Minor docs update

Updating RP2350 features to clarify HSTX support.

Author: SFEMark

docs/hardware_overview.md

@@ -22,10 +22,10 @@ The Pro Micro - RP2350 uses the "A" version of the microcontroller which has 30
 * 24 PWM
 * USB 1.1 Controller
 * 12 PIO State Machines
-* 1x High-Speed Transmit (HSTX) Peripheral for DVI/DSI support
+* 1x High-Speed Transmit (HSTX) Peripheral for DVI/DSI support (not available on Pro Micro)
 
-!!! note
-	Due to size constraints on the Pro Micro footprint, only 18 GPIO are broken out, including all four analog inputs.
+!!! note "Pro Micro Footprint Constraints"
+	Due to size constraints on the Pro Micro footprint, only 18 GPIO are broken out, including all four analog inputs. Unfortunately, this means HSTX is <b>not</b> supported on the Pro Micro - RP2350.
 
 The RP2350 uses five separate power supplies though this board (and most applications) combines several of them into a single regulated 3.3V supply voltage provided either over the USB-C connector or to the RAW pin. If using the RAW pin, max input voltage is <b>5.3V</b> as RAW connects directly to the WS2812 LED. 
 

docs/micropython_examples.md

@@ -7,8 +7,8 @@
 First, to make sure everything is running properly, use the <code>sys</code> module to verify the firmware version and machine/board running. Open your preferred interface and enter the following prompts and you should see something similar to the printout below:
 
 ``` py
->>> import sys
->>> sys.implementation
+import sys
+sys.implementation
 (name='micropython', version=(1, 24, 0, 'preview'), _machine='SparkFun Pro Micro RP2350 with RP2350', _mpy=7942)
 ```
 
@@ -17,8 +17,8 @@ First, to make sure everything is running properly, use the <code>sys</code> mod
 Next, we can verify the total free memory on the Pro Micro which includes the built-in memory on the RP2350 as well as the 8MB PSRAM. We'll use the <code>gc</code> module for this so type in the prompt below and you should see a response close to the value below:
 
 ``` py
->>> import gc
->>> gc.mem_free()
+import gc
+gc.mem_free()
 8640352
 ```
 
@@ -29,11 +29,11 @@ Next, we can verify the total free memory on the Pro Micro which includes the bu
 Finally, we'll make sure we can properly control the WS2812 LED on the Pro Micro using the <code>machine</code> and <code>neopixel</code> classes. The WS2812 Data In pin connects to I/O 25 on the RP2350 so we'll create a pin for it as an OUTPUT and assign it to the LED object. Next, we'll set the color to red and finally write the color values to the LED. The code below goes through all these steps so try copying it on your machine and you should see the WS2812 LED turn red.
 
 ``` py
->>> import machine, neopixel
->>> pin = machine.Pin(25, machine.Pin.OUT)
->>> led = neopixel.NeoPixel(pin, 1)
->>> n[0] = (255, 0, 0)
->>> n.write()
+import machine, neopixel
+pin = machine.Pin(25, machine.Pin.OUT)
+led = neopixel.NeoPixel(pin, 1)
+n[0] = (255, 0, 0)
+n.write()
 ```
 
 Try playing around with other values between 0 and 255 for the three colors (R, G, B) and then writing the changes to switch the LED's displayed color.