SlideShare a Scribd company logo
1 of 22
SELF-
 REPLICATING
 ROBOTS
BY:
n.ch.karthik
Bits col,kmm
ABSTRACT
Self reproduction is ultimate form of self repair. Self replication is
generally considered to be a machine that can build itself, and that they
can build another copy and so on. The self reproducing machines
demonstrated here are essentially modular robots, consisting of multiple
identical actuated modules with electromagnets to selectively weaken and
strengthen connections .The cubes are powered at the base and transfer
data and power through their faces. The control of machine is distributed
among the modules executes a motion schedule governed by time and
contact events. The sides also have electromagnets that enable them to
selectively attach and detach from each other. The modular robot can
thus reconfigure itself. And in each block is a small computer chip which
is programmed with step-by-step instructions about what to do. It is a
small step towards developing robots that can repair and replicate
themselves in space or hazardous environments
DEFINITION OF ROBOTICS:
Robotics is the science and technology of how
robots are made and function via electronic
and mechanical processes. It is also about
understanding the software applications that
control their movements. Robots are
essentially machines that perform tasks.
SELF REPLICATING ROBOTS:
DEFINITION:
•Self-replication is the process by which a thing may act,
and thereby make a copy of itself.
•Biological cells, given suitable environments, reproduce
by cell division. During cell division, DNA is replicated
and can be transmitted to offspring during reproduction
.. Computer viruses reproduce using the hardware and
software already present on computers.
• A self-replicating machine is, as the name suggests, an
artificial self-replicating system that relies on
conventional large-scale technology and automation.
 It is unlikely that this would all be contained within a
single monolithic structure, but would rather be a group of
cooperating machines that is capable of manufacturing all
of the machines.
The factory needs production of mining robots to collect
raw materials, construction robots to put new machines
together, and repair robots to maintain itself against wear
and tear, all without human intervention or direction.
Self-replicating machine needs the capacity to gather
energy and raw materials, process the raw materials into
finished components, and then assemble them into a copy
of itself
The advantage of such a system lies in its ability to
expand its own capacity rapidly and without additional
human effort.
Self-replicating machine needs the capacity to gather energy
and raw materials, process the raw materials into finished
components, and then assemble them into a copy of itself
 The advantage of such a system lies in its ability to expand
its own capacity rapidly and without additional human effort.
SELF REPLICATING
MACHINES REQUIRE:
•Construction materials
•Manufacture of new parts
•Consistent power source
•Programming the new members
Theory:
Research by John von Neumann established that
one common form of a replicator has several
parts:
A genome, a compact, usually error-resistant
representation of the replicator's stored
algorithm. Biologically, this is DNA.
A specialized set of mechanisms to copy and
repair the genome, using resources gathered by
the body. Biologically, this is something like
transcriptase.
A body, which gathers resources and energy,
and interprets a stored algorithm. Biologically,
these are ribosomes.
A self-reproducing computer
program

In computer science a self-reproducing
computer program is a computer program,
that, when executed, outputs its own code.
An example in the
Python programming language:
a='a=%s;print a%%`a`';print a%`a`
CLASSIFICATION OF SELF REPLICATING ROBOTS:

Recent research has begun to categorize replicators,
based on the amount of support they require.
•Natural replicators have all or most of their design
from nonhuman sources. Such systems include natural
life forms.
•Autotrophic replicators can reproduce themselves "in
the wild". They mine their own materials. It is
conjectured that non-biological autotrophic replicators
could be designed by humans, and could easily accept
specifications for human products.
•Self-reproductive systems are conjectured systems
which would produce copies of themselves from
industrial feedstocks such as metal bar and wire.
•Self-assembling systems are assemble copies of
themselves from finished, delivered parts.
Design consideration
The design phase of the replicators is very broad. A
comprehensive study to date has identified 137 design
dimensions grouped into a dozen separate categories,
including: (1) Replication Control, (2) Replication
Information, (3) Replication Substrate, (4) Replicator
Structure, (5) Passive Parts, (6) Active Subunits, (7)
Replicator Energetics, (8) Replicator Kinematics, (9)
Replication Process, (10) Replicator Performance,
(11) Product Structure, and (12) Evolvability.
Construction:
A self replicating robot which has been developed
recently contains a series of modular cubes called
"molecubes" each containing identical machinery
and the complete computer program for replication.
•The cubes have electromagnets on their faces that
allow them to selectively attach to and detach from
one another, and a complete robot consists of several
cubes linked together.

