The Urgency

AI is reshaping every industry.
Schools need a plan, not a ban.

A child entering kindergarten today graduates college in 2042. By then, AI will be deeply embedded in nearly every industry students enter. Employers in technology, healthcare, energy, public service, finance, media, agriculture, and the arts are integrating AI across operations. The tools, the expectations, and the nature of work itself will look materially different from today.

Yet most schools still optimize for skills AI already does well: memorizing facts, following procedures, standardized problem-solving. Most states and districts do not yet have a mature AI-specific CTE program of study. Students are being trained to compete with machines — and machines will always win that competition.

This pathway teaches the four capabilities that stay valuable regardless of which tools dominate next year: orchestrating AI systems, exercising human judgment, learning how to learn, and building real things. state CTE funding provides CTE funding weights of 1.28–1.47 for approved Programs of Study. The infrastructure is ready. The gap is the pathway itself.

  • Shift from memorization to orchestration — students learn to direct AI, not compete with it
  • Cultivate the human capabilities — creativity, ethics, leadership — that compound over a career
  • Build metalearning habits so students can adapt as tools and industries evolve
  • No AI-specific CTE pathway exists in any state Program of Study — this fills the gap
  • state CTE funding CTE weighted funding creates a direct financial incentive for new pathways

The Core Framework

Four skills that outlast every tool update

Schools that teach students about AI give them a semester of relevance. This pathway teaches them four capabilities that stay valuable regardless of which tools come next — starting from Day 1, in every course.

01
AI Literacy & Orchestration

Not just using one chatbot — understanding how AI systems work and combining multiple tools to accomplish complex goals. Prompt engineering, output evaluation, multi-tool workflows. This is becoming a foundational literacy for school, work, and civic life.

02
Human-Exclusive Capabilities

Genuine creativity, emotional intelligence, ethical judgment, leadership. These aren’t “soft skills” — they’re the most durable human advantages in an AI-saturated economy. Every course cultivates them through community engagement, ethical reasoning, and collaborative problem-solving.

03
Learning How to Learn

Facts change. Tools evolve. The only permanent skill is the ability to learn new things rapidly. Students practice metalearning throughout the pathway: approaching new domains, identifying what matters, evaluating their own understanding, and adapting as technology shifts.

04
Building & Creating

Every course involves making things that didn’t exist before — not worksheets, not standardized tests. AI self-portraits, bias audit campaigns, community solution prototypes, professional portfolios, public capstone projects. The future belongs to builders.

Differentiation

Why this pathway instead of a generic AI curriculum

National vendors offer semester-long AI survey courses — useful introductions, but they stop at awareness. This pathway is built for institutional adoption: a multi-year program of study with credentials, internships, and regional industry relevance that a one-semester product cannot provide.

Semester Survey Course
  • Teaches students about AI — awareness without application
  • No progression from literacy to orchestration to professional practice
  • Zero project-based learning, zero work-based learning hours
  • Geography-agnostic — same content in Maine and regional
  • Annual participation fees ($500–$950/school) plus $500–$1,200 teacher PD
  • No credentials, no postsecondary articulation, no portfolio
  • Does not qualify students as CTE concentrators or completers
This Pathway
  • 3-course sequence built around AI orchestration, not just awareness
  • Human-exclusive skills — creativity, ethics, leadership — in every course, not an elective add-on
  • Metalearning practiced throughout: students learn how to learn new tools and domains
  • Students build real things from Day 1 — portfolios, prototypes, public capstones
  • 80+ hours of work-based learning with regional employers; optional industry certification included
  • Grounded in regional industries — built for Perkins V and state CTE weighted or formula funding where available
  • Designed to support community college partnerships, dual-credit exploration, and postsecondary transition

For Decision-Makers

Why administrators say yes to this model

If the four pillars make the educational case, this section makes the operational one: funding, staffing, compliance, and visibility.

01
Fundable

Designed for Perkins V and state CTE weighted or formula funding mechanisms (1.28–1.47 in approved Programs of Study). Total program cost may fall below the formal competitive procurement threshold (SB 1173), subject to district policy and funding-source requirements. Districts may also use cooperative purchasing pathways such as TIPS or BuyBoard when available through an awarded vendor.

