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Project title: IntelligentMars Rover Development.
Team Structure:
Team Leader: Ashraful Alam, EECE-13
Vice Leaders:
1. Technical vice leader:Arif Mahmud,CSE-15
2. Managing vice leader:Farhan Hasan, NSE-01
3. Financial vice deader:Mirza, EWCE-01
Other members:
1. MD. ShabbirHossain,EECE-13
2. Mahfujul IslamAkash,CSE-14
3. Nazmul Hasan,AE
4. Shawon,AE
5. Muaz, CSE-14
6. MalihaMaliat, EECE-12
7. RubaiyaKabirPranti,EECE-13
Executive summary:
Worldwide RoverchallengeRoboticscompetition“UniversityRover Challenge”takesplaceeveryyear
at Mars DesertResearchStation(MDRS) nearHanksville,Utah,USA. It is consideredas a well-known
andveryrespective competitionall overtheworld. Universitiesfromdifferentcountriesparticipatein
this competition to show their excellence on the spatial field and bring new ideas to solve many
problems that a rover encounters during its space travel on other planets. These new ideas to
approach differentproblemsare observedbyscientists fromNASA,RKA,ESA etc. so that theycan be
implemented on future rovers. MIST has been participating in the competition every year and has
broughtgreatachievements overthe years.Thisyeardepartmentof NuclearScience andEngineering
(NSE) of MilitaryInstitute of Scienceand Technology(MIST) isdevelopingitsexpertise incuttingedge
world standard rover technology by engineering an intelligent rover that is capable of solving all the
tasks proposed by URC organization using the latest image processing technology that will helpthe
rover decide itself on the fieldand execute its operation or suggest remote controllersaccording to
context. This rover should be capable of doing-
Science Cache Task:
The goal is to collect samples at sites selected in the field, perform basic science
evaluation of these samples with onboard instrumentation, and store at least one sample
in a cache for further scientific analysis. A single or multiple sites can be sampled. Sites
shall be analyzed for their likelihood to support microbial life using the geological
context such as evidence of water flow, minerals present and soil structure.
Astronaut Assistance:
Rover shall be required to collect multiple objects left in the field and deliver/deploy
them to multiple locations throughout the field. All items to be delivered will need to
be picked up in the field by the rover. The location and description of equipment will
be given in GPS coordinates to within 3m.
Equipment Servicing Task:
Rovers shall be required to perform several dexterous operations on a mock-up
equipment system.
The rover shall have to travel up to 0.25km across relatively flat terrain (minimal slope)
to reach the equipment. The equipment servicing task will involve performing
maintenance on a generator which may include the following sub-tasks:
 Connect a carabiner to a wagon containing a fuel can and use it to tow the
wagon to the generator. The wagon will have a U-hook at least 1” in diameter
and no more than 0.25” thick, to which the carabiner can be connected. Teams
should provide the tow rope and carabiner.
 Flip open a cap on the fuel tank.
 Pour the fuel (ethanol simulated by dyed water or simulated magnesium
powder) into the tank. Tank opening will be no higher than 0.5m from the
ground. Filled fuel can will weigh less than 2.5 kg.
 Unscrew a regulator from a simulated empty O2 tank and screw onto a “full”
tank. Attaching screw fitting will be a DIN style collar approximately 1” in
diameter attached to a hose.
 Start generator by pushing a button or flipping a switch
 Verify operation by reading a message on a LCD display
Terrain Traversing Task:
Rover shall be required to traverse a variety of difficult terrains as part of an engineering
field test of the ruggedness and route-finding ability of the rovers. Terrain may include
soft sandy areas, rough stony areas, rock and boulder fields, vertical drops potentially
in excess of 0.5m, and steep slopes in excess of 60°. There is no limit placed on the
slopes or size of drops or boulders that may be encountered. Unlike the other tasks, this
task poses a significant hazard to the rovers, and teams may want to weigh the risk vs.
reward before attempting some of the obstacles, especially early in the competition.
The current projectaimsto showcase the roverat upcomingUniversityRoverChallenge 2016 and
winthe firstposition.
Objectives:
1. Designinganenergyefficientandintelligent rover
2. Engineeringaroveraccordingto design
3. Making rovercapable of performing“Science Cache Task”
4. Making rovercapable of doing“AstronautAssistance”
5. Making rovercapable of executing“EquipmentServicingTask”
6. Making rovercapable of accomplishing“TerrainTraversingTask”
7. Fieldtestingthe rover
8. Presentingthe roverinupcomingUniversityRoverChallenge 2016
Expectedoutcome:
The existing rover projects are to be optimizedby using intelligent approach under this project. The
resultsare to be utilizedbyBangladeshSpace ResearchandRemote SensingOrganization(SPARRSO)
and otherspace researchcentersof differentcountriesfortheirfuture space exploration programs.
