How OpenAI Strawberry Works ― "ONE TEXTBOOK TO RULE THEM ALL" ― My Educated Guess

David Shapiro
29 Aug 202410:10

Summary

TLDRThe speaker discusses the capabilities of 'Strawberry', a rumored AI project from OpenAI, which may utilize synthetic data and latent space activation to solve complex problems. They share their expertise in synthetic data and their previous work on similar concepts, suggesting that 'Strawberry' could be generating comprehensive textbooks by recursively interrogating and activating AI models, grading the output for quality. The video speculates on how this might be applied to train future AI models like GPT 5 or 6, with a focus on knowledge synthesis and refinement.

Takeaways

  • 🍓 Strawberry, a rumored AI project from OpenAI, is speculated to solve complex math problems and utilize synthetic data for training.
  • 📈 The speaker has been working on synthetic data generation for over two years and is considered a world-leading expert in the field.
  • 🧠 Latent Space Activation is likened to how human brains connect dots during conversation, applying this concept to large language models.
  • 🔍 The concept of 'Surface Plate' involves a combination of three models: an expert, an interrogator, and a grader, to extract and refine knowledge.
  • 📚 The idea of recursively generating a 'textbook of everything' by using AI models to extract and synthesize human knowledge is introduced.
  • 🤖 The process involves an expert model providing base information, an interrogator model asking for deeper insights, and a grader model assessing the output.
  • 📈 Synthetic data, when highly curated, is found to be more efficient for training AI models, which is a key aspect of the 'Strawberry' project.
  • 🔑 The grading process is crucial for refining the synthesized data, ensuring that only the highest quality information is retained.
  • 🔄 The iterative process of questioning and answering can lead to the creation of comprehensive textbooks on various topics by AI.
  • 🤝 The potential of multiple fine-tuned models working in parallel to unpack every domain of human knowledge is highlighted.
  • 🤔 The speaker expresses uncertainty about how the 'Strawberry' project handles complex math, suggesting it might involve generating LaTeX formulas and logical unpacking.

Q & A

  • What is 'Strawberry' as mentioned in the script?

    -Strawberry is a rumored feature or capability from OpenAI that is said to involve solving complex math problems and generating synthetic data for training models like Project Oion.

  • What does the speaker claim to be an expert in?

    -The speaker claims to be a world-leading expert in synthetic data, having worked on it for a long time and shared insights openly.

  • What is Latent Space Activation?

    -Latent Space Activation is a concept where a model's embedded knowledge is assembled and crystallized upon being asked a question it hasn't thought of before, similar to how human brains make new connections during conversation.

  • What is the speaker's previous work related to 'Strawberry'?

    -The speaker had been working on a startup 18 months ago that involved developing a concept called 'Surface Plate,' which combined three models: a generator, an interrogator, and a grader, similar to the rumored workings of 'Strawberry'.

  • How does the speaker describe the process of creating synthetic data?

    -The speaker describes the process as one where a model is iteratively drilled into topics to generate comprehensive information, which is then graded for quality and used to refine the data set.

  • What role does the 'interrogator' play in the process described?

    -The 'interrogator' is a model that extracts all the information from the 'expert' model, prompting it to crystallize its knowledge on a given topic.

  • What is the purpose of the 'grader' in the process?

    -The 'grader' evaluates the quality of the generated text based on a rubric, helping to ensure that only the highest quality information is retained in the data set.

  • How does the speaker relate the process to writing a textbook?

    -The speaker likens the process to recursively writing a textbook of everything humans know, with models working in parallel to unpack every domain of human knowledge.

  • What is the speaker's speculation about how 'Strawberry' might handle math?

    -The speaker is unsure about the specifics but suggests that 'Strawberry' might use a generator to write out LaTeX formulas and logically unpack them, similar to its approach with other types of knowledge.

  • What is the potential outcome of the process described by the speaker?

    -The potential outcome is the creation of a comprehensive, high-quality data set that encapsulates a vast amount of human knowledge, which could be used for fine-tuning models like GPT-5 or GPT-6.

  • What is the speaker's final thought on the process and its implications?

