Lean LaunchPad – The Next Generation

You’re reading a four-part series on how AI has impacted our Lean LaunchPad class and what we did about it.

Part 1: The Year AI Came For Us
Part 2: AI Killed the MVP – Long Live the IUP
Part 3: The World Outside the Classroom Changed, The Class Didn’t
This post: Lean LaunchPad – The Next Generation

Lean LaunchPad – The Next Generation
While AI accelerates product development and customer discovery, it doesn’t accelerate understanding, evidence or insight. Teams still need to discover who has the problem, how painful it is, who controls the budget and data, what outcome counts as success, what failure is tolerable, how the product enters the workflow, and why a customer will choose a startup over dozens of fast followers or internally built solutions.

Here’s how we changed the course design to embrace the speed of AI while teaching students to first think deeply about their business, then act quickly to build it.


It took all summer and lots of suggestions from the Stanford Lean LaunchPad and Hacking for Defense instructors, but at the end of our own discovery, we concluded that our redesigned LLP class needed to:

  • Double down in the front end of the class on the rigor of understanding Stakeholders, Problems, Hypotheses and Connections
  • Double down on AI for its rapid development/deployment, time-to-market speed up and ability to transform entire industries
  • Replace the MVP as evidence of the Value Proposition with “Snippets” (Using a small portion of the initial untested product to test a value-proposition)
  • Replace the MVP as evidence for testing the other parts of the Business Model Canvas with “Minimal Tested Canvas” tests.
  • Make Product/Market Fit targets category specific
  • Change the class tempo to move even faster
  • Use Design Partners as evidence of Customer Validation in the second half of the class
  • Change the language to embrace new class concepts

What’s the Same?
The redesigned class will keep team-based, experiential learning, Business Model and Value Proposition Canvases, Customer Development, hypothesis testing, field interviews, weekly evidence reviews, validating the problem before validating the solution, permission to pivot and time pressure.

We’ll Start with a New Glossary
Renaming isn’t just a semantic hack. Language matters. It shapes behaviors and actions. In the chaotic and uncertain search for a business model, being precise with students helps them understand if they’ve made progress.

Here’s the new language we intend to use in the revised Lean LaunchPad class.

Stakeholders: users, customers, influencers, decision-makers, economic buyers, regulators, data owners, security teams, saboteurs, etc. Anyone influencing the adoption of your product/service.

Initial Untested Product (IUP): For the first class meeting, this will be an AI-created product/digital twin that may resemble a complete solution but has not been validated with customers or stakeholders.

IUP snippet: A small portion of the IUP used to test one value-proposition hypothesis without showing the full product.

Partially Tested Product (PTP): By the end of week 4 of the class, teams using IUP Snippets will produce a partially tested product based on customer feedback to validate/ invalidate/ modify the IUP.

Product-Outcome Fit (POF): A replacement for Product-Market Fit. A more focused goal for AI-accelerated startups to focus on.

Minimal Tested Canvas (MTC): A replacement for the term MVP for testing the other parts of the Business Model Canvas. The smallest set of experiments that meaningfully tests the non-product parts of the Business Model Canvas, including customers, channels, revenue, costs, partners, clinical end points, regulatory paths, and key activities.

Design Partner: A co-developer who first provides feedback, data, workflow access, and real-world testing in exchange for early access, preferential terms, or influence over the product. However, the real metric for success will be when the Design Partner is using the product and getting value out of it. (Design partners can be end-users in companies, warfighters, etc. who can buy or influence a sale.)

Design Partner Validated Product (DPVP): By the end of week 9, using successively refined PTPs, teams will have a Design Partner validated product.

Minimal Viable Product (MVP): A term previously used to discover and iterate on the value proposition and other parts of the Business Model Canvas – no longer used in the Lean LaunchPad class.

What Changes – Class Tactics

We’ll split the class into two parts:
Weeks 1 – 4    Think Deeply – Stakeholder, Problem and Hypotheses Maps and Connections
Weeks 5 – 9    Act Quickly – with a goal to get Design Partners

We’ll double down on Customer Discovery.
For the first four weeks students, using IUP Snippets, will get out of the building and map Stakeholders, problems, hypotheses and connections. The goal is to quickly understand current behavior, workarounds, budgets, failure costs, and decision processes.

Students will be graded on the quality of their outreach, not on the success of proving their snippet correct.

We’re going to Replace Product/Market Fit with Category-specific Product/Outcome Fit Goals. We’re updating generic product/market fit to match how AI companies are being built. For each product category, teams will use AI-specific Product-Outcome Fit discovery and validation goals:

  • B-to-B enterprise software teams search for Outcome/Agent fit. The customer can define acceptable work, the agent reaches that threshold in the target workflow, the organization grants the required permissions, and the old alternative is reduced or retired.
  • B-to-C consumer teams do mass creation and testing, spinning up and testing many variants in parallel. The team finds a problem/need, target archetype(s) and behavior, acquisition and retention loop, and distribution path that survive repeated testing across variants.
  • Hardware teams build digital twins. Simulations predict the behavior of prototypes closely enough to accelerate iteration, while manufacturability, reliability, supply, and deployment remain viable.
  • Life science teams accelerate their Initial Untested Product with simulation and modeling tools and test clinical endpoints (therapeutics, diagnostics, devices, clinical trials), reimbursement and financing.

We’re Eliminating MVPs for value proposition discovery. We’ll enforce rigorous problem and stakeholder discovery via hypothesis tests, using Stakeholder Maps, the Value Proposition Canvas and Lean Experiment Cards. (These are tools I’ve used at Imperial College in London to teach teams to solve “Wicked” Problems.) Teams identify and test problems and stakeholder hypotheses. Then they use portions of their initial product, the IUP Snippets, to test core value proposition hypotheses. There will be no “full product” demos until discovery is complete. Where the old class iterated low-fidelity to high-fidelity MVPs, the new class iterates low-fidelity to high-fidelity value propositions and stakeholder maps.

We’re Encouraging Synthetic Interviews but testing them against live interviews. Teams will create artificial personas and run weekly synthetic interviews. Then they will compare these responses with in-person interviews, validating or invalidating the synthetic responses and feeding the live responses back to the LLM to make the personas and synthetic interviews more accurate. Note the direction of authority: the live interviews grade the synthetic ones, never the reverse.

Create the Minimal Tested Canvas (MTC). AI can generate a product faster than a team can test the other eight boxes of the canvas. The “Minimal Tested Canvas” returns the course to a week-to-week focus on discovery, testing and experimentation of all canvas components (other than the value proposition). It tests a team’s understanding of the regulatory process, spec sheets, demand creation and sales model, funding, organizational decision processes, etc.

Create formal pivot-or-proceed criteria for discovery. Teams state their hypotheses across the canvas, test the problem, test the solution with IUP Snippets, then face explicit verify-or-pivot gates: verify the minimal IUP, the customer segment, customer relationships, the channel, and the revenue model.

Because AI removed the natural pacing that building and MVP used to impose, the class now imposes go/no-go criteria explicitly so a polished product can’t substitute for evidence.

Make Design Partners A Team Goal. The team’s class objective is to get one or more design partners. The partner commits scarce resources: staff time, data, integration effort, permissions, test environments, changes to workflow and the ability to influence the product.

A design partner is evidence of Customer Validation. In 2026, when anyone will take an online meeting and pilots spin up in days, a design partner who commits skin in the game is the honest signal.

AI-Specific Class Additions

Test for Learning Debt. Any team member should be able to explain the customer, workflow, evidence, economics, and key contradictions without opening a laptop. Technical members should hear customer language firsthand. AI-generated work should be attributed, and teams will distinguish what the model produced from what the team verified. (This is especially important in discovery: what was the result of synthetic interviews vs actual interviews.)

User Interface. The Initial Untested Product has to have a polish that wasn’t previously needed. Stakeholders compare every interface to a chatbots UI/design now has a greater importance than a traditional MVP.

LLM Costs. Three questions that didn’t exist in 2011 when this class was created are now core canvas economics: What does running a LLM cost you, and what are your unit economics? And what does it cost your customer to run it?

Autonomy Permissions. Which actions will the customer allow? At what level of reliability and reversibility. Human intervention remains especially important during early deployment and for sensitive, irreversible, or high-stakes actions?

AI Model Portability Is Strategic. Most frontier LLMs have proprietary context, tools, workflow, evaluation, trust, and distribution. A startup should assume that its preferred model, pricing, latency, terms, or relative quality will change. LLM Model dependence is therefore a business-model risk, not only an engineering choice.

“Trust” Evidence Is a Potential Moat In many markets, the evidence needed to deploy safely is not overhead added after product/market fit. It is part of product/market fit. NIST’s Generative AI Profile treats trustworthiness as a lifecycle discipline of governance, measurement, and risk management. The FDA’s AI-device guidance similarly connects iterative improvement to planned validation, documentation, and impact assessment.

Defensibility, opportunity size, team, and funding. The team’s defensibility moat needs to be part of discovery — from data, to model, to team, to hardware. Opportunity size and market type: is this an incremental improvement or does this change or create an industry? Team capabilities: does the team have unique attributes, experience and/or insight — and who else is needed?

Textbooks versus Tokens – Students won’t buy as many textbooks they’ll buy AI tokens and design tools. So expect to spend money.

Risks

A Heavier Lift for Faculty. The existing Lean Launchpad class had a lot more moving parts than teaching “how to write a business plan.” Yet it succeeded and scaled because it prepared students for the world as it was. This class will raise the bar once again – for both students and faculty. I believe the outcome will be the same.

Achievement inflation. In the current Lean LaunchPad class students are already padding the number of interviews they complete. We write off all but the most egregious as “cheating in your entrepreneurship class is like cheating in your parachute packing class.” The goal of finding Design Partners now creates new avenues to inflate accomplishments. We’ll be emphasizing partners that help validate the business and lead to growth not demos.

Design Partners as a Metric for Validation will likely result in students finding local maxima instead of the highest peak. However, this is no different from what happens in the early stage of most startups. We’ll be giving students heuristics to how time pivots to larger opportunities.

Teaching Student Teams How To Sell. In the past, a Go-to-Market strategy was just part of the customer relationship portion of the business model canvas. While a few teams generated revenue or received letters of intent while in class, we discouraged them from selling because at that point they hadn’t validated your solution. But now? We believe that AI will sufficiently accelerate problem and customer discovery in the front-end of the class. The pedagogy going forward is about the ability to rapidly discover and rapidly validate in the era of AI. So “selling” is actually curricula. This is a huge departure from the original Lean LaunchPad.

Putting the pieces together

In the end, while we’re changing the tactics of the Lean LaunchPad class, its foundational beliefs remain unchanged: products succeed when they solve real customer problems/needs or create entirely new products that improve the lives of people, communities and businesses.

This new syllabus is itself a hypothesis that will be tested in Stanford’s Lean LaunchPad classes.  I’ll follow up with a “What we learned” analysis of these changes. And there will be updates during the spring as we test this approach.

Comments, suggestions and your experience teaching with AI are welcomed.

We’re thinking of creating an educators guide and holding an in-person conference at Stanford / MIT on these changes. Let us know via comments or email if you’re interested.

