some beautification

content/_index.md

@@ -6,11 +6,8 @@ aliases:
 Pycom ecosystem makes IoT development easy
 
 * Choose [IoT hardware](products) which fit your project requirements.
-
 * Install Pymakr plugin in [Atom](https://atom.io/packages/pymakr) or [VS Code](https://marketplace.visualstudio.com/items?itemName=pycom.Pymakr) and start with your IoT project in seconds.
-
 * Write [MicroPython](https://micropython.org/) code and up to three times faster compared to C/C++.
-
 * Send data to [Pybytes IoT platform](https://pybytes.pycom.io/?utm_source=docs&utm_medium=web&utm_campaign=getting-started-top) or use your device standalone with the range of supported networks.
 * Start using our products [here!](/gettingstarted/)
 

content/firmwareapi/_index.md

@@ -8,10 +8,9 @@ aliases:
 
 This chapter describes modules (function and class libraries) that are built into MicroPython. There are a number of categories for the available modules:
 
-* Modules which implement a subset of standard Python functionality and are not intended to be extended by the user.
-* Modules which implement a subset of Python functionality, with a provision for extension by the user (via Python code).
-* Modules which implement MicroPython extensions to the Python standard libraries.
-* Modules specific to a particular port and thus not portable.
+* [implemented by Pycom](/firmwareapi/pycom/)
+* [Implemented by Micropython](/firmwareapi/micropython/)
+* External or custom modules and libraries
 
 ## Note about the availability of modules and their contents
 

content/gettingstarted/_index.md

@@ -62,8 +62,8 @@ If you are using Atom, it is important to check at this point that Atom has succ
 
 ![](/gitbook/assets/atom_project.png)
 
-If this is not the case you can press `alt-ctrl-r` on Windows/Linux or `ctrl-alt-cmd-l` on macOS, in order to reload Atom and fix the issue.
-{{% /hint %}}
+>If this is not the case you can press `alt-ctrl-r` on Windows/Linux or `ctrl-alt-cmd-l` on macOS, in order to reload Atom and fix the issue.
+
 
 4. Now that you have created a poject, we need to add some files. A standard MicroPython project will have a `lib` folder for additional libraries, and two python files: `main.py` and `boot.py`. 
 
@@ -140,11 +140,11 @@ Now that we got the basic example running, you can continue with the links below
 
 * [Get started using the FTP and Telnet Server](/gettingstarted/programming/ftp/)
 
-* [Connect using Pybytes](/pybytes/gettingstarted/)
+* [Connect using Pybytes](/pybytes/getstarted/)
 
-* [Registering with a network](/gettingstarted/network/)
+* [Registering with a network](/gettingstarted/registration/)
 
-* [Updating the firmware of your device](/firmwareupdate/)
+* [Updating the firmware of your device](/updatefirmware/)
 
 
 <!--## Step 4: (Optional) Connect through WiFi (Telnet & FTP)

content/tutorials/advanced/_index.md

@@ -0,0 +1,6 @@
+---
+title: "Advanced"
+aliases:
+    - chapter/tutorials/advanced
+---
+Under construction!

content/tutorials/hardware/adc.md

@@ -9,7 +9,6 @@ aliases:
 This example is a simple ADC sample. For more information please see [`ADC`](/firmwareapi/pycom/machine/adc).
 
 ```python
-
 from machine import ADC
 adc = ADC(0)
 adc_c = adc.channel(pin='P13')
@@ -22,7 +21,6 @@ adc_c.value()
 Currently the ESP32's ADC is not calibrated from the factory. This means it must be calibrated each time you wish to use it. To do this you must firstly measure the internal voltage reference. The following code will connect the 1.1v reference to `P22`
 
 ```python
-
 from machine import ADC
 adc = ADC()
 
@@ -33,7 +31,6 @@ adc.vref_to_pin('P22')
 Now that the voltage reference is externally accessible you should measure it with the most accurate voltmeter you have access to. Note down the reading in millivolts, e.g. `1120`. To disconnect the 1.1v reference from `P22` please reset your module. You can now calibrate the ADC by telling it the true value of the internal reference. You should then check your calibration by connecting the ADC to a known voltage source.
 
 ```python
-
 # Set calibration - see note above
 adc.vref(1100)
 

content/tutorials/hardware/i2c.md

@@ -9,7 +9,6 @@ aliases:
 The following example receives data from a light sensor using I2C. Sensor used is the BH1750FVI Digital Light Sensor.
 
 ```python
-
 import time
 from machine import I2C
 import bh1750fvi
@@ -28,7 +27,6 @@ while(True):
 Place this sample code into a file named `bh1750fvi.py`. This can then be imported as a library.
 
 ```python
-
 # Simple driver for the BH1750FVI digital light sensor
 
 class BH1750FVI:
@@ -56,7 +54,6 @@ class BH1750FVI:
 This is the same code, with added LoRa connectivity, sending the lux value from the light sensor to another LoRa enabled device.
 
 ```python
-
 import socket
 import time
 import pycom

content/tutorials/hardware/owd.md

@@ -10,8 +10,7 @@ This tutorial explains how to connect and read data from a DS18x20 temperature s
 
 ## Basic usage
 
-```python
-
+```
 import time
 from machine import Pin
 from onewire import DS18X20
@@ -31,7 +30,6 @@ while True:
 ## Library
 
 ```python
-
 #!/usr/bin/env python3
 
 """

content/tutorials/networks/lte/_index.md

@@ -21,3 +21,10 @@ while not lte.isattached()"
 print("LTE modem attached!")
 
 ```
+>Note: the first time, it can take a long while to attach to the network. 
+
+If you want to check the status of the modem while attaching, you can use the following commands:
+```python
+print(lte.send_at_cmd('AT!="showphy"')     # get the PHY status
+print(lte.send_at_cmd('AT!="fsm"')         # get the System FSM
+```

themes/doc-theme/static/css/vuetify.css

@@ -2755,7 +2755,7 @@ blockquote {
   font-size: 14px;
   font-weight: 300;
   background-color:rgba(0,128,0,0.7);
-  border-radius: 5px;
+  border-radius: 3px;
 }
 code,
 kbd {