fix(gen): more filters

Author: ldecarvalho-doc

tutorials/configure-netbox-managed-postgresql-database/index.mdx

@@ -10,7 +10,7 @@ dates:
   posted: 2019-11-14
   validation_frequency: 12
 usecase:
-  -
+  - setup-and-test
 ecosystem:
   - third-party
 ---

tutorials/configure-nextcloud-ubuntu/index.mdx

@@ -9,7 +9,7 @@ dates:
   posted: 2018-10-26
   validation_frequency: 12
 usecase:
-  -
+  - application-hosting
 ecosystem:
   - third-party
 ---

tutorials/configure-nginx-lets-encrypt/index.mdx

@@ -9,9 +9,9 @@ dates:
   posted: 2019-02-28
   validation_frequency: 12
 usecase:
-  -
+  - best-practices
 ecosystem:
-  - third-party
+  - scaleway-only
 ---
 import image from './assets/scaleway-example_site.webp'
 import image2 from './assets/scaleway-example_https.webp'

tutorials/configure-nodemcu-iot-hub/index.mdx

@@ -6,7 +6,10 @@ products:
 dates:
   validation: 2025-05-27
   validation_frequency: 12
-
+usecase:
+  - iot
+ecosystem:
+  - third-party
 tags: iot iot-hub NodeMCU Arduino-IDE
 hero: assets/scaleway_nodemcu.webp
 ---
@@ -60,9 +63,9 @@ Scaleway's IoT Hub lets your connected devices share messages. In this tutorial,
 </Message>
 
 1. Start the Arduino IDE application on your local computer.
-2. Go to **Arduino** menu and click **Preferences**: 
+2. Go to **Arduino** menu and click **Preferences**:
     <Lightbox image={image} alt="" />
-3. Add the following link in the Additional Boards Manager URLs: `http://arduino.esp8266.com/stable/package_esp8266com_index.json` and click **OK** to validate: 
+3. Add the following link in the Additional Boards Manager URLs: `http://arduino.esp8266.com/stable/package_esp8266com_index.json` and click **OK** to validate:
     <Lightbox image={image2} alt="" />
 4. Go to **Tools** > **Board** > **Board Manager**
     <Lightbox image={image3} alt="" />
@@ -78,14 +81,14 @@ Your Arduino IDE is now ready to communicate with the NodeMCU device.
 1. Log into your [Scaleway console](https://conole.scaleway.com/) and click on **IoT Hub** in the side menu:
     <Lightbox image={image6} alt="" />
 2. Click **Create a Hub** and create your new IoT Hub.
-3. Enter a name for your hub (here we use iot-hub-esp8266) and choose a plan. For this tutorial, we use the Free plan. If your Project needs more resources you can choose one of the larger hubs. Click **Create a hub** to deploy it. 
+3. Enter a name for your hub (here we use iot-hub-esp8266) and choose a plan. For this tutorial, we use the Free plan. If your Project needs more resources you can choose one of the larger hubs. Click **Create a hub** to deploy it.
 4. Once your hub is ready, click on it. You will see the following page:
     <Lightbox image={image7} alt="" />
-5. Navigate to the **Devices** tab and click **Add device** to add a new device to the hub: 
+5. Navigate to the **Devices** tab and click **Add device** to add a new device to the hub:
     <Lightbox image={image8} alt="" />
 
   <Message type="note">
-    Make sure to enable insecure connections to be able to communicate with the IoT Hub, as we are not using certificates in this tutorial. 
+    Make sure to enable insecure connections to be able to communicate with the IoT Hub, as we are not using certificates in this tutorial.
   </Message>
 6. Click **Add device to your hub** to add the device.
 7. Once added, click on the device name to display some statistics about the device.
@@ -107,14 +110,14 @@ MQTT Explorer is a MQTT client that provides a structured overview of your MQTT
     </Message>
 
     <Lightbox image={image10} alt="" />
-3. Click **Connect** to establish the connection to your IoT Hub. The following screen displays: 
+3. Click **Connect** to establish the connection to your IoT Hub. The following screen displays:
     <Lightbox image={image11} alt="" />
 
 Your MQTT Explorer is now successfully connected to your IoT Hub.
 