I’ve been lucky enough to have been present at the creation of the last 50 years of disruptive technologies (semiconductors, computers, the internet, smart phones). None of us could envision how they would change the world. I can’t wait to see what my students are going to do with AI.

Puzzling through what happened to the class, the world around it and what to do next was a joint effort. Thanks to Steve Weinstein, Mar Hershenson, Jennifer Carolan, Chuck Eesley, Tom Byers, Eric Volmar at Stanford; Pete Newell, for feedback and at Imperial College Cristobal Garcia and Erkko Autio for the opportunity to teach the Stakeholder and Assumptions mapping tools in our Wicked Problems class.

Below is a draft of the updated syllabus for the students. As you read this, keep in mind the students are doing 10-15 Stakeholder interviews a week.


Lean Launchpad Syllabus  Course Details

Class Website http://leanlaunchpad.stanford.edu

Professors
Steve Blank sblank@kandsranch.com
Steve Weinstein sweinstein@stanford.edu
Jennifer Carolan jennifer@reachcapital.com
Lee Redden leeredden@gmail.com

Attendance
In-person class attendance, Office hours and Workshop attendance is mandatory.

Read this: This class is about how to build a sustainable business, not how to flip one. It is not an accelerator. If all you want to do is build a product do not take this class.

The class has a very particular point of view – that a small investment in time to understand stakeholder problems/needs and how to build defensible business model – can return huge payoffs.

This class works for all types of startups. R&D coming out of a lab, physical tech, software ideas, healthcare (including therapeutics, diagnostics, and medical devices) and others. If you think you can create a sustainable business from the idea, then this class will teach you the mechanics and methodologies.

This class assumes you (and everyone you’d be competing with) can create an AI-generated product or simulate portions of one. (We call whatever demo/product you bring to class the IUP (Initial Untested Product.)

For software this means vibe coding, for Hardware ideas it means simulations, spec sheets/CAD drawings, digital twins, for healthcare this includes AI created drug target profiles, efficacy curves, simulation of output from medical device, synthetic diagnostic performance

However, in the first 3-4 weeks of this class, your team is not going to be demonstrating your IUP. Instead, you’ll map all the stakeholders and your assumptions, then physically get out of the building to talk to them face-to-face and understand their problems and their day-in-the-life while learning and testing what it takes to build a repeatable, disruptive and scalable business model with a defensible moat.

During weeks 1 to 4 you can use “Snippets” (parts) of your IUP (Initial Untested Product) to test your hypotheses. This learning and discovery in the first half of the class will drive additional fidelity into your original IUP. By the end of week 4, you will have a Minimal Tested Canvas (MTC) and a Partially Tested Product.

In the second half of the class, the tactics shift. Now that you have a deeper understanding of who and why customers will buy, your team goal is to get one or more signed design partners (or have a validated Go-to-Market strategy) by the end of the class.

Warning: This is a tough class. We expect a lot from you. It has a high workload, operates with hustle culture, requires teamwork under pressure and offers relentlessly direct feedback. All team members – including those building the product – are expected to talk to customers. If they are not interested in doing so, do not take this class.

You will be expected to travel outside of Stanford and the Bay Area and pay for your own travel.

Read the syllabus carefully and consider if this class fits with your schedule, budget and willingness to learn in this framework and culture. Read the entire syllabus so you’re not surprised.

Before Class

  •  Set up your teams of AI agents to have specific expertise to help you sort through your discovery efforts (research, notes, synthesis, creativity, design, and so forth). Keep in mind discovery is your job, not the agents’ job. But they can be powerful assistants.
  • Create an Initial untested Business Model Canvas
  • Create an initial Stakeholder map of all your hypothetical Stakeholders
  • Create an initial Hypotheses Map for each of the stakeholders
  • Create the initial hypothesis of what Problem-Outcome would look like that would satisfy the stakeholders.
  • Create the initial hypotheses for the other canvas components (demand creation, go to market, costs, revenue model, etc.)
  • What insight do you have – what does the consensus model output say about our problem, and what do you believe that contradicts it?
  • For potential software products, create Product Snippets (not Demos) to test specific hypotheses with stakeholders or use AI to create models or other artifacts
  • Do at least 10 actual human interviews (record the interviews)
    • Each interview in the format of: a “hypothesis/experiment/expected result/actual result/path forward”
    • Note that Stanford students do not count as interviews. 50% need to be in person.
    • All interviews require that the person you interview give you permission to record the interview. This needs to be in writing and/or capturing the permission in the recording itself.
  • Create 5 potential AI customer personas and interview them, then have AI analyze the answers and create a new set for actual interviews. What is the consensus view as determined by AI?
  • For hardware or physical products, potentially create a vibe coded digital proxy, digital twin version or use AI to create models, spec sheets, etc.
  • Submit all by day-prior to class start.

Week 1: Stakeholders, Hypotheses, Business Model, Snippets and Customer Development

Week 1  Learning Goals

  • Understand the difference between product development and problem understanding
  • Understand the value of the:
    • Business Model Canvas
    • Stakeholders and Hypotheses
  • How to reach Design and conduct stakeholder interviews
  • How to design hypothesis/experiment interviews
  • How to use Initial Untested Product snippets as a tool for discovery vs validation of your product

Weekly Presentations:

The presentations generally follow a cadence of:

  • Here’s what we thought
  • Here’s what we did
  • Here’s what we found
  • Here’s what we are going to do next.

All team members should be prepared to present. We will select the presenter at class time.

Week 1 – Team Presentation Format

Slide 1 – Title Slide

  • Team Name
  • Interviews this week in person, remote, synthetic
  • Total interviews: in person, remote, synthetic
  • Problem You’re Solving
  • Team Members

Slide 2 – Business Model Canvas

  • Briefly highlight any key insights
  • Use the next slide to zoom into the Stakeholders

Slide 3 – Stakeholders

  • Show us your Stakeholder Map
  • Who are the users? Decision-makers? Influencers? Economic Buyers? Regulators? etc.

Slide 4 – Hypotheses

  • Show us your Hypotheses Map
  • Connect the Hypotheses to the Stakeholders

Slide 5 – Live customer insights

  • Show us a summary table of your table of hypothesis/experiment/expected result/actual result/path forward (see sample slide)
  • Quote(s) and photos here are required.
  • How did it compare to the synthetic interviews?

Slide 6 – Initial Untested Snippets

  • Briefly, show us the product if you’ve built it.
  • Show us the initial snippet
    • What hypotheses was the snippet(s) testing?
    • What were the results?

Slide 7- Insights?

Slide 8- Next steps?


Week 2: Experiment Design and Execution, Interview Insights

Week 2 Learning Goals

  • Refine Customer Discovery Skills
  • Refine hypothesis/experiment interviews
  • Design and Run experiments
  • Identify Stakeholder archetypes
  • Understand value proposition and the role of Initial Untested Product snippets
  • Understand and practice effective cold outreach

Week 2 Team Presentations

Slide 1 – Title Slide

  • Same as week 1

Slide 2 – Business Model Canvas

  • Briefly highlight any changes
  • Use the next slide to zoom into the Stakeholders

Slide 3 – Stakeholders

  • Enhance the Stakeholder Map
  • Who are the users? Decision-makers? Influencers? Economic Buyers? Regulators? etc.

Slide 4 – Hypotheses

  • Refine the Hypotheses Map
  • Connect the Hypotheses to the Stakeholders

Slide 5 – Actual Live customer insights

  • Update the summary table of your table of hypothesis/experiment/expected result/actual result/path forward (see sample slide)
  • Include past weeks

Slide 6 – Initial Untested Snippets

  • New/refined snippets? Show us
    • What hypotheses was the snippet(s) testing?
    • What were the results?
  • Briefly, show us the product if you’ve built it. Highlight if anything has changed

Slide 7- New Insights?

Slide 8- Next steps


Week 3 – Stakeholders, Competitors, Moats

Week 3 Learning Goals

  • Stakeholder Segments
  • Enhanced Value Proposition Canvas
  • Competitive Positioning
  • Stakeholder/Outcome Fit
  • How are potential stakeholders attempting to solve the problem?
  • What is a Design Partner/Go-to-Market Strategy?
  • Define your moat. E.g. data accumulated, distribution channel, brand, clearance held, evidence accumulated, yield learned, deployed-instrument data, qualified supply chain, installed base, etc.

Week 3 Team Presentations

Slide 1 – Title Slide

  • Same as week 1

Slide 2 – Competitive Positioning

  • Draw a Petal Diagram
  • What is your competitive moat?

Slide 3 – Customer insights

●     Update the summary table of your table of hypothesis/experiment/expected result/actual result/path forward (see sample slide)

Slide 3a – Customer Attempts

  • What have the customers already tried, including with AI, and specifically why did it fail?

Slide 4 – Outcome/Value Proposition Canvas

  • Combine learning from stakeholders & experiments to create an Enhanced Value Prop Canvas
  • See example in Appendix A

Slide 5- Initial Customers/Design Partners

  • Who will they be? Why?

Slide 6 – Initial Untested Snippets

  • New/refined snippets? Show us
  • Briefly, show us the current state of the product (if you’ve built it.)
  • Highlight what you learned from stakeholder feedback.
  • What will you show potential customers/Design Partners?

Slide 7 -Design Partners

  • Using the Enhanced Value Proposition Canvas who would be Potential Design Partners?
  • Engagement plan hypotheses

Week 4 – Stakeholder/Outcome Fit?  Pivot or Proceed?

Week 4 Learning Goals

  • Day-in-the-Life of Stakeholders
  • Setting a Product/Outcome Fit Strategy
  • Testing a Design Partner/Go-to-Market Strategy
  • How to engage potential Design Partners
  • Pivot or Proceed?

Week 4 Team Presentations

Slide 1 – Title Slide

  • Same as week 1

Slide 2 – Minimally Tested Business Model Canvas

  • Go through each box of the business model canvas
  • Highlight key learnings and any changes
  • Use the next slide to zoom into the Stakeholders

Slide 3 – Initial Customers/Design Partners

  • Who will they be? Why?
  • Use Value Proposition Canvases to illustrate

Slide 4 -Partially Tested Snippets

  • New/refined snippets? Show us
  • Briefly, show us the current state of the product (if you’ve built it.)
  • Highlight what you learned from stakeholder feedback.
  • What will you show potential customers/Design Partners?

Slide 5 – Defensibility/Moat

  • Short term? Long term?
  • Unique data? Data Access?
  • Trust? Evidence/verifications?

Slide 6 – Market/opportunity size (first pass)

  • Market/opportunity size
  • Funding/team needed

Slide 7 -Design Partners

  • Update the Enhanced Value Proposition Canvas to point to Potential Design Partners/Go-to-Market Strategy
  • Define Product/Outcome Fit Strategy for Partners
  • Partners Engagement plan

Pivot or Proceed Criteria

  • Stakeholder(s): who are they and what’s their problem/objective?
    • Show me the evidence of your understanding!
  • Value Prop: do Stakeholder(s): care about how you intend to create value / solve the problem?
    • Show me the evidence that they care!
  • Differentiation & moats: why will Stakeholder(s): pick you and is your advantage defensible?
    • Show me the evidence they’ll choose you!
  • Willingness to pay & economics: will customers pay enough, and can you make the economics work?
    • Show me the evidence they’ll pay!
  • Customer acquisition & retention: How are you going to acquire and retain customers?
    • Show me the evidence

Team Workshop for Product/Outcome Fit Strategy
Teams meet individually with faculty to tailor Product/Outcome Fit goals for their specific technology and market. This will be their goal post for the next five weeks.


