LT3965 - 8-Switch Matrix LED Dimmer
Features
- Eight Independent 17V 330mΩ NMOS Switches
- Independent On/Off/Dimming Control of 1 to 4 LEDs for Each Switch
- I2C Multidrop Serial Interface with Programmable Open LED and Shorted LED Fault Reporting
- 16 Unique I2C Addresses
- VDD Range: 2.7V to 5.5V and VIN Range: 8V to 60V
- Digital Programmable 256:1 PWM Dimming
- Fade Transition Between PWM Dimming States
- Optional Internal Clock Generator or External Clock Source for PWM Dimming
- Open LED Overvoltage Protection
- Flicker Free PWM Dimming
Typical Application
Description
The LT®3965 is an LED bypass switching device for dimming individual LEDs in a string using a common current source. It features eight individually controlled floating source 17V/330mΩ NMOS switches. The eight switches can be connected in parallel and/or in series to bypass current around one or more LEDs in a string. The LT3965 uses the I2C serial interface to communicate with the microcontroller. Each of the eight channels can be independently programmed to bypass the LED string in constant on or off, or PWM dimming with or without fade transition. Using the fade option provides 11-bit resolution logarithmic transition between PWM dimming states. The LT3965 provides an internal clock generator and also supports external clock source for PWM dimming. The LT3965 reports fault conditions for each channel such as open LED and shorted LED. The four address select pins allow 16 LT3965 devices to share the I2C bus. The device is available in a 28-lead TSSOP package.
Packaging
CAD Symbols and Footprints: The downloadable Zip file below contains the schematic symbol and PCB footprints.
For complete and up to date package information and drawings, please refer to our packaging page
| Part Number | Package | Code | Temp | Package Drawing |
RoHS |
|---|---|---|---|---|---|
| LT3965EFE#PBF | TSSOP-28 | FE | E | 05-08-1663 (EA) | Yes |
| LT3965EFE#TRPBF | TSSOP-28 | FE | E | 05-08-1663 (EA) | Yes |
| LT3965IFE#PBF | TSSOP-28 | FE | I | 05-08-1663 (EA) | Yes |
| LT3965IFE#TRPBF | TSSOP-28 | FE | I | 05-08-1663 (EA) | Yes |
Order Info
- Part numbers ending in PBF are lead free. Solder plated terminal finish (SnPb) versions are non-standard and special terms and conditions and pricing applies if available. Please contact LTC marketing for information.
- Part numbers containing TR or TRM are shipped in tape and reel or 500 unit mini tape and reel, respectively
- Please refer to our general ordering information or the product datasheet for more details
Package Variations and Pricing
| Part Number | Package | Temp | Price (1-99) |
Price (1k)* |
RoHS | |
|---|---|---|---|---|---|---|
| LT3965EFE#PBF | TSSOP-28 | E | $5.64 | $3.95 | Yes | |
| LT3965EFE#TRPBF | TSSOP-28 | E | $5.70 | $4.01 | Yes | |
| LT3965IFE#PBF | TSSOP-28 | I | $6.22 | $4.35 | Yes | |
| LT3965IFE#TRPBF | TSSOP-28 | I | $6.28 | $4.41 | Yes | |
| Buy Now • Request Samples | ||||||
Demo Boards
Linear Technology offers many demo boards free of charge to qualified customers. Contact your local sales office or distributor to inquire about a demo board. Certain demo boards are also available for sale via credit card on this website. Demo boards are for evaluation purposes only. It remains the customer’s responsibility to verify proper and reliable operation in the actual end application.| Part Number | Description | Price | Documentation |
|---|---|---|---|
| DC2218A | LT3965EFE/LT3797 Demo Board | 2-String Buck LED Driver with Matrix LED Dimmer; 9V ≤ VIN ≤ 30V, Up to 30VLED @ 500mA (8 LEDs/String) | $599.00 | |
| Buy Now | |||
Applications
- Automotive LED Headlight Clusters
- Large LED Displays
- Automated Camera Flash Equipment
- RGBW Color Mixing Lighting
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Product Notifications
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Design Tools
Linduino
Linduino is an Arduino compatible platform for developing and distributing firmware libraries and code for SPI and I²C-compatible integrated circuits. The Linduino One board interfaces to more than 300 QuikEval demonstration cards, supporting a variety of product types including analog-to-digital converters (ADCs), digital-to-analog converters (DACs), power monitors, and more. Firmware libraries for individual devices are written in C and designed to be portable to a wide variety of processors and microcontrollers. Each library has a demonstration program that can be uploaded to the Linduino One platform to allow the circuit and software to be quickly and easily verified.
Code
Linduino is Linear Technology's Arduino compatible system for developing and distributing firmware libraries and example code for Linear Technology’s integrated circuits. The code below can be downloaded or copied and pasted into your project. Please visit the Linduino Home Page for demo board, manual and setup information.
This part is Code Supported: There is example code available for this part. The code below may rely on other drivers available in the full library.
/*!
Linear Technology DC2218A Demonstration Board.
LT3965 - 8-Switch Matrix LED Dimmer
@verbatim
Setup:
Follow the procedure below:
1. Set the PATTERN SELECT rotary switch S1 to any position between 0 and 6.
Position 7 is reserved for use with the GUI (graphical user interface).
2. Connect 12V power to either the EMIVIN and GND banana jacks or to the
J7 2.1mm (inside diameter) barrel jack.
3. Observe the red LED indicator light (D32). When it begins flashing,
then the board is ready to start up.
4. When the red LED (D32) is flashing, push the Start button S3.
5. Observe the LED patterns and adjust the speed, brightness and pattern of
the LEDs with the manual blue potentiometer R14.
6. Change the Pattern Select rotary switch to positions 0-6 to observe
different patterns.
7. Press the Reset button S2 to start over again.
USER INPUT DATA FORMAT:
decimal : 1024
hex : 0x400
octal : 02000 (leading 0 "zero")
binary : B10000000000
float : 1024.0
@endverbatim
http://www.linear.com/product/LT3965
http://www.linear.com/product/LT3965#demoboards
REVISION HISTORY
$Revision: 4641 $
$Date: 2016-01-29 14:38:11 -0800 (Fri, 29 Jan 2016) $
Copyright (c) 2013, Linear Technology Corp.(LTC)
All rights reserved.
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are met:
1. Redistributions of source code must retain the above copyright notice, this
list of conditions and the following disclaimer.
2. Redistributions in binary form must reproduce the above copyright notice,
this list of conditions and the following disclaimer in the documentation
and/or other materials provided with the distribution.
THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND
ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR
ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
(INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
The views and conclusions contained in the software and documentation are those
of the authors and should not be interpreted as representing official policies,
either expressed or implied, of Linear Technology Corp.
The Linear Technology Linduino is not affiliated with the official Arduino team.
However, the Linduino is only possible because of the Arduino team's commitment
to the open-source community. Please, visit http://www.arduino.cc and
http://store.arduino.cc , and consider a purchase that will help fund their
ongoing work.