    -The speaker believes that if their understanding of the process is correct, it could represent a significant advancement in AI training and knowledge synthesis, potentially leading to the creation of a 'one data set to rule them all.'

Outlines

00:00

🤖 Synthetic Data and Latent Space Activation in AI

The speaker introduces the concept of 'Strawberry', a rumored AI project from OpenAI capable of solving complex math problems, and generating synthetic data for training AI models. They highlight their expertise in synthetic data, having worked on it over two years ago, and share insights on Latent Space Activation, a process where AI models, trained on vast datasets, can crystallize knowledge by connecting dots in real-time, akin to human thought processes. The speaker also discusses their past work on a startup that involved combining three AI models: a generator, an interrogator, and a grader, to create a comprehensive knowledge base through recursive questioning and grading of the generated content.

05:01

📚 Recursive Textbook Generation and Model Grading in AI

The speaker elaborates on their approach to generating synthetic data and activating latent spaces in AI models, likening it to recursively writing a textbook on all human knowledge. They describe a process involving an expert model generating base text, an interrogator model asking for detailed information, and a grader model evaluating the quality of the generated content. The aim is to iteratively refine and synthesize information, discarding lower-quality samples to maintain a high standard of knowledge. The speaker also speculates on how OpenAI might be training their next models, possibly using similar recursive and iterative techniques to expand the AI's understanding across all domains of human knowledge.

10:01

🔧 Fine-Tuning AI Models for Comprehensive Knowledge Synthesis

In the final paragraph, the speaker reflects on their experience fine-tuning AI models since the GPT-2 era and shares their approach to creating a 'one dataset to rule them all' using latent space activation. They suggest that by using multiple instances of advanced AI models working in parallel, one could iteratively unpack every domain of human knowledge. The speaker also expresses uncertainty about how math could be incorporated into this process but remains optimistic about the potential of their method. They conclude by offering to make another video if they figure out the solution to incorporating math into the AI training process.

Mindmap

Keywords

💡Strawberry

Strawberry refers to a rumored AI model from OpenAI that is said to be capable of solving complex math problems. It is a central topic in the video, as the speaker discusses how such a model might work and its potential implications. The term 'Strawberry' is used to represent the latest advancements in AI and machine learning, suggesting a significant leap from previous models.

💡Synthetic Data

Synthetic data is artificially generated data used to train machine learning models. In the video, the speaker mentions having worked on synthetic data generation over two years ago, using GPT3 to create data sets for fine-tuning. The concept is integral to the video's theme, as it highlights a method for enhancing AI models' capabilities without relying solely on real-world data.

💡Latent Space Activation

Latent space activation is a concept where AI models, trained on large datasets, are prompted to 'activate' or crystallize their embedded knowledge on a specific topic. The speaker uses this term to describe a process similar to how human brains make connections when faced with new questions, illustrating how AI can be coaxed into revealing deeper insights.

💡Recursive Search

Recursive search is an algorithmic method of exploring data by repeatedly breaking down a problem into smaller components. The video describes how a recursive search algorithm might be used in AI to delve deeper into topics, such as unpacking fundamental forces in physics, by iteratively asking for more detailed information.

💡Fine-tuning

Fine-tuning in the context of AI refers to the process of adapting a pre-trained model to a specific task by retraining it on a smaller, more focused dataset. The speaker mentions using GPT3 for fine-tuning to create synthetic datasets, emphasizing the importance of this technique in advancing AI capabilities.

💡Expert Model

An expert model, as discussed in the video, is a type of AI that has been trained to a high level of proficiency in a particular domain. The speaker's concept of 'surface plate' involves an expert model that serves as a knowledge base to be interrogated by other AI components.

💡Interrogator

In the video, the interrogator is a component of the AI system designed to question the expert model and extract detailed information. It plays a crucial role in the process of latent space activation, acting as a catalyst for the AI to reveal its knowledge on a given subject.

💡Discriminator

A discriminator in AI is typically part of a Generative Adversarial Network (GAN) and is used to evaluate the authenticity of generated data. In the context of the video, the discriminator serves as a grader for the AI-generated content, assessing the quality and providing feedback.