Week 5 – Lean LaunchPad

Week 5 Learning Goals

  • Testing a Design Partner/Go-to-Market Strategy
  • How to engage of potential Design Partner
  • Token spend and inference costs

Weeks 6 – 8 The Search For a Design Partner

TBD


Week 9 – Reflection Week

Preparation for Final Lessons Learned Presentationfor Final

 Lessons Learned


APPENDICES

LEAN LAUNCHPAD – ATTRIBUITON

We want you to use AI to the maximum extent possible in the class. However, ..

  • AI-generated or enhanced work (slides, products, et al) or created by AI must be clearly identified

If you were in another lab on campus that was working on this idea…

  • If you were part of a lab and used any of their work you need to acknowledge those contributors
  • And verify whether you have the right to commercialize those inventions

LEAN LAUNCHPAD – INTELLECTUAL PROPERTY

Read Carefully: You are agreeing to these terms unless your team agrees in writing to something different

Who owns the intellectual property you are testing in the class?
If you’re working with a Stanford-related technology (i.e. either research from one of the team members or University IP), you must check with the Office of Technology, Licensing to understand Stanford ownership rights in any resulting IP.

  • If you personally bring any Intellectual Property (patents, hardware, algorithms, etc.) to the class, its ownership will remain with you.
  • The only exception is if you make “more than incidental use of Stanford resources,” in which case Stanford could have an ownership interest in the invention
  • You and your team members need to disclose to each other what IP/Licensing rights any company has to inventions you make at school/in this class.
  • If any or you decide to start a company based on the class, you own only what was written and completed in the class.
    • You have no claim for work done by others before or after the class quarter.
  • If a subset of the team decides to start a company they do NOT “owe” anything to any other team members for work done in and during the class.
  • All team members are free to start the same company, without permission of the others. (We would hope that a modicum of common sense and fairness would apply.)

I feel my idea / Business Model may become a real company and the “next killer company” and I want to own it myself. What should I do?

  • Discuss prior Intellectual Property rights with your team from the beginning
    • If you can’t come to agreement with the team, join another team, pick another project, or drop the class
  • Your slides, notes and findings will be shared.
  • Your team owns everything done in conjunction with this class – interview notes, code, et al. Remember anything you do and learn in the class may be public.

Will my Intellectual Property rights be protected when I discuss my ideas with the class?

  • You do not have to describe every part of your technology.
    • However you do have to describe what you are learning.
  • At times you will learn by seeing how previous classes solved the same class of problem by looking at their slides, notes and blogs.
  • All your presentations and Customer Discovery and Validation notes, business model canvas, blogs and slides can, and more likely will be shared and put online.
  • Keep in mind that successful companies are less about the original idea and more about the learning, discovery and execution. (That’s the purpose of this class.)
    • Therefore you must be prepared to share your ideas openly with the class
    • It is a forum for you to “bounce” your ideas off the teaching team and your peers.

I’m not comfortable sharing what I learn with others. What should I do?

  • When you’re doing customer discovery it’s not necessary to share IP details.
    • You are not sharing every technical detail
  • If sharing what you learn in the class makes you uncomfortable this may not be the right class.
  • Feel free to come to different arrangements
    • If you do, we suggest you do so in writing with all team members
  • If you have prior IP consult with a counsel/Stanford Licensing Office for advice

ITAR Compliance
The activities in this class are fundamental research and are in compliance with ITAR regulations.

Fundamental research is defined as basic and applied research in science and engineering where the resulting information is ordinarily published and shared broadly within the scientific community, as distinguished from research the results of which are restricted for proprietary reasons or specific U.S. Government access and dissemination controls.

Applied research is further defined as a systemic study to gain knowledge or understanding necessary to determine the means by which a recognized and specific need may be met. It is a systematic application of knowledge toward the production of useful materials, devices, and systems or methods, including design, development, and improvement of prototypes and new processes to meet specific requirements. Fundamental research in this class means:

  • There are no restrictions on publication of the information you discover and the IUPs you build
  • There is no specific project funding by the U.S. Government and there are no specific access and dissemination controls protecting information resulting from the research you do in this class.

LEAN LAUNCHPAD – INSTRUCTIONAL METHOD

Experiential Learning: This class is not about the lectures. The learning occurs outside of the classroom through conversations with customers. We simulate what entrepreneurship is like in the real world: chaos, impossible deadlines, conflicting input, etc.

Team-Based Learning: This class is team-based. Each and every team member should participate in customer discovery activities (out-of-the-building hypotheses testing). You cannot delegate customer discovery. Teams will self-organize and establish individual roles on their own. There are no formal CEO/VP’s, just the constant parsing and allocating of the tasks that need to be done.

Relentless Direct Feedback. The teaching team assumes you’re some of the smartest and motivated students on campus. But because time is short we do not have the luxury to let teams drift or execute comfortable, flawed assumptions. We are going to constantly have you separate fact from opinion and we are going to insist on a Bias for Action; iterations, pivots, or restarts.

The “Flipped” Classroom: Unlike a traditional classroom where the instructor presents lecture material, you’ll watch core weekly lectures at home. These lectures contain the information you will need to complete that week’s customer interviews. What is traditional “homework” (summarizing team progress and receiving feedback) is now done in class.

Advanced Topic Lectures and Workshops: Online lectures may be supplemented by a deep-dive, in-class socratic lectures and workshops tailored to this week’s topic.

Weekly Presentations: Each week all teams will present a 10-minute summary of what you learned testing specific hypotheses. The teaching team will provide advice and guidance.

Team Teaching: Sitting in the back of the classroom are experienced instructors and mentors who’ve built and/or funded world-class startups and have worked with hundreds of entrepreneurial teams. They will be giving feedback on each team’s progress.

Cohort-Based Team Dynamics: The class is a learning cohort. It is your responsibility to help each other and learn from one another’s experiences. The professors will include student feedback opportunistically during feedback following weekly presentations. In addition, there will be two sessions with one-on-one team interactions to share perspective and advice.

Keeping Track of Your Progress: Each week you as a team will take the time to synthesize and summarize your insights from customer interviews using an online tools (detailed below). This is how we monitor progress and offer guidance.

Conducting Experiments: You’ll learn a lot by asking people questions. You’ll learn even more by observing what people actually do (which often is not what they say they would do). For each key hypothesis, you will design and run experiments to collect behavioral data and use these insights to iterate on your IUP.

The World Outside the Classroom Changed, The Class Didn’t

This post previously appeared in Poets and Quants

This is the third of four posts on how AI has impacted our Lean LaunchPad class and what we did about it.
Part 1: The Year AI Came For Us
Part 2: AI Killed the MVP – Long Live the IUP
Part 3: This Post
Part 4: Lean LaunchPad – The Next Generation

The Lean LaunchPad has successfully accommodated 15 years of evolution of technology and markets – until now. AI is not only changing our classroom; it is changing everything outside the classroom.

I needed to understand those external changes so the class could change with it.


The class I designed in 2011 focused on teaching founders how to understand a company’s entire business model, not just the product features and customers. However, there were four important elements outside a classroom or a startup that would affect its success.

  • Venture capital (how much startups could raise, when they could raise and who they could raise it from)
  • How startups built their products (core tech platforms and development tools)
  • The cost of building products (time to market, team size, capital requirements)
  • Customer Adoption (how did they evaluate, buy, deploy and use products. And the speed in which they did that. And customer build versus buy criteria.)

The Lean LaunchPad class was designed to teach founders to use Lean Methods to derisk their new ventures — all while emulating the speed and tempo of 2011 startups.

The sidebar below summarizes what each of those types of companies looked like in 2011 compared to 2026. Skip this if you have a good memory.

The bottom line is that the world is a very different place and operates at a different pace from when I first designed the class, changes that AI has dramatically accelerated.

Looking at this comparison several things jump out:

  1. Bottlenecks for adoption and scale still exist, they’ve just moved elsewhere.
  2. Product/Market fit needs market-specific targeted end points
  3. Customers are willing to be design partners
  4. Finding defensible moats is critical

Product/Market Fit Needs Specific Targets
When I looked at this table it struck me that for 15 years, we used the term “product/market fit” as a one-size-fits-all phrase to describe the intersection between Stakeholders and the product features they needed/wanted. It managed to cover end users, influencers, recommenders, requirements writers, regulators, etc. across deep tech, life science, defense. Up until now it worked well enough.

Today, product/market fit is evolving. In enterprise software it is becoming Agent/Outcome fit; in hardware, it’s digital twins and physical-world models; in life sciences, computationally tested endpoints. When we next teach the class, we will replace generic product/market fit with category-specific evidence: outcome/agent fit for enterprise, mass creation and testing for consumer, digital-twin-to-physical fit for hardware, endpoint-clinical-evidence fit for life sciences, and testing with standardized or validated external assessments for education.

AI Enables Faster Time to Market
While we need to teach founders to “think deeply” in the first half of the class, we also need to teach them “to act quickly.”

To do that, the second half of the class will ask teams to acquire one or more Design Partners as evidence of Customer Validation. A Design Partner is a co-developer who first provides feedback, data, workflow access, and real-world testing in exchange for early access, preferential terms, or influence over the product. The partner commits scarce resources: staff time, data, integration effort, permissions, test environments, changes to workflow and the ability to influence the product.

In Part 4, how all the pieces fit together to create a new Lean LaunchPad Course design.

AI Killed the MVP – Long Live the IUP

This post previously appeared in Poets and Quants

This is the second of four posts on how AI has impacted our Lean LaunchPad class and what we did about it.
Part 1: The Year AI Came For Us
Part 2: This Post

Next Week
Part 3: The World Outside the Classroom Changed, The Class Didn’t
Part 4: Lean LaunchPad – The Next Generation

Leaving the After-Action Review of our class this spring, we thought we understood the problem AI had created. The Minimum Viable Product (MVP) was no longer a useful artifact for customer discovery and arriving at an evidence-based value proposition. (To make clear what we thought of these AI-generated day one products, we labeled them Initial Untested Products – IUPs.) We were confident that we could make some simple fixes to the syllabus to deal with this.

To my chagrin we would find that much like our students, we had confused the symptoms (the MVP is dead) with the much larger real problems facing the class. After lots of iterations we discovered the root causes and how to keep the class fresh for the AI age.


I thought it would be pretty simple to just make some minor tweaks to the class. But the more I thought about it, something troubled me. It felt like something much deeper was broken that I couldn’t yet articulate or put my finger on.

After a while I realized, you can’t know your future if you don’t understand your past. So I needed to go back to basics.

Who did I design the class for? How did I design the class? Why has it scaled and lasted almost two decades? What did we want students to learn 15 years ago? What do I want them to learn today?