•Each cube is divided in half along a long diagonal,
which allows a robot composed of many cubes to
bend, reconfigure and manipulate other cubes. For
example, a tower of cubes can bend itself over at a
right angle to pick up another cube.
Base plate that supplies energy to cubes.
WORKING PRINCIPLE:
 Replication starts with , the stack of cubes bending over and
  sets its top cube


 Then it bends to one side or another to pick up a
  new cube and deposit it on top of the first

By repeating the process, one robot made up of a stack of
       cubes can create another just like itself. Since one
robot cannot reach across another robot of the same height,
the robot being built assists in completing its own
construction.
APPLICATIONS OF THE SELF
       REPLICATING ROBOTS
   Terrestrial Applications: An Intelligent Earth-Sensing
    Information System
    A new primitive cell state in the system to permit signals to
    cross without interference called "wire-crossing" organ can be
    devised using only the self replicating cell types
   Studies of the flow of excitation in heart tissue, the dispersal of
    medicinal drugs, and pattern recognition
    Cell spaces also have been investigated as abstract
    mathematical objects where one tries to determine whether
    from every mathematical pattern all other patterns can be
    attained, and whether there are some patterns not attainable
    at all by means of the transition function, and various other
    specialized questions.
CONCLUSION
   Self-reproduction is the ultimate form of self-
    repair. We see that robotic systems are becoming
    more complex, and in some cases like space
    exploration, they need to sustain operation for
    long periods of time without human assistance.
   If you send a robot to Mars, for example, and it
    breaks, there is little you can do. But if instead of
    sending a fixed robot you send a robot with a
    supply of modules, then that robot may be able to
    self-repair and even make more and possibly
    different robots if the mission needs change
    unexpectedly.
selfrelfecting robotos
selfrelfecting robotos

More Related Content

What's hot

Swarms Robots and their applications
Swarms Robots and their applicationsSwarms Robots and their applications
Swarms Robots and their applicationsIOSRjournaljce
 
Swarm intelligence
Swarm intelligenceSwarm intelligence
Swarm intelligenceEslam Hamed
 
Swarm Intelligence - An Introduction
Swarm Intelligence - An IntroductionSwarm Intelligence - An Introduction
Swarm Intelligence - An IntroductionRohit Bhat
 
Swarm intelligence
Swarm intelligenceSwarm intelligence
Swarm intelligenceSophia
 
Communication in Swarm Robotics
Communication in Swarm RoboticsCommunication in Swarm Robotics
Communication in Swarm RoboticsAnuradhika Pilli
 
Jyotishkar dey roll 36.(swarm intelligence)
Jyotishkar dey roll  36.(swarm intelligence)Jyotishkar dey roll  36.(swarm intelligence)
Jyotishkar dey roll 36.(swarm intelligence)Jyotishkar Dey
 
Swarm Intelligence State of the Art
Swarm Intelligence State of the ArtSwarm Intelligence State of the Art
Swarm Intelligence State of the ArtMarek Kopel
 

What's hot (12)

Swarm Intelligence
Swarm IntelligenceSwarm Intelligence
Swarm Intelligence
 
Swarms Robots and their applications
Swarms Robots and their applicationsSwarms Robots and their applications
Swarms Robots and their applications
 
Swarm intelligence
Swarm intelligenceSwarm intelligence
Swarm intelligence
 
Final-Report
Final-ReportFinal-Report
Final-Report
 
Swarm Intelligence - An Introduction
Swarm Intelligence - An IntroductionSwarm Intelligence - An Introduction
Swarm Intelligence - An Introduction
 
Swarm intelligence
Swarm intelligenceSwarm intelligence
Swarm intelligence
 
Communication in Swarm Robotics
Communication in Swarm RoboticsCommunication in Swarm Robotics
Communication in Swarm Robotics
 
Jyotishkar dey roll 36.(swarm intelligence)
Jyotishkar dey roll  36.(swarm intelligence)Jyotishkar dey roll  36.(swarm intelligence)
Jyotishkar dey roll 36.(swarm intelligence)
 
Raja abstract
Raja abstractRaja abstract
Raja abstract
 
Robotics with mems
Robotics with memsRobotics with mems
Robotics with mems
 
Swarm Intelligence State of the Art
Swarm Intelligence State of the ArtSwarm Intelligence State of the Art
Swarm Intelligence State of the Art
 
Academic Course: 06 Morphogenetic Engineering
Academic Course: 06 Morphogenetic EngineeringAcademic Course: 06 Morphogenetic Engineering
Academic Course: 06 Morphogenetic Engineering
 

Viewers also liked

Network Robots - Abhijeet
Network Robots - AbhijeetNetwork Robots - Abhijeet
Network Robots - AbhijeetAbhijeet Kalsi
 
