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Why Graph Engineering will 10x your Claude/Codex

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Why Graph Engineering will 10x your Claude/Codex

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644 segments

0:00

I came on here to talk about a term I

0:01

keep seeing going viral on Twitter. It's

0:05

graph engineering. You've seen it. I've

0:07

seen it, too. And I'll be honest, the

0:09

first time I saw it, my reaction was,

0:11

"Okay, is this a real thing, or did we

0:14

just invent another phrase to make

0:16

everyone feel behind?" Because AI has

0:19

this funny habit where every few weeks,

0:22

there's this new term that goes viral.

0:25

Prompt engineering, context engineering,

0:27

agent engineering, vibe coding, uh loop

0:31

engineering, and now graph engineering.

0:33

Some of these phrases are hype. Some of

0:36

them are actually useful. And graph

0:38

engineering is one of the useful ones,

0:41

because it gives you a much better way

0:42

to think about how AI actually gets

0:45

done. So, in this episode, I'm going to

0:48

explain graph engineering in plain

0:50

English. By the end of this episode, I

0:53

want you to be able to take one AI

0:56

workflow you already run, like customer

0:59

research, port triage, content

1:01

production, or startup idea validation,

1:04

and turn it into a simple map of steps,

1:07

checks, handoffs, loops, and human

1:09

approvals. So, we're going to talk about

1:11

all that and how you can do it. It's

1:12

going to be clearly explained. So, let's

1:15

get into it.

1:19

>> [music]

1:24

>> The simplest way to think about graph

1:26

engineering is like this.

1:29

Prompt engineering is how you ask the AI

1:32

for a better question, and context

1:35

engineering is how you give AI better

1:38

information. But graph engineering is

1:41

how you design the work around the AI,

1:44

so the whole thing stops living inside

1:46

inside one messy, giant AI chat.

1:51

I'll give you an example. Imagine you're

1:54

researching a new new idea. The normal

1:56

way most people use AI is they open up a

1:59

chat and they say, "Should I build this

2:02

idea?"

2:03

The model will give you a confident

2:05

answer.

2:06

It probably sounds pretty smart. It

2:08

might give you the market size, a few

2:10

competitors, maybe a go-to-market plan,

2:13

and you feel like you did the research.

2:15

But if you actually slow down, you

2:18

realize something a little uncomfortable

2:20

happened.

2:22

One model in one pass decided what

2:25

mattered, researched the market,

2:27

interpreted the evidence, wrote the

2:29

recommendation, and graded it in its own

2:32

confidence. That's a lot of trust

2:35

to put into one blob of text. In some

2:39

cases, you might spend years of your

2:41

life based on this one question that you

2:43

asked, and you might be working on the

2:45

wrong thing.

2:46

The graph version looks a lot different.

2:51

So, a planner first breaks the question

2:54

into angles. One research One researcher

2:57

looks at the customer,

2:59

another looks at competitors, another

3:02

looks at distribution, another looks at

3:04

pricing, another looks at risks. Then a

3:06

skeptic will try to kill the weak

3:09

findings. Then a merger turns the

3:11

surviving evidence into a one-page

3:13

recommendation. And then you approve the

3:16

decision before you act on it. The

3:19

output might still be this written

3:20

report, but the work behind it is just

3:23

designed so much better. And that at its

3:26

core is graph engineering. You're taking

3:29

a messy AI task and turning it into a

3:32

workflow that you can actually manage.

3:35

Now, let's define the basic vocabulary

3:38

without making this feel like a computer

3:40

science lecture. By the way, I remember

3:42

learning about One of my first classes

3:44

in university was

3:46

graph theory and and and so it's a real

3:49

throwback for me. I will explain it to

3:50

you in the clearest way possible. When

3:53

people say graph, they basically mean

3:56

jobs connected by arrows. Each job is a

4:00

step in the workflow. The arrows show

4:03

what happens next. And the shared notes

4:06

moving through the workflow are the

4:07

state, which is just a fancy way of

4:10

saying what does the system know so far?

4:13

So, that sounds technical for about 5

4:16

seconds and then you realize that's

4:18

actually how work gets done in the real

4:20

world in in in reality.

4:23

You know, think about customer support.

4:25

When a customer writes in, the work is

4:27

rarely just answer the ticket. First,

4:30

you need to understand what kind of

4:31

issue it is. Then you need to check the

4:34

customer's account history. Maybe you

4:36

need to search for the docs for the

4:38

right policy. Then you draft a response.

