← 3c PAL



FDE» 0 lets start at top….

how are palantir apps typically deployed? are they run within some palantir app, hosted on palantir. thats something missing in the demo docs.

Yes — the demos often skip this, but it is fundamental.

Short answer

Palantir apps are typically built and hosted inside Foundry.

Users access them through the Foundry web interface, not by installing software locally.

Typical deployment model

Foundry platform
│
├── Data layer
│   ├── datasets
│   ├── pipelines
│   └── transforms
│
├── Ontology layer
│   ├── object types
│   ├── links
│   ├── actions
│   └── functions
│
└── Application layer
    ├── Workshop apps
    ├── dashboards
    ├── Automate alerts
    ├── AIP agents
    └── custom OSDK apps/widgets

The app usually runs on top of Foundry data and ontology objects.

Main types of Palantir apps

1. Workshop apps

These are the most common in demos.

They are:

  • built inside Workshop,
  • hosted by Foundry,
  • accessed in the browser,
  • connected to Ontology objects and actions,
  • governed by Foundry permissions.

Example:

Claims Process Application

You build it in Workshop edit mode, then publish/share it.

2. Automate workflows

These are not visual apps in the same way, but operational automations.

They are:

  • configured inside Foundry,
  • triggered by data/object conditions,
  • send alerts or run actions.

Example:

Alert when a high-risk claim enters investigation

3. AIP agents / AI apps

These are AI assistants or workflows.

They are:

  • configured in Foundry/AIP,
  • grounded in Ontology/data/documents,
  • exposed through AIP interfaces or embedded into workflows.

4. Custom OSDK apps

These are more like traditional web apps.

They can be:

  • React/TypeScript applications,
  • built with Palantir’s OSDK,
  • hosted in Foundry or externally depending on setup,
  • connected to Foundry via APIs.

This is more advanced than the speedruns you’re doing.

So where does the app “run”?

For most speedrun apps:

It runs inside Foundry, in the browser, hosted by Palantir/Foundry.

The user opens a Foundry URL and uses the app there.

The underlying compute/data stays in Foundry:

  • datasets live in Foundry,
  • pipelines run in Foundry,
  • ontology objects are served by Foundry,
  • functions/actions execute in Foundry,
  • Workshop renders the UI.

Deployment lifecycle

Typical flow:

Build app in Workshop
        ↓
Preview/test
        ↓
Save
        ↓
Publish / deploy version
        ↓
Share with users/groups
        ↓
Users access app in Foundry browser UI

Important distinction

There are two things:

1. The application shell

Example:

Workshop app

This is the UI users see.

2. The operational backend

This includes:

datasets → ontology → functions → actions → automations

The app is mostly a front end on top of those governed backend objects.

One-sentence version

Palantir apps are usually web applications hosted inside Foundry, built with tools like Workshop or AIP, backed by Foundry datasets and Ontology objects, and deployed by saving/publishing them to users with governed permissions.



FDE» 0.1 we generate with python?

Yes — that’s the cleanest option.

We can generate small fake datasets with a Python transform inside Foundry.

Example flow:

Python transform
   ↓
customers dataset
orders dataset
shipments dataset
events dataset

The transform would create rows like:

customers = [
    {"customer_id": "C001", "name": "Acme Foods", "region": "East"},
    {"customer_id": "C002", "name": "Blue River Co", "region": "West"},
]

Then write them as Foundry datasets.

Why Python-generated test data is good

  • No need to download files.
  • No broken tutorial links.
  • No sensitive data.
  • Reproducible: rebuild anytime.
  • We can design the data to demonstrate exactly one concept.
  • Easy to expand from tiny demo to larger project.

Example mini-project data

We could generate:

customers
products
orders
shipments
shipment_events

Then build demos:

Raw generated data
    ↓
Clean data
    ↓
Join data
    ↓
Ontology objects
    ↓
Workshop app
    ↓
Alerts / actions / AI

So yes: Python-generated fake data is probably the best foundation for your own learning demos.



FDE» 0.2 can we generate the typical various data sources (not just csv) that foundry imports? streams?

and can we generate “sterile” data …. not “orders” , “Shipments” , but “dataset1”, “dataset2”… i am wanting mechanistic demos, not these silly “real world” demos with endless complexity.. my goal is to understand what palantir can do, not try to learn palatir by doing real world demos.

Yes — and I think your instinct is exactly right.

We can build sterile / mechanistic demos where the data is intentionally boring:

dataset_1
dataset_2
event_log
file_input
stream_input
object_a
object_b

No fake business story. No claims, shipments, customers, etc.

The goal would be:

Demonstrate the mechanism, not the domain.

Can we generate typical Foundry data sources?

Yes, mostly.

Easy to generate directly

We can generate:

Source type Can generate? How
Structured dataset Yes Python transform
CSV-like table Yes Python transform or uploaded file
JSON file Yes Python transform writing file or media item
JSONL file Yes Python transform
Multiple raw files Yes unstructured dataset or media set
Time/event log Yes Python transform
Slowly changing data Yes incremental transform pattern
Reference table Yes Python transform
Many-to-many link table Yes Python transform
Bad/dirty data Yes intentionally generated nulls/duplicates/type issues

Harder / platform-dependent

Source type Can simulate? Notes
Streams Maybe / depends True Foundry streams require stream infrastructure. We can simulate stream-like event batches with incremental datasets.
External APIs Yes-ish Could simulate with generated files; true external source needs data connection/egress setup.
SaaS connector data Simulate We can create datasets shaped like connector outputs.
Media sets Yes Can create media sets or upload/generated files depending on permissions/tools.

So for learning mechanics, we do not need real streams at first. We can simulate stream behavior with append-only event datasets.

Recommended sterile naming

Use names like:

raw_table_a
raw_table_b
raw_events
raw_json_files
clean_table_a
clean_table_b
joined_ab
aggregated_metrics
ontology_object_a
ontology_object_b

Or even more abstract:

dataset_1
dataset_2
dataset_3
event_log_1
file_set_1
object_type_1
action_1
function_1
app_1

Mechanistic demo ladder

Demo 1 — Structured dataset generation

Purpose:

Can Foundry create and store a table?

Data:

dataset_1(id, category, value)

Output:

raw_dataset_1

Demo 2 — Cleaning

Purpose:

Can Foundry clean/filter/cast/rename data?

Input:

raw_dataset_1

Output:

clean_dataset_1

Operations:

remove nulls
cast value to number
rename columns
deduplicate by id

Demo 3 — Join

Purpose:

Can Foundry combine datasets?

Inputs:

clean_dataset_1(id, key, value)
clean_dataset_2(key, label)

Output:

joined_dataset_1_2

Demo 4 — Aggregation

Purpose:

Can Foundry summarize data?

Input:

joined_dataset_1_2

Output:

aggregated_by_category

Demo 5 — JSON file parsing

Purpose:

Can Foundry parse semi-structured files?

Input:

raw_jsonl_file_1

Output:

parsed_json_dataset_1

Demo 6 — Incremental / stream-like events

Purpose:

Can Foundry process only new data?

Input:

event_log_1

Output:

event_metrics_1

Mechanism:

append new event batch → incremental transform updates metrics

This simulates streaming without needing real streams.

Demo 7 — Ontology

Purpose:

Can Foundry turn rows into objects?

Input:

clean_dataset_1

Output:

object_type_1

Demo 8 — Link types

Purpose:

Can Foundry represent relationships?

Inputs:

object_type_1
object_type_2

Link:

object_type_1.key → object_type_2.key

Demo 9 — Workshop app

Purpose:

Can Foundry make an app from objects?

App:

app_1

Widgets:

object table
filter
chart
detail view

Demo 10 — Action

Purpose:

Can a user edit an object through a governed action?

Action:

action_update_status

Demo 11 — Function

Purpose:

Can custom code compute or validate something?

Function:

function_compute_score

Demo 12 — Automate

Purpose:

Can Foundry trigger alerts/workflows?

Monitor:

if object_type_1.status = "X" then alert

Demo 13 — Process mining

Purpose:

Can Foundry mine a state-transition process?

Input:

event_log_1(object_id, old_state, new_state, timestamp)

Output:

process_graph_1

Demo 14 — LLM extraction

Purpose:

Can Foundry use AI to structure text?

Input:

raw_text_file_1

Output:

extracted_fields_1

Demo 15 — AIP Agent

Purpose:

Can an agent answer questions using ontology/data/tools?

Agent:

agent_1

Tools:

query object_type_1
run function_1
summarize result

Core philosophy

Instead of:

Customer lifetime value
Claims processing
Shipment consolidation

Use:

dataset_1 → dataset_2 → joined_dataset → object_type_1 → app_1

That removes domain noise.

Best project structure

One Foundry project:

Mechanistic Foundry Demos

Folders:

00_raw_generated_data
01_pipeline_builder
02_python_transforms
03_ontology
04_workshop
05_actions_functions
06_automate
07_machinery
08_aip

One-sentence answer

Yes — we can generate sterile synthetic datasets and files with Python, simulate multiple source types including JSON/files and stream-like event logs, then build small mechanistic demos that isolate each Foundry capability without business-domain complexity.



1 could you summarize (very brief text) the 10-20 main capabilities of palantir.?? right now seems like i have touched on foundry, aip, agentic ai, mining, pipelines

Here are the main Palantir / Foundry capabilities in very brief form:

Capability What it does
Foundry data platform Central place to ingest, transform, govern, and use enterprise data
Data connections Connects to databases, files, APIs, SaaS systems, cloud storage
Datasets Stores structured and unstructured data with lineage and versioning
Pipeline Builder No-code/low-code data cleaning, joining, aggregation, and transformation
Code transforms Pro-code Python/SQL/Java transformations for complex pipelines
Ontology Models data as business objects like Customer, Claim, Product, Shipment
Object Explorer Lets users search, inspect, and analyze ontology objects
Workshop Builds operational apps on top of data and ontology objects
Actions Lets users write back decisions or changes through governed workflows
Functions Custom business logic used in apps, actions, columns, charts, and automations
Automate Alerts and automation based on data or ontology conditions
Machinery / process mining Mines business processes from event/state logs
AIP Palantir’s AI platform for using LLMs and AI in workflows
AIP Agents AI assistants/agents grounded in enterprise data and tools
AIP Logic No-code/low-code AI logic/functions, often LLM-backed
LLM pipelines Use language models to classify, extract, summarize, or structure data
Modeling / ML Train, evaluate, deploy, and monitor machine learning models
Governance/security Permissions, markings, lineage, access controls, auditability
Operational applications Turn data and workflows into tools people use for decisions
Integration to operations Connects analytics, AI, workflows, alerts, and writeback into one system

Very short summary:

Palantir Foundry turns enterprise data into governed datasets, business objects, applications, workflows, automations, and AI-powered operational systems.



