Today (Jan 24, 2025) is International Education Day, Currently 251 million children and youth are out of school, and 739 million adults are illiterate. There is a crisis in foundational learning, literacy and numeracy skills among young learners. It's time to transform education.
Last Update
IN-V-BAT-AI's fastest path to revenue is to sell what schools need right now: deterministic, safe, classroom-ready AI tools that solve daily teacher pain points. These are gaps the major AI companies cannot fill because their models are non-deterministic, unaligned to curriculum, and too risky for direct classroom deployment.
Schools desperately need grading tools that are consistent, explainable, and error-free. Current AI tools hallucinate or drift, making them unusable for official grading.
IN-V-BAT-AI advantage:
Your deterministic agents can produce the same result every time, with transparent steps.
Immediate revenue path:
Sell to districts as "AI Grading Accelerators" for math.
Teachers want auto-generated mastery practice that is aligned to standards and safe for students. Current AI tools generate inconsistent or incorrect problems.
IN-V-BAT-AI advantage:
Your 361-style deterministic generators produce perfectly aligned, error-free practice.
Immediate revenue path:
Sell grade-level mastery packs to schools and tutoring centers.
Teachers need short, accurate, curriculum-aligned explanations for daily lessons. Current AI tools hallucinate or give inconsistent steps.
IN-V-BAT-AI advantage:
Your agents can produce deterministic, step-by-step, classroom-safe explanations.
Immediate revenue path:
Sell 'AI Lesson Explainer Packs' for math.
Special education teams need tools that generate accommodations, scaffolds, and modified assignments. No major AI company can do this safely - the legal risk is too high.
IN-V-BAT-AI advantage:
Deterministic outputs = predictable, safe, compliant modifications.
Immediate revenue path:
Sell to SPED departments as "AI Accommodation Assistants."
Districts need tools that align lessons, assessments, and interventions to state standards. Current AI tools cannot guarantee alignment.
IN-V-BAT-AI advantage:
Deterministic mapping ensures every output is aligned and auditable.
Immediate revenue path:
Sell alignment tools to curriculum directors and instructional coaches.
Schools want to use AI but cannot trust hallucinations or opaque reasoning. They need a safety layer that wraps around existing AI tools.
IN-V-BAT-AI advantage:
Your deterministic agents can serve as the explainability and verification layer
for any AI output.
Immediate revenue path:
Sell as "AI Safety & Verification Layer" to districts adopting AI.
IN-V-BAT-AI should target the areas where schools have urgent needs and where big AI companies cannot operate safely: deterministic grading, mastery practice, lesson explainers, accommodations, alignment, and AI safety layers.
These products can be deployed immediately and generate revenue within weeks.
The hard problem in Education, as defined in your Learning 2026 analysis, is:
“Educational best practices are known, but teachers cannot implement them at scale because time, resources, class size, and planning load make them impossible to execute consistently.”
Claude for Teachers directly targets this implementation gap by:
No. Claude for Teachers does not solve the structural hard problem in Education.
Claude provides meaningful relief by reducing one of the hardest operational constraints: teacher time.
In your WEF framework terms:
Claude for Teachers is a bottleneck‑removal tool, not a system‑level convergence solution.
Claude for Teachers does not solve the hard problem in Education, but it directly targets the implementation gap and provides meaningful, practical support for teachers.
Durable learning pattern emerges when AI system support five core learning science principle
1. Personalized Instruction
AI should adapt to each learner's:
prior knowledge
misconceptions
pace
preferred modes of explanation
readiness for challenge
Goal: Every student receives the right next step, not the same step.
2. Complex Problem-Solving
AI must push students beyond simple recall or single-step procedures.
Durable learning requires:
multi-step reasoning
real-world scenarios
open-ended tasks
problems requiring planning, comparison, or justification
Goal: Students learn how to think, not just what to answer.
3. Meaningful Collaboration
AI should enable students to:
work together
share reasoning
compare strategies
build on each other's ideas
This includes teacher-student collaboration, peer collaboration, and AI-supported group reasoning.
Goal: Learning becomes social, not isolated.
4. Substantive Discussion
AI must encourage:
explanation
argumentation
justification
critique
reflection
Durable learning happens when students articulate why they chose an approach and evaluate alternatives.
Goal: Students develop deep conceptual understanding through discourse.
