The following sections list the release notes for publically released versions of Altium designer module 17 free Designer Build : Date : 28 February Build : Altium designer module 17 free : 8 February Build : Date : 18 January Build : Date : 28 December Build : Date : 5 December Build : Date : 16 November Public Release Notes for Altium Designer.
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Altium designer module 17 free do not want to leave feedback. Updated Release Manager, so in Folder mode, the user has the choice to release to a file or a folder. Inherit the target folder name from the recognized Configuration name. Allow renaming custom section names better restructure data using custom release structure. Relieved restriction on the custom section target items in Release Manager, so they can point to other types except the binary files.
Fixed import preferences dialog so it no longer shows an incorrect icon in the import settings dialog. Fixed fee bug that caused AD to crash altjum navigating to an item in Vault Explorer that altium designer module 17 free released with a custom lifecycle. Fixed regression bug in Vault Explorer where random footprint preview shown for different parts when a component has a simulation model.
Fixed bug that caused the Release to Vault hotkey to not work BC Fixed bug that caused incorrect designators to be assigned to "not fitted" components BC Fixed bug that caused an access violation in module 'WorkspaceManager. Fixed bug where TC2 mode does not work when a user logged into Vault as an administrator while ignoring TC2 configuration. Fixed issue with DecimalSeparator being absent in scripting system due to an update in an underlying runtime library BC Fixed bug that prevented generating BOMs from old designs created with templates in the project with relative paths.
Fixed bug where "Object reference not set to an instance of an object" error message appears when creating a managed project.
Fixed regression bug where access violation appears after performing left-to-right selection during the holding altium designer module 17 free button. Footprint Parameters - Fixed a bug where parameters are not transferred to a PCB in the case where you use an alternate part with the same footprint. Fixed a bug that prevented autosave from saving a backup file BC Fixed a regression bug that occurred when an ECO was generated.
Alternate parts with different footprints were deleted from all channels except the first channel. Draftsman - Fixed a bug that caused an access violation when printing a document with a custom table, through OutJob.
Fixed a bug that caused an access violation to occur during Layer stack table move or change Draw Board Map option. Fixed bug that caused an access violation in module 'AdvSch. Fixed a bug where a Supplier search in AD Fixed a bug where Embedded SVG altium designer module 17 free components are moving during navigation and have low-resolution graphics in outputs BC Improved Cross select mode with new preferences to control which object types are included in cross selections.
Fixed an issue with the cross probe tool, cross-select mode no longer interferes with selections made. Fixed a bug where hatched Polygon Pour with surrounding pads with arcs are approximated with tracks BC Fixed a bug where a decimal Watts value couldn't be filled in CMPLib if a "comma" was selected as the default decimal indicator. Fixed a regression bug that didn't allow a network path to be used as a project folder location.
Fixed a bug where the. Fixed a bug that changed the name of designfr configuration. If a backslash was used in the configuration name it was changed to aotium underscore. This name change then makes the configuration backward incompatible with previous versions Fixed a bug where defining coordinates for String via the PCB Inspector always moves String using the absolute origin.
Fixed a bug where a locked icon is still visible after being locked. Fixed a bug where differential pair net labels are case sensitive deeigner this altium designer module 17 free DRC errors when the project is compiled. Fixed a bug where '. Fixed a bug that caused errors while updating a PCB from a schematic. Fixed a bug where some symbols have no information when opened in Vault. Fixed a bug moduoe 3D holes to appear in the board with zero altium designer module 17 free thickness BC Fixed a bug that would not allow a STEP file to be exported to a folder whose name path includes Cyrillic symbols or an umlaut.
Improved mixed simulation with the addition of a Simulation Probe Manager to optimize the functionality and flexibility of altium designer module 17 free probes. Fixed a bug causing redundant hollows in the core to be displayed altium designer module 17 free through-holes on the bottom side of the board.
Added support for simulation profiles to improve the functionality and flexibility of simulation runs. Back drilling information is also available for tree in the Drill Table. Fixed a bug causing zoom and scroll commands to behave incorrectly in a CAM document after importing Gerber files. Fixed a bug causing Altium Designer to crash on startup when username contains Korean characters.
Fixed a deigner causing DIP. Improved Polygon cutouts so they now produce corner-rounds for rectangular Pad objects and Internal Plane cutouts produce corner-rounds for rectangular Pad holes BC Improved Un-routed net rule with new option to 'Check for incomplete connections' BC Improved Interactive routing to include the display of Net Class info in the Head's Up Display and the ability to swap to opposite route point while multi-routing and diff pair routing.
Fixed a altium designer module 17 free causing "Abstract Error" when searching for and removing an extension in the "Installed" section. Improved ECO performance by optimizing the speed of Import Changes during the initial import on large designs. Fixed a bug causing Room Width Rule to work incorrectly during interactive routing when the Board Frree clearance rule is also active. Fixed a bug, which caused analyzation to take a long time if the design includes From-to and accordion objects.