2 just curious … could you help me

(1) do very brief simple demos (2) and then start to combine them into projects

not now. just asking

Yes — absolutely.

That is actually a very good way to learn Palantir:

1. Very brief simple demos

We could make small, focused demos for one capability at a time, for example:

  • Ingest a CSV → create dataset
  • Clean a dataset in Pipeline Builder
  • Join two datasets
  • Create an Ontology object type
  • Build a simple Workshop app
  • Add a filter/table/chart
  • Create a simple Action
  • Write a small Function
  • Add an Automate alert
  • Mine a simple process graph
  • Use an LLM to extract fields from text
  • Build a tiny AIP Agent

Each demo would answer:

What problem does this solve?
What input do we need?
What Palantir tool is used?
What output do we get?
How do we verify it worked?

2. Combine demos into projects

Then we could combine them into larger projects, for example:

Customer 360 mini-project

CSV ingestion → cleaning → joins → Ontology → Workshop app → alert

Claims process mini-project

claim logs → Ontology → process mining → Workshop → Automate

AI document processing mini-project

PDFs → LLM extraction → structured dataset → Ontology → review app

Operations monitoring mini-project

shipments/orders → pipeline → ontology → dashboard → actions → alerts

So yes: small demos first, then compose them into real workflows/projects. That would be much easier than trying to learn everything through long speedruns with unclear UI jumps.



3 how many applications are there?

If you mean major Palantir/Foundry applications/tools, there are many — roughly 20–30 core user-facing apps, depending on what is enabled in your environment.

Main ones you have touched or seen:

  1. Foundry / Files — project and resource browser
  2. Dataset Preview — inspect datasets
  3. Pipeline Builder — no-code data pipelines
  4. Code Workspaces / Code Repositories — pro-code transforms/functions
  5. Ontology Manager — define object types, links, actions
  6. Object Explorer — explore ontology objects
  7. Workshop — build operational applications
  8. Automate — alerts and automation
  9. Machinery — process mining / process modeling
  10. AIP Assist — AI assistant in Foundry
  11. AIP Agent Studio — build AI agents
  12. AIP Logic — no-code AI/function logic
  13. AIP Evals — evaluate AI/logic behavior
  14. Modeling / Model Studio — train and manage ML models
  15. Quiver — time series analysis
  16. Contour — exploratory data analysis / analysis notebooks
  17. Notepad — document-style analytical workflows
  18. Dashboarding / Workshop dashboards — app dashboards/views
  19. Data Connection — configure external data sources
  20. Marketplace — install templates, datasets, examples
  21. Monocle / Lineage graph — inspect data lineage/resources
  22. Admin / Control Panel — permissions, users, governance
  23. Search — global search across resources
  24. Notifications — alerts/tasks/messages

So a practical answer:

There are about two dozen major Foundry apps/tools, but most workflows use only a handful: Files, Dataset Preview, Pipeline Builder, Ontology Manager, Object Explorer, Workshop, Automate, Code Workspaces, and AIP tools.
















From PAL FDE AI

📊 Pipeline Data Flow Summary

Input

:resource[ri.mio.main.media-set.1402d01e-a604-4a4f-98ae-6027c6da64cf] — A media set containing 5 scientific PDF articles on tuberculosis and related health topics (totaling 58 pages).

Step 1: Process PDFs

Aspect Detail
Operation PDF text extraction → Explode by page → Extract struct fields → Drop timestamp
What it does Extracts raw text from each PDF page-by-page using pdfTextExtraction, then explodes the array so each row = one page of one document. Extracts pageNumber and content from the struct.
Output columns path, media_reference, media_item_rid, pageNumber (Integer), content (String — full text of one page)

Step 2: Extract Chunks

Aspect Detail
Operation Recursive text chunking → Explode chunks → Extract struct fields
What it does Splits each page’s text into 512-character chunks using recursive separators (\n\n, \n, space, empty string). Each chunk becomes its own row with a chunkNumber.
Output columns path, media_reference, media_item_rid, pageNumber, chunkNumber (Integer), content (String — text of one chunk)

Step 3: Create Chunk ID

Aspect Detail
Operation String concatenation
What it does Creates a unique identifier for each chunk by concatenating media_item_rid + _ + pageNumber + _ + chunkNumber.
Output columns All previous columns + chunkId (String)

Step 4: Use LLM (GPT-4o)

Aspect Detail
Operation LLM structured extraction
Model GPT-4o
What it does For each chunk, the LLM produces a summary and extracts a list of entities (biological specimens, harmful agents, healthcare organizations, treatments, symptoms). Output is a struct with {summary: string, entities: string[]}.
Output columns All previous columns + response (Struct containing summary and entities)

⚡ The pipeline branches into two parallel paths from here:

Branch A: Embed Chunks → Output “Chunks”

Step 5a: Embed Chunks

Aspect Detail
Operation Extract summary from struct → Generate embedding → Drop raw LLM response
Model text-embedding-ada-002 (Azure)
What it does Extracts the summary field from the LLM response, then generates a vector embedding of that summary. Drops the raw response column.

✅ Output Dataset: :resource[ri.foundry.main.dataset.c23cdf24-3197-4561-8c11-a54d62d90f31] (“Chunks”)

Column Type Description
chunkId String Unique chunk identifier
content String Raw text of the chunk
summary String LLM-generated summary
embedding Array[Float] Vector embedding of the summary
pageNumber Integer Source page number
chunkNumber Integer Chunk position within the page
path String Source file path
media_reference String Media reference to the source PDF
media_item_rid String RID of the source media item

Backs object type: TT2 Chunk

Branch B: Get Entities → Two Outputs

Step 5b: Get Entities

Aspect Detail
Operation Extract entities array from struct → Explode array into rows
What it does Extracts the entities array from the LLM response and explodes it so each entity becomes its own row, creating entityName.
Output columns All previous columns + entityName (String)

This further branches into:

Step 6b-i: Get Join Table → Drop Duplicates

Aspect Detail
Operation Select entityName + chunkId → Drop duplicates on both columns
What it does Creates a many-to-many mapping table between entities and chunks, then removes duplicate pairs.

✅ Output Dataset: :resource[ri.foundry.main.dataset.8ca33a29-6530-4032-a301-b20753fc1a79] (“Join Table”)

Column Type Description
entityName String Name of the extracted entity
chunkId String ID of the chunk where the entity was found

Step 6b-ii: Deduplicate Entities

Aspect Detail
Operation Select entityName only → Drop duplicates
What it does Creates a master list of all unique entities extracted across all documents.

✅ Output Dataset: :resource[ri.foundry.main.dataset.b66c6ce1-8604-45a9-8f6d-c36b2f5aa8b6] (“Entities”)

Column Type Description
entityName String Unique entity name

Backs object type: TT2 Entity

Visual Flow Diagram

graph TD
    A["📄 Articles (5 PDFs)"] --> B["1. Process PDFs<br/>Extract text per page"]
    B --> C["2. Extract Chunks<br/>512-char recursive split"]
    C --> D["3. Create Chunk ID<br/>mediaRid_page_chunk"]
    D --> E["4. Use LLM (GPT-4o)<br/>Summarize + Extract Entities"]
    
    E --> F["5a. Embed Chunks<br/>Extract summary + embed"]
    F --> G["✅ Chunks Dataset<br/>9 columns incl. embedding"]
    
    E --> H["5b. Get Entities<br/>Explode entity array"]
    H --> I["6b-i. Get Join Table<br/>Select + Deduplicate"]
    I --> J["✅ Join Table Dataset<br/>entityName × chunkId"]
    
    H --> K["6b-ii. Deduplicate Entities<br/>Unique entity list"]
    K --> L["✅ Entities Dataset<br/>entityName only"]

Summary

This pipeline implements a document intelligence workflow: it ingests scientific PDFs, breaks them into searchable chunks, uses an LLM to summarize and extract structured entities, generates vector embeddings for semantic search, and produces three output datasets that together form a knowledge graph (chunks with embeddings, unique entities, and a chunk-entity mapping table).






ME1: why did you not include “Get Join Table” in 6b-ii ??

ME2: i dont understand what you wrote.. in any case, every pipeline box is shown except that one.

You’re right — I apologize for the confusion. I combined “Get Join Table” and “Drop Duplicates (FIX)” into a single entry instead of giving each its own step. Here’s the corrected version with every pipeline box as its own step:

Step 6b-i: Get Join Table

Aspect Detail
Input Get Entities
Operation Select columns: entityName and chunkId only
What it does Narrows the data down to just the entity-to-chunk mapping (drops all other columns like content, pageNumber, etc.)
Output columns entityName (String), chunkId (String)

Step 6b-ii: Drop Duplicates (FIX)

Aspect Detail
Input Get Join Table
Operation Drop duplicates on entityName + chunkId
What it does Removes any duplicate entity–chunk pairs

✅ Output: :resource[ri.foundry.main.dataset.8ca33a29-6530-4032-a301-b20753fc1a79] (“Join Table”)

Column Type
entityName String
chunkId String

Step 6b-iii: Deduplicate Entities

Aspect Detail
Input Get Entities (directly, not from Get Join Table)
Operation Select entityName only → Drop duplicates
What it does Creates a master list of all unique entity names

✅ Output: :resource[ri.foundry.main.dataset.b66c6ce1-8604-45a9-8f6d-c36b2f5aa8b6] (“Entities”)

Column Type
entityName String

So the complete list of all 8 pipeline boxes is:

  1. Process PDFs
  2. Extract Chunks
  3. Create Chunk ID
  4. Use LLM
  5. Embed Chunks → ✅ Chunks dataset
  6. Get Entities
  7. Get Join Table
  8. Drop Duplicates (FIX) → ✅ Join Table dataset
  9. Deduplicate Entities → ✅ Entities dataset

(Plus the input media set, that’s 9 named boxes + 1 input + 3 outputs in the pipeline.)



