mems based gesture control

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GESTURE BASED GLOVE FOR MULTIPLE APPLICATIONS
PRESENTED BY NATA RAJU G
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CONTENT

• The Genesis

• Challenge
• Proposed system

• Tech. Background

• Working Procedure
• Pictorial Representation
• Advantages
• Applications
• Conclusion

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CHALLENGE

• To create a multi-tasking device that should be
  user friendly even for physically handicapped
  people.
• To create a device that should be helpful for
  the people who are dumb, in their daily life.
• To create a robotic device which can be
  controlled by using gestures unlike a traditional
  remote controlled device.
• To increase the level of comfort.

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PROPOSED SYSTEM
AIM OF THE PROJECT

• To create a single Glove which is useful for
  multiple applications using the hand gestures
  (wireless).
• The different applications that we are going to
  implement here are
• Controlling a robot
• Controlling the home appliances
• Voice enabled communicator
• To design the above mentioned futuristic device,
  we are opting for MEMS(Micro Electro Mechanical
  Sensor) Technology.

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TECHNOLOGY BACKGROUND

• In detail description of
• Block Diagram
• Power Supply
• Micro controller (PIC16F877A)
• MEMS (MMA7260Q)
• RF Transmitter and Receiver
• Voice Circuit (APR9600)

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TRANSMITTER SECTION
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RECEIVER SECTION
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• Power Supply

Step Down Transformer
Bridge Rectifier
Filter Circuit
Regulator Section
Power supply to All sections
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RF Transmitter circuit

• 433.92 MHz Frequency
• Low Cost
• 1.5-12V operation
• 11mA current consumption at 3V
• Small size
• 4 dBm output power at 3V

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RF Receiver circuit

• Low Cost
• 5V operation
• 3.5mA current drain
• No External Parts are required
• Receiver Frequency 433.92 MHZ
• Typical sensitivity -105dBm
• IF Frequency 1MHz

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MEMS

• Micro-Electro-Mechanical accelerometer Sensor
  (MEMS) is the integration of mechanical elements,
  sensors, actuators, and electronics on a common
  silicon substrate through micro fabrication
  technology.
• An accelerometer measures acceleration (change
  in speed) of anything that it's mounted on.
• Three-axis accelerometers measure acceleration in
  three directions.
• The MEMS we use in our project is MMA7260Q.

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Applications of MEMS

• MEMS-based sensors are a crucial component in
  automotive electronics, medical equipment, smart
  portable electronics such as cell phones.
• PDAs, and hard disk drives, computer peripherals,
  and wireless devices.
• These sensors began in the automotive industry
  especially for crash detection in airbag systems.

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VOICE CIRCUIT
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WORKING PROCEDURE At Transmitter End(Voice
Output)
WELCOME TO THE PROJECT
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WORKING PROCEDURE At Receiver End
INPUTS
OUTPUTS

1. DEVICE 1
2. DEVICE 2
3. SHUTDOWN
4. WATER
5. MEDICINE
6. ROBO MODE

1. ON/OFF
2. ON/OFF
3. TURN OFF
4. I need water
5. I need medicine
6. ROBO movement

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PICTORIAL REPRESENTATION
Transmitter section
Voice circuit
RF transmitter
PIC16F877A
Speaker
Triac
Transformer
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Receiver Section
Top View
Speaker
Voice Circuit
PIC16F877A
RF Receiver
LM 293D
Side View
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ADVANTAGES

• Easy to operate
• Low power consumption
• User friendly
• Single equipment multiple applications
• When extended further in the hardware section
  ,numerous applications can be added
• One can able to control ones slave robots just
  by hand gestures by this technology.

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APPLICATIONS

• Plays a major role in helping deaf and dumb
  people in their daily life.
• Can be used as an assistance for physically
  challenged people.
• Military applications
• Geographic excavations
• General purpose device for better living
• Useful for Animal Planet, Discovery people for
  their studies on animals by playing different
  sounds for their exploration.

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FUTURE SCOPE

• Adding Zigbee Module
• Adding GPRS and GPS
• Adding Video Camera for live streaming
• Connecting Bomb detector or metal detector
• Adding Temperature Sensor

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REFERENCES

• www.wikipedia.com
• www.allaboutcircuits.com
• www.microchip.com
• www.howstuffworks.com
• And various websites

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