Self-reconfigurable robots
Self-reconfigurable robotsSelf-reconfigurable robots
Self-reconfigurable robotselliando dias
 
The ATRON Self-reconfigurable Robot
The ATRON Self-reconfigurable RobotThe ATRON Self-reconfigurable Robot
The ATRON Self-reconfigurable Robotelliando dias
 
m blocks self assembling robots
m blocks self assembling robotsm blocks self assembling robots
m blocks self assembling robotsSURMEET GILL
 
Configurable Robots
Configurable RobotsConfigurable Robots
Configurable RobotsAUSTIN MOSES
 
Self-Reconfigurable Robot - A Platform of Evolutionary Robotics
Self-Reconfigurable Robot - A Platform of Evolutionary RoboticsSelf-Reconfigurable Robot - A Platform of Evolutionary Robotics
Self-Reconfigurable Robot - A Platform of Evolutionary Roboticselliando dias
 
Self re-configuring modular ROBOT
Self re-configuring modular ROBOTSelf re-configuring modular ROBOT
Self re-configuring modular ROBOTVijay Gowda
 
M-Blocks: A New Invention in Modular Robots
M-Blocks: A New Invention in Modular RobotsM-Blocks: A New Invention in Modular Robots
M-Blocks: A New Invention in Modular Robotsnirmal304
 
UX, ethnography and possibilities: for Libraries, Museums and Archives
UX, ethnography and possibilities: for Libraries, Museums and ArchivesUX, ethnography and possibilities: for Libraries, Museums and Archives
UX, ethnography and possibilities: for Libraries, Museums and ArchivesNed Potter
 

Viewers also liked (13)

Network Robots - Abhijeet
Network Robots - AbhijeetNetwork Robots - Abhijeet
Network Robots - Abhijeet
 
Self-reconfigurable robots
Self-reconfigurable robotsSelf-reconfigurable robots
Self-reconfigurable robots
 
The ATRON Self-reconfigurable Robot
The ATRON Self-reconfigurable RobotThe ATRON Self-reconfigurable Robot
The ATRON Self-reconfigurable Robot
 
m blocks self assembling robots
m blocks self assembling robotsm blocks self assembling robots
m blocks self assembling robots
 
Configurable Robots
Configurable RobotsConfigurable Robots
Configurable Robots
 
Self-Reconfigurable Robot - A Platform of Evolutionary Robotics
Self-Reconfigurable Robot - A Platform of Evolutionary RoboticsSelf-Reconfigurable Robot - A Platform of Evolutionary Robotics
Self-Reconfigurable Robot - A Platform of Evolutionary Robotics
 
Self re-configuring modular ROBOT
Self re-configuring modular ROBOTSelf re-configuring modular ROBOT
Self re-configuring modular ROBOT
 
Self healing robots
Self healing robotsSelf healing robots
Self healing robots
 
Nanorobotics
NanoroboticsNanorobotics
Nanorobotics
 
M-Blocks: A New Invention in Modular Robots
M-Blocks: A New Invention in Modular RobotsM-Blocks: A New Invention in Modular Robots
M-Blocks: A New Invention in Modular Robots
 
Robotics project ppt
Robotics project pptRobotics project ppt
Robotics project ppt
 
UX, ethnography and possibilities: for Libraries, Museums and Archives
UX, ethnography and possibilities: for Libraries, Museums and ArchivesUX, ethnography and possibilities: for Libraries, Museums and Archives
UX, ethnography and possibilities: for Libraries, Museums and Archives
 
Build Features, Not Apps
Build Features, Not AppsBuild Features, Not Apps
Build Features, Not Apps
 

Similar to selfrelfecting robotos

Similar to selfrelfecting robotos (20)

Electromechanical Self Reproduction
Electromechanical Self ReproductionElectromechanical Self Reproduction
Electromechanical Self Reproduction
 
Evolutionary Robotics
Evolutionary RoboticsEvolutionary Robotics
Evolutionary Robotics
 
Robots and Technology
Robots and TechnologyRobots and Technology
Robots and Technology
 
Robotic
RoboticRobotic
Robotic
 
Robotics technology
Robotics technologyRobotics technology
Robotics technology
 
Robotics ppt
Robotics pptRobotics ppt
Robotics ppt
 
Robotics
Robotics Robotics
Robotics
 
Vinod Robotics
Vinod RoboticsVinod Robotics
Vinod Robotics
 
Robotics- Naved
Robotics- NavedRobotics- Naved
Robotics- Naved
 
IJERTV3IS21046
IJERTV3IS21046IJERTV3IS21046
IJERTV3IS21046
 
nanorobotics-131105005807-phpapp02.pdf
nanorobotics-131105005807-phpapp02.pdfnanorobotics-131105005807-phpapp02.pdf
nanorobotics-131105005807-phpapp02.pdf
 
