I have already installed Nvidia proprietary drivers and the Nvidia Cuda Toolkit. I documented the install of the Cuda toolkit in an older post which can be found here.
Since I have Nvidia GPUs in my host system, and I intend to run some services in containers, I want to make sure that I install the nvidia-container-toolkit. Instructions on how to setup the repo on Ubuntu 22.04 can be found here. Once you have setup the repo, you can follow the steps below, or just follow the instructions found in the link above.
Test Connectivity from a remote host. If you are unable to reach the ip/port you may need to modify firewall on the remote system.
$ telnet 10.1.10.14 11434 Trying 10.1.10.14… Connected to 10.1.10.14. Escape character is '^]'.
Install OpenWeb UI
I am using the open-webui:cuda container as I am running dual Nvidia GPUs. I want OpenWeb-UI to bind to the primary interface on the host so that I can access it from my workstation.
# docker run -d -p 10.1.10.14:3000:8080 --gpus all --add-host=host.docker.internal:host-gateway -v open-webui:/app/backend/data --name open-webui --restart always ghcr.io/open-webui/open-webui:cuda
The -v option in the command below will create a volume for OpenWeb-UI. You can verify with the command below
$ docker volume ls
DRIVER VOLUME NAME
local open-webui
Confirm that the container has started.
$ docker ps
If it has failed to start use “docker logs <container-id>” to troubleshoot.
Now, in a web browser, navigate to the ip/port combo you entered in the docker run command shown above. You should be greeted with the OpenWeb-UI getting started page.
Install ChromaDB
Use the command below to instanciate the ChromaDB container. 10.1.10.14 is the ip of my host, adjust as needed to fit your needs
In order to setup RAG you will need to do the following.
Create a Knowledge Base
Upload files
Create the Model that will use the Knowledge Base
First we will create a knowledge base. Navigate to Workspace > Knowledge > + Create a Knowledge Base. Choose a name for your Knowledge base and add a description.
We are going to name ours, Gordon Lightfoot
Now select Create Knowledge
Look real hard for the text “Drag and drop a file to upload or select a file to view”. This is where you w drag and drop your documents. We have two documents to add to our collection.
You can also upload entire directories or sync with a directory
Now navigate to Workspace > Models > + Add New Model. Imput a name for your custom model and choose a base model. I am choosing tinyllama for this test.
Scroll down and select Save & Create
Now let’s chat with our new model. Select Workspace and then select your new model (My Gordon Lightfoot Model)
You are now ready to chat with your model
Let’s ask it a question
So there you go. A working RAG implementation with Ollama, OpenWebUI, and VectorDB. I am sure that there are a lot more features to explore here and I am sure I have a lot more tuning to do. But for now I am off to a good start.
We are installing on a very fresh install of Ubuntu 22.04 with an Nvidia 3070ti GPU. Nvidia Drivers were installed at build time. However lets check to see what version of the Nvidia driver we are currently running.
$ nvidia-detector
nvidia-driver-570
While we are at it, let’s make sure that we have nvidia-smi installed which is included in the package shown below
$ sudo apt install nvidia-utils-570
We will need gcc, which the meta-package below will include (along with make and other dev tools).
# sudo apt install build-essential -y
Lets check what version of python we have installed.
$ python3 --version
Python 3.10.12
Now install python-venv which is the python module that supports creating virtual environments. Reference the python version shown in the output in the step above
# sudo apt install python3.10-venv -y
Installing the Nvidia Cuda Toolkit
Note: If you installed the nvidia-cuda-toolkit from default ubuntu noble repo, uninstall it first as that version is probably too old. Uninstall with “sudo apt purge nvidia-cuda* -y“
“The NVIDIA CUDA Toolkit is a software development kit that helps users create GPU-accelerated applications. It includes libraries, compilers, debuggers, and optimization tools”. Since we have an Nvidia GPU we will install it as shown below.
First we wget the Nvidia Cuda Repository pin as shown above. Then we move it to /etc/apt/preferences.d/ (shown below).
