Difference between revisions of "F24: Ball Balancing Game"

Revision as of 08:43, 20 December 2024

1 Ball Balancing Game
2 Abstract
3 Objectives & Introduction
- 3.1 Technical Responsibilities
4 Schedule
5 Bill of Materials (General Parts)
6 Overall Design
7 RGB LED Matrix
8 Joystick and Buttons
9 Mp3 Decoder
10 Game Logic
11 Testing & Technical Challenges
- 11.1 Bug/Issue Name
12 Conclusion
- 12.1 Project Video
- 12.2 Project Source Code
13 References

Ball Balancing Game

Start Screen

Game Play

End Screen

Abstract

The project aims to create an interactive game where players balance a physical ball on a table by manipulating its tilt with a joystick. The setup involves servo motors that adjust the table's angle in response to joystick movements, striving to prevent the ball from rolling off the edges. The game's interface features an LED matrix display that visualizes the ball's real-time position and provides dynamic feedback through score tracking, a game timer, and animations for various game states such as winning or losing.

Key components include a joystick module, servo motors, and an LED matrix display, alongside a ball, tilt platform, power supply, and a resistive touch screen for enhanced interaction. The system is powered by an SJ2 microcontroller, which coordinates the input from the joystick and the output to the servo motors, ensuring responsive and precise control. This setup challenges players with increasing levels of difficulty, marked by heightened joystick sensitivity.

Objectives & Introduction

Technical Responsibilities

Technical Roles
Game Logic Development	Faaris Khilji, Chaitanya Battula, Sneha Odugoudar
LED Display Driver	Sneha Odugoudar
Joystick Controller Driver	Faaris Khilji
MP3 Decoder	Sneha Odugoudar
Resitive Table Driver	Chaitanya Battula
Hardware Integration	Faaris Khilji

Schedule

Week#	Start Date	End Date	Task	Status
1	10/21/2024	10/27/2024	Complete Research and order all parts. Create overall system design documents and divide project tasks. Create GitLab repository for project	Completed Completed Completed
2	10/28/2024	11/03/2024	Physical Platform and Servo Control: Completed servo driver, design proposal for table/platform. Joystick Driver & Touch Pad Driver: Completed Joystick Driver and understanding of how to get started with a touchpad. LED Matrix: Present to team quick rundown of how the LED matrix works. How is it programmed? How to control LEDs?	Completed
3	11/04/2024	11/10/2024	Physical Platform and Servo Control: Progress towards assembly of platform. Joystick Driver & Touch Pad Driver: Completed touchpad driver. LED Matrix: LED Matrix basics working.	Completed
4	11/11/2024	11/17/2024	Physical Platform and Servo Control: Continue assembly of platform. LED Matrix: Progress in LED Matrix control. Displaying basic strings and charecters. Physically integrate touch pad/joystick to table.	Completed
5	11/18/2024	11/24/2024	Physical Platform and Servo Control: Assembly complete. LED Matrix: Progress in LED Matrix - displaying the position of the coordinates of ball on resistive table. Physically integrate resistive pad and joystick to table.	Completed
6	11/25/2024	12/01/2024	Physical Platform and Servo Control: Testing and final adjustments. LED Matrix: Display a visualization of the table and a ball on the table. (Ball position to later come from touch pad task ). Physically integrate resistive pad , joystick to table.	Completed
7	12/02/2024	12/08/2024	Full integration of project (build complete). Testing and verification. Fix bugs/stabilize physical build if necessary.	Completed
8	12/09/2024	12/18/2024	Full integration of project (build complete). Stablizing the LED Matrix Fix bugs stabilize physical build if necessary. Present Project.	Completed

Bill of Materials (General Parts)

Resistive Pad Power Module and Dc female power jack

Part Name	Part Model & Source	Quantity	Cost Per Unit (USD)
Micro-Controller SJ2 Board	SJ2 Board (Purchased from Preet Kang)	1	50.00
RGB LED Matrix	64x32 RGB LED Matrix Panel	1	71.70
64x32 RGB LED Matrix Panel	1
Power Module and Dc female power jack	64x32 RGB LED Matrix Panel	1
Power Supply	Universal AC/DC Adapter 3V ~ 12V	1
Servo Motors	IDC Socket Male	1	0.3
Steel Balls (5 pack)	HC-05 Bluetooth	2	10
MP3 Decoder	HC-05 Bluetooth	2	10
Analog Joystick	Analog 2 Axis x-y Thumb Joystick	1	6

