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OSPOM Library
Author: Scott Tomko, Greg Tomko, Linda Close Contact: Staff@OSPOM.com
Description | Download | Methods | Examples
Description
OSPOM is like Facebook for your Arduino.
The OSPOM Library allows any arduino to have it's own web-page for free via any Linux computer. This method does not require a WiFi or Ethernet Shield, nor does it require router setup to be viewable outside your local network. OSPOM's free Dashboard is AES256 Encrypted, and any user can creat a private account for Free. The Dashboard also supports Live Image and Video updates from most USB webcams connected to the Linux computer. The necessary Linux software can be downloaded from BitBucket.org/OSPOM. Or purchase a Rasberry-Pi, Odroid, or pcDuino from OSPOM.com with the software installed. micro-SD cards containg all the necessary code and operating system (Ubuntu) are also available from Ospom.com for less than $10. *The Python software running on the CPU will be public on Bit Bucket shortly.
Download
Source Code and further documentation can be found here: https://bitbucket.org/ReefPOM/arduino.
Methods
Refer to our Git Repo for details: https://bitbucket.org/ReefPOM/arduino.
Examples
/* Reef POM Example Sketch
* For more information visit BitBucket.org/ReefPOM
*
* Copyright 2015 Scott Tomko, Greg Tomko, Linda Close
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* (GNU General Public License for more details.
* You should have received a copy of the GNU Lesser General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*
* Contact: Staff@ReefPOM.com
*
*
Example Arduino Pinout (Reef POM Core Power Bar):
2 AC Phase Input
11 Traic #1 (new)
3 Triac #2
4 Triac #3
5 0-10v #1
6 0-10v #4
7 Triac #4
8 Bottom LED
9 0-10v #2
10 0-10v #3
ADC6 Thermisor (new)
ADC7 pH Reading
12 DIY Pin #3
13 DIY Pin #4
14 Right LED
15 Center LED
16 Left LED
17 Top LED
18 DIY Pin #2 (SDA)
19 DIY Pin #1 (SCL)
Example Element List (Core Power Bar)
Element, Function, Pin#
1 , Triac#1 , 11
2 , Triac#2 , 3
3 , Triac#3 , 4
4 , Triac#4 , 7
5 , 0-10v#1 , 5
6 , 0-10v#2 , 9
7 , 0-10v#3 , 10
8 , 0-10v#4 , 6
9 , PCBtemp , ADC6 (20)
10 , pH , ADC7 (21)
11 , DIY#1 , 19 (SCL)
12 , DIY#2 , 18 (SDA)
13 , DIY#3 , 12
14 , DIY#4 , 13
15 , cntrLED , 15
*/
#include <Ospom.h> //include the ospom library
#include <EEPROMex.h> //This must be included for Ospom to work
Ospom ospom; // instantiate ospom, an instance of Ospom Library Don't put () if it isn't getting a variable
//**If doing Triac Dimming, set phase pin in Ospom.cpp at line 682** ToDo: make this setable here & internet
void setup() { // put your setup code here, to run once:
ospom.Setup(); //ospom.Setup initilizes ospom
}
void loop() {
ospom.Run(333); //Activates the ospom library every time the loop runs **This is required
//(333 = Read Sensors 3 times a second, 1000 = 1 time a second, )
/*
Put any standard arduino code in here that you want to run over and over again.
OSPOM Functions:
ospom.define(Pin#, Type, Function, ID); = Define OSPOM Internet Dashboard accessable Sensor or Actuator Elements
example: ospom.define(7, 's', ospom.anaRead, "stfw0000");
ospom.read(Pin#, ReadType); = Read OSPOM Sensors or Actuators and receive the result
ospom.write(Pin#, WriteType); = Write OSPOM Sensors or Actuators using this function
ospom.webSet(Pin#, Value); = Sets the value of the Element with the Pin# specified, so the
Dashboard will get the new data
**Writing a pin that is part of the OSPOM dashboard without using this function will cause
the dashboard to be confused
**Dont forget to Write your own OSPOM Configuation Sketch to setup your arduino,
or run the OSPOM Generic Configuration sketch at least once before calling any ospom functions
*/
}
An EEPROM Configuration Sketch should be run 1st, it uses the 1st 500 bytes of EEPROM, and stores Group ID, as well as Element ID's, Pin#'s, calibration, and fail safe data. OSPOM currently supports 20 Elements (Web-accessable Sensors/Actuators) per Arduino.