This is a configuration file that is used to prioritize packages from the NVIDIA CUDA repository when installing CUDA on a Linux system. Basically it tells apt where to get the Cuda Toolkit.
Nvidia states that you need to add the following env vars to your .bashrc, however you will also need to add them to your python virtual env — in venv/bin/activate. These variables will be needed during the install process below.
Note that every time you want to use instructlab cli (ilab) post-install you must source the file above. venv/bin/activate
The install guide found here has you run this command to clear out the pip package cache (for this one package. Not required for first install, but may be on subsequent install runs.
$ pip cache remove llama_cpp_python
We then run the 3 commands shown below. Apparently there is a known bug and we will not pick up these required packages as needed, so we need to install them manually, and in the order shown below.
The instructions have you wrap up the of Instructlab with a pip install of vllm, however this install will fail due as it cannot find nvcc without setting the env variables. So set the following env vars as shown below.
The instructions for installing instructlab with Nvidia Cuda support as documented on instructlab.ai currently have you pip install a very specific version of vllm (with cuda support), however I have found that this command will fail (at least on Fedora 40, Ubuntu 22.04, and Ubuntu 24.04) that command is shown below.
One up and running you will see output similar to what is shown below.
INFO: Started server process [1252947]
INFO: Waiting for application startup.
INFO: Application startup complete.
INFO: Uvicorn running on http://0.0.0.0:8000 (Press CTRL+C to quit)
Testing Pytorch Module
You can create and run the python script below to test if your GPU is identified correctly. This step is not required, but its handy in identifying potential issues with gpu/cuda.
$ python3 ./test.py
CUDA available: True
CUDA version: 12.4
Torch version: 2.5.1+cu124
GPU count: 1
GPU name: NVIDIA GeForce RTX 3070 Ti
Instructlab Init and Setup
Now that we have ilab installed we can initialize our environment with the command below. This command will download the Taxonomy repository to our local machine along with a config file. Apparently ilab init has a few default GPUs available to choose from, but since my current GPU is
Our config file is located in our home directory, if you want to take a look. Note that our GPU, being a Nvidia RTX 3070 TI, will have differing config values than what we selected above (A100), so in a later step we will need to edit our config
/home/cpaquin/.config/instructlab/config.yaml
To see the info regarding your workstation, you can run the command below. We will use some of the data below to update our config
Use the command below to edit the generated config.
$ ilab config edit
Here we go through the file and ensure that we are setting the number of GPUs correctly. We also modify some additonal settings that have differed from the default (as ilab thinks we now have a $40k GPU). Below is some of what we have configured.
# Metadata pertaining to the specifics of the system which the Configuration is
# meant to be applied to.
metadata:
# Manufacturer, Family, and SKU of the system CPU, ex: Apple M3 Max
# Default: None
cpu_info:
# Amount of GPUs on the system, ex: 8
# Default: None
gpu_count: 1
# Family of the system GPU, ex: H100
# Default: None
gpu_family: RTX 3070 TI
# Manufacturer of the system GPU, ex: Nvidia
# Default: None
gpu_manufacturer: Nvidia
# Specific SKU related information about the given GPU, ex: PCIe, NVL
# Default: None
gpu_sku:
Working with Models
Before we start working with a model, lets take a look at the ilab command parameters. We can see that we have several options such as download, list, test, train, chat, serve, etc.
Lets download a model with the command below. The command below will download the default model sets in the config file
$ ilab model download
output below
View your downloaded models via the command below
$ ilab model list
Now we serve the default model with the command below
$ ilab model serve
Open another terminal window and source the env file from the instructlab directory
$ source venv/bin/activate
Then run the command below to begin an interactive chat session
Now we check to make sure that the driver is loaded.
$ sudo lspci -n -n -k | grep -A 2 -e VGA -e 3D
[sudo] password for cpaquin:
01:00.0 VGA compatible controller [0300]: NVIDIA Corporation GA106 [GeForce RTX 3060 Lite Hash Rate] [10de:2504] (rev a1)
Subsystem: PNY Device [196e:138f]
Kernel driver in use: nvidia
Run “nvidia-smi” to show the exact driver revision. Below we have 565.77. And this driver is compatible with CUDA Version: 12.7.