 ## Connecting your ESP8266 to Scaleway IoT Hub
 
-We now connect the ESP8266 device to our IoT Hub. To do so, some additional libraries are required. Download them on your local computer and add them to the Arduino IDE by clicking on **Sketch** > **Include Library** > **Add .ZIP library**. We use the following libraries: 
+We now connect the ESP8266 device to our IoT Hub. To do so, some additional libraries are required. Download them on your local computer and add them to the Arduino IDE by clicking on **Sketch** > **Include Library** > **Add .ZIP library**. We use the following libraries:
 
 * [PubSubClient library](https://github.com/knolleary/pubsubclient/archive/master.zip): The PubSubClient library provides a client for doing simple publish/subscribe messaging with a server that supports MQTT (basically allows your ESP8266 to talk with your MQTT Broker).
 
@@ -141,7 +144,7 @@ We now connect the ESP8266 device to our IoT Hub. To do so, some additional libr
     WiFiClient espClient;
     PubSubClient client(espClient);
     ```
-4. We use the setup function to check the connection to our WiFi network and print a message in the Serial Monitor to confirm whether the device is connected or not: 
+4. We use the setup function to check the connection to our WiFi network and print a message in the Serial Monitor to confirm whether the device is connected or not:
     ```
     void setup() {
       Serial.begin(115200);
@@ -151,7 +154,7 @@ We now connect the ESP8266 device to our IoT Hub. To do so, some additional libr
         Serial.println("Connecting to WiFi..");
       }
       Serial.println("Connected to the WiFi network");
-      
+
       client.setServer(mqttServer, mqttPort);
       client.setCallback(callback);
     ```
@@ -160,7 +163,7 @@ We now connect the ESP8266 device to our IoT Hub. To do so, some additional libr
     while (!client.connected()) {
         Serial.println("Connecting to MQTT...");
         if (client.connect("ESP8266Client", mqttUser, mqttPassword )) {
-          Serial.println("connected"); 
+          Serial.println("connected");
         } else {
 
           Serial.print("failed with state ");
@@ -169,29 +172,29 @@ We now connect the ESP8266 device to our IoT Hub. To do so, some additional libr
         }
     }
     ```
-6. We test the publish/subscribe function by publishing a test message and subscribing to the topic: 
+6. We test the publish/subscribe function by publishing a test message and subscribing to the topic:
     ```
       Serial.println("Sending payload hello-world...");
       client.publish("esp/test", "hello-world"); //Topic name
       Serial.println("Payload sent!");
       client.subscribe("esp/test");
-    }  
+    }
     ```
-7. To print out the message we specify a call-back function and print the topic name and the received message on the Serial Monitor: 
+7. To print out the message we specify a call-back function and print the topic name and the received message on the Serial Monitor:
     ```
     void callback(char* topic, byte* payload, unsigned int length) {
-    
+
       Serial.print("Message arrived in topic: ");
       Serial.println(topic);
-    
+
       Serial.print("Message:");
       for (int i = 0; i < length; i++) {
         Serial.print((char)payload[i]);
       }
-    
+
       Serial.println();
       Serial.println("-----------------------");
-    
+
     }
     ```
 8. Finish by adding the following lines in the loop:
@@ -201,21 +204,21 @@ We now connect the ESP8266 device to our IoT Hub. To do so, some additional libr
     }
     ```
 
-    You should now have a sketch that begins with the following lines: 
+    You should now have a sketch that begins with the following lines:
 
     ```
     #include <ESP8266WiFi.h>
     #include <PubSubClient.h>
     ```
 
-    and includes all the aforementioned code, ending with: 
+    and includes all the aforementioned code, ending with:
 
     ```
     void loop() {
       client.loop();
     }
     ```
-9. Upload your code to your ESP8266 microcontroller. An output as in the following example displays in the Serial Monitor: 
+9. Upload your code to your ESP8266 microcontroller. An output as in the following example displays in the Serial Monitor:
     <Lightbox image={image12} alt="" />
 
     <Message type="note">
@@ -227,7 +230,7 @@ We now connect the ESP8266 device to our IoT Hub. To do so, some additional libr
 
 ## Controlling an LED and measuring temperature and humidity
 
-Next, we will use our NodeMCU device to measure temperature and humidity and publish these values in a topic. Besides the NodeMCU device, you need the following hardware for this step: 
+Next, we will use our NodeMCU device to measure temperature and humidity and publish these values in a topic. Besides the NodeMCU device, you need the following hardware for this step:
 
 * A [Breadboard](https://en.wikipedia.org/wiki/Breadboard)
 * An [LED](https://en.wikipedia.org/wiki/Light-emitting_diode)
@@ -238,10 +241,10 @@ Next, we will use our NodeMCU device to measure temperature and humidity and pub
 1. Perform the following wiring on the breadboard:
     <Lightbox image={image14} alt="" />
 
