Setting up a Minecraft Server is a relatively simple process. Here’s a brief step by step guide:

1. **Download the Server Software**: Visit the official Minecraft website (https://www.minecraft.net). Go to the "Download" section and get the Minecraft server software for your operating system.

2. **Create a New Folder**: Create a new folder on your computer where you want the server files to go. This will be your Minecraft server directory.

3. **Install the Server Software**: Copy the server software file you downloaded into the new folder. Run the server software. This will create several files and folders in your directory.

4. **Accept the EULA**: Find a file named "eula.txt" in your server directory. Open it up in a text editor, change `eula=false` to `eula=true` to acknowledge Mojang's End User License Agreement.

5. **Run the Server**: Run the server software again. This time, it will generate the world data. Once you see a line of text that says "[Server thread/INFO]: Done (time)! For help, type "help", it means your server has been created.

6. **Set Up Port Forwarding**: If you want to play with friends who are not in the same network, you have to set up port forwarding on your router. The process can vary depending on your router's brand and model, but you usually need to forward the TCP port 25565 for Minecraft.

7. **Connect to your Server**: Start Minecraft, click on "Multiplayer", then "Add Server". Enter local IP address if you're in the same network with your server, or public IP if you're connecting from a different network.

Remember, running a game server may eat up resources on your machine, so it's recommended you do this on a machine with sufficient RAM and processing power. Java should be updated as well, as Minecraft runs on it. Always ensure your server and the game client are on the same version.

For a more comprehensive guide, consult the official Minecraft Server Setup guide: https://www.minecraft.net/en-us/download/server/.

The exact inner workings of SpaceX's guidance computers are proprietary secrets, but we do know some facets based on information available in the public domain.

The guidance system of the SpaceX Dragon vehicles, for example, use a Fault-Tolerant Inertial Navigation System (FTINS) primarily based on a triple set of accelerometers and gyroscopes and a GPS receiver for correction, with the readings from each sensor fused together using a Kalman filter algorithm for best accuracy and resilience against failures. This allows for determination of acceleration, orientation, and altitude information.

For the communication with ground stations, SpaceX takes a software-defined radio approach, which allows for versatility in the types of signals it can send and receive, as well as resilience against potential issues.

The onboard computer system uses a version of the Linux operating system with real-time extensions called "Real-Time Linux". It is mainly written in C++ and Python and operates in a redundant setup for fault tolerance - meaning, multiple computers that check each other's calculations to minimize the chance of failure.

Lastly, the use of closed-loop guidance algorithms, which adapt to changing circumstances mid-flight, adjusts the path in realtime based on sensor data. This setup allows the rockets to automatically correct their trajectory if any deviations occur, such as a change in wind conditions or minor performance variations in the engines.

Specific programming details are understandably not made public for both commercial and security reasons. However, the core concepts of SpaceX's guidance systems are rooted in industry-wide accepted best practices for real-time, safety-critical systems with a strong focus on fault tolerance and flexibility.

A Transformer neural network is a type of model introduced in the "Attention is All You Need" paper by Vaswani et al. (2017). Its core design principle is "attention", effectively weighting the significance of different inputs in a sequence. The Transformer consists of encoder and decoder parts. The encoder receives and processes the input sequentially, and the decoder transforms the encoded sequences into the final output.

A key advantage of Transformers is parallelizability, which means they can process all tokens in the sequence at once, whereas models like RNNs need to process sequentially. This leads to faster training times.

The most famous application of Transformer models is in natural language processing, such as OpenAI's Generative Pretrained Transformer (GPT) series and Google's Bidirectional Encoder Representations from Transformers (BERT) models. These models have broken multiple benchmarks and helped popularize Transformers across machine learning tasks.

To start a Django app, you must first ensure that you have Django installed. If not, you can install it via pip:

```bash
pip install Django
```
Once Django is installed, navigate to the directory where you want your new Django project and execute the following command in your terminal to create a new Django project:

```bash
django-admin startproject projectname
```
Replace `'projectname'` with the name of your project. This will create a new directory with the project structure.

Next, navigate into your new project directory:

```bash
cd projectname
```
Now you can create a new Django app within your Django project with the following command:

```bash
python manage.py startapp appname
```
Replace `'appname'` with what you want to name your application. This will create a directory 'appname' with a structure for an app.

Remember, in Django, a project is a collection of configurations and apps. An app is a module within the project that does something. For example, a blog, a database of public records, etc.

Don't forget to add your new app to INSTALLED_APPS in your settings.py file (located in projectname/projectname/settings.py) for Django to acknowledge it:

```python
INSTALLED_APPS = [
#...
'appname',
#...
]
```
Finally, run Django server:

```bash
python manage.py runserver
```
Point your web browser to localhost:8000 and you should see your Django welcome page.

Remember, Django follows the DRY principle: Don't Repeat Yourself, which promotes reusing the code.

Please let me know if you encounter any issues during the process. Happy coding!

Installing a Counter-Strike server involves several steps:

1. **Gather Required Software**: Counter-Strike requires the SteamCMD command-line tool to download the server files. This tool is provided by Valve and can be found in the official SteamCMD page.

2. **Download and Install SteamCMD**: Follow the instructions from Valve's official guide for your operating system to download and install SteamCMD.

3. **Create a New Directory for Your Server**: Navigate to the directory where you would like to install your server and use the `mkdir` command to create a new directory.

4. **Download Server Files**: Navigate to your server directory and use the `steamcmd` command to log in and download the server files. Replace `YOUR_STEAM_USERNAME` and `YOUR_STEAM_PASSWORD` with your own credentials.

```
./steamcmd.sh +login YOUR_STEAM_USERNAME YOUR_STEAM_PASSWORD +force_install_dir ./cs_server/ +app_update 740 validate +quit
```

5. **Configure Your Server**: Configure your server to your liking using the server.cfg file in the `csgo/cfg` directory. Here you can set your server name, rules, password, etc.

6. **Start Your Server** : Now you can start your server using the following command:

```
./srcds_run -game csgo -console -usercon +game_type 0 +game_mode 1 +mapgroup mg_bomb +map de_dust2
```

Remember to replace `game_type` and `game_mode` with the desired game mode. Replace `+map de_dust2` with your map selection.

7. **Server Administration**: Make sure you familiarize yourself with standard server administration commands and procedures in order to manage your server effectively. Tools such as SourceMod can be very beneficial for easier server administration.

Hope this helps you get started. Feel free to ask if you have further questions.