Nvidia Cuda Toolkit Install
We now need to install the nvidia-cuda-toolkit. We will get this directly from nvidia. According to the driver/toolkit version matrix found here, we should install Cuda Toolkit 12.6.
First install the following pre-req. Nvcc will not compile on gcc14 which is default for Fedora 40.
“The NVIDIA CUDA Toolkit is a software development kit that helps users create GPU-accelerated applications. It includes libraries, compilers, debuggers, and optimization tools”. Since we have an Nvidia GPU we will install it as shown below.
Note: If you installed the nvidia-cuda-toolkit from default ubuntu noble repo, uninstall it first as that we do not want conflicts. Uninstall with “sudo apt purge nvidia-cuda* -y“. More info on ubuntu repo install vs nvidia repo install later in post.
First we wget the Nvidia Cuda Repository pin as shown above. Then we move it to /etc/apt/preferences.d/ (shown below).
This is a configuration file that is used to prioritize packages from the NVIDIA CUDA repository when installing CUDA on a Linux system. Basically it tells apt where to get the Cuda Toolkit.
Installing the Nvidia Cuda toolkit from Ubuntu Vs Nvidia
The key differences between installing the NVIDIA CUDA Toolkit from the Ubuntu repositories vs. NVIDIA’s official website come down to version availability, ease of installation, and compatibility. Here’s are a few differences:
1. Installing from Ubuntu Repositories (apt install nvidia-cuda-toolkit)
Pros:
Easier installation – The package is well-integrated into Ubuntu’s package management (apt), meaning dependency resolution is generally smoother.
More stable – The versions in the repositories are tested against the Ubuntu ecosystem to ensure compatibility.
Automatic updates – Managed through apt, making it easier to keep up with system updates.
Cons:
Often outdated – Ubuntu’s repositories may not have the latest CUDA version, which can be an issue if you need newer features or performance improvements.
Limited driver version control – The version of CUDA available in the Ubuntu repos may not always match the latest NVIDIA drivers, which can lead to compatibility issues.
2. Installing from NVIDIA’s Official Website
Pros:
Latest version – You get the newest CUDA Toolkit, which can include performance improvements, bug fixes, and new features.
Better control over versions – You can install specific versions to match requirements for AI/ML frameworks like TensorFlow or PyTorch.
More driver compatibility – NVIDIA ensures that the toolkit and drivers are aligned, reducing the risk of version mismatches.
Cons:
More manual setup – You have to install dependencies manually, such as the correct NVIDIA driver, and configure paths properly.
Updates are not automatic – Unlike apt, updates need to be managed manually.
“The NVIDIA CUDA Toolkit is a software development kit that helps users create GPU-accelerated applications. It includes libraries, compilers, debuggers, and optimization tools”. Since we have an Nvidia GPU we will install it as shown below.
Note: If you installed the nvidia-cuda-toolkit from default ubuntu noble repo, uninstall it first as that version is probably too old. Uninstall with “sudo apt purge nvidia-cuda* -y“
First we wget the Nvidia Cuda Repository pin as shown above. Then we move it to /etc/apt/preferences.d/ (shown below).
This is a configuration file that is used to prioritize packages from the NVIDIA CUDA repository when installing CUDA on a Linux system. Basically it tells apt where to get the Cuda Toolkit.
Nvidia states that you need to add the following env vars to your .bashrc, however you will also need to add them to your python virtual env — in venv/bin/activate. These variables will be needed during the install process below.
RamaLama is an open-source project developed to simplify AI model deployment and management using OCI (Open Container Initiative) containers. Ramalama enables seamless execution of AI workloads across different hardware configurations, supporting both GPU-accelerated and CPU-based environments.
By leveraging container engines like Podman and Docker, RamaLama includes all necessary dependencies, eliminating complex installation and dependency nightmares.