*/
/*! @file
@ingroup LT3965
*/
#include <stdio.h>
#include "Linduino.h"
#include "LT_I2C.h"
#include "LT3965.h"
//******************Function Declarations******************
//******************Display Pattern Functions******************
void fadewave();
void analog();
void sidebend();
void sidebendAuto();
void dazzle();
void pulse();
void wave();
void steeringRightAndLeft();
void sectionalBlanking();
void orbit();
void GraphicUI();
int readpot();
void setThresh();
uint8_t updown;
int lastread;
int currentread;
//Setup message bytes
int16_t An2, An1, An0;
uint8_t inputByte_0;
uint8_t inputByte_1;
uint8_t inputByte_2;
uint8_t inputByte_3;
uint8_t inputByte_4;
uint8_t input;
uint8_t fade;
int set = 0;
uint8_t values[4];
bool startsequence = FALSE;
uint8_t startup = 0;
long interval = 250;
long previousTime = 0;
uint8_t ledState;
// Setup the hardware I2C interface.
// LT3965_i2c_enable or quikeval_I2C_init must be called before using any of the other I2C routines.
void LT3965_i2c_enable()
{
TWSR = (HARDWARE_I2C_PRESCALER_1 & 0x03); //! 1) set the prescaler bits
TWBR = 12; //! 2) set the bit rate
}
//! Initialize Linduino
void setup()
{
int8_t ack = 0; // I2C acknowledge bit
pinMode(REDLED, OUTPUT);
pinMode(LOADPIN, OUTPUT);
pinMode(BUTTONPIN, INPUT);
pinMode(PWMPIN, OUTPUT);
pinMode(ALERTPIN, INPUT);
digitalWrite(REDLED, HIGH);
digitalWrite(PWMPIN, LOW); // Pull pwm pin on LT3797 low to turn on with LEDs in OFF state
digitalWrite(LOADPIN, HIGH);
analogReference(EXTERNAL); // Set analog reference voltage to voltage sensed on AREF pin
currentread = analogRead(A3);
digitalWrite(PWMPIN, LOW);
lastread = currentread;
updown = DOWN;
delay(50);
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
if (!(An0 > 120 && An1 > 120 && An2 > 120))
{
int alertStatus = digitalRead(ALERTPIN);
while (alertStatus)
{
alertStatus = digitalRead(ALERTPIN);
}
}
LT3965_i2c_enable(); // Enable the I2C port
quikeval_I2C_connect(); // Connect I2C to main data port
delay(50);
// Change Open-Circuit Threshold to 4.5V and turn all LEDs ON; ADDRESS1
ack |= i2c_scwriteshort(address1, CHANNEL0, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL1, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL2, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL3, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL4, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL5, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL6, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL7, 0b0000);
// Change Open-Circuit Threshold to 4.5V and turn all LEDs ON; ADDRESS2
ack |= i2c_scwriteshort(address2, CHANNEL0, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL1, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL2, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL3, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL4, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL5, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL6, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL7, 0b0000);
// Change Short-Circuit Threshold to 1V and turn all LEDs ON; ADDRESS1
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, 1);
// Change Short-Circuit Threshold to 1V and turn all LEDs ON; ADDRESS2
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, 1);
delay(50);
if (!(An0 > 120 && An1 > 120 && An2 > 120))
{
// require a push-button press before doing anything. LED will blink until button is pressed, then stay illuminated.
while (digitalRead(BUTTONPIN))
{
unsigned long currentTime = millis();
if (currentTime - previousTime > interval)
{
previousTime = currentTime;
ledState = ! ledState;
digitalWrite(REDLED, ledState);
}
}
}
digitalWrite(REDLED, LOW);
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
}
//! Repeats Linduino loop
void loop()
{
int8_t ack = 0; // I2C acknowledge bit
int switch_pos; // New switch possition
int prev_switch_pos; // Previous swicth position
// require two consecutive switch readings, 50ms apart, before choosing a pattern.
do
{
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
prev_switch_pos = switch_pos;
//Interpret 3 bits from 8 position switch as decimal integer
if (An0 > 120 && An1 < 120 && An2 < 120)
switch_pos = 1;
else if (An0 < 120 && An1 > 120 && An2 < 120)
switch_pos = 2;
else if (An0 > 120 && An1 > 120 && An2 < 120)
switch_pos = 3;
else if (An0 < 120 && An1 < 120 && An2 > 120)
switch_pos = 4;
else if (An0 > 120 && An1 < 120 && An2 > 120)
switch_pos = 5;
else if (An0 < 120 && An1 > 120 && An2 > 120)
switch_pos = 6;
else if (An0 > 120 && An1 > 120 && An2 > 120)
switch_pos = 7;
else
switch_pos = 0;
delay(50);
}
while (prev_switch_pos != switch_pos);
// Call function associated with corresponding switch position value
switch (switch_pos)
{
case 0:
orbit();
break;
case 1:
wave(); // Select a DAC to update
break;
case 2:
steeringRightAndLeft(); // Select a DAC to update
break;
case 3:
sectionalBlanking(); // Select a DAC to update
break;
case 4:
sidebend(); // Select a DAC to update
break;
case 5:
analog(); // Select a DAC to update
break;
case 6:
fadewave(); // Select a DAC to update
break;
case 7:
GraphicUI(); // Select a DAC to update
break;
}
}
//! Function to write I2C bytes which are received from GUI.
int8_t write_bytes(uint8_t size, uint8_t byte1, uint8_t byte2, uint8_t byte3)
{
int8_t ret = 0 ;
uint8_t data[3];
if (i2c_start() != 0) //I2C START
return (1); //Stop and return 0 if START fail
if (size == 2)
{
ret |= i2c_write(byte1);
ret |= i2c_write(byte2);
}
else if (size == 3)
{
ret |= i2c_write(byte1);
ret |= i2c_write(byte2);
ret |= i2c_write(byte3);
}
else if (size == 1)
{
ret |= i2c_write(byte1);
}
i2c_stop(); //I2C STOP
if (ret != 0) //Returns 1 if failed
return (1);
return (0); //Returns 0 if success
}
//! Function to read I2C bytes depending on the bytes received from GUI.
int8_t read_bytes(uint8_t size, uint8_t byte1, uint8_t byte2, uint8_t byte3)
{
int8_t ret = 0 ;
if (size == 250 && byte1 == 1 && byte2 == 1 && byte3 == 1) // ALERT - ACMODE READ
{
uint8_t fault;
fault = 1;
fault = digitalRead(2); // digital pin2 is connected to ALERT/
if (!fault) // fault condition
Serial.write(0);
else
Serial.write(1);
}
else
{
uint8_t x;
if (i2c_start() != 0) //I2C START
return (1); //Stop and return 0 if START fail
// write byte1 and read size number of bytes
ret |= i2c_write(byte1);
if (ret == 0) // If response = ACK (slave responded)
{
for (x = 0; x < (size - 1); ++x)
{
Serial.write(i2c_read(WITH_ACK));
}
Serial.write(i2c_read(WITH_NACK));
}
else // If response = NACK (no slave responded
{
for (x = 0; x < size; ++x)
{
Serial.write(0); // The GUI is waiting to read back bytes, sending dummy bytes
}
}
i2c_stop(); //I2C STOP
}
if (ret != 0) //Returns 1 if failed
return (1);
return (0); //Returns 0 if success
}
//! Function to talk to GUI.
