OPOLES (Objective & Positional Oriented Laser Engagement System)
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Transcript OPOLES (Objective & Positional Oriented Laser Engagement System)
OPOLES
(Objective & Positional Oriented
Laser Engagement System)
Objective
To create a highly modular base laser
tag system.
A feature rich system
Expands on the functionality of the current
systems
Systems Diagram
Optical Receiver
GPS
Expandable User
I/O
(Optional)
CPU
Primary User
I/O
Memory
Optical Transmitter
RF Link
GPS
Global Positioning System
Standalone chip that streams the chips location.
To Be used for:
Projectile Calculations
○ Ballistics
○ Blast Damage
Player Tracking
Interactive Game Play Features:
○ Positional Respawn
○ Capture/Reach Location
○ Hunt Player (Radar-ish)
GPS Block
DSP/Micro
Main board
Antenna
GPS Chip
RF Link
Radio Frequency Communication.
To Be Used For:
Upload Game Rules
Real Time Scoring
Player Tracking
○ For display to observers
○ For Game Play Options (hunt player, captured flag
location, ect.)
RF Block
DSP/Micro
Main board
Antenna
Transceiver
Optical Transmitter
Transmit point to point line of sight data.
Used For:
Shooting target
Transferring upgrades (health, ammo)
Other optical communications
○ Set game options in Compatibility modes.
Optical Receiver
Receive Optically transmitted signals.
Used For:
Receiving shots from enemies.
Receiving point to point upgrades (health, ammo,
ect.)
Other optical communications
○ Set game options in Compatibility modes.
Optical Block
Receivers
(40KHz and 56KHz)
Optical Transmitter
(40KHz and 56KHz)
Main Board
Memory
Provide storage for:
Software
○ Compatibility modes
Miles, Fragtag, WOW, LTTO
○ Game types
Capture the Location
Free For All
Player Hunting
ect.
Game Data
Player Data
Primary I/O
Display (LCD/OLED/ect)
Trigger
Force Feedback
Controls (Keypad/Buttons)
Used for navigating software features.
Team color selecting LEDs
Tell a player which sensors are active
Tell players which team a player is aligned.
Other game specific options
Secondary I/O
Future Upgrades
Ammo, Health, Engineering Boxes
Secondary weapons (Pistols, grenade
programing)
ect.
Budget
Component
Estimated
Low Price
Estimated
High Price
Likely Range
Microprocessor/
Microcontroller/
FPGA
$0.58 (8bit
Pic)
$150 (High
speed Z80)
$3-$20
DSP/Micro for
GPS
$3
$300
$3-$20
GPS Chip
$30
$60
$30-$60
RF Link
Transceiver
$10
$40
$10-$40
Optical
$100
$300
$40-$100
DSP/Micro for RF
Link
$10
$50
$10-$30
$200
$45-$150
Power/connectors/ $30
casing/misc.
Safety
Low voltage/ Low current system will be
fairly harmless to users.
Low power IR light is harmless.
You can’t prove that RF signals are
harmful so HAH!
Common sense.
Schedule
Risks
Unable to get parts.
Price of adding feature is too expensive.
Complexity of feature is too hard to
implement in a semester time frame.
Scheduling issues.
Contingency
Modular system eliminates need some
compatibility issues since we will have a
communication protocol for between
components.
Modular system we can drop a module
without having to completely redesign our
system.
If a system can’t be implemented to
complexity we can remove that module for
the time being.
SVN software/email/weekly meetings.
Who and What
John:
Jen-Yuan:
Main board
Power supply
Communications
Circuit Modeling
TJ:
Richard:
RF link
Coding
GPS
Documentation
Questions ??