Ramalama integrates with AI model registries such as Hugging Face and Ollama, providing flexibility in model selection. Key features include automatic GPU detection, CPU fallback, and optional direct execution on the host system.
Prerequisites
Updating Ubuntu
First let’s confirm our Ubuntu version
$ sudo lsb_release -a
No LSB modules are available.
Distributor ID: Ubuntu
Description: Ubuntu 22.04.5 LTS
Release: 22.04
Codename: jammy
Run the two commands below to update your package cache and install any updates. Reboot if required.
$ sudo apt-get update
$ sudo apt-get upgrade -y
Installing podman
$ sudo apt -y install podman
# sudo podman --version
podman version 5.0.3
Installing Nvidia Drivers
Assuming you added third-party repos at build time, we should be able to check the suggested NVIDIA driver version. Do so with the command below
$ nvidia-detector
nvidia-driver-545
The command below confirms that we do not have an NVIDIA driver loaded.
$ cat /proc/driver/nvidia/version
cat: /proc/driver/nvidia/version: No such file or directory
Now let’s install the NVIDIA driver.
$ sudo ubuntu-drivers --gpgpu install
And we need to install the nvidia-utils package. Make sure the package version matches your installed driver.
$ sudo apt install nvidia-utils-535-server
Now reboot.
Once your system is back up. Run the command below to verify that the drivers installed correctly. At the top of the output you should see your driver version and CUDA API version
$ sudo nvidia-smi
You must configure the persistence daemon (nvidia-persistenced) to start at boot and run continuously. Otherwise, the driver may unload, causing the Tesla GPUs to deinitialize, requiring a full reinitialization when nvidia-smi is executed. Additionally, failing to keep nvidia-persistenced running could lead to more severe issues, such as GPU crashes, depending on the workload.
Enable and start the service below
$ sudo systemctl start nvidia-persistenced
$ sudo systemctl status nvidia-persistenced
Installing Nvidia Cuda Toolkit
Run the command below to install the nvidia-cuda-toolkit from the default Ubuntu repos.
$ sudo apt install nvidia-cuda-toolkit -y
Now test to ensure proper install and that new binary files are in your path.
~# nvcc --version
nvcc: NVIDIA (R) Cuda compiler driver
Copyright (c) 2005-2021 NVIDIA Corporation
Built on Thu_Nov_18_09:45:30_PST_2021
Cuda compilation tools, release 11.5, V11.5.119
Build cuda_11.5.r11.5/compiler.30672275_0
Configuring Podman with Nvidia Cuda Support
Following along with this document from the RamaLama github page, we first need to install the nvidia-container-toolkit.
First configure the repo. Note that this is one command. See here for more info.
In another window, run the commands shown below to view the ramalama container running in your python virtual env. Note that the output of podman ps will be empty unless your “activate” your virtual env.
$ source venv/bin/activate
$ podman ps
Screenshot below
Example CLI Commands
Pull a model.
$ ramalama pull ollama://mistral
List downloaded models.
$ ramalama list
NAME MODIFIED SIZE
ollama://mistral:latest 42 seconds ago 3.83 GB
ollama://merlinite-7b-lab:latest 10 hours ago 4.07 GB
Run a model
$ ramalama run mistral:latest
Info on ramalama itself. Output will tell you detected GPUs and what driver is being used.
$ ramalama info
–dryrun flag provides the podman command used to serve/run a model
This 2 part guide is written specifically for those who are just getting started with Ollama. Note that I originally wrote this post with the Nvidia Jetson Orin Nano in mind, as that is where I was initially running Olama… in part 2 I switch to something more powerful.
That being said, the information below regarding installing Ollama and pulling a model is not specific to the Jetson and should work for anyone who wants to get started quickly with Ollama. Also worth noting that in this quick start guide we are installing ollama as a service, not as a container, as you would do if using jetson-containers [1]
Installing ollama
Use the command below to install ollama.
$ sudo curl -fsSL https://ollama.com/install.sh | sh
The install script downloads ollama, required Jetpack 6 components (on Jetson Devices), creates the ollama user, creates an api endpoint, and enables & starts the ollama service.