It was time to rethink the pedagogy of the class – the why and how of what we were teaching. Then we could tackle the course design – the what, when, and in what order. The result would be the content of the class in an updated curriculum; and the syllabus for the students that describes all of it.

Only then could I make the changes to match the world as it is, not the world as it was.

What Was I Thinking?
I developed the Lean LaunchPad class in 2011 to break out of “how to write a business plan” which was then the capstone of entrepreneurial education. The old approach assumed that all founders of startups needed to do was to describe the future in a document, raise money and then execute the plan. The Lean approach started from the opposite premise: on day one, nearly every important fact in building a business is a hypothesis.

I realized that while existing organizations execute business models, startups search for them. And that a startup was a temporary organization designed to search for a repeatable and scalable business model. The class was designed to teach founders how to search for all parts of a business model, not just the product, and to create a classroom environment that closely resembled a startup – team-based, experiential, uncertain and relentless. (At the time this was heretical.)

In hindsight, the genius of the class design was to combine a universal framework, domain-specific field evidence, high-tempo accountability, and permission to change direction.

The original 10 Lean LaunchPad Course Design Elements included:

  1. The Business Model Canvas as a hypothesis map. The Business Model Canvas captured the team’s assumptions about customers, customer problems/needs, value propositions, channels, revenue, costs, partners and activities. The canvas created a common language across industries. It exposed the full set of assumptions that had to become facts. It also acted as connective tissue: when teams became lost in the details of a prototype or an interview, they could return to the map.
  2. Customer Development as the core activity. Customer Development pushed students outside the classroom and tested their assumptions directly with customers and stakeholders. Customer discovery could start before a finished product existed, making the method applicable in domains where building took days, months, or years (hardware, biotechnology, semiconductors, energy, defense, et al.)
  3. 100 customer and stakeholder interviews created Pattern Recognition. The demand for 100+ interviews added breadth, diversity and repetition. It allowed for testing the all the parts that make up a business model, not just the product. More than 100 interviews made it harder to rely on friendly contacts, anecdotes or confirmation bias. High volume exposed differences between users and buyers, early adopters and mainstream customers, and stated preferences and actual behavior.
  4. Hypotheses turned into experiments. Teams stated what they believed, identified the evidence needed, ran experiments, and reported whether each hypothesis survived. It was the scientific method applied to startups. The process remained consistent even though the experiments varied by industry.
  5. Minimum Viable Products (MVPs) took on two roles. First, the MVP was a sign of a team’s technical competence and reflected a team’s cumulative knowledge of customer problems and possible solutions. Agile engineering built Minimum Viable Products iteratively and incrementally. The iteration of incrementally refined MVPs allowed teams to find product/market fit between Stakeholders and a value proposition and a path to a repeatable and scalable business model.
  6. Minimum Viable Products (MVPs) were also used to test the entire business model – not just the product. Teams built the smallest artifact needed to validate any part of their business model. An MVP was whatever got you the most learning about your business model at a point in time, creating evidence and reducing uncertainty.  (E.g. a MVP could be a landing page or A/B test to validate a go-to-market strategy, a price list to test potential revenue, clinical endpoint, bill of materials to test costs, etc.)
  7. Pivoting or restarts were legitimate outcomes. Discovering that an opportunity was unattractive was a valid result. The class reduced pressure to manufacture positive findings and made it possible to allocate time and capital away from weak opportunities.
  8. Intensity and time pressure. Teams operated under demanding weekly deadlines, required fieldwork, weekly public presentations, and direct and unsparing instructor feedback, coupled with incomplete and uncertain information. The process forced teams to distinguish the evidence they were hearing from customers from their own opinions.This intensity exposed students to real-world startup conditions of rapid/good-enough decision-making. (As a side-effect it also exposed dysfunctional team behavior.) This cadence of operating in chaos and uncertainty compressed months of informal learning into a short, structured cycle. Pivots and restarts were recognized as legitimate outcomes rather than admissions of failure.
  9. Experienced practitioners as instructors. Class time was used primarily for critique and coaching rather than conventional lectures. Experienced instructors could recognize recurring startup patterns, while mentors supplied specialized domain knowledge. Instructors did not need to be the world’s leading experts in every technology.
  10. A standardized process with adaptable content. The course appeared open-ended to students, but its freedom sat inside a carefully designed structure. The cadence, canvas, interview process, MVP search for product-market fit, and evidence requirements were standardized, while the interview targets and types of experiments varied by domain. For example, in life sciences the canvas emphasized clinical research organizations and clinical end points, FDA regulations, insurer reimbursement, etc. while in B-to-B the emphasis was product/market fit.

The Result
The class proved surprisingly portable, durable (15 years and counting) and universal.

These design elements allowed the course to be flexible enough to be replicated across industries (enterprise software, consumer products, hardware, therapeutics, medical devices, energy, climate, oceans, semiconductors, and national-security) without becoming a generic entrepreneurship lecture or requiring a completely different curriculum for every technology.

The class was adopted by the U.S. research community; the National Science Foundation, National Institutes of Health, and ARPA-E, relabeled as “I-Corps” and in over 100 universities. All these agencies used the class to teach principal investigators how to commercialize their science (training ~10,000 scientists in ~3,500 teams and launching 1,400+ startups to date.)

Five years later, a spin-off of the class using the same syllabus would become Hacking for Defense, now in 60+ U.S. universities and 17 in the UK.

And yet…

AI Killed the MVP – Long Live the IUP
The class had been resilient and adaptable but now as I stared at its 10 design elements it became clear that AI had demolished a core pillar of the class. With teams capable of vibe coding a product, minimum viable products (MVPs) did not represent proof of technical competence. MVPs were also no longer reliable evidence of customer discovery, critical thinking, hypothesis testing, product/market fit or even commitment. This meant two of the 10 class design elements were obsolete. So much so that we will now label Minimum Viable Products (MVPs) as Initial Untested Products (IUPs.)

We didn’t want to kill AI in the class. Quite the opposite. That’s the world as it is. We want students to use AI to the max, just like in the real world. But AI has changed the world in which entrepreneurs will create new companies. The Lean LaunchPad class needed to change more than the MVP.

The World Changed, The Class Didn’t
The class I designed in 2011 focused on teaching founders how to understand a company’s entire business model, not just the product features and customers. However, in 2026 there were four important elements outside a classroom or a startup that would affect their success.

  1. Venture capital (how much startups could raise, when they could raise and who they could raise it from)
  2. How startups built their products (core tech platforms and development tools)
  3. The cost of building products (time to market, team size, capital requirements)
  4. Customer Adoption (how did they evaluate, buy, deploy and use products. And the speed in which they did that. And customer build versus buy criteria.)

AI was also changing everything outside the classroom. Including what AI just did to Product/Market Fit.

I needed to understand those changes so I could have the class match the future, not the past.

More in Part 3: The World Outside the Classroom Changed, The Class Didn’t and in
Part 4: Lean LaunchPad – The Next Generation

The Year AI Came For Us: Teaching Entrepreneurship Will Never Be The Same

This post previously appeared in Poets and Quants.

15 years ago, my Lean LaunchPad class changed how entrepreneurship is taught. The class is now taught in hundreds of universities worldwide and helped launch thousands of startups. But this past summer, I got thinking about whether AI killed our Lean LaunchPad class, and with it the Lean Startup and Customer Development.

I realized that if we wanted students to learn how to build businesses rather than AI slop, we had to rethink the class.

Here’s what happened, how we diagnosed the changes needed, and what we are planning to do going forward.


For the last 15 years the cadence of the Lean LaunchPad class has been the same. Students arrived with hypotheses of their product idea and target customers. Each week student teams got out of the building and talked to 10-15 stakeholders. The following week, they presented “Here’s what we thought, here’s what we did, here’s what we learned, and here’s what we’re going to do next week.” Over the 10-week quarter, teams would talk to 100+ stakeholders and use this feedback to validate, modify or invalidate their hypotheses about their business and refine and iterate their Minimal Viable Product in search for product/market fit.

The experience was meant to mirror the real-world journey of a startup founder, and regardless of the technical fad of the moment (social media, mobile apps, energy, life science, defense, et al), this pedagogy has worked like clockwork for 15 years. Coming into class in Spring 2026, I had no idea that this year would be its last, and how teaching entrepreneurship would never be the same.

The first week of class is always exciting
Several months before the Spring 2026 class was to start, we interviewed the teams to hear what problems they wanted to work on and select which would join the class. In the first official class, it was always interesting to see how much they’d dug into the problem before the first day of the class.

In the first class, teams typically presented a PowerPoint or wireframe of their product concept. This year, however, when the first team presented, there were no PowerPoint or wireframe prototypes. Instead they demoed a complete product (for Pediatric Sleep Apnea, Freight Forwarding, 3D-printed cooling for GPUs, music attribution, …)  Wow.

We were impressed–this was the first time we had ever seen a team develop something this fast and feature-rich on day one. As I was still processing what a great job this team had done, the next team got up and also demoed a finished product. This time I was taken aback. Two in a row!? By the time the 3rd, 4th, 5th, 6th, 7th and 8th teams presented their complete products, all of us on the teaching team were stunned.

We kept looking at each other trying to confirm, “Did you see what I saw?”

To be honest, at first we instructors were giddy. All the teams had used AI to build apps, digital twins or clinical endpoints that in previous years we would have hoped to see at the end of week 10. We left class thinking these teams were on a great trajectory and thought for sure this start would lead to amazing outcomes for all of them.

We were wrong, wrong, wrong.

……………..Tired but accurate meme…………….

As a teaching team, we were so enamored with this phantom progress that we didn’t stop the presses and refocus the students fast enough. We didn’t realize that AI had set our class on fire and would burn it to the ground.

What AI changed inside the classroom
In past years, students would get of the building and spend time trying to deeply understand customers’ problems. They used the business model canvas to capture what they learned as they tested all their hypotheses (go-to-market strategy, pricing, product/market fit, revenue, costs, etc.) — all the essential elements needed to turn an idea into business.

AI made that process fail.

Students used AI instead of customers for insights and validation. And because this information came from AI, they assumed it was correct.

AI made it easier and faster for students to translate ideas into products—but they had no idea if this AI product met a customer need or solved a customer’s problem.

As the weeks went by, the teams that had looked so promising were learning less. Minimal Viable Products (MVPs) became sales pitches instead of experiments; teams collected compliments instead of disconfirming evidence; interviewees reacted to the product rather than explaining their problems/needs.

Meanwhile, teams were surprised to discover that many potential customers were already using the same AI tools to create their own alternatives just as fast as they could. (This bit of discovery was a signal to the team of what the floor was for features their startup could sell.)

In the end, many students couldn’t let go of the initial ideas that AI had helped them build. Pivots become more expensive psychologically, and those initial ideas became frozen regardless of evidence they heard from customers. This was ironic, given pivoting the product was now technically cheap. The teaching team had to intervene to pry these Initial Untested Products (what we had started calling MVPs) out of students’ hands.

The After-Action Review (AAR)
A few days after the class, while our memories were still fresh, we gathered the teaching team and Stanford faculty to share notes about what happened, why it happened, and how to improve.

As we went around the room describing what we had seen and what we thought it meant, a few things became clear.

