Merge pull request #1392 from arduino/main

benjamindannegard/update-tutorial-branch

Author: BenjaminDannegard

content/arduino-cloud/01.getting-started/01.iot-cloud-getting-started/iot-cloud-getting-started.md

@@ -53,7 +53,6 @@ To use the Arduino IoT Cloud, a **cloud compatible board** is required. You can
 
 The following boards connect to the Arduino IoT Cloud via Wi-Fi.
 
-- [MKR 1000 WiFi](/hardware/mkr-1000-wifi)
 - [MKR WiFi 1010](https://store.arduino.cc/arduino-mkr-wifi-1010)
 - [Nano RP2040 Connect](https://store.arduino.cc/nano-rp2040-connect)
 - [Nano 33 IoT](https://store.arduino.cc/arduino-nano-33-iot)

content/arduino-cloud/01.getting-started/02.technical-reference/iot-cloud-tech-ref.md

@@ -21,7 +21,6 @@ To use the Arduino IoT Cloud, a **cloud compatible board** is required. You can
 
 The following boards connect to the Arduino IoT Cloud via Wi-Fi.
 
-- [MKR 1000 WiFi](https://store.arduino.cc/arduino-mkr1000-wifi)
 - [MKR WiFi 1010](https://store.arduino.cc/arduino-mkr-wifi-1010)
 - [Nano RP2040 Connect](https://store.arduino.cc/nano-rp2040-connect)
 - [Nano 33 IoT](https://store.arduino.cc/arduino-nano-33-iot)

content/hacking/02.hardware/building-an-arduino-on-a-breadboard/building-an-arduino-on-a-breadboard.md

@@ -91,7 +91,7 @@ Start by connecting a 10k ohm pullup resistor to +5V from the RESET pin in order
 * Pin 8 - GND
 * Pin 22 - GND
 * Pin 21 - AREF - Analog reference pin for ADC
-* Pin 20 - AVcc - Suppply voltage for the ADC converter. Needs to be connected to power if ADC isn't being used and to power via a low-pass filter if it is (a low pass filter is a circuit that reduces noise from the power source. This example isn't using one)
+* Pin 20 - AVcc - Supply voltage for the ADC converter. Needs to be connected to power if ADC isn't being used and to power via a low-pass filter if it is (a low pass filter is a circuit that reduces noise from the power source. This example isn't using one)
 
 ![Add the Clock & Caps](assets/arduinobb_08.jpg)
 

content/hardware/01.mkr/01.boards/mkr-1000-wifi/compatibility.yml

@@ -1,6 +1,5 @@
 software:
   - arduino-ide
-  - iot-cloud
   - arduino-cli
   - web-editor
 hardware:

content/hardware/01.mkr/01.boards/mkr-wifi-1010/tutorials/atmel-ice/using-an-atmel-ice-with-the-ide-v2.md

@@ -151,7 +151,7 @@ void loop() {
 }
 ```
 
-Before uploading the code to our board, we must optimize it for debugging. This can be made easily by clicking on the **Sketch** tab and then selecting the option **Optimize for Debbuging**:
+Before uploading the code to our board, we must optimize it for debugging. This can be made easily by clicking on the **Sketch** tab and then selecting the option **Optimize for Debugging**:
 
 ![The "Optimize for Debugging" option in the Arduino IDE 2](assets/ide_v2_t1_img06.png)
 

content/hardware/01.mkr/02.shields/mkr-485-shield/interactive/pinout.png

@@ -15,7 +15,7 @@ The device has two different software selectable sleep modes: idle & standby.
 
 The device also supports SleepWalking that allows the peripheral to wake up from sleep based on predefined threshold or when a result is ready.
 
-The SAMD21 series has a dedicated module called Power Manager (PM) that controls the reset, clock generation and sleep modes of the microcontroller. In the architecture there are many clock domains that can run at different speeds, enabling the user to save power by running peripherals at a relatively low clock frequency, while maintaning high CPU performance. Furthermore, the clock of each peripheral can be disabled (mask operation), enabling the user to minimize power consumption due to unused peripherals. In particular when the device enters a sleep mode, program execution is stopped and some modules and clock domains are automatically switched off by the PM according to the sleep mode. The application code decides which sleep mode to enter and when.
+The SAMD21 series has a dedicated module called Power Manager (PM) that controls the reset, clock generation and sleep modes of the microcontroller. In the architecture there are many clock domains that can run at different speeds, enabling the user to save power by running peripherals at a relatively low clock frequency, while maintaining high CPU performance. Furthermore, the clock of each peripheral can be disabled (mask operation), enabling the user to minimize power consumption due to unused peripherals. In particular when the device enters a sleep mode, program execution is stopped and some modules and clock domains are automatically switched off by the PM according to the sleep mode. The application code decides which sleep mode to enter and when.
 
 ## Voltage Regulator
 
@@ -27,7 +27,7 @@ Here is a comparison of an Arduino UNO and an Arduino ZERO running the same code
 
 ![A voltage regulator.](assets/Arduino_zero_comp.jpg)
 
-As it can be easily seen, in the same conditions the Arduino Zero requires less than half power compared to the Arduino Uno with performances that are far, far away from the Uno's! This result is obtained thanks to the better power management detalied above.
+As it can be easily seen, in the same conditions the Arduino Zero requires less than half power compared to the Arduino Uno with performances that are far, far away from the Uno's! This result is obtained thanks to the better power management detailed above.
 
 ## Circuit
 

content/hardware/01.mkr/02.shields/mkr-can-shield/interactive/pinout.png

@@ -7,7 +7,7 @@ Pins:
   Built-in LED Pin: 13
   Digital I/O Pins: 14
   Analog input pins: 8
-  PWM pins: 5
+  PWM pins: All pins (max 5 simultaneously)
   External interrupts: All digital pins
 Connectivity:
   Wi-Fi®: u-blox® NORA-W106 (ESP32-S3)

content/hardware/01.mkr/02.shields/mkr-env-shield/interactive/pinout.png

@@ -251,7 +251,7 @@ Pulse width modulation (PWM) is supported on **all digital pins (D0-D13)** as we
 analogWrite(pin,value);
 ```
 
