Visual Communication and Learning Styles
Our most frequently used motto is:
If a text can be explained with an illustration, drop the text.
Modern educational materials often overload students with computer-generated diagrams and endless, unstructured blocks of text.
Fonderscience designs short, effective micro-texts combined with hand-drawn sketches and watercolors.
Cognitively, handwriting and human-made illustrations function far better as mental anchors than sterile computer graphics.
Structure Instead of Chapters
Through courses in communication and close collaboration with students, we have abolished the traditional hierarchy of confusing chapters and sub-numbers.
A topic like Electromagnetic Radiation is complex, so it is broken down into precise subheadings for each of the seven forms of radiation.
Similarly, our diagram of the Standard Model shows that the student initially only needs to process two overarching boxes: Fermions and Bosons.
This visual design guides the brain to faster learning because it respects that working memory (RAM) requires patterns to transfer knowledge into long-term memory.
All texts, sketches, watercolors, and photographs on Fonder Science are self-produced, meaning we own the full copyrights to all material.
This ensures a completely independent infrastructure that can be freely made available under our Open Science license.
Fonder’s Motto No. 2
An overview provides clarity – followed by knowledge, understanding, and respect.
My pedagogical approach is shaped by teaching science in the oldest classes of primary school and upper secondary school.
Educational research shows that designing digital educational material requires “didactic transposition” – the ability to transform complex science into meaningful learning.
We operate based on three unalterable principles:
- The material must be capable of being instantly updated with the latest research.
- The communication follows Einstein’s words: If you can’t explain it simply, you don’t understand it well enough.
- The content must always be structured into overviews and glossaries that minimize cognitive overload.
Inverted Evaluation as a Research Method
While the educational system is busy evaluating the students, Fonderscience has inverted the method.
Here, the students evaluate and quality-assure the educational material.
The students have identified errors, suggested rephrasings, and transformed text-heavy chapters into structured overviews.
This form of competence-developing student involvement has generated unexpected, measurable results.
Through test phases with our analog games and posters, we experienced that even the youngest students in the 3rd grade quickly decoded complex scale relationships in nature.
The visual patterns stored themselves in the long-term memory, allowing them to remember the concepts after a long summer vacation.
For the oldest students, the material created a deep understanding of connections – for example, that DNA is not just an abstract code, but a concrete molecule.
At the final examinations in the 9th grade, students have frequently impressed external examiners with their convincing academic overview.
The Pedagogical Revolt Against the “Idiocy of Reinvention”
One of the greatest systemic failures in modern digital educational materials is the constant reinvention of foundational laws of nature.
Every single publisher and every new author currently feels compelled to yet again present their personal take on what, for example, photosynthesis or respiration means.
This creates an inefficient pedagogical jungle.
Whenever students begin a project, they are forced time and again through basic topics that are suddenly formulated in completely new ways – and unfortunately, often factually incorrect, simply because the author insists on forcing their own linguistic definition onto the subject matter.
The result is confusion, cognitive overload, and at worst, direct mislearning.
Effective Progression Instead of Relearning
Fonderscience breaks away from this practice.
Once students in their first year of upper secondary school (1.G) have acquired the correct scientific definition of photosynthesis through our glossary database, they own that foundation.
When they subsequently begin their second year (2.G), the educator does not have to waste precious time correcting conceptual confusion or forcing students to relearn the basics.
The students know exactly where they can instantly recapture the aspects of photosynthesis in a noise-free environment.
Consequently, the teaching and the project work can be targeted directly toward new, deeper progression and complex problem-solving.
Our database ensures an unshakeable, standardized infrastructure for scientific concepts.
This frees up time for genuine learning and ensures that students build their knowledge on bedrock rather than shifting sands.