AI Engineer World's Fair 2026

What It Actually Takes to Build a Software Factory — Tereza Tížková, Factory

Slide chapters

9 slide and demo groups · Timestamps are approximate. 22 additional groups were omitted from this pass.

Rise of the Software Factory

Tereza introduces what it takes to build a software factory, alongside a historical photograph of a woman working on an early computer.

Text in image
FACTORY

Rise of the Software Factory

Factory.com · AI Engineer World Fair, San Francisco 2026 · @tereza_tizkova

What if the routing is wrong?

A good router must classify tasks well enough to avoid frequent model switches. Tížková suggests that even switching to a more capable model mid-task may still be faster overall.

Text in image
“Yes, but what if the routing is wrong?”

1 / AGNOSTIC

• Classification overhead?
• Misrouting?
• Isn’t it slower?
• Isn’t it more expensive?
• What if it needs to upgrade to a better model?

• Caching: How do open models compete here?

router-classifier                         CLASSIFIER · ~2S

Reads the first user message, recent tool calls and repo signals, then emits a scalar quality probability for each model.

SIGNAL          WEIGHT    COMPUTING    SCORE
message         0.30                   0.84
recent tools    0.20                   0.62
repo size       0.15                   0.77
language mix    0.20                   0.91
difficulty      0.15                   0.88

FINAL SCORE                            0.80

Source: RouteLLM (LMSYS), Factory

Caching discounts for end users

Factory hosts open models on dedicated compute and passes caching discounts to users. In the example, the second turn reuses 5,203 tokens billed at 10% cost; new tokens are billed at full cost.

Text in image
We pass caching discounts on end users

1 / AGNOSTIC

• Factory hosts open models on dedicated compute with US-based providers
• We take advantage of caching on the compute, leading on cache efficiency

Skipping the prefill: the first prompt costs full price, second message can be 10x cheaper

TURN 1
5,200 tokens
System Prompt
Tools
Skills
...
+ 3 tokens
Good morning!

TURN 2
5,203 tokens cached
System Prompt
Tools
Skills
Good morning!
+ 3 tokens
What's the weather?

Billed at 100% cost
5,200 tokens
6 tokens

Billed at 10% cost
5,203 tokens

Source: LangChain: Deepagents article & diagram recreated

Software factory: autonomous

Tížková moves from agnosticism to autonomy, which she calls the core of the software factory.

Text in image
SOFTWARE FACTORY

1 AGNOSTIC
2 AUTONOMOUS
3 ALWAYS IMPROVING

Source
2026
5

Example of the loop

Droid split a 750 mm rotor logo into printable tiles and suggested pocketing the back to save filament. Tížková uses the physical task to show how hard it can be to define when an open-ended loop is done.

Text in image
Example of the loop
2 / AUTONOMOUS

Open-ended task: "750mm Factory rotor logo, wall-mounted, on my Bambu X1C"

• One prompt
• Droid pulled the SVG, wrote parametric OpenSCAD, split into 3x3 printable tiles with joinery, then pushed back with a better design.
• Hours of CAD replaced

Dmytro Yaroshenko · 1st
Applied AI Solutions @ Factory
3w · Edited

"Can Droid do non-coding tasks?" Get this many times a week.

Weekend experiment: "I want a 750 mm Factory rotor logo, wall-mounted, on my Bambu X1C".

One prompt, one clarifying question. Droid 🤖:
- pulled the SVG from our brand site
- installed OpenSCAD via brew (fixed a Rosetta hiccup along the way)
- wrote parametric OpenSCAD that splits the rotor into a 3x3 grid of 250 mm tiles to fit the X1C bed
- (!!!) added mortise-and-spline joinery along every seam so the tiles lock together
- exported 9 tile STLs plus a plate of 60 splines to assemble
- (!!!) then it pushed back: "pocket the back since the wall hides it anyway, and reinvest the saved filament and print time into the front" - as result it is 2x thicker at 10 mm, more shadow line, more presence, and still 32% less filament than the simpler 5 mm version I was thinking to get

Hours of CAD I wasn't going to do, replaced by two prompts.

So back to the original question: if you can do it on your computer, Droid can do it. And I have a long backlog to print.

#factory #droid

Interface text: [illegible]

Without structure, AI makes code worse

The chart compares post-adoption quality degradation in ad hoc and structured repositories. Ad hoc repositories show 3.3×, 3.4× and 16.1× larger increases across the three measures.

Text in image
Without structure, AI makes code worse

3 / ALWAYS IMPROVING

• 3-16x more quality degradation in unprepared repos
• Same models, same speed, different outcomes
• Structure is the variable, not the model

“Level 1 repositories show 3-16x larger increases than Level 2+.”
— Denisov-Blanch et al., Figure 5

Quality degradation after agent adoption by RAMP maturity (higher = worse)
Legend: Level 1 (Ad Hoc); Level 2+ (Structured)
Y-axis: Post-Adoption Change (%)
Y-axis ticks: 0, 20, 40, 60, 80, 100, 115
Categories: Cognitive Complexity; Static-Analysis Warnings; Duplicated Line Density
Labels: 3.3×; 3.4×; 16.1×

Source: Denisov-Blanch, Agarwal, Azaletskiy et al., “Repository AI Configuration Is Associated with Three-Fold Differences in Code Quality After Agent Adoption,” ASE 2026, Figure 5. *p<0.05; ***p<0.001.

Agent readiness is measurable

Factory’s agent-readiness framework checks codebase hygiene across eight areas. Its dashboard shows category pass rates and readiness over time; customers can follow checks with recommended fixes.

Text in image
Agent readiness is measurable
3 / ALWAYS IMPROVING

We codified the “reading between the lines” context for agents

1. Style & validation
2. Build system
3. Testing
4. Documentation
5. Dev environment
6. Observability
7. Security
8. Task discovery

Agent readiness

44% total criteria pass
Level 1  Level 2  Level 3  Level 4  Level 5

PASS RATE BY CATEGORY

LEVEL OVER TIME
Y-axis ticks: 1, 2, 3, 4
Timeline: DEC 16, DEC 21, DEC 26, DEC 31, JAN 5

Style & Validation — 71%
Naming Consistency — 0/1
Cyclomatic Complexity — 0/1
Large File Detection — N/A
Dead Code Detection — N/A
Duplicate Code Detection — N/A
Code Modularization Enforcement — N/A
Technical Debt Tracking — N/A

Source: Factory, Agent Readiness

Interface text:
3  [illegible]
Last update: 2 weeks ago
7d  1m  6m  1y  All
INTERMEDIATE  ADVANCED

What will happens to humans in software factories?

Tížková asks whether software factories will cost humans their jobs and rejects the idea of a permanent underclass. The slide pairs her question with a “STOP HIRING HUMANS” advertisement.

Text in image
SOFTWARE FACTORY

What will happens to humans in software factories?