-***Due to timer restrictions, only 4 PWM signals can be generated simultaneously.***
+***Due to timer restrictions, only 5 PWM signals can be generated simultaneously.***
 
 ## I2C
 

content/hardware/01.mkr/02.shields/mkr-eth-shield/interactive/pinout.png

@@ -754,7 +754,7 @@ The Portenta C33 board features an onboard Wi-Fi® module, the ESP32-C3-MINI-1U
 
 Some of the key capabilities of the ESP32-C3-MINI-1U module are the following:
 
-- **Wi-Fi® and Bluetooth® connectivity**: The module supports 2.4 GHz Wi-Fi® (802.11 b/g/n) and Bluetooth® 5.0 connectivity. `ArduinoBLE` library support is limited to luetooth® 4.0 at this time.
+- **Wi-Fi® and Bluetooth® connectivity**: The module supports 2.4 GHz Wi-Fi® (802.11 b/g/n) and Bluetooth® 5.0 connectivity. `ArduinoBLE` library support is limited to Bluetooth® 4.0 at this time.
 - **CPU and memory**: It contains a 32-bit RISC-V single-core processor with a clock speed of up to 160 MHz. The chip also has 400 KB of SRAM and 384 KB of ROM.
 - **Security features**: It supports various security features, including secure boot, flash encryption, and cryptographic hardware acceleration.
 - **Low-power operation**: It supports multiple power modes for different low-power applications, making it suitable for battery-powered devices.

content/hardware/01.mkr/02.shields/mkr-gps-shield/interactive/pinout.png

@@ -1,9 +1,9 @@
 ---
-title: Getting Started With the Arduino Portenta Breakout
+title: 'Getting Started With the Arduino Portenta Breakout'
 difficulty: beginner
 tags: [Getting Started, Setup, PWM, Analog, I2C]
-description: This tutorial will give you an overview of the core features of the Portenta Breakout, setup the development environment and introduce the APIs required to program the board.
-author: Manuel Zomer, Pablo Marquínez, Sebastian Romero
+description: 'This tutorial will give you an overview of the core features of the Portenta Breakout, setup the development environment and introduce the APIs required to program the board.'
+author: 'Manuel Zomer, Pablo Marquínez, Sebastian Romero'
 ---
 
 ## Overview
@@ -45,7 +45,7 @@ After having prepared the Portenta Breakout by soldering on pin headers, we can
 ### 3. The Circuit
 In order to build this example circuit, we need our Portenta Breakout with the Portenta H7 on top and headers soldered on (at least within the ANALOG/PWM and GPIO section on the bottom right corner of the carrier). Then we need a simple LED, an adequate resistor for it (we are using a 220Ω resistor) as well as a potentiometer. To connect all these components we use jumper wires and a breadboard by following this schematics:
 
-![Connecting the LEDS and the Portenta](assets/breakout_gs_circuit_diagram.svg) 
+![Connecting the LEDs and the Portenta](assets/breakout_gs_circuit_diagram.svg) 
 
 For the LED we can use any of the Portenta Breakout's 10 PWM Pins, in this case **PWM 9**. For the potentiometer, on the other hand, we can use one of the analog pins (A0 to A7) in order to read the potentiometer current value, in this example we use **A7**. The potentiometer also needs a 3.3V power source, which we take from the GPIO section on the Portenta Breakout, considering it being located most conveniently and close by. Eventually, potentiometer and LED have to be connected to GND to finalize the circuit.