4:41

Then you decide whether this is risky

4:43

enough that a human should review it

4:45

before going out. When you draw those

4:48

steps out and connect them in an order,

4:50

they actually depend on each other and

4:52

that is a graph.

4:54

Take content for example. If I'm making

4:57

a YouTube episode, the work isn't just

4:59

write a script. A good episode might

5:02

start with research, a thesis, examples,

5:07

a hook, maybe a script,

5:10

then title ideas, then

5:13

thumbnail uh directions, then I you

5:15

know, an Excalidraw, and then a final

5:17

pass where I ask, "Does this sound like

5:19

a human being or does this sound like

5:21

someone trapped inside a SaaS onboarding

5:23

flow?"

5:24

Some of those steps have to happen in

5:26

order.

5:27

Some of those steps have have to happen

5:29

in order. You probably want the thesis

5:32

before the script. You probably want the

5:34

script before the Excalidraw. But other

5:37

pieces can happen at the same time. One

5:40

re- One researcher can look for examples

5:43

while another looks for

5:44

counterarguments. One could study the

5:46

audience angle, while another looks for

5:49

practical workflows. Then, those outputs

5:52

merge back into the script. And that's

5:55

where the graph starts paying because

5:57

most people use AI in a straight line

6:00

because chat

6:02

makes everything kind of feel

6:03

sequential. You ask for research, then

6:06

you ask for summary,

6:08

then you ask for a draft, and then you

6:09

ask for edits, then you ask for titles.

6:12

That works for really simple things, but

6:14

when the work has multiple pieces, the

6:16

straight-line chat starts to get slow

6:19

and fuzzy and actually hard to trust.

6:23

What's cool about a graph is it lets you

6:25

design the work more like a small team.

6:29

One part plans, a few work in parallel,

6:32

another checks the work, another merges

6:35

it, and then the human approves the

6:38

final step. And once that clicks in your

6:40

head, uh it just gets a lot less

6:43

mysterious because there's two different

6:45

things people mean when they say graph

6:48

in AI. And this is actually where a lot

6:51

of the confusion comes from. The first

6:53

is what's called a knowledge graph.

6:56

A knowledge graph helps AI reason over

6:58

relationships over things.

7:01

For example, this customer works at this

7:04

company, this company uses this product,

7:07

this product connects to this tool, this

7:09

support issue relates to this feature,

7:12

and this feature is owned by this team.

7:15

Knowledge graphs help because AI reason

7:19

across relationships in messy data. This

7:22

matters because normal rag often

7:25

retrieve chunks of text that looks

7:27

similar to the question, but it can

7:29

struggle when the answer actually

7:31

requires connecting different people

7:34

across companies and topics and claims

7:37

and events.

7:38

You know, there's tools like you might

7:40

have heard of Microsoft graph rag,

7:42

because sometimes you just need AI to

7:44

understand relationships inside a body

7:47

of knowledge, not just to retrieve the

7:50

nearest paragraph. That is one version

7:53

of graph engineering. The second version

7:56

is what's called an agent graph. An

7:58

agent graph is about how work moves. So,

8:01

a planner hands work to researchers, the

8:04

researchers work in parallel, a skeptic

8:07

checks the findings, a synthesizer might

8:09

merge the parts,

8:10

and a human will, you know, approve the

8:12

final answer.

8:14

This episode is mostly about agent

8:16

graphs, actually, because that is the

8:17

version you can start using today as a

8:20

founder, as a creator, as an operator,

8:22

as a small team. So, I figured I'd do an

8:24

episode focusing on that. Um the easiest

8:27

way to remember the difference, though,

8:30

is is kind of like this. Knowledge

8:32

graphs help AI understand how

8:34

information connects,

8:36

whereas agent graphs help AI understand

8:40

how work should move. And eventually,

8:44

the truth is the best systems use both.

8:47

The AI will understand relationships

8:49

inside your business, and it will also

8:52

know how to move through the right

8:53

steps.

8:55

Um but how can we make this tactical?

8:57

When should you use graph engineering?

8:59

Well, use it when the work has multiple

9:02

steps, multiple sources, maybe multiple

9:04

paths, checks, risk, or approvals.

9:08

Honestly, if you're asking AI to

9:10

brainstorm 10 names for a new project,

9:13

you probably don't need a graph. If

9:15

you're asking AI to summarize a short

9:17

email, you probably don't need a graph.