02
Feasible

Runs on existing Chromebooks and laptops with browser-based tools. No new labs, no expensive software licenses, no specialized hardware. Phased rollout lets schools start with a workshop or single course before committing to the full sequence.

03
Inclusive

No coding prerequisites. No computer science department required. Designed for broad student participation across backgrounds, skill levels, and interests — making AI literacy accessible to every student, not just the ones who already code.

04
Relevant

Connects AI to real regional industries and employers — regional Instruments, AT&T, Raytheon, Capital One, Baylor Scott & White, regional health systems, energy companies. Students see how AI shapes the economy they’ll enter, not abstract Silicon Valley case studies.

05
Defensible

Built with privacy, ethics, and teacher oversight at the foundation. Structured to support district compliance review from the start. Teacher-managed AI accounts, parental consent processes, content filtering, and a maintained tool compliance matrix.

06
Visible

Creates outcomes communities can see: student portfolios, Microsoft optional industry certifications that count toward college/career readiness accountability, capstone showcases, and internship placements.

“Every region now sits at the intersection of frontier technology and local human needs. This pathway bridges that gap — giving every student, not just the ones who already code, a real seat at the table.”
The Crossroads — Design Philosophy

Student Outcomes

What students walk away with

  • AI orchestration fluency The ability to evaluate, combine, and direct multiple AI tools toward complex goals — not just chat with a bot, but orchestrate systems.
  • A professional portfolio of things they built Curated artifacts from every course: bias audits, community prototypes, creative works, and a public capstone project addressing a real real community challenge.
  • Human skills that compound Three years of practiced ethical reasoning, creative problem-solving, community engagement, and collaborative leadership — the hardest capabilities to automate and the most valuable to employers.
  • The ability to learn what doesn’t exist yet Metalearning practice throughout the pathway: approaching unfamiliar domains, evaluating new tools, adapting as technology evolves.
  • 80+ hours of real work experience plus credentials Structured internship with a regional employer. Optional industry certification and dual-credit or articulation pathways can be configured with local community college partners.
Student presenting an AI for good capstone project to families, educators, and local mentors

Lowest-Risk Entry Point

Start with a summer workshop

Not ready to launch a full pathway? Start with the 5-day summer workshop. It introduces the same four pillars in compressed form: students learn how AI works, practice judgment and creativity, adapt quickly across unfamiliar tools, and build public-facing work — all in one week. It gives schools a visible, community-friendly way to test demand, recruit students, and demonstrate what AI education actually looks like.

AI Futures: AI Futures — A Summer Lab for Future Creators
5 days / 30 hours
Rising 9th–12th graders
Regional partner campus
Day 01
What Is AI, Really?

Demystify AI through hands-on stations. Train classifiers, interrogate chatbots, map AI in your daily life. Build an AI self-portrait of the future.

Day 02
How Machines Learn & Err

Train classifiers with local data, run bias labs on image generators, encounter deepfakes. Build a “Fix the Bias” campaign using real-world local datasets.

Day 03
AI as Creative Partner

Visual storytelling, narrative co-writing, AI music. Create “Postcards from the Future” and a collaborative digital mural inspired by the local arts ecosystem.

Day 04
AI for Good

Case studies: water management, energy grid optimization, healthcare diagnostics, precision agriculture, defense systems. Guest speaker from regional tech industry. Launch culminating projects.

Day 05
Showcase Day

Finalize “AI for Good” projects. Public showcase for families, community college faculty, industry partners. Pathway enrollment information.

The Program of Study

A practical way to launch AI education in high schools

This is not a full computer science rebuild. It is a 3-course CTE pathway where the same four pillars deepen over time: Course 1 builds literacy and confidence, Course 2 develops orchestration and ethical judgment, and Course 3 applies all four in real workplaces and public-facing projects. Each course maps to existing state CTE standards within the Information Technology career cluster. Schools can adopt in phases.

  • Unit 1 — Weeks 1–3
    What Is AI?

