Configuration

Open the “System” menu and click on “Configuration”.

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At any step in the configuration, you’ll need to hit the “SAVE” button in order for your changes to take effect.

General

The general tab contains the default machine settings and generic configuration that are not specific to other tabs. Hover over the icon on the interface to see a description of each feature.

Name	The name of your printer. Used for interface, logs and for online features
Architecture	The type of motion used, from a mechanical perspective. Currently available: Cartesian CoreXY
Time zone	Local time zone, used for syncing time and provide accurate data for interface and cloud features.
Auto Sync	Enabled: Automatically get the local time from an online clock source. Disabled: Manually set local machine time. An onboard RTC will keep the time even during power off.
Current time	With Auto Sync Enabled: Option is greyed out. With Auto Sync Enabled: Set the current time
Change login information	Config button will bring a new screen with a toggle for enabling authentication. Set a username and password to protect the machine.
Default speed	Default machine speed for movements when no feed using the F GCode has been specified or after a pause.
Rapid move max speed (g0)	Maximum speed for movements starting with G0 when no feed using the F GCode has been specified.
Linear move max speed (g1)	Maximum speed for movements starting with G1 when no feed using the F GCode has been specified.
Max acceleration	Maximum acceleration for G0 and G1 moves, for any axis.
Minimum corner speed	Lowest speed allowed while going through a change of direction. This setting avoids coming to a critical stop and ensures smooth motion. This setting affects how deceleration behaves and can be affected by the acceleration setting, the angle of change of direction and the feedrate. Increasing the value will result in a faster print, but with less smooth motion due to greater acceleration. For a high value, the machine should have strong motors, low inertia and rigid motion system. Lowering the value will result in slower print, but with very smooth motion and low vibration. Ideal for heavy systems and for motion systems that aren’t rigid.
Junction deviation distance	Defines how much a toolpath can deviate from an ideal (sharp) corner. When two lines of GCodes meet, a small corner is added to help smooth the transition. The junction deviation distance is the distance between the new smooth curve and the ideal corner. It is suggested to adapt this value to the size of your printer and the precision you’d like to obtain at the corners. Increasing the value can make the print faster and smoother at the cost of precision at the corners. Lowering the value can make the corners sharper, at the cost of speed and acceleration.
Pressure compensation K coefficient	Defines a value used to fine-tune the extrusion process, ensuring consistent and accurate material flow. It represents a “Spring” factor the polymer has. It can be used both with pellet and filament extruder. It helps the printer compensate for pressure changes in the nozzle during speed variations, resulting in smoother prints with fewer defects. Usually, the more flexible a material is, the higher the value. A calibration is required for each polymer, each extrusion system, and each nozzle size. A higher nozzle will usually have a lower K coefficient. A direct drive system will usually have a lower K coefficient. Values usually range from 0.02 to 0.10 for filaments like HIPS, ASA, PLA, PETG and PA.
Pressure compensation calibration	Automatic tool used to generate and execute a calibration routine to help you determine the right K coefficient. Once clicked, the tool will need a few parameters in order to work. The calibration tool will print simple lines and the result is very visual and easy to determine. The K coefficient is iterated through many lines and the ideal line must be chosen based on visual inspection of the result. The path are separated between slow and fast segments in order to visualize the pressure difference in the extruder. A first slow segment is printed, then a fast one, then another slow. K Coefficient Min: The starting K coefficient value of the calibration routine. This value will usually be 0 for rigid polymers. K Coefficient Max: The ending K coefficient value of the calibration routine. K Coefficient Step: How many lines do you want. Usually, a factor will give good results at +- 0.01 of its ideal value. Depending on what is the delta between the “K Coefficient Min” and “K Coefficient Max”, steps resulting in a 0.01 gap is ideal. Layer Height: Height of the layers printed. A single layer