$ sudo curl -fsSL https://ollama.com/install.sh | sh
>>> Installing ollama to /usr/local
>>> Downloading Linux arm64 bundle
######################################################################## 100.0%
>>> Downloading JetPack 6 components
######################################################################## 100.0%
>>> Creating ollama user...
>>> Adding ollama user to render group...
>>> Adding ollama user to video group...
>>> Adding current user to ollama group...
>>> Creating ollama systemd service...
>>> Enabling and starting ollama service...
Created symlink /etc/systemd/system/default.target.wants/ollama.service → /etc/systemd/system/ollama.service.
>>> NVIDIA JetPack ready.
>>> The Ollama API is now available at 127.0.0.1:11434.
>>> Install complete. Run "ollama" from the command line.
Run the command below to test functionality and verify installed version of ollama.
$ ollama --version
ollama version is 0.5.7
Configure ollama to Listen on all Interfaces
By default ollama listens on 127.0.0.1. If you want to configure it to listen on all interfaces so that you can interact with it remotely, you will need to modify the service configuration as shown below.
Test connectivity from a remote host using telnet.
$ telnet 10.1.10.11 11434
Configure Alternative Download Directory For Ollama Models
Obviously this step is optional, but you can set the download directory if wanted with the parameter below. Apparently the default location is “~/.ollama/models”
Let’s config successful download and install with “ollama list“
$ ollama list
NAME ID SIZE MODIFIED
llama2:7b 78e26419b446 3.8 GB 3 minutes ago
Interacting with Ollama via the CLI
You can interact with Ollama (and the loaded model) via the CLI in one of two ways.
Predefined Prompt
Interactive Mode
Via Predefined Prompt
In this mode, you call the model and pass the prompt in one step
~$ ollama run llama2:7b "Tell me about the Nvidia Jetson Orin Nano"
Interactive Mode
ollama run llama2:7b
A Wild Error Appears
While attempting to run an interactive session, we see that the ollma runner process was terminated
~$ ollama run llama2:7b
Error: llama runner process has terminated: signal: killed
Let’s watch the output of journalctl and watch for errors as we try again
sudo journalctl -f -u ollama.service
While watching journalctl we see the following
Feb 02 17:21:26 jetson.lab ollama[2306]: time=2025-02-02T17:21:25.650-05:00 level=WARN source=server.go:562 msg="client connection closed before server finished loading, aborting load"
Feb 02 17:21:26 jetson.lab ollama[2306]: time=2025-02-02T17:21:25.668-05:00 level=ERROR source=sched.go:455 msg="error loading llama server" error="timed out waiting for llama runner to start: context canceled"
Feb 02 17:21:26 jetson.lab ollama[2306]: [GIN] 2025/02/02 - 17:21:25 | 499 | 4.679059726s | 127.0.0.1 | POST "/api/generate"
Feb 02 17:21:26 jetson.lab systemd[1]: ollama.service: Failed with result 'oom-kill'.
Apparently we are getting “oom-killed“.
Lets watch free memory while we execute “ollama run” again. We will “watch” free -m
watch -d -n 1 free -m
We can see free memory drop to about 500mb, which may or may not be enough to run the rest of the system. When ollama is not running we have about 2485MB of free memory (shown below)
$ free -m
total used free shared buff/cache available
Mem: 3601 940 2485 0 176 2483
Swap: 1800 338 1462
So we have a few options
Attempt to reduce the amount of free memory available to Ollama (lets try)
Tune ollama to attempt to use less memory (might be possible)
Modify oom-killer behavior (probably a bad idea)
Change to a lighter weight model (best idea)
Freeing up System Memory
Lets disable the Desktop GUI in ubuntu and see what that buys us in free memory. Note that you can probably just skip this section as I eventually move to a smaller model, but there is some good troubleshooting information here for those new to Linux.
# sudo systemctl set-default multi-user.target
And now immediately move to cli mode without reboot
$ sudo init 3
Output from ‘free -m” has not changed.