OK, i see why you did it that way

Please confirm what i wrote below. I am a new AIP user so this is all very complicated for me..

The speedrun (AIP tutorial) had an error. 
it says only to create a "Get Join Table" box
(i used the word "box".. not sure what the correct word is).
in that box there is no "drop duplicates".
that caused an error.
I asked GPT (I think), not you how to fix. 
and GPT said to added a new box "Drop duplicates (FIX)".

what i should have done was 
1) rename "Get join table" to "Deduplicate Entities 2".
2) added the drop duplicates fix into that box.

This is how it was done for fox "Deduplicate Entities".
And thats probably why you put the 2 boxes together. 
But i want them separate so the speedrun error is obvious.

Yes, your understanding is correct! Let me confirm each point:

  1. The speedrun tutorial had an omission — it told you to create a “Get Join Table” box that only does a select (keeps entityName + chunkId), but did not include a dropDuplicates operation inside that same box.

  2. This caused an error — likely because duplicate entity–chunk pairs caused problems downstream (possibly primary key conflicts when backing an object type, or just unwanted duplicate rows).

  3. GPT’s fix was to add a separate box — “Drop Duplicates (FIX)” — which deduplicates on both columns. This works, it’s just an extra box.

  4. The “cleaner” approach (matching the pattern already used in the pipeline) would have been to add the dropDuplicates operation inside the “Get Join Table” box — exactly how “Deduplicate Entities” already combines a select + dropDuplicates in a single box.

  5. Why I originally combined them — yes, exactly. Since they logically belong together (select → dedupe is one conceptual step), I merged them. But you’re right to keep them separate so the tutorial error and the fix remain visible.

And for terminology: the correct Foundry term for what you’re calling a “box” is a transform path (or informally, a “step” or “board” in Pipeline Builder). Each named grouping of operations in Pipeline Builder is one transform path.



you wrote “Backs object type: TT2 Entity”.. what does that mean

Great question! “Backs” means that the dataset is the data source behind an object type in the Ontology.

Here’s what that means in plain terms:

The two layers

Layer What it is
Data layer Datasets — rows and columns, like a spreadsheet
Ontology layer Object types — real-world concepts like “Entity”, “Chunk”, etc.

What “backs” means

When we say the :resource[ri.foundry.main.dataset.b66c6ce1-8604-45a9-8f6d-c36b2f5aa8b6] dataset backs the object type TT2 Entity, it means:

  • Each row in the Entities dataset becomes an object (a single Entity instance) in the Ontology
  • Each column in the dataset maps to a property on the object type (in this case, entityName becomes a property on every TT2 Entity object)
  • When the dataset updates (e.g., you re-run the pipeline and new entities are extracted), the objects in the Ontology update automatically

Why does this matter?

The Ontology is what makes everything in Foundry “come alive.” Once a dataset backs an object type:

  • You can search, filter, and browse entities as real-world concepts (not just rows)
  • You can link entities to other object types (e.g., link a TT2 Entity to the TT2 Chunks where it was mentioned — that’s what the Join Table dataset is for!)
  • You can build Workshop apps and AIP agents that understand and operate on these objects
  • You can define actions that let users modify objects

In your pipeline

Dataset Backs Object Type Meaning
Chunks TT2 Chunk Each text chunk becomes a “Chunk” object with searchable properties and an embedding
Entities TT2 Entity Each unique entity name becomes an “Entity” object
Join Table (none directly) Provides the many-to-many link between TT2 Entity and TT2 Chunk (which entities appear in which chunks)

Think of it as: the dataset is the raw data, and the object type is the meaningful interpretation of that data that the rest of the platform can work with.



0-1 what this demo is about (my take with FDE help)

This is my understanding of the goal of the “Speedrun: Your First AIP Workflow”. i took this from the course introduction (included at the end of this prompt). NOTE: the chapter (ch) numbers are from my own docx. the chapters in the speedrun are not numbered.

  • 1) transform pdf into entities (ch3 “upload data” - ch5 “configure ontology”.
  • 2) create knowledge graph (KG) (ch6 “Explore object relations”)
  • 3) create AIP agent to use KG to answer questions (ch 7 “create aip logic function”)
  • 4) create interactive app (ch8 “build app” and ch9 “conclusion” (has a test section)) to
    • 4.1) allow users to ask questions
    • 4.2) see segment of KG



Course Introduction

(https://learn.palantir.com/speedrun-your-e2e-aip-workflow/1961844)

In this course, you will build a fully functional, end-to-end workflow using AIP.

You will start off with a set of PDF documents provided in the curriculum. (If you are feeling up for a challenge, do bring your own samples.) You will then build a data transformation to extract their contents and split them into short chunks of text. Going forward, we’ll assume that each of these chunks contains a single point of information, which can be combined to answer related questions. In this first section, you will also use an LLM to batch process these chunks and extract the most important entities they mention. Your output datasets will then be added to the Ontology, Foundry’s semantic layer which underpins the rapid development of a host of interactive applications.

With your Ontology Objects ready - Chunks and Entities - you’ll get your first view of your knowledge graph. This graph allows you to understand the most significant entities covered by your documents, and investigate their relationships by reviewing mutually related text chunks. In fact, you will also configure your first AIP Agent to leverage this graph and respond to your questions reliably, without hallucinations.

Finally, you will build an interactive app to allow users to ask such questions and see the segment of your knowledge graph used to formulate the answers.

By the end of the Speedrun you will have experienced a large portion of the full-stack Foundry toolkit. You will be ready to take on the Deep Dive training courses or even dive into our documentation and get building your use-cases.


FDE:

Your summary captures the course arc perfectly: raw data → structured knowledge → AI reasoning → user-facing application.

Your understanding is correct! That’s a clean and accurate breakdown of the Speedrun’s goals. Let me confirm and add a bit of nuance:



✅ Your Breakdown — Confirmed

Phase Your Description What’s Happening
1. Transform PDFs → Entities (ch3–ch5) Upload data, process it, configure ontology The Pipeline Builder pipeline we just analyzed. PDFs → Chunks + Entities + Join Table → mapped into Ontology as object types
2. Create Knowledge Graph (ch6) Explore object relations The KG emerges from the links between TT2 Chunk and TT2 Entity objects (powered by the Join Table). You’re not “building” a KG per se — you’re viewing the relationships that were created in step 1
3. Create AIP Agent (ch7) AIP Logic function to answer questions using KG An LLM-powered function that can traverse the KG (find relevant entities → find related chunks → use those chunks as context to answer questions without hallucinating)
4. Build Interactive App (ch8–ch9) Workshop app for end users A UI where users can (4.1) ask natural language questions and (4.2) see which part of the KG was used to formulate the answer



One Nuance

The knowledge graph isn’t a separate thing you build — it’s the natural result of:

  • Chunks (objects) + Entities (objects) + Links between them (from the Join Table)

So phases 1 and 2 are really:

  • Phase 1 = create the data + Ontology structure
  • Phase 2 = explore/visualize what you just created

The KG is just the Ontology viewed as a network of interconnected objects.



The Big Picture

drones

Your summary captures the course arc perfectly: raw data → structured knowledge → AI reasoning → user-facing application.



0

your phase 1 / phase 2 i like. my main goal is to understanding the goals of the speedrun. the title is “speedrun: your first AIP workflow”. is that title accurate?

about 4.8 “Embedding” (“embed chunks”) …. why do this embedding? (i understand quite a bit about how LLM transformers work)….. my core question is about what exactly this demo does. usually you send a prompt to an LLM, the text is converted to an embedding (12288 vectors in GPT-3) and then run thru the LLM transformer. what exactly is going on here.?

Is the Title Accurate?

Yes, “Speedrun: Your First AIP Workflow” is accurate. The emphasis is on AIP (Palantir’s AI Platform) specifically — not just “your first Foundry pipeline.” The course deliberately showcases AIP capabilities at every stage:

Phase AIP Feature Used
Pipeline LLM transform (GPT-4o for extraction), embedding model
Knowledge Graph Ontology as a semantic layer
Agent AIP Logic / AIP Agent (LLM reasoning over the KG)
App Workshop + AIP Agent integration

Without AIP, you’d just have a data pipeline. AIP is what adds the intelligence layer.

Why the Embedding Step?

This is a great question, and the answer is: these embeddings are NOT for the LLM to “think with” — they’re for retrieval (search) at query time.

The key distinction

When What Model Purpose
Step 4 (Use LLM) GPT-4o Generation model Summarize + extract entities. Internally uses its own embeddings, as you described
Step 5a (Embed Chunks) text-embedding-ada-002 Embedding-only model Create a pre-computed vector index for later semantic search

What’s actually happening

This is the RAG pattern (Retrieval-Augmented Generation):

At indexing time (this pipeline):

chunk summary → text-embedding-ada-002 → 1536-dim vector → stored in dataset

Each chunk gets a vector “fingerprint” representing its semantic meaning. This vector sits in the Chunks dataset, ready to be searched.

At query time (ch7 — when a user asks a question):

"What treatments exist for drug-resistant TB?"
    → embed the question with the SAME model → 1536-dim vector
    → cosine similarity search against all stored chunk vectors
    → top-K most similar chunks retrieved
    → those chunks passed as CONTEXT to GPT-4o
    → GPT-4o generates answer grounded in those specific chunks

Why not just send everything to the LLM?

  • You have ~58 pages of PDFs. That’s too much context for a single LLM call (expensive, slow, and hits token limits).
  • Instead, you pre-index everything as vectors, then at query time you retrieve only the 3–5 most relevant chunks and feed just those to the LLM.
  • This is how the agent can answer “without hallucinations” — it’s grounded in specific retrieved text, not generating from memory.

Why embed the summary and not the raw content?

The pipeline embeds summary (the LLM-generated summary) rather than content (the raw chunk text). This is a design choice — summaries are cleaner, more semantically dense, and strip out noise (formatting artifacts, references, etc.), making similarity search more accurate.

TL;DR

The embedding isn’t “input to an LLM” — it’s a searchable vector index. It turns your document chunks into a database that can be queried by meaning, not just keywords. The AIP Agent (ch7) will use this index to find relevant context before generating answers.