will be printed. Ideally, choose a Layer Height similar to your slicer settings for this material and nozzle. Usually between 10% and 50% of your nozzle size. Line Width: Line Width of the layers printed. A single layer will be printed. Ideally, choose a Line Width similar to your slicer settings for this material and nozzle. Usually between 110% and 200% of your nozzle size. Extruder Temp: Temperature for melting the polymer being tested. Bed Temp: Temperature for the heated bed for the polymer being tested. Slow Printing Speed: The printing speed for the slow segments of the calibration routine. The slow print speed is usually between 10mm/s to 25mm/s. Fast Printing Speed: The printing speed for the fast segments of the calibration routine. The fast print speed is usually between 30mm/s to 100mm/s. Slow Extrusion Length: The distance to extrude for the slow portion. Depending on the printable area, a little bit less than 25% of the maximum length on the X axis. Fast Extrusion Length: The distance to extrude for the fast portion. Depending on the printable area, a little bit less than 50% of the maximum length on the X axis. Retraction Length: A standard retraction for your extruder. Usually 0.5mm - 1.0mm for a direct drive extruder.
Heater number mode for M104/109	Changes how the firmware behave with tools selection in regard of heating with commands such as M104 and M109. Disabled: M104 T0 will refer to the Tools as configured in the Tools section. A tool can be a single or a combination of heater controllers, thus T0 will heat them all at once. Enabled: M104 T0 will refer to the heater number as configured in the Heaters section. A heater is a single heater controller, thus T0 will heat a single heater only with the ID of 0.
Feedback Loop flag errors	Add error flags in the “Faults” menu when a motor isn’t moving within a certain tolerance from the path planned. This problem can occur when a GCode is asking too much from the machine, if the motion system is generating too much friction, or any other reasons why a motor axis would be overloaded.
Feedback Loop auto correction	When a motor is not keeping up with the path planned and is under fault for a while, the print will gradually be slowed down in order to let the motor catch up and minimize the position errors.
Bed Mesh	The Bed Mesh Calibration tool is an automated tool that generates and executes a calibration routine to determine the Bed Mesh. The bed mesh is a matrix of height points taken from your print surface that significantly improves first layer adhesion by adjusting the Z height during printing. This tool requires a few parameters to function. Points per axis: This setting determines the number of points measured along each axis (X and Y) to create the mesh. A higher number of points results in a more detailed mesh. As an example, 3 points per axis will generate 3 rows along X and 3 columns along Y for a total of 9 points. Scan height: This parameter sets the height at which the probe will move above the bed during the scan. Fade height: This value determines the height at which the Z offset will gradually fade out. Probe speed: This setting controls how fast the Z axis moves during the scanning process. X axis padding: This parameter specifies the distance to add to the left and right sides of the bed when scanning. Y axis padding: This parameter specifies the distance to add to the front and back of the bed when scanning. X axis offset: This value allows you to shift the entire mesh left or right along the X-axis. Y axis offset: This value allows you to shift the entire mesh forward or backward along the Y-axis. Probe endstop input: This setting defines the input used to connect the probe's endstop. Input type: This option specifies the type of input signal used by the probe's endstop.
Screen orientation	The screen orientation allows to rotate the user interface depending on how the screen has been installed on a machine. Normal: The default screen orientation. Left: Rotates the screen 90 degrees to the left. Right: Rotates the screen 90 degrees to the right. Rotate Pointer: Enabled: Rotates the touch interface along with the screen. Disabled: The touch interface does not rotate; it remains in its original orientation.
Settings	The Settings can be exported for backup or shared between productions to speed up the process. Export: Save the settings to a file called “exportSettings.json” Import: Select the json settings file you wish to import
Primary color	Principal color for the interface theme. Buttons, header and footers will be of this color.
Secondary color	Secondary color is for accent and less obvious features on the interface.
Logo	Replace the image in the upper left corner with your own.