Emerging trends in robotics using neural network
Emerging trends in robotics using neural networkEmerging trends in robotics using neural network
Emerging trends in robotics using neural network
 
Modbots
ModbotsModbots
Modbots
 
Metamorphic Robots
Metamorphic RobotsMetamorphic Robots
Metamorphic Robots
 
Robotics
RoboticsRobotics
Robotics
 
Nano-Robotics Technology
Nano-Robotics TechnologyNano-Robotics Technology
Nano-Robotics Technology
 
Space robotics
Space roboticsSpace robotics
Space robotics
 
Ai robotics
Ai roboticsAi robotics
Ai robotics
 
Nanorobotics
NanoroboticsNanorobotics
Nanorobotics
 
Robotics
RoboticsRobotics
Robotics
 

More from N.CH Karthik

Hawk eye technology
Hawk eye technologyHawk eye technology
Hawk eye technologyN.CH Karthik
 
zigbee technology
zigbee technology zigbee technology
zigbee technology N.CH Karthik
 
digital image processing
digital image processingdigital image processing
digital image processingN.CH Karthik
 
ONLINE-CD STORES..........I HOPE HELP FULL TO OTHERS
ONLINE-CD STORES..........I HOPE HELP FULL TO OTHERSONLINE-CD STORES..........I HOPE HELP FULL TO OTHERS
ONLINE-CD STORES..........I HOPE HELP FULL TO OTHERSN.CH Karthik
 
Time managementpresentation1 ppt2
Time managementpresentation1 ppt2Time managementpresentation1 ppt2
Time managementpresentation1 ppt2N.CH Karthik
 

More from N.CH Karthik (12)

KARTHIK.MBAPRJ
KARTHIK.MBAPRJKARTHIK.MBAPRJ
KARTHIK.MBAPRJ
 
kats.ppt
kats.pptkats.ppt
kats.ppt
 
karthiknch
karthiknchkarthiknch
karthiknch
 
Karthik.ppt
Karthik.pptKarthik.ppt
Karthik.ppt
 
Main document
Main documentMain document
Main document
 
Hawk eye technology
Hawk eye technologyHawk eye technology
Hawk eye technology
 
zigbee technology
zigbee technology zigbee technology
zigbee technology
 
Digital.cc
Digital.ccDigital.cc
Digital.cc
 
digital image processing
digital image processingdigital image processing
digital image processing
 
ONLINE-CD STORES..........I HOPE HELP FULL TO OTHERS
ONLINE-CD STORES..........I HOPE HELP FULL TO OTHERSONLINE-CD STORES..........I HOPE HELP FULL TO OTHERS
ONLINE-CD STORES..........I HOPE HELP FULL TO OTHERS
 
Time managementpresentation1 ppt2
Time managementpresentation1 ppt2Time managementpresentation1 ppt2
Time managementpresentation1 ppt2
 