Fixed a bug causing Electrical Clearnance Rule to not check clearances between split planes as well as between cooper polygons on signal layers BC Improved Smart copper editing to include options for merging and subtracting polygons, as well as the addition of improved editing BC Fixed a bug causing Flip component command to not work correctly for test point properties BC Improved Cross Select Mode now allows selection of various types of object altium designer module 17 free can be configured through the Preferences dialog.
Fixed a bug causing Access Violations after deleting a variant with alternate parts created in a batch. Fixed a bug where probing waveforms during a transient simulation only displayed the Magnitude rather than Real value. Improved Allegro footprints import so that ComponentClearance constraint works properly by building artificial 3D bodies for certain components. Fixed a bug that caused the "Arrange Rooms" action to stop working BC Fixed a bug causing a constant error for Z-axis distance measurement between the board and 3D body face.
Improved query language with new function which allows for the conversion of engineering notation from string to number. Fixed a bug preventing Designator autoposition from updating after moving a selection BC Improved confirmation dialog when deleting mixed altium designer module 17 free of vias and traces with option to Ignore Locked Primitives.
Fixed a problem in the Signal Integrity tool causing false loops to be detected when arcs were present in the PCB routing. Fixed a bug causing artifacts from right and designed selection actions to display on schematic documents. Draftsman - Fixed a bug preventing regions for Components from displaying resigner when SilkScreen or AssemblyDrawing are selected as geometry source BC Fixed a bug altikm Access Violations when opening the Differences Panel in an unsaved document.
Alttium an issue with Update From Libraries dialog: the 'Add models found in Library, but not in sheet' option does not work unless the 'Update altium designer module 17 free models are the current models' is enabled.
Draftsman - Fixed an issue with the graphics draw order being ignored in a PDF export via the File menu. Fixed an issue where component pins of a schematic in PADS are in a different order after importing into Altium. Added "Show in library panel" action to the Preview grid popup menu, if the library is installed. Fixed a bug in cross select mode preferences.
Zooming option is now correctly saved and restored.
Have you ever wondered about the quality of the air you are breathing, or maybe, why you sometimes feel sleepy in the office or tired in the morning even after sleeping all night? Poor air quality can lead to many negative health effects as well as can cause tiredness, headaches, loss of concentration, increased heart rate and so on.
Monitoring the quality of the air may actually be more important than you realize. So, in this tutorial we will learn how to build our own Air Quality Monitor which is capable of measuring PM2.
I will explain how each of air quality parameters affect us and how the sensors work. The brain of this project is an Arduino Pro Mini board which in combination with a 2. We can see the measurements from all the sensors in real time, and if we click on a particular sensor, we will get values from the last 24 hours from that sensor. This is convenient, for example, if we want to track the air quality in our bedroom during the night.
We can turn off the screen for the night, and the next day we can check the values from each sensor individually. Nevertheless, now I will walk you through the entire process of building it and explain how everything works. At the end of this video, you will be able to build one on your own. This device has four main components or air quality sensors.
Particulates are the most harmful form of air pollution because they can penetrate deep into the lungs, blood streams and brain, causing many health problems. This sensor works on the principle of laser scattering. The sensor has a fan which creates a controlled airflow so the environmental particulates pass through a focused laser beam. The particulates cause light scattering which is detected by a photodiode and then converted into PM concentration with the help of its microprocessor.
I found the results of this sensor to be quite reliable and along PM2. As people emit carbon dioxide while respiration, the indoor concentration of CO2 can easily get very high.
CO2 is not only dangerous in high concentrations, but it can also cause drowsiness, tiredness, decrease our productivity level and so on. The sensor is using non-dispersive infrared principle for measuring CO2 in the air. An infrared source directs light through a tube which is filled with the air that we are measuring.
On the other side of the infrared source, there is an optical filter and an IR detector which measures the amount of IR light that passes through. The CO2 gas molecules which are present in the air that we are measuring absorb a specific band of IR light while letting some wavelengths to pass through.
So, the CO2 level is calculated according difference between the amount of light emitted and the amount of IR light received by the detector. The results from this sensor are also quite accurate. These are heated metal oxide sensors and their principle of work is based on detecting change in resistance at the presence of targeted gases. A specific electrical current pass through a metal substrate and the resistance changes according to the amount of gas present.
The target gas of the MQ sensor is just Ozone, which in a normal household can be generated by products like certain air purifiers, facial steamers, germicidal lamps that produce ultraviolet light and so on.
On the other hand, the MP sensor has multiple target gases, including alcohol, smoke, iso-butane, methanal and others. VOC stands for Volatile Organic Compounds and these are organic emission from products that we use on a daily basis like laundry detergents, cleaners, air fresheners, paint, makeup, and so on. VOCs can cause many negative health effects including headaches, irritation to eyes, skin reactions, dizziness and so on.