STOP HIRING HUMANS
The era of AI employees is here
ARTISAN

2026
5

We move up, towards deciding what to build, instead of how

Tížková traces a shift from human computers to coding agents, then envisions engineers deciding what to build while managing teams of agents that decide how.

Text in image
We move up, towards deciding what to build, instead of how

human computers
EARLY 1940s
Calculating ballistics trajectories by hand, wiring diagrams and patch cables.

programming languages
1950s - 2020s
Compilers and high-level languages let you describe intent and stop hand-wiring the machine

coding agents
2023 - 2025
Human is still at the desk, working one task at a time.

software factories
NOW
Engineers decide what to build, agents decide how

Source: ENIAC history (i-programmer), K. Kleiman, Proving Ground

Read the talk

What It Actually Takes to Build a Software Factory

Tereza Tížková explains how Factory connects model routing, sequential workers, independent validation and selective context loading into an autonomous software lifecycle—and why codebase hygiene and human judgment still matter.

From a talk by Tereza Tížková

At a glance

Ideas worth remembering

  • A software factory connects signals, prioritization, implementation, validation and learning into an autonomous cycle.

  • Model routing depends on predicting task difficulty well enough to choose the cheapest capable model without frequent switching.

  • Completion criteria must describe the intended result. Independent code checks and application interaction help expose failures that merely passing tests can miss.

  • Deferred context keeps full tool specifications available while loading them only when needed; codebase hygiene and reusable team knowledge support the quality of subsequent work.

  • Tížková envisions humans choosing what to build and monitoring agent teams, with agents also taking on routine status sharing and coordination.

The factory has to run the whole software lifecycle

Generating code is only one part of delivering software. In Tereza Tížková’s account of Factory, a software factory starts with user feedback and logs, prioritizes what matters, orchestrates implementation, validates the result, tests in production and feeds what it learns into the next iteration. She describes Factory running this approach for enterprises including EY and Adobe. The central requirement is autonomy across that cycle.

Source frame: The factory has to run the whole software lifecycleOpen full source frame
Source frame: The factory has to run the whole software lifecycle

The idea of continuously iterating agents predates the systems that could make it useful. Earlier attempts ran into hallucinations, limited context, weak reasoning and a shortage of isolated environments where agents could work. Improvements in those capabilities make the larger loop more practical. Adding thousands of coding agents, however, still leaves prioritization, coordination and verification to be solved. Writing code is the comparatively easy part.

That makes building a factory resemble building a team: workers need responsibilities, permissions, shared knowledge and a way to judge each other’s output. Tížková advocates rebuilding the organization around that work rather than dropping a consultancy’s strategy into its middle. Her three principles give the rest of the talk its structure: remain agnostic about models and existing workflows, support autonomous work with appropriate governance, and keep improving the system’s knowledge and working conditions.

1:081:22
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0:36 · section reference included

Fit existing workflows, then change the economics

Agnosticism begins with the organization’s existing habits. A factory needs to connect to places such as Slack and GitHub and accommodate subscriptions people already use. Model independence serves the same purpose: new models and benchmarks arrive too quickly to confidently commit the whole system to a permanent winner.

Source frame: Fit existing workflows, then change the economicsOpen full source frame
Source frame: Fit existing workflows, then change the economics

The Coinbase example separates token consumption from money spent. Tížková describes a chart shared by its CEO in which token usage continued growing while spending fell. The measures she highlights address different parts of that equation:

  • Change default models. Stop making a frontier model the default for every task.
  • Cache repeated context. Avoid repeatedly processing material the system has already seen.
  • Require results for large spending. Evaluate what substantial usage produces rather than simply imposing a spending cap.
  • Route tasks between models. Match the work to a model with sufficient capability at a lower cost.

Factory’s automatic model routing first chooses a model for the task and can switch if that model struggles or a provider fails. This also creates opportunities to improve speed: Tížková notes that open models can be faster. She reports approximately 25% savings in a Factory benchmark she characterizes as conservative; the supplied account does not specify the workload or comparison conditions, so that figure is an example rather than a general savings guarantee.

5:075:15
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5:07 · section reference included

Choose the cheapest model predicted to finish

Routing starts with the task and the organization’s rules. Different roles—marketing, sales or engineering—can have different permissions and default models. The classifier then examines the prompt’s structure, the codebase, task difficulty and the tools involved. From that assessment, the router sets a capability threshold and chooses the cheapest model predicted to meet it. The useful decision is whether a model can accomplish this particular task.

Source frame: Choose the cheapest model predicted to finishOpen full source frame
Source frame: Choose the cheapest model predicted to finish

Misclassification is the hard part. A cheap first choice can become costly if the system repeatedly switches models or has to redo work. Factory therefore aims to classify well enough that switching is uncommon. Tížková suggests that an occasional upgrade can still leave the overall task faster, but presents that as a possibility, not a measured outcome for every routed task.

Caching raises a separate question: who receives the savings? Reusing context avoids repeated prefill, the work of processing input context before generating a response. Hosted open models on dedicated compute can also use caching. Tížková distinguishes that technical capability from the price charged to users: the discount passed through depends on pricing decisions and agreements with API providers.

7:487:51
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7:46 · section reference included

A loop needs a verifiable definition of done

Autonomy turns the discussion from model selection to stopping conditions. Repeated execution and task decomposition are familiar ideas; the difficult question is how the system recognizes completion. A colleague’s agent loop for 3D-printing the Factory logo makes this concrete. A task that produces a physical object reaches beyond a simple programming loop with an explicit termination condition. Its intended result must still be verifiable.

Source frame: A loop needs a verifiable definition of doneOpen full source frame
Source frame: A loop needs a verifiable definition of done

Longer autonomous runs do not by themselves establish production reliability. The system may still need iteration and feedback. Worse, an incorrectly defined completion test gives an agent the wrong target: it can optimize for passing the check while leaving the intended task unfinished. Tížková calls this cheating. The problem lies in the gap between the test’s condition and the result the user actually needs.

10:1110:16
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10:07 · section reference included

Missions separate implementation from judgment

Factory Missions organize long-running work around an orchestrator, workers and validators. The orchestrator decides what must be done and writes completion conditions. Workers implement the task; validators review the output and return feedback into the loop. Tížková reports Missions running for weeks and gives a customer example lasting 16 hours, with validation taking 40% of the process. These are reported run characteristics, not evidence that every Mission completes reliably.

Source frame: Missions separate implementation from judgmentOpen full source frame
Source frame: Missions separate implementation from judgment

The main workers run in sequence. Each accomplishes something and passes the work to the next, giving the next worker fresh context—a fresh head, in the human-team analogy. Parallelism remains available inside a worker’s assignment: subagents can research or build files while that worker proceeds. The architecture therefore combines sequential handoffs for the main task with smaller concurrent jobs within each stage.

Who judges completion, and how does feedback reach the next attempt? The diagram follows the handoffs. A validation contract is written before implementation, and validators judge code they did not write. That separates the original requirements, the act of building and the decision about whether the result satisfies those requirements.