/*This program loads an arduino (in this case ReefPOM's Core Power Bar)
* with necessary EEPROM data for the library to function properly.
*Run this configuration program first, then the sketch named 'ospom'
*For more information visit BitBucket.org/ReefPOM
* Copyright 2015 Scott Tomko, Greg Tomko, Linda Close
*
* This program is free software: you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation, either version 3 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* (GNU General Public License for more details.
* You should have received a copy of the GNU Lesser General Public License
* along with this program. If not, see <https://www.gnu.org/licenses/>.
*
* Contact: Staff@ReefAi.com
*
*
Arduino Pinout:
2 AC Phase Input
11 Traic #1 (new)
3 Triac #2
4 Triac #3
5 0-10v #1
6 0-10v #4
7 Triac #4
8 Bottom LED
9 0-10v #2
10 0-10v #3
ADC6 Thermisor (new)
ADC7 pH Reading
12 DIY Pin #3
13 DIY Pin #4
14 Right LED
15 Center LED
16 Left LED
17 Top LED
18 DIY Pin #2 (SDA)
19 DIY Pin #1 (SCL)
*/
/* Core Power Bar Element List
Element, Function, Pin#
1 , Triac#1 , 11
2 , Triac#2 , 3
3 , Triac#3 , 4
4 , Triac#4 , 7
5 , 0-10v#1 , 5
6 , 0-10v#2 , 9
7 , 0-10v#3 , 10
8 , 0-10v#4 , 6
9 , PCBtemp , ADC6 (20)
10 , pH , ADC7 (21)
11 , DIY#1 , 19 (SCL)
12 , DIY#2 , 18 (SDA)
13 , DIY#3 , 12
14 , DIY#4 , 13
15 , cntrLED , 15
**AC Phase Pin 2 can't be an element, as they arent fast enough
*/
#include <EEPROMex.h> //For Calibration Data and ID
void setup() {
// put your setup code here, to run once:
//Load stock Sensor Element ID's
EEPROM.updateBlock<char>(0,"gcp00000", 8); //ID
EEPROM.update(8, 1); //Enable Watchdog Timer
EEPROM.updateBlock<char>(9,"atr00001", 8); //Element #1 ID
EEPROM.updateBlock<char>(28,"atr00002", 8); //Element #2 ID
EEPROM.updateBlock<char>(47,"atr00003", 8); //Element #3 ID
EEPROM.updateBlock<char>(66,"atr00004", 8); //Element #4 ID
EEPROM.updateBlock<char>(85,"azt00001", 8); //Element #5 ID
EEPROM.updateBlock<char>(104,"azt00002", 8); //Element #6 ID
EEPROM.updateBlock<char>(123,"azt00003", 8); //Element #7 ID
EEPROM.updateBlock<char>(142,"azt00004", 8); //Element #8 ID
EEPROM.updateBlock<char>(161,"stfb0001", 8); //Element #9 ID
EEPROM.updateBlock<char>(180,"sph00001", 8); //Element #10 ID
EEPROM.updateBlock<char>(199,"sdi00001", 8); //Element #11 ID
EEPROM.updateBlock<char>(218,"sdi00002", 8); //Element #12 ID
EEPROM.updateBlock<char>(237,"sdi00003", 8); //Element #13 ID
EEPROM.updateBlock<char>(256,"sdi00004", 8); //Element #14 ID
EEPROM.updateBlock<char>(275,"zzzzzzzz", 8); //Element #15 ID //Fill the unused ones with z's
EEPROM.updateBlock<char>(294,"zzzzzzzz", 8); //Element #16 ID
EEPROM.updateBlock<char>(313,"zzzzzzzz", 8); //Element #17 ID
EEPROM.updateBlock<char>(332,"zzzzzzzz", 8); //Element #18 ID
EEPROM.updateBlock<char>(351,"zzzzzzzz", 8); //Element #19 ID
EEPROM.updateBlock<char>(370,"zzzzzzzz", 8); //Element #20 ID
EEPROM.updateBlock<char>(389,"zzzzzzzz", 8); //Element #21 ID
EEPROM.updateBlock<char>(408,"zzzzzzzz", 8); //Element #22 ID
//write stock Element Types
//s=sensor, a=actuator, n=nothing, z=Loaded by this program