5. Sustained Relationships
AI should strengthen-not replace-human relationships:
teacher → student
student → student
student → family
student → mentor
AI supports consistency, follow-through, and personalized guidance over time.
Goal: Students feel supported, known, and connected.
The report identifies four hard problems created by rapid, bottom‑up AI adoption in education: cognitive atrophy, hallucinations & misinformation, breakdown of academic integrity, and erosion of human connection.
1. Cognitive Atrophy
AI reduces cognitive effort by doing reasoning, structuring, and problem‑solving for learners.
This weakens the brain neural pathways required for deep learning, curiosity, and long‑term cognitive development.
"Scientists generally agree that children acquire specific skills and knowledge through experience and practice,
and that such learning is reflected in neural changes—even though research on experience-dependent brain
plasticity in children remains limited. "
2. Hallucinations & Misinformation
AI produces fluent but incorrect information, often with high confidence.
Learners may internalize falsehoods because AI outputs sound authoritative.
This erodes epistemic vigilance — the ability to ask “How do I know this is true?”
3. Breakdown of Academic Integrity
AI blurs the boundary between authentic student work and machine‑generated output.
Credentials risk losing credibility, assessment fairness becomes uncertain, and cheating becomes easier and harder to detect.
4. Erosion of Human Connection
AI tools optimize efficiency and personalization, but not relational learning.
Students may offload emotional processing and social interaction to machines, weakening trust, empathy, and belonging — core foundations of learning.
None of these problems are solved today. The report is explicit: these risks are already observable, growing, and intensifying because AI adoption is happening faster than governance, pedagogy, and institutional capacity can adapt.
The report proposes a system‑wide AI Readiness Framework as the solution — not a single fix, but a coordinated set of conditions across governance, institutions, pedagogy, and learning experiences.
• Data governance & online safety
Is there robust, transparent
and enforceable data and AI
governance that protects
learner privacy, mitigates
algorithmic bias, safeguards
cybersecurity and ensures
accountability for the use of
AI in education?
• Digital infrastructure and connectivity
• Sustainability & environmental impact
• Economic case & financing
• Academic integrity & intellectual property
Are there clear institutional
standards for authorship,
originality and intellectual
property with robust
safeguards against plagiarism
and the misuse of synthetic
media in education?
• Education innovation governance
Does the education system
have the governance
structures to enable safe and
ethical experimentation with
AI and emerging
technologies?
• Social spaces & well‑being
• Community & parent engagement
• AI, media & digital literacy frameworks
Are AI, media and digital
literacies embedded as
foundational competencies
across curriculum, teacher
development, instructional
design and student learning
outcomes?
• Educator workload & well‑being monitoring
Are educator workload, job
satisfaction and well-being
continuously monitored with
findings actively informing the
rationale for adoption of tools
that reduce administrative
burden and improve
pedagogical efficiency?
• Assessment modernization
Are assessment methods
reliable, fit-for-purpose and
aligned with pedagogical
aims, and do they
incorporate digital and
AI-enabled approaches
where appropriate?
• Educator capacity & agency
Do educators have the
autonomy, skills and tools to
design and deliver
high-quality learning, with
their professional judgment
protected?
• Accessible & inclusive learning
Is universal access to
high-quality education
supported by adaptable
materials, technologies and
learning environments that
accommodate diverse needs,
languages and abilities?
• Problem‑solving & collaborative learning
Are learning experiences
intentionally designed to
enforce desirable difficulty,
requiring learners to solve
problems and collaborate
with others?
• Lifelong & student‑driven learning
Are learners supported
throughout their lifetime with
systems that track long-term
progress, enable credit mobility
across institutions, and give
students meaningful control
through transparent governance,
consent and clear opt-out
mechanisms?
• Personalized & self‑paced learning
Are learning pathways
adapted to individual pace,
needs and objectives
embedding student agency
while leveraging AI to deliver
tailored content, feedback
and progression?
Across the latest research, the hard problem remains: AI cannot yet deliver safe, reliable, mastery‑based personalization for every student at scale.
Even though AI use in schools is rapidly increasing, the systems still fail to provide: accurate diagnosis of student thinking, trustworthy feedback, equitable learning support, and classroom‑safe reasoning.
