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BLUETOOTH CONTROLLED HEXAPOD FOR EVIRONMENTAL
DATA COLLECTION
PROJECT SUPERVISOR – DR. PRASHANT PILLAI
SAMEER SYED AHMED; ELECTRONIC TELECOMMUNICATION AND INTERNET ENGINEERING
1) HEXAPOD ROBOT
 What is a hexapod robot?
• The hexapod robot is a mechanical
vehicle that walks on six legs. It’s
design was inspired from insects
with 6 and 8 legs.
 Advantages:
a) Hexapods are better at balancing
themselves over various kinds of
surfaces better than any other kind
legged robots.
b) Hexapod have various movement
gaits which allow it to either
balance and/ or move faster.
c) Hexapod can avoid undesirable
foothold which other robot types
may not be able to avoid.
 Possible areas of implementation:
• Space exploration
• Rescue missions
• Surveillance Systems
STAGE 3 BEng PROJECT 2013 - 2014
Three specific performance test were executed on the
hexapod to check the effectiveness of the system. These
were as such:
i. Obstacle avoidance ability at various speeds;
ii. Distance related delay of commands received;
iii. Command accuracy;
i. The obstacle avoidance
test is based on the robot
avoiding 6 obstacle and
following a pre-determined
route. The test showed after
3 attempts, while working in
the automatic mode it has
an over all accuracy of 60%.
ii. The delay was higher
with increasing distance as
expected and it proved how
Bluetooth connection works
within a maximum of 15 -
20 meters radius depending
on the type of obstacle
separating the two devices.
iii. The command accuracy
test is based on the 2nd test
however, it is used to better
understand loss of data
packets over distance. The
results prove that the robot
can be accurately controlled
up to almost 20 meters.
In conclusion, the robot achieved its original aim. Additional features were included in the design such as the automatic mode and a
camera for image feed back from the robot. Nevertheless, there is a lot of space for improvement on the design. These are some of the
possible features that can be improved in future:
a) The wireless control can be changed to Wi – Fi for longer range control.
b) Additional ultrasonic sensors on the sides will increase sensitivity to obstacle.
c) Adding pyro-electric passive infrared sensor can make the robot a potential rescue robot.
d) Gyroscopic sensor will enable it to sense edges of a surface thus, making it more intelligent as a system.
5) CONCLUSION & FUTURE WORK
The Aim of the project is to build a hexapod that
can be controlled wirelessly via Bluetooth in order
to collect environmental data using various sensors.
Objectives:
1) Program Hexapod robot using C# on the visual
studio platform
2) Research relevant sensors and program them
using the Arduino IDE software
3) Research appropriate power supply unit and
Bluetooth communication devices
4) Assemble robot and sensors
5) Test and assess the robot’s performance and the
accuracy of readings
6) Evaluation of final design and product
The hexapod model used in this project is known
as the MSR – H01 (picture on left ).
2) AIM & OBJECTIVES
4) PERFORMANCE TESTS3) DESIGN AND IMPLEMENTATION
Control Panel: User Interface
The design of the system consists of two main
parts, the Control Panel (user interface) and the
Hexapod Robot.
• The system specifications show all the
components used to construct the system and
their purposes.
• The control panel has various features
including camera feed back and real time
light and temperature readings.
System Specifications
HEXAPOD CONTROL METHODS

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FYP_POSTER_PRESENTATION_ELECTRICAL

  • 1. BLUETOOTH CONTROLLED HEXAPOD FOR EVIRONMENTAL DATA COLLECTION PROJECT SUPERVISOR – DR. PRASHANT PILLAI SAMEER SYED AHMED; ELECTRONIC TELECOMMUNICATION AND INTERNET ENGINEERING 1) HEXAPOD ROBOT  What is a hexapod robot? • The hexapod robot is a mechanical vehicle that walks on six legs. It’s design was inspired from insects with 6 and 8 legs.  Advantages: a) Hexapods are better at balancing themselves over various kinds of surfaces better than any other kind legged robots. b) Hexapod have various movement gaits which allow it to either balance and/ or move faster. c) Hexapod can avoid undesirable foothold which other robot types may not be able to avoid.  Possible areas of implementation: • Space exploration • Rescue missions • Surveillance Systems STAGE 3 BEng PROJECT 2013 - 2014 Three specific performance test were executed on the hexapod to check the effectiveness of the system. These were as such: i. Obstacle avoidance ability at various speeds; ii. Distance related delay of commands received; iii. Command accuracy; i. The obstacle avoidance test is based on the robot avoiding 6 obstacle and following a pre-determined route. The test showed after 3 attempts, while working in the automatic mode it has an over all accuracy of 60%. ii. The delay was higher with increasing distance as expected and it proved how Bluetooth connection works within a maximum of 15 - 20 meters radius depending on the type of obstacle separating the two devices. iii. The command accuracy test is based on the 2nd test however, it is used to better understand loss of data packets over distance. The results prove that the robot can be accurately controlled up to almost 20 meters. In conclusion, the robot achieved its original aim. Additional features were included in the design such as the automatic mode and a camera for image feed back from the robot. Nevertheless, there is a lot of space for improvement on the design. These are some of the possible features that can be improved in future: a) The wireless control can be changed to Wi – Fi for longer range control. b) Additional ultrasonic sensors on the sides will increase sensitivity to obstacle. c) Adding pyro-electric passive infrared sensor can make the robot a potential rescue robot. d) Gyroscopic sensor will enable it to sense edges of a surface thus, making it more intelligent as a system. 5) CONCLUSION & FUTURE WORK The Aim of the project is to build a hexapod that can be controlled wirelessly via Bluetooth in order to collect environmental data using various sensors. Objectives: 1) Program Hexapod robot using C# on the visual studio platform 2) Research relevant sensors and program them using the Arduino IDE software 3) Research appropriate power supply unit and Bluetooth communication devices 4) Assemble robot and sensors 5) Test and assess the robot’s performance and the accuracy of readings 6) Evaluation of final design and product The hexapod model used in this project is known as the MSR – H01 (picture on left ). 2) AIM & OBJECTIVES 4) PERFORMANCE TESTS3) DESIGN AND IMPLEMENTATION Control Panel: User Interface The design of the system consists of two main parts, the Control Panel (user interface) and the Hexapod Robot. • The system specifications show all the components used to construct the system and their purposes. • The control panel has various features including camera feed back and real time light and temperature readings. System Specifications HEXAPOD CONTROL METHODS