The impact on learning far outweighed the benefits AI provided. To be sure there were positive parts of using AI in the class. Students had built these amazing products using Claude Skills and Gemini Gems. There were tons of untapped opportunities to build digital twins or test 10s or 100s of apps simultaneously. The impact on customer discovery was equally impressive. Assisted by AI, teams were able to surface the right questions to ask of the right people to get better answers to test their hypotheses faster. Teams used ChatGPT for market research and Replit to build websites, Granola and Twinmind for notetaking; created synthetic users with Listen Labs and Viewpoints AI to test against real customer data; summarized their research in Google NotebookLM or Notion, then used Perplexity to create their weekly presentations.

The MVP Is Dead
What was immediately obvious was AI’s impact on the Minimal Viable Product (an MVP). In the past, an MVP was painfully developed, reflecting the week-to-week cumulative knowledge gathered by talking to stakeholders. An MVP also was evidence of a team’s technical competence.

It struck us that having a product on day one meant an MVP was no longer evidence of anything: not customer discovery, critical thinking, hypothesis testing, product/market fit, customer validation or even commitment.

Creating products rapidly at almost no cost had allowed teams to make bad ideas go faster.

AI had created evidence theater. These Initial Untested Products felt like evidence but had been built with minimal or no contact with customers. They looked like progress but dramatically raised confirmation bias and delayed pivots.

Student learning was unbalanced. A finished-looking product felt like success. Students confused a polished deliverable with the need to deeply understand the needs of all the stakeholders, as well as the search for Customer Validation. Team understanding was less nuanced; there was less depth uniformly across the teams about the problem they were solving and how well they understood customer needs.

It wasn’t that AI was hallucinating – the teams were. If they pivoted at all, they pivoted late as they assumed that a polished product meant product/market fit. (Pre-AI teams pivoted 3-4 times.) One team did go “IUP crazy” and created new IUPs weekly while never letting their learned evidence mount up.

All this added up to learning debt. These Initial Untested Products (IUPs) let teams skip the struggle which in the past had led to customer insight and understanding. The code worked, the deck was polished, and the analysis was coherent, but by using AI to summarize their interviews, teams missed the customer insights. As a result, they could not defend the assumptions or explain the edge cases.

As the teaching team discussed what we had seen and what we thought it meant, a few things became clear.

  1. The MVP as an artifact of learning about a value proposition was dead.
  2. The bottleneck in startups has moved from the time and cost of building a product to judgment about what to build and who to build it for. This means founders still need to know which problem matters, who will pay, how to distribute, and how to move faster than the other teams who can also build something in a weekend.
  3. When everyone can build quickly, what you choose to build and for whom becomes the whole game.
  4. This means the competitive landscape is much more important. Previously a team could spend a semester largely ignoring competitors because the time and cost of building a product became a moat. That moat no longer exists. Teams now need a deep understanding of the current competitive landscape and the rapid competitive trends.
  5. AI has made customers more sophisticated– now they can use AI to build solutions as fast as startups can. This means the discovery process now also needs to find moats and paths to scale.
  6. There are low barriers to cloning. That same ease of creation means startups need to learn how to build defensible moats — and to treat a moat as a discovery problem, not a slide in the fundraising deck. IP used to be defensible. Now what is defensible IP?

Leaving the After-Action Review, we thought we understood the problem. The Minimum Viable Product was no longer a useful artifact for learning and discovery about the value proposition and product/market fit. I felt confident that we could make some simple fixes to the syllabus to deal with this.

[Insert laughter here.]

Much like our students, we had just confused the symptoms (the MVP is dead) with much, much larger real problems. After lots of iterations we discovered the root causes and how to keep the class fresh for the AI age.

Part 1: The Year AI Came For Us – This Post
Part 2: AI Killed the MVP – Long Live the IUP
Part 3: The World Outside the Classroom Changed, The Class Didn’t
Part 4: Lean LaunchPad – The Next Generation.

Lean Launch Pad 2026 @ Stanford – Lessons Learned Presentations

We just finished the 16th annual Lean LaunchPad class at Stanford.

In those 16 years, the class has gone from a radical idea – that the Lean method could provide a more productive framework for new startups – to something that everyone agrees is a way to build new startups.

The class had gotten so popular that in 2021 we started teaching it in both the winter and spring sessions.

During the 2026 spring quarter the eight teams spoke to 978 potential customers, beneficiaries and regulators. Most students spent 15-20 hours a week on the class, about double that of a normal class.

This Class Launched a Revolution in Teaching Entreprenurship – AI Is Changing It
This class was designed to break out of “how to write a business plan” as the capstone of entrepreneurial education. A business plan assumed that all startups needed to do was to write a plan, raise money and then execute the plan. We overturned that orthodoxy when we pointed out that while existing organizations execute business models, startups search for them. And that a startup was a temporary organization designed to search for a repeatable and scaleable business model. This class was designed to teach startups how to search for a business model. I’ll summarize some of the learnings about the use of AI at the end of this post.

Several government-funded programs have adopted this class at scale. The first was in 2011 when we turned this syllabus into the curriculum for the National Science Foundation I-Corps. Errol Arkilic, the then head of commercialization at the National Science Foundation, adopted the class saying, “You’ve developed the scientific method for startups, using the Business Model Canvas as the laboratory notebook.” Now in its second decade and in 100+ universities, I-Corps has become a standard for science commercialization at the NSF, National Institutes of Health and the Department of Energy –  training 3,251 teams and launching 1,400+ startups to date.

Team Office Hours

If you can’t see the Team Office Hours video click here

If you can’t see the Team Office hours slides click here

If you can’t see a demo of the Team Office Hours app click here

Design of This Class
While the Lean LaunchPad students are experiencing what appears to them to be a fully hands-on, experiential class, it’s a carefully designed illusion. In fact, it’s highly structured. The syllabus has been designed so that we are offering continual implicit guidance, structure, and repetition. This is a critical distinction between our class and an open-ended experiential class.

Guidance, Direction and Structure – For example, students start the class with their own initial guidance – they believe they have an idea for a product or service (Lean LaunchPad/I-Corps) or have been given a clear real-world problem (Hacking for Defense). Coming into the class, students believe their goal is to validate their commercialization or deployment hypotheses. (The teaching team knows that over the course of the class, students will discover that most of their initial hypotheses are incorrect.)

Team Izhaar

If you can’t see the Team Izhaar click here

If you can’t see the Team Izhaar presentation click here

Team Trained on Me

If you can’t see the Team Trained on Me video click here

If you can’t see the Team Trained on Me presentation click here

The Business Model Canvas
The business model / mission model canvas offers students guidance, explicit direction, and structure. First, the canvas offers a complete, visual roadmap of all the hypotheses they will need to test over the entire class. Second, the canvas helps the students goal-seek by visualizing what an optimal endpoint would look like – finding product/market fit. Finally, the canvas provides students with a map of what they learn week-to-week through their customer discovery work. I can’t overemphasize the important role of the canvas. Unlike an incubator or accelerator with no frame, the canvas acts as the connective tissue – the frame – that students can fall back on if they get lost or confused. It allows us to teach the theory of how to turn an idea, need, or problem into commercial practice, week by week a piece at a time.

Team Artemis

If you can’t see the Team Artemis video click here

If you can’t see the Team Artemis presentation click here

Lean LaunchPad Tools
The tools for customer discovery (videos, sample experiments, etc.) offer guidance and structure for students to work outside the classroom. The explicit goal of 10-15 customer interviews a week along with the requirement for building a continual series of minimal viable products provides metrics that track the team’s progress. The mandatory office hours with the instructors and support from mentors provide additional guidance and structure.

Team Remainder

If you can’t see the Team Remainder video click here

If you can’t see the Team Remainder slides click here

Team Microprint

If you can’t see the Team Microprint video click here

If you can’t see the Team Microprint slides click here

Team Vital Health


If you can’t see the team Vital Health video click here

If you can’t see the team Vital Health presentation click here

Team Nimbus

If you can’t see the Team Nimbus video click here

If you can’t see the Team Nimbus presentation click here

AI In the Classroom

AI Embedded in the Class
This was the first year where all teams used AI to help create their business model canvas, build working MVPs in hours, generate customer questions, analyze and summarizing interviews.

AI has had some obvious and not so obvious impacts on our class.
First, here’s a summary of how our students used AI in both classes I taught this quarter.

If you can’t see the AI Use In Class slide click here

AI Tools Used
Claude + Granola – were the AI tools used by everyone.
Large Language Models Used
– Claude, Claude Code, Claude Chrome extension, Claude Cowork, Claude Design
– ChatGPT
– Gemini
Note taking
– Granola
– Twinmind
Presentations
– Perplexity
Building prototypes
– Replit
– Lovable
Creating Synthetic Users
– Listen Labs
– Viewpoints AI
Summarizing Research
– Google NotebookLM
– Notion + G Suite (not strictly AI, but used as part of AI workflows)
Other
– Ultralytics YOLOv8 (used by the SwarmShield H4D team for drone detection/tracking MVP)

AI Classroom Usage
Three of our students did a tutorial of how they used AI in the classroom.

If you can’t see the AI Classroom Usage tutorial click here

Impact of AI in the Classroom
The obvious and positive changes of AI were that teams were able to do customer discovery more efficiently. The not so obvious change was that creating products rapidly allowed teams to make bad ideas go faster. In the past, MVPs were a sign of a teams technical competence, but now spinning up something in hours that previously took weeks, means that an MVP is no longer evidence of critical thinking and hypothesis testing.

This meant student learning was unbalanced. A finished-looking product felt like success. Students confused a polished deliverable with the need to deeply understand the needs of all the stakeholders, as well as the need for Customer Validation. Team understanding was less nuanced. There was less depth uniformly across the teams about the problem they were solving and understanding customer needs. In this class it wasn’t the AI that was hallucinating –  it was teams. They pivoted late as they assumed that a polished product meant product/market fit.

Going forward we’ll have students come into class with a prototype but next time accompanied by the explicit hypotheses and experiments they’ll use to validate whether the prototype solved an actual problem.

On the other hand, students built some amazing Claude Skills and Gemini Gems. They were tons of untapped opportunities to build digital twins or test 10’s or 100’s of apps simultaneously.

More about this in a separate blog post.

It Takes A Village
While I authored this blog post, this class is a team project. The secret sauce of the success of Lean LaunchPad at Stanford is the extraordinary group of dedicated volunteers supporting our students in so many critical ways.

The teaching team consisted of myself and:

  • Steve Weinstein, partner at America’s Frontier Fund, 30-year veteran of Silicon Valley technology companies and Hollywood media companies. Steve was CEO of MovieLabs, the joint R&D lab of the major motion picture studios.
  • Lee Redden – CTO and co-founder of Blue River Technology (acquired by John Deere) who was a student in the first Lean LaunchPad class 14 years ago! I wrote a post about Lee’s journey here.
  • Jennifer Carolan, Co-Founder, Partner at Reach Capital the leading education VC and author of the Hacking for Education class.

Our teaching assistants this year were: Roya Meykadeh, Aditi Mahajan, Alina Hu.