This is confirmed by RAND’s 2025 national K–12 survey, which shows AI adoption rising sharply but guidance, training, and reliability lagging behind.
AI adoption is outpacing policy, training, and safety.
In 2025, over half of students and teachers used AI for schoolwork, but districts lack clear policies, and teachers lack training to use AI safely and effectively.
This gap creates inconsistent, unreliable learning experiences.
Critical‑thinking degradation concerns.
61% of parents and 55% of high schoolers fear AI harms critical‑thinking skills — a sign that current AI tools are not supporting deep learning or mastery.
Generative AI risks outweigh benefits for children.
Brookings’ 2026 global study finds that AI risks (cognitive harm, reduced learning capacity, weakened social‑emotional development) currently overshadow benefits.
This means AI systems are not yet developmentally safe for K–12 learners.
AI cannot reliably diagnose misconceptions or mastery.
Current generative models are probabilistic and hallucination‑prone. They cannot produce psychometrically valid assessment or guaranteed-correct feedback — a core requirement for mastery‑based learning.
AI tools are not aligned to curriculum or standards.
Teachers use AI for lesson planning and grading, but the outputs are not consistently aligned to pacing guides, grade‑level expectations, or state standards.
This prevents AI from functioning as a trustworthy instructional agent.
Safety, privacy, and developmental risks remain unresolved.
Brookings identifies risks to learning capacity, emotional well‑being, peer relationships, and privacy — all unsolved barriers to classroom deployment.
Mastery‑based personalization — real‑time, accurate adaptation to each student’s needs.
Reliable formative assessment — trustworthy scoring of open responses and misconceptions.
Safe instructional agents — classroom‑ready copilots that never hallucinate.
Equitable learning support — robust across dialects, disabilities, cultures, and SES differences.
Teacher workload reduction — without degrading student learning or critical thinking.
Curriculum‑aligned reasoning — AI that respects standards, scaffolds, and pacing guides.
The latest research converges on a single conclusion: AI is advancing faster than schools can safely integrate it, and current models lack the deterministic, developmentally‑appropriate reasoning required for K–12 mastery learning.
Schools are experimenting with AI, but without: policies, training, psychometric reliability, curriculum alignment, or cognitive‑safe design, the hard problem remains unsolved.
Global shift toward “Prosper, Prepare, Protect.” Brookings recommends a three‑pillar framework to ensure AI enriches — not diminishes — learning. This signals a move toward safer, more structured AI deployment. Districts beginning to build AI policies. RAND reports districts are starting to respond to the rapid rise in AI use, but policies still lag behind actual classroom practice. Growing focus on risk mitigation. Multiple 2026 studies emphasize developmental risks, pushing the field toward safer, more controlled AI systems.
AI is now widely used in K–12 classrooms, but the hard problem remains unsolved: building a safe, deterministic, diagnostically accurate, curriculum‑aligned, mastery‑based learning system.
The latest research shows that risks currently outweigh benefits, policies lag behind adoption, and AI systems are not yet reliable enough to serve as core instructional agents.
The hard problem is clear: K–12 still lacks a deterministic, mastery‑based AI system that can diagnose student thinking, deliver precise scaffolds, guarantee correctness, and operate safely in real classrooms. 360.html emphasizes that current AI is probabilistic, hallucination‑prone, non‑auditable, and not aligned to standards — making it unfit for core instruction.
AI adoption is rising faster than guidance — teachers and students use AI heavily, but districts lack policies and training Risks outweigh benefits for children — cognitive harm, reduced learning capacity, emotional risks Critical‑thinking degradation concerns — parents and students fear AI weakens reasoning No reliable mastery detection — current AI cannot diagnose misconceptions or guarantee correctness (360.html) Not aligned to standards — AI outputs do not consistently match pacing guides or grade‑level expectations (360.html)
IN‑V‑BAT‑AI is uniquely positioned because it is built around determinism, explainability, modularity, and classroom‑grade agentic behavior. These directly address the gaps identified by RAND, Brookings, and 360.html.
Schools need AI that never hallucinates, never improvises pedagogy, and always produces auditable reasoning. IN‑V‑BAT‑AI’s deterministic modules solve the exact reliability gap RAND highlights: teachers lack trust because AI is unpredictable. This is your strongest differentiator.