Two validators inspect different kinds of failure:

  • Scrutiny validator. Checks the codebase through linting, types and tests.
  • User-testing validator. Operates a virtual computer, clicks through the application and checks whether its behavior works, without relying on how the implementation was produced.

The migration example shows why that second check matters. An engineer migrating codebases with Factory’s agent needed it to click through the result. Other products had produced something that looked like a finished application but was not interactive—a dummy result. Moving from generated code to an agent operating the application changed what could be observed: clicks could reveal whether the interface actually responded. Tížková describes that check as confirming working behavior, although she does not detail the migration’s individual interactions or fixes.

Computer use and persistent virtual environments make that behavioral inspection possible. The resulting Mission is a loop containing smaller loops: individual agents iterate on their assignments while the overall system iterates on implementation and validation. The nesting matters because progress within one worker is still subject to a separate judgment about the finished product.

Implementation handoffs and independent validation

OrchestratorAssigns work and writes the validation contract before implementation.
Workerimplementation — Implements an assignment; can delegate smaller parallel tasks.
Next workerimplementation — Receives the work with fresh context.
Independent validatorsvalidation — Check code and user behavior; judge code they did not write.
Main workers pass work sequentially. Validators use conditions written before the code and return feedback to the beginning of the Mission.
Read the diagram as text
  • Orchestrator. Assigns work and writes the validation contract before implementation.
  • Worker. implementation — Implements an assignment; can delegate smaller parallel tasks.
  • Next worker. implementation — Receives the work with fresh context.
  • Independent validators. validation — Check code and user behavior; judge code they did not write.
  • Orchestrator → Worker: Assign work.
  • Worker → Next worker: Sequential handoff.
  • Next worker → Independent validators: Review output.
  • Orchestrator → Independent validators: Validation contract.
  • Independent validators → Orchestrator: Feedback to the beginning.
12:0312:04
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12:03 · section reference included

Load tool details when the task needs them

Long Missions create a context problem. Enterprise tools such as Figma, Notion, Gmail, Drive and Slack bring schemas, parameters and descriptions with them. Loading all that material can crowd the context window, force compression and make similarly named tools harder to distinguish. More available integrations can therefore make the agent less effective if their full specifications are always present.

Source frame: Load tool details when the task needs themOpen full source frame
Source frame: Load tool details when the task needs them

Factory’s deferred context engine progressively discloses tool information. Initially, the agent gets a short list with short descriptions. When it needs a tool, it can load the full details. Nothing is deleted; information waits outside the active context until it is useful. Tížková reports token savings of 50% or more as tool usage scales, without specifying benchmark conditions. The mechanism saves tokens by avoiding upfront detail for tools the task may never use.

What changes in the context when a tool becomes necessary? The flow below separates discovery from full loading. Short descriptions let the agent identify a candidate; the full specification enters only at the point of need. The remaining tool details stay available for later work without occupying the current context.

Progressive disclosure of tool context

Short tool listactive-context — Names and brief descriptions enter the initial context.
Task needs a toolThe agent calls for the tool’s full information.
Deferred specificationsdeferred-context — Full details are retained outside active context until needed.
Selected tool fully loadedactive-context — The needed details become available in context.
The context starts small and gains the selected tool’s full details when needed; other specifications remain deferred.
Read the diagram as text
  • Short tool list. active-context — Names and brief descriptions enter the initial context.
  • Task needs a tool. The agent calls for the tool’s full information.
  • Deferred specifications. deferred-context — Full details are retained outside active context until needed.
  • Selected tool fully loaded. active-context — The needed details become available in context.
  • Short tool list → Task needs a tool: Identify what is needed.
  • Task needs a tool → Selected tool fully loaded: Load on demand.
  • Deferred specifications → Selected tool fully loaded: Disclose selected details.
15:4415:46
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15:39 · section reference included

Prepare the codebase and codify team knowledge

Continuous improvement also depends on what the agents inherit. Tížková describes AI adoption as having a power-law shape: teams can succeed dramatically or make an unprepared codebase worse. Her practical warning is that poorly structured, poorly documented code gives agents conditions in which mistakes can compound. The talk does not establish a measured distribution; the useful claim is that adoption alone does not ensure productivity.

Source frame: Prepare the codebase and codify team knowledgeOpen full source frame
Source frame: Prepare the codebase and codify team knowledge

Factory’s agent-readiness approach is a codebase hygiene check. Its factors are familiar engineering practices:

  • Reproducible environments. Can the developer environment be recreated consistently?
  • Tests and automated checks. Are useful tests, type checks and linters in place?
  • Documentation and conventions. Are the code’s structure and expected style written down?

Larger customers go through the checks and receive recommended actions to address the problems they reveal.

Some essential context never reaches the documentation. New employees learn unwritten rules by observing colleagues; agents instead often need the same preferences explained repeatedly. Factory’s plugins package reusable skills and context so teams can codify some of that knowledge. Reviewing and updating documentation supports the same goal: make learned practices available to subsequent work rather than forcing every session to rediscover them.

17:2217:24
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17:22 · section reference included

Humans choose what to build

The ending turns from agent architecture to human work. Tížková’s optimistic forecast follows earlier changes in abstraction: human computers performed detailed calculations, programming languages codified work, and coding agents took on implementation while people closely supervised them. Software factories extend that progression to structured teams of orchestrators, workers and validators. Humans monitor those teams and decide what to build. This is her proposed direction for work, rather than an established outcome for employment.

Source frame: Humans choose what to buildOpen full source frame
Source frame: Humans choose what to build

That division of labor includes more than writing code. Enterprise work consumes time in alignment meetings, collecting context from colleagues, sharing status and synchronizing plans. Those are candidates for the factory too. The promise is to give people more room for product decisions and the work they find interesting, while agents handle implementation and some of the coordination around it. The closing invitation has the same practical optimism: go touch some grass and let the agents build.

20:1920:21
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20:19 · section reference included

Read the complete timestamped transcript

9 slide groups. Extracted from the recording; expand builds to follow changes. Timestamps are approximate. 22 additional groups were omitted from this pass.

  1. Rise of the Software Factory

    Tereza introduces what it takes to build a software factory, alongside a historical photograph of a woman working on an early computer.

    Text in image
    FACTORY
    
    Rise of the Software Factory
    
    Factory.com · AI Engineer World Fair, San Francisco 2026 · @tereza_tizkova
  2. 0:36

    Uh hi everyone. Hey what's up? I'm

  3. 0:39

    Teresa. Uh and today I will be talking

  4. 0:42

    about software factory. uh everyone is

  5. 0:45

    talking about software factory but only

  6. 0:47

    few people are actually building one and

  7. 0:50

    even fewer people know what it actually

  8. 0:52

    takes to build one and how to define it.

  9. 0:54

    So I will be talking about what is a

  10. 0:57

    software factory, should I build your

  11. 0:59

    own or outsource it, what works in

  12. 1:01

    production already, what are the main

  13. 1:03

    challenges and how much is this all

  14. 1:06

    going to cost?