void GraphicUI() // DO NOT EDIT THIS FUNCTION
{
int8_t ack = 0; // I2C acknowledge bit
uint8_t data_SCMREG;
uint8_t brightness;
uint8_t channel;
uint8_t x = 0;
int toggle = 255;
uint8_t values[3];
uint8_t ARA;
char read_id;
setThresh();
Serial.begin(115200); // Initialize the serial port to the PC at baud rate of 115200 bps
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
while (An0 > 120 && An1 > 120 && An2 > 120)
{
if (Serial.available() > 0)
{
inputByte_0 = Serial.read();
delay(10);
if (inputByte_0 == 'i') // Making Quikeval compatible
{
Serial.print("USBSPI,PIC,01,01,DC,DC590,----------------------\r\n");
}
else if (inputByte_0 == 'I') // Making Quikeval compatible
{
Serial.print("LT3965,Cls,D3965,01,01,DC,DC2218A,--------------\r\n");
}
else if (inputByte_0 == 16)
{
inputByte_1 = Serial.read();
delay(10);
inputByte_2 = Serial.read();
delay(10);
inputByte_3 = Serial.read();
delay(10);
inputByte_4 = Serial.read();
delay(10);
//Detect Command type
if (inputByte_1 == 128)
{
Serial.print("HELLO FROM ARDUINO");
ack |= i2c_scwriteshort(address1, CHANNEL0, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL1, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL2, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL3, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL4, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL5, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL6, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL7, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL0, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL1, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL2, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL3, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL4, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL5, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL6, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL7, 0b0000);
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, 0);
ack |= i2c_acwrite(address1, 0b00000000);
ack |= i2c_acwrite(address2, 0b00000000);
startsequence = TRUE;
delay(50);
digitalWrite(PWMPIN, HIGH);
delay(50);
digitalWrite(LOADPIN, LOW);
delay(10);
}
else
{
write_bytes(inputByte_1, inputByte_2, inputByte_3, inputByte_4);
}
}
else if (inputByte_0 == 17)
{
inputByte_1 = Serial.read();
delay(10);
inputByte_2 = Serial.read();
delay(10);
inputByte_3 = Serial.read();
delay(10);
inputByte_4 = Serial.read();
delay(10);
read_bytes(inputByte_1, inputByte_2, inputByte_3, inputByte_4);
}
}
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
}
}
//! Func Desc: All LEDs illuminated to the same brightness level depending on potentiometer value.
void analogAuto()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
uint8_t i;
int j;
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
int analog_in = readpot(); // Read value of potentiometer
while (An0 > 120 && An1 < 120 && An2 > 120)
{
if (!startsequence)
{
ack |= i2c_acwrite(address1, 0);
ack |= i2c_acwrite(address2, 0);
delay(10);
digitalWrite(PWMPIN, HIGH);
delay(10);
startsequence = TRUE;
}
for (j = 0; j <= 511; j++)
{
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
analog_in = readpot();
if (j > 255)
i = 511 - j;
else
i = j;
if (i < 1)
{
ack |= i2c_acwrite(address1, 0b00000000);
ack |= i2c_acwrite(address2, 0b00000000);
}
else if (i > 254)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0001, i);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, i);
}
delay(5);
if (i < 1)
delay(500);
if (i == 255)
delay(500);
}
}
}
//! All sixteen LEDs adjust PWM dimming duty cycle and brightness based upon
//! the position of the steering wheel (interactive potentiometer). This pattern
//! represents a light that bends around the side of a car, projecting a
//! turning headlight pattern that is linked to the steering wheel.
void sidebendAuto()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
int ch[8];
int i;
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
int analog_in;
while (An0 < 120 && An1 < 120 && An2 > 120)
{
if (!startsequence)
{
ack |= i2c_acwrite(address1, 0);
ack |= i2c_acwrite(address2, 0);
delay(10);
digitalWrite(PWMPIN, HIGH);
delay(10);
startsequence = TRUE;
}
for (int a = 0; a < 3; a++)
{
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
int increment = 5;
int analogStart = 400;
int analogMax = 530;
if (a == 2)
{
analogMax = 650;
increment = 8;
}
delay(500);
for (analog_in = analogStart; analog_in > analogStart - 1; analog_in += increment)
{
delay(25);
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
ch[0] = (analog_in) - 425;
ch[1] = (analog_in) - 450;
ch[2] = (analog_in) - 475;
ch[3] = (analog_in) - 500;
ch[4] = (analog_in) - 525;
ch[5] = (analog_in) - 550;
ch[6] = (analog_in) - 575;
ch[7] = (analog_in) - 600;
for (i = 0; i < 8; i++)
{
if (ch[i] < 0)
ch[i] = 0;
else if (ch[i] > 255)
ch[i] = 255;
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
}
if (ch[0] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[0]);
}
else if (ch[0] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0001, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0001, ch[0]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[0]);
}
if (ch[1] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
}
else if (ch[1] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0001, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0001, ch[1]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
}
if (ch[2] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[2]);
}
else if (ch[2] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0001, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0001, ch[2]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[2]);
}
if (ch[3] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[3]);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
}
else if (ch[3] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0001, ch[3]);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0001, ch[3]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[3]);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
}
if (ch[4] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[4]);
}
else if (ch[4] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0001, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0001, ch[4]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[4]);
}
if (ch[5] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
}
else if (ch[5] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0001, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0001, ch[5]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
}
if (ch[6] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[6]);
}
else if (ch[6] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0001, ch[6]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0001, ch[6]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[6]);
}
if (ch[7] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[7]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
}
else if (ch[7] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0001, ch[7]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0001, ch[7]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[7]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
}
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
if (analog_in >= analogMax)
{
delay(250);
increment *= -1;
}
}
}
}
}
//! Consecutive LEDs alternate fading up and down. Speed of fading controlled by
//! the position of the potentiometer.
void dazzle()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
int8_t bright = -127;
uint8_t brightness;
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
int analog_in = analogRead(A3); // Read value of potentiometer
while ( An0 > 120 && An1 < 120 && An2 < 120)
{
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
analog_in = analogRead(A3); // Read value of potentiometer
brightness = abs(bright) * 2;
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, brightness); // Single channel write command to control a single LED
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, brightness);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, brightness);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, brightness);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, brightness);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, brightness);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, brightness);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, brightness);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, 255 - brightness);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, 255 - brightness);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, 255 - brightness);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, 255 - brightness);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, 255 - brightness);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, 255 - brightness);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, 255 - brightness);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, 255 - brightness);
delay(analog_in / 20);
bright = bright + 2;
if (bright >= 127)
bright = -127;
}
}
//! Center headlight LEDs stay on to face directly forward while the right and
//! left side LEDs turn on with brightness proportional to the amount that the
//! steering wheel (interactive potentiometer) is turned.