9:20

But if you're using AI to do deep

9:23

research, create a go-to-market plan,

9:25

triage support tickets, review code,

9:29

prepare for sales calls, synthesize

9:31

customer feedback, or produce recurring

9:34

content workflow, that's when graph

9:36

thinking actually starts to matter a

9:38

lot. And the rule is pretty simple. Use

9:41

a graph when the work has multiple

9:44

steps, some steps can happen at the same

9:46

time, and the final output needs

9:49

checking before it matters. A diamond

9:52

starts with one question, splits into

9:54

multiple parallel paths, checks the

9:56

work, and then merges everything into

9:59

back into one answer. So, here's a

10:02

here's the startup idea version. Let's

10:04

say the question is, "Should I launch an

10:07

AI bookkeeping product for Shopify

10:10

merchants?" The messy chat version is

10:13

one big question and one big answer.

10:17

The graph version starts with a planner.

10:19

So, the planner would say something

10:21

like, "To answer this well, we need to

10:23

understand the customer pain, the

10:25

competitive landscape, the go-to-market

10:28

wedge, the pricing pressure, and the

10:30

risks." And then the work splits. You

10:33

have one researcher who studies Shopify

10:36

merchants and tries to understand the

10:39

bookkeeping pain. Are they using

10:41

QuickBooks? Are they using spreadsheets?

10:44

Are they hiring bookkeepers? Are they

10:46

annoyed at tax time? Are they looking

10:48

for automation or do they just want

10:51

someone to clean up the mess once a

10:53

month? You'll have another researcher

10:55

who's studying competitors.

10:57

Are there already Shopify bookkeeping

11:00

tools? Are there accounting firms

11:01

building this manually? Are App Store

11:04

products solving this at all? Are

11:06

freelancers on Upwork or Fiverr doing

11:09

the work in a way that software could

11:11

partially replace?

11:13

Maybe you have another researcher who's

11:15

studying the distribution. Where do

11:17

Shopify merchants actually hang out?

11:20

What newsletters do they read? What

11:22

agencies already have trust with them?

11:24

What Shopify app categories do they

11:26

search? What search terms reveal buying

11:29

intent? Those three jobs can happen at

11:32

the same time because they don't depend

11:35

on each other. Then comes the skeptic.

11:39

The skeptic asks, what claims are

11:41

actually supported? Which evidence is

11:43

stale because you're going to have data

11:44

that is just old. Which competitor is

11:47

being ignored? Where are we confusing

11:49

pain with willingness to pay? Where did

11:52

the AI sound confident without proving

11:56

anything? And this step matters more

11:59

than people think. A lot of AI research

12:02

fails because the same model that writes

12:05

the answer also grades the answer.

12:10

That is like asking someone to write

12:12

their own performance review and then

12:15

being shocked when they describe

12:17

themselves as a vision- a visionary.

12:19

Come on. In a good graph, checking is

12:23

its own job. Then comes the merge. The

12:27

merge step takes the surviving evidence

12:30

and turns it into a recommendation.

12:33

Should we pursue this? Should we pause

12:35

it? Should we kill it? What is the

12:37

wedge? Who's the first customer? What

12:40

should we test this week? And what

12:43

evidence would actually change our mind?

12:45

And finally, you have the human gate.

12:48

That's where you decide what to do next.

12:50

You might decide to record a landing

12:52

page teardown of a Shopify merchants.

12:55

You might decide to interview 10 Shopify

12:58

uh agency owners. You might decide to

13:01

build a tiny calculator that estimates

13:04

bookkeeping cleanup costs. Or hey, you

13:06

might decide the idea is way too crowded

13:09

and you just want to move on. But that

13:11

is the point. Graph engineering does not

13:14

magically make the decision for you. It

13:17

gives you a better way to produce the

13:19

evidence you use to make the decision.

13:22

Now, this is where I think people get

13:24

too fancy too quickly.

