Move img folder under static, update refs + drafts

content/mining-btc-with-pi-part1.md

@@ -15,6 +15,6 @@ I ordered the [Butterfly Labs](https://en.bitcoinwiki.org/wiki/Butterfly_Labs) 5
 
 <!-- more -->
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/ButterflyLabsMinerAndPi.png", position="left") }}
+{{ image(src="/img/ButterflyLabsMinerAndPi.png", position="left") }}
 
 Hardware in place, I decided to join a mining pool since my hash rate would be contributing such a small percentage of the entire Bitcoin network’s computing power. I joined BTC Guild, which has since shut down due to security and regulatory concerns. [P2Pool](http://p2pool.org/), [Eligius](http://eligius.st/~gateway/) and [BitMinter](https://bitminter.com/) are some mining pools still in existence. [This CoinDesk article](https://www.coindesk.com/information/get-started-mining-pools/) provides more information about mining pools. At this point I just sat back and let the miner burn electricity. Was I making a profit? Only time would tell. Next update I’ll summarize the profitability of mining with this hardware from December 2013 - July 2015.

content/mining-btc-with-pi-part2.md

@@ -18,10 +18,10 @@ Total cost of power over that period of approximately 14,136 hours was calculate
 
 <!-- more -->
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/BTCMinerPowerUsage.png", position="left") }}
+{{ image(src="/img/BTCMinerPowerUsage.png", position="left") }}
 
 Thanks to the technology behind Bitcoin, you can see the full contents of the wallet where mining profits were deposited on [BlockChain.info](https://www.blockchain.com/explorer) @ [1BsWqHJh5kwLNHZzj6Q6DGaxRZVTK9U9A6](https://blockchain.info/address/1BsWqHJh5kwLNHZzj6Q6DGaxRZVTK9U9A6) and a graph over time. 
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/BTCMinerProfitability.png", position="left") }}
+{{ image(src="/img/BTCMinerProfitability.png", position="left") }}
 
 With the exchange rate of Bitcoins to USD at the time of writing this, the Return on Investment (ROI) with a balance of 0.24359921 BTC is about negative (-) $896. Breaking even would require the exchange rate to reach $3,844 USD / BTC; historically speaking the highest was around $1,100 in late 2013. Never say never though, here’s the [current price from CoinDesk](https://www.coindesk.com/price/bitcoin/).

content/nest-logger.md

@@ -0,0 +1,9 @@
++++
+title = "Nest Logger"
+date = 2022-12-24
+draft = true
+[taxonomies]
+tags = ["Nest", "Google", "API", "DeviceAccess", "Temperature", "Humidity", "Weather"]
++++
+
+Since [Works with Nest (WWN)](https://developers.nest.com/) is retiring, I decided to get set up on [Device Access](https://developers.google.com/nest/device-access/get-started). There is a lot in these tutorials but I interested in a really functional method of getting data from my Nest thermostat.

content/storage-wars.md

@@ -0,0 +1,15 @@
++++
+title = "Storage Wars"
+date = 2022-03-24
+draft = true 
+
+[taxonomies]
+tags = ["Synology", "NAS", "AWS", "S3GlacierDeepArchive", "DataBackup", "DisasterRecovery"]
++++
+
+An overwhelming choice of cloud based storage these days, and all the marketing around them can make it seem like an overly complicated endeavor to keep data safe.
+I decided to take some control back from the cloud and host as much as possible on my home network. I went with a [Synology DS220+ NAS](https://www.synology.com/en-us/products/DS220+), a [Seagate 5TB External Drive](https://www.amazon.com/gp/product/B07VS8QCXC/) and [Amazon Web Services (AWS) S3 Glacier Deep Archive](https://aws.amazon.com/s3/storage-classes/?nc=sn&loc=3#____) for a low-cost off-site backup location. I also added an [APC Back-UPS 600VA](https://www.apc.com/us/en/product/BE600M1/apc-backups-600va-120v-1-usb-charging-port-7-nema-outlets-2-surge/) and used a [Raspberry Pi 2 Model B Rev 1.1](https://learn.adafruit.com/introducing-the-raspberry-pi-2-model-b) to connect and orchestrate everything.
+
+{{ image(src="/img/NASDeepArchive.drawio.png", position="left") }}
+
+<!-- more -->

content/universal-remote-part2.md

@@ -11,6 +11,7 @@ I purchased the [Prototyping Pi Plate directly from adafruit](https://www.adafru
 Parts List:
 