  15. 1:08

    Uh my name is Theresa. I work at a

  16. 1:10

    company called factory.com and we've

  17. 1:13

    been building uh this concept of the

  18. 1:15

    software factory for quite a long time

  19. 1:17

    but finally uh the technology is

  20. 1:20

    catching up and it's possible to build

  21. 1:22

    this in production for enterprises like

  22. 1:24

    EY or Adobe uh I would define the

  23. 1:27

    software factory as the whole loop the

  24. 1:30

    whole life cycle of developing software

  25. 1:32

    with autonomy which doesn't mean just

  26. 1:35

    coding and generating code by that I

  27. 1:37

    mean collecting all the signals reacting

  28. 1:40

    to user feedback to logs, prioritizing

  29. 1:42

    what's important, then orchestrating it

  30. 1:45

    all, executing, validating, doing really

  31. 1:48

    good uh testing in production and then

  32. 1:50

    iterating on all this uh while also

  33. 1:53

    continuously improving in the process

  34. 1:55

    and gaining new knowledge and new

  35. 1:57

    skills. So this is just our dashboard

  36. 2:00

    how our software factory looks if you if

  37. 2:03

    you look at it and it's catching the

  38. 2:04

    whole cycle there. uh this is just some

  39. 2:08

    history and by history I mean 2023 in

  40. 2:11

    AI. So the software factory wasn't

  41. 2:14

    really possible before even though we

  42. 2:16

    always had this idea from the beginning

  43. 2:18

    of uh CH GPT lounge and others we had

  44. 2:20

    this idea of the continuous loop there

  45. 2:23

    was autog baby agi already with the

  46. 2:26

    concepts of iterating on the software

  47. 2:28

    but it didn't work before because the

  48. 2:31

    LMS were hallucinating there was problem

  49. 2:33

    with context length uh problem with the

  50. 2:36

    reasoning quality uh different problems

  51. 2:38

    like this or we were missing good

  52. 2:40

    environments where the agents can

  53. 2:42

    actually work in the isolation. So all

  54. 2:45

    this kind of led to why the software

  55. 2:47

    factory is the paradigm that's starting

  56. 2:51

    to be popular now and actually useful.

  57. 2:55

    I like to define things by what they are

  58. 2:57

    not. So I want to say software factory

  59. 3:00

    is not just coding agent and it's not

  60. 3:02

    even a swarm of coding agents even

  61. 3:04

    thousands of agents because generating

  62. 3:07

    code writing code that's the easy part

  63. 3:10

    compared to all the others. uh engineers

  64. 3:12

    don't even spend most of the time uh

  65. 3:14

    just writing code. The challenges are

  66. 3:16

    the rest of it. Uh so this is what I

  67. 3:18

    want to enhance and it's also not just

  68. 3:20

    some consultancy or just some abstract

  69. 3:24

    strategy that someone will try to sell

  70. 3:26

    you and to your organization. Uh I think

  71. 3:29

    the approaches are of course different

  72. 3:31

    but we believe you should really rebuild

  73. 3:33

    your organization from ground up to be

  74. 3:36

    ready to become a software factory like

  75. 3:38

    you can't invite a consultancy and just

  76. 3:42

    throw something in the middle of your

  77. 3:44

    organization. You should really be

  78. 3:46

    mindful and rebuild it from scratch.

  79. 3:50

    uh this is the approach I like uh

  80. 3:53

    showing to building the software factory

  81. 3:55

    and I think it's similar to building the

  82. 3:58

    real team of humans because there is a

  83. 4:00

    lot of agents as I said they will be

  84. 4:02

    testing validating iterating and it all

  85. 4:05

    can end up as a big chaos uh so you need

  86. 4:08

    to be mindful and I would say the three

  87. 4:10

    important things is being agnostic in

  88. 4:13

    the software factory so being

  89. 4:15

    independent of LLM choices uh of how you

  90. 4:18

    already work as the organization then

  91. 4:21

    you need to be autonomous. So you need

  92. 4:22

    to give the agents the right trusts and

  93. 4:24

    all this permissions and governance and

  94. 4:26

    you need to trust it to run really for a

  95. 4:28

    long time because the predictions are

  96. 4:30

    that agents will run even a year or more

  97. 4:33

    years without the human in the loop. Of

  98. 4:35

    course that sounds ambitious but for

  99. 4:37

    example our missions already our long

  100. 4:39

    runninging sessions already build uh

  101. 4:41

    things and run for weeks. So it's not

  102. 4:44

    that crazy. And third thing always

  103. 4:46

    improving. So same as human organization

  104. 4:49

    you need to onboard any new people in

  105. 4:51

    your team by giving them good uh code

  106. 4:54

    base understanding good structure

  107. 4:56

    documentation and also let them improve

  108. 4:58

    in the process and gain new knowledge

  109. 5:00

    and share it share it within the team.

  110. 5:04

    So these are the three points and now

  111. 5:07

    let's talk about the agnostic one. Uh I

  112. 5:10

    think the important thing to point out

  113. 5:12

    if you are a builder and building

  114. 5:13

    different primitives of the software

  115. 5:15

    factory you need to be ready for how

  116. 5:17

    everyone is already working you need to

  117. 5:20

    work across environments like Slack,

  118. 5:22

    GitHub and connected to everything and

  119. 5:25

    you need to also allow people to already

  120. 5:27

    bring subscriptions they are using

  121. 5:29

    because there is every every time there

  122. 5:32

    is like new technology, new frontier

  123. 5:33

    models, uh new benchmarks and it's so

  124. 5:36

    difficult to catch up but also to

  125. 5:38

    predict what we'll be winning. So it's

  126. 5:40

    best to be agnostic for everyone.

  127. 5:44

    Uh then there's the topic of being

  128. 5:46

    agnostic to models. Uh this is a topic

  129. 5:49

    of a lot of discussions recently and

  130. 5:51

    this chart is from this chart is from

  131. 5:54

    CEO of Coinbase uh who tweeted about how

  132. 5:57

    they started uh started saving money in

  133. 6:00

    their organ or organization on AI but

  134. 6:03

    without reducing the token spend. So the

  135. 6:05

    black line is how much they spent on

  136. 6:07

    tokens. They continue growing and token

  137. 6:09

    maxing but they stopped spending so much

  138. 6:12

    money. Uh how they did it uh different

  139. 6:15

    tricks like different default default

  140. 6:17

    models for people. So stop pushing

  141. 6:19

    people to use only the frontier as a

  142. 6:21

    default. Then caching of course uh to

  143. 6:25

    stop preferring the stuff every time.

  144. 6:27

    And then no limits on spending but just

  145. 6:29

    needing to see the results if you spend

  146. 6:31

    a lot. And the last thing that's really

  147. 6:34

    important topic is routing. So smart

  148. 6:37

    routing between LLMs and just a token

  149. 6:40

    optimizing between uh the LMS instead of

  150. 6:43

    just spending so much tokens.

