virtual imaging peripheral for enhanced reality

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Virtual Imaging Peripheral for Enhanced Reality Aaron Garrett, Ryan Hannah, Justin Huffaker, Brendon McCool

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Virtual Imaging Peripheral for Enhanced Reality. Aaron Garrett, Ryan Hannah, Justin Huffaker , Brendon McCool. Abstract. - PowerPoint PPT Presentation

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Page 1: Virtual Imaging Peripheral for Enhanced Reality

Virtual Imaging Peripheral for Enhanced Reality

Aaron Garrett, Ryan Hannah, Justin Huffaker, Brendon McCool

Page 2: Virtual Imaging Peripheral for Enhanced Reality

AbstractOur project, code named Virtual

Imaging Peripheral for Enhanced Reality or VIPER, is an augmented/virtual reality system. It will track a user’s head location and perspective and use this information to find the location of a camera position in a virtual environment. With a pair of video glasses the user would then see the virtual environment at the cameras location. As the user moves around a table top sized environment their actual and virtual perspective changes, allowing them different viewing angles of the virtual space.

Page 3: Virtual Imaging Peripheral for Enhanced Reality

Project-Specific Success Criteria1. The ability to communicate time stamp data

using RF between the base unit and head unit.2. The ability to display images to the video

glasses.3. The ability to calculate estimate of angle and

position of head unit using accelerometer, gyroscope, and compass.

4. An ability to find angle displacement of head relative to IR beacon origin using glasses mounted camera.

5. An ability to find distance from base to head unit using ultrasonic emitter and receiver.

Page 4: Virtual Imaging Peripheral for Enhanced Reality

BlockDiagram

Page 5: Virtual Imaging Peripheral for Enhanced Reality

Layout Considerations- Head Unit Proper position and mounting of sensors Camera underside pads and distance to

microcontroller Crystal isolation Xbee placement Ultrasonic receiver placement and distance to

microcontroller Switch for use when requesting higher

current.

Page 6: Virtual Imaging Peripheral for Enhanced Reality

Head Unit Preliminary Layout

Page 7: Virtual Imaging Peripheral for Enhanced Reality

Proper Position and Mounting of Sensors

Magnetometer

Gyroscope

Page 8: Virtual Imaging Peripheral for Enhanced Reality

Proper Position and Mounting of Sensors

Accelerometer

Page 9: Virtual Imaging Peripheral for Enhanced Reality

Camera Underside Pads and Placement

CMOS Camera

Page 10: Virtual Imaging Peripheral for Enhanced Reality

Camera Underside Pads and Placement

CMOS Camera

Page 11: Virtual Imaging Peripheral for Enhanced Reality

Crystal Isolation

32.768 KHz

18.432 MHz

8 MHz

Page 12: Virtual Imaging Peripheral for Enhanced Reality

XBee Placement

XBee Module

Page 13: Virtual Imaging Peripheral for Enhanced Reality

Ultrasonic Placement and Distance

Ultrasonic Receiver and Amplifier

Page 14: Virtual Imaging Peripheral for Enhanced Reality

Ultrasonic Placement and Distance

Ultrasonic Receiver and Amplifier

Page 15: Virtual Imaging Peripheral for Enhanced Reality

Switch for Current Request

Switch

Page 16: Virtual Imaging Peripheral for Enhanced Reality

Layout Considerations- Base Unit XBee placement 12 V line regulator Ground Isolation Crystal Isolation

Page 17: Virtual Imaging Peripheral for Enhanced Reality

Base Unit Preliminary Layout

Page 18: Virtual Imaging Peripheral for Enhanced Reality

XBee Placement

XBee Module

Page 19: Virtual Imaging Peripheral for Enhanced Reality

12 V Line

12 V DC In

Page 20: Virtual Imaging Peripheral for Enhanced Reality

12 V Line

Regulated to 3.3V

Page 21: Virtual Imaging Peripheral for Enhanced Reality

Ground Isolation

Analog Circuit

Digital Circuit

Page 22: Virtual Imaging Peripheral for Enhanced Reality

Crystal Isolation

8 MHz

Page 23: Virtual Imaging Peripheral for Enhanced Reality

Questions