void steeringRightAndLeft()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
int ch[6]; // only need 8 channels - four right and four left
int i;
uint8_t j = 0;
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
int analog_in = analogRead(A3); // Read value of potentiometer
while (An0 < 120 && An1 > 120 && An2 < 120)
{
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
analog_in = analogRead(A3); // Read value of potentiometer
ch[0] = 250 - (analog_in);
ch[1] = 325 - (analog_in);
ch[2] = 400 - (analog_in);
ch[3] = (analog_in) - 650;
ch[4] = (analog_in) - 725;
ch[5] = (analog_in) - 800;
// calculate right and left bending lights update
for (i = 0; i < 6; i++)
{
if (ch[i] < 0)
ch[i] = 0;
else if (ch[i] > 255)
ch[i] = 255;
}
if (!startsequence)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, 1);
delay(500);
digitalWrite(PWMPIN, HIGH);
delay(10);
digitalWrite(LOADPIN, LOW);
delay(10);
while (j < 255)
{
if (ch[0] >= j)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[0]);
}
if (ch[1] >= j)
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
}
if (ch[2] >= j)
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[2]);
}
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
if (ch[3] >= j)
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[3]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[3]);
}
if (ch[4] >= j)
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[4]);
}
if (ch[5] >= j)
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[5]);
}
j++;
delay(8);
}
// delay(2500);
startsequence = TRUE;
}
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0001, 255);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0001, 255);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0001, 255);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0001, 255);
// write to right and left bending lights update
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[2]);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[3]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[3]);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[5]);
}
}
//! All LEDs are illluminated to full brightness simulating a car
//! with its high-beams turned on. Two LEDs will turn off creating
//! a blank zone. This pattern shows how segments of a high-beam
//! LED cluster can be turned off to avoid blinding oncomming traffic.
void sectionalBlanking()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
uint8_t j = 0;
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
int analog_in = analogRead(A3); // Read value of potentiometer
if (!startsequence) // Checks if start-up sequence has already been run to fade LEDs on
{
while (j < 255)
{
if (j < 1)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, j);
digitalWrite(PWMPIN, HIGH);
delay(10);
digitalWrite(LOADPIN, LOW);
delay(10);
}
else if (j >= 254)
{
if (analog_in <= 146)
{
// Swtich OFF LED5 and LED8 of BOARD1
ack |= i2c_acwrite(address1, 0b11110110);
ack |= i2c_acwrite(address2, 0b11111111);
}
else if (analog_in > 146 && analog_in <= 292)
{
// Swtich OFF LED5 and LED4 of BOARD1
ack |= i2c_acwrite(address1, 0b11100111);
ack |= i2c_acwrite(address2, 0b11111111);
}
else if (analog_in > 292 && analog_in <= 438)
{
// Swtich OFF LED4 and LED1 of BOARD1
ack |= i2c_acwrite(address1, 0b01101111);
ack |= i2c_acwrite(address2, 0b11111111);
}
else if (analog_in > 438 && analog_in <= 584)
{
// Swtich OFF LED1 of BOARD1 and LED8 of BOARD2
ack |= i2c_acwrite(address1, 0b01111111);
ack |= i2c_acwrite(address2, 0b11111110);
}
else if (analog_in > 584 && analog_in <= 730)
{
// Swtich OFF LED8 and LED5 of BOARD2
ack |= i2c_acwrite(address1, 0b11111111);
ack |= i2c_acwrite(address2, 0b11110110);
}
else if (analog_in > 730 && analog_in <= 876)
{
// Swtich OFF LED5 and LED4 of BOARD2
ack |= i2c_acwrite(address1, 0b11111111);
ack |= i2c_acwrite(address2, 0b11100111);
}
else
{
// Swtich OFF LED4 and LED1 of BOARD2
ack |= i2c_acwrite(address1, 0b11111111);
ack |= i2c_acwrite(address2, 0b01101111);
}
startsequence = TRUE;
}
else
{
if (analog_in <= 146)
{
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
}
else if (analog_in > 146 && analog_in <= 292)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
}
else if (analog_in > 292 && analog_in <= 438)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
}
else if (analog_in > 438 && analog_in <= 584)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
}
else if (analog_in > 584 && analog_in <= 730)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
}
else if (analog_in > 730 && analog_in <= 876)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
}
}
delay(2);
j++;
}
}
while (An0 > 120 && An1 > 120 && An2 < 120)
{
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
analog_in = analogRead(A3);
if (analog_in <= 146)
{
// Swtich OFF LED5 and LED8 of BOARD1
ack |= i2c_acwrite(address1, 0b11110110);
ack |= i2c_acwrite(address2, 0b11111111);
}
else if (analog_in > 146 && analog_in <= 292)
{
// Swtich OFF LED5 and LED4 of BOARD1
ack |= i2c_acwrite(address1, 0b11100111);
ack |= i2c_acwrite(address2, 0b11111111);
}
else if (analog_in > 292 && analog_in <= 438)
{
// Swtich OFF LED4 and LED1 of BOARD1
ack |= i2c_acwrite(address1, 0b01101111);
ack |= i2c_acwrite(address2, 0b11111111);
}
else if (analog_in > 438 && analog_in <= 584)
{
// Swtich OFF LED1 of BOARD1 and LED8 of BOARD2
ack |= i2c_acwrite(address1, 0b01111111);
ack |= i2c_acwrite(address2, 0b11111110);
}
else if (analog_in > 584 && analog_in <= 730)
{
// Swtich OFF LED8 and LED5 of BOARD2
ack |= i2c_acwrite(address1, 0b11111111);
ack |= i2c_acwrite(address2, 0b11110110);
}
else if (analog_in > 730 && analog_in <= 876)
{
// Swtich OFF LED5 and LED4 of BOARD2
ack |= i2c_acwrite(address1, 0b11111111);
ack |= i2c_acwrite(address2, 0b11100111);
}
else
{
// Swtich OFF LED4 and LED1 of BOARD2
ack |= i2c_acwrite(address1, 0b11111111);
ack |= i2c_acwrite(address2, 0b01101111);
}
}
}
//! Func Desc: Varying number of brightened LEDs depending on pot
void sidebend()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
int ch[8];
int i;
uint8_t j = 0;
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
int analog_in = readpot(); // Read value of potentiometer
while (An0 < 120 && An1 < 120 && An2 > 120)
{
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
analog_in = 1023 - readpot();
ch[0] = (analog_in) - 425;
ch[1] = (analog_in) - 450;
ch[2] = (analog_in) - 475;
ch[3] = (analog_in) - 500;
ch[4] = (analog_in) - 525;
ch[5] = (analog_in) - 550;
ch[6] = (analog_in) - 575;
ch[7] = (analog_in) - 600;
for (i = 0; i < 8; i++)
{
if (ch[i] < 0)
ch[i] = 0;
else if (ch[i] > 255)
ch[i] = 255;
}
if (!startsequence)
{
if (ch[0] <= 0)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, 1);
}
if (ch[1] <= 0)
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, 1);
}
if (ch[2] <= 0)
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, 1);
}
if (ch[3] <= 0)
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, 1);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, 1);
}
if (ch[4] <= 0)
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, 1);
}
if (ch[5] <= 0)
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, 1);
}
if (ch[6] <= 0)