  151. 6:46

    Uh we built uh a thing in factory called

  152. 6:49

    uh automatic model routing and there's

  153. 6:53

    been a lot of questions around it but

  154. 6:55

    what it does is it automatically routes

  155. 6:57

    between different models in your

  156. 6:59

    process. The important thing is it

  157. 7:02

    decides first what model is most optimal

  158. 7:04

    and then uh it can switch to different

  159. 7:07

    model if it's failing the task or in

  160. 7:09

    case of any troubles but it usually

  161. 7:11

    doesn't happen and important thing is it

  162. 7:14

    doesn't just help uh spend money. It

  163. 7:18

    also helps with reliability or with

  164. 7:20

    speed because open source models are

  165. 7:22

    often faster and uh if one LM provider

  166. 7:26

    fails you can just switch to another one

  167. 7:28

    automatically. So it really does more

  168. 7:30

    things than just saving the money. This

  169. 7:33

    uh is our benchmark which is very

  170. 7:35

    conservative. I prefer conservative

  171. 7:37

    benchmarks but I think the direction is

  172. 7:40

    clear. You can save for example 25% but

  173. 7:44

    even more probably.

  174. 7:46

    Uh how the routing works uh there are

  175. 7:48

    four parts. First you just assign the

  176. 7:51

    task and you don't really need to do

  177. 7:53

    anything but as an organization you can

  178. 7:55

    for example give different permissions

  179. 7:57

    and different default models to

  180. 7:59

    different people which is very useful

  181. 8:01

    like marketing or sales or engineers can

  182. 8:03

    both uh have different default models

  183. 8:06

    and then you have the classification

  184. 8:08

    which is the important part. This is the

  185. 8:10

    magic of the routing. You need to really

  186. 8:12

    uh look at the structure of the prompt

  187. 8:14

    of the uh code base of how difficult the

  188. 8:17

    task is, what tools are being used, all

  189. 8:20

    these factors and make a classification

  190. 8:22

    of difficulty of the task. Uh after that

  191. 8:25

    you basically do a threshold of what is

  192. 8:28

    enough to accomplish the task and you

  193. 8:31

    choose the cheapest model above the

  194. 8:33

    threshold. So cheapest model that is

  195. 8:36

    predicted to accomplish your task and

  196. 8:38

    then you go.

  197. What if the routing is wrong?

    A good router must classify tasks well enough to avoid frequent model switches. Tížková suggests that even switching to a more capable model mid-task may still be faster overall.

    Text in image
    “Yes, but what if the routing is wrong?”
    
    1 / AGNOSTIC
    
    • Classification overhead?
    • Misrouting?
    • Isn’t it slower?
    • Isn’t it more expensive?
    • What if it needs to upgrade to a better model?
    
    • Caching: How do open models compete here?
    
    router-classifier                         CLASSIFIER · ~2S
    
    Reads the first user message, recent tool calls and repo signals, then emits a scalar quality probability for each model.
    
    SIGNAL          WEIGHT    COMPUTING    SCORE
    message         0.30                   0.84
    recent tools    0.20                   0.62
    repo size       0.15                   0.77
    language mix    0.20                   0.91
    difficulty      0.15                   0.88
    
    FINAL SCORE                            0.80
    
    Source: RouteLLM (LMSYS), Factory
  198. 8:41

    Okay. So when we launched this we got a

  199. 8:42

    lot of questions like does it actually

  200. 8:45

    work? What if uh the model mis routes?

  201. 8:48

    Uh is it slower? Is it more expensive

  202. 8:50

    actually? What if the model can't

  203. 8:52

    accomplish the task or what if it needs

  204. 8:54

    to upgrade? And how do you handle

  205. 8:56

    caching? So I think these are all valid

  206. 8:59

    questions and that's why it's so

  207. 9:02

    difficult to build a good router like

  208. 9:03

    you need to basically classify it very

  209. 9:06

    well and the challenge is to not not to

  210. 9:08

    need to switch too often but even if

  211. 9:11

    you're switching in the middle of the

  212. 9:12

    task to difficult to more difficult

  213. 9:14

    model you still overall are faster

  214. 9:17

    probably because it's still worth

  215. Caching discounts for end users

    Factory hosts open models on dedicated compute and passes caching discounts to users. In the example, the second turn reuses 5,203 tokens billed at 10% cost; new tokens are billed at full cost.

    Text in image
    We pass caching discounts on end users
    
    1 / AGNOSTIC
    
    • Factory hosts open models on dedicated compute with US-based providers
    • We take advantage of caching on the compute, leading on cache efficiency
    
    Skipping the prefill: the first prompt costs full price, second message can be 10x cheaper
    
    TURN 1
    5,200 tokens
    System Prompt
    Tools
    Skills
    ...
    + 3 tokens
    Good morning!
    
    TURN 2
    5,203 tokens cached
    System Prompt
    Tools
    Skills
    Good morning!
    + 3 tokens
    What's the weather?
    
    Billed at 100% cost
    5,200 tokens
    6 tokens
    
    Billed at 10% cost
    5,203 tokens
    
    Source: LangChain: Deepagents article & diagram recreated
  216. 9:21

    uh this is just some overview of caching

  217. 9:24

    uh lot of questions we got on this was

  218. 9:26

    also So how do we handle caching? Do we

  219. 9:29

    do discounts for users? Uh because LLM

  220. 9:32

    LLM labs of course save a lot of money

  221. 9:34

    by caching and skipping all the context

  222. 9:37

    prefill all the time. Uh open models can

  223. 9:41

    do this as well. I think people

  224. 9:42

    sometimes forget this and you can just

  225. 9:44

    host open models as well uh on dedicated

  226. 9:47

    compute and you can take the same

  227. 9:49

    advantage of the caching. Uh so I want

  228. 9:52

    to enhance uh the final price for users.

  229. 9:55

    is just a pricing decision. It's not a

  230. 9:58

    technical challenge because everyone can

  231. 10:00

    do caching. It's just what price you

  232. 10:02

    pass on the users and what deals you

  233. 10:04

    make with the API providers.

  234. Software factory: autonomous

    Tížková moves from agnosticism to autonomy, which she calls the core of the software factory.

    Text in image
    SOFTWARE FACTORY
    
    1 AGNOSTIC
    2 AUTONOMOUS
    3 ALWAYS IMPROVING
    
    Source
    2026
    5
  235. 10:07

    So this is uh being agnostic and now the

  236. 10:11

    autonomy which is the core of the

  237. 10:13

    software factory. Uh everyone is talking

  238. 10:16

    about loops. Uh loops I think have been

  239. 10:20

    here the whole time already in different

  240. 10:22

    context. They are just now leveling up

  241. 10:24

    and moving to the context of agents. You

  242. 10:27

    probably heard about the Ralph loop and

  243. 10:29

    specifying the tasks and splitting to

  244. 10:32

    subtasks for agents. Uh this is a known

  245. 10:35

    concept and uh the question is not the

  246. 10:38

    loop itself but the question is how how

  247. 10:40

    you define what it means to be done in

  248. Example of the loop

    Droid split a 750 mm rotor logo into printable tiles and suggested pocketing the back to save filament. Tížková uses the physical task to show how hard it can be to define when an open-ended loop is done.