Overall Design

Hardware Design

LED Matrix Rear

Hardware Interface

LED Matrix Display: 13 GPIO channel on SJ2 (1)
Joystick connection: 2 ADC channel on SJ2 (1)
Bluetooth sender connection: 1 set UART, RX and TX on SJ2 (1)
Bluetooth receiver connection: 1 set UART, RX and TX on SJ2 (2)
MP3 Decoder connection: SPI communication, MOSI, CS, SCK, on SJ2 (2)
Speaker connection: AUX cord

Software Design

LED Matrix:
- 1. Initialized LED matrix connected pins to board IOs.
- 2. Designed matrix driver for screen display by reading an matrix.

Joystick:
- 1. Initialized 2 ADC channels for taking the x reading and y reading from joystick.
- 2. Decoded voltage readings into joystick movement commands.

Buttons:
- 1. Initialized several gpio for taking binary command from button pressed.
- 2. Enabled interrupts for each botton pressed.

Mp3 Player:
- 1. Initialize using UART3.
- 2. Set device with selected sd card and volume.

Implementation

LED Matrix driver functions:
- 1. display_update: reload matrix display for refreshing the changes from the backend matrix.
- 2. display_clear: erase all matrix values, and sets them to zeros.
- 3. overwrite_pattern_to_screen: overite a given pattern onto the existing matrix
- 4. append_pattern_to_screen: append a given pattern onto the existing matrix
- 5. clear_pattern_on_screen: clear the pattern from screen by giving the pattern's current location and width and height.

Joystick driver:
- 1. joystick_running: run ADC capture on joystick continuesly to monitor user inputs.

Buttons driver:
- 1. Green button: starts a game, shots a missile, and start the game all over.

Mp3 Player:
- 1. Play a song.
- 2. Play a song in single cycle.
- 3. Play a song from a folder.
- 4. Pause on play.
- 5. Resume playback.

RGB LED Matrix

Hardware Design

Below are symbol and footprint for custom component-part in EasyEDA tool. These parts would be used in future PCB design.

LED Matrix and SJ2 Board Connections Schematics

LED Matrix and SJ2 Board Connections PCB

Hardware Interface

The 32x64 LED matrix is from Adafruit, with user mannual. It is composed of two upper and lower sectional LED pannels. Each pannel has R, G, B led channels and A, B, C, and D row control registers. Addtionally, column shift is controlled by Latch bit, clock is controled by CLK, and OE turns LED off when switching rows.

Connectivity Table LED Matrix to Sj2 Board:

RGB LED Matrix	Pin Description	SJ2 Board
R1	GPIO	P1_14
G1	GPIO	P4_29
B1	GPIO	P0_7
R2	GPIO	P0_9
G2	GPIO	P0_25
B2	GPIO	P1_30
A	GPIO	P1_23
B	GPIO	P1_29
C	GPIO	P2_4
D	GPIO	P2_6
CLK	GPIO	P2_8
LAT	GPIO	P0_17
OE	GPIO	P0_16
VCC	5VIN	External Power Supply
GND	GND	On Board

LED Matrix Front

LED Matrix Rear

Software Design

LED matrix io and driver is developed for communication between boards and LED matrix. IO driver consists of pin inialization by using gpio.h for each rgb channels, row selection register, CLK, LAT, and OE pins. By using "led_matrix_io.h" developers can using public function led_matrix_io_init and other basic controller functions.
For LED matrix driver, it is based on the previous IO driver to provide LED screen update, clean, init, and draw functionalities.

Implementation

Rtos Tasks:

Updating Display: for display to continuously updating screen, a task is assigned for running the display_update function from the driver every 500 milliseconds.