$ sudo free -m
total used free shared buff/cache available
Mem: 3601 859 2402 4 339 2554
Swap: 1800 164 1636
We will reboot just in case…. ok that is a tiny bit better
$ sudo free -m
total used free shared buff/cache available
Mem: 3601 458 2709 18 433 2938
Swap: 1800 0 1800
Now lets see if we can find a few services that we do not need, and stop and disable them.
Then reboot. Once back up and running a cursory check of “free -m” shows that our efforts were mostly in vain. Lets try another model
So this time we are going with a small model to test basic functionality and see if we are still running into oom errors.
ollama pull tinyllama
Ok much better…
~$ ollama run tinyllama
>>> Send a message (/? for help)
Lets check memory, and see how much headroom we have… Its not a lot
~$ free -m
total used free shared buff/cache available
Mem: 3601 1835 924 0 841 1575
Swap: 1800 147 1653
Inspecting System Utilization
For this step we are going to use a couple of tools, most of which are custom to the Jetson.
First we launch jtop [2]. And n another terminal windows, we load up the tinylama model and enter our prompt. While ollama is working, we watch observe jtop.
So our prompt goes…
can you tell me the history of the company Digital and their line of PDP computers
Certainly! The company Digital was founded in England in 1963 by two college students, John Cocking and Michael Kearns. They were inspired to start a computer company after
witnessing the emergence of the personal digital assistant (PDA) market, which had been dominated by smaller, less advanced companies such as Acorn Computers and Marmalade.....trunc...
While this is running we are watching jtop. Below we can see that our GPU is at 80% load and at times approached 100%. Memory usage is high, and CPU utilization is low.
Measuring Tokens Per Second
This seems to be the measurement that many use to determine how fast their machine is, so lets give it a try. To output tokens per second we add the “–verbose” flag.
~$ ollama run tinyllama --verbose "Can you tell me as much as you know about the Dell T620 Server"
I get a 6 bullet list that is almost completely incorrect. What exactly is a DelT620? And no the T620 was intel xeon powered, not powered by AMD’s EPYC 7551 processor. But that does not matter, what comes next is what we are looking for.
total duration: refers to the total time taken for the entire process of generating a response. This includes all stages such as: – Model Loading: If model isn’t already loaded into memory, this ime accounts for loading it. – Tokenization: Converting input text into tokens that the model can process. – Inference Time: The time spent by the model generating the response token by token. – Post-processing: Any steps taken after generation, such as formatting the output. – Communication Overhead: Time spent handling requests and responses, especially if running in a client-server setup.
load duration
1.246583429s
load duration: refers to the amount of time spent loading the model into memory before it can start processing input. This step includes: – Model Retrieval: If the model is not already cached in memory, Ollama retrieves it from disk or another source. – Model Initialization: Preparing the model, including loading weights into VRAM (if using a GPU) or RAM (if running on a CPU). – Graph Compilation (if applicable): Some backends may optimize or compile the model for execution. – Memory Allocation: Ensuring that enough memory is available for inference.
prompt eval count
52 token(s)
prompt eval count: refers to the number of tokens that were processed (evaluated) from the initial prompt before the model starts generating a response. Breakdown: – Prompt Tokens: Before the model generates any output, it first processes (evaluates) the input text (prompt). – Evaluation: The model tokenizes the input text and processes these tokens through its neural network. – Count Meaning: This number represents how many tokens were in the prompt that the model had to evaluate before responding.
prompt eval duration
283ms
“prompt eval duration” refers to the total time taken to process (evaluate) the input prompt before the model begins generating a response. Breakdown: – Tokenization: The input text is broken down into tokens that the model can process. – Model Inference on Prompt Tokens: The model evaluates these tokens, passing them through its neural network layers to set up the internal context. – Context Initialization: The model updates its internal state based on the prompt before starting to generate output.