The teams were assisted by mentors: David Kopp, Mitch Singer, Pradeep Jotwani, Dave Epstein, Anil Kamath, Bobby Mukherjee, Rekha Pai, Venkat Krisnamurthy and mentor team coordinator Todd Basche.

Incorruptible

Incorruptible: Why Good Companies Go Bad… and How Great Companies Stay Great, by Eric Ries.

Every once in a while a book comes along that doesn’t just change your tactical thinking, but makes you see the world in a different way. Reading this book is like taking the red pill in the Matrix. 

Some will read this book, think it’s interesting and then get back to figuring out to how get their next big round of funding or how to deal with AI disruption in their large company.

But what they’ll miss is that this is the book that will rebuild the corporate and startup world after the next financial crash.

That’s exactly what happened when Eric’s work, Alexander Osterwald’s work and mine created the Lean Startup. Lean was a neat theory until the dot com bubble crashed and investors (those who still had jobs,) were hiding under their desks. Only then were startups and VCs amenable to a radically new idea about how to build new ventures.

The same will happen here.

Part 1 is a great tutorial on how corporations morphed from serving the people to serving only its shareholders. Worth reading deeply.

Part 2 is the nuts and bolts about what to do about it. How to build companies with governance structures that endure.

Part 3 is about the network effect of building this class of companies. It also has a chapter that buries the lead. Eric had the core ideas for the concepts in the book in 2019 when he started the Long Term Stock Exchange (LTSE). Never heard of it? Welcome to the club. Its core diagnosis was absolutely right: public markets reward short-termism. LTSE tried to solve a governance problem with an exchange listing. In hindsight it took all the accumulated wisdom in this book to understand what it will take to make meaningful change.

Its time may come and this book may be the catalyst.

This book will possibly be more important than the Lean Startup ever was – for you, your company and society as a whole. Read it.

Hacking for Defense @ Stanford 2026 – Lessons Learned Presentations

This was the 11th year we’ve taught Hacking for Defense, and the impact of asymmetric warfare, (drones, off-the-shelf technologies, etc.,) disruptive technologies (AI, commercial access to space) and a startup friendly DoW acquisition system – make it feel like a much different class than the previous classes.
(I’ll summarize some of the learnings about the use of AI at the end of this post.)

Hacking for Defense is now in 70 universities, including 20+ in the UK – and this year in Poland and Germany – with teams of students working to understand and help solve national security problems.

This year’s problems came from the Navy, Air Force, Army Research Lab, Defense Innovation Unit, IQT, and NASA.

This quarter 9 teams of 42 students at Stanford collectively interviewed 1132 beneficiaries, stakeholders, requirements writers, program managers, industry partners, etc. – while simultaneously building a series of AI-driven minimal viable products and developing a path to deployment.

We opened this year’s final presentations session with a great talk about AI and defense – past, present and future – from (Ret) LTG Jack Shanahan. Jack was the Director of the DoD Joint Artificial Intelligence Center (JAIC). Watching his talk is a worthwhile use of your time.

If you can’t see Jack Shanahan’s video click here

During the quarter guest speakers in the class included Owen West – director of the Defense Innovation Unit, Mike Brown – partner at Shield Capital, (Ret) LTG Joseph McGee recent head of the Joint Staff J5 (strategy, plans, and policy,) and Hon Marise Payne Australia’s Minister for Foreign Affairs.

“Lessons Learned” Presentations
Each of the eight teams gave a final “Lessons Learned” presentation along with a 2-minute video to provide context about their problem. Unlike traditional demo days where teams show off, “Here’s how smart I am, and isn’t this a great product, please give me money,” the Lessons Learned presentations tell the story of each team’s 10-week journey and hard-won learning and discovery. It’s a roller coaster narrative describing what happens when they discover that everything they thought they knew on day one was wrong and how they eventually got it right.

While all the teams used the Mission Model Canvas, Customer Development and AI tools to build Minimal Viable Products, each of their journeys was unique.

This year we had the teams add two new slides at the end of their presentation: 1) tell us which AI tools they used, and 2) their estimate of progress on the Technology Readiness Level and Investment Readiness Level.

Here’s how they did it and what they delivered.

Team Noctua – Started with a problem that said, “Special operators can’t detect drones passively, without exposing their position.” They ended up understanding that a larger problem was, “Dismounted troops and base defenders lack a passive means to provide early warning detection of all types of drones, including those that are RF silent.

If you can’t see the Noctura video click here

If you can’t see the Noctura presentation click here

These are “Wicked” Problems
Wicked problems refer to really complex problems, ones with multiple moving parts, where the solution isn’t obvious and lacks a definitive formula. Most problems our Hacking For Defense students work on fall into this category. They are often ambiguous. They start with a problem from a sponsor, and not only is the solution unclear but figuring out how to acquire and deploy it is also complex. Most often students find that in hindsight the problem was a symptom of a more interesting and complex problem – and that Acquisition in the Dept of War is unlike anything in the commercial world.

Instead of admiring problems from inside a classroom our students get of the building and learn, discovery and iterate.

The figure shows the types of problems Hacking for Defense students encounter, with the most common ones shaded.

Team SwarmShield – The initial problem was framed as, the cost of using expensive interceptors to shoot down cheap drones. By the end of the class the Team realized the problem was building terminal guidance that lets a cheap, throwaway drone find and hit an attacker at night.

If you can’t see the SwarmShield summary video click here.

If you can’t see the SwarmShield presentation click here

Department of War Directory – This year the students had access to a Department of War Directory – essentially a phonebook of  ~5,700 names of “Who buys in the Dept of War?” The directory includes a tutorial on how the DoW buys and the various acquisition and funding processes and programs that exist for startups. It provides details on how to sell to the DoW and where the Program Acquistion Officers (PAEs) fit into that process.

 

Team Weapons Without Wait – The initial problem for this team was “Retool and scale defense manufacturing capacity to replenish critical munitions at the pace required by sustained, high-intensity conflicts.”  This is what I call a “boil the ocean” problem” – big and vast – and vague. By class end the team realized what was rapidly achievable (and needed) was affordable, certified munitions for small drones produced at the point-of-need.

If you can’t see the Weapons Without Wait video click here

If you can’t see the Weapons Without Wait presentation click here

It Started With An Idea
Hacking for Defense is built on the same methodology as Lean LaunchPad class I created at Stanford in 2011. It was adopted by the National Science Foundation (NSF) as the NSF I-Corps (Innovation Corps) to train Principal Investigators who wanted an SBIR grant. Now in its second decade and in 100+ universities, I-Corps has become a standard for science commercialization at the NSF, National Institutes of Health and the Department of Energy –  training 3,251 teams and launching 1,400+ startups to date.

Team IonX – IonX also started with a “boil the ocean” problem – The US needs a secure rare earth supply chain. They ended up with a problem more tangible and deliverable – Mineral processors across markets can’t identify and test better chemical reagent schemes.

If you can’t see the IonX video click here

If you can’t see the IonX presentation click here

Origins Of Hacking For Defense
In 2016, brainstorming with Pete Newell of BMNT and Joe Felter at Stanford, we observed that students in our research universities had little connection to the problems their government was trying to solve. We realized the same Lean LaunchPad/I-Corps class would provide a framework to do so. That year we launched both Hacking for Defense and Hacking for Diplomacy (with Professor Jeremy Weinstein and the State Department) at Stanford.

Team Cheese on the Moon – Started with a mandate to search for mineral deposits on the moon. By class end they realized that to do that lunar missions need to know what’s on and under the moon not only to mine, but to land.

If you can’t see the Cheese on the Moon video click here

If you can’t see the Cheese on the Moon presentation click here

Goals for Hacking for Defense
A decade ago, our goal for the class was to teach students Lean Innovation methods while they engaged in national public service. We wanted to familiarize students with the military as a profession and help them better understand its expertise, and its role in society. We also hoped the class would show our sponsors a methodology that builds problem understanding before writing requirements.

The class still does all this, but now that the DoW is buying from startups and defense venture capital is abundant, the class has turned into a national security incubator. Most of our teams form defense companies.

Team Fuel Forge started with the problem that combat units need to generate power and fuel locally. They ended with a more interesting observation that they could build networked, on-site hydrogen nodes to fuel drones in forward, contested environments where resupply is at risk,

If you can’t see the Fuel Forge video click here

If you can’t see the Fuel Forge presentation click here

Go-to-Market/Deployment Strategies
The initial goal of the teams is to ensure they understand the problem. The next step is to see if they can find mission/solution fit (the DoW equivalent of commercial product/market fit.) But most importantly, the class teaches the teams about the difficult and complex path of getting a solution in the hands of a warfighter/beneficiary. While the DoW has made tremendous strides in reforming how and who they buy from, students still need to know: Who writes the requirement? What’s an OTA? What’s color of money? What’s a Program Manager? Who owns the current contract?

Team Luminarch – Started with Tactical units lack the capability to visualize, manage, and adapt to the electromagnetic spectrum in real time. They ended with Tactical units lack low-cost, attritable RF sensors that can be deployed at scale, limiting their ability to detect threats, manage signatures, and communicate.

If you can’t see the Luminarch video click here

If you can’t see the Luminarch presentation click here

Team Tessellate– Started with the observation that drone missions don’t scale. And ended by realizing what’s missing is US multi-drone doctrine doesn’t exist and current drone warfare changes are happening faster than the software lifecycle.

If you can’t see the Tessellate video click here

If you can’t see the Tessellate presentation click here

AI In the Class Room
AI has had some obvious and not so obvious impacts on our class.
First, here’s a summary of how our students used AI in both classes I taught this quarter.

If you can’t see the AI Use In Class slide click here

If you can’t see the AI Rap Video click here

AI Tools Used
Claude + Granola – were the AI tools used by everyone.
Large Language Models Used
– Claude, Claude Code, Claude Chrome extension, Claude Cowork, Claude Design
– ChatGPT
– Gemini
Note taking
– Granola
– Twinmind
Presentations
– Perplexity
Building prototypes
– Replit
– Lovable
Creating Synthetic Users
– Listen Labs
– Viewpoints AI
Summarizing Research
– Google NotebookLM
– Notion + G Suite (not strictly AI, but used as part of AI workflows)
Other
– Ultralytics YOLOv8 (used by the SwarmShield H4D team for drone detection/tracking MVP)

The obvious and positive changes of AI were that teams were able to do customer discovery more efficiently. The not so obvious change was that creating products rapidly allowed teams to make bad ideas go faster.

In the past, MVPs were a sign of a teams technical competence, but now spinning up something in hours that previously took weeks, means that an MVP is no longer evidence of critical thinking and hypothesis testing.

This meant student learning was unbalanced. A finished-looking product felt like success. Students confused a polished deliverable with the need to deeply understand the needs of all the stakeholders, as well as the need for Customer Validation. For defense startups that means understanding a path to a CRADA, or to a research or production OTA. We needed to slow the teams down. Going forward we’ll have students come into class with a prototype but next time accompanied by the explicit hypotheses and experiments they’ll use to validate whether the prototype solved an actual problem.

More about this in a separate blog post.