Joystick and Buttons

Hardware Interface and Connections

Connectivity Table LED Matrix to Sj2 Board:

Joystick	Pin Description	SJ2 Board
Vcc	Voltage	+3.3V
Xout	Analog X Channel	P0_25
Yout	Analog Y Channel	P1_30
Button	GPIO	P1_14
GND	GND	GND

Analog Joystick

Software Design

Joystick with voltage input produces two analog channels of outputs from the x and y axises of the joystick. Designed a driver to convert these two analog outputs and convert them into digital signals, then decoded as user movment such as move up, move down, move left, move right, move right up, move right down, move left up, and move left down.

Implementation

Rtos Tasks:

JoyStick Running: Keep recieving two channels of analog signals and decode them into agent moves corresponding to right, left, up, down, right up, right left, left up, and left down.

Mp3 Decoder

Hardware Interface and Connections

Connectivity Table Mp3 Player to Sj2 Board:

Mp3 Decoder	Pin Description	SJ2 Board
Vcc	Voltage	+3.3V
Rx	UART3	P4_28
Tx	UART3	P4_29
GND	GND	GND

Mp3 Player

Software Design

Mp3 player driver was created. It initialized UART3 and configured IO connections of RX and Tx. To send command for adust volume, play songs by number, play songs by folder name, and set play songs in cycle, please find the user manual here: mp3 player user manual

Implementation

Public Tasks:

Initialize device: Select the sd card which has songs on the player
Cycle play mode: play a song in single cycle
Pause a song
Resume playback

Game Logic

Game States

1. Start Up
2. Game Running
3. Game Over

Player Task

Game state: start up

1. Display start up screen once per starting
2. Reset game parameters

Game state: game running

1. Display player and health bar on screen
2. Capture and move player location by joystick signals
3. Check health and switch to game over state when player's health reaches zero
4. Check collision in collision mutex

Game state: game over

1. Display game over screen

Enemy Task

Game state: game running

1. Spawn enemy according to a timer for different game levels
2. Checking enemy collision in collision mutex
3. Remove collided enemy within a list of enemy objects

Button Task

Game state: start up

1. Play the back ground music in single cycle
2. If the green button is pressed, advanced to game running stage

Game state: game running

1. Play the back groud music in single cycle
2. If the green button is pressed, generate missile on screen and play a laser sound

Game state: game over

1. Play the game over music in single cycle
2. If the green button is pressed, return the state over all back to start up

Missile Task

Game state: game running

1. Check missile collision with enemy, player, and the boundary of the screen
2. Append missiles in array

Score Task

Game state: game running

1. If a missile hit an enemy, score plus two
2. If an enemy hit the bottom white line, which is our home base, score minus two
3. According to the number of score, increase enemy speed and spawn rate by a fix proportion

Testing & Technical Challenges

Most of the challenges for our project are bluetooth paring and game logic. For bluetooth to work between two boards, the configuration driver was wrote from scratch, which enable the device, and select paring bluetooth's physical address. For game logic, the problems are making sure the collision happened between mutiple objects with different moving speed.

Bug/Issue Name

Bug Number	Description	Solution
1	Two bluetooth device are not talking to each others automatically.	Used SJ2 board to configure the bluetooth through UART with AT commands
2	When a missile hit an enemy on the screen, sometimes, the missile will disapear first but not the enemy, and sometimes, the other way around.	Used mutex and pair locks to make sure when collision happened, only erase both objects by receiving both acknowledgments from enemy and missile.
3	Button debounce issue.	The button interrupt from ISR was not performing ideally. By using Preet's suggestion, a simple task of reading the button input solved this problem.
4	Player animation conflicts with moving missile.	Disabled missile generation while before playing the animation.

Conclusion

Coding a complicated Atari game on a microcontroller is a bit more complicated than we thought before starting. We went through writing our own base line driver for controlling other electronic components. Then, figured out FreeRTOS task API to move each character pixels on the led matrix. During development, we faced all different kind of issues such as button debounce, priority conflicts, parallel logic in sequential programming, and etc. In the end, we truly learned that nothing is for granted, as an embedded engineers we have to do everthing ourselves. This project can be further improved on score system and joystick movements.