Deterministic reasoning chains
Auditable step‑by‑step logic
Guaranteed‑correct outputs for core instruction
Brookings warns that AI risks harming learning capacity when feedback is wrong or shallow. IN‑V‑BAT‑AI can fill this gap with diagnostic micro‑models that detect:
Misconceptions
Skipped steps
Misreads
Math anxiety patterns
Partial mastery
RAND shows teachers use AI for lesson planning, but outputs are not aligned to standards. IN‑V‑BAT‑AI can provide:
State‑standard alignment baked into every reasoning step
Pacing‑guide‑aware scaffolds
Grade‑level‑appropriate explanations
This solves the “AI is helpful but not trustworthy” problem districts report.
Brookings stresses that AI must protect cognitive development and avoid harming critical thinking. IN‑V‑BAT‑AI can differentiate itself by being the first AI system designed explicitly for:
Developmentally safe reasoning
Age‑appropriate scaffolding
Critical‑thinking preservation
Bias‑free explanations
RAND shows districts lack policies, training, and governance. IN‑V‑BAT‑AI can ship:
AI usage dashboards
Teacher‑training modules
Risk‑mitigation frameworks
Audit logs for every AI decision
This positions IN‑V‑BAT‑AI as the “safe default” for districts.
Your architecture already supports modular agents.
Assessment agent
Scaffolding agent
Mastery‑tracking agent
Teacher‑dashboard agent
Equity‑monitoring agent
Teachers need to see why the AI made a decision. IN‑V‑BAT‑AI’s ELK‑style transparency is a direct answer to the trust gap RAND identifies. This becomes a signature feature:
“Show me the reasoning” button
“Show me the misconception detected”
“Show me the standard alignment”
Districts want AI but cannot afford enterprise pricing. Your architecture — HTML modules, deterministic agents, lightweight JS — is perfect for:
Chromebooks
Low‑bandwidth schools
Offline‑first classrooms
This is a massive competitive advantage.
The latest research shows that AI is everywhere in K–12, but none of the core problems are solved. IN‑V‑BAT‑AI is positioned to be the first system that solves:
Deterministic reasoning
Mastery‑based diagnostics
Standards‑locked instruction
Cognitive‑safe learning
District‑grade governance
Multi‑agent classroom orchestration
This is the exact gap the market is waiting for — and the one no competitor is addressing.
The biggest unsolved problem in education - the one AI is expected to solve - is personalized, mastery-based learning at scale. This means every student getting the exact explanation, feedback, pacing, and support they need, at the moment they need it, with guaranteed mastery for millions of learners at once.
1. AI cannot reliably diagnose student thinking.
Students make mistakes for different reasons - misconceptions, skipped steps, anxiety, misreading,
or partial understanding. AI can guess, but it cannot consistently infer a student's true cognitive
state with the precision required for real mastery learning.
2. AI cannot guarantee correctness or determinism.
Education requires zero-error explanations. Current AI models still hallucinate, drift, or produce
inconsistent steps. Without deterministic, verifiable reasoning, AI cannot safely drive instruction.
3. AI cannot maintain alignment with curriculum and standards.
Schools depend on pacing guides, scaffolding rules, prerequisite maps, and grade-level standards.
AI can generate content, but it cannot yet guarantee alignment across thousands of micro-decisions.
4. AI cannot integrate smoothly into real classrooms.
Even perfect AI tutoring fails if teachers don't trust it, parents reject it, devices break,
bandwidth is limited, or districts lack training. The "last mile" of education is human and
infrastructural - not technical.
5. AI cannot ensure equity.
If AI accelerates learning for some students but not others, achievement gaps widen. Current systems
struggle with dialect variation, cultural context, neurodiversity, accessibility, and bias.
6. AI cannot measure learning reliably.
Assessment is the backbone of personalization. AI still struggles to detect partial understanding,
evaluate open-ended reasoning, distinguish guessing from mastery, and validate student work
without bias.
AI is expected to solve a fully personalized, mastery-based education system that works for every student. It is not solved because we do not yet have AI that is deterministic, diagnostically accurate, curriculum-aligned, classroom-deployable, equitable, and assessment-reliable.
Every major AI company is converging on the same overarching goal: personalized, mastery-based learning at global scale. But each company approaches the problem from a different angle based on its strengths, infrastructure, and philosophy.
