Inquiry
Start With Better Questions
Students begin with a model or puzzle before a formula. Inquiry-based learning turns math practice into observe, test, explain, and revise.
Inquiry AI for mathematical thinking
Inquiry, Logic, Mind, Socratic Method, and Heuristic practice in one K-12 math learning path.
Students do more than answer worksheets. They manipulate visual models, respond to Socratic prompts, diagnose mistakes, and build durable problem-solving habits across Common Core aligned missions.
Socratic prompt
If 4 rows each have 6 tiles, what structure do you see before multiplying?
Step 1
Discover
Manipulate a model and look for structure before the rule appears.
Step 2
Abstract
Translate the discovery into an equation, comparison, or written explanation.
Step 3
Reflect
Apply the same idea to a new case and explain why the strategy still works.
Learning keywords that matter
Search engines and families need the same thing: clear proof of what the product teaches. Inquiry AI is centered on inquiry-based learning, logic-first math, mind training, the Socratic Method, and heuristic problem solving.
Inquiry
Students begin with a model or puzzle before a formula. Inquiry-based learning turns math practice into observe, test, explain, and revise.
Logic
Every mission asks learners to connect visual models, equations, and word problems so logic becomes a repeatable habit, not a lucky answer.
Mind
Hints slow students down just enough to notice what they know, where they guessed, and which strategy deserves another try.
Socratic Method
The Socratic Method replaces answer dumps with precise prompts, misconceptions, reframes, and worked examples only when they are needed.
Heuristic
Heuristic strategies such as draw a model, look for structure, try a simpler case, and check units help students transfer skills across topics.
Differentiator Β· No runtime LLM
Every mission records hesitation, error patterns, and hint usage as a private thinking trace. Inquiry AI turns that trace into a parent- and teacher-readable diagnosis: where reasoning held, where it slipped, and which Common Core standard to revisit next.
All analysis runs on pre-authored Socratic content β zero runtime LLM calls. That means transparent, repeatable, child-safe diagnostics with no API costs and no model drift.
Core strength
Direct array β equation mapping
Focus area
"Equal groups" vs total count
Stable mental model Β· 4 Γ 6 array
Identified rows-and-columns structure in 3.1s without finger-counting.
Hesitation Β· 18s on division share
Re-read prompt twice. Hint surfaced "Equal groups" reframe.
Misconception Β· groups + perGroup
Wrote 4+6 instead of 4Γ6. Diagnostic logged additiveβmultiplicative gap.
Recovery Β· self-corrected on retry
After Socratic prompt, restated the array in multiplicative terms and solved in 6s.
Core product value
The platform is designed for parents, teachers, and students who want to see why an answer works. Every lesson pairs a concrete model with adaptive guidance, so the learner can recover from errors without losing the thread.
Timed hesitation and wrong-answer patterns trigger nudges, reframes, analogies, and step-by-step help.
Arrays, number lines, fraction bars, grids, balance scales, and geometry tools connect concrete models to abstract equations.
Grade hubs, topic guides, handbooks, and missions map to Common Core standards from Grade 1 through Grade 6.
Practice sessions surface mistakes, hesitation, and mastery signals so parents and teachers see how a student thinks.
Common Core aligned paths
Grade hubs combine topic maps, study guides, standards alignment, and interactive missions. Grade 3 currently has the fullest path, while the other grades expose the expanding curriculum structure.
Number sense, addition, shapes
360 interactive missions with Socratic hints and visual reasoning.
Place value, measurement, fluency
120 interactive missions with Socratic hints and visual reasoning.
Multiplication, division, area logic
450 interactive missions with Socratic hints and visual reasoning.
Fractions, decimals, geometry
360 interactive missions with Socratic hints and visual reasoning.
Operations, volume, coordinate thinking
360 interactive missions with Socratic hints and visual reasoning.
Ratios, expressions, statistics
360 interactive missions with Socratic hints and visual reasoning.
Why families choose Inquiry AI
Inquiry AI is built for kids who deserve more than worksheets. Every Common Core aligned mission pairs a visual model β arrays, fraction bars, number lines, balance scales β with Socratic prompts that guide reasoning instead of handing over answers.
When a child gets stuck, the platform doesn't just say "wrong." It diagnoses the misconception, surfaces a heuristic to try, and shows parents and teachers a private thinking-trace report so the next conversation starts from a real signal β not a percentage.
Inquiry-based learning
Children manipulate a model and look for structure before any rule appears β discovery, then formula.
Socratic guidance
Hints reframe the question instead of giving the answer β every nudge is a question, never a dump.
Heuristic problem-solving
Draw a model, look for structure, try a simpler case β strategies kids reuse across every topic.
Common Core aligned
Grade 1β6 hubs, topic guides, and missions mapped to CCSS standards parents and teachers already trust.
How inquiry-based learning, logic-first practice, and Socratic guidance work inside the product.
Innovation Hub, Suite 300
Palo Alto, California 94301
support@inquiryai.zogmath.com
Response within 24 hours
"Socratic learning starts with a question. We're here to help you find the right ones for your child's journey."