Project Video

https://youtu.be/QRE9pQ7dBBg

Project Source Code

https://gitlab.com/runfeng.jiang/cmpe-244-space-invader-game/-/tree/main

References

Acknowledgement

Special thanks to Mr. Preet Kang for his lessons and detailed-documentation website on microcontrollers.

References Used

1. Mp3 user manual: https://usermanual.wiki/Pdf/Serial20MP320Player20v10120Manual.2117229468/view
2. LPC40xx_FreeRtos Github: https://gitlab.com/sjtwo-c-dev/sjtwo-c
3. Adafruit LED matrix user manual: https://learn.adafruit.com/32x16-32x32-rgb-led-matrix/

Appendix

1. LPC40xx_FreeRtos Github: https://gitlab.com/sjtwo-c-dev/sjtwo-c
2. FreeRTOS: https://www.freertos.org/a00116.html

@@ Line 36: / Line 36: @@
 * Game Logic Development
 | Faaris Khilji,
 Chaitanya Battula,
 Sneha Odugoudar
@@ Line 53: / Line 53: @@
 |-
 ! style="text-align: left;" |
-* Servo Motor and resistive Table
+* Resitive Table Driver
 | Chaitanya Battula
 |-
@@ Line 59: / Line 59: @@
 * Hardware Integration
 | Faaris Khilji
-|-
-|}
-=== Administrative Responsibilities ===
-{| class="wikitable" style="margin-left: 0px; margin-right: auto;"
-|- style="vertical-align: top;"
-! colspan="5"| Administrative Roles
-|-
-! style="text-align: left;" |
-* Team Leader
-| Ritu Patil
-|-
-! style="text-align: left;" |
-* Git Repository Managers
-| Bruce Jiang
-|-
-! style="text-align: left;" |
-* Code Reviewers
-| Phil Bloxom
-|-
-! style="text-align: left;" |
-* Wiki Report Manager
-| Bruce Jiang
-|-
-! style="text-align: left;" |
-* Bill of Materials Manager
-| Ritu Patil
 |-
 |}
@@ Line 102: / Line 74: @@
 ! scope="row"| 1
 |
-* 10/03/2022
+* 10/21/2024
 |
-* 10/8/2022
+* 10/27/2024
 |
-* Read previous projects, gather information and discuss among the group member
+* Complete Research and order all parts.
+* Create overall system design documents and divide project tasks.
 * Create GitLab repository for project
 |
+* <span style="color:green">Completed</span>
 * <span style="color:green">Completed</span>
 * <span style="color:green">Completed</span>
@@ Line 114: / Line 88: @@
 ! scope="row"| 2
 |
-*10/10/2022
+* 10/28/2024
 |
-*10/15/2022
+* 11/03/2024
 |
-*Order necessary parts
+* Physical Platform and Servo Control: Completed servo driver, design proposal for table/platform.
+* Joystick Driver & Touch Pad Driver: Completed Joystick Driver and understanding of how to get started with a touchpad.
+* LED Matrix: Present to team quick rundown of how the LED matrix works. How is it programmed? How to control LEDs?
 |
 * <span style="color:green">Completed</span>
@@ Line 124: / Line 100: @@
 ! scope="row"| 3
 |
-*10/17/2022
+* 11/04/2024
 |
-*10/22/2022
+* 11/10/2024
 |
-*Read and familiarize with LED Matrix Datasheet
+* Physical Platform and Servo Control: Progress towards assembly of platform.
+* Joystick Driver & Touch Pad Driver: Completed touchpad driver.
+* LED Matrix: LED Matrix basics working.
 |
 * <span style="color:green">Completed</span>
@@ Line 134: / Line 112: @@
 ! scope="row"| 4
 |
-* 10/31/2022
+* 11/11/2024
 |
-* 11/05/2022
+* 11/17/2024
 |
-* Develop graphics driver for LED matrix and implement initial game objects
+* Physical Platform and Servo Control: Continue assembly of platform.
-* Research how to create objects pattern for display from PNG
+* LED Matrix: Progress in LED Matrix control. Displaying basic strings and charecters.
+* Physically integrate touch pad/joystick to table.
 |
-* <span style="color:green">Completed</span>
 * <span style="color:green">Completed</span>