Technical Details:
Wheel tire:
1. Type: Mud terraintire (customized)
MobilitySystem:
1. Type:Regularrovermobilitysystem (Customized)
Motors:
1. Gear motor
2. Cylindermotor/Actuator
Main body:
1. Shape:Cuboid
2. Approximate Dimension: 36 inchx 22 inchx 10 inch
Figure: Computer generated 3D structure of Innotus rover.
Robotic Arm:
1. Specification:Twoactuators and four fingers gripper
Sensors:
2. PH meter
3. Humiditysensor
4. Motionsensor
5. Gravitysensor
6. Compasssensor
7. GPS sensor
8. Speedometer
9. Proximitysensor
10. Organicsubstance sensor
Networkingand communication:
1. Devices:
1. Wi-Fi adapter
2. Router
3. Satel RadioModem
4. FPV Camera1080p
Circuit requirements:
1. Raspberrypi
2. Arduinoboard
3. ARM microcontroller
Software:
1. Platform: RaspberryPi
2. OS: Linux
3. Language:C and Python
Approach:
This project has been divided into three interdependent phases where phase 1 includes
all the necessary research associated with rover, phase2 concentrates on developing the
rover and phase 3 for the testing and fixing encountered problems. Tasks under these
phases are distributed in the following manner:
Phase Focus Task
Completion
date
Status
Phase 1
1. Wheel Tire
1. Tire listcollection 02-12-15 Complete
2. Tire researchand selection 04-12-15 Complete
3. Technical detail submission 07-12-15 Complete
4. Discussionand finalities 08-12-15 Complete
2. MobilitySystem
1. Mobilitysystem list
collection
03-12-15 Complete
2. Researchandselection 05-12-15 Complete
3. Discussionandplanning 06-12-15 Complete
4. Technical detail submission 10-12-15 Complete
3. Motors
1. Motor listcollection 04-12-15 Complete
2. Researchandselection 08-12-15 Complete
3. Wheel-motorintegration
planning
10-12-15 Complete
4. Discussion 11-12-15 Complete
5. Technical detail submission 14-12-15 Complete
4. Mobilitysystem-
bodyintegration
1. Research(includingbalance
betweentwo wheel carriers
and body)
11-12-15 Complete
2. Technical detail submission 13-12-15 Complete
3. Discussionandfinalities 14-12-15 Complete
5. Main body
1. Researchof internal
circuits,devicesand
associatedbodyparts
15-12-15 Complete
2. Properplanningaccording
to researchand technical
detail submission
18-12-15 Complete
3. Discussionandfinalities 19-12-15 Complete
6. RoboticArm
1. Robotichand’slist
collection
17-12-15 Complete
2. Researchandselection 19-12-15 Complete
3. Robotichand-body
integration
21-12-15 Complete
4. Discussionandplanning 22-12-15 Complete
5. Technical detail submission 24-12-15 Complete
7. Sensors
1. Researchof tasks
associatedwithsensors
26-12-15 Complete
2. Collectionof listof required
sensors
28-12-15 Complete
3. Discussionandplanning 29-12-15 Complete
4. Technical detail submission 01-01-16 Complete
8. Networkingand
communication
1. Gatheringrequirements 03-01-16 Complete
2. Researchonpossible
devicesandselection
08-01-16 Complete
3. Discussionandplanning 10-01-16 Complete
4. Technical detail submission 12-01-16 Complete
Phase 2
9. Internal Circuit
planning
1. Divisionof different
independentunits
2. Understandingand
planningthese units’target
3. Researchof integrationand
intercommunicationamong
these units
4. Productionof workplan(if
requiredforproject,
includingteamdivision)
5. Work plansubmission
10. CircuitDesign
1. RoboticArm
2. Wheel control
3. Networking
4. Sensors
11. Software 1. OS research
2. Software requirement
collection
3. Integrationwithdevices
and sensors
4. Projectplanning
5. Developmentof algorithms
6. Software development
7. Bug fixingandtesting
8. Implementingsoftware
Phase 3 12. FieldTesting
1. Science Cache Task
2. AstronautAssistance
3. EquipmentServicingTask
4. TerrainTraversingTask
5. Testingall associatedtasks
Potential application: Specificapplicationonreliable,sustainable andcosteffective space
exploration withroverassistance.