Hard problem they target:
A universal AI tutor that can teach any subject to any learner with human-level reasoning.
Why this is hard:
Requires deep reasoning, error-free explanations, and consistent alignment with human intent -
all while avoiding hallucinations and ensuring safety.
Hard problem they target:
Safe, reliable AI instruction that never misleads students and never produces harmful or biased content.
Why this is hard:
Safety alignment at educational scale requires deterministic reasoning, transparent steps,
and strict guardrails - all still emerging capabilities.
Hard problem they target:
Integrating AI tutoring, feedback, and mastery systems directly into the tools schools already use:
Teams, OneNote, Office, and Learning Accelerators.
Why this is hard:
Requires perfect interoperability, district-level compliance, accessibility, and zero-error
feedback across millions of students and devices.
Hard problem they target:
AI that understands student intent, supports inquiry-based learning, and integrates with Google Classroom.
Why this is hard:
Natural language understanding of student questions is inconsistent, and aligning AI responses
with curriculum pacing remains unsolved.
Hard problem they target:
Open-source AI models that can democratize access to tutoring and learning tools worldwide.
Why this is hard:
Open models must be safe, accurate, and culturally adaptable - extremely difficult without
controlled training data and strict guardrails.
Hard problem they target:
A Socratic AI tutor that guides students without giving answers, mirroring expert human tutoring.
Why this is hard:
AI must detect misconceptions, choose the right question, and scaffold correctly - all without
confusing or misleading the learner.
Hard problem they target:
AI-driven language learning that adapts to proficiency, mistakes, and pacing in real time.
Why this is hard:
Language learning requires nuance, cultural context, and precise feedback - areas where AI still
struggles with consistency.
Hard problem they target:
AI that can generate curriculum-aligned lessons, assessments, interventions, and mastery pathways
that meet district and state standards.
Why this is hard:
Alignment, validity, and compliance require deterministic outputs - not probabilistic LLM behavior.
Hard problem they target:
Infrastructure for real-time AI tutoring, multimodal learning, and simulation-based education
(STEM labs, medical training, engineering).
Why this is hard:
Requires massive compute, low-latency inference, and safe multimodal reasoning - still evolving.
Every major AI company is trying to solve a different piece of the same puzzle: a fully personalized, mastery-based education system that works for every learner. It remains unsolved because AI is not yet deterministic, diagnostically accurate, curriculum-aligned, equitable, or classroom-deployable at scale.
Artificial Intelligence in K-12 Schools
Built For Learning: Preserving Productive Struggle in AI Tools for High-Impact Tutoring: Source Stanford Scale Initiative: Accelerator for Learning
Why Use AI in Education : Source Stanford Scale Initiative: Accelerator for Learning
Shaping the Future of Learning: Education Readiness for the Age of AI : Source WEF June 2026 Insight Report
Navigating AI in Education: Pupils’ perspectives on the role of AI in the classroom: Source Oxford University Press 2025
Putting Evidence into Practice for Education and State Leaders
Public Accountability in California: Evaluating the School Accountability Report Card and the California Dashboard
AI in Education Worldwide: What the Research Shows and What It Means Across Systems - Scale Initiative: Stanford Graduate School of Education
Redefining Formative Assessment in a Generative AI Era
AI Is Routine for College Students, Despite Campus Limits
What Makes Edtech Work for Students - EdSurge April 15, 2026
Understanding the Evidence Base on AI in K-12 Education - Stanford accelerator for learning, March 2026
AI Tutoring Harvard Report: The present study was approved by the Harvard University IRB (study no. IRB23-0797) and followed a crossover design. The design allowed for control of all aspects of the lessons that were not of interest. The crossover design is summarized in Table S3. For each of two lessons, each student: 1) took a pre-class quiz that established their baseline knowledge of the content for that lesson; 2) engaged in either the active classroom lesson (control condition) or the AI tutor lesson (experimental condition); and 3) took a post-class quiz as a test of learning
Top 5 Shifts. Education in the age of AI
Redefining How the World Learns
AI + Education Summit 2026: Scaling Human-Centered AI – What It Takes to Transform Learning for All
China AI Education Agent Technology Assessment, 2025
Tutoring Market Size in 2026 AI in Education
When Machines Think, Human Thinking Must Go Higher
The Future Tech Stack: Reimagining Requirements for Learner-Centered Futures
How Math Teachers Are Making Decisions About Using AI
What Parents Need to Know About AI in the Classroom - September 29, 2025
How did students perform in the nation compared to 2019? - September 9, 2025
Winning the Race AMERICA’S AI ACTION PLAN - July 2025
Project Astra | Exploring the Future of Learning with an AI Tutor Research Prototype - May 2025
What the 'Mississippi Miracle' Foreshadows for Education in the Intelligence Age - June 2025
Empowering Learners for the Age of AI - May 2025
Google GSV Fellowship
AFT to Launch National Academy for AI Instruction with Microsoft, OpenAI, Anthropic and United Federation of Teachers
Winning the AI race: Strengthening U.S. capabilities in computing and innovation - Video Winning the AI race: Strengthening U.S. capabilities in computing and innovation (Document)
Language Models in the Classroom: Bridging the Gap Between Technology and Teaching
Teacher to Teacher: Is AI reshaping education for the better?