 ---
+
 - 1 x [Adafruit Industries ADA801](https://octopart.com/801-adafruit+industries-24605284)
 - 1 x [Raspberry Pi Model B 756-8308 Motherboard](https://en.wikipedia.org/wiki/Raspberry_Pi)
 - 2 x [Everlight IR333C](https://octopart.com/ir333c-everlight-17677690)
@@ -19,11 +20,12 @@ Parts List:
 - 1 x [Ohmite OD103JE](https://octopart.com/od103je-ohmite-133027)
 - 1 x [Vishay Semiconductor TSOP38238 IR Receiver](https://octopart.com/tsop38238-vishay-5517697)
 - 1 x 22 [AWG Solid Core Wire](http://www.frys.com/product/7716148/)
+
 ---
 
 <!-- more -->
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/OpensourceRemoteParts.png", position="left") }}
+{{ image(src="/img/OpensourceRemoteParts.png", position="left") }}
 
 Here's [the circuit](https://upverter.com/alexbain/f24516375cfae8b9/Open-Source-Universal-Remote/#/) I’ll be building:
 

content/universal-remote-part3.md

@@ -12,8 +12,8 @@ With all the components and tools needed, the first step was assembling the Adaf
 
 <!-- more -->
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/SolderingSupplies.png", position="left") }}
+{{ image(src="/img/SolderingSupplies.png", position="left") }}
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/UniversalRemoteHardwareAssembled.png", position="left") }}
+{{ image(src="/img/UniversalRemoteHardwareAssembled.png", position="left") }}
 
 With the hardware assembled the next step is to install [Raspbian](https://www.raspberrypi.com/software/) as the OS on the SD card and the application [LIRC](http://www.lirc.org/) for controlling the hardware to test functionality.

content/universal-remote-part4.md

@@ -20,7 +20,7 @@ Since I’d like to connect over WiFi I’ve added a [Belkin USB F7D2101](https:
 
 <!-- more -->
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/RemoteBuildWirelessBT.jpg", position="left") }}
+{{ image(src="/img/RemoteBuildWirelessBT.jpg", position="left") }}
 
 - With the Pi temporarily connected by Ethernet cable, I [set up the wireless connection via the command line](https://www.raspberrypi.com/documentation/computers/configuration.html) over SSH.
 
@@ -39,19 +39,22 @@ sudo ntpdate -u ntp.ubuntu.com
 ```
 
 - Next install [LIRC](http://www.lirc.org/)
+
 ```bash
 sudo apt-get install lirc
 ```
+
 - Modify **/etc/modules** and **/etc/lirc/hardware.conf** for the specific hardware being used:
 
-
 _**/etc/modules**_
+
 ```bash
 lirc_dev    
 lirc_rpi gpio_in_pin=23 gpio_out_pin=22
 ```
 
 _**/etc/lirc/hardware.conf**_
+
 ```bash
 ######################
 # /etc/lirc/hardware.conf    
@@ -74,6 +77,7 @@ LIRCD_CONF="" LIRCMD_CONF=""
 ```
 
 - Restart LIRC to pick up these changes:
+
 ```bash
 sudo /etc/init.d/lirc stop
 mode2 -d /dev/lirc0