    Text in image
    Example of the loop
    2 / AUTONOMOUS
    
    Open-ended task: "750mm Factory rotor logo, wall-mounted, on my Bambu X1C"
    
    • One prompt
    • Droid pulled the SVG, wrote parametric OpenSCAD, split into 3x3 printable tiles with joinery, then pushed back with a better design.
    • Hours of CAD replaced
    
    Dmytro Yaroshenko · 1st
    Applied AI Solutions @ Factory
    3w · Edited
    
    "Can Droid do non-coding tasks?" Get this many times a week.
    
    Weekend experiment: "I want a 750 mm Factory rotor logo, wall-mounted, on my Bambu X1C".
    
    One prompt, one clarifying question. Droid 🤖:
    - pulled the SVG from our brand site
    - installed OpenSCAD via brew (fixed a Rosetta hiccup along the way)
    - wrote parametric OpenSCAD that splits the rotor into a 3x3 grid of 250 mm tiles to fit the X1C bed
    - (!!!) added mortise-and-spline joinery along every seam so the tiles lock together
    - exported 9 tile STLs plus a plate of 60 splines to assemble
    - (!!!) then it pushed back: "pocket the back since the wall hides it anyway, and reinvest the saved filament and print time into the front" - as result it is 2x thicker at 10 mm, more shadow line, more presence, and still 32% less filament than the simpler 5 mm version I was thinking to get
    
    Hours of CAD I wasn't going to do, replaced by two prompts.
    
    So back to the original question: if you can do it on your computer, Droid can do it. And I have a long backlog to print.
    
    #factory #droid
    
    Interface text: [illegible]
  249. 10:42

    the loop. This is one example from my

  250. 10:45

    colleague uh he he made a loop uh of

  251. 10:48

    agents building 3D printing of our logo.

  252. 10:52

    uh I think here you can see what is the

  253. 10:54

    challenge of the loops because uh before

  254. 10:56

    in programming loops had clear criteria

  255. 10:58

    of what it means to be done while now

  256. 11:01

    the criteria become open-ended because a

  257. 11:04

    lot of the tasks are very

  258. 11:05

    nondeterministic it's basically open

  259. 11:07

    world you can do even real stuff like

  260. 11:09

    printing something and it's really

  261. 11:11

    difficult to define how do you verify

  262. 11:14

    that the loop was done that the task was

  263. 11:15

    accomplished so that's the difficult

  264. 11:17

    part

  265. 11:19

    uh yeah they just need to be verifiable

  266. 11:22

    This I call the scary chart. It

  267. 11:24

    basically shows that the tasks and how

  268. 11:26

    long they run autonomously with agents

  269. 11:28

    have been increasing. But still it's not

  270. 11:31

    that reliable. Even if you can run for a

  271. 11:34

    very long time, it doesn't mean that it

  272. 11:36

    will be reliable in production and you

  273. 11:38

    still probably need to need to iterate

  274. 11:40

    on it and uh provide feedback. So it's

  275. 11:43

    still not solved and there are problems

  276. 11:45

    like cheating. For example, if you write

  277. 11:47

    the what it means to be done in the

  278. 11:49

    wrong way, the agent can try to pass

  279. 11:52

    your tests but not really like not

  280. 11:55

    really verify what you need to do and

  281. 11:57

    accomplish but instead try to solve just

  282. 11:59

    passing your test. So cheating by that

  283. 12:03

    uh we have something called factory

  284. 12:04

    missions and this is like long

  285. 12:07

    longunning sessions of the agents. We

  286. 12:09

    just call it missions because we send

  287. 12:11

    the agent to the mission and uh the

  288. 12:13

    missions work in the loop and iterating

  289. 12:15

    on task until it's done and they can do

  290. 12:17

    it even for weeks and uh the main agent

  291. 12:20

    is orchestrator and then it's uh assigns

  292. 12:23

    work to workers agents and then

  293. 12:25

    validators who review the task. So this

  294. 12:28

    is one example uh real mission from our

  295. 12:31

    customers that run 16 hours and just

  296. 12:35

    just to see how important is the

  297. 12:36

    validation as well. it takes even 40% of

  298. 12:39

    the whole process. Uh to summarize, the

  299. 12:42

    orchestrator just decides and writes the

  300. 12:45

    conditions what it needs to be done.

  301. 12:47

    Then it gives it to the agents called

  302. 12:49

    workers. The agents work on it. And what

  303. 12:52

    is interesting or worth noting is that

  304. 12:54

    they work in a sequence. So they don't

  305. 12:56

    work in a swarm or parallel. The agents

  306. 12:58

    work in sequence and everyone

  307. 13:00

    accomplishes something and passes it to

  308. 13:02

    the next one.

  309. 13:03

    uh we actually found that if you do this

  310. 13:06

    you end up with more fresh context and

  311. 13:08

    kind of fresh head. Same with when with

  312. 13:10

    humans have like other colleagues

  313. 13:12

    verifying their code. So similar thing

  314. 13:15

    we just let the agents pass to the next

  315. 13:17

    one. But still every worker of the

  316. 13:20

    sequence can have parallel agents doing

  317. 13:22

    smaller tasks. So I don't know

  318. 13:24

    researching on the web or building files

  319. 13:27

    during that. So they are in sequence and

  320. 13:29

    everyone has sub agents as well. and

  321. 13:31

    validators they review the output and

  322. 13:33

    provide feedback and send it back to the

  323. 13:36

    beginning.

  324. 13:38

    Uh important thing is uh the validators

  325. 13:41

    judge code that they didn't write. Uh

  326. 13:44

    there's something from the orchestrator

  327. 13:46

    agent called validation contract uh

  328. 13:49

    that's written before any code is done.

  329. 13:51

    And first type is scrutiny validator.

  330. 13:53

    Second is user testing validator. The

  331. 13:56

    scrutiny is the one who really verifies

  332. 13:58

    how the codebase looks. the liners types

  333. 14:01

    tests it's really rigorous check of the

  334. 14:04

    code but the second I think is really

  335. 14:06

    interesting is user testing validator

  336. 14:08

    and that's the one who is really in the

  337. 14:11

    arena trying the things so it doesn't

  338. 14:13

    care how it was made it just goes it

  339. 14:16

    works in its virtual computer and it

  340. 14:18

    clicks on the stuff and really checks if

  341. 14:20

    everything works I've seen one engineer

  342. 14:23

    migrating uh code bases with droid with

  343. 14:27

    our agent and uh it really needed the

  344. 14:30

    agent in the end to click through the

  345. 14:32

    stuff because with other products it

  346. 14:34

    just created created the product but it

  347. 14:36

    didn't work and was wasn't interactive.