Five Edtech Quality Indicators for evaluating effective edtech products
page 31
Can the LLMs really solve simple reasoning problems, instead of simply reciting solution templates?
Grade school mathematics 8000 test questions training database
Improving Education Outcomes by Empowering Parents, States, and Communities
96% of Teachers See AI as the Future of Education, but 97% Lack Resources to Integrate New Tech Into STEM Curriculum
source: Samsung.com February 2025 report
Lost in transition: Fixing the “learn-to-earn” skills gap Transforming workforces to unlock trillions in trapped value
source: Pearson.com January 2025 report
ADVANCING TRUSTWORTHY ARTIFICIAL INTELLIGENCE RESEARCH AND DEVELOPMENT
Ethical guidelines on the use of artificial intelligence (AI) and data in teaching and learning for educators
Owl Ventures: 2024 Education Outcome Report
Learning Tools Reference Material
Designing for Education with Artificial Intelligence: An Essential Guide for Developers
AI Guidance for Arizona Schools
Using Artificial Intelligence Tools in K–12 Classrooms
Various Types of AI Products
Percentage Who Reported Using AI Products and Tools
Percentage of Teachers Who Reported A Barrier to Future AI Use
GSV 150 The Most Transformational Growth Companies In Digital Learning and Workforce Skills in 2026
Souce: www.asugsvsummit.com
Shaping the Future of Learning: The Role of AI in Education 4.0
How all of the world’s school systems can improve learning at scale
Souce: McKinsey & Company February 9, 2024 | Report
Harnessing AI in EdTech: Developing Valuable and Defensible Solutions | Startup Academy
What Can AI Offer Teachers? AI + Education Summit at Stanford 2024
Souce: www.msiworldwide.com
Results for America’s Evidence Definitions
Examples of How Results for America’s Definitions of “Evidence-Based Program” and “Evidence-Building Program” Can Be Used To Accomplish Different Goals
Source: www.results4america.org
A Call to Action for Closing the Digital Access, Design, and Use Divides 2024 National Educational Technology Plan
WEF: The need and the opportunity to put skills first have aligned. For bold leaders, the result is business transformation.
THE IMPACT OF AI The Benefits and Challenges That Lie Ahead for AI in Education
SIIA Releases Principles for the Future of AI in Education
280+ Generative AI Edtech Tools: September 2023
Souce: www.reachcapital.com
The Education Department Outlines What It Wants From AI
NSF National AI Institute for INCLUSIVE INTELLIGENT TECHNOLOGIES FOR EDUCATION
Artificial Intelligence and the Future of Teaching and Learning Insights and Recommendations
Principles for AI in Education
UNESCO: Generative AI guidance about rethinking assessment and learning outcomes
UNESCO: Generative AI guidance about 1:1 coach for the self-paced acquisition of foundational skills
How Innovative Learning Models Can Transform K-12 Education
Souce: www.newclassrooms.org
Does the solution make the user’s life easier? Does it require less time than existing solutions? Is it practical and easy to use?