1-6

(1) so the pdf text is not trained into the model. its too specific. you can train a model on everything. (2) and you can NOT feed the content of all these docs to a model for each prompt. (3) so you embed chunks, which means running through the LLM, but not creating token answers… just creating an embedding (floating point numbers) that define the meaning of the text (basically you are classifying the text, but not creating the next token, instead just keeping the complete classificaiton). (4) THE MODEL IS NOT TRAINED ON THE PDF CONTENT. (5) then when taking a customer question, you use the selected embedddings not as a prompt, but as the source of truth. (5) the model HAS been trained to take a prompt + source of truth and return an answer.

Your understanding is very solid. Let me confirm each point and add small corrections where needed:

✅ (1) Correct

The PDF content is not trained into the model. Fine-tuning on domain-specific PDFs is impractical for most use cases — too slow, too expensive, and you’d have to retrain every time documents change.

✅ (2) Correct

You cannot feed all 58 pages into every prompt. Token limits, cost, and latency all make this impractical.

⚠️ (3) Mostly correct — one nuance

The concept is right: you’re capturing the semantic meaning as a vector of floating point numbers, not generating text.

But: the embedding model (text-embedding-ada-002) is not the same model as the generation LLM (GPT-4o). It’s a separate, smaller, specialized model that only produces vectors. It has no ability to generate text — it’s purpose-built for encoding meaning into numbers. So it’s not “running through the LLM” — it’s running through a different, embedding-specific model.

✅ (4) Correct

No training, no fine-tuning. The model knows nothing about your PDFs.

⚠️ (5) Correct concept, one clarification

The embeddings are used for retrieval (finding the right chunks), but what gets sent to the LLM is the original text of those chunks, not the embedding vectors themselves.

The flow is:

User question → embed question → find chunks with similar embeddings
                                         ↓
                              retrieve the TEXT of those chunks
                                         ↓
                              send to GPT-4o as: "Here is context: [chunk text]. 
                                                  Answer this question: [user question]"

The embeddings are the search index — they help you find the right chunks. The actual text is the source of truth that goes into the prompt.

✅ (5/6) Correct

GPT-4o has been trained (via instruction tuning) to take a question + provided context and answer based on that context. This is a general capability — no special training needed for your specific documents.

Your Mental Model — Corrected Summary

Step What happens
Indexing Chunk text → embedding model (not GPT-4o) → vector stored
Query User question → same embedding model → vector → similarity search → find top matching chunks
Answer Matching chunk text (not vectors) inserted into prompt → GPT-4o generates answer grounded in that text

You’ve got the core concept exactly right. The only refinements are: (a) the embedding model is separate from the generation model, and (b) the vectors are used for search, then the original text goes into the prompt.


7-10

(7) so i noticed that 2 different models were used in this demo. i guess in this way you get a “second opinion”. what i mean is by one model doing the embedding used for selecting, but another actually doing the inference, you get better results. (8) or maybe you get a less “opinionated result”. (9) but why the 2 parts “chunks” and “entities”? is that the normal basic ontology? (10) are these 2 parts something like vocabulary (entities) and content (chunks) ?

Great questions. Let me take them one at a time:

(7/8) Why Two Models?

It’s not about a “second opinion” or reducing bias — it’s about specialization (right tool for the right job):

Model Type Optimized for Cost
text-embedding-ada-002 Embedding-only Producing vectors that capture semantic similarity Very cheap per token
GPT-4o Generation Understanding context + producing coherent text Expensive per token

Why not just use GPT-4o for everything?

  • You’re embedding ~hundreds or thousands of chunks. An embedding model is ~100x cheaper and much faster per token.
  • Embedding models are specifically trained so that semantically similar texts produce similar vectors — they’re better at this task than a generation model’s internal representations.
  • They’re different architectures serving different purposes, not two “opinions” on the same thing.

Think of it like: you use a search engine to find the right books in a library, then you ask a professor to read those books and answer your question. Different skills, different tools.

(9/10) Why Chunks AND Entities?

This is NOT just “the normal basic ontology” — it’s a specific design pattern for document knowledge graphs. Your analogy is close but let me sharpen it:

Object Type Role Analogy
Chunks The evidence — actual text passages Pages/paragraphs of a textbook
Entities The concepts — what’s discussed Index at the back of the textbook
Links (Join Table) Which concepts appear in which passages Page numbers in the index

Why not just chunks?

You could build this with just chunks + embeddings (many RAG systems do). But adding entities gives you:

  1. Navigability — A user can browse “show me all entities” and discover what topics the documents cover, without reading anything
  2. Graph traversal — The AIP Agent can reason: “User asked about rifampicin” → find Entity “rifampicin” → follow links → find all chunks mentioning it → use those as context. This is more precise than pure vector search alone.
  3. Explainability — In the app (ch8), you can show the user which entities and chunks were used to answer their question (the “see the segment of your knowledge graph” part)

The Knowledge Graph structure

Entity: "rifampicin" ←→ Chunk: "...rifampicin is a first-line treatment..."
                     ←→ Chunk: "...drug interactions with rifampicin..."
                     
Entity: "tuberculosis" ←→ Chunk: "...rifampicin is a first-line treatment..."
                       ←→ Chunk: "...TB incidence in 2023..."

Notice that “rifampicin” and “tuberculosis” are both linked to the same chunk — this is how the graph reveals relationships between concepts (rifampicin treats tuberculosis) even though nobody explicitly stated that relationship.

TL;DR

  • Chunks = “what was said” (the evidence)
  • Entities = “what it’s about” (the topics)
  • Links = “which topics appear where” (the connections)

Together they form a navigable knowledge graph that’s more powerful than either alone — you get both semantic search (embeddings) AND structured reasoning (graph traversal).


11

so (11) that is a demo of the core of what palantir ontology is… its not so much about restricting vocab, but rather about creating an index that links entities and chunks for data that is considered authoritative?

Yes, exactly right. That’s the core idea.

The Ontology isn’t about restricting vocabulary or defining rigid taxonomies — it’s about creating a structured, navigable layer on top of your authoritative data so that both humans and AI can reason over it.

What the Ontology really is

What it’s NOT What it IS
A controlled vocabulary / dictionary A semantic map of your real-world data
A static schema A living layer that updates as underlying data changes
Just a database with foreign keys A meaningful graph where the nodes and edges represent things people actually care about

In this demo specifically

The Ontology turns this:

A pile of PDFs sitting in a folder

Into this:

A searchable, linked knowledge graph where entities are connected to the evidence that mentions them, backed by authoritative source documents, queryable by both humans and AI agents

More broadly in Palantir

The Speedrun uses documents, but in a real enterprise deployment the same pattern applies to any authoritative data:

Domain Entities (concepts) Chunks/Objects (evidence)
This demo Diseases, treatments, organisms Text passages from PDFs
Supply chain Suppliers, parts, warehouses Orders, shipments, inventory records
Healthcare Patients, drugs, diagnoses Lab results, clinical notes
Defense Assets, locations, threats Intelligence reports, sensor data

The pattern is always the same:

  1. Ingest authoritative data
  2. Structure it into objects with properties
  3. Link them to reveal relationships
  4. Build applications and AI agents on top

(11) Your statement — confirmed and refined

“Creating an index that links entities and chunks for data that is considered authoritative”

✅ Yes. And the key word is authoritative — the Ontology isn’t the AI’s opinion or a web scrape. It’s your curated, trusted data, structured so that AI can reason over it reliably. That’s how you get answers “without hallucinations” — the LLM is constrained to what your authoritative sources actually say.


12-15

(12) and all of the indexing is done is embedding space… not tokens (words with very inexact meaning), but in embeddings space, basically an extremelly complex, logical and exact universal machine languge. (13) after you have the embeddings for chunks (the machine language for the content), you extract the entities (which are basically the machine language indexes). (14) then when a prompt comes in, it is converted to machine language and then used to compare against the index. (15) then take the original (not machine language) tokens that match the index and run inference on them (with the prompt), so that you spend your real token interference money on the best content.

Your mental model is impressively close. Let me confirm and correct a few specifics:

✅ (12) Mostly correct — one nuance

Embeddings are a rich semantic coordinate system, yes. But I’d push back slightly on “exact”:

Tokens/Words Embeddings
Discrete, ambiguous (“bank” = river bank? financial bank?) Continuous, contextual (captures which meaning)
Exact string match Fuzzy semantic match (which is the strength)

Embeddings are powerful precisely because they’re approximate — “rifampicin treatment” and “antibiotic therapy for TB” have similar embeddings even though they share zero words. That fuzziness is a feature, not a bug. Think of it as: not exact machine language, but a semantic coordinate system where meaning has a location.

⚠️ (13) Order correction

In this pipeline, the entities are NOT extracted from the embeddings. The actual order is:

Chunk text → GPT-4o → produces BOTH {summary, entities} simultaneously (Step 4)
                              ↓                        ↓
                   summary → embed (Step 5a)    entities → deduplicate (Steps 5b+)

Entities and embeddings are parallel outputs from the same LLM call, not sequential. GPT-4o reads the raw text and extracts entities (as a structured list). Separately, the summary is then embedded. The entities are keyword-level concepts; the embeddings are dense vectors. They serve the knowledge graph in complementary ways:

  • Entities = discrete, human-readable navigation (“show me everything about rifampicin”)
  • Embeddings = fuzzy, semantic search (“find chunks about antibiotic resistance mechanisms”)

✅ (14) Correct

User question → same embedding model → vector → cosine similarity → top-K matching chunks

✅ (15) Correct — and well stated

“Spend your real token inference money on the best content”

This is the economic logic of RAG in one sentence. You’re using a cheap embedding model to find the needle in the haystack, then spending expensive generation tokens only on the 3–5 most relevant chunks instead of all 58 pages.

Your Mental Model — Cleaned Up

INDEXING (one-time, batch):
   Chunk text → GPT-4o → summary + entities (simultaneously)
                              ↓              ↓
                   summary → embed      entities → graph index
                              ↓              ↓
                    vector store        ontology links

QUERY (per user question):
   Question → embed → similarity search against vector store
                              ↓
              retrieve original TEXT of top-K chunks
                              ↓
         "Here is context: [chunk texts]. Answer: [question]" → GPT-4o → answer

The only correction to your model: entities come from GPT-4o reading the text (not from the embeddings), and embeddings are approximate (not exact) — which is what makes them useful for semantic search.