Devices

The device tab displays details about the software installed on your machine. It also lists and organizes all detected modules, including their version information and serial numbers.

Installed Aurora version: The version currently installed on your device
Packaged Aurora Firmware version: The latest version available for your device
Aurora Bootloader version: The bootloader version currently installed on your device

The device table lists all the modules connected and detected through the “Discovery”. The “Discovery” can be launched by clicking on the “DISCOVER DEVICES” button. The table shows the following information:

Type: Type of device, such as I/O Module, Step Dir Module, etc.
Dyze Id: Module ID for addressing the devices. This ID comes from the “DIP Switches” configuration, see the documentation in the Wiring section.
Serial: A unique serial number for each device.
Version: The version currently installed on this device
Package Version: The latest version available for this device
Bootloader Version: The bootloader version currently installed on this device

Motors

The motor tab groups all the motors present in the systems: Stepper and Servos. In this section, basic parameters are configured for each motor individually. In the later sections, these motors will be assigned to axes or tools.

Below is a list of configurations that are common for both a stepper and a servo:

ID	The Stepper or Servo ID is automatically generated by the Aurora as will be used to reference this motor with Axes and Tools.
Max speed	Maximum linear speed for this motor to safely move its load. This value can be tedious to determine theoretically and is preferred to be obtained by testing directly on your machine. Running a few movements and determining when the motor fails is quick and effective. It is suggested to keep a margin of safety once the limit is found. Factors like weight to move, screw or belt pitch and motor specification can greatly affect this value. For a belt system, the values usually range from 150 mm/s up to 1000mm/s. For a screw system, the values can range from 8mm/s up to 250mm/s depending on the screw pitch.
Max acceleration	Maximum acceleration for this motor. A higher value will allow faster speed change and reduce the print time, but vibration can occur if the system isn’t rigid enough. Also, higher acceleration will require more peak torque from the motors. Factors like the system inertia, carriage weight, and motor specification can greatly affect this value.
Endstop	Assign an endstop to this motor. When an endstop is assigned, the axis will expect to trigger it during a homing operation. Only set an endstop if more than one motor will be associated with a single axe and if both of them have a endstop. For example, if you have two motors for the Y axis and both of them have an endstop, configure the endstop here in the “MOTORS” tab. Otherwise, leave it empty.
Endstop input type	Select the type of input for this endstop. Always make sure that your endstop type matches the wiring chosen in Endstop, Switches and Probes and will safely trigger if the cable is broken. Failing to do so can lead to collisions as the Aurora can’t tell the difference between a triggered endstop and a broken wire. Normally Open: Closes the circuit when triggered. Normally Closed: Open the circuit when triggered.
Clock wise	Enabled: Motor will turn Clockwise Disabled: Motor will turn Counterclockwise

For motors configured on the Z axis, two settings are added as shown below. These positions are required to properly adjust the bed tilt when more than one motor controls the height of the bed. The bed tilt compensation will adjust the height of each motor individually.

X position	Motor position from the bed origin along the X axis. Can be a negative value.
Y position	Motor position from the bed origin along the Y axis. Can be a negative value.

Stepper

Steppers need to be added manually and assigned to a module and ports. The button “ADD STEPPER” will create a blank motor for us to configure.

Below are the configurations for a stepper motor:

Module ID	Correspond to the Step-Dir Module ID in which this stepper is connected. This ID should be automatically detected from the Device Tab and be available in the list.
Port	Correspond to one of the four ports on the Step Dir Module where this stepper is connected. Refer to the Stepper section.
Steps per rotation	This value comes from a combination of your type of stepper and your stepper driver configuration. Most NEMA steppers are 200 steps per turn (1.8° per step), but some can be 400 (0.9° per turn). The stepper driver usually have a “microstepping” feature enabling smoother motion. The microstepping feature usually ranges from 2 to 256 with steps of a power of 2. The most common value is 16 microsteps per step. Combining the steps per revolution with the microstepping, you will obtain the steps per rotation. With a stepper of 200 steps per turn running on a 16 microstepping stepper driver configuration, the steps per rotation is 3200 (200 * 16).
Steps per millimeter	The steps per millimeter correspond to the number of steps required to advance by one millimeter. This unit can be first calculated theoretically and then finetuned to get the maximum precision and to compensate for a tolerance in the pulley. Belt System: Can be found by the following formula: Steps per turn / Pulley pitch perimeter. Considering a 20 teeth GT2 pulley, the pitch perimeter is simply 2mm * 20 = 40mm per turn. With our steps per rotation configured at 3200, the steps per mm is 3200/40 = 80. Belt aren’t usually very precise, this a proper calibration using precision measurement is strongly advised as a fine-tuning. Results may vary by a few percent compared to the theoretical value. Screw System: A screw system is ordered with the pitch which corresponds to the movement for a full turn. The formula is simple: Step per turn / Advance per turn. In this case, a 4mm pitch screw will result in a 3200/4 = 800 steps per mm. Usually, screws, especially when they are ground, have excellent tolerances.
Has Encoder	Enabled: Motor has an encoder attached and connected in the same port number. Disabled: Motor has no encoder.
Encoder resolution	The encoder resolution in counts per revolution. Pay attention to the encoder specifications, as sometimes Counts per revolution can be mistaken with Pulse per revolution. For a quadrature encoder (AB), counts is usually 4*Pulses. In case of confusion, take the biggest number from the datasheet.
Reverse Encoder	Enabled: Encoder will consider the logic as it is wired Disabled: Encoder will consider the logic as reversed

Servo

Servos are added automatically from the discovery. Each servo should have its own unique ID set by the DIP Switches.

