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scormy One
For education, schools & EdTech

Turn the textbook into a course students will actually finish

Your best material is locked in dense readings, curricula, and course packs that few students get through. Scormy One turns the material you already teach from into clear, source-grounded courses — with every claim tied back to the page it came from.

The pain

Sound familiar?

  • Your best material is locked in a 400-page textbook or course pack almost no student reads end to end.
  • Every new edition or syllabus change means rebuilding notes, slides, and quizzes from scratch.
  • With a general AI tool you can't tell whether an answer came from your material or the model's imagination.
  • Academic integrity means every claim should trace back to an approved source — not a confident guess.
The stakes

Why this is worth fixing

27.46%assigned reading completed in the studied psychology coursesClump et al., 2004
53.5%of participating Florida public higher-ed students skipped a text due to costFlorida Virtual Campus, 2022
55%relative failure-rate increase under traditional lectures in undergraduate STEMFreeman et al., PNAS, 2014

Students in the psychology courses studied by Clump and colleagues completed 27.46% of assigned reading before class, 53.5% of participating Florida public-college and university students had skipped a required textbook because of cost, and undergraduate STEM students under traditional lecturing faced a 55% higher relative failure rate than those in active-learning classes. The knowledge is already in the material — a dense PDF just isn't how most people learn it.

How it works

How Scormy One solves it

Upload your textbooks, readings, curricula, and course packs, and Scormy One reads them the way a careful teaching assistant would — reading order, tables, and diagrams included. It extracts the durable facts as verified knowledge, then builds a course from that knowledge: outline, explanatory scripts, and quizzes that test what the material actually says.

Author it yourself in the Studio — chat from outline to finished course, reorder modules, refine any explanation — or hand it off with AutoBuild: set the topic, the audience, and the length, and a complete draft generates in the background while you do other work.

Because every line is generated only from verified facts and your own source text, the course teaches what your material says — not a plausible guess. Every claim links to the exact page, so a student, a TA, or an accreditation reviewer can check the source in one click.