Reference:
1. URC Official Website- http://urc.marssociety.org/home/requirements-guidelines
2. Protocase Inc.- http://www.protocase.com/,http://urc.marssociety.org/home/resources

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Innotus_Project_Proposal

  • 1. Project title: IntelligentMars Rover Development. Team Structure: Team Leader: Ashraful Alam, EECE-13 Vice Leaders: 1. Technical vice leader:Arif Mahmud,CSE-15 2. Managing vice leader:Farhan Hasan, NSE-01 3. Financial vice deader:Mirza, EWCE-01 Other members: 1. MD. ShabbirHossain,EECE-13 2. Mahfujul IslamAkash,CSE-14 3. Nazmul Hasan,AE 4. Shawon,AE 5. Muaz, CSE-14 6. MalihaMaliat, EECE-12 7. RubaiyaKabirPranti,EECE-13 Executive summary: Worldwide RoverchallengeRoboticscompetition“UniversityRover Challenge”takesplaceeveryyear at Mars DesertResearchStation(MDRS) nearHanksville,Utah,USA. It is consideredas a well-known andveryrespective competitionall overtheworld. Universitiesfromdifferentcountriesparticipatein this competition to show their excellence on the spatial field and bring new ideas to solve many problems that a rover encounters during its space travel on other planets. These new ideas to approach differentproblemsare observedbyscientists fromNASA,RKA,ESA etc. so that theycan be implemented on future rovers. MIST has been participating in the competition every year and has broughtgreatachievements overthe years.Thisyeardepartmentof NuclearScience andEngineering (NSE) of MilitaryInstitute of Scienceand Technology(MIST) isdevelopingitsexpertise incuttingedge world standard rover technology by engineering an intelligent rover that is capable of solving all the tasks proposed by URC organization using the latest image processing technology that will helpthe rover decide itself on the fieldand execute its operation or suggest remote controllersaccording to context. This rover should be capable of doing- Science Cache Task: The goal is to collect samples at sites selected in the field, perform basic science evaluation of these samples with onboard instrumentation, and store at least one sample in a cache for further scientific analysis. A single or multiple sites can be sampled. Sites shall be analyzed for their likelihood to support microbial life using the geological context such as evidence of water flow, minerals present and soil structure.
  • 2. Astronaut Assistance: Rover shall be required to collect multiple objects left in the field and deliver/deploy them to multiple locations throughout the field. All items to be delivered will need to be picked up in the field by the rover. The location and description of equipment will be given in GPS coordinates to within 3m. Equipment Servicing Task: Rovers shall be required to perform several dexterous operations on a mock-up equipment system. The rover shall have to travel up to 0.25km across relatively flat terrain (minimal slope) to reach the equipment. The equipment servicing task will involve performing maintenance on a generator which may include the following sub-tasks:  Connect a carabiner to a wagon containing a fuel can and use it to tow the wagon to the generator. The wagon will have a U-hook at least 1” in diameter and no more than 0.25” thick, to which the carabiner can be connected. Teams should provide the tow rope and carabiner.  Flip open a cap on the fuel tank.  Pour the fuel (ethanol simulated by dyed water or simulated magnesium powder) into the tank. Tank opening will be no higher than 0.5m from the ground. Filled fuel can will weigh less than 2.5 kg.  Unscrew a regulator from a simulated empty O2 tank and screw onto a “full” tank. Attaching screw fitting will be a DIN style collar approximately 1” in diameter attached to a hose.  Start generator by pushing a button or flipping a switch  Verify operation by reading a message on a LCD display Terrain Traversing Task: Rover shall be required to traverse a variety of difficult terrains as part of an engineering field test of the ruggedness and route-finding ability of the rovers. Terrain may include soft sandy areas, rough stony areas, rock and boulder fields, vertical drops potentially in excess of 0.5m, and steep slopes in excess of 60°. There is no limit placed on the slopes or size of drops or boulders that may be encountered. Unlike the other tasks, this task poses a significant hazard to the rovers, and teams may want to weigh the risk vs. reward before attempting some of the obstacles, especially early in the competition. The current projectaimsto showcase the roverat upcomingUniversityRoverChallenge 2016 and winthe firstposition.