EEPROM.updateBlock<char>(17,"a", 1); //Element #1 Type
EEPROM.updateBlock<char>(36,"a", 1); //Element #2 Type
EEPROM.updateBlock<char>(55,"a", 1); //Element #3 Type
EEPROM.updateBlock<char>(74,"a", 1); //Element #4 Type
EEPROM.updateBlock<char>(93,"a", 1); //Element #5 Type
EEPROM.updateBlock<char>(112,"a", 1); //Element #6 Type
EEPROM.updateBlock<char>(131,"a", 1); //Element #7 Type
EEPROM.updateBlock<char>(150,"a", 1); //Element #8 Type
EEPROM.updateBlock<char>(169,"s", 1); //Element #9 Type
EEPROM.updateBlock<char>(188,"s", 1); //Element #10 Type
EEPROM.updateBlock<char>(207,"n", 1); //Element #11 Type
EEPROM.updateBlock<char>(226,"n", 1); //Element #12 Type
EEPROM.updateBlock<char>(245,"n", 1); //Element #13 Type
EEPROM.updateBlock<char>(264,"n", 1); //Element #14 Type
EEPROM.updateBlock<char>(283,"z", 1); //Element #15 Type //Fill the unused ones with z's
EEPROM.updateBlock<char>(302,"z", 1); //Element #16 Type
EEPROM.updateBlock<char>(321,"z", 1); //Element #17 Type
EEPROM.updateBlock<char>(340,"z", 1); //Element #18 Type
EEPROM.updateBlock<char>(359,"z", 1); //Element #19 Type
EEPROM.updateBlock<char>(378,"z", 1); //Element #20 Type
EEPROM.updateBlock<char>(397,"z", 1); //Element #21 Type
EEPROM.updateBlock<char>(416,"z", 1); //Element #22 Type
//Write stock Element Functions
//0=unused, 1=analogRead, 2=digitalRead,
//3=analogWrite, 4=digitalWrite, 5=triac, 7=level, 10=Empty
EEPROM.updateInt(18, 5); //Elemenr #1 Function
EEPROM.updateInt(37, 5); //Elemenr #2 Function
EEPROM.updateInt(56, 5); //Elemenr #3 Function
EEPROM.updateInt(75, 5); //Elemenr #4 Function
EEPROM.updateInt(94, 3); //Elemenr #5 Function
EEPROM.updateInt(113, 3); //Elemenr #6 Function
EEPROM.updateInt(132, 3); //Elemenr #7 Function
EEPROM.updateInt(151, 3); //Elemenr #8 Function
EEPROM.updateInt(170, 1); //Elemenr #9 Function
EEPROM.updateInt(189, 1); //Elemenr #10 Function
EEPROM.updateInt(208, 0); //Elemenr #11 Function
EEPROM.updateInt(227, 0); //Elemenr #12 Function
EEPROM.updateInt(246, 0); //Elemenr #13 Function
EEPROM.updateInt(265, 0); //Elemenr #14 Function
EEPROM.updateInt(284, 10); //Elemenr #15 Function
EEPROM.updateInt(303, 10); //Elemenr #16 Function
EEPROM.updateInt(322, 10); //Elemenr #17 Function
EEPROM.updateInt(341, 10); //Elemenr #18 Function
EEPROM.updateInt(360, 10); //Elemenr #19 Function
EEPROM.updateInt(379, 10); //Elemenr #20 Function
EEPROM.updateInt(398, 10); //Elemenr #21 Function
EEPROM.updateInt(417, 10); //Elemenr #22 Function
//Write stock Calibration data if the element is a sensor
//or Fail Safe Values / Extras they are actuators
EEPROM.updateFloat(20, 1); //Element #1 Slope / FS Val
EEPROM.updateFloat(24, 0); //Element #1 Y-Intercept / Extra
EEPROM.updateFloat(39, 1); //Element #2 Slope / FS Val
EEPROM.updateFloat(43, 0); //Element #2 Y-Intercept / Extra
EEPROM.updateFloat(58, 1); //Element #3 Slope / FS Val
EEPROM.updateFloat(62, 0); //Element #3 Y-Intercept / Extra
EEPROM.updateFloat(77, 1); //Element #4 Slope / FS Val
EEPROM.updateFloat(81, 0); //Element #4 Y-Intercept / Extra