13:27

I would start way simpler than you see

13:30

on on Twitter people using LangGraph,

13:32

you see people using AutoGen, or some

13:34

custom agent framework on day one. For

13:37

your first graph, you can actually run

13:40

it manually behind the scenes. I don't

13:42

know why more people don't do this. I

13:44

could show you exactly how to do it, but

13:47

that just might be boring. The important

13:49

thing is the structure. Give each job

13:52

its own lane. One lane does customer

13:54

research, another lane does competitor

13:57

research, another lane does distribution

13:59

research. Then the checker lane attacks

14:02

the evidence, then the merge lane turns

14:05

the surviving evidence into a

14:07

recommendation. That is already graph

14:10

engineering. It's like level one of

14:11

graph engineering. Yes, it's slower than

14:14

a fully automated system, but it's way

14:17

easier to understand. And if the manual

14:19

version doesn't produce way better work,

14:22

automating it, honestly, will just

14:24

produce mediocre work way faster.

14:28

The first rep is to draw the graph

14:30

before you automate the graph.

14:33

For me,

14:34

I would do this with a blank Excalidraw

14:36

or TLDraw a TLDraw board.

14:40

I would write the final outcome at the

14:41

top.

14:43

Then I would draw the jobs,

14:45

planner, customer researcher,

14:48

competitor researcher, distribution

14:51

researcher, skeptic, merge, human

14:54

approval.

14:56

Then I would draw the arrows. The

14:58

planner feeds the three researchers. The

15:01

researchers feed the skeptic. The

15:03

skeptic feeds the merge.

15:05

The merge feeds the human decision.

15:08

And that's enough.

15:11

Now, once that works three times

15:13

manually, then I would think about all

15:15

the tools. The beginner version is a

15:17

manual run with with separate lanes. But

15:21

the intermediate version is Claude code,

15:23

code acts, or repo where each step

15:26

writes files. The planner writes

15:29

plan.md,

15:30

the researcher writes customer.md,

15:34

competitors.md,

15:35

and distribution.md,

15:37

and the skeptic writes review.md. The

15:40

merge step writes recommendation.md.

15:43

What's cool about that is it leaves a

15:45

paper trail and that's that's really

15:47

nice. You can see what happened. You can

15:50

compare versions and you can actually

15:52

and you can actually reuse the structure

15:53

next week or a few weeks later. Now, the

15:56

advanced version is when you do use

15:58

something like LangGraph,

16:01

AutoGen Graph Flow, n8n, make.com, or

16:06

your own small scripts to actually

16:08

orchestrate the graph.

16:10

So, LangGraph is actually really useful

16:12

when you want state checkpoints,

16:14

persistence, human-in-the-loop

16:16

approvals, and more reliable control

16:20

over how an agent workflow runs.

16:22

Then you have something like AutoGen

16:24

Graph Flow, and that's useful when you

16:27

want directed workflow with sequential

16:29

steps, parallel steps, conditional

16:32

branches, and loops.

16:34

Tools like n8n, make.com are are useful

16:38

when the graph touches everyday business

16:41

systems like Slack, email, airtable, or

16:44

your CRM.

16:46

But again, the tool is not the point. Uh

16:49

the tool should come after the workflow.

16:51

If you automate a workflow you do not

16:53

understand, you get a mess. If you

16:56

understand the workflow first,

16:58

automation then becomes super obvious,

17:00

and I can do a graph engineering

17:02

advanced tutorial if people are

17:04

interested uh using things like

17:06

LangGraph LangGraph or Claude code.

17:09

Uh but for the purpose of this episode,

17:11

I think we just want to get to level one

17:13

and level two. Okay, so you now

17:17

hopefully understand what graph

17:19

engineering is at a high level. But, how

17:22

can you actually integrate this into

17:24

your startup, into your business

17:26

to start making more money, or creating

17:29

better products, or

17:31

just generating a lot of value.

17:33

Uh the one that comes to mind uh first

17:37

is customer support. So, a simple

17:39

support graph

17:41

might start by classifying the issue.

17:44

Is it billing? Is it product confusing?

17:46

Maybe it's a bug, or cancellation risk,

17:48

or maybe it's something else.

17:51

Then the graph checks account context.

17:54

So, is it a new customer? Are they high

17:56

value? Have they written in before? Are

18:00

they frustrated?

18:01

Then it searches the docs, or internal

18:04

policies. You might have like a whole

18:06

wiki for your company, maybe a notion

18:08

board, maybe it goes and explores that.

18:10

Then it drafts a reply. Then a checker

18:14

reviews the reply for accuracy, tone,

18:17

and risk. Then a human approves anything

18:20

involving refunds, account changes,

18:22

angry customers, legal risk, or promises

18:26

that a company just might regret later.