-    This is the pinout table of the NodeMCU device: 
+    This is the pinout table of the NodeMCU device:
 
     | Pin Names on NodeMCU Development Kit| ESP8266 Internal GPIO Pin number|
-    | ------------- |:-------------:| 
+    | ------------- |:-------------:|
     |D0|GPIO16|
     |D1|GPIO5|
     |D2|GPIO4|
@@ -308,14 +311,14 @@ Next, we will use our NodeMCU device to measure temperature and humidity and pub
     }
 
     // This function is executed when some device publishes a message to a topic that your ESP8266 is subscribed to
-    // Change the function below to add logic to your program, so when a device publishes a message to a topic that 
+    // Change the function below to add logic to your program, so when a device publishes a message to a topic that
     // your ESP8266 is subscribed you can actually do something
     void callback(String topic, byte* message, unsigned int length) {
       Serial.print("Message arrived on topic: ");
       Serial.print(topic);
       Serial.print(". Message: ");
       String messageTemp;
-      
+
       for (int i = 0; i < length; i++) {
         Serial.print((char)message[i]);
         messageTemp += (char)message[i];
@@ -340,14 +343,14 @@ Next, we will use our NodeMCU device to measure temperature and humidity and pub
     }
 
     // This functions reconnects your ESP8266 to your MQTT broker
-    // Change the function below if you want to subscribe to more topics with your ESP8266 
+    // Change the function below if you want to subscribe to more topics with your ESP8266
     void reconnect() {
       // Loop until we're reconnected
       while (!client.connected()) {
         Serial.print("Attempting MQTT connection...");
         // Attempt to connect
         if (client.connect("ESP8266Client", mqttUser, mqttPassword )) {
-          Serial.println("connected");  
+          Serial.println("connected");
           // Subscribe or resubscribe to a topic
           // You can subscribe to more topics (to control more LEDs in this example)
           client.subscribe("room/lamp");
@@ -366,9 +369,9 @@ Next, we will use our NodeMCU device to measure temperature and humidity and pub
     // The callback function is what receives messages and actually controls the LEDs
     void setup() {
       pinMode(lamp, OUTPUT);
-      
+
       dht.begin();
-      
+
       Serial.begin(115200);
       setup_wifi();
       client.setServer(mqttServer, mqttPort);
@@ -406,19 +409,19 @@ Next, we will use our NodeMCU device to measure temperature and humidity and pub
         float hic = dht.computeHeatIndex(t, h, false);
         static char temperatureTemp[7];
         dtostrf(hic, 6, 2, temperatureTemp);
-        
-        // Uncomment to compute temperature values in Fahrenheit 
+
+        // Uncomment to compute temperature values in Fahrenheit
         // float hif = dht.computeHeatIndex(f, h);
         // static char temperatureTemp[7];
         // dtostrf(hic, 6, 2, temperatureTemp);
-        
+
         static char humidityTemp[7];
         dtostrf(h, 6, 2, humidityTemp);
 
         // Publishes Temperature and Humidity values
         client.publish("room/temperature", temperatureTemp);
         client.publish("room/humidity", humidityTemp);
-        
+
         Serial.print("Humidity: ");
         Serial.print(h);
         Serial.print(" %\t Temperature: ");
@@ -431,35 +434,35 @@ Next, we will use our NodeMCU device to measure temperature and humidity and pub
         // Serial.print(hif);
         // Serial.println(" *F");
       }
-    } 
+    }
     ```
 3. Transfer the Arduino Sketch to the NodeMCU device and open the Serial Monitor.
 4. The following output displays, confirming the successful capture and transmission of temperature and humidity data:
     <Lightbox image={image15} alt="" />
 
 ## Flow Programming with Node-RED
 
-In the following steps, we deploy a [Node-RED](https://nodered.org/) application using the IoT-Hub Kickstart feature and use it for flow programming. 
+In the following steps, we deploy a [Node-RED](https://nodered.org/) application using the IoT-Hub Kickstart feature and use it for flow programming.
 