16-17

(16) so entities are human language restricted ways of classifying the world (using tokens, different for each language, and the range of meanings for tokens differ in each human language). (17) but embeddings are massive vectors that determine not the meaning of a word, but of a chunk of words. the possible combinations are for all practical purposes infinite.

✅ (16) Correct

Entities are human-readable labels — constrained by the vocabulary and ambiguity of whatever language they’re written in. “T Cell” means one thing to an immunologist, might mean nothing to a layperson, and would be a completely different word in Japanese. They’re useful because humans can read and navigate them, but they’re inherently limited by language.

✅ (17) Correct — and this is a key insight

Embeddings capture the meaning of a passage in context, not just a single word. A 1,536-dimensional vector (for ada-002) can represent an effectively infinite space of meanings. Two chunks about the same concept written in completely different words — even different languages — would land near each other in this space.

The Complementary Relationship

  Entities Embeddings
Representation Human words 1,536 floating point numbers
Granularity Single concept (“rifampicin”) Entire chunk of meaning
Language-dependent? Yes No — meaning is language-agnostic
Precision Exact but brittle (“TB” ≠ “tuberculosis”) Fuzzy but robust (“TB” ≈ “tuberculosis”)
Navigable by humans? ✅ Yes ❌ No (just numbers)
Navigable by machines? Poorly (string matching) ✅ Yes (vector math)

Why the demo uses BOTH

This is the clever part of the design:

  • Embeddings → for the AI agent to find relevant content (semantic search)
  • Entities → for the human user to see and navigate the knowledge graph in the app

Neither alone is sufficient:

  • Embeddings without entities = the AI can find answers, but the user can’t see why or browse the graph
  • Entities without embeddings = the user can browse topics, but search is limited to exact keyword matching

Together they give you a system that’s powerful for both machines and humans — which is exactly what the Workshop app in ch8 demonstrates.


18-20

(18) so the join table indexes chunks by entities (human words… entities are NOT embedded). (19) so during inference, you may be using a different model. which means that model wont understand the machine language of the model used for embedding. (20) but thats not a problem, because the join table will match the tokens to chunks, and you send the chunk tokens, not embeddings to the inference model.

✅ (18) Correct

The join table is a plain string-to-string mapping — no embeddings involved:

entityName (text)  →  chunkId (text)
"rifampicin"       →  "ri.mio...47_3_2"
"rifampicin"       →  "ri.mio...47_5_1"
"tuberculosis"     →  "ri.mio...47_3_2"

Just human words pointing to chunk IDs. Old-fashioned relational indexing.

✅ (19) Correct — different embedding spaces are incompatible

Every embedding model has its own “coordinate system.” A vector from ada-002 is meaningless to GPT-4o’s internal representations. You cannot mix them.

⚠️ (20) Right conclusion, but there are actually TWO retrieval paths

Your core insight is correct: only plain text reaches the generation model, never embeddings. But the join table isn’t the only retrieval mechanism. The system actually has two ways to find relevant chunks:

Retrieval Path How it works Uses embeddings?
Vector search Question → embed → cosine similarity against chunk embeddings → find matching chunks Yes (same model: ada-002 for both query and index)
Graph traversal Question → identify entity names → join table → find linked chunkIds No (just string matching)

In both cases, the final step is the same:

Retrieve the original TEXT of the matching chunks
         ↓
Send that TEXT + the user's question to GPT-4o
         ↓
GPT-4o generates answer from plain text (never sees any embeddings)

So the reason model incompatibility doesn’t matter is simpler than the join table — it’s that the generation model only ever receives text. The embeddings are used purely for search, then discarded. The join table is a second, independent retrieval path that doesn’t use embeddings at all.

The two paths complement each other:

  • Vector search finds chunks that are semantically similar to the question (even with different wording)
  • Graph traversal finds chunks that mention the same entities (precise, keyword-level matching)

The AIP Agent in ch7 can use either or both depending on how it’s configured.


21

(21) so you answered already what was to be my next question.. the problem of keyword searching. but when in doubt, AIP will do a vector search (AIP is doing the actual indexing always??)

⚠️ (21) Almost — let me separate “indexing” from “searching”

Phase Who does it When
Indexing (creating embeddings) The Pipeline Builder pipeline you built Batch time — runs once (or on schedule when new docs arrive)
Searching (using those embeddings to find relevant chunks) AIP (the Agent / Logic function) Query time — every time a user asks a question

So AIP doesn’t do the indexing — your pipeline pre-built the vector index. AIP consumes that index at query time.

How retrieval works at query time

The Ontology makes this seamless. Because the embedding column is a property on the TT2 Chunk object type, AIP can natively perform vector search against it:

User asks question
       ↓
AIP Agent decides how to retrieve context:
       ├── Vector search: "find chunks semantically similar to this question"
       │   (uses the pre-computed embedding property on Chunk objects)
       │
       └── Graph traversal: "find chunks linked to entity X"
           (uses the entity links in the Ontology)
       ↓
Retrieved chunk TEXT → sent to LLM → answer

Roughly yes — vector search is the default/primary retrieval mechanism because:

  • It works even when the user’s question uses completely different words than the source material
  • It doesn’t require the user to know the exact entity names
  • It always returns something (nearest neighbors), even if nothing is a perfect match

Graph traversal is more of a precision tool — useful when the agent recognizes a specific entity in the question and wants to find everything connected to it.

TL;DR

  • Pipeline = builds the index (one-time)
  • AIP = searches the index (every query)
  • Ontology = the infrastructure that connects them (makes embeddings searchable as a property on objects)


22

(22) you said “AIP (the Agent / Logic function)”…. in my version of the speedrun there is chapter 7 “Create AIP Logic Function (“ontology aided generation”) “. that is what you are referring to?

Yes, exactly. Chapter 7 is where you build the AIP Logic function that does the retrieval + generation at query time. That’s the piece that:

  1. Takes a user’s question
  2. Searches the Ontology (vector search against Chunk embeddings, graph traversal via Entity links)
  3. Passes the retrieved chunk text + question to the LLM
  4. Returns a grounded answer

The name they give it — “Ontology Aided Generation” — is Palantir’s term for this pattern. It’s essentially RAG, but specifically emphasizing that the retrieval happens through the Ontology (not just a generic vector database):

Generic term Palantir term What it means
RAG (Retrieval-Augmented Generation) Ontology Aided Generation Retrieve context → feed to LLM → generate answer
Vector database Ontology with embedding properties Where the searchable vectors live
Knowledge graph Ontology with linked object types Where the structured relationships live

Why “Ontology Aided” matters

A plain RAG system has just a vector store. “Ontology Aided Generation” means the retrieval can use all the structure you built:

  • Embeddings (vector search)
  • Entities + links (graph traversal)
  • Properties (filters — e.g., “only search chunks from documents published after 2022”)

That AIP Logic function in ch7 is the brain that ties together everything you built in ch3–ch6, and the Workshop app in ch8 is just a UI that calls it.



MAIN DIAGRAM FLOW (RAG PIPELINE, ch7)

Main dialog flow
The diagram describes the RAG pipeline.
(this pipeline has many names... "AIP logic function", "ontology aided generation", etc).
(I added the colored numbering and arrows to the diagram....
this helps understand the confusing UI).


This is the flow:

1 input "userQuestion". 
2 if not "Empty string" start RAG pipeline.
--- RAG PIPELINE ---
3 input "Starting object set = "All TT2 Chunks".
     output = "Create new object set (2)".
4 input = "Create new object set (2)"
    output = "Searched all TT2 chunks"
5 input = "Searched all TT2 chunks"
   output = "Searched all TT2 chunks - formatted"
6 input1 = "userQuestion"
    input2 = "Searched all TT2 chunks - formatted"
    output = "use LLM"
7 output = "Ontology Augmented Generation"

drones


FDE/GPT Yes — your flow is basically correct. I would only make a few wording refinements so it is precise.

Corrected / confirmed flow

1. Input: userQuestion

The Logic function starts with one user input:

userQuestion : String

This is the natural-language question typed by the user.

2. Check for empty input

The Logic checks:

IF userQuestion == empty string
    return "Please enter a question."
ELSE
    run RAG Pipeline

So yes: if the question is not empty, it enters the RAG Pipeline.

RAG Pipeline

3. Create new object set

Input:

Starting object set = All TT2 Chunks

Output:

Create new object set (2)

Meaning:

Start with every TT2 Chunk object in the Ontology.

This is the full searchable universe of chunks.

4. Semantic search over chunks

Input:

Create new object set (2)

Operation:

Search embedding property using userQuestion
Return top 10 chunks
Minimum similarity threshold = 0

Output:

Searched all TT2 chunks

This is the core retrieval step.

It takes the user’s question, embeds it, compares it against the stored embedding property on all TT2 Chunk objects, and returns the most similar chunks.

5. Format the retrieved chunks

Input:

Searched all TT2 chunks

Operation:

For each retrieved chunk:
    output "Content: " + chunk.content

Output:

Searched all TT2 chunks - formatted

This converts the object set into plain text that can be inserted into the LLM prompt.

6. Use LLM

Inputs:

input 1 = userQuestion
input 2 = Searched all TT2 chunks - formatted

Model:

GPT-4o

Output:

Use LLM : String

This is where the answer is generated.

The LLM receives:

Question:
[userQuestion]

Reference text:
[Searched all TT2 chunks - formatted]

And the system prompt tells it:

Answer only using the provided reference text. Do not use prior knowledge.

7. Output: Ontology Augmented Generation

Yes. The output of the Logic function is the Use LLM string.

That published Logic/function is what the Workshop UI app calls.

So:

Use LLM output
    ↓
Ontology Augmented Generation function result
    ↓
Displayed in the UI app

One important terminology clarification

You wrote:

this pipeline has many names… “AIP logic function”, “ontology aided generation”, etc.

I would say it this way:

Term Meaning
AIP Logic function The Foundry/AIP object you are building
RAG pipeline The pattern inside the function: retrieve context → feed to LLM → generate answer
Ontology Augmented Generation The specific name of this Logic function in your project
Ontology-aided / ontology-augmented generation The general idea: use Ontology objects as the retrieval source

So the clean sentence is:

This is an AIP Logic function named Ontology Augmented Generation, and inside it is a RAG pipeline that retrieves relevant TT2 Chunk objects from the Ontology and sends their text to GPT-4o.