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, 1);
}
if (ch[7] <= 0)
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, 0);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, 1);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, 1);
}
delay(500);
digitalWrite(PWMPIN, HIGH);
delay(10);
digitalWrite(LOADPIN, LOW);
delay(10);
while (j < 255)
{
if ((ch[0] >= j) && (ch[0] > 0))
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
}
if ((ch[1] >= j) && (ch[1] > 0))
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, j);
}
if ((ch[2] >= j) && (ch[2] > 0))
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
}
if ((ch[3] >= j) && (ch[3] > 0))
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
}
if ((ch[4] >= j) && (ch[4] > 0))
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
}
if ((ch[5] >= j) && (ch[5] > 0))
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, j);
}
if ((ch[6] >= j) && (ch[6] > 0))
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
}
if ((ch[7] >= j) && (ch[7] > 0))
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
}
j++;
delay(8);
}
startsequence = TRUE;
}
if (ch[0] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[0]);
}
else if (ch[0] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0001, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0001, ch[0]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[0]);
}
if (ch[1] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
}
else if (ch[1] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0001, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0001, ch[1]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[1]);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
}
if (ch[2] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[2]);
}
else if (ch[2] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0001, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0001, ch[2]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[2]);
}
if (ch[3] == 0)
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[3]);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
}
else if (ch[3] == 255)
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0001, ch[3]);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0001, ch[3]);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[3]);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
}
if (ch[4] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[4]);
}
else if (ch[4] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0001, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0001, ch[4]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[4]);
}
if (ch[5] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
}
else if (ch[5] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0001, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0001, ch[5]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[5]);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
}
if (ch[6] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[6]);
}
else if (ch[6] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0001, ch[6]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0001, ch[6]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[6]);
}
if (ch[7] == 0)
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[7]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
}
else if (ch[7] == 255)
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0001, ch[7]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0001, ch[7]);
}
else
{
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[7]);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
}
}
}
//! Func Desc: All LEDs lighted up to the same level depending on pot value.
void analog()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
uint8_t i;
uint8_t j = 0;
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
int analog_in = readpot(); // Read value of potentiometer
if (!startsequence) // Checks if start-up sequence has already been run to fade LEDs on
{
analog_in = 1023 - readpot();
i = analog_in / 4;
while (j <= i)
{
if (j < 1)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, j);
digitalWrite(PWMPIN, HIGH);
delay(10);
digitalWrite(LOADPIN, LOW);
delay(10);
}
else if (j > 254)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0001, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0001, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0001, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0001, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0001, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0001, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0001, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0001, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0001, j);
startsequence = TRUE;
break;
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, j);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, j);
if (j == i)
{
startsequence = TRUE;
break;
}
}
delay(2);
j++;
}
}
while (An0 > 120 && An1 < 120 && An2 > 120)
{
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
analog_in = 1023 - readpot();
i = analog_in / 4;
// i = 128;
if (i < 1)
{
ack |= i2c_acwrite(address1, 0b00000000);
ack |= i2c_acwrite(address2, 0b00000000);
}
else if (i > 254)
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0001, i);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0001, i);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0001, i);
}
else
{
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, i);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, i);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, i);
}
}
}
//! LEDs illuminate around the outside of the board, giving the effect of
//! a comet with a tail traveling around the board. The traveling speed of
//! the comet is controlled by the posititon of the potentiometer. The
//! pattern will continue running after the pattern select switch is changed
//! from this position until the orbit() function has completed its pattern.
void orbit()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
uint8_t i, j, k, l;
int up_down = 1; //1 = up, 0 = down, 2 = startup wait, 3 = wait
int delay_var = 5;
uint8_t ch[16] = {0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0}; ; //channel count variables
int ud[16] = {1, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2}; //count up or down variables; 1 = up, 0 = down, 2 = wait
int waitcount[16]; // wait count for unusued LEDs
int analog_in = analogRead(A3); // Read value of potentiometer
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
waitcount[0] = 0;
waitcount[1] = 15;
waitcount[2] = 14;
waitcount[3] = 13;
waitcount[4] = 12;
waitcount[5] = 11;
waitcount[6] = 10;
waitcount[7] = 9;
waitcount[8] = 8;
waitcount[9] = 7;
waitcount[10] = 6;
waitcount[11] = 5;
waitcount[12] = 4;
waitcount[13] = 3;
waitcount[14] = 2;
waitcount[15] = 1;
// start with this brightness
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, 0);
delay(50);
if (!startsequence)
{
digitalWrite(PWMPIN, HIGH);
delay(50);
digitalWrite(LOADPIN, LOW);
delay(10);
startsequence = TRUE;
}
delay(500);
for (j = 0; j < 64; j++)
{
for (i = 0; i <= 9 ; i++)
{
for (k = 0; k <= 15; k++)