  348. 14:39

    It was just a dummy result. So our agent

  349. 14:42

    that really clicked on the stuff uh

  350. 14:45

    allowed to check that it's actually

  351. 14:47

    working and not just looking good in the

  352. 14:48

    code. I think this is one cool thing

  353. 14:50

    that was also allowed by the progress in

  354. 14:53

    computer use and the persistent

  355. 14:56

    environments virtual machines for agents

  356. 14:58

    which also wasn't here before or wasn't

  357. 15:01

    that great but now it's really great so

  358. 15:03

    it's allowing to go in the arena as an

  359. 15:06

    agent. Uh this is just one example of

  360. 15:09

    real mission from our users. I I like to

  361. 15:11

    just learn what users are building and

  362. 15:13

    get feedback and this is just uh how it

  363. 15:16

    can look in your dashboard. And this is

  364. 15:19

    how I visualize the missions. What is

  365. 15:22

    interesting is that it's just a loop

  366. 15:25

    with smaller loops because every of the

  367. 15:27

    agents are running in loops as well, but

  368. 15:30

    overall it's like one big loop. Okay,

  369. 15:32

    maybe this is a bit weird, but I just

  370. 15:35

    like that it's all loops with smaller

  371. 15:37

    loops.

  372. Software factory: autonomous

    Tížková moves from agnosticism to autonomy, which she calls the core of the software factory.

    Text in image
    SOFTWARE FACTORY
    
    1 AGNOSTIC
    2 AUTONOMOUS
    3 ALWAYS IMPROVING
    
    Source
    2026
    5
  373. 15:39

    Uh, okay. And the third part, always

  374. 15:41

    improving, always learning.

  375. 15:44

    Uh there is this elephant in the room

  376. 15:46

    context with agents. A lot of questions

  377. 15:49

    which are valid are like how do you

  378. 15:51

    navigate the context blo because you

  379. 15:53

    work on these long missions in the

  380. 15:55

    software factory and how do you actually

  381. 15:57

    keep the context clean and that's very

  382. 16:00

    valid because enterprises especially

  383. 16:02

    they use hundreds tools they use Figma,

  384. 16:04

    notion, Gmail, drive, slack like

  385. 16:07

    hundreds tools on average. So all these

  386. 16:10

    have specification in the code. all

  387. 16:12

    these have schema and parameters and log

  388. 16:14

    descriptions. So, uh it can cause agent

  389. 16:18

    to really bloat with that and pick wrong

  390. 16:20

    tools if there are two tools that sound

  391. 16:22

    similar or to actually lose context

  392. 16:24

    because they fill up the the context

  393. 16:27

    window and need to compress. So, this is

  394. 16:29

    really dangerous. Uh for this we have

  395. 16:32

    something within the software factory

  396. 16:34

    called uh deferred context engine and we

  397. 16:37

    build it such that we just progressively

  398. 16:40

    disclose what's in the context and what

  399. 16:42

    tools to use. So we basically have a

  400. 16:45

    surprise tools uh that help later only

  401. 16:48

    if they are actually needed. So it first

  402. 16:51

    just has short list of the tools and uh

  403. 16:54

    only a short descriptions and when it's

  404. 16:56

    needed actually in the code uh they can

  405. 16:58

    call the tool and fully load it. So

  406. 17:00

    important thing is nothing is actually

  407. 17:02

    removed it's just hidden and not

  408. 17:04

    reachable until needed. So it's just for

  409. 17:07

    later and important thing is it actually

  410. 17:10

    saves a lot of tokens uh at scale once

  411. 17:12

    you use more and more tools. uh the more

  412. 17:15

    actually you save it really scales and

  413. 17:17

    you can save 50% of tokens or more.

  414. 17:22

    Okay. Uh another thing which is tricky

  415. 17:24

    and was surprising for me for the first

  416. 17:26

    time is that when adopting AI you either

  417. 17:29

    succeed big or you can fail big the same

  418. 17:32

    way it's a bit of power law. So if your

  419. 17:35

    codebase is not ready, if you don't have

  420. 17:37

    structured codebase and all important

  421. 17:39

    things, then adopting or turning into

  422. 17:42

    software factory can actually make you

  423. 17:44

    end up worse and make your code

  424. 17:46

    degrading. And uh there is a big and

  425. 17:49

    growing gap in productivity between

  426. 17:51

    those who just adopted AI versus those

  427. 17:54

    who actually thought about it a bit

  428. 17:56

    more.

  429. Without structure, AI makes code worse

    The chart compares post-adoption quality degradation in ad hoc and structured repositories. Ad hoc repositories show 3.3×, 3.4× and 16.1× larger increases across the three measures.

    Text in image
    Without structure, AI makes code worse
    
    3 / ALWAYS IMPROVING
    
    • 3-16x more quality degradation in unprepared repos
    • Same models, same speed, different outcomes
    • Structure is the variable, not the model
    
    “Level 1 repositories show 3-16x larger increases than Level 2+.”
    — Denisov-Blanch et al., Figure 5
    
    Quality degradation after agent adoption by RAMP maturity (higher = worse)
    Legend: Level 1 (Ad Hoc); Level 2+ (Structured)
    Y-axis: Post-Adoption Change (%)
    Y-axis ticks: 0, 20, 40, 60, 80, 100, 115
    Categories: Cognitive Complexity; Static-Analysis Warnings; Duplicated Line Density
    Labels: 3.3×; 3.4×; 16.1×
    
    Source: Denisov-Blanch, Agarwal, Azaletskiy et al., “Repository AI Configuration Is Associated with Three-Fold Differences in Code Quality After Agent Adoption,” ASE 2026, Figure 5. *p<0.05; ***p<0.001.
  430. 17:58

    Uh there is another data from Stanford

  431. 18:00

    about yeah without structured uh code

  432. 18:03

    base and being ready and documenting

  433. 18:05

    well the AI can make your code worse and

  434. 18:07

    I think if you are engineers you

  435. 18:09

    probably can agree that sometimes AI

  436. 18:12

    really makes a mess and this can really

  437. 18:14

    compound more and more and it's

  438. 18:16

    difficult to go back.

  439. Agent readiness is measurable

    Factory’s agent-readiness framework checks codebase hygiene across eight areas. Its dashboard shows category pass rates and readiness over time; customers can follow checks with recommended fixes.