Combined with the general configuration elements, the servo has a single one unique for itself:

Distance per rotation	The distance travelled by a full rotation of the servo. This can be the pitch of the screw or the pitch perimeter of a pulley.

Axes

The “AXES” tab is where you determine the physical limits of the axis, the motors attached to them, endstop if the is a single one for one axis.

To configure your axis system, start by adding an axis by clicking on the “ADD” button. Some machines like a laser cutter or engraver only need 2 axes, while a more complex IDEX 3d printer needs 4 axes.

Below are the configurations for an axis:

Axis	Choose which axis you’d like to configure. Choose between X, Y or Z.
Endstop	Assign an endstop to this axis. When an endstop is assigned, the axis will expect to trigger it during a homing operation. Only set an endstop if a single one is associated with this axis. For example, if you have one or more motors for the Y axis and only one of them has an endstop, configure the endstop here in the “AXES” tab. Otherwise, leave it empty and configure each motor with its own endstop in the “Motor” tab.
Endstop input type	Refer to Motors.
Endstop position	Description: The position of the endstop within the axis. Choose between “Start” or “End” Start: Axis minimum (toward zero) End: Axis maximum
Endstop offset	Offset between the endstop trigger and the actual home position. This setting is most commonly used with the Z axis with a laser, capacitive or other non-contact sensor where the nozzle is at a distance from the sensor focal point. For example, if a sensor trigger point is 3.5mm lower than the nozzle position, the Endstop offset should be -3.5mm.
Minimum	When an endstop is set to home to the “Start” position, this value will be set. Otherwise, it will be a software limit for movements.
Maximum	When an endstop is set to home to the “End” position, this value will be set. Otherwise, it will be a software limit for movements.
Motors	Attached motors to this axis. One axis may have more than one motor, depending on the mechanical configuration. When more than one motor is attached to an axis, all motors will be in sync.

Heaters

The “Heaters” tab is where you add each individual heater installed in your machine. This includes any bed heater, chamber heater, hotend heater, pellet extruder barrel heater, etc.

To configure your heaters, start by adding a heater by clicking on the “ADD” button. For example, a Pulsar will have 3 heaters: Top, Middle and Bottom.

Below are the configurations for a heater:

Name	Define a name for this heater. This name will appear in different places on the interface, especially in Control and Temperature.
Module IO	Choose the Module IO ID defined by the DIP Switches.
Port	Choose the port on which the Power&Thermal submodule is installed for this heater. Refer to the Overview for the port numbers, or check on the PCB silkscreen.
Temperature limit	Maximum temperature the sensor is rated for. Ideally, a margin of safety is suggested to avoid any damage caused by thermal inertia. For example, a 300°C sensor should have its temperature limit set at 285°C in case the heater is stuck and constantly heating, the safety will trigger and shut the power at 285°C, leaving a 15°C margin for the residual energy to travel.
Pwm limit	Limit the maximum power for this heater. A value of 50% will limit the duty cycle to 50%. This setting can be useful when heaters are too powerful for a certain application where the temperature rise is too aggressive. It can happen with an extrusion system designed for high-temperature used with a low temperature polymer. Please note that reducing the power isn’t always needed and should only be used with problematic cases. Reducing power can potentially reduce the maximum flow if not properly configured.
Sensor type	Defines the type of sensor attached to this heater. Currently, 3 types are supported:Thermistor_300: Dyze Design 300° Thermistor based on Shibaura PSB-S3 Thermistor_500: Dyze Design 500° Thermistor based on Shibaura Ns III PT100: Generic PT100
P	P factor for the PID controller
I	I factor for the PID controller
D	D factor for the PID controller
PID Temperature	Temperature at which the PID Autotuning will be running. See Autotune for more details.

Autotune

PID autotuning is a process that automatically finds the best PID control parameters to minimize temperature error, leading to improved print quality. A heater will cycle its power for a few cycles between ON and OFF and coefficient values are then determined from the curve behavior.

Click on the “AUTOTUNE” button to open the autotune window.

Temperature	Temperature at which the PID Autotuning will be running.
PwmLimit	Set the same value as in Heaters.

Fans

The “Fans” tab is where you add each individual fan installed in your machine that needs to be controlled dynamically. This does not take into account the fans that are always ON and wired directly into a power supply. This includes any active cooling fans, HotEnd heatsink fan, bed cooling fan, etc.

To configure your fans, start by adding a fan by clicking on the “ADD” button.

