int potReadoutPin = 0; \/\/ pot pin
\nint fsrReadoutPin = 1; \/\/ fsr pin
\nint cellReadoutPin = 2; \/\/ cell pin
\nint vibMotorPin = 7; \/\/ motor pin
\nint redLEDPin = 8; \/\/ red pin
\nint greenLEDPin = 9; \/\/ green pin
\nint blueLEDPin = 10; \/\/ blue pin
\n
\nint potReadout = 0; \/\/ value pot switch
\nint fsrReadout = 0; \/\/ value fsr sensor
\nint cellReadout = 0; \/\/ value cell sensor
\n
\nint potReadoutPrevious = 0; \/\/ var to detect state change
\nint previousCellReadout = 0; \/\/ var to detect state change
\nint potPowerout = 0; \/\/ output to LED
\nint potZones = 0; \/\/ dividing pot areas
\nint potMap = 0; \/\/ mapping pot values to map
\n
\nint levelLED = 0; \/\/ set LED level
\nint maxLevelLED = 255; \/\/ set max LED level
\nint minLevelLED = 0; \/\/ set min LED level
\nint fadeLevelLED = 0; \/\/ set fade LED level
\n
\nint cellMin = 5; \/\/ define darkness
\nint cellMax = 55; \/\/ define max lightness
\nint cellMap = 0; \/\/ map values o fit max and min
\n
\nlong previousMillis = 0; \/\/ last time one interval passed
\nlong interval = 100; \/\/ interval
\n
\n\/\/ unused vars
\nint rOn = 0;
\nint gOn = 0;
\nint bOn = 0;
\n
\nvoid setup () {
\n \/\/ start serial
\n Serial.begin(9600);
\n \/\/ define pins
\n pinMode (redLEDPin, OUTPUT);
\n pinMode (blueLEDPin, OUTPUT);
\n pinMode (greenLEDPin, OUTPUT);
\n pinMode (vibMotorPin, OUTPUT);
\n pinMode (potReadoutPin, INPUT);
\n pinMode (fsrReadoutPin, INPUT);
\n pinMode (cellReadoutPin, INPUT);
\n
\n}
\n
\nvoid loop () {
\n \/\/ read hidden interface sensors
\n fsrReadout = analogRead(fsrReadoutPin);
\n cellReadout = analogRead(cellReadoutPin);
\n
\n\/\/ debug printing
\n\/\/ Serial.println(fsrReadout, DEC);
\n\/\/ delay(15);
\n
\n potReadout = analogRead(potReadoutPin); \/\/ read pot
\n potPowerout = map(potReadout, 0, 1023, 0, 1529); \/\/ remap pot to measures of 255 to power LED
\n potZones = map(potReadout, 0 , 1023, 0, 119); \/\/ remap pot to define zones for if funct
\n levelLED = potPowerout % 255; \/\/ derive LED power value from pot
\n fadeLevelLED = maxLevelLED - levelLED; \/\/ derive fade value, opposite to pot
\n int redComp = 100; \/\/ compensate problems with red LED resistors
\n cellMap = map(cellReadout, cellMin, cellMax, 0, 500); \/\/ map photocell to room conditions
\n
\n Serial.println(cellMap, DEC); \/\/ print cell value (debug\/adjust)
\n Serial.println(cellReadout, DEC); \/\/ print cell value (debug\/adjust)
\n
\n if (cellMap>500) { \/\/ when far from light sensor - spectrum effect
\n if (potZones > 0 && potZones < 20) { analogWrite (10, levelLED); bOn = 1;}
\n if (potZones >= 20 && potZones < 60) { analogWrite (10, maxLevelLED); bOn = 1; }
\n if (potZones >= 60 && potZones <= 79) { analogWrite (10, fadeLevelLED); bOn = 1; }
\n if (potZones <= 0 || potZones > 79) { analogWrite (10, minLevelLED); bOn = 0; }
\n
\n if (potZones > 40 && potZones < 60) { analogWrite (9, levelLED); gOn = 1;}
\n if (potZones >= 60 && potZones < 100) { analogWrite (9, maxLevelLED); gOn = 1; }
\n if (potZones >= 100 && potZones <= 119) { analogWrite (9, fadeLevelLED); gOn = 1;}
\n if (potZones <= 40 || potZones > 119) { analogWrite (9, minLevelLED); gOn = 0;}
\n
\n if (potZones > 0 && potZones < 20) { analogWrite (8, levelLED+redComp); rOn = 1; }
\n if (potZones >= 20 && potZones < 40) { analogWrite (8, fadeLevelLED-redComp); rOn = 1; }
\n if (potZones >= 40 && potZones <= 80) { analogWrite (8, minLevelLED); rOn = 0; }
\n if (potZones > 80 && potZones < 100) { analogWrite (8, levelLED+redComp); rOn = 1; }
\n if (potZones >= 100) { analogWrite (8, maxLevelLED); rOn = 1; }
\n if (potZones <= 0) { analogWrite (8, minLevelLED); rOn = 0; }
\n
\n } else {
\n
\n
\n if (cellMap<0) { cellMap=10; } \/\/ set min value for cellMap
\n
\n if (millis() - previousMillis > interval) { \/\/ when close from light sensor - flickering spectrum effect
\n if (potZones > 0 && potZones < 20) { analogWrite (10, levelLED); bOn = 1;}