    Defining AI, brief history, AI in daily life, the hype cycle. Unplugged sorting games and Turing tests. “AI Audit” of students’ own tech use. Regional connection: how regional employers use AI in regional.

  • Unit 2 — Weeks 4–6
    How AI Sees the World — Perception

    Sensors, computer vision, speech recognition, NLP basics. Train image and sound classifiers with Teachable Machine. Regional connection: sensing applications, aerospace, manufacturing, and environmental monitoring.

  • Unit 3 — Weeks 7–9
    How AI Thinks — Representation & Reasoning

    Data foundations, decision trees, knowledge graphs, recommendation systems, intro to neural networks. Regional connection: fraud detection, energy-grid management, and public-sector decision support.

  • Unit 4 — Weeks 10–12
    How AI Learns — Machine Learning

    Supervised, unsupervised, and reinforcement learning. Generative AI basics and the training data supply chain. Regional connection: precision agriculture, energy optimization, climate adaptation, and local infrastructure.

  • Unit 5 — Weeks 13–15
    AI, Bias & Society

    Algorithmic bias, data sovereignty, surveillance and privacy, environmental cost of AI, regulation. Bias Audit project and Community Perspectives Panel. Regional connection: automated scoring, facial recognition, surveillance, and student-data privacy debates.

  • Unit 6 — Weeks 16–18
    AI Futures — My Voice, My Community

    AI workforce landscape, regional AI careers, capstone communication project for a public audience. Portfolio assembly and pathway planning. Regional connection: regional technology ecosystems, healthcare AI, energy, public-sector data, and creative industries.

state standards Alignment: Maps to Principles of Information Technology (§127.671) and Fundamentals of Computer Science (§127.672). Fits Level 1 in IT Career Cluster Programs of Study. state CTE funding weight: 1.28.

Frameworks: AI4K12 Five Big Ideas, ISTE Standards, UNregionalO AI Competency Framework, UbD, UDL, PBL, MIT RAISE

Tools: Google Teachable Machine, ChatGPT Education, Hugging Face Spaces, TensorFlow Playground, Canva, Google Sites
  • Unit 1 — Weeks 1–3
    Power User — Advanced AI Interaction

    Prompt engineering, multi-modal AI, output evaluation, academic integrity. Compare ChatGPT, Gemini, Claude, and open-source models. Regional connection: how regional tech companies evaluate AI tools.

  • Unit 2 — Weeks 4–6
    Ethics Lab — Frameworks for Hard Questions

    Consequentialism, deontology, virtue ethics, care ethics. FATE framework. Deep case studies including region-specific AI dilemmas: energy-grid decisions, healthcare triage, public benefits, surveillance, and hiring algorithms.

  • Unit 3 — Weeks 7–10
    AI Across Domains — Applied Intelligence

    Healthcare, environment, creative arts, journalism, education, government, business. Domain deep dives with regional industry connections: healthcare AI, energy optimization, public-sector decision support, and generative media in local arts communities.

  • Unit 4 — Weeks 11–15
    Design Thinking + AI — Community Solutions

    5-week PBL: identify a real real community problem, conduct empathy interviews, design an AI-informed solution, present to community panel. Partners: local nonprofits, municipal offices, healthcare providers.

  • Unit 5 — Weeks 16–18
    Portfolio & Professional Readiness

    Digital portfolio curation, resume writing, mock professional interviews, internship preparation. Microsoft optional industry certification alignment and exam preparation.

Standards alignment: Maps to emerging-technology, information-technology, computer-science, digital-citizenship, and work-based-learning standards depending on state and district placement.

Key credential: Microsoft AI Fundamentals (AI-900) alignment. Conceptual domains are accessible with Course 1+2 preparation; districts can pair this with state-approved credential lists where applicable.

Additional tools: Perplexity AI, Runway ML, Suno AI, NotebookLM, Figma, Miro, Kialo, Google Colab
  • Unit 1 — Weeks 1–3
    Professional Launch

    Workplace expectations, internship orientation, professional communication, workplace AI audit, capstone topic exploration and proposal. regional industry partner matching and onboarding.