EEPROM.updateFloat(96, 1); //Element #5 Slope / FS Val
EEPROM.updateFloat(100, 0); //Element #5 Y-Intercept / Extra
EEPROM.updateFloat(115, 1); //Element #6 Slope / FS Val
EEPROM.updateFloat(119, 0); //Element #6 Y-Intercept / Extra
EEPROM.updateFloat(134, 1); //Element #7 Slope / FS Val
EEPROM.updateFloat(138, 0); //Element #7 Y-Intercept / Extra
EEPROM.updateFloat(153, 1); //Element #8 Slope / FS Val
EEPROM.updateFloat(157, 0); //Element #8 Y-Intercept / Extra
EEPROM.updateFloat(172, 1); //Element #9 Slope / FS Val
EEPROM.updateFloat(176, 0); //Element #9 Y-Intercept / Extra
EEPROM.updateFloat(191, 1); //Element #10 Slope / FS Val
EEPROM.updateFloat(195, 0); //Element #10 Y-Intercept / Extra
EEPROM.updateFloat(210, 1); //Element #11 Slope / FS Val
EEPROM.updateFloat(214, 0); //Element #11 Y-Intercept / Extra
EEPROM.updateFloat(229, 1); //Element #12 Slope / FS Val
EEPROM.updateFloat(233, 0); //Element #12 Y-Intercept / Extra
EEPROM.updateFloat(248, 1); //Element #13 Slope / FS Val
EEPROM.updateFloat(252, 0); //Element #13 Y-Intercept / Extra
EEPROM.updateFloat(267, 1); //Element #14 Slope / FS Val
EEPROM.updateFloat(271, 0); //Element #14 Y-Intercept / Extra
EEPROM.updateFloat(286, 1); //Element #15 Slope / FS Val
EEPROM.updateFloat(290, 0); //Element #15 Y-Intercept / Extra
EEPROM.updateFloat(305, 1); //Element #16 Slope / FS Val
EEPROM.updateFloat(309, 0); //Element #16 Y-Intercept / Extra
EEPROM.updateFloat(324, 1); //Element #17 Slope / FS Val
EEPROM.updateFloat(328, 0); //Element #17 Y-Intercept / Extra
EEPROM.updateFloat(343, 1); //Element #18 Slope / FS Val
EEPROM.updateFloat(347, 0); //Element #18 Y-Intercept / Extra
EEPROM.updateFloat(362, 1); //Element #19 Slope / FS Val
EEPROM.updateFloat(366, 0); //Element #19 Y-Intercept / Extra
EEPROM.updateFloat(381, 1); //Element #20 Slope / FS Val
EEPROM.updateFloat(385, 0); //Element #20 Y-Intercept / Extra
EEPROM.updateFloat(400, 1); //Element #21 Slope / FS Val
EEPROM.updateFloat(404, 0); //Element #21 Y-Intercept / Extra
EEPROM.updateFloat(419, 1); //Element #22 Slope / FS Val
EEPROM.updateFloat(423, 0); //Element #22 Y-Intercept / Extra
//Element Pins
EEPROM.updateInt(389, 11); //Element #1 Pin
EEPROM.updateInt(391, 3); //Element #2 Pin
EEPROM.updateInt(393, 4); //Element #3 Pin
EEPROM.updateInt(395, 7); //Element #4 Pin
EEPROM.updateInt(397, 5); //Element #5 Pin
EEPROM.updateInt(399, 9); //Element #6 Pin
EEPROM.updateInt(401, 10); //Element #7 Pin
EEPROM.updateInt(403, 6); //Element #8 Pin
EEPROM.updateInt(405, 20); //Element #9 Pin
EEPROM.updateInt(407, 21); //Element #10 Pin
EEPROM.updateInt(409, 19); //Element #11 Pin
EEPROM.updateInt(411, 18); //Element #12 Pin
EEPROM.updateInt(413, 12); //Element #13 Pin
EEPROM.updateInt(415, 13); //Element #14 Pin
EEPROM.updateInt(417, 15); //Element #15 Pin
EEPROM.updateInt(419, 99); //Element #16 Pin
EEPROM.updateInt(421, 99); //Element #17 Pin
EEPROM.updateInt(423, 99); //Element #18 Pin
EEPROM.updateInt(425, 99); //Element #19 Pin
EEPROM.updateInt(427, 99); //Element #20 Pin
}
void loop() {
// put your main code here, to run repeatedly:
}