18:29

And that's the graph. And it's better

18:31

than saying AI answered the support

18:33

ticket, because the support ticket is

18:35

not the real workflow. The real workflow

18:38

is understanding, and researching, and

18:40

drafting, and checking, and approving.

18:43

It's probably starting to click now.

18:45

Content Content creation is just another

18:49

uh example that comes top of mind. A

18:51

content graph might start with research,

18:54

then it creates a thesis, then it finds

18:56

examples, then it writes a hook, then it

18:58

drafts a script, then a checker asks

19:00

whether the examples are specific,

19:02

whether the pacing works, whether the

19:04

hook earns attention based on what's,

19:07

you know, formats that are working, and

19:09

whether the writing sounds like a person

19:12

something like the person actually would

19:14

say. Then the graph can branch into

19:16

title ideas, thumbnail concepts,

19:18

captions,

19:20

B-roll, things like that. And that's

19:22

also closer to how a content lead, a

19:25

real content lead that you would hire to

19:27

help you create content, would actually

19:29

do. Another great example is coding. A

19:33

coding graph might start with a plan,

19:35

then one agent edits the code, another

19:37

reviews the diff, another runs tests,

19:40

another checks the UI in a browser,

19:42

another looks for edge cases, and then

19:44

you have a human being actually

19:46

approving the final pull request. And

19:49

that's basically where all these AI

19:51

coding tools are going. The model

19:53

writing the code is only one part of the

19:55

workflow, and there's leverage in all

19:57

the planning and testing and reviewing

20:00

and inspecting and deciding what is

20:02

actually safe to ship. And that's

20:05

actually an important point. Like a big

20:06

reason why graph engineering matters is

20:10

it makes quality less dependent on

20:13

summer someone remembering a perfect

20:15

prompt to ask their LLM. It makes

20:18

reviews way more consistent. It makes

20:20

delegation in general way cleaner. It

20:23

makes approval way more explicit. It

20:26

gives you a place to add tools and

20:29

memory and checks and permissions over

20:31

time, and it turns AI work from just

20:35

like chat into this operating system.

20:38

And that that really does feel like

20:39

you're living in the future once you get

20:41

to that place. Now there is one mistake

20:43

that I want to warn against, which is

20:46

more agents don't automatically mean

20:49

better output. Sometimes actually more

20:52

agents mean more noise.

20:55

Sometimes it means five AI workers

20:57

confidently repeating the same wrong

21:00

idea. Sometimes it means the system

21:03

spends more time coordinating than

21:05

thinking. So the goal is not to make the

21:07

biggest graph possible. I've seen people

21:09

on X,

21:10

you know, go viral with these big big

21:12

graphs, but that's not the goal. The

21:14

goal is actually to make the smallest

21:16

graph that improves the quality of work.

21:19

And that's a really important

21:20

distinction because a good graph should

21:22

remove fake waiting and it should

21:25

separate workers from checkers. And

21:27

really it should be human approval where

21:30

mistakes are expensive. And it should

21:33

stop when the answer is good enough.

21:35

Shouldn't need to continue. And it

21:37

should leave behind the useful state,

21:40

the meeting notes, the evidence, the

21:41

drafts, the sources, and the decision so

21:44

that you can use it later. And the And

21:46

that By the way, the last point is

21:47

underrated because the real compounding

21:50

value of gra- graph engineering isn't

21:53

just that one task gets better. It's

21:55

that your work starts producing memory.

21:58

What do I mean by that? I mean that

22:00

every customer research graph creates

22:02

better customer notes. Every content

22:05

graph creates better examples and

22:07

audience insights. Every support graph

22:09

creates better product feedback. And

22:12

that's where the context becomes the

22:13

moat because the graph produces the

22:16

work, but it also produces the memory

22:18

that makes the next graph smarter. So,

22:20

it becomes this like asset for you. So,

22:23

if you want to get into graph

22:24

engineering and you're like, "How do I

22:26

start?" Here's Here's a way to think

22:28

about it.

22:29

Um I would pick one workflow I already

22:31

run with AI every week. Maybe it's

22:34

researching ideas or preparing podcast

22:37

episodes, uh reviewing landing pages,

22:40

analyzing customer feedback.

22:43

Then I would write the final output in

22:45

one sentence. For example, I want a

22:47

one-page recommendation on whether this

22:50

startup idea is worth testing.

22:52

And then I would list the jobs a great

22:55

human would do.