Disclosure: These are affiliate links. As an Amazon Associate I earn from qualifying purchases. The PM2. It works at 5V, but the receive RX logic level works at 3.
The CO2 sensor and the Nextion display also use serial communication. For reading the VOC and the Ozone sensors we use analog inputs of the Arduino, while the DHT22 temperature and humidity sensor uses a digital pin for that purpose.
The two transistors are used for activating the sensors heaters. We are also using a Real Time Clock module for keeping track of the time when storing the sensors values, and it uses the I2C communication. Now if we try to connect everything together, we will get quite a mess because of the many connections.
Altium Designer represents decades of innovation and development dedicated to creating a truly unified design environment. Striking the perfect balance between power and ease of use, Altium Designer has secured its position as the most widely-used PCB design solution on the market. I started with making the schematic for the project. Altium Designer has built-in libraries with basic electronic components, but even better you can search for components directly from manufacturers which makes sourcing components for your project very convenient.
From here you can also easily get access to data related to the components, like 3D models, footprints, dimensions etc. You can also create your own components libraries. I created most of the components for this project on my own, as I wanted to create my own 3D footprints for each part so that at the end, I would get the whole PCB in 3D.
I arranged the components as I wanted, and with just a simple click using the Auto Route feature, the software generated all traces automatically. If needed, we can manually create or adjust them. Also, we can set design rules how the auto routing will make the traces, set different widths for each net and so on. Nevertheless, I would like to thanks Altium for sponsoring educational content like this. If you would like to find out more about this software and also try it out, you can check out the links below.
You can also try the web based Altium viewer for project previews and file. Altium Designer files including the project file, libraries and. STEP files of the 3D models of the electronics components:. Here we can simply drag and drop the zip file and once uploaded we will get all visual information about our PCB.
After several days the PCBs have arrived. The quality of the PCB is great and everything is exactly the same as in the design. So, now we are ready to start assembling the PCB. I started by inserting and soldering the smaller components first, the resistors and the two transistors. Then we can solder the Arduino Pro Mini board in place. However, first we need to solder the pin headers to it.
Also make sure you have this exact same Arduino Pro Mini board with this layout of pins, because they can sometimes be different. Next, we can insert the DHT22 sensor in place. For that purpose, first we need to bend its pins 90 degrees. Sometimes I also use Blu-tack adhesive for keeping the components in place when soldering. The two capacitors used in this project are for stabilizing the power supply.
The power to the board will come from a mini-USB connector to which we can connect 5V. Right above the power supply connector we need to solder the two switches. One is for turning on and off the device, and the other is used when we want to upload a sketch to the Arduino board. Next, for soldering the DS Real Time Clock module again, first we need to bend the pins 90 degrees.
Once soldered we can insert the battery which keeps track of the time even when main PCB loses power. I soldered male pin headers to the cable that comes with the sensor, and so I was able to easily connect it to the PCB. For connecting the display to the PCB, I soldered four wires to the back side of the display connector and then connected them to the PCB. Of course, what we need to do now is to make some kind of box or case for it.
Download the 3D model at Thangs. The acrylic that I will use is 4mm tick which perfectly fit with the display. For making the opening for display, first I made two holes with a drill. Then I passed through a blade from a mini hacksaw and carefully cut the shape. Using a simple rasp, I smoothed out shape. Then using a 3mm drill I made all the holes for attaching the PCBs and connecting the two acrylic plates together. For attaching the PM2. Next, using some distance nuts we can join the two plates together.
By using one female and one male distance nut I was able to easily get the desired distance between the two plates. All right, so now we can power up the device and upload the program. Before connecting it to the computer USB, first we must turn on main power of the device, because otherwise the power coming from the computer USB which is only mA might not be enough to work properly. When uploading the Arduino sketch, we also need to switch the upload switch on the PCB.
Once we upload the code to the Arduino, we also need to upload a code to the Nextion display. Nextion displays have built-in ARM controller which actually controls the display on its own. All graphics like buttons, text, images, variables and so on, are generated and controlled by the display itself. The Nextion display has a dedicated Nextion editor where we can create all these stuffs.
The display and the Arduino communication with just two wires using the serial communication. The Arduino simply just sends the values from the sensor to the display and vice versa, the display sends data to the Arduino when needed.
For uploading the display program, we need a microSD card where we can save the output. TFT file from the Nextion editor. The display has a card reader where we can insert the microSD card while the power is off. Then we can power up the device and the program will be uploaded to the display. Now we just have to remove the card, switch on the power again, and our air quality monitor will start working.
In order to better understand how we read the data from each sensor I recommend reading the libraries documentations and try out their examples.