training-export.json

Pretty-printed export.v1 payload

{  "schemaVersion": "export.v1",  "trainingId": "b048b529-d8e3-440e-b8ae-897c35268701",  "version": 1,  "title": "Foundations of Photosynthesis",  "language": "en",  "status": "published",  "publishedAt": "2026-07-21T14:00:00.000Z",  "kind": "training",  "hasQuiz": true,  "synopsis": "A three-part biology course explaining how light reactions capture energy, how the Calvin cycle builds carbohydrate, and how matter moves through the overall process.",  "chapters": [    {      "id": "a4f4417d-3f91-4175-926d-7837817f4a11",      "title": "Capture Light Energy",      "summary": "Connect chlorophyll, water, oxygen, ATP, and NADPH in the light-dependent reactions.",      "position": 0,      "scenes": [        {          "id": "8ed86d99-f472-4e9c-972d-e2595b976a21",          "kind": "narrative",          "title": "Chlorophyll and the Light Reactions",          "position": 0,          "summary": "In the thylakoid membranes, chlorophyll absorbs light energy, water supplies electrons, oxygen is released, and ATP and NADPH are produced.",          "durationSeconds": 110,          "narrative": "Photosynthesis begins by capturing light energy in the thylakoid membranes of the chloroplast. Chlorophyll and related pigments absorb light, and that energy excites electrons within the photosynthetic system.\n\nWater supplies replacement electrons. When water molecules are split, hydrogen ions and electrons enter the light-reaction pathways, while oxygen is released as a by-product. The oxygen produced in this stage can leave the plant and enter the surrounding atmosphere.\n\nElectron movement helps build a hydrogen-ion gradient across the thylakoid membrane. The chloroplast uses that gradient to make ATP. Electrons also help form NADPH.\n\nATP carries usable chemical energy, and NADPH carries high-energy electrons. Both move to the next stage of photosynthesis. The light reactions therefore do more than absorb sunlight: they convert light energy into the ATP and NADPH that the Calvin cycle needs.",          "onScreenText": "Light + water → oxygen + ATP + NADPH",          "plan": "roll-a",          "mediaKind": "image",          "generationPrompt": "Clear educational cutaway illustration of a plant chloroplast with highlighted thylakoid membranes, chlorophyll absorbing light, water entering, oxygen leaving, and ATP and NADPH forming; textbook-quality, no labels from real publishers.",          "sourceImages": [],          "sourceChunks": []        }      ]    },    {      "id": "79354236-f1df-472a-8c04-37fd32954a32",      "title": "Build Sugars",      "summary": "Explain how the Calvin cycle uses carbon dioxide, ATP, and NADPH to form three-carbon molecules.",      "position": 1,      "scenes": [        {          "id": "e04a6f75-fbe5-40af-a2d4-5fb23cc0a722",          "kind": "narrative",          "title": "The Calvin Cycle",          "position": 0,          "summary": "In the chloroplast stroma, the Calvin cycle fixes carbon dioxide and uses ATP and NADPH to produce three-carbon molecules that can contribute to carbohydrates.",          "durationSeconds": 115,          "narrative": "The Calvin cycle takes place in the stroma, the fluid-filled region surrounding the thylakoids. Unlike the light reactions, the cycle does not capture light directly. It uses ATP and NADPH produced by the light reactions.\n\nThe cycle begins by fixing carbon dioxide. An enzyme combines carbon dioxide with an existing five-carbon molecule, creating unstable intermediates that quickly form three-carbon molecules. ATP supplies energy, and NADPH supplies high-energy electrons that help reduce these molecules.\n\nSome of the resulting three-carbon product leaves the cycle. Plant cells can use this product to help build glucose and other carbohydrates. The rest remains in the cycle and, with additional ATP, regenerates the five-carbon starting molecule.\n\nThe Calvin cycle therefore links atmospheric carbon to organic matter. Carbon dioxide provides the carbon atoms, while ATP and NADPH provide the energy and reducing power needed to assemble them into energy-rich molecules.",          "onScreenText": "CO₂ + ATP + NADPH → three-carbon product",          "plan": "roll-b",          "mediaKind": "broll",          "generationPrompt": "Animated-style biology diagram set in the chloroplast stroma, tracing carbon dioxide into the Calvin cycle while ATP and NADPH support formation of three-carbon products and regeneration of the starting molecule; clear educational design.",          "sourceImages": [],          "sourceChunks": []        }      ]    },    {      "id": "54c67d58-0885-4396-ad31-5ec8d7d54a43",      "title": "Connect the Inputs and Outputs",      "summary": "Trace carbon, oxygen, water, and energy through the overall photosynthesis model.",      "position": 2,      "scenes": [        {          "id": "cc167003-9eeb-4409-aaea-742bf389d423",          "kind": "narrative",          "title": "Trace Matter Through Photosynthesis",          "position": 0,          "summary": "Carbon in photosynthetic carbohydrates comes from carbon dioxide, released oxygen comes from water, and light energy becomes chemical energy in organic molecules.",          "durationSeconds": 105,          "narrative": "To understand photosynthesis as a whole, trace matter and energy separately. The carbon atoms used to build photosynthetic carbohydrates enter the plant as carbon dioxide. The Calvin cycle fixes that carbon into three-carbon products that can contribute to glucose and other organic molecules.\n\nWater participates in the light reactions. When water is split, it supplies electrons and hydrogen ions, and oxygen is released. This means the oxygen gas produced during photosynthesis originates from water, not from the carbon dioxide carbon atoms.\n\nEnergy follows a different path. Light energy is absorbed by pigments and converted into the chemical energy of ATP and NADPH. The Calvin cycle uses those molecules to help build organic matter, where part of the captured energy is stored in chemical bonds.\n\nMatter is rearranged, while energy is transformed. Keeping those two ideas distinct makes the overall process easier to explain and predict.",          "onScreenText": "Carbon from CO₂ · Oxygen from H₂O · Energy from light",          "plan": "roll-a",          "mediaKind": "image",          "generationPrompt": "Educational systems diagram of a green plant and chloroplast tracing carbon atoms from carbon dioxide into carbohydrate, oxygen atoms from water into released oxygen gas, and light energy into stored chemical energy; clean classroom visual.",          "sourceImages": [],          "sourceChunks": []        }      ]    }  ],  "quizzes": [    {      "id": "cb22da9f-4ebf-465b-995f-d0e88ea7fc41",      "prompt": "Which molecules produced by the light reactions supply energy and reducing power to the Calvin cycle?",      "type": "single-choice",      "interactionType": "choice",      "difficulty": "medium",      "options": [        {          "id": "edu-q1-opt-0",          "text": "Oxygen and carbon dioxide"        },        {          "id": "edu-q1-opt-1",          "text": "ATP and NADPH supply energy and reducing power to the Calvin cycle."        },        {          "id": "edu-q1-opt-2",          "text": "Glucose and oxygen"        },        {          "id": "edu-q1-opt-3",          "text": "Water and chlorophyll"        }      ],      "position": 1,      "correctAnswer": "ATP and NADPH supply energy and reducing power to the Calvin cycle.",      "correctOptionIds": [        "edu-q1-opt-1"      ]    },    {      "id": "e0e825f4-ef6c-49fb-a709-a873b6755742",      "prompt": "Where does the Calvin cycle occur, and what carbon source does it use?",      "type": "single-choice",      "interactionType": "choice",      "difficulty": "medium",      "options": [        {          "id": "edu-q2-opt-0",          "text": "It occurs in the thylakoid membrane and uses oxygen."        },        {          "id": "edu-q2-opt-1",          "text": "It occurs in the nucleus and uses glucose."        },        {          "id": "edu-q2-opt-2",          "text": "It occurs in the chloroplast stroma and uses carbon dioxide as its carbon source."        },        {          "id": "edu-q2-opt-3",          "text": "It occurs in the cytoplasm and uses water as its carbon source."        }      ],      "position": 2,      "correctAnswer": "It occurs in the chloroplast stroma and uses carbon dioxide as its carbon source.",      "correctOptionIds": [        "edu-q2-opt-2"      ]    },    {      "id": "b08f0cdd-1daa-461a-a948-826847d36d43",      "prompt": "Where do the carbon atoms in photosynthetic carbohydrates originate?",      "type": "single-choice",      "interactionType": "choice",      "difficulty": "medium",      "options": [        {          "id": "edu-q3-opt-0",          "text": "They originate from water."        },        {          "id": "edu-q3-opt-1",          "text": "They originate from oxygen gas."        },        {          "id": "edu-q3-opt-2",          "text": "They originate from chlorophyll."        },        {          "id": "edu-q3-opt-3",          "text": "The carbon atoms originate from carbon dioxide."        }      ],      "position": 3,      "correctAnswer": "The carbon atoms originate from carbon dioxide.",      "correctOptionIds": [        "edu-q3-opt-3"      ]    }  ]}