\n if (potZones >= 20 && potZones < 60) { analogWrite (10, maxLevelLED); bOn = 1; }
\n if (potZones >= 60 && potZones <= 79) { analogWrite (10, fadeLevelLED); bOn = 1; }
\n if (potZones <= 0 || potZones > 79) { analogWrite (10, minLevelLED); bOn = 0; }
\n
\n if (potZones > 40 && potZones < 60) { analogWrite (9, levelLED); gOn = 1;}
\n if (potZones >= 60 && potZones < 100) { analogWrite (9, maxLevelLED); gOn = 1; }
\n if (potZones >= 100 && potZones <= 119) { analogWrite (9, fadeLevelLED); gOn = 1;}
\n if (potZones <= 40 || potZones > 119) { analogWrite (9, minLevelLED); gOn = 0;}
\n
\n if (potZones > 0 && potZones < 20) { analogWrite (8, levelLED+redComp); rOn = 1; }
\n if (potZones >= 20 && potZones < 40) { analogWrite (8, fadeLevelLED-redComp); rOn = 1; }
\n if (potZones >= 40 && potZones <= 80) { analogWrite (8, minLevelLED); rOn = 0; }
\n if (potZones > 80 && potZones < 100) { analogWrite (8, levelLED+redComp); rOn = 1; }
\n if (potZones >= 100) { analogWrite (8, maxLevelLED); rOn = 1; }
\n if (potZones <= 0) { analogWrite (8, minLevelLED); rOn = 0; }
\n delay (cellMap); \/\/ blink
\n previousMillis = millis(); \/\/ reset interval
\n
\n } else { \/\/ kill the lights
\n analogWrite (8, minLevelLED);
\n analogWrite (9, minLevelLED);
\n analogWrite (10, minLevelLED);
\n }
\n
\n }
\n
\n
\n \/* if (potReadout < 79 && potReadout > 39) {
\n analogWrite(9, levelLED);
\n }
\n else {
\n analogWrite(9, fadeLED); }
\n
\n*\/
\n
\n\/\/ if (potReadout != potReadoutPrevious) {
\n\/\/ Serial.println(potReadout, DEC);
\n\/\/ Serial.println(levelLED, DEC);
\n\/\/ potReadoutPrevious = potReadout;
\n\/\/ }
\n
\n
\n
\n
\n \/\/ delay(15);
\n
\n
\n if (fsrReadout > 400) { \/\/ alarm sequence when pushing door
\n for ( int i = 0; i < 5; i++) {
\n digitalWrite(redLEDPin, LOW);
\n digitalWrite(greenLEDPin, LOW);
\n digitalWrite(blueLEDPin, LOW);
\n
\n digitalWrite(redLEDPin, HIGH);
\n digitalWrite(vibMotorPin, HIGH);
\n delay (500);
\n digitalWrite(redLEDPin, LOW);
\n digitalWrite(vibMotorPin, LOW);
\n delay (500);
\n
\n }
\n }
\n}<\/div><\/td><\/tr><\/tbody><\/table><\/div>\n","protected":false},"excerpt":{"rendered":"
My stupid pet trick started at the junk shelf, where I happened to find an old Zip drive, I liked the idea of having a clean translucent case to hide my dirty electronic circuitry crafting skills. I knew I wanted it to have one obvious control and others which are hidden and discrete, that effect […]<\/p>\n","protected":false},"author":2,"featured_media":0,"comment_status":"open","ping_status":"open","sticky":false,"template":"","format":"standard","meta":{"ngg_post_thumbnail":0,"footnotes":""},"categories":[5],"tags":[],"class_list":["post-211","post","type-post","status-publish","format-standard","hentry","category-p_comp"],"_links":{"self":[{"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/posts\/211","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/users\/2"}],"replies":[{"embeddable":true,"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/comments?post=211"}],"version-history":[{"count":12,"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/posts\/211\/revisions"}],"predecessor-version":[{"id":218,"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/posts\/211\/revisions\/218"}],"wp:attachment":[{"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/media?parent=211"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/categories?post=211"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/www.tamarziv.com\/itp\/wp-json\/wp\/v2\/tags?post=211"}],"curies":[{"name":"wp","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}
![\"ITP30-1\"](\"http:\/\/www.tamarziv.com\/itp\/wp-content\/themes\/tma\/images\/uploads\/ITP30-1.jpg\" "\\"ITP30-1\\"")
<\/p>\n![\"ITP30-10\"](\"http:\/\/www.tamarziv.com\/itp\/wp-content\/themes\/tma\/images\/uploads\/ITP30-10.jpg\" "\\"ITP30-10\\"")
<\/p>\n