💡Surface Plate

Surface plate is a concept introduced by the speaker, describing a system combining three AI models: an expert, an interrogator, and a grader. This concept is central to the video's narrative, illustrating a method for deeply exploring and synthesizing knowledge within AI models.

💡Generative Model

A generative model in AI is capable of creating new data instances that resemble the original training data. The video discusses the use of a generative model to produce content, such as writing sections of a textbook, based on the information provided to it.

💡GPT

GPT stands for 'Generative Pre-trained Transformer' and refers to a series of AI models developed by OpenAI. The speaker mentions GPT2 and GPT4, indicating the progression of these models and their increasing capabilities, which is a key point in discussing the potential of AI like 'Strawberry'.

Highlights

The speaker discusses the capabilities of 'Strawberry', a rumored AI model from OpenAI, including solving complex math problems and generating synthetic data.

The speaker claims to have been working on synthetic data generation over two years ago, using GPT3 for fine-tuning.

The concept of 'Laten space activation' is introduced, drawing parallels to human brain function and knowledge assembly.

The speaker shares their expertise in synthetic data, having been a world leader in the field.

A high-level explanation of how 'Strawberry' might work, based on the speaker's previous startup experience.

The idea of 'Surface Plate', a concept combining three models: a generator, an interrogator, and a grader.

The process of recursively searching through data to create 'latent space activation'.

The efficiency of highly curated synthetic data in training AI models, as discovered in the speaker's research.

The iterative process of generating comprehensive knowledge through recursive questioning and answering.

The role of the 'interrogator' model in extracting deep knowledge from the 'expert' model.

The use of a 'grader' model to assess the quality of generated information, based on a rubric.

The importance of grading and refining generated samples to maintain high-quality synthetic data sets.

The potential for multiple fine-tuned models working in parallel to generate comprehensive textbooks.

The speaker's hypothesis on how OpenAI might be training GPT 5 or GPT 6 using these methods.

The challenge of understanding how 'Strawberry' could handle complex math problems.

The speaker's intention to possibly create another video if they figure out the math aspect of 'Strawberry'.

A summary of the speaker's approach to using latent space activation for fine-tuning AI models.