content/universal-remote-part5.md

@@ -45,6 +45,7 @@ node app.js
 ```bash
 sudo nano /etc/init.d/URemote
 ```
+
 ```bash
 #! /bin/sh    
 # /etc/init.d/lirc_web     
@@ -77,37 +78,50 @@ case "$1" in
 esac    
 exit 0  
 ```
+
 - Make the script executable:
+
 ```bash
 sudo chmod 755 /etc/init.d/URemote
 ```
+
 - Test starting and stopping lirc_web with the script:
+
 ```bash
 sudo /etc/init.d/URemote start
 sudo /etc/init.d/URemote stop
 ```
+
 - Register the script to be run at start-up:
+
 ```bash
 sudo update-rc.d URemote defaults
 ```
+
 If your remotes aren’t in the [available index](http://lirc.sourceforge.net/remotes/) or those config files don’t work, [irrecord](http://www.lirc.org/html/irrecord.html) can be used.
+
 - Stop lirc to free up _/dev/lirc0_:
+
 ```bash
 sudo /etc/init.d/lirc stop
 ```
+
 - Create a new remote control configuration file using _/dev/lirc0_ and save the output to _~/lircd.conf_. Once a file is generated for each remote it can be compiled into a single lircd.conf, this is much easier with FTP access. A list of namespace values for buttons is available @ [ocinside.de/modding_en/linux_ir_irrecord_list](http://www.ocinside.de/modding_en/linux_ir_irrecord_list/).
+
 ```bash
 irrecord -d /dev/lirc0 ~/lircd.conf
 ```
+
 - After all the remotes are recorded and compiled, the lircd.conf file can be placed @ _/etc/lirc/_ and then restart LIRC to pick up the new configuration:
+
 ```bash
 sudo /etc/init.d/lirc stop
 sudo /etc/init.d/lirc start
 ```
+
 To finish of the hardware build I made a case out of Lego bricks, so it stays oriented vertically and has some protection.
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/UniversalRemoteLegoCase.png", position="left") }}
+{{ image(src="/img/UniversalRemoteLegoCase.png", position="left") }}
 
 Now control of IR devices is possible from a website, next up controlling Bluetooth devices the same way using [GIMX](http://gimx.fr/wiki/index.php?title=Command_line).
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/UniversalRemoteWebsite.png", position="left") }}
+{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/UniversalRemoteWebsite.png", position="left"
-

content/wifi-temperature-monitor-part1 .md

@@ -30,9 +30,8 @@ For my first project with the Photon, I created a wireless temperature monitor t
 
 Then the temperature can be calculated based on the voltage output from the TMP36 using _Temp °C = 100*(reading in V) - 50_.
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/TMP36_Graph.png", position="left") }}
+{{ image(src="/img/TMP36_Graph.png", position="left") }}
 
 After importing I also converted to Fahrenheit using _T(°F) = T(°C) × 1.8 + 32_. Here’s the final output in the Google Sheet using _ImportJSON(https://api.particle.io/v1/devices/UNIQUE_ID/analogvalue?access_token=UNIQUE_TOKEN)_:
 
-
+{{ image(src="/img/TMP36_Gsheet.png", position="left") }}
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/TMP36_Gsheet.png", position="left") }}

content/wifi-temperature-monitor-part2.md

@@ -10,7 +10,7 @@ Since writing the first WiFi temperature monitor post, I’ve implemented retrie
 
 <!-- more -->
 
-{{ image(src="https://raw.githubusercontent.com/kylejcarlton/zola-theme-terminimal/master/img/Google_Apps_Script_Temp.png", position="left") }}
+{{ image(src="/img/Google_Apps_Script_Temp.png", position="left") }}
 
 For communication with my Nest Thermostat, I didn’t implement the [OAuth2.0](https://oauth.net/2/) standard completely inside the Apps Script; although this would be possible using [apps-script-oauth2](https://github.com/googlesamples/apps-script-oauth2). Following the [REST Quick Guide](https://developers.nest.com/documentation/cloud/how-to-auth), I generated a [PIN for my Nest](https://developers.nest.com/documentation/cloud/authorization-overview#pin-based-authorization) and then used [Postman](https://www.getpostman.com/) to initiate the POST call for the Access Token to be used in the script.