 |-
 ! scope="row"| 5
 |
-*11/07/2022
+* 11/18/2024
 |
-*11/12/2022
+* 11/24/2024
 |
-* Finalize wiki schedule
+* Physical Platform and Servo Control: Assembly complete.
-* Display objects on screen
+* LED Matrix: Progress in LED Matrix - displaying the position of the coordinates of ball on resistive table.
-* Develop ADC driver for joystick interfacing control dynamic movement of player spaceship
+* Physically integrate resistive pad and joystick to table.
-* Create screen scenes in 32x64 matrices
 |
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
 * <span style="color:green">Completed</span>
 |-
 ! scope="row"| 6
 |
-*11/14/2022
+* 11/25/2024
 |
-*11/19/2022
+* 12/01/2024
 |
-* Integration of circuit boards and microcontroller
+* Physical Platform and Servo Control: Testing and final adjustments.
-* Develop enemy spaceships game algorithm
+* LED Matrix: Display a visualization of the table and a ball on the table. (Ball position to later come from touch pad task ).
-* Control dynamic movement of player spaceship.
+* Physically integrate resistive pad , joystick to table.
-* Create MP3 Driver
 |
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
 * <span style="color:green">Completed</span>
 |-
 ! scope="row"| 7
 |
-* 11/21/2022
+* 12/02/2024
 |
-* 11/26/2022
+* 12/08/2024
 |
-* Integrate game logic flow from start to end
+* Full integration of project (build complete).
-* Develop missile collision and player life algorithm
+* Testing and verification.
-* Integrate game sounds with game logic
+* Fix bugs/stabilize physical build if necessary.
 |
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
 * <span style="color:green">Completed</span>
 |-
 ! scope="row"| 8
 |
-* 11/28/2022
+* 12/09/2024
-|
-* 12/03/2022
-|
-* Integrate subsystem
-* Finalizing the video game
-* Update the wiki page
-|
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
-|-
-! scope="row"| 9
-|
-* 12/05/2022
 |
-* 12/10/2022
+* 12/18/2024
 |
-* Address bugs during testing of integrated system
+* Full integration of project (build complete).
-* Test pause/play functionality
+* Stablizing the LED Matrix
+* Fix bugs stabilize physical build if necessary.
+* Present Project.
 |
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
-|-
-! scope="row"| 10
-|
-*12/11/2022
-|
-*12/11/2022
-|
-*Final Demo
-*Update Gitlab repo with final code
-*Update test video
-*Update the wiki page
-|
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
-* <span style="color:green">Completed</span>
 * <span style="color:green">Completed</span>
 |-
@@ Line 262: / Line 199: @@
 * 1
 |
-* 44.95
+* 71.70
+|-
+* Resistive Pad Power Module and Dc female  power jack
+|
+* [https://www.adafruit.com/product/2279?gclid=CjwKCAiA9qKbBhAzEiwAS4yeDYSKVkDu50XPdtCaJTeRJYj02YJb-ABAjVX1WBGGtEr2jHvQRfvufhoCA-QQAvD_BwE 64x32 RGB LED Matrix Panel]
+|
+* 1
+|
+*
+|-
+|
+* Power Module and Dc female  power jack
+|
+* [https://www.adafruit.com/product/2279?gclid=CjwKCAiA9qKbBhAzEiwAS4yeDYSKVkDu50XPdtCaJTeRJYj02YJb-ABAjVX1WBGGtEr2jHvQRfvufhoCA-QQAvD_BwE 64x32 RGB LED Matrix Panel]
+|
+* 1
+|
+*
 |-
@@ Line 272: / Line 228: @@
 * 1
 |
-* 15.98
+*
 |-
 |
-* IDC Socket Male
+* Servo Motors
 |
 * [https://www.amazon.com/gp/product/B08NB8S42K/ref=ppx_yo_dt_b_asin_title_o00_s00?ie=UTF8&psc=1 IDC Socket Male]
@@ Line 284: / Line 240: @@
 |-
 |
-* HC-05 Bluetooth
+* Steel Balls (5 pack)
+|