It Takes A Village
While I authored this blog post, this class is a team project. The secret sauce of the success of Hacking for Defense at Stanford is the extraordinary group of dedicated volunteers supporting our students in so many critical ways.

The teaching team consisted of myself and:

  • Pete Newell, retired Army Colonel and ex Director of the Army’s Rapid Equipping Force, now CEO of BMNT.
  • Joe Felter, retired Army Special Forces Colonel; and former deputy assistant secretary of defense for South and Southeast Asia, and Oceania; currently Director of the Gordian Knot Center for National Security Innovation at Stanford which we co-founded in 2021.
  • Steve Weinstein, partner at America’s Frontier Fund, 30-year veteran of Silicon Valley technology companies and Hollywood media companies. Steve was CEO of MovieLabs, the joint R&D lab of all the major motion picture studios.
  • Chris Moran, Executive Director and General Manager of Lockheed Martin Ventures; the venture capital investment arm of Lockheed Martin.
  • Jeff Decker, a Stanford researcher focusing on dual-use research. Jeff served in the U.S. Army as a special operations light infantry squad leader in Iraq and Afghanistan.
  • Jillian Manus, a venture partner at Shield Capital and Senior U.S Venture Advisor for the European Innovation Council

Our teaching assistants this year were: Evan John Twarog, Varsha Saravanan, Breno Casciello, and Luke Andrews.

34 Sponsors, Business and National Security Mentors
The teams were assisted by sponsors and mentors.

Sponsors were originators of the team problems. They gave us their toughest national security problems: Owen West, Will Ryan, Phillip “Donna” Smith, Joel Uzarski, Alexandra Bissey, Mark Breier, Jonathan Stock, Trent Emeneker,  Matthew Anderson, Ana Alvarez, Jonathan Boltersdorf.

National Security Mentors helped students who came into the class with no knowledge of the Department of War, understand the complexity, intricacies and nuances of those organizations: Katie Tobin, Kelly McGannon, Rachel Costello, Henning Heine, Josh Edwards, Marco Romani, Tom Schmitz, David Vernal, Rich Lawson, Dan Ruttenber, Ashley Perry, Sophia Vahanvaty, Rick Lu, Chris O’Connor

Business Mentors helped the teams understand if their solutions could be a commercially successful business: Doug Seiche, Jeremy Schoos, Adam Waters,, Matt Croce, Isobel Porteous, Eric Byler, Diane Schrader, Donnie Hasseltine, Mark McVay.

Sponsoring Organizations: Gordian Knot Center for National Security Innovation, Common Mission Project, Lockheed Martin, Boeing, BMNT, Defense Innovation Unit.

Thanks to all!


Anthropic Mythos – We’ve Opened Pandora’s Box

This article previously appeared in The Cipher Brief.

For a decade the cybersecurity community was predicting a cyber apocalypse tied to a single event –  the day a Cryptographically Relevant Quantum Computer could run Shor’s algorithm and break the public-key cryptography systems most of the internet runs on.

We braced for a one-time shock we would absorb and adapt to. NIST (the National Institute for Standards and Technology) has already published standards for the first set of post-quantum cryptography codes.

It’s possible that the first cybersecurity apocalypse may have come early. Anthropic Mythos now tilts the odds in the cybersecurity arms race in favor of attackers – and the math of why it tilts, and how long it stays tilted, is different from anything our institutions were built to handle.


In 2013, Edward Snowden changed what people knew
In 2013 Edward Snowden changed what people understood about nation-state cyber capabilities. In the decade that followed disclosures and leaks of nation state cyber tools reduced uncertainty and accelerated the diffusion of cyber tradecraft.

The defensive playbook that followed – compartmentalization, need-to-know, leak-surface reduction, clearance reform, “worked” because the Snowden leaks and those that followed were one-time disclosures, absorbed over a decade, with the system returning to something like equilibrium.

We got good at responding to the shocks of disclosures. It became doctrine.

It was the right doctrine for the wrong future.

Pandora’s Box
In 2026 Anthropic Mythos (and similar AI systems) changes what people can do. Mythos found Zero-day vulnerabilities and thousands of “bugs” that were not publicly known to exist (a must read article here.) Many of these were not just run-of-the-mill stack-smashing exploits but sophisticated attacks that required exploiting subtle race conditions, KASLR (Kernel Address Space Layout Randomization) bypasses, memory corruption vulnerabilities and logic flaws in cryptographic libraries in cryptography libraries, and bugs in TLS, AES-GCM, and SSH.

The reality is a number of these were not “bugs.” There were nation-state exploits built over decades.

What this means is that Anthropic Mythos, and the tools that will certainly follow, has exposed hacking tools previously only available to nation-states and transformed into tools that Script Kiddies will have within a few months (and certainly within a year.) No expertise will be required to apply that tradecraft, compressing both the learning curve and the execution barrier.

All Government’s Will Scramble
When Mythos-class systems are used to analyze the code in critical infrastructure and systems, the hidden sophisticated zero-day exploits that are already in use, (including ones nation-states have been sitting on for years) will be found and patched. That means the sources intelligence agencies used to collect information will go dark as companies and governments patch these vulnerabilities.

Every intelligence service will scramble, likely with their own AI, to find new exploits and accesses to replace the ones that have been burned. This will build a cyber arms race with a new generation of AI-driven cyber exploits to replace the ones that have been discovered.

Whichever side sustains faster AI adoption – not just “procures” it, but ships it into operational systems, holds a widening advantage measured in powers of two every four months.

The constraint for intelligence agencies (and companies) wont be their budgets, or authorities or access to models. It will be their institutional capacity for change – the rate at which a defender organization can actually change what it deploys.

The Long Tail Will Not Be Patched
Anthropic has given companies early access to secure the world’s most critical software,.

That will help Fortune 100 companies. But the Fortune 100 is not just a small part of the software attack surface.

The attack surface includes the unpatched county water utility, the regional hospital, the third-tier defense supplier, the school district, the state Department of Motor Vehicles, the municipal 911 system, and the small-town electric co-op. It includes the tens of thousands of systems running software nobody has time to patch, maintained by teams that have never heard of KASLR.

Every one of those systems is now exposed to nation-state-grade tradecraft, wielded by attackers with no expertise required. Mythos-class hardening at the top of the pyramid does not trickle down. The long tail will stay unpatched for years.

Attackers Advantage – For Now
Under continuous exponential growth of AI designed cyber attacks, a cyber defender using traditional tools can’t just respond just once and stabilize their systems. They’ll need to keep investing at a rate that matches the offense’s growth rate. A one-time defensive shock like compartmentalization might work against a sudden attack, but it will fail against sustained exponential pressure of these AI attack tools because there’s no stable equilibrium to return to. A defender’s investment rate now has to track the offense’s exponential growth rate.

Ultimately/hopefully, the next generation of AI driven cyber-defense tools will create a new equilibrium.

What We Need to Do
Mythos and its follow-ons will change how we think about cyber-defense. We can’t just build a set of features to catch every exploit x or y. We need to build cyber systems that can maintain or exceed the capability rate of the attackers.

Here are the three tools governments and cyber defense companies need to build now:

  1. Measure the Gap Between Attackers and Defenders.  We need to know the gap between what the attackers can do and what we can defend against. We need to develop instrumented red/blue exercises (a simulation of a cyberattack, where two teams – the red team and the blue team – are pitted against each other) to estimate the number of new vulnerabilities vs cyber defense mitigation.
  2. Measure the Defender Response Time. For each corporate or government mission system, measure how long it takes to implement a change from identification to production deployment. Then treat each organizational obstacle as equivalent to technical debt that needs to be fixed and obstacle to be removed..
  3. Specify Speed, Not Features. Any new Cyber Defense tools and architecture – including the next-generation cloud-native systems sitting in review right now – should have explicit ‘rate’ requirements. Claims of “our product delivers X capability is now the wrong specification. “Closes detection gap at rate greater than or equal to the offense growth rate” is the right one.

Summary

Buckle up. It’s going to be a wild ride – for companies, for defense and for government agencies.

Mythos is a sea change. It requires a different response than what the current cyber security ecosystem was built for, and one the current system is not built to produce.

We are not behind yet. The gap between Mythos and what we can build to defend is small enough today that a serious response can still match it. A year from now, the same response will be eight times too slow. Two years, sixty-four.

By the way, the only thing left in Pandora’s Box was hope.

AI and Teaching – The Brave New World

This article previously appeared in the Entrepreneur & Innovation Exchange (EIX)

This is the 16th year we’ve been teaching the Stanford Lean LaunchPad class. This year, from the first hour of the first class, we realized we were seeing something extraordinary happen. It was both the end and beginning of a new era. 

Teams showed up to the first day of class with MVPs (Minimal Viable Products) looking like finished products that previous classes had taken weeks or months to build. After the class, as the instructors sat processing what just happened, we realized there’s no going back. 

I’ve been writing about how AI is going to change startups, but the shock of seeing 8 teams actually implementing it was mind blowing. And not a single team thought they were doing anything extraordinary.  


Class Observations: Product Development Velocity is Off the Scale
The old sequence for our class was simple – we had teams replicate what they would do in a startup. Have an idea. Build a team. Get out of the building to talk to customers to understand their problems, do Agile development and DevSecOps to build Minimal Viable Products (MVPs) over 10 weeks to test the solutions. And if they were going to build a company, discover and  develop a “moat” of proprietary code and features.

This year, in the first week of the class our students used multiple AI tools to replace what previously would have taken a large development team. They used Perplexity and ChatGPT for research, Claude Code and Replit to build apps, Vercel/v0 for prototyping, Granola to auto-transcribe and summarize customer interviews. The whole flow was compressed.

Because it was so easy to have an idea and then build something in minutes/hours, our students showed up on the first day of the class with products. They no longer had to wait weeks or months before testing whether anyone cares.

What we realized we were watching was a massive acceleration of the Customer Discovery / Customer Validation timeline. 

Learning 1. Impedance Mismatch Between Product Development and Learning
By the third week of the class we observed that the velocity of product development meant that teams could now generate more products than they could validate. The amount of product did not equal the amount of learning. Teams were so overwhelmed with so much information from the AI tools that they lost sight of the goal of customer development. They started to believe that the product itself was the truth.

Consequence 1. AI has made Customer Validation Harder
The abundance and ease of creating MVPs has become an accidental denial of service attack on the search for a repeatable and scalable business model. While this is an artifact of today, it means we need a different model for Customer Development as rapid coding isn’t going away.

Learning 2. Student Dependence On ChatGPT Decreased the Quality of Insights After week two of the class, it was clear teams were delegating communication to an AI. This dumbed down communication turned into AI slop. ChatGPT and Claude are no substitute for thoughtful communication – whether it’s email, PowerPoint or weekly summaries of Lessons Learned. Luckily you can spot this quickly.

Learning 3. Customers are Feeling Disrupted
As the student teams got out of the building, they discovered that potential customers were already feeling disrupted by AI. Many of the companies the teams demo’d to realized that they were seeing not just incremental improvements, but in fact were being shown a “going out of business” scenario.

Learning 4. Customers realize their proprietary data might be their only moat
In some cases, potential customers who would have previously shared their data with students are now asking for NDAs to share information with the team. Customers are realizing that closely held and hard-won information might be one of the few barriers to AI.