{
if (ud[k] == 1)
ch[k] = ch[k] + 25;
else if (ud[k] == 0)
ch[k] = ch[k] - 5;
else
ch[k] = ch[k];
}
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
analog_in = analogRead(A3);
delay (analog_in / 24);
}
// check to see if up, down, or wait and increment or change
for (l = 0; l <= 15; l++)
{
if (ud[l] == 1 && ch[l] >= 250)
{
ud[l] = 0;
waitcount[l]++;
}
else if (ud[l] == 2)
{
if (waitcount[l] >= 15)
{
ud[l] = 1;
waitcount[l] = 0;
}
else
waitcount[l]++;
}
else if (ud[l] == 0 && ch[l] <= 5)
{
ud[l] = 2;
waitcount[l]++;
}
else
{
ud[l] = ud[l];
waitcount[l]++;
}
}
}
// run to finish then pause
ud[0] = 2;
ch[0] = 0;
waitcount[0] = 1;
for (j = 0; j < 6; j++)
{
for (i = 0; i <= 9 ; i++)
{
for (k = 0; k <= 15; k++)
{
if (ud[k] == 1)
ch[k] = ch[k] + 25;
else if (ud[k] == 0)
ch[k] = ch[k] - 5;
else
ch[k] = ch[k];
}
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
analog_in = analogRead(A3);
delay (analog_in / 24);
}
// check to see if up, down, or wait and increment or change
for (l = 0; l <= 15; l++)
{
if (ud[l] == 1 && ch[l] >= 250)
{
ud[l] = 0;
waitcount[l]++;
}
else if (ud[l] == 2)
{
if (waitcount[l] >= 15)
{
ud[l] = 2;
waitcount[l] = 0;
}
else
waitcount[l]++;
}
else if (ud[l] == 0 && ch[l] <= 5)
{
ud[l] = 2;
waitcount[l]++;
}
else
{
ud[l] = ud[l];
waitcount[l]++;
}
}
}
// restart in the other direction
for (i = 0; i < 16; ++i)
ch[i] = 0;
for (i = 0; i < 15; ++i)
ud[i] = 2;
ud[i] = 1;
waitcount[15] = 0;
waitcount[14] = 15;
waitcount[13] = 14;
waitcount[12] = 13;
waitcount[11] = 12;
waitcount[10] = 11;
waitcount[9] = 10;
waitcount[8] = 9;
waitcount[7] = 8;
waitcount[6] = 7;
waitcount[5] = 6;
waitcount[4] = 5;
waitcount[3] = 4;
waitcount[2] = 3;
waitcount[1] = 2;
waitcount[0] = 1;
// restart with this brightness for the other direction
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, 0);
delay(500);
for (j = 0; j < 64; j++)
{
for (i = 0; i <= 9 ; i++)
{
for (k = 0; k <= 15; k++)
{
if (ud[k] == 1)
ch[k] = ch[k] + 25;
else if (ud[k] == 0)
ch[k] = ch[k] - 5;
else ch[k] = ch[k];
}
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
analog_in = analogRead(A3);
delay (analog_in / 24);
}
// check to see if up, down, or wait and increment or change
for (l = 0; l <= 15; l++)
{
/* analog_in = analogRead(A3); */
if (ud[l] == 1 && ch[l] >= 250)
{
ud[l] = 0;
waitcount[l]++;
}
else if (ud[l] == 2)
{
if (waitcount[l] >= 15)
{
ud[l] = 1;
waitcount[l] = 0;
}
else
waitcount[l]++;
}
else if (ud[l] == 0 && ch[l] <= 5)
{
ud[l] = 2;
waitcount[l]++;
}
else
{
ud[l] = ud[l];
waitcount[l]++;
}
}
}
// run to finish then pause
ud[15] = 2;
ch[15] = 0;
waitcount[15] = 1;
for (j = 0; j < 6; j++)
{
for (i = 0; i <= 9 ; i++)
{
for (k = 0; k <= 15; k++)
{
if (ud[k] == 1)
ch[k] = ch[k] + 25;
else if (ud[k] == 0)
ch[k] = ch[k] - 5;
else
ch[k] = ch[k];
}
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
analog_in = analogRead(A3);
delay (analog_in / 24);
}
// check to see if up, down, or wait and increment or change
for (l = 0; l <= 15; l++)
{
if (ud[l] == 1 && ch[l] >= 250)
{
ud[l] = 0;
waitcount[l]++;
}
else if (ud[l] == 2)
{
if (waitcount[l] >= 15)
{
ud[l] = 2;
waitcount[l] = 0;
}
else
waitcount[l]++;
}
else if (ud[l] == 0 && ch[l] <= 5)
{
ud[l] = 2;
waitcount[l]++;
}
else
{
ud[l] = ud[l];
waitcount[l]++;
}
}
}
}
//! Using the PWM dim WITH FADE commands, a wave of light is created by fading
//! the LED brightnesses up and down. WITH FADE option uses the logarithmic
//! fade function of the LT3965 and allows the brightness to fade from low to
//! high or from high to low with a single I2C bus command. This pattern has
//! low bus traffic.
void fadewave()
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
An0 = analogRead(A0); // Read 8 position switch pin 1
An1 = analogRead(A1); // Read 8 position switch pin 2
An2 = analogRead(A2); // Read 8 position switch pin 3
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, 1);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, 1);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, 1);
delay(250);
if (!startsequence)
{
digitalWrite(PWMPIN, HIGH);
delay(30);
digitalWrite(LOADPIN, LOW);
delay(30);
startsequence = TRUE;
delay(150);
}
while (An0 < 120 && An1 > 120 && An2 > 120)
{
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0011, 255);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0011, 255);
delay(200);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0011, 255);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0011, 255);
delay(200);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0011, 255);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0011, 255);
delay(200);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0011, 255);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0011, 255);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0011, 255);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0011, 255);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0011, 255);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0011, 255);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0011, 255);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0011, 255);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0011, 255);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0011, 255);
delay(1000);
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0011, 1);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0011, 1);
delay(200);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0011, 1);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0011, 1);
delay(200);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0011, 1);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0011, 1);
delay(200);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0011, 1);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0011, 1);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0011, 1);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0011, 1);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0011, 1);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0011, 1);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0011, 1);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0011, 1);
delay(200);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0011, 1);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0011, 1);
delay(1000);
An0 = analogRead(A0);
An1 = analogRead(A1);
An2 = analogRead(A2);
}
}
//! A wave of light from right to left and from left to right changing PWM
//! dimming brightness quickly increasing and decreasing at rates that look
//! like a wave running from one side of the LEDs to the other. The interactive
//! potentiometer controls the speed of the wave.
void wave() // wave function
{
setThresh();
int8_t ack = 0; // I2C acknowledge bit
uint8_t i, j, k, l;
int up_down = 1; //1 = up, 0 = down, 2 = startup wait, 3 = wait
int delay_var = 20;
uint8_t ch[16] = {0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0};
; //channel count variables
int ud[16] = {1, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 2, 1}; //count up or down variables; 1 = up, 0 = down, 2 = wait
int waitcount[16]; // wait count for unusued LEDs
uint16_t analog_in; // potentiometer reading 0 - 255?