Your flow, cleaned up

1. userQuestion enters the Logic function

2. If userQuestion is empty:
       return "Please enter a question."
   Else:
       run RAG Pipeline

--- RAG PIPELINE ---

3. Start with all TT2 Chunk objects
       output: Create new object set (2)

4. Semantic search over TT2 Chunk.embedding
       query: userQuestion
       return: top 10 chunks
       output: Searched all TT2 chunks

5. Format retrieved chunks as text
       input: Searched all TT2 chunks
       output: Searched all TT2 chunks - formatted

6. Call GPT-4o
       input 1: userQuestion
       input 2: formatted chunk text
       output: answer string

7. Return that answer as the output of:
       Ontology Augmented Generation

Yes — your diagram and numbered explanation are a good way to make the confusing Logic UI understandable.



FIRST PAGE (doc overview / goal of this demo)


Goal is to build the app shown below.

  • top: The user prompt.
  • center left: (8.5) object list widget (from 5.4): “Relevant chunks” , Select chunk embeddings / K nearest. Listed are the most closed related chunks selected via ontology.
  • center right: (8.6) Knowledge graph (= ch6 vertex). shows the relevant items from phase 1 (data/ontology)
    • Chunks (brown)
    • Entities (magenta)
    • Join table links (lines)
  • bottom: The AI prompt response based on the selected chunks.


drones

drones


FDE/GPT5.5

Your overview is good and understandable. I would make a few wording corrections so it is technically accurate and clearer for future-you.

Here is a cleaned-up version you can use:

0. Doc overview

Goal of this demo

The goal is to build the app shown below.

The app lets a user ask a natural-language question about the uploaded PDF articles. The app then finds the most relevant text chunks, displays the related knowledge graph, and generates an AI answer grounded in those chunks.

App layout

Top: User prompt

The user enters a question, for example:

What is the recommended treatment for Tuberculosis?

Center left: Relevant Chunks object list widget

This is the Object List widget configured to show the relevant TT2 Chunk objects.

The relevant chunks are selected using:

TT2 Chunk embedding → K-nearest neighbors

The user’s question is embedded and compared against the stored embeddings on all TT2 Chunk objects. The closest matching chunks are returned and displayed in the list.

These chunks are the evidence/context used by the app.

Center right: Knowledge graph / Vertex Graph widget

This is the Vertex Graph widget using the Knowledge Graph Template from chapter 6.

It shows the relevant subgraph produced from the selected chunks:

  • Chunks — brown nodes
  • Entities — magenta nodes
  • Join table links — lines connecting entities to chunks

The graph helps the user visually inspect which chunks and entities are relevant to the prompt.

Bottom: AI response

The bottom section displays the response from the Ontology Augmented Generation AIP Logic function.

The function:

  1. Takes the user question
  2. Searches the TT2 Chunk objects using semantic search over the embedding property
  3. Formats the retrieved chunk text
  4. Sends the question + retrieved chunk text to GPT-4o
  5. Returns an answer based only on the provided chunks

Short summary

User question
   ↓
Find relevant chunks using embedding KNN search
   ↓
Show chunks in object list
   ↓
Show linked entities/chunks in graph
   ↓
Send relevant chunk text to GPT-4o
   ↓
Display grounded AI answer

Important note

The entities and join table are used mainly for the visual knowledge graph.
The AIP Logic function itself answers using semantic search over chunk embeddings, then passes the retrieved chunk text to the LLM.


ME: great explanation… but “ontology” does not appear in “center left” or “center right”

Good point. Since this is an AIP / Ontology demo, the overview should explicitly say where the Ontology is being used.

Here is the revised wording for those two sections.

Center left: Relevant Chunks object list widget

This is the Object List widget displaying TT2 Chunk objects from the Ontology.

The TT2 Chunk object type is backed by the Chunks dataset created in the data pipeline. Each TT2 Chunk object has properties such as:

  • content
  • summary
  • embedding
  • chunkId
  • pageNumber
  • chunkNumber

The object list is configured to show the most relevant TT2 Chunk objects using:

TT2 Chunk.embedding → K-nearest neighbors

In other words, the user’s question is embedded and compared against the stored embedding property on all TT2 Chunk objects in the Ontology. The closest matching chunks are returned and displayed in the list.

So this panel is not reading raw PDF text directly. It is querying the Ontology object type TT2 Chunk.

Center right: Knowledge graph / Vertex Graph widget

This is the Vertex Graph widget using the Knowledge Graph Template from chapter 6.

The graph displays a selected subgraph from the Ontology:

  • TT2 Chunk objects — brown nodes
  • TT2 Entity objects — magenta nodes
  • Ontology links between entities and chunks — lines

Those links are backed by the Join Table dataset created in the data pipeline.

So the graph is not just a drawing. It is a visual representation of the Ontology relationships created from:

Chunks dataset → TT2 Chunk object type
Entities dataset → TT2 Entity object type
Join Table dataset → link between TT2 Entity and TT2 Chunk

The graph helps the user inspect the relevant portion of the Ontology that is connected to the selected chunks.

One-sentence version

  • Center left = semantic search over TT2 Chunk objects in the Ontology
  • Center right = visual graph of linked TT2 Chunk and TT2 Entity objects in the Ontology



10b APP center widgets connection ?????????

ME: do you know when (where, what dialog) param “TT2 Chunk” was created?

Yes — but there are two different things that sound almost the same:

1. TT2 Chunk object type

This was created earlier during Configure Ontology.

It comes from the Chunks dataset.

Chunks dataset
   ↓
backs
TT2 Chunk object type

So the actual Ontology object type TT2 Chunk was created in the Ontology configuration part of the Speedrun.

2. TT2 CHUNKS parameter in the Vertex Graph widget

This is different.

The TT2 CHUNKS * field you see in the Workshop Vertex Graph widget was not created inside Workshop.

It comes from the Knowledge Graph Template.

In other words:

Knowledge Graph Template
   ↓
defines required input parameter:
TT2 CHUNKS
   ↓
Workshop Vertex Graph widget asks you:
"What object set should I use for this template input?"

That is why, in your Workshop UI, you see:

Parameter inputs
    TT2 CHUNKS *

The * means it is required by the template.

Where was it probably created?

Most likely in the Vertex / Knowledge Graph Template step, when the tutorial had you create or save the graph as a template.

The template needs an input object set so it can dynamically draw a graph around selected chunks.

So somewhere in the Vertex app / Knowledge Graph Template editor, the template was configured with an input parameter like:

Parameter name: TT2 CHUNKS
Expected object type: TT2 Chunk
Multiplicity: multiple objects / object set

Then, later in Workshop, you bind that parameter to:

Object list 1 Active object

or whatever clean KNN object set contains the relevant chunks.

Important distinction

In Workshop:

TT2 CHUNKS *

does not mean “show all TT2 Chunks.”

It means:

“This graph template requires you to provide an object set of TT2 Chunk objects.”

You then choose which object set to provide.

In your working version, you provide the KNN-selected chunks.

Short answer

The TT2 CHUNKS parameter was created as part of the Knowledge Graph Template, not in the AIP Logic function and not in the Workshop app itself.

Workshop only uses that parameter when you configure the Vertex Graph widget:

Vertex Graph widget
   → Resource = Knowledge Graph Template
   → Parameter inputs
   → TT2 CHUNKS = [your relevant chunks object set]


for #2 above.. yes TT2 Chunks came from KG widget… but the KG widget got it from TT2 Chunk object type.

Yes — exactly.

More precise chain:

Chunks dataset
   ↓ backs
TT2 Chunk object type in the Ontology
   ↓ used in
Knowledge Graph / Knowledge Graph Template
   ↓ creates required template parameter
TT2 CHUNKS
   ↓ appears in
Workshop Vertex Graph widget parameter input

So your statement is correct:

The Workshop TT2 CHUNKS parameter came from the Knowledge Graph Template, and the Knowledge Graph Template got that parameter from the TT2 Chunk object type.

In plain words:

  • TT2 Chunk = the Ontology object type
  • TT2 CHUNKS = the graph template input parameter expecting one or more TT2 Chunk objects
  • The Workshop app fills that parameter with the relevant chunks selected by embedding/KNN search.



Chunks progression OVERVIEW


the pasted pics show

Chunks progression OVERVIEW
#1 Chunks dataset
↓ backs
#2 TT2 Chunk object type in the Ontology
↓ used in
#3 Knowledge Graph / Knowledge Graph Template
↓ creates required template parameter
#4 TT2 CHUNKS (widget "Relevant chunks object list" (center left))
↓ appears in
#5 Workshop Vertex Graph widget (center right) parameter input
NOTE: "5.2.s2" means ch5 section 2 step 2 in my speedrun doc.

my goal here is to understand the progression.
does it look right?

Yes — your overall progression is right, but I would adjust #4 and #5 slightly because two things are getting mixed together:

  1. the TT2 Chunk object type
  2. the TT2 CHUNKS template parameter
  3. the Workshop object set variable used by the object list / graph

Your chain is conceptually correct, but the exact flow should be written like this:

Corrected Chunks progression overview

#1 Chunks dataset
   ↓ backs

#2 TT2 Chunk object type in the Ontology
   ↓ used in two places

   ├─ #3a Knowledge Graph / Knowledge Graph Template
   │      ↓ creates required graph template parameter
   │
   │   TT2 CHUNKS parameter
   │      ↓ appears in
   │
   │   #5 Workshop Vertex Graph widget parameter input
   │      where TT2 CHUNKS = selected relevant TT2 Chunk object set
   │
   └─ #3b Workshop Object Set variable
          e.g. "Object list 1 Active object" / "Relevant Chunks"
          configured as:
          TT2 Chunk.embedding → K-nearest neighbors
          query = User Question
          K = 5
          ↓ used by

       #4 Relevant Chunks Object List widget
          shows selected TT2 Chunk objects

       #5 Vertex Graph widget
          passed into template parameter:
          TT2 CHUNKS

Important correction to your wording

You wrote:

#4 TT2 CHUNKS (widget "Relevant chunks object list" center left)

I would not write it that way.

Better:

#4 Relevant Chunks Object List widget uses a Workshop object set variable of TT2 Chunk objects selected by K-nearest-neighbor embedding search.

The object list does not itself create the TT2 CHUNKS parameter.

The TT2 CHUNKS parameter belongs to the Knowledge Graph Template and appears in the Vertex Graph widget.