Potential 1: Customer Co-Design
As AI tools are allowing our teams to build higher fidelity MVPs, a few are beginning to consider using the MVPs as digital twins (as a simulation of the final product.) When put in the cloud and shared with potential earlyvangelists, startups can now start co-designing the product with potential prospects.

Teams can monitor if the digital twin is being used, how it’s used, and the feedback of what features are needed can be shared instantly. Teams can update the digital twin as they add features.

Potential 2: Agent/Customer Outcome Fit
Today, software applications are built to give users information and then expect the users to do the work via a user interface of dashboards, alerts, workflow tools and reports. But customers buy software to get a job done, not to look at more screens. Getting the job done is what AI Agents (orchestrated by tools like OpenClaw) will autonomously enable. For some teams, future class sections may see the search for Product/Market fit become the search for AI Agent/Customer Outcome fit. Minimum Viable Products (MVPs) will become Minimum Productive Outcomes (MPOs.)

Lessons Learned

  • MVPs are No Longer an Indication of Technical Competence
    • Vibe coding has transformed MVPs to the equivalent of PowerPoint slides
  • Speed to MVPs Hasn’t Yet Meant Faster Learning About Building a Company
    • While we’re still early in the class, the blinding speed of the first week’s onslaught of MVPs hasn’t yet translated into faster learning about customer validation.
  • Business Process and Business Models Still Matter
    • The bottleneck for our student teams has moved from needing the resources to build high-quality MVPs to judgment: how to choose the right problem, how to read user signals correctly, and deciding what to build next.
  • Product/Market Fit and Agent/Outcome Fit Will Co-Exist (for a while.)
    • While some customers are ready to move to an Agentic workflow, for others delivering Product/Market Fit is still what users want to see.
  • Startup Teams Will Be Smaller
    • Our class teams are 4-5. In the past, if they decided to pursue their idea and start a company they would need to hire a larger team to build the product, manage the product, find out whether they had product/market fit, create demand, etc. That’s mostly no longer true.
    • Most teams won’t need to raise money to find out if the problem is real or before they know if users care.
  • Enterprise Pricing Models Will Change
    • Some teams are already testing pricing that will shift from per/seat to workflows, outcomes, results, resolutions, successful task
  • Customer Development Will Change
    • Because the Customer Development cycle is faster and multiple MVPs now can be run simultaneously…
    • Effort shifts to the extra time needed on hypotheses testing because the velocity and volume of product development can overwhelm signals from potential customers
    • As MVPs rapidly change, they need to be instrumented to monitor customer usage/interactions

More Learning In the Weeks Ahead

Nowhere Is Safe

Drones in Ukraine and in the War with Iran have made the surface of the earth a contested space. The U.S. has discovered that 1) air superiority and missile defense systems (THAAD, Patriot batteries) designed to counter tens or hundreds of aircraft and missiles is insufficient against asymmetric attacks of thousands of drones. And that 2) undefended high value fixed civilian infrastructure – oil tankers, data centers, desalination plants, oil refineries, energy nodes, factories, et al -are all at risk. 

When the targets are no longer just military assets but anything valuable on the surface, the long term math no longer favors the defender. To solve this problem the U.S. is spending $10s of billions of dollars on low-cost Counter-UAS systems – detection systems, inexpensive missiles, kamikaze drones, microwave and laser weapons.

But what we’re not spending $10s of billions on is learning how to cheaply and quickly put our high-value, hard-to-replace, and time-critical assets (munitions, fuel distribution, Command and Control continuity nodes, spares), etc., out of harm’s way – sheltered, underground (or in space). 

The lessons from Gaza reinforce that underground systems can also preserve forces and enable maneuver. The lessons from Ukraine are that survivability while under constant drone observation/attack requires using underground facilities to provide overhead cover (while masking RF, infrared and other signatures). And the lessons from Iran’s attacks on infrastructure in the Gulf Cooperation Council countries is that anything on the surface is going to be a target.

We need to rethink the nature of force protection as well as military and civilian infrastructure protection.


Air Defense Systems
For decades the U.S. has built air defense systems designed for shooting down aircraft and missiles.The Navy’s Aegis destroyers provide defense for carrier strike groups using surface-to-air missiles against hostile aircraft and missiles. The Army’s Patriot anti-aircraft batteries provide area protection against aircraft and missiles. The Missile Defense Agency (MDA) provides missile defense from North Korea for Guam and a limited missile defense for the U.S.  MDA is leading the development of Golden Dome, a missile defense system to protect the entire U.S. against ballistic, cruise, and hypersonic missiles from China and Russia. All of these systems were designed to use expensive missiles to shoot down equally expensive aircraft and missiles. None of these systems were designed to shoot down hundreds/thousands of very low-cost drones.

Aircraft Protection
After destroying Iraqi aircraft shelters in the Gulf War with 2,000-lb bombs, the U.S. Air Force convinced itself that building aircraft and maintenance shelters was not worth the investment. Instead, their plan – the Agile Combat Employment (ACE) program – was to disperse small teams to remote austere locations (with minimal air defense systems) in time of war. Dispersal along with air superiority would substitute for building hardened shelters. Oops. It didn’t count on low-cost drones finding those dispersed aircraft. (One would have thought that Ukraine’s Operation Spider’s Web using 117 drones smuggled in shipping containers – which struck and destroyed Russian bombers – would have been a wakeup call.)

The cost of not having hardened aircraft shelters during the 2026 Iran War came home when Iran destroyed an AWACS aircraft and KC-135 tankers sitting in the open. Meanwhile, China, Iran and North Korea have made massive investments in hardened shelters and underground facilities.

Protecting Ground Forces
The problem of protecting troops with foxholes against artillery is hundreds of years old. In WWI, trenches connected foxholes into systems. Bunkers were hardened against direct hits. Each step was a response to increased lethality from above. Today, drones are the new artillery; a persistent, cheap and precise overhead threat but with the ability to maneuver laterally, enter openings, and loiter. And mass drone attacks put every high value military and civilian target on the surface at risk. Fielding more hardened shelters for soldiers like the Army’s Modular Protective System Overhead Cover shelters is a first step for FPV kamikaze drones defense, but drones can get inside buildings through any sufficiently sized openings. 

Drone Protection
Ukraine has installed ~500 miles of anti-drone net tunnels with a goal of 2,500 miles by the end of 2026. These are metal poles and fishing nets stretched over roads but they represent the same instinct: the surface is a kill zone, so cover it. Russia has done the same.

The logical response is to go underground (or out to space) but the technology to do it quickly, cheaply, and at scale is genuinely new. The gap in current thinking is between “put up nets” (cheap, fast, limited) and “build a Cold War concrete bunker” (expensive, slow, permanent). What’s missing is the middle layer – rapidly bored shallow tunnels that provide genuine overhead cover for movement corridors, equipment parking, and personnel protection. 

What tunnels solve that nets and shelters don’t
A net stops an FPV drone’s propellers. A shelter stops shrapnel. But a tunnel 15-30 feet underground is invisible to ISR, immune most to top-attack munitions, can’t be entered by a drone through a door or window, and survives anything short of a bunker-buster. Gaza proved that even with total air superiority and ground control, Israel has destroyed only about 40 percent of Gaza’s tunnels after two and a half years of war.

That’s an asymmetric defender’s advantage the U.S. military should be thinking about for its own use, not just as a threat to overcome.

What’s changed to make this feasible is that we may not need boring tunnels per se, but instead modular, pre-fabricated tunnel segments that can be installed with cut-and-cover methods at expeditionary bases. Or autonomous boring machines sized for military logistics (smaller versions of the Boring Company TBMs) corridors rather than highway traffic.

The problem is a lack of urgency and imagination
The problem is real, the incumbents (Army Corps of Engineers) are slow, and the existing commercial tunneling industry isn’t thinking about expeditionary military applications.

The doctrinal gap is between “dig a foxhole with an entrenching tool” (individual soldier, hours) or deploy a few Army’s Modular Protective System Overhead Cover shelters or “build a Cold War hardened aircraft shelter” (major construction project, years, billions). There’s no doctrine for rapidly boring hardened underground movement corridors, dispersed equipment shelters, or protected command post positions using modern tunneling technology.

Army doctrine treats excavation as something done with organic engineer equipment — backhoes, bulldozers, troops with shovels — to create individual fighting positions and cut-and-cover bunkers. The Air Force doctrine barely addresses physical hardening at all, having spent 30 years assuming air superiority would substitute for it.

Nobody in the doctrinal community is asking: what if the Army could cut and cover 100 meters of precast tunnel segments in a day or if we could bore a 12-foot diameter tunnel 30 feet underground at a rate of a hundred of meters per week and use it as a protected logistics corridor, command post, or aircraft revetment?

Summary
Oceans on both sides and friendly nations on our borders have lulled America into a false sense of security. After all, the U.S. has not fought a foreign force on American soil since 1812.

Protection and survivability is no longer a problem for a single service nor is it a problem of a single solution or an incremental solution. Something fundamentally disruptive has changed in the nature of asymmetric warfare and there’s no going back. While we’re actively chasing immediate solutions (Golden Dome, JTAF-401, et al), we need to rethink the nature of force protection, and military and civilian infrastructure protection. Protection and survivability solutions are not as sexy as buying aircraft or weapons systems but they may be the key to winning a war.

The U.S. needs a coherent protection and survivability strategy across the DoW and all sectors of our economy. This conversation needs to be not only about how we do it, but how we organize to do it, how we budget and pay for it and how we rapidly deploy it.

Lessons Learned

  • There is no coherent protection and survivability strategy that addresses drones across the DoW and the whole of nation
    • Just point solutions
  • For troops near the front, tunnels could reduce visual, thermal, and RF signature while providing fragment protection with a network of small, concealed, overhead- covered positions, short connectors, buried command posts, protected aid stations, and revetted vehicle hides.  
  • We need to underground assets that cannot be quickly replaced 
    • Command posts, comms nodes, ammunition, fuel distribution points, repair facilities, key power systems, maintenance spares, and high-value aircraft or drones.  
    • Think protected taxiways, blast walls, covered trenches, buried cabling, alternate exits, redundant portals, and rapid runway repair. Sortie generation under attack depends on a whole system, not one bunker.  
  • We need to work with commercial companies to harden/defend their sites
    • Provide active defenses and incentives for under-grounding critical facilities
  • The Army and Air Force need to rethink their doctrines and techniques for Protection and Survivability
    • Army Techniques Publications (ATP) 3-37.34 – Survivability Operations treat excavation as something done with backhoes, bulldozers, troops with shovels to create individual fighting positions and cut-and-cover bunkers. Update it.
    • The Air Force needs to do the same with AFDP 3-10, AFDP 3-0.1 (Force Protection and AFTTP 3-32.34v3, AFH 10-222, Volume 14 and UFC 3-340-02
  • We need to think of force and infrastructure protection not piecemeal but holistically
    • Part of any weapons systems requirement and budget should now include protection and survivability 
    • Protection and survivability should be deployed concurrently with weapons systems
  • We need a Whole of Nation approach to protection and survivability for both the force and critical infrastructure