waitcount[0] = -8;
waitcount[1] = 15;
waitcount[2] = 14;
waitcount[3] = 13;
waitcount[4] = 12;
waitcount[5] = 11;
waitcount[6] = 10;
waitcount[7] = 9;
waitcount[8] = 9;
waitcount[9] = 10;
waitcount[10] = 11;
waitcount[11] = 12;
waitcount[12] = 13;
waitcount[13] = 14;
waitcount[14] = 15;
waitcount[15] = -8;
/// start with this brightness
// delay (1000);
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
if (!startsequence)
{
digitalWrite(PWMPIN, HIGH);
delay(1);
digitalWrite(LOADPIN, LOW);
delay(1);
startsequence = TRUE;
}
for (j = 0; j < 21; j++)
{
for (i = 0; i <= 4 ; i++)
{
for (k = 0; k <= 15; k++)
{
if (ud[k] == 1)
ch[k] = ch[k] + 50;
else if (ud[k] == 0)
ch[k] = ch[k] - 5;
else
ch[k] = ch[k];
}
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
analog_in = analogRead(A3);
delay (analog_in / 100);
}
// check to see if up, down, or wait and increment or change
for (l = 0; l <= 15; l++)
{
if (ud[l] == 1 && ch[l] >= 250)
{
ud[l] = 0;
waitcount[l]++;
}
else if (ud[l] == 2)
{
if (waitcount[l] >= 15)
{
ud[l] = 1;
waitcount[l] = -8;
}
else
waitcount[l]++;
}
else if (ud[l] == 0 && ch[l] <= 5)
{
ud[l] = 2;
waitcount[l]++;
}
else
{
ud[l] = ud[l];
waitcount[l]++;
}
}
}
// delay (1000);
delay(50);
// Run Wave Backwards
waitcount[0] = 9;
waitcount[1] = 10;
waitcount[2] = 11;
waitcount[3] = 12;
waitcount[4] = 13;
waitcount[5] = 14;
waitcount[6] = 15;
waitcount[7] = -8;
waitcount[8] = -8;
waitcount[9] = 15;
waitcount[10] = 14;
waitcount[11] = 13;
waitcount[12] = 12;
waitcount[13] = 11;
waitcount[14] = 10;
waitcount[15] = 9;
ud[0] = 2;
ud[1] = 2;
ud[2] = 2;
ud[3] = 2;
ud[4] = 2;
ud[5] = 2;
ud[6] = 2;
ud[7] = 1;
ud[8] = 1;
ud[9] = 2;
ud[10] = 2;
ud[11] = 2;
ud[12] = 2;
ud[13] = 2;
ud[14] = 2;
ud[15] = 2;
/// start with this brightness
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
for (j = 0; j < 21; j++)
{
for (i = 0; i <= 4; i++)
{
for (k = 0; k <= 15; k++)
{
if (ud[k] == 1)
ch[k] = ch[k] + 50;
else if (ud[k] == 0)
ch[k] = ch[k] - 5;
else
ch[k] = ch[k];
}
if (ch[0] == 0)
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, ch[0]);
else
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0010, ch[0]);
if (ch[1] == 0)
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, ch[1]);
else
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0010, ch[1]);
if (ch[2] == 0)
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, ch[2]);
else
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0010, ch[2]);
if (ch[3] == 0)
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, ch[3]);
else
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0010, ch[3]);
if (ch[4] == 0)
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, ch[4]);
else
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0010, ch[4]);
if (ch[5] == 0)
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, ch[5]);
else
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0010, ch[5]);
if (ch[6] == 0)
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, ch[6]);
else
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0010, ch[6]);
if (ch[7] == 0)
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, ch[7]);
else
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0010, ch[7]);
if (ch[8] == 0)
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, ch[8]);
else
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0010, ch[8]);
if (ch[9] == 0)
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, ch[9]);
else
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0010, ch[9]);
if (ch[10] == 0)
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, ch[10]);
else
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0010, ch[10]);
if (ch[11] == 0)
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, ch[11]);
else
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0010, ch[11]);
if (ch[12] == 0)
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, ch[12]);
else
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0010, ch[12]);
if (ch[13] == 0)
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, ch[13]);
else
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0010, ch[13]);
if (ch[14] == 0)
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, ch[14]);
else
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0010, ch[14]);
if (ch[15] == 0)
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, ch[15]);
else
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0010, ch[15]);
analog_in = analogRead(A3);
delay (analog_in / 100);
}
// check to see if up, down, or wait and increment or change
for (l = 0; l <= 15; l++)
{
if (ud[l] == 1 && ch[l] >= 250)
{
ud[l] = 0;
waitcount[l]++;
}
else if (ud[l] == 2)
{
if (waitcount[l] >= 15)
{
ud[l] = 1;
waitcount[l] = -8;
}
else
waitcount[l]++;
}
else if (ud[l] == 0 && ch[l] <= 5)
{
ud[l] = 2;
waitcount[l]++;
}
else
{
ud[l] = ud[l];
waitcount[l]++;
}
}
}
}
//! Performs an analog read on the potentiometer pin using hysteresis to
//! reduce variation in ADC values. This prevents the read value of the potentiomter
//! from bouncing between different values when the potentiometer is not
//! being moved.
int readpot(void)
{
uint8_t tempupdown;
currentread = analogRead(A3);
if ((currentread - lastread) > 0)
tempupdown = UP;
if ((currentread - lastread) < 0)
tempupdown = DOWN;
if (tempupdown == updown)
{
lastread = currentread;
return (lastread);
}
else
{
if (((abs(currentread - lastread)) > 3))
{
if (updown == UP)
updown = DOWN;
else if (updown == DOWN)
updown = UP;
lastread = currentread;
return (lastread);
}
else
{
return (lastread);
}
}
}
//! Sets the short circuit and open circuit thresholds defined for
//! DC2218A. This function performs a series of single channel and all
//! channel writes to ensure that threshold registers are set, as well
//! as ensuring all fault registers are cleared.
void setThresh()
{
int8_t ack = 0;
ack |= i2c_scwriteshort(address1, CHANNEL0, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL1, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL2, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL3, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL4, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL5, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL6, 0b0000);
ack |= i2c_scwriteshort(address1, CHANNEL7, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL0, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL1, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL2, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL3, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL4, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL5, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL6, 0b0000);
ack |= i2c_scwriteshort(address2, CHANNEL7, 0b0000);
ack |= i2c_scwritelong(address1, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address1, CHANNEL7, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL0, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL1, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL2, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL3, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL4, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL5, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL6, 0b0000, 0);
ack |= i2c_scwritelong(address2, CHANNEL7, 0b0000, 0);
ack |= i2c_acwrite(address1, 0b00000000);
ack |= i2c_acwrite(address2, 0b00000000);
}
Download LT3965 - Linduino Header File
/*!
LT3965 - Octal Matrix LED Bypass Switch
@verbatim
The LT3965 is an LED bypass switching device for dimming indiviadual LEDs in a
string using a common current source. It features eight individually controlled
floating source N-channel MOSFET switches rated for 17V/330 mΩ. The eight
switches can be connected in parallel and/or in series to bypass current around
one or more LEDs in a string. The LT3965 as a slave uses the I2C serial interface
to communicate with the master. Each of eight channels can be independently
programmed to bypass the LED string in constant on, constant off, dimming without
fade transition or dimming with fade transition mode.
WRITE PROTOCOLS (MSB FIRST):
Byte #1 Byte #2 Byte #3
ACMODE WRITE 0 1 0 A4 A3 A2 A1 0(W) B7 B6 B5 B4 B3 B2 B1 B0
SCMODE WRITE SHORT 1 0 1 A4 A3 A2 A1 0(W) 0 C3 C2 C1 B3 B2 B1 B0
SCMODE WRITE LONG 1 0 1 A4 A3 A2 A1 0(W) 1 C3 C2 C1 B11 B10 B9 B8 B7 B6 B5 B4 B3 B2 B1 B0
BCMODE WRITE 0 0 0 1 1 0 0 0(W)
W : I2C Write (0)
R : I2C Read (1)
Ax : Device Address
Bx : Data Bits
Cx : Channel Address
@endverbatim
http://www.linear.com/product/LT3965
http://www.linear.com/product/LT3965#demoboards
REVISION HISTORY
$Revision: 5045 $
$Date: 2016-05-04 17:56:28 -0700 (Wed, 04 May 2016) $
Copyright (c) 2013, Linear Technology Corp.(LTC)
All rights reserved.