prompt eval rate
183.75 tokens/s
prompt eval rate” refers to the speed at which the model processes the tokens from the input prompt. Measured in tokens per second (tokens/sec) where prompt-eval-rate = prompt eval count/prompt eval duration
eval count
464 tokens/s
“eval count” refers to the total number of tokens that were processed during the generation phase—i.e., the number of new tokens the model generated as output.
eval duration
24.354s
“eval duration” refers to the total time taken for the model to generate its response, measured from the moment it starts producing tokens until it finishes.
eval rate
19.05 tokens/s
“eval rate” refers to the speed at which the model generates tokens during the response phase. It is typically measured in tokens per second (tokens/sec). – eval_count / eval_duration = eval rate
Customizing Model Behavior
You can customize how the model responds with the set command. For example, lets say I want to tell the model to respond to me as if it were a child
$ ollama run tinyllama
>>> /set system For any question asked can you respond as if you were a child, using only small words, short sentences, and lacking any specific technical details or jargon
Set system message.
>>> /save kid2
Created new model 'kid2'
>>> /bye
Then we load the replicated model.
~$ ollama run kid2
>> what was the US civil war about
The United States Civil War was fought between the Union and Confederate states over whether the union should remain intact as a single nation or become a separate nation known
as the Confederate States of America. The war began in April 1861 after President Abraham Lincoln announced that he would veto any bill to abolish the constitutional right to
secession unless Congress passed a similar law.
As the war progressed, each side unleashed their forces on the other and suffered significant losses. The north won major victories in the first year of the war, but southern
states began withdrawing from the union due to economic hardship, making it necessary for Lincoln to appeal to them with a proposal to call off fighting and establish a
government in the south. In response, the Confederate army launched its own attack on April 12, 1865, which led to Lincoln's assassination a few months later. The US civil war
was one of the most devastating conflicts in world history, causing significant destruction to both sides and leaving millions dead or wounded.
Ok, so that was not exactly child-like, however this is probably the fault of the model that I am using. Lets see if I can coax it to answer the question differently.
>> /set system For any question asked can you respond as if you were a scholar, using a large vocabulary of diverse words. Be very specific in your responses and provide colorful deta
... ils
Set system message.
>>> what was the US civil war about
The United States Civil War was fought between the Union and Confederate states over whether the union should remain intact as a single nation or become a separate nation known
as the Confederate States of America. The war began in April 1861 after President Abraham Lincoln announced that he would veto any bill to abolish the constitutional right to
secession unless Congress passed a similar law.
The main cause of the war was the belief by some members of the southern states that they had been wronged and mistreated by the federal government, as well as a desire for
self-determination and statehood. The north won major victories in the first year of the war, but southern states began withdrawing from the union due to economic hardship,
making it necessary for Lincoln to appeal to them with a proposal to call off fighting and establish a government in the south. In response, the Confederate army launched its own
attack on April 12, 1865, which led to Lincoln's assassination a few months later. The US civil war was one of the most devastating conflicts in world history, causing
significant destruction to both sides and leaving millions dead or wounded.
Ok so not great, but again probably the model. Anyway you get the point. I’ll try this again with a different model in the near future of one of my more powerful servers/
Removing a Model
Remove a model with the “rm” switch. See below
~$ ollama list
NAME ID SIZE MODIFIED
kid2:latest ca8452f00cd5 637 MB 2 hours ago
kid:latest ce8e59f0d306 637 MB 2 hours ago
tinyllama:latest 2644915ede35 637 MB 3 hours ago
llama2:7b 78e26419b446 3.8 GB 5 hours ago
cpaquin@jetson:~$ ollama rm kid:latest kid2:latest llama2:7b
deleted 'kid:latest'
deleted 'kid2:latest'
deleted 'llama2:7b'
Training a Model
Most available models operate pretty well when you are asking them about information that they have been trained on. Above you can see that the tinyllama model has not been trained properly to even remotely respond as if it was a child. In order to do that, the model would need to be trained.
So lets train tinyllama. Keep in mind that these models have short-term memory constraints, meaning they only retain training data during an active conversation. Once you close the session and start a new one, the model will not remember any information from the previous interaction. To overcome the short-term memory limitation, one would need a backend database or some form of persistent storage, which would you to save and retrieve relevant information across sessions. Depending on your needs, you could use:
Relational Databases (SQL) – MySQL, PostgreSQL, or SQLite for structured data.