Transcripts

play00:00

hello everybody I am awake and I don't

play00:01

want to be because I couldn't shut my

play00:03

brain off I think I know how strawberry

play00:06

works I'm not even kidding so if you're

play00:08

not familiar strawberry has been all the

play00:10

rage qar strawberry the leaks from open

play00:14

AI now the rumor has it right now and of

play00:17

course just rumor we'll see if it gets

play00:19

walked back but they're talking about

play00:22

how strawberry can solve complex math

play00:24

problems but then there's also talk

play00:26

about synthetic data and that synthetic

play00:28

data will be used to train project

play00:31

oion now something stuck out to me when

play00:35

they're talking about having solved uh

play00:38

the generation of synthetic data so next

play00:42

I want to point out I was talking about

play00:44

synthetic data over two years ago so I

play00:47

was using gpt3 to synthesize data to

play00:50

create synthetic data sets for

play00:52

fine-tuning the reason that I'm sharing

play00:54

this it's not a flex I mean it is a

play00:56

little bit of a flex but I'm pointing

play00:58

out that like I have been working on

play01:00

this for a while um and I've also been

play01:03

sharing this you see this is the open AI

play01:04

form I've been sharing it openly for a

play01:06

while as

play01:08

well so that's one thing is just keep in

play01:11

mind synthetic data it's something that

play01:13

I'm actually a world leading expert in

play01:17

um and then I want to talk about Laten

play01:19

space Activation so lat and space

play01:21

activation um basically what we realized

play01:24

is that

play01:26

if uh all right here's here's another

play01:29

way to think about it you train these

play01:31

models on gigantic data sets and there's

play01:32

a lot of embedded knowledge even if it's

play01:34

not fully crystallized and so what I

play01:37

mean by crystalized is it knows things

play01:40

but it has to assemble them and this is

play01:43

very similar to how human brains work is

play01:45

that um have you ever had a conversation

play01:47

where someone is asking you about

play01:49

something that you know a lot about but

play01:51

they ask you a question that you haven't

play01:52

really thought of before and then at

play01:55

that time of instantiation you kind of

play01:56

connect all the dots and then you say

play01:58

then you spit something out you're like

play02:00

wow I knew more about that than I

play02:01

thought that I did that's what Laten

play02:03

space activation is that's the

play02:04

equivalent of what latent space

play02:05

activation is for uh large language

play02:08

models and I was working on this 10

play02:10

months ago um and I made videos about it

play02:13

as well so that data is out there so

play02:17

next what I want to show you is how I

play02:20

think strawberry works at a very high

play02:22

level just using a generic example on

play02:24

Claude And the reason that I think that

play02:27

I know how it works is because I was

play02:29

working on this in my startup that I

play02:32

ultimately didn't go anywhere 18 months

play02:35

ago so I'm getting really excited now at

play02:39

the startup that I was working on I was

play02:40

developing a concept that I called

play02:42

surface plate surface plate would have

play02:45

been a combination of three models so

play02:48

you'd have the generator or the the

play02:50

expert then you'd have the interrogator

play02:53

um which is basically asking the the

play02:56

expert model what do you know about this

play02:58

and then you'd have a greater which

play02:59

would be a third model that would grade

play03:01

the quality of output you can do all

play03:04

this with chatbots now so in this first

play03:07

one imagine that instead of me asking

play03:10

this question this is a this is a

play03:12

chatbot that is fine-tuned or just

play03:14

instructed to interrogate the expert

play03:17

model and extract all of the information

play03:19

out of it to to create that latent space

play03:21

activation saying I know you know about

play03:24

this at a very deep level now tell me

play03:26

everything you know about it to

play03:27

crystallize it now you might remember

play03:29

the uh the paper that Philip covered

play03:32

over on AI explained textbooks are all

play03:34

you need what we found is that synthetic

play03:36

data when it is highly curated is

play03:39

actually much more efficient at training

play03:41

these models so that's all the theory

play03:44

behind it so in this first example I

play03:45

said tell me everything you know about

play03:47

physics at a high level um we will

play03:49

iteratively drill into topics y y y and

play03:52

so then uh Claude happily generates the

play03:54

top 10 qu uh categories of physics and

play03:59

then I say excellent unpack fundamental

play04:00

forces and particles cuz that was the

play04:02

first one so by recursively searching

play04:05

through the data remember what qar does

play04:08

is it's a apparently a recursive search

play04:11

algorithm now what I'm not quite sure on

play04:13

is is how this would cover math so I'm

play04:16

probably missing something but at least

play04:19

I know how to generate synthetic data

play04:20

and if you have enough tokens you can

play04:23

recursively generate or or or synthesize

play04:26

or you know do latent space activation

play04:28

for all of human knowled in these models

play04:30

and you can distill it and then also

play04:33

make new connections so fundamental

play04:35

forces and particles it started with

play04:37

just uh three bullet points and then in

play04:39

the next chat and

play04:41

remember you like this does not take

play04:44

much intelligence to interrogated again

play04:46

so you could very easily fine-tune

play04:48

another model to just uh be the

play04:51

interrogator and it says certainly so

play04:53

then it unpacks more about fundamental

play04:56