  • 3. Objectives: 1. Designinganenergyefficientandintelligent rover 2. Engineeringaroveraccordingto design 3. Making rovercapable of performing“Science Cache Task” 4. Making rovercapable of doing“AstronautAssistance” 5. Making rovercapable of executing“EquipmentServicingTask” 6. Making rovercapable of accomplishing“TerrainTraversingTask” 7. Fieldtestingthe rover 8. Presentingthe roverinupcomingUniversityRoverChallenge 2016 Expectedoutcome: The existing rover projects are to be optimizedby using intelligent approach under this project. The resultsare to be utilizedbyBangladeshSpace ResearchandRemote SensingOrganization(SPARRSO) and otherspace researchcentersof differentcountriesfortheirfuture space exploration programs. Technical Details: Wheel tire: 1. Type: Mud terraintire (customized) MobilitySystem: 1. Type:Regularrovermobilitysystem (Customized) Motors: 1. Gear motor 2. Cylindermotor/Actuator Main body: 1. Shape:Cuboid 2. Approximate Dimension: 36 inchx 22 inchx 10 inch
  • 4. Figure: Computer generated 3D structure of Innotus rover.
  • 5. Robotic Arm: 1. Specification:Twoactuators and four fingers gripper Sensors: 2. PH meter 3. Humiditysensor 4. Motionsensor 5. Gravitysensor 6. Compasssensor 7. GPS sensor 8. Speedometer 9. Proximitysensor 10. Organicsubstance sensor Networkingand communication: 1. Devices: 1. Wi-Fi adapter 2. Router 3. Satel RadioModem 4. FPV Camera1080p Circuit requirements: 1. Raspberrypi 2. Arduinoboard 3. ARM microcontroller Software: 1. Platform: RaspberryPi 2. OS: Linux 3. Language:C and Python
  • 6. Approach: This project has been divided into three interdependent phases where phase 1 includes all the necessary research associated with rover, phase2 concentrates on developing the rover and phase 3 for the testing and fixing encountered problems. Tasks under these phases are distributed in the following manner: Phase Focus Task Completion date Status Phase 1 1. Wheel Tire 1. Tire listcollection 02-12-15 Complete 2. Tire researchand selection 04-12-15 Complete 3. Technical detail submission 07-12-15 Complete 4. Discussionand finalities 08-12-15 Complete 2. MobilitySystem 1. Mobilitysystem list collection 03-12-15 Complete 2. Researchandselection 05-12-15 Complete 3. Discussionandplanning 06-12-15 Complete 4. Technical detail submission 10-12-15 Complete 3. Motors 1. Motor listcollection 04-12-15 Complete 2. Researchandselection 08-12-15 Complete 3. Wheel-motorintegration planning 10-12-15 Complete 4. Discussion 11-12-15 Complete 5. Technical detail submission 14-12-15 Complete 4. Mobilitysystem- bodyintegration 1. Research(includingbalance betweentwo wheel carriers and body) 11-12-15 Complete 2. Technical detail submission 13-12-15 Complete 3. Discussionandfinalities 14-12-15 Complete 5. Main body 1. Researchof internal circuits,devicesand associatedbodyparts 15-12-15 Complete 2. Properplanningaccording to researchand technical detail submission 18-12-15 Complete 3. Discussionandfinalities 19-12-15 Complete 6. RoboticArm 1. Robotichand’slist collection 17-12-15 Complete 2. Researchandselection 19-12-15 Complete 3. Robotichand-body integration 21-12-15 Complete 4. Discussionandplanning 22-12-15 Complete 5. Technical detail submission 24-12-15 Complete
  • 7. 7. Sensors 1. Researchof tasks associatedwithsensors 26-12-15 Complete 2. Collectionof listof required sensors 28-12-15 Complete 3. Discussionandplanning 29-12-15 Complete 4. Technical detail submission 01-01-16 Complete 8. Networkingand communication 1. Gatheringrequirements 03-01-16 Complete 2. Researchonpossible devicesandselection 08-01-16 Complete 3. Discussionandplanning 10-01-16 Complete 4. Technical detail submission 12-01-16 Complete Phase 2 9. Internal Circuit planning 1. Divisionof different independentunits 2. Understandingand planningthese units’target 3. Researchof integrationand intercommunicationamong these units 4. Productionof workplan(if requiredforproject, includingteamdivision) 5. Work plansubmission 10. CircuitDesign 1. RoboticArm 2. Wheel control 3. Networking 4. Sensors 11. Software 1. OS research 2. Software requirement collection 3. Integrationwithdevices and sensors 4. Projectplanning 5. Developmentof algorithms 6. Software development 7. Bug fixingandtesting 8. Implementingsoftware Phase 3 12. FieldTesting 1. Science Cache Task 2. AstronautAssistance 3. EquipmentServicingTask 4. TerrainTraversingTask 5. Testingall associatedtasks Potential application: Specificapplicationonreliable,sustainable andcosteffective space exploration withroverassistance. Reference: 1. URC Official Website- http://urc.marssociety.org/home/requirements-guidelines 2. Protocase Inc.- http://www.protocase.com/,http://urc.marssociety.org/home/resources