NoSQL Databases – MongoDB, Redis, or Firebase for more flexible storage.
Vector Databases – Pinecone, FAISS, or ChromaDB for storing embeddings in AI applications.
File Storage – JSON, CSV, or other formats for lightweight persistence.
The backend system could then integrate with the AI model, fetching and updating information as needed, effectively giving it “memory” beyond a single session. More about this later. For now let’s “teach” tiny llama about Star Trek. Specifically, I prompted the model with this question, and its response was incomplete.
>>> do you know about any of the star trek tv shows
Certainly! Here are some popular Star Trek TV shows:
1. Star Trek: The Original Series (1966-1968)
2. Star Trek: The Next Generation (1987-1994)
3. Star Trek: Deep Space Nine (1993-1999)
4. Star Trek: Voyager (1995-2001)
5. Star Trek: Enterprise (2001-2005)
6. Star Trek: Discovery (2017-)
I then made sure that was all the data it had on Star Trek TV shows.
>>> is that all the star trek shows
Yes, that's all the Star Trek TV series I could find.
And we are off to the races! Here is what I “taught” the model
Let me tell you about some other Start trek TV shows that you are unaware of. Star Trek: The Animated Series premiered in 1972 and ran for 2 seasons, it featured the same character
... s that appeared Star Trek: The Original Series. Star Trek: Lower Decks premiered in 2020 and ran for 5 seasons. Sadly it was recently cancelled. It was an animated show which was
... comedic in nature, often making fun of the tropes features throughout the other Star Trek shows and movies. Star Trek: Prodigy premiered in 2021 and ran for 2 seasons, it was an an
... animated show that originally aired on the kids station Nickelodeon. It was geared towards children, but was still fun for adults to watch as well. Especially with their children.
... Star Trek: Strange New Worlds premiered in 2022 and has been running for 2 seasons, a third season is on its way. This show takes place on the starship Enterprise, but before Capta
... in Kirk was in command. The Captain, is Captain Pike, who was a character originally introduced in the 2 part pilot episode of the Original Series. Would you like to know more about star trek?
Here we are witnessing what is called a hallucination which is when an artificial intelligence (AI) model generates an incorrect or misleading output.
We do see that the model does now know about Star Trek: Strange New Worlds, but it basically made up the plot. There is no Captain Alex Danforth anywhere on google, and I have never heard of the U.S.S Explorer. Ava Acres is a real actor, but has nothing to do with Star Trek. James Frain played Sarek in Star Trek Discovery, so at least he is associated with the series. The model did remember that I mentioned a Star Trek show that aired on Nickelodeon, and got the series dates correct, but associated it with a completely made up show.
Fascinating…
>>> Tell me about Star Trek: Strange New Worlds
Yes, I do have more information on Star Trek: Stragrg New Worlds. This is a science fiction TV show that originally aired on Nickelodeon between 2021 and 2023. It's set in the
same universe as Star Trek: Lower Decks, but takes place in the 25th century.
The show follows the crew of the U.S.S. Explorer, a new ship that was built specifically for this mission. The crew is made up of Captain Alex Danforth (played by James Frain),
First Officer Renee "Ren" Dahla (played by Ava Acres), and Engineer Jesse Johnson (played by David Hewison).
The Explorer has been sent to explore a new planet that's rich in resources. The crew encounters various alien species, including a group of intelligent, hostile beings who have
been observing their activities for some time.
The show is filled with action and adventure as the Explorer faces numerous challenges on its mission. It also explores themes such as colonialism, power dynamics, and
responsibility to others. The show's premise may seem familiar to Star Trek fans, but it features new characters and a fresh take on the classic series universe.
If you enjoy Nickelodeon-style science fiction and have enjoyed Star Trek: Lower Decks, then I think you will enjoy Star Trek: Stragrg New Worlds.