22:57

They would clarify the question. They

22:59

would research the customers. They would

23:02

research competitors. They would look

23:04

for distribution. They would look for

23:06

risks. They would check the evidence.

23:09

They would make the recommendation. And

23:11

then I would draw arrows where the work

23:14

actually depends on another step.

23:17

So, what do I mean by that? Customer

23:19

customer research and competitor

23:22

research could happen at the same time.

23:24

The skeptic needs the research before it

23:26

can check it. And the final

23:28

recommendation needs the skeptic pass

23:31

before it can merge the evidence. Then I

23:34

would add one human gate before the

23:36

expensive decision. If the output is a

23:39

private memo, maybe the human gate is

23:42

light. If the output is a customer

23:44

email, a public post, code deploys, a

23:48

refund, or anything touching production

23:50

data, you got to have a human gate

23:52

that's stricter. Then I would run it

23:54

manually once. This is the whole first

23:58

rep that we want to get good at. You

24:00

don't have to create this giant

24:01

automation project.

24:04

Just create the jobs and the arrows. And

24:07

after you do this once, you start seeing

24:09

AI work differently.

24:11

Cuz you're not thinking about like,

24:13

"Okay, I need to do the most perfect

24:14

prompt ever. What What is that What is

24:16

the perfect prompt for this task I'm

24:18

trying to do?" You start thinking about,

24:20

"Okay, what's the most perfect workflow

24:22

for this?" And then uh you start

24:25

designing a path that produces that

24:28

answer. And that's why I think graph

24:30

engineering in general is a a concept

24:33

that is worth paying uh attention to.

24:35

It's really like the next logical step

24:38

after prompting. And I think the people

24:40

who get the most out of AI will be the

24:43

people who know how to break down work

24:46

into the right pieces, give each piece

24:48

the right context, check the output, and

24:50

keep the human in the right place. So,

24:53

now that, you know, we're towards the

24:55

end of the episode, here's what I would

24:57

do to try to learn this. I would pick

25:00

one workflow you already run, draw those

25:02

jobs and arrows, delete the fake

25:04

waiting, run the independent jobs in

25:06

parallel, add a skeptic, merge the

25:08

survivors, approve the final step

25:10

yourself, and there you have it. That'll

25:12

be your first graph.

25:14

And once you have one graph that works,

25:16

you're not just prompting AI anymore,

25:18

you're managing AI work. It's sort of

25:20

this like next level in uh

25:23

being an agent manager and and really

25:26

just like stepping yourself into this

25:28

new world uh deep into this new world

25:32

where

25:33

uh you're getting the most out of AI to

25:34

build out your dreams, to take ideas and

25:37

put them out there, and getting, you

25:39

know, something I just think a lot about

25:40

now is just like how do I get the most

25:42

out of these platforms?

25:44

Um and graph engineering is just a

25:46

concept that helps you think about that.

25:50

So, there you have it, folks.

25:52

Uh graph engineering clearly explained.

25:55

Um hope that it got your creative juices

25:57

flowing. Hope it's been helpful. Um

26:01

My name's Greg Eisenberg. I'm the host

26:03

of the Startup Ideas podcast. For more,

26:06

uh you know, like, comment, and

26:08

subscribe. Follow on on uh Spotify and

26:11

Apple. And uh

26:14

you know, I feel grateful that you're

26:16

here. Um that I I'm able to teach you,

26:19

give you these concepts.

26:22

Um

26:22

and I just can't wait to see what you

26:24

build. I'm rooting for you. Have a

26:26

creative day, and I'll see you next

26:27

time.

Interactive Summary

The video explains graph engineering, a concept gaining traction in AI, distinguishing it from other terms like prompt or context engineering. Graph engineering focuses on designing the workflow around AI, breaking complex tasks into a map of interconnected steps, checks, handoffs, loops, and human approvals, rather than relying on a single, messy AI chat. It is particularly useful for intricate tasks like deep research, content production, or customer support, where parallelism, scrutiny, and human oversight are crucial. The speaker defines core concepts like 'jobs,' 'arrows,' and 'state,' differentiating between knowledge graphs (understanding relationships in data) and agent graphs (understanding how work moves). The recommended approach to adopting graph engineering starts with manually drawing out and testing a workflow, emphasizing that the structure and process are more important than immediate automation. A key benefit is the creation of 'memory' where each completed graph generates valuable insights and feedback, making future AI tasks even smarter.

Suggested questions

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