Below are the configurations for a fan:

Name	Define a name for this fan. This name will appear in different places on the interface, especially in Control and Temperature.
Module IO	Choose the Module IO ID defined by the DIP Switches.
Port	Choose the port on which the Power&Thermal submodule is installed for this heater. Refer to the Overview for the port numbers, or check on the PCB silkscreen.
Minimum speed	Defines the PWM percentage minimum required to rotate the fan. Some fans will have a dead zone where a range from 0% to a certain value, for example 20%. Any value in that range won’t make the fan rotate. By setting the “Minimum Speed” to 20%, once activated, the fan PWM control will be adjusted between 20% and 100%.

Accessories

The “Accessories” tab is where you add accessories such as:

• Bed Heater
• Chamber Heater
• Bed Sensor
• Orthus Filament Monitor
• Sentinel Filament Monitor
• Micro Servo
• Pause Signal
• Door Lock
• Custom IO
• Webcam
• Temperature Sensor

To configure your accessories, start by adding one by clicking on the “ADD” button.

Below are the general configurations for an accessory:

Accessory number	Defines a unique number for the accessory
Type	For this example, “BED” should be chosen.
Name	Define a name for this accessory. This name will appear in different places on the interface, especially in Control and Temperature.

Below are the general configurations for a heating accessory, such as the Bed Heater, Chamber Heater:

Temperature Setpoints	Enter values that you often use for a heater accessory. These values will be shown directly on the interface as a quick access. Here is an example of setpoints: And how it looks on the control tab:
Heaters	Associate a heater with this accessory.

Below are the general configurations for an accessory attached to a moduleIO:

Module IO	Choose the Module IO ID defined by the DIP Switches.
Port	Choose the port on which submodule is installed for this sensor. Refer to the Overview for the port numbers, or check on the PCB silkscreen.

Bed Heater

The Bed Heater is an accessory designed to control your build platform temperature. The bed heater uses the general configuration and the heater configuration attributes.

Chamber Heater

The Chamber Heater is an accessory designed to control your build environment temperature. It uses the general configuration and the heater configuration attributes.

Bed Sensor

The Bed Sensor is an accessory designed to probe the bed. It can be used for mesh calibration, and extrusion calibration, depending on the sensor type. It uses the general configuration and the ModuleIO configuration attributes.

Below are the configurations for a Bed sensor:

Sensor Type	Choose the type of sensor attached to this accessory: Normally Closed: This type of sensor can be passive (endstop) or active (NPN or PNP sensor) and is usually paired with a GPIO submodule. Normally Open: Same as “Normally Closed, with a different logic state. Laser: This type of sensor is usually paired with the Laser SubModule.

Orthus Filament Monitor

The Orthus Filament Monitor is a filament motion sensor that tracks the filament position with great precision. The Orthus generates a series of pulses depending on the movement. Any equivalent type of sensor can be attached. It uses the general configuration and the ModuleIO configuration attributes. It is usually paired with a GPIO Submodule.

Below are the configurations for a Orthus Filament Monitor:

Pulse per mm	Defines how many pulses will be generated for 1mm of movement. Depending on the Orthus precision setting, this value may vary. Check the Orthus Documentation (opens new window) for more information.
Detection Length	The detection length is the range of distance where the firmware will check if the distance travelled is within the permitted deviation. For example, if the detection length is set to 4mm, the firmware will check over the past 4mm if the Orthus sent the right amount of pulses. A higher will make the filament monitor logic slower to react, but less prone to false positives. 4mm is usually a good starting point for rigid direct drive system.
Permitted deviation min	Defines the percentage accepted under the nominal value. For example, a setting of 20% will allow an actual flow of 80% before triggering an alarm.
Permitted deviation max	Defines the percentage accepted over the nominal value. For example, a setting of 20% will allow an actual flow of 120% before triggering an alarm.

Sentinel Filament Monitor

The Sentinel Filament Monitor is a filament presence sensor. The Sentinel generates a high output if there is a filament inside the sensor. Any equivalent type of sensor can be attached. It uses the general configuration and the ModuleIO configuration attributes. It is usually paired with a GPIO Submodule.

Micro Servo

A Micro Servo is also known as a RC Servo. Most of them have a limited range of motion, usually under 360°. These accessories are very useful for activating and deactivating mechanical devices. It uses the general configuration and the ModuleIO configuration attributes.

⚠️	Each Micro Servo has its own specification. The PWM signal requirements can greatly vary from one model to another. Some models can accept a 3.3V PWM signal, where a GPIO submodule is adequate. Otherwise, a Power&Thermal SubModule is required to accept a higher voltage than 3.3V.

