbuntuMate in microSD card video from Martin Wimpress (https://www.youtube.com/channel/UC0GV1M9WgakX_FGx4_kDRNw):
https://www.youtube.com/watch?v=V_6GNyL6Dac

———————————————————————————
Music:
Original Track:https://youtu.be/FBv6rm1lY0w
Thanks to NewRetroWave for letting us use their music.
Here more info:

New Retro Wave + Bachelor of Hearts Aurora Borealis

Smooth vibes for you retro soul. Listen and enjoy.
OUT NOW on NRW Records:
https://newretrowave.bandcamp.com/album/a-cosmic-funk-odyssey-ep
iTunes: http://apple.co/2r6N1T7

Support:

https://www.facebook.com/BachelorOfHeartsmusic/

Artwork provided by Murryous, who is our featured artist for May. Please support him:
https://www.instagram.com/murryous/

Hang Ups (Want You) 4:04 Otis McDonald Hip hop y rap | Dramática
Puedes usar esta canción en cualquiera de tus vídeos.

———————–
3D Models:
Orange Robot:
https://www.blendswap.com/blends/view/77718

Sphere Robot:
https://www.blendswap.com/blends/view/80818

Robot Parts:
https://www.blendswap.com/blends/view/78357

Mars Lander:
https://www.blendswap.com/blends/view/81264

#ROS #RaspberryPi #Robot #rostutorials #Ubuntu

[Morpheus Chair] Build the Structure of a ROS Raspberry Pi Robot #Ep.1

[Morpheus Chair] Build the Structure of a ROS Raspberry Pi Robot #Ep.1

Welcome to Morpheus-Chair, the program where you will learn how to build a ROS RaspBerry Pi Robot to be used as a foundation to learn all there is in this fascinating world of Robotics.
In this first video, we introduce the video series and teach you how to assemble the chassis step-by-step.

BOM:

———————————————————————————
Music:
Original Track:https://youtu.be/FBv6rm1lY0w
Thanks to NewRetroWave for letting us use their music.
Here more info:

New Retro Wave + Bachelor of Hearts Aurora Borealis

Smooth vibes for you retro soul. Listen and enjoy.
OUT NOW on NRW Records:
https://newretrowave.bandcamp.com/alb…
iTunes: http://apple.co/2r6N1T7

Support:
https://soundcloud.com/bachelor-of-he…
https://www.facebook.com/BachelorOfHe…

Artwork provided by Murryous, who is our featured artist for May. Please support him:
https://www.instagram.com/murryous/

———————–
3D Models:
Orange Robot:
https://www.blendswap.com/blends/view/77718

Sphere Robot:
https://www.blendswap.com/blends/view/80818

Robot Parts:
https://www.blendswap.com/blends/view/80818

Mars Lander:
https://www.blendswap.com/blends/view/81264

How to build a robot using ROS? –  From Idea to Robotics Product in 3 weeks

How to build a robot using ROS? – From Idea to Robotics Product in 3 weeks

Want Your Robotics Idea Happen in 2018? This Is Your Webinar!

What you will learn from this ROS Robots Webinar Series

  • We will guide you step by step from idea to a real robotics product that you can start selling in three weeks from now
  • We will show you which materials to use, which parts to buy, how to program the whole robot to perform its task, and how to launch it to the world
  • We will use the example of Barista robot, a robot that serves coffee to the tables, made in 3 months by a couple of students with no prior knowledge of robotics.

EPISODE #1

We will:

▸ Set the outline of the whole project
▸ Find the parts that will have to buy
▸ Decide software to build

EPISODE #2

We will:

▸ Show you the document which describes the Barista robot project (based on what was taught on EPISODE 1).
▸ Based on that document, we will see how to select the parts you need for your project.
▸ Based on that document, we show you how to start with simulating your robot and environment.
▸ Then we start developing the software that will go on the robot, using that simulation.
▸ The whole process will be taught for a general product (your product!). Also, we will show how we applied all this to the development of the Barista robot
▸ We will answer your questions about your own robotic product.

 

EPISODE #3

We will:

▸ We will show you how to find the people and parts that will make your robot a real product.
▸ We will show you how to proceed to test with the real robot.
▸ We will show you how to iterate, jumping from simulation to the real robot until the product really works as needed.
▸ We will show you how to present to society at a big launching event.
▸ The whole process will be taught for a general product (your product!). Also, we will show how we applied all this to the development of the Barista robot
▸ We will answer your questions about your own robotic product.

 

Related resources and links:

▸ ROS Components online shop: http://www.roscomponents.com
▸ Barista Coffee Shop simulation: https://www.theconstruct.ai/barista-the-first-robot-serving-coffee-in-the-world/
▸ How to build models of objects for the Gazebo simulation: https://youtu.be/aP4sDyrRzpU
▸ How to build models of objects using Solidworks and then transfer to Gazebo: https://youtu.be/T7X_p_KMwus
▸ Barista learns to navigate in simulation: https://youtu.be/nQB9CUwY9Fw
▸ Barista learns to navigate using a webpage that send tables to navigate to: https://youtu.be/wR7bi8YpRnI
▸ Autoware project: https://github.com/CPFL/Autoware

▸ Learn ROS online very fast: https://www.theconstruct.ai/construct-learn-develop-robots-using-ros/robotigniteacademy_learnros/
▸ Find a graphic designer for your product: http://goo.gl/o2emqA
▸ Find a 3D designer for your product: https://goo.gl/31q1qQ
▸ Find a 3D printer near you: https://www.hubs.com/
▸ Add stickers to your product: https://www.stickermule.com
▸ Barista promotion video: https://youtu.be/6cpX56jclyo
▸ Press release templates: https://offers.hubspot.com/inbound-press-release-templates
▸ Webpage of your product for the press: https://www.hubspot.com/newsroom

▸ ROS Live Class on Industrial robots: https://youtu.be/BCDFvMw6N-8

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