Fictional example · Northbridge Biology Course Pack

The shift

Before and after

Before and after using Scormy One
Before Scormy OneWith Scormy One
A 400-page reading almost nobody finishesA clear, modular course built from that reading
Rebuild notes and quizzes for every new editionBuild a fresh course straight from the updated material
“Did the AI just make this up?”Every claim links to its exact source page
One language, a separate translation effortCourse built in the material's own language
Generic, off-topic quiz questionsQuizzes drawn from the very passage they test
Capability map

Which capability solves which problem

Problems and the Scormy One capabilities that solve them
The problemThe capability that solves it
Dense readings nobody finishesDocument intelligence — textbooks and packs become clean, modular structure
Building every course by handAutoBuild — drop your material, get a full draft course generated for you
“Is this faithful to the source?”Provenance — every claim links to its exact source page and region
AI that invents factsFaithful-by-construction generation — unsupported claims rejected
Multilingual cohortsCourse built in the material's own language — six supported document languages
Take it into your own toolsStructured JSON export and share links — no SCORM or xAPI lock-in
Example scenario

What this looks like in practice

In practice

A course designer at a training college has a 300-page certification textbook and a cohort starting in two weeks. She drops the textbook into AutoBuild — audience “exam candidates,” medium length, quizzes on. After a meeting, a full draft course is waiting: modules mapped to the textbook's chapters, explanations written from its own wording, and a quiz on each section. She reorders two modules, tightens an explanation, and publishes a learner-safe link. When a student asks where a rule comes from, the answer is one click to the textbook page.

The course is already inside your course material

Start with one textbook or reading and the free trial's $10 of AI credit — enough to build and publish your first course.

15-day Growth-tier trial · $10 in AI credit · no card to start.