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are met:
1. Redistributions of source code must retain the above copyright notice, this
list of conditions and the following disclaimer.
2. Redistributions in binary form must reproduce the above copyright notice,
this list of conditions and the following disclaimer in the documentation
and/or other materials provided with the distribution.
THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND
ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR
ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
(INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
The views and conclusions contained in the software and documentation are those
of the authors and should not be interpreted as representing official policies,
either expressed or implied, of Linear Technology Corp.
The Linear Technology Linduino is not affiliated with the official Arduino team.
However, the Linduino is only possible because of the Arduino team's commitment
to the open-source community. Please, visit http://www.arduino.cc and
http://store.arduino.cc , and consider a purchase that will help fund their
ongoing work.
*/
/*! @file
@ingroup LT3965
Header for LT3965: Octal Matrix LED Bypass Switch
*/
//! @name LT3965 I2C 7-BIT DEVICE ADDRESS
//! @{
#define address1 0b00000000 // I2C Device address 1
#define address2 0b00001111 // I2C Device address 2
#define AC_ADDR_0 0x20
#define SC_ADDR_0 0x50
#define BC_ADDR 0x0C
#define TM_ADDR 0x73
//! @}
//! @name 8 CHANNELS
//! @{
#define CHANNEL0 0X00
#define CHANNEL1 0X01
#define CHANNEL2 0X02
#define CHANNEL3 0X03
#define CHANNEL4 0X04
#define CHANNEL5 0X05
#define CHANNEL6 0X06
#define CHANNEL7 0X07
//! @}
#define UP 1
#define DOWN 0
#define TRUE 1
#define FALSE 0
#define ALERTPIN 2
#define PWMPIN 7
#define LOADPIN 9
#define BUTTONPIN 12
#define REDLED 11
//! ACMODE Write Command to write a "value" byte to device at "address"
int8_t i2c_acwrite(uint8_t address, uint8_t value);
//! ACMODE Read Command to read 3 data bytes from device at "address"
int8_t i2c_acread(uint8_t address, uint8_t *values);
//! SCMODE Write Command Short Format to write a "value" byte to device at "address"
int8_t i2c_scwriteshort(uint8_t address, uint8_t channel, uint8_t data_SCMREG);
//! SCMODE Write Command Long Format to write 2 "value" bytes to device at "address"
int8_t i2c_scwritelong(uint8_t address, uint8_t channel, uint8_t data_SCMREG, uint8_t dimming_value);
//! SCMODE Write Short + SCMODE Read Command
int8_t i2c_scwriteshort_scread(uint8_t address, uint8_t channel, uint8_t data_SCMREG, uint8_t *values);
//! BCMODE Read Command
int8_t i2c_bcread(uint8_t *value);Download LT3965 - Linduino.CPP File
/*!
LT3965 - Octal Matrix LED Bypass Switch
@verbatim
The LT3965 is an LED bypass switching device for dimming indiviadual LEDs in a
string using a common current source. It features eight individually controlled
floating source N-channel MOSFET switches rated for 17V/330 mΩ. The eight
switches can be connected in parallel and/or in series to bypass current around
one or more LEDs in a string. The LT3965 as a slave uses the I2C serial interface
to communicate with the master. Each of eight channels can be independently
programmed to bypass the LED string in constant on, constant off, dimming without
fade transition or dimming with fade transition mode.
@endverbatim
http://www.linear.com/product/LT3965
http://www.linear.com/product/LT3965#demoboards
REVISION HISTORY
$Revision: 5074 $
$Date: 2016-05-09 16:57:13 -0700 (Mon, 09 May 2016) $
Copyright (c) 2013, Linear Technology Corp.(LTC)
All rights reserved.
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are met:
1. Redistributions of source code must retain the above copyright notice, this
list of conditions and the following disclaimer.
2. Redistributions in binary form must reproduce the above copyright notice,
this list of conditions and the following disclaimer in the documentation
and/or other materials provided with the distribution.
THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND
ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR
ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
(INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
The views and conclusions contained in the software and documentation are those
of the authors and should not be interpreted as representing official policies,
either expressed or implied, of Linear Technology Corp.
The Linear Technology Linduino is not affiliated with the official Arduino team.
However, the Linduino is only possible because of the Arduino team's commitment
to the open-source community. Please, visit http://www.arduino.cc and
http://store.arduino.cc , and consider a purchase that will help fund their
ongoing work.
*/
//! @defgroup LT3965 LT3965: Octal Matrix LED Bypass Switch
/*! @file
@ingroup LT3965
Library for LT3965 Octal Matrix LED Bypass Switch
*/
#include <stdio.h>
#include "Linduino.h"
#include "LT_I2C.h"
#include "LT3965.h"
// ACMODE Write Command to write a "value" byte to device at "address"
int8_t i2c_acwrite(uint8_t address, uint8_t value)
{
int8_t ret = 0 ;
address = address | AC_ADDR_0;
ret |= i2c_write_byte(address, value);
return ret;
}
// ACMODE Read Command to read 3 data bytes from device at "address"
int8_t i2c_acread(uint8_t address, uint8_t *values)
{
int8_t ret = 0 ;
address = address | AC_ADDR_0;
ret |= i2c_read_block_data(address, 3, values);
return ret;
}
// SCMODE Write Command Short Format to write a "value" byte to device at "address"
int8_t i2c_scwriteshort(uint8_t address, uint8_t channel, uint8_t data_SCMREG)
{
int8_t ret = 0 ;
uint8_t data = 0;
address = address | SC_ADDR_0;
data = (channel << 4) | data_SCMREG; //Write value
ret |= i2c_write_byte(address, data);
return ret;
}
// SCMODE Write Command Long Format to write 2 "value" bytes to device at "address"
int8_t i2c_scwritelong(uint8_t address, uint8_t channel, uint8_t data_SCMREG, uint8_t dimming_value)
{
int8_t ret = 0;
uint8_t command = 0x80;
address = address | SC_ADDR_0;
command |= ((channel << 4) | data_SCMREG);
ret |= i2c_write_byte_data(address, command, dimming_value);
return ret;
}
// SCMODE Write Short + SCMODE Read Command
int8_t i2c_scwriteshort_scread(uint8_t address, uint8_t channel, uint8_t data_SCMREG, uint8_t *values)
{
int8_t ret = 0;
uint8_t command = 0;
address = address | SC_ADDR_0;
command |= ((channel << 4) | data_SCMREG);
ret |= i2c_read_block_data(address, command, 2, values);
return ret;
}
// BCMODE Read Command
int8_t i2c_bcread(uint8_t *value)
{
int8_t ret = 0 ;
uint8_t address = BC_ADDR;
ret |= i2c_read_byte(address, value);
return ret;
}
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