4 g ppt
4 g ppt4 g ppt
4 g ppt
 

selfrelfecting robotos

  • 2. ABSTRACT Self reproduction is ultimate form of self repair. Self replication is generally considered to be a machine that can build itself, and that they can build another copy and so on. The self reproducing machines demonstrated here are essentially modular robots, consisting of multiple identical actuated modules with electromagnets to selectively weaken and strengthen connections .The cubes are powered at the base and transfer data and power through their faces. The control of machine is distributed among the modules executes a motion schedule governed by time and contact events. The sides also have electromagnets that enable them to selectively attach and detach from each other. The modular robot can thus reconfigure itself. And in each block is a small computer chip which is programmed with step-by-step instructions about what to do. It is a small step towards developing robots that can repair and replicate themselves in space or hazardous environments
  • 3. DEFINITION OF ROBOTICS: Robotics is the science and technology of how robots are made and function via electronic and mechanical processes. It is also about understanding the software applications that control their movements. Robots are essentially machines that perform tasks.
  • 4. SELF REPLICATING ROBOTS: DEFINITION: •Self-replication is the process by which a thing may act, and thereby make a copy of itself. •Biological cells, given suitable environments, reproduce by cell division. During cell division, DNA is replicated and can be transmitted to offspring during reproduction .. Computer viruses reproduce using the hardware and software already present on computers. • A self-replicating machine is, as the name suggests, an artificial self-replicating system that relies on conventional large-scale technology and automation.
  • 5.  It is unlikely that this would all be contained within a single monolithic structure, but would rather be a group of cooperating machines that is capable of manufacturing all of the machines. The factory needs production of mining robots to collect raw materials, construction robots to put new machines together, and repair robots to maintain itself against wear and tear, all without human intervention or direction. Self-replicating machine needs the capacity to gather energy and raw materials, process the raw materials into finished components, and then assemble them into a copy of itself The advantage of such a system lies in its ability to expand its own capacity rapidly and without additional human effort.
  • 6. Self-replicating machine needs the capacity to gather energy and raw materials, process the raw materials into finished components, and then assemble them into a copy of itself  The advantage of such a system lies in its ability to expand its own capacity rapidly and without additional human effort.
  • 7. SELF REPLICATING MACHINES REQUIRE: •Construction materials •Manufacture of new parts •Consistent power source •Programming the new members
  • 8. Theory: Research by John von Neumann established that one common form of a replicator has several parts: A genome, a compact, usually error-resistant representation of the replicator's stored algorithm. Biologically, this is DNA. A specialized set of mechanisms to copy and repair the genome, using resources gathered by the body. Biologically, this is something like transcriptase. A body, which gathers resources and energy, and interprets a stored algorithm. Biologically, these are ribosomes.
  • 9. A self-reproducing computer program In computer science a self-reproducing computer program is a computer program, that, when executed, outputs its own code. An example in the Python programming language: a='a=%s;print a%%`a`';print a%`a`
  • 10. CLASSIFICATION OF SELF REPLICATING ROBOTS: Recent research has begun to categorize replicators, based on the amount of support they require. •Natural replicators have all or most of their design from nonhuman sources. Such systems include natural life forms. •Autotrophic replicators can reproduce themselves "in the wild". They mine their own materials. It is conjectured that non-biological autotrophic replicators could be designed by humans, and could easily accept specifications for human products. •Self-reproductive systems are conjectured systems which would produce copies of themselves from industrial feedstocks such as metal bar and wire. •Self-assembling systems are assemble copies of themselves from finished, delivered parts.
  • 11. Design consideration The design phase of the replicators is very broad. A comprehensive study to date has identified 137 design dimensions grouped into a dozen separate categories, including: (1) Replication Control, (2) Replication Information, (3) Replication Substrate, (4) Replicator Structure, (5) Passive Parts, (6) Active Subunits, (7) Replicator Energetics, (8) Replicator Kinematics, (9) Replication Process, (10) Replicator Performance, (11) Product Structure, and (12) Evolvability.
  • 12. Construction: A self replicating robot which has been developed recently contains a series of modular cubes called "molecubes" each containing identical machinery and the complete computer program for replication.
  • 13. •The cubes have electromagnets on their faces that allow them to selectively attach to and detach from one another, and a complete robot consists of several cubes linked together. •Each cube is divided in half along a long diagonal, which allows a robot composed of many cubes to bend, reconfigure and manipulate other cubes. For example, a tower of cubes can bend itself over at a right angle to pick up another cube.
  • 14.
  • 15.
  • 16. Base plate that supplies energy to cubes.
  • 17. WORKING PRINCIPLE:  Replication starts with , the stack of cubes bending over and sets its top cube  Then it bends to one side or another to pick up a new cube and deposit it on top of the first By repeating the process, one robot made up of a stack of cubes can create another just like itself. Since one robot cannot reach across another robot of the same height, the robot being built assists in completing its own construction.
  • 18.
  • 19. APPLICATIONS OF THE SELF REPLICATING ROBOTS  Terrestrial Applications: An Intelligent Earth-Sensing Information System  A new primitive cell state in the system to permit signals to cross without interference called "wire-crossing" organ can be devised using only the self replicating cell types  Studies of the flow of excitation in heart tissue, the dispersal of medicinal drugs, and pattern recognition  Cell spaces also have been investigated as abstract mathematical objects where one tries to determine whether from every mathematical pattern all other patterns can be attained, and whether there are some patterns not attainable at all by means of the transition function, and various other specialized questions.
  • 20. CONCLUSION  Self-reproduction is the ultimate form of self- repair. We see that robotic systems are becoming more complex, and in some cases like space exploration, they need to sustain operation for long periods of time without human assistance.  If you send a robot to Mars, for example, and it breaks, there is little you can do. But if instead of sending a fixed robot you send a robot with a supply of modules, then that robot may be able to self-repair and even make more and possibly different robots if the mission needs change unexpectedly.