-1. Go back to your IoT Hub in the Scaleway console and click on the [Kickstart](https://console.scaleway.com/iot-hub/kickstarts/create) tab. Click **Create a Kickstart**: 
+1. Go back to your IoT Hub in the Scaleway console and click on the [Kickstart](https://console.scaleway.com/iot-hub/kickstarts/create) tab. Click **Create a Kickstart**:
     <Lightbox image={image16} alt="" />
 2. Select the **Flow Programming** Kickstart and choose your Hub and Device from the drop-down lists. Then select a region for your Kickstart to deploy. Click **Create** to deploy the Node-RED application on an [Instance](https://www.scaleway.com/en/virtual-instances/)
     <Lightbox image={image17} alt="" />
-3. Your IoT Kickstart application is deployed. The deployment may take some seconds, once it is ready, a green dot appears next to it. Click **Dashboard** to access the Node-RED dashboard: 
+3. Your IoT Kickstart application is deployed. The deployment may take some seconds, once it is ready, a green dot appears next to it. Click **Dashboard** to access the Node-RED dashboard:
     <Lightbox image={image18} alt="" />
-4. Log into Node Red using the credentials you have set during the deployment: 
+4. Log into Node Red using the credentials you have set during the deployment:
     * Username: `admin`
     * Password: `your-password`
-5. Open the menu and click on **Manage Palette**: 
+5. Open the menu and click on **Manage Palette**:
     <Lightbox image={image19} alt="" />
-6. Find the `node-red-dashboard` and install it: 
+6. Find the `node-red-dashboard` and install it:
     <Lightbox image={image20} alt="" />
-7. Create a layout as follows: 
+7. Create a layout as follows:
     <Lightbox image={image21} alt="" />
-8. Then add the following nodes to a new flow: 
+8. Then add the following nodes to a new flow:
     <Lightbox image={image22} alt="" />
 
-    The following elements are used: 
+    The following elements are used:
 
       * `switch` – this will control the ESP8266 output
       * `mqtt output node` – this will publish a message to the ESP8266 according to the switch state
@@ -472,14 +475,14 @@ In the following steps, we deploy a [Node-RED](https://nodered.org/) application
     <Lightbox image={image24} alt="" />
 11. Configure the **MQTT input nodes** for `temperature` and `humidity`:
     <Lightbox image={image25} alt="" />
-12. Edit the **chart node** as follows: 
+12. Edit the **chart node** as follows:
     <Lightbox image={image26} alt="" />
 13. Edit the **gauge node** as follows:
     <Lightbox image={image27} alt="" />
-14. Link the nodes as follows: 
+14. Link the nodes as follows:
     <Lightbox image={image28} alt="" />
 15. Click **Deploy** to deploy the configuration.
-16. Open a new browser tab and go to: `http://your-ip:1880/ui/`. A Dashboard showing temperature and humidity displays. You can use the toggle switch for `Light`. If toggled, a notification displays in the Serial Monitor of the NodeMCU device: 
+16. Open a new browser tab and go to: `http://your-ip:1880/ui/`. A Dashboard showing temperature and humidity displays. You can use the toggle switch for `Light`. If toggled, a notification displays in the Serial Monitor of the NodeMCU device:
     <Lightbox image={image29} alt="" />
 
 ## Conclusion

tutorials/configure-plex-s3/index.mdx

@@ -11,7 +11,7 @@ dates:
   posted: 2018-09-24
   validation_frequency: 12
 usecase:
-  -
+  - application-hosting
 ecosystem:
   - third-party
 ---

tutorials/configure-realtime-alerting-slack/index.mdx

@@ -10,7 +10,7 @@ dates:
   posted: 2020-11-17
   validation_frequency: 12
 usecase:
-  -
+  - monitoring
 ecosystem:
   - third-party
 ---

tutorials/configure-slack-alerting/index.mdx

@@ -9,7 +9,7 @@ dates:
   posted: 2025-02-18
   validation_frequency: 12
 usecase:
-  -
+  - monitoring
 ecosystem:
   - third-party
 ---

tutorials/configure-smtp-relay-tem/index.mdx

@@ -10,7 +10,7 @@ dates:
   posted: 2023-08-08
   validation_frequency: 12
 usecase:
-  -
+  - setup-and-test
 ecosystem:
   - third-party
 ---

tutorials/configure-tem-smtp-with-wordpress-plugin/index.mdx

@@ -10,7 +10,7 @@ dates:
   posted: 2024-04-24
   validation_frequency: 12
 usecase:
-  -
+  - web-hosting
 ecosystem:
   - third-party
 ---

tutorials/configure-virtual-machine-esxi/index.mdx

@@ -9,7 +9,7 @@ dates:
   posted: 2020-01-27
   validation_frequency: 12
 usecase:
-  -
+  - resource-management
 ecosystem:
   - third-party
 ---