National Security Commission on Artificial Intelligence
DESIGN PRINCIPLES FOR ACCELERATING STUDENT LEARNING WITH HIGH-IMPACT TUTORING
WEF: Transforming education, skills and learning to prepare 1 billion people for tomorrow's economy and society
Scaling Up––From Vision to Large-Scale Change: A Management Framework for Practitioners
Souce: www.msiworldwide.com
EDSAFE AI Alliance
Souce: www.edsafeai.org
A Blueprint for Scaling Tutoring Across Public Schools
US Household with Internet Access Using Desktop or Laptop
US Household with Internet Access Using Tablet or Smartphone
Global Education : 260 millions of children worldwide do not go to school
Five-Year Trends Available for Median Household Income, Poverty Rates and Computer and Internet Use
GSV Cup 200 Elite Startup
GSV Cup Startup Index
Internet User and Smartphone User from China, India, Asia, and USA
Can you trust ChatGPT and other LLMs in math?
NAEP: ASSESSMENT REPORT 2022 Reading and mathematics scores decline during COVID-19 pandemic
NWEA JULY REPORT 2023 Education’s long COVID: 2022 – 23 Achievement data reveal stalled progress towards pandemic recovery
SETDA:REPORT 2023 SETDA: Digital Instruction Materials Acquisition Policies for State of Arizona. Number of schools and students
SETDA:REPORT 2023 SETDA: Digital Instruction Materials Acquisition Policies for State of Texas: Number of schools and students
SETDA:REPORT 2023 SETDA: Digital Instruction Materials Acquisition Policies for State of California: Number of schools and students
UNESCO REPORT 2023 GLOBAL EDUCATION MONITORING REPORT 2023 Technology in education: A TOOL ON WHOSE TERMS?
ChatGPT Out-scores Medical Students on Complex Clinical Care Exam Questions A new study shows AI's capabilities at analyzing medical text and offering diagnoses — and forces a rethink of medical education.
BRINGING AI TO SCHOOL:TIPS FOR SCHOOL LEADERS
Artificial Intelligence and the Future of Teaching and Learning Insights and Recommendations
source: Department of Education Office of Educational Technology
Assessment in the age of artificial intelligence
source: sciencedirect.com
Oxford University Romanes Speech - Liberal Education and Democracy - November 2022
Exploring the Impacts of Generative AI on the Future of Teaching and Learning
How much generative AI will affect Education going forward?
TAIL? Teachable AI Lab : Apprentice: A Platform for Authoring and Deploying Intelligent Tutors at Scale
Education technology: Scale up the provision of self directed learning and nano-degrees for lifelong - 2021 learning
Classroom Guide for Teaching AI and Ethics
Describing how an architect at work uses intelligence augmentation By Douglas C. Engelbart — October 1962
Vannevar Bush proposed in 1945 the possibilities he foresaw for scientific development of equipment which could significantly aid intellectual worker. He recognized the growing problem of storage, retrieval, and manipulation of information for and by intellectual workers. "Consider a future device for individual use, which is a sort of mechanized private file and library. It needs a name, and to coin one at random, "memex" will do. A memex is a device in which an individual stores all his books, records, and communications, and which is mechanized so that it may be consulted with exceeding speed and flexibility. It is an enlarged intimate supplement to his memory." Year 2026, 81 years later, Intelligence Augmentation foresaw by Vannevar Bush in 1945 is now a reality.
AI and the Future of Education
2021 UNESCO AI and Education Guidance for Policy Makers
Global Learning Market Trend
Johns Hopkins Science of Learning Institute
EdTech Top 40 Between August 1 and December 21, 2021
PALS is a large-scale, randomized control trial (RCT) study of the MathSpring learning environment. It is funded by the Institute of Education Sciences, which is part of the U.S. Department of Education. Sixth grade teachers across New England will participate in the study by using MathSpring in their classrooms and supporting researchers in their evaluation of the system's efficacy. The study will take place during the 2022-23 school year.
Learning Strategies as Metacognitive Factors: A Critical Review
assessments may be discrete, providing only snapshots of what students can do at a single point in time. While these snapshots may tell us something about what students do and do not know at a given time, they may tell us nothing about learning. As others have argued, one goal of assessment practices is to foster learning
The National AI Institute for Adult Learning and Online Education (AI-ALOE for short) will develop an AI-based transformative model for online adult learning that can meet this challenge. This model simultaneously uses AI for transforming online adult learning and online adult education to transform AI. These innovative transformations are not “just doing things better” but “doing better things” in effectiveness, efficiency, access, scale, and personalization.
Expert select and remember relevant system understanding