+* [https://www.amazon.com/DSD-TECH-HC-05-Pass-through-Communication/dp/B01G9KSAF6/ref=mp_s_a_1_3?adgrpid=57552031393&dplnkId=fa65647f-fc92-41f1-a50c-4ac9bfec67f3&gclid=Cj0KCQiAmaibBhCAARIsAKUlaKSJHxYgLW7SP5wMd94uqHWtJ7IlGGyw2zsTxZFHoU3KT5dqm0vMzJcaAjntEALw_wcB&hvadid=609115864507&hvdev=m&hvlocphy=9032166&hvnetw=g&hvqmt=e&hvrand=14587583350658056883&hvtargid=kwd-298511473808&hydadcr=20105_13388467&keywords=hc+05+bluetooth+module&nodl=1&qid=1667939624&sr=8-3 HC-05 Bluetooth]
+|
+* 2
+|
+* 10
+|-
+|
+* MP3 Decoder
 |
 * [https://www.amazon.com/DSD-TECH-HC-05-Pass-through-Communication/dp/B01G9KSAF6/ref=mp_s_a_1_3?adgrpid=57552031393&dplnkId=fa65647f-fc92-41f1-a50c-4ac9bfec67f3&gclid=Cj0KCQiAmaibBhCAARIsAKUlaKSJHxYgLW7SP5wMd94uqHWtJ7IlGGyw2zsTxZFHoU3KT5dqm0vMzJcaAjntEALw_wcB&hvadid=609115864507&hvdev=m&hvlocphy=9032166&hvnetw=g&hvqmt=e&hvrand=14587583350658056883&hvtargid=kwd-298511473808&hydadcr=20105_13388467&keywords=hc+05+bluetooth+module&nodl=1&qid=1667939624&sr=8-3 HC-05 Bluetooth]
@@ Line 376: / Line 341: @@
 | scope="row" align="center"|R1
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P2_0
+| scope="row" align="center"|P1_14
 |-
 | scope="row" align="center"|G1
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P2_2
+| scope="row" align="center"|P4_29
 |-
 | scope="row" align="center"|B1
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P2_5
+| scope="row" align="center"|P0_7
 |-
 | scope="row" align="center"|R2
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P2_1
+| scope="row" align="center"|P0_9
 |-
 | scope="row" align="center"|G2
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P2_4
+| scope="row" align="center"|P0_25
 |-
 | scope="row" align="center"|B2
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P2_6
+| scope="row" align="center"|P1_30
 |-
 | scope="row" align="center"|A
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P0_6
+| scope="row" align="center"|P1_23
 |-
 | scope="row" align="center"|B
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P0_26
+| scope="row" align="center"|P1_29
 |-
 | scope="row" align="center"|C
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P0_16
+| scope="row" align="center"|P2_4
 |-
 | scope="row" align="center"|D
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P0_22
+| scope="row" align="center"|P2_6
 |-
 | scope="row" align="center"|CLK
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P2_9
+| scope="row" align="center"|P2_8
 |-
 | scope="row" align="center"|LAT
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P1_20
+| scope="row" align="center"|P0_17
 |-
 | scope="row" align="center"|OE
 | scope="row" align="center"|GPIO
-| scope="row" align="center"|P1_28
+| scope="row" align="center"|P0_16
 |-
 | scope="row" align="center"|VCC

Difference between revisions of "F24: Ball Balancing Game"

Revision as of 08:43, 20 December 2024

Contents

Ball Balancing Game

Abstract

Objectives & Introduction

Technical Responsibilities

Schedule

Bill of Materials (General Parts)

Overall Design

Hardware Design

Hardware Interface

Software Design

Implementation

RGB LED Matrix

Hardware Design

Hardware Interface

Software Design

Implementation

Joystick and Buttons

Hardware Interface and Connections

Software Design

Implementation

Mp3 Decoder

Hardware Interface and Connections

Software Design

Implementation

Game Logic

Game States

Player Task

Enemy Task

Button Task

Missile Task

Score Task

Testing & Technical Challenges

Bug/Issue Name

Conclusion

Project Video

Project Source Code

References

Acknowledgement

References Used

Appendix

Navigation menu

Search