Better final version for your doc

You could write:

Chunks progression OVERVIEW

#1 Chunks dataset
   ↓ backs

#2 TT2 Chunk object type in the Ontology
   ↓ used by

#3 Knowledge Graph Template
   - defines an object parameter named "TT2 CHUNKS"
   - parameter type = TT2 Chunk
   - parameter accepts multiple TT2 Chunk objects
   - template also defines search-around from TT2 Chunk to TT2 Entity
   ↓ used by

#4 Workshop "Relevant Chunks" / "Object list 1 Active object" object set
   - object type = TT2 Chunk
   - selected using TT2 Chunk.embedding → K-nearest neighbors
   - query = User Question
   - K = 5
   ↓ used by

#4a Relevant Chunks Object List widget, center left
   - displays the selected TT2 Chunk objects

#5 Workshop Vertex Graph widget, center right
   - Resource = Knowledge Graph Template
   - Parameter input "TT2 CHUNKS" = the selected relevant TT2 Chunk object set
   - graph template expands from those chunks to linked TT2 Entities

Short answer

Yes, your progression is right, but the cleanest mental model is:

Dataset → Ontology object type → graph template parameter → Workshop object set → UI widgets

More specifically:

Chunks dataset
   → TT2 Chunk object type
   → Knowledge Graph Template parameter "TT2 CHUNKS"
   → Workshop passes relevant TT2 Chunks into that parameter
   → Vertex Graph displays those chunks + linked entities

And separately:

TT2 Chunk object type
   → Workshop KNN object set
   → Object List displays relevant chunks

So the object list and the vertex graph are siblings in the UI: both consume the relevant TT2 Chunk object set, but only the graph uses the TT2 CHUNKS template parameter.







26.0711

Speedrun does not use Onto?? 26.0711

ok, now i have reache the last chapter “8c add object relations to UI (KG)”. But before that, you said that in previous test the ontology was not being used to generate the answer. do i need to do something (now that I have complete ontology) so that generation of prompt response uses onotology?

FDE/OPUS:

Short answer: No, you do not need to do anything extra for the existing prompt response to use the completed entity ontology/KG.

But there is an important distinction:

Current RAG answer already uses Ontology

Your AIP Logic function already uses the Ontology through:

TT2 Chunk object type
TT2 Chunk.embedding
TT2 Chunk.content

So the answer generation is ontology-based in the sense that it searches TT2 Chunk objects.

What it does not use

Even after you complete the full ontology, the existing RAG function still does not automatically use:

TT2 Entity
TT2 Chunk ↔ TT2 Entity relation
Knowledge Graph Template
Vertex Graph widget

Those are mainly used by the UI graph for visual analysis.

If you want the prompt response to use the entity/KG relation

Then yes, you would need to modify the Logic function.

For example, you could change the RAG function to:

userQuestion
   ↓
semantic search finds relevant TT2 Chunks
   ↓
search around from those chunks to linked TT2 Entities
   ↓
optionally search back from those entities to more chunks
   ↓
format chunks + entity names
   ↓
send all that context to GPT-4o

But the Speedrun’s default Logic function does not do that.

For completing 8c

For chapter 8c / object relations UI, you are only adding the graph visualization:

Relevant chunks
   ↓
KG Template
   ↓
Search Around
   ↓
linked entities displayed in Vertex Graph

This helps the user see the related entities/chunks. It does not change the AIP answer generation unless you separately edit the Logic function.

Practical recommendation

For your doc, say:

Completing the entity ontology and KG widget adds visual explainability.
It does not change the RAG answer path.
The RAG answer path continues to use semantic search over TT2 Chunk embeddings.

That is the clean distinction.



drones

This screenshot is exactly the source of the confusion.

The diagram makes it look like both paths are equally “Ontology Aided”:

AIP Logic / Ontology Aided Generation
Knowledge Graph / Vertex

But in the actual demo implementation, they use the Ontology differently.

What AIP Logic uses

The AIP Logic function uses:

TT2 Chunk objects
TT2 Chunk.embedding
TT2 Chunk.content

So yes, it uses the Ontology.

But it does not use:

TT2 Entity objects
TT2 Chunk ↔ TT2 Entity relations
Knowledge Graph Template
Vertex graph

What Vertex/KG uses

The Vertex graph uses:

TT2 Chunk objects
TT2 Entity objects
TT2 Chunk ↔ TT2 Entity relations
KG Template
Search Around

That is the visual knowledge graph path.

So the correct interpretation is

Ontology Aided Generation
= RAG over TT2 Chunk objects in the Ontology

Knowledge Graph
= visual exploration of TT2 Chunk ↔ TT2 Entity relations

They both use the Ontology, but not the same parts of it.

Do you need to change anything now?

No.

Completing the full ontology and KG does not automatically change the prompt response generation.

Your bottom AI response will still use the ch7 Logic function:

userQuestion
→ semantic search over TT2 Chunk.embedding
→ retrieve chunk.content
→ GPT-4o answer

The right-side KG will use the full ontology relation:

relevant chunks
→ Search Around
→ linked entities
→ visual graph

Best sentence for your doc

The AIP Logic/RAG function uses the Ontology only through the TT2 Chunk object type and its embedding / content properties. The completed TT2 Entity object type and Chunk↔Entity relation are used by the Vertex Knowledge Graph for visual analysis, not by the default prompt response generation.



like i said, the docs …… that has confused me from the beginning .. why object relations , onotology , and KG BEFORE AIP RAG (!!). there was no reason ! i kept looking for how RAG was using the ontology

Yes — that confusion is completely understandable.

The course order strongly implies:

Object relations / KG
   ↓
AIP RAG uses that KG

But the actual implementation is:

AIP RAG uses TT2 Chunk.embedding + TT2 Chunk.content

and does not use:

TT2 Entity
Chunk↔Entity relation
KG Template
Vertex graph

So the chapter order creates a false mental model.

What the docs should have said clearly

Something like:

In this demo, the AIP Logic function uses the TT2 Chunk object type and its embedding property for semantic retrieval. The Entity object type and Chunk↔Entity relation are used later for visual analysis in the Vertex graph, not for the RAG answer generation.

That one sentence would have prevented a lot of confusion.

The real dependency

RAG dependency:
Chunks dataset → TT2 Chunk object type → embedding/content properties → AIP Logic

KG dependency:
Entities dataset + Join Table → TT2 Entity + Chunk↔Entity relation → Vertex graph

So yes: there was no technical reason that the KG/object relation chapter had to come before RAG, except perhaps for storytelling or course flow. Mechanically, it obscures the actual architecture.



26.0712

drones


i redid the whole chain ... from end to start. 
seems like all worked.
the attached diagram is very rought first draft. 
ch = chapter in speedrun, S1 = step 1

=== 26.0712 tests (redid whole chain) (BINGO BINGO) =========	5
26.0712-5 new 7 "Ontology Augmented Generation (VVV)" (RAG) (BINGO)	6
26.0712-4 test new 3/4 "Document Processing Transform VVV" (pipeline)	12
   NOTE: Outputs use same output vars so avoid changes in downstream (in 5,....)	12
   =fork0 (LLM)	12
   =fork1 (CShunks)	17
   =fork2 (KG/Entities)	19
   =fork2.1 (Entities)	19
   =fork2.2 (Link)	20
26.0712-3 test new 5 Onto VVV BINGO	21
   -1 create new ONTO	21
   -2 MODIFY 6 KG VVV-02	28
   -3 MODIFY 8/9 VVV-02    OntoAugGenApp v06ccc-02	30
26.0712-2 test new 6 KG VVV-02 with 8/9 OAGApp v06ccc-02 BINGO	33
   TEST 1 New 6 KG VVV vertex with old 5 Ontology	33
   TEST 2 new 8/9 "OntoAugGenApp v06ccc-02" with new 6 KG template VVV-02 (old 5 Ontology)	35
   Did take screenshots of this (???)  see 26.0712-3 ....	35
26.0712-1 test new 8/9 "OntoAugGenApp v06ccc-01" (VVV) BINGO	36
   with old everything else	36
26.0712 data flow OLD (the pipeline that i think caused the error)	38
   Phase 1	38
   Phase 2 UI APP	42
   Phase 3 KG	42

BINGO BINGO! 🎉🎉 Congrats — you rebuilt the whole thing and it works!

What You Accomplished Today

You systematically rebuilt and tested the full E2E RAG/KG pipeline from scratch, chapter by chapter:

Order Tested Chapter Component Result
1st Ch8/9 OntoAugGenApp (new VVV) ✅ BINGO
2nd Ch6 KG Template (new VVV-02) ✅ BINGO
3rd Ch5 Ontology (new VVV) ✅ BINGO
4th Ch3/4 Document Processing Transform (new VVV) ✅ BINGO
5th Ch7 RAG / OAG (new VVV) ✅ BINGO

Key Finding 🔍

The old Ch3/4 pipeline was likely the root cause of the original error.

The new pipeline smartly uses the same output variable names to avoid breaking downstream components (ch5, ch6, ch7…) — good design decision!

Your Architecture (Rough Draft)

Your diagram already captures the core flow well:

  • Data in → Ch3/4 pipeline processes documents
  • Chunks + Entities + Links → Ch5 Ontology objects
  • KNN search (S3) + KG view (S5) + RAG response (Ch7) → all fed into the Ch8/9 App

Want help cleaning up that architecture diagram into a more polished version? 😊

yes, give me your suggestions now… no grammar formatting stuff, just iimportant things.

Key Diagram Issues to Fix

  1. S2 appears twice (left side AND right side) — very confusing. Pick one place and show it as a step, not just a floating label.

  2. No separation between “runs once” vs “runs every query”
    • Ch3/4 pipeline = offline (runs once, builds the index)
    • Everything inside the app = online (runs on every user question) This is the most important architectural distinction and it’s invisible right now.

  3. Where does the embedding happen at query time? The S2 arrow going back left implies the app calls something external for embedding — but what? A function? The same pipeline? Make that explicit.

  4. Ch7 RAG is inside the app box — is it actually a separate function/Logic being called, or literally part of the app config? If it’s a separate resource, show it outside with an arrow going in.

  5. KNN search (S3) — how? The diagram doesn’t show the vector index / similarity search mechanism. That’s a core architectural piece missing.