  • Unit 2 — Weeks 4–12
    Internship Immersion + Capstone Development

    Minimum 80 hours on-site, remote, or hybrid with a regional employer. Weekly classroom seminar for reflection, capstone workshops, guest speakers, advanced AI topics. Supervisor evaluations at weeks 6 and 12.

  • Unit 3 — Weeks 13–18
    Capstone Completion & Public Showcase

    Intensive capstone production, peer review, comprehensive portfolio assembly, public presentation to industry partners, community college faculty, families, and community members. Pathway exit interview and postsecondary planning.

state standards Alignment: Maps to Practicum in Information Technology (§127.735) — 2 credits, Level 4. Satisfies CTE completer requirements (3+ courses, 4+ credits, with Level 3–4 course). state CTE funding weight: 1.47.

Target internship partners: technology firms, healthcare systems, public agencies, cultural organizations, local startups, energy and climate organizations, nonprofits, and higher-education partners

Target credential: Microsoft AI Fundamentals (AI-900) or another district-approved AI/data credential. Additional pathway micro-credentials can be issued by the program.

Program at a glance

0 Course Pathway
0 Prerequisites Required
0 Internship Hours
0 Chromebook Compatible
0 Day Summer Workshop
0 Weeks Per Course

Implementation

What it takes to launch

School leaders need to know whether a new program is realistic. This one is built to be. Schools can start with a workshop, a single-course pilot, or a phased multi-year rollout — with regional consultation potentially available for implementation planning.

  • 1 CTE instructor with AI literacy professional development
  • Existing Chromebooks or laptops — all tools are browser-based
  • Teacher-managed AI tools with documented parental consent process
  • Pathway or pilot timeline — start with workshop, Course 1, or full sequence
  • regional Region engagement — regional CTE specialists may assist with integration, advisory development, and employer connections

Recommended timeline

  • Summer 2026 Pilot summer workshop; teacher PD; employer recruitment
  • Fall 2026 Launch Course 1 pilot with first cohort (25–30 students)
  • Spring 2027 Launch Course 2; refine Course 1 based on pilot data
  • Fall 2027 Launch Course 3 capstone/internship; first full-pathway cohort
  • 2028–29 Full operation, first graduates, potential expansion through additional regional regions

Funding Fit

How schools can fund it

This pathway is built to align with the funding structures districts already use to launch and sustain CTE programs. It does not require new funding streams — it fits the ones already in place.

  • Perkins V for curriculum, professional development, devices, certification exam fees, and WBL coordination
  • state CTE funding CTE Weighted Funding — 1.28 weight for Level 1–2 courses, 1.47 for Level 3–4 courses in approved Programs of Study
  • Under $100K procurement threshold (SB 1173) — may qualify for direct purchase, subject to district policy
  • Purchasing cooperatives — districts may use cooperative purchasing pathways such as TIPS or BuyBoard when available through an awarded vendor
Perkins V core indicators aligned:
1S1 Graduation Rate • 2S1 Academic Proficiency • 3S1 CTE Concentrator Proficiency • 4S1 Non-Traditional Participation • 5S1 Program Completion • 5S2 Postsecondary Placement

CTE structure alignment: Information Technology Career Cluster • Concentrator at 2+ courses/2+ credits • Completer at 3+ courses/4+ credits with Level 3–4 course • state standards-based course mapping (§127.671, §127.721, §127.735)

state CTE weighted or formula funding where available in dollars:
Level 1–2 student ≈ $6,160 × 1.28 = ~$7,885/ADA
Level 3–4 student ≈ $6,160 × 1.47 = ~$9,055/ADA
vs. non-CTE student = $6,160/ADA

Funding references describe alignment and fit, not guaranteed funding. Consult your district CTE coordinator or state/regional CTE specialist for specific Perkins eligibility and funding qualification.

Who Built This

Designed for credibility from day one

This pathway is not a concept — it is a fully designed program of study developed by someone who has built university programs from scratch and understands how curriculum moves from vision to classroom.

