Ks0288 keyestudio CNC GRBL V0.9
Keyestudio CNC GRBL V0.9
Introduction
Keyestudio CNC GRBL V0.9 is a motherboard developed for various robots such as laser engraving, CNC, writing robot and so on. It has complete interfaces with cheap price, and can connect external drive, very suitable for DIY or factory use.
Specification
- Microprocessor:MEGA328p
- Input voltage: DC 12V
- File supporting format:Gcode
- Supporting machine structure:CNC,laser engraving,writing robot.
Pin Explanation
Wiring Diagram
Install Driver and Development Environment Software IDE
(1)Install Diver Software
For different operating system, there may be slight difference in installation method. Below is an example in WIN 7.
a.When you connect Keyestudio CNC GRBL V0.9 to your computer at the first time, right click “Computer” —>“Properties”—> “Device manager”, you can see “USB2.0-Serial”. Shown below.
b.Click “USB2.0-Serial”, select “Update Driver software”.
c.Then, click “Browse my computer for driver software”.
d.Find the “usb_ch341_3.1.2009.06” file.
e.Click “Next”,Installation completed; click “Close”.
f.After driver is installed, go to “Device manager” again. right click “Computer” —> “Properties”—> “Device manager”, you can see the Board and Com port as below figure shown.
thumb
(2) Install Development Environment Software IDE
a.Double click arduino-1.5.6-r2-windows to start.
Select “I Agree”to accept license agreement.
b.Select components to install and click “Next”.
c.Click “Browse” and select another folder. Click “Install” to start the installation.
d.Finally, wait for a few minutes to finish.
Testing
Open Arduino IDE, compile and upload the below code to keyestudio CNC GRBL V0.9, then wire it up as above connection diagram, you can check every interface function.
Code:
#define Light1 13 #define Light2 A1 #define Light3 A2 #define Light4 A3 #define Light5 A4 #define Light6 A5 #define EN1 8 #define X_DIR 5 //X axis direction control of stepper motor #define Y_DIR 6 //y axis direction control of stepper motor #define Z_DIR 7 //z axis direction control of stepper motor #define X_STP 2 //x axis stepper control #define Y_STP 3 //y axis stepper control #define Z_STP 4 //z axis stepper control #define X_LIMIT 9 //X limit #define Y_LIMIT 10 //Y limit #define Laser 11 //motor or laser controlling pin #define Z_LIMIT 12 //Z limit #define E_LIMIT A0 //E limit const int Button_A7 = A7; const int Button_A6 = A6; int Button_value_A7 = 0; int Button_value_A6 = 0; int Button_valueX = 0; int Button_valueY = 0; int Button_valueZ = 0; int Button_valueE = 0; void setup() { pinMode(Light1, OUTPUT); pinMode(Light2, OUTPUT); pinMode(Light3, OUTPUT); pinMode(Light4, OUTPUT); pinMode(Light5, OUTPUT); pinMode(Light6, OUTPUT); pinMode(EN1, OUTPUT); pinMode(X_DIR, OUTPUT); pinMode(Y_DIR, OUTPUT); pinMode(Z_DIR, OUTPUT); pinMode(X_STP, OUTPUT); pinMode(Y_STP, OUTPUT); pinMode(Z_STP, OUTPUT); pinMode(Button_A7, INPUT); pinMode(Button_A6, INPUT); pinMode(E_LIMIT, INPUT); pinMode(X_LIMIT, INPUT); pinMode(Y_LIMIT, INPUT); pinMode(Z_LIMIT, INPUT); Serial.begin(9600); } void EN() { digitalWrite(EN1, LOW); } //stepper motor turns and reverse void turn(boolean dir, int steps) { EN(); digitalWrite(X_DIR,dir); digitalWrite(Y_DIR,dir); digitalWrite(Z_DIR,dir); delay(100); for(int i=0;i<steps;i++) { digitalWrite(X_STP, HIGH); digitalWrite(Y_STP, HIGH); digitalWrite(Z_STP, HIGH); delayMicroseconds(100); digitalWrite(X_STP, LOW); digitalWrite(Y_STP, LOW); digitalWrite(Z_STP, LOW); delayMicroseconds(100); } } //laser is on void Laser_ON() { digitalWrite(Laser, HIGH); delay(500); //digitalWrite(Laser, LOW); //delay(500); } //laser is off void Laser_OFF() { digitalWrite(Laser, LOW); delay(500); //digitalWrite(Laser, LOW); //delay(500); } void loop() { Button_valueX = digitalRead(X_LIMIT); if(Button_valueX == LOW) { digitalWrite(Light3, HIGH); turn(true, 4000); } else { digitalWrite(Light3, LOW); } Serial.print("Button_valueX = "); Serial.println(Button_valueX); Button_valueY = digitalRead(Y_LIMIT); if(Button_valueY == LOW) { digitalWrite(Light4, HIGH); turn(false, 4000); } else digitalWrite(Light4, LOW); Serial.print("Button_valueY = "); Serial.println(Button_valueY); Button_valueZ = digitalRead(Z_LIMIT); if(Button_valueZ == LOW) digitalWrite(Light5, HIGH); else digitalWrite(Light5, LOW); Serial.print("Button_valueZ = "); Serial.println(Button_valueZ); Button_value_A7 = analogRead(Button_A7); if(Button_value_A7 == 0) digitalWrite(Light1, HIGH); else digitalWrite(Light1, LOW); Serial.print("Button_value_A7 = "); Serial.println(Button_value_A7); Button_value_A6 = analogRead(Button_A6); if(Button_value_A6 == 0) digitalWrite(Light2, HIGH); else digitalWrite(Light2, LOW); Serial.print("Button_value_A6 = "); Serial.println(Button_value_A6); Button_valueE = analogRead(E_LIMIT); if(Button_valueE == 0) { digitalWrite(Light6, HIGH); Laser_ON(); } else { digitalWrite(Light6, LOW); Laser_OFF(); } Serial.print("Button_valueE = "); Serial.println(Button_valueE); }
Documents
File PDF:
https://drive.google.com/open?id=1hXF70f-AXuTXkqc-TjlTgo9xQCixq3Z-
Reference Link
https://drive.google.com/open?id=1_4sXpnYjZugHtxnEWnQZkfyHRzZPSZpr