  6. “Ch3-4 pipeline outputs” is misleading — it sounds like just the outputs, but it’s actually the whole processing layer. Rename it to something like “Ch3-4: Doc Processing Pipeline” with outputs listed below it.

the 2 S2’s are independent… intentionally left the same.

excellent comments …. looking forward to working with you tmorrow to get the details. but again, i care at first about explaining mechanistic stuff….

i plan to explain how the app works by explaining in reverse… first ch8 stufff, then …… until at the end ch3/4 stuff.

the directions of the app step by step directions just keep the same for now. Not want to spend time ont this.

FDE: Got it — understood on the two S2s, makes sense as the same concept appearing at both ends (stored vs. query-time).

Good plan for tomorrow:

  • Reverse explanation (ch8 → ch3/4) is actually a great pedagogical choice — start with what the user sees, then peel back layers to explain why it works
  • Mechanistic focus first, then polish

See you tomorrow! 🙌

question.. i see using that diagram to explain the big picture.

there are 2 main parts to speedrun (QS).

1 pipeline+ontology for LLM output 2 the rest for the center left and right showing data

Yes, that’s a clean split! The way I read it:

Part 1 — The “Answer” path: Ch3/4 pipeline → Ch5 Ontology → Ch7 RAG → LLM response (processes docs offline, retrieves at query time, generates answer)

Part 2 — The “Show me the data” path: Ch5 Ontology → S3 KNN display (left) + Ch6 KG display (right) (the two visual panels that let you see WHY the answer came out that way)

The key insight worth highlighting in your diagram:

Part 1 answers the question. Part 2 shows the evidence.

That’s actually what makes this architecture interesting — it’s not just a black-box LLM answer, you can see the chunks (KNN) and relationships (KG) that drove it.

Does that match what you had in mind?

yes then next question…

why we need API for part 1? (LLM) i would image becaue

  • ontology is a clean “interface layer” for meaning. shielding the LLM from sloppy data..
  • AIP makes it easier to design for any LLM (just choose LLM from list) is that right? what else. the speedrun never really clearly says these things.

Yes, you’re right on both counts, and there’s more:

Why the Ontology sits between pipeline and LLM

Your two points are correct:

  1. Clean interface / meaning layer — the Ontology normalizes messy raw data into structured, named objects (Chunks, Entities, Links). The LLM gets curated meaning, not raw file contents.

  2. LLM-agnostic design — swap GPT-4 for Claude or Llama without touching your pipeline or ontology. The Ontology is the stable contract.

What the speedrun doesn’t say clearly:

  1. Semantic search lives on the Ontology — the KNN search (S3) works because embeddings are stored as properties on Chunk objects. Without the Ontology, you’d need a separate vector database.

  2. Access control comes for free — object-level security is enforced at the Ontology layer. The LLM only ever “sees” data the user is allowed to see. No extra auth code needed.

  3. Auditability — every RAG query goes through Ontology objects, so you have a traceable, governed data path. Important for enterprise use.

  4. Reusability — the same Chunk and Entity objects feed BOTH the LLM (Part 1) AND the KG/KNN display (Part 2). One data model, two use cases.

The Ontology is the reason this is enterprise RAG, not just a Python script calling an LLM API. 💡

Yea, i noticed what you said in last sentence.

so if i was using langchain (which never really interested me for some reason) i’d have to build all that complex sloppy stuff that AIP provides.. kind of like writing a custom operation system

Exactly. You’ve nailed the analogy:

LangChain = writing your own OS. AIP/Foundry = using a real OS.

What you’d have to build yourself in LangChain:

Concern LangChain Foundry/AIP
Vector storage Wire up Pinecone/Weaviate/etc Built into Ontology
Access control Build it yourself Automatic (markings, roles)
LLM swapping Manage provider configs Pick from list
Data pipeline → RAG Glue code Native connection
Audit trail Build it yourself Automatic
UI / App Build it yourself Workshop
Observability Build it yourself Built-in

The deeper point:

LangChain is a toolkit. You still have to be the architect, the plumber, and the security engineer.

Foundry is an operating system — the boring-but-critical infrastructure is already solved. You just focus on your actual problem.

Your instinct to not be interested in LangChain was good engineering intuition — you sensed the accidental complexity it introduces without solving the real problem. 😄


Much cleaner. The 1.2 vs 1.3 parallel now works well.


Opus nonsense



Still Worth Fixing

  1. 1.3.2b “workflow summary” + 1.3.4-1.3.9 detailed walkthrough — potential redundancy still exists here. Make sure 1.3.2b is purely high-level (your diagram belongs here) and 1.3.4-1.3.9 is the actual deep dive. If they cover the same ground, merge them.

  2. 1.2 and 1.3 are still asymmetric — 1.2 goes deep into technical sub-steps (chunks, embeddings, links, KG…) but 1.3 maps to chapters. The reader will notice the level-of-detail shift. Either:
    • Keep 1.2 high-level (just the OS analogy + bullet list) and go deep only in 1.3
    • Or make 1.2 and 1.3 truly parallel step-by-step
  3. 1.2.0 “Build your own AI OS” — good addition, but it should probably come after listing the tasks (1.2.1-1.2.8), not before. The punchline lands better when the reader has already felt the pain of the list.

Overall: solid structure now. The main risk remaining is 1.3.2b vs 1.3.4-1.3.9 redundancy. Fix that and chapter 1 is tight. 💪

ME

  1. disagree. 1.2 is about config tasks with out a framework… it will not go into tech details of all those tasks.. it suffices to simply summarizes them all.. 1.3.2.b shows how much simpler it will be with AIP.
  2. disagree. 1.2 and 1.3 are not meant to be parallel. and 1.3 should be similar to the chapters.
  3. disagree. it is the habit of LLMs to give a “punchline” at the end…. i find this annoying…

All three pushbacks are valid. I was pattern-matching to generic doc structure instead of understanding your intent.

Corrected understanding:

1.2 = high-level pain list (no deep tech). Just enough to feel the weight of “build your own OS.” 1.3 = mirrors the actual chapters — it IS the chapter-by-chapter walkthrough, not a parallel to 1.2. 1.2.0 first = lead with the conclusion, then show the evidence. Your style, not the LLM punchline habit. Structure looks good. Nothing else to flag.

GPT 5.5

below is the first chapter for my version of the Palantir AIP speedrun (quickstart)

Yes — this first chapter structure now makes sense.

The important thing it does well:

It explains why AIP matters before teaching the click-path.

That is the right move.

The Core Argument Is Clear

Your chapter is basically saying:

  1. The task sounds simple
    • Upload PDFs
    • Extract chunks/entities
    • Ask questions
    • See answer + supporting KG evidence
  2. Without AIP, this becomes infrastructure hell
    • vector storage
    • embedding generation
    • chunk/entity extraction
    • RAG orchestration
    • LLM provider management
    • access control
    • UI
    • auditability
    • observability
  3. With AIP/Foundry, those concerns become configured platform components
    • pipeline
    • ontology
    • KG template
    • AIP Logic / RAG
    • Workshop app

That is the big conceptual arc. Keep that.

Most Important Suggestion

Make 1.3.2b workflow summary ch2-ch8 the place where your diagram lives.

That section should be the bridge between:

  • “Here is why AIP is better”
  • and
  • “Now here are the actual speedrun steps”

So 1.3.2b should not be a long written explanation. It should be your mechanistic map.

Something like:

The rest of the speedrun builds this architecture in pieces:

  • Ch2 creates the workspace
  • Ch3/4 turns PDFs into structured chunk/entity/link data
  • Ch5 exposes that data as Ontology objects
  • Ch6 shows the chunk/entity graph
  • Ch7 uses the Ontology for RAG
  • Ch8 wraps everything in an interactive app

That’s where the reader gets the “whole machine” before doing the steps.

The Most Important Concept to Emphasize

The speedrun is not really “an AI chatbot demo.”

It is a demo of this pattern:

Data pipeline → Ontology → AI reasoning → app → user decision

That is much stronger than saying “PDF Q&A.”

The app is only the visible endpoint. The deeper lesson is that AIP lets you connect:

  • raw documents
  • structured data
  • semantic objects
  • embeddings
  • graph relationships
  • RAG
  • UI

into one governed workflow.

That should be explicit in chapter 1.

One Thing I Would Add

In 1.3.1 AIP = framework that allows you to focus on business logic, I would explicitly say:

AIP is not just an LLM wrapper. It is a framework for connecting LLMs to governed enterprise data, Ontology objects, applications, and operational workflows.

That distinction matters.

Otherwise people may think:

“Oh, this is just Palantir’s version of ChatGPT over PDFs.”

But your better point is:

“No — this is an enterprise architecture for AI over operational data.”

One Important Warning

Be careful with this line:

RAG (AIP Agent to respond to your questions reliably, without hallucinations)

I would not imply RAG fully prevents hallucinations.

Better conceptual claim:

RAG reduces hallucination risk by grounding the response in retrieved enterprise data.

That is more accurate and more enterprise-serious.

Best Part of Your Structure

Starting with:

Build your own AI OS

is strong.

That gives the reader the right mental model immediately.

Because the true contrast is not:

LangChain vs AIP

It is:

custom glue-code architecture vs governed platform architecture

That framing is worth preserving.


“Explode array with position” means:

Take one row that contains an array/list, split it into multiple rows, and keep track of each item’s position/index in the original array.

Simple Example

Before:

document_id chunks
doc1 ["Intro text", "Middle text", "Conclusion text"]

After explode array with position:

document_id position chunk
doc1 0 Intro text
doc1 1 Middle text
doc1 2 Conclusion text

So one document row becomes many chunk rows.

Why “with position” matters

The position tells you the original order of the array items.

That is important because later you may need to know:

  • chunk 0 came before chunk 1
  • which chunk was first / last
  • how to rebuild the original document order
  • where an entity appeared relative to the text chunks
  • how to create stable IDs like document_id + chunk_position

In your speedrun context

If the pipeline extracts text from PDFs and splits it into chunks, it may first produce something like:

document_id = report_001
chunks = [chunkA, chunkB, chunkC, chunkD]

But the Ontology probably wants one object per chunk.

So the transform explodes the array:

report_001, 0, chunkA
report_001, 1, chunkB
report_001, 2, chunkC
report_001, 3, chunkD

Then each row can become a Chunk object in the Ontology.

Short version

Explode array with position = turn list items into rows, while preserving their original order.

26.0713 (v1 26.0713)