    Text in image
    Agent readiness is measurable
    3 / ALWAYS IMPROVING
    
    We codified the “reading between the lines” context for agents
    
    1. Style & validation
    2. Build system
    3. Testing
    4. Documentation
    5. Dev environment
    6. Observability
    7. Security
    8. Task discovery
    
    Agent readiness
    
    44% total criteria pass
    Level 1  Level 2  Level 3  Level 4  Level 5
    
    PASS RATE BY CATEGORY
    
    LEVEL OVER TIME
    Y-axis ticks: 1, 2, 3, 4
    Timeline: DEC 16, DEC 21, DEC 26, DEC 31, JAN 5
    
    Style & Validation — 71%
    Naming Consistency — 0/1
    Cyclomatic Complexity — 0/1
    Large File Detection — N/A
    Dead Code Detection — N/A
    Duplicate Code Detection — N/A
    Code Modularization Enforcement — N/A
    Technical Debt Tracking — N/A
    
    Source: Factory, Agent Readiness
    
    Interface text:
    3  [illegible]
    Last update: 2 weeks ago
    7d  1m  6m  1y  All
    INTERMEDIATE  ADVANCED
  440. 18:19

    uh we have something as a part of the

  441. 18:21

    software factory uh we have something

  442. 18:23

    called agent readiness and it's a

  443. 18:25

    framework I don't like the word

  444. 18:27

    framework but uh take it as a hygiene

  445. 18:30

    check of your codebase and things you

  446. 18:32

    should do because there is actually nice

  447. 18:34

    correlation between how your codebase is

  448. 18:37

    looking and all the details there and

  449. 18:38

    how good you're going to adopt the AI

  450. 18:40

    and end up productive instead of uh with

  451. 18:43

    a messy code base. So there are things

  452. 18:45

    like how how reproducible is your

  453. 18:48

    developer environment or if you have

  454. 18:49

    written good tests if you have all

  455. 18:52

    things well documented what's the style

  456. 18:54

    of your code all the tests and llinters

  457. 18:57

    uh everything that you would do also to

  458. 19:00

    keep codebased screen. So these factors

  459. 19:02

    actually show to be very useful and we

  460. 19:05

    have our bigger customers actually go

  461. 19:07

    through this agent readiness framework

  462. 19:10

    and do all checks and then they can

  463. 19:12

    follow up with recommended actions uh

  464. 19:15

    how to fix that.

  465. What will happens to humans in software factories?

    Tížková asks whether software factories will cost humans their jobs and rejects the idea of a permanent underclass. The slide pairs her question with a “STOP HIRING HUMANS” advertisement.

    Text in image
    SOFTWARE FACTORY
    
    What will happens to humans in software factories?
    
    STOP HIRING HUMANS
    The era of AI employees is here
    ARTISAN
    
    2026
    5
  466. 19:17

    Uh I think one more thing about the

  467. 19:20

    context and the continuous learning in

  468. 19:22

    the software factory is the most of the

  469. 19:25

    time when working with AI or at least

  470. 19:27

    from my experience is that you keep

  471. 19:29

    repeating to agents how how do you want

  472. 19:32

    the things done and you feel like the

  473. 19:33

    agent doesn't really get you and I think

  474. 19:36

    this is again nice parallel with human

  475. 19:39

    organizations and teams because when you

  476. 19:41

    join a new company there are a lot of

  477. 19:43

    rules that are not really codified

  478. 19:45

    anywhere like you just learn and observe

  479. 19:47

    how things are done and there are a lot

  480. 19:49

    of things between the lines that you

  481. 19:52

    can't really learn anywhere else than

  482. 19:54

    just observing. I think this is big

  483. 19:56

    challenge for agents as well and one

  484. 19:58

    thing we launched for that is plugins

  485. 20:00

    which are like packaged reusable skills

  486. 20:03

    and context and the things behind the

  487. 20:06

    scenes that you can really codify or

  488. 20:08

    auto which is automatically updating our

  489. 20:11

    documentations and uh yeah and um

  490. 20:15

    reviewing and documenting what you have.

  491. 20:19

    So the question is what will happen to

  492. 20:21

    us humans if we build software factory

  493. 20:24

    like this? Uh will humans just lose jobs

  494. 20:27

    and go to permanent underclass? I think

  495. We move up, towards deciding what to build, instead of how

    Tížková traces a shift from human computers to coding agents, then envisions engineers deciding what to build while managing teams of agents that decide how.

    Text in image
    We move up, towards deciding what to build, instead of how
    
    human computers
    EARLY 1940s
    Calculating ballistics trajectories by hand, wiring diagrams and patch cables.
    
    programming languages
    1950s - 2020s
    Compilers and high-level languages let you describe intent and stop hand-wiring the machine
    
    coding agents
    2023 - 2025
    Human is still at the desk, working one task at a time.
    
    software factories
    NOW
    Engineers decide what to build, agents decide how
    
    Source: ENIAC history (i-programmer), K. Kleiman, Proving Ground
  496. 20:30

    they will not. And uh I want to be

  497. 20:33

    positive. So I'm thinking of this

  498. 20:35

    parallel of humans just moving up uh

  499. 20:38

    levels up to the uh to the cooler tasks

  500. 20:42

    than before. I think we actually had

  501. 20:45

    before the same same experience of us as

  502. 20:48

    humans abstracting some levels up and we

  503. 20:51

    actually started ourselves as human

  504. 20:53

    computers. We actually were the

  505. 20:55

    computers doing all the most detailed

  506. 20:57

    stuff at the beginning. Then we had

  507. 20:59

    programming languages codifying some of

  508. 21:01

    it, abstracting and then coding agents.

  509. 21:04

    So outsourcing some of it but uh still

  510. 21:06

    being in the loop very closely uh and

  511. 21:09

    very monitoring everything. And now we

  512. 21:11

    are moving kind of up to software

  513. 21:13

    factories where we manage these agents

  514. 21:16

    as I said orchestrator agents and

  515. 21:18

    workers and validators and all these

  516. 21:20

    teams structured teams of agents that

  517. 21:23

    work really continuously in the loop and

  518. 21:25

    we just monitor and decide what to

  519. 21:28

    build. Uh so I want to really end this

  520. 21:31

    positively. We should be as humans

  521. 21:33

    deciding what to build in the software

  522. 21:36

    not how to build it. uh because that's

  523. 21:39

    up for the agents and by this uh

  524. 21:42

    continuous cycle of autonomous software

  525. 21:45

    I think we can actually achieve that. Uh

  526. 21:48

    this is one warning chart or if someone

  527. 21:52

    thinks AI will take the cool cool stuff

  528. 21:54

    from us. I believe actually it will take

  529. 21:56

    the annoying stuff and in enterprises

  530. 21:59

    and organizations you already spend a

  531. 22:00

    lot on alignments on the meetings as I

  532. 22:04

    mentioned basically the thing behind

  533. 22:06

    between the lines that you really need

  534. 22:08

    you need to get context from everyone

  535. 22:10

    share your status sync on the things on

  536. 22:12

    meetings so all these things could be

  537. 22:14

    actually outsourced to your software

  538. 22:16

    factory and you could be just talking

  539. 22:18

    about the cool stuff okay so this is it

  540. 22:22

    thank you so much go touch some grass

  541. 22:24

    and let your agents uh built for you.

  542. 22:26

    Thank you.