Below are the configurations for a Micro Servo:

Rest angle	Defines the angle where the motor will be set upon initialization.

Pause Signal

The pause signal is an accessory to pause the print using hardware. It is usually attached to a momentary push-button. It uses the general configuration. The button must be wired directly on the Aurora Endstops connectors.

Door Lock

The Door Lock is an accessory to protect the machine, the print and the user by controlling access to the door. It uses the general configuration and the ModuleIO configuration attributes. It is usually paired with a Power&Thermal Submodule.

Below are the configurations for a Orthus Filament Monitor:

Automatic lock while printing	Defines if the door must be locked during printing. The printing state also account for "Pausing" and “Resuming”, when the machine is moving to get to these states. See Status indicator for more details Enabled: Door will lock when in printing state Disabled: Door will not lock when in printing state
Output Type	Defines the output type for the Power&Thermal port associated with the Module IO. Depending on the type of mechanism, the logic of activation can be switched from this option. Active High: Door will be locked using a high signal output. Active Low: Door will be locked using a low signal output.

Custom IO

The Custom IO is an accessory to give the user the freedom to control an external device not natively supported by the Aurora. It uses the general configuration and the ModuleIO configuration attributes. It is usually paired with a Power&Thermal Submodule or a GPIO SubModule.
To control the IO using GCode, refer to the M42 command.

Webcam

The Webcam is an accessory that enables taking pictures and video of the current print. The Webcam is connected to the Aurora through USB. The accessory should detect the webcam automatically.

Temperature Sensor

The temperature sensor is an accessory where only the temperature input is used, and no heater is attached. It allows using a Power&Thermal Submodule for two separate applications. It uses the general configuration and the ModuleIO configuration attributes. Refer to the section Heaters regarding the sensor type.

Tools

The “Tools” tab is where you add tools such as:

• Pulsar
• DyzEnd
• Typhoon
• Atom
• Zephyr

Each tool has a number of preconfigured properties to speed up the configuration process.

⚠️	If the tool you are using isn’t in the list, please contact us so we can add it based on your request.

To configure your tool, start by adding one by clicking on the “ADD” button.

Below are the general configurations for a tool:

Tool Number	Defines a unique number for the tool
Type	Select the tool type: Pulsar: 3 heating zones pellet extruder DyzEnd: 1 heating zone filament extruder Typhoon: 2 heating zones filament extruder Atom: 2 heating zones pellet extruder Zephyr: 2 heating zones filament extruder
Name	Define a name for this tool. This name will appear in different places on the interface, especially in Control and Status.
Low Extrusion Speed	Set a default feed rate for the “Control Menu” for the “Low Speed” option.
High Extrusion Speed	Set a default feed rate for the “Control Menu” for the “High Speed” option.
Filament Size	Choose your extruder filament size: 1.75mm 2.85mm
Motor	Choose which motor defined in the “MOTORS” tab associated with this tool.
Temperature Setpoints	Enter values that you often use for this tool. These values will be shown directly on the interface as a quick access, as shown on the Accessories section.
#### Heater	Attach a heater to a tool. Depending on the extruder type selected, a different number of heaters are required. Attach a different heater for each one.
Fan	Attach a fan to the tool. This fan will be activated and deactivated based on the “Fan act. Temp” to reduce wear and noise.
Fan act. temp	Defines the temperature at which the fan will start. Setting a value of 60°C will prevent the fan running when the extrusion system is at room temperature.
Part Cooling Fan	Attach a fan to cool the printed part. This fan will be associated with the corresponding GCode to start, stop, and adjust the speed during a print.
Filament Monitor	Attach a filament monitor to the tool. This filament monitor will associate its readings with the motor from this tool.

Cloud

The “Cloud” tab is where you configure and register your license for the cloud features such as the replay.

Overview

There are 3 main states of the link between the Aurora™ mainboard and the cloud. The initial state is the state when the board is leaving Dyze Design. From there, the board is sent to a manufacturer for “Configuration”, which links the board to the specific datacenter associated with that manufacturer. Then, the board is received by an end user which registers the board to his own organization.

Simplification of the different actors and elements of the DyzeDesign cloud

Each manufacturer working with DyzeDesign will have their own datacenter/website that is entirely separate from others. Groups of end users buying and using 3D printers with the Aurora board are called “Organizations”. Those organizations are used to manage and separate devices, data and other information like the shared cloud storage within those groups and their printers.