Developed by Ira Greenberg Chair and Professor, Center of Creative Computation at SMU. Published author on creative computing. BFA Cornell, MFA UPenn. Creator of SMU’s BA in Creative Computing and MA in Creative Technology.
Triple framework alignment AI4K12 Five Big Ideas + ISTE Standards + UNregionalO AI Competency Framework. Grounded in established frameworks schools can readily explain to district, state, and postsecondary stakeholders.
Credential-ready pathway Can be aligned to Microsoft AI Fundamentals (AI-900) or a locally approved industry credential. Students leave with externally legible evidence of AI literacy and applied judgment.
Designed for CTE structures Maps to existing state standards (§127.671, §127.721, §127.735). Fits the IT Career Cluster. Aligned with Perkins V requirements and state CTE weighted or formula funding where available tiers.
Designed for statewide replication Designed so districts across regional can adopt, localize, and implement without starting from scratch. Regional regional engagement may help support expansion beyond regional.
Designed around the regional industry ecosystem regional employers, higher-education partners, public agencies, healthcare systems, creative organizations, startups, and nonprofits.

Common Questions

What decision-makers ask first

No. The model is built around literacy, ethics, and practical career relevance — not trend-chasing. It gives schools a structured response to technology students are already using. The curriculum is grounded in established frameworks (AI4K12, ISTE, UNregionalO), aligned to existing state CTE standards, and designed for long-term CTE viability, not a one-year experiment.

No. This pathway is designed for CTE adoption within the Information Technology career cluster, not a full CS rebuild. It requires one CTE instructor with AI literacy professional development. No coding prerequisite is required. The pathway emphasizes AI literacy, judgment, and creation first; any technical work is introduced accessibly and in context.

No. The entry point is open-access and built for broad participation. Course 1 requires zero prerequisites beyond basic digital literacy. Students who can use a web browser and create documents are ready to begin.

Yes. The entire tool stack is browser-based and Chromebook-compatible. Google Teachable Machine, ChatGPT Education, Canva, Google Workspace — all free or low-cost, all running in a browser. No specialized hardware, no new lab setups, no expensive software licenses.

The model is structured around teacher-managed accounts, documented parental consent, no student PII in AI tools, content filtering on all devices, and a maintained tool compliance matrix. All AI interactions happen through education-licensed accounts under teacher oversight. Designed to support district privacy and compliance review processes.

Start with the 5-day summer workshop or a Course 1 pilot. The model is intentionally phased. Many schools will begin with the workshop as a recruitment and proof-of-concept event, then add Course 1, then build the full pathway over 2–3 years as demand and capacity grow.

Because tool-specific training expires quickly. The durable value is not memorizing one platform’s interface, but learning how to evaluate tools, direct them well, exercise judgment where automation falls short, keep learning as systems change, and build work that matters in the real world. Those four capacities stay useful even as specific products come and go.

Course 1 introduces all four: students learn what AI is, begin evaluating and directing tools, practice ethical judgment, and build their first projects. Course 2 deepens orchestration with multi-tool workflows, applies human-centered design to real community problems, and builds professional portfolios. Course 3 applies all four in internships and capstones, where students must learn an unfamiliar domain quickly, exercise judgment under professional conditions, and build work for real audiences.

Each course maps to existing state CTE standards within the Information Technology career cluster. When placed in an approved Program of Study, courses qualify for state CTE funding CTE weighted funding: 1.28 for Level 1–2 courses (Course 1) and 1.47 for Level 3–4 courses (Courses 2 and 3). That translates to approximately $1,700–$2,900 in additional per-pupil funding above the basic allotment. Consult your district CTE coordinator or state/regional CTE specialist for specific program-of-study placement guidance.

The pathway can align to Microsoft AI Fundamentals (AI-900) or another locally approved industry credential. The important point is not a single test; it is a defensible sequence of portfolio evidence, credential preparation, and work-based learning outcomes that districts can explain to families, boards, and state reviewers.

Explore whether this pathway fits your school, district, or region.

Start with a planning call, a workshop, or a pilot-year conversation. We’ll walk through whether this four-pillar model fits your students, your staffing reality, and your CTE goals — then map the most practical launch path for your district.

For CTE directors, principals, regional specialists, and district administrators evaluating future-ready CTE options for students.

Questions? Reach us at [email protected]