forces um and so then uh let's just I'll

play04:59

show you again it's like okay gravity is

play05:01

the first one so I'm recursively going

play05:03

through just basically a binary search

play05:05

tree um tell me everything you know

play05:09

about gravity and away we go so again it

play05:13

does not take that much intelligence to

play05:15

interrogate and activate and and create

play05:17

those lat and space activations and then

play05:20

what it's doing is it's synthesizing

play05:22

information and so then what you do is

play05:25

then you take it to the third model and

play05:28

so in this case um said you're a grader

play05:30

of data I will give you a bit of text

play05:32

and you will grade it with a rubric what

play05:34

we found a long time ago is that and

play05:36

lots of people independently discovered

play05:38

this by the way is that language models

play05:40

are really good at discriminating so you

play05:42

have a generator and a discriminator but

play05:44

in this case we have an expert an

play05:46

interrogator and a discriminator they're

play05:48

really good at grading each other with

play05:50

rubrics um particularly if you tell it

play05:52

how to grade it and on what criteria now

play05:55

I didn't give it uh a full rubric so a

play05:57

full rubric would be grade one is the

play05:59

this grade two is this grade three is

play06:01

this um but I gave it the first sample

play06:04

and I said you know there for uh this is

play06:06

copied from the other uh conversation

play06:09

and it gave it a five out of five um

play06:12

which I would I would say it's close I

play06:14

would say it's not particularly

play06:16

comprehensive um and so the reason that

play06:19

you do this is because as you're

play06:20

generating samples you want to grade all

play06:22

of them and you just basically discard

play06:24

the bottom % of the samples so that

play06:28

you're constantly ref ing your your your

play06:30

your synthesized data set to be the

play06:33

highest quality information so um next

play06:37

sample whoops

play06:40

sorry fat fingered

play06:43

that all right there we

play06:48

go okay so that's the next

play06:52

sample and we're going to watch it grade

play06:54

it um and again it graded at five out of

play06:57

five I could see some room for

play06:59

improvement

play07:00

um but when you have basically you're

play07:02

you're basically recursively writing a

play07:04

textbook of everything that humans know

play07:07

that is that is what I think strawberry

play07:09

does is by by using these models that

play07:13

have already been trained on all text

play07:14

Data across the entire world they know

play07:17

everything that humans know whether or

play07:19

not they know it and whether or not it

play07:20

has been trained in them well so by

play07:23

recursively generating a textbook and

play07:25

you have the expert that is saying okay

play07:27

I'm writing the the base text and then

play07:29

you have have the interrogator that's

play07:30

saying okay tell me what you know about

play07:31

that and then you have a third model

play07:34

that is saying okay cool that was well

play07:35

written or maybe not and you could do

play07:38

this with I could imagine there might be

play07:39

several more fine-tune models uh you

play07:42

might have one that is reformatting it

play07:43

so actually let's do this as an

play07:45

experiment um so I will create another

play07:49

chat and I say okay uh your purpose is

play07:53

to write um uh

play07:56

textbooks uh textbook sections based on

play07:59

the data I give you um write

play08:04

comprehensively um at the highest

play08:09

intellectual level uh

play08:11

oops uh domain expert um expound upon

play08:18

the um Base information I give you with

play08:22

all the uh knowledge you possess on the

play08:27

topic so then there might a fourth model

play08:30

which is just this is just the

play08:32

drafter and so let's see what it

play08:35

does um certainly I'd be happy to blah

play08:37

blah blah blah blah and then uh actually

play08:40

it's clawed so it's generating an

play08:41

artifact so here we have it it's

play08:44

actually generating the chapter for

play08:46

us this is how I would if if I had the

play08:49

money and the time and the uh and the

play08:53

and the compute time if you asked me

play08:55

said hey Dave use latent space

play08:58

activation and create me a fine-tuning

play09:00

data set that it's going to be like one

play09:01

data set to rule them all um this is how

play09:04

I would do it is I would uh use these

play09:07

models to iteratively basically generate

play09:10

one textbook to rule them all um is how

play09:13

I would approach this and you see how

play09:15

how far this is going and how fast

play09:18

imagine that you have a whole bunch of

play09:20

instances of Claud or gp4 or whatever

play09:24

working in parallel to iter iteratively

play09:27

unpack literally every domain of human

play09:30

knowledge that is what I think open AI

play09:33

is doing and that if I'm correct that is

play09:36

how they are training GPT 5 or GPT 6

play09:38

we're not sure um now and again like I

play09:41

said the one part that's missing is I'm

play09:43

not sure how they would have solved math

play09:46

um unless they did the same thing where

play09:47

they basically asked a generator saying

play09:50

hey write out this latex formula and and

play09:53

figure out how to how to logically you

play09:55

know unpack this or something along

play09:57

those lines I might make another video

play09:58

if I figure that out

play09:59

but yeah I hope you got a lot out of

play10:01

this um I could be wrong but as someone

play10:03

who's been fine-tuning models since

play10:07

gpt2 this is how I would approach it so

play10:09

cheers

Rate This

5.0 / 5 (0 votes)

Related Tags
AI ActivationSynthetic DataComplex MathLanguage ModelsRecursive SearchKnowledge SynthesisExpert InterrogationData GradingFine-TuningInnovation Insights