Hands-on STEM guides written for parents and kids - no PhD required. Discover robotics projects, astronomy activities, and science experiments that actually excite young minds.
Articles & guides
And their parents
Non-technical parent friendly
Everything a curious child aged 6-12 and their parents need to know
The children who struggled with maths were missing a spatial foundation the curriculum quietly assumes is there. One month of coding changed how six-year-olds think about problems that had nothing to do with a screen. The digit 8 is three different numbers depending on how you slice it. Three sections: brain development research translated into plain language, dinner table maths that surprises, and science experiments built from what is already in your kitchen.
Four-year-olds have between three and fifteen minutes of focused attention and opinions strong enough to derail a Tuesday. Thirteen-year-olds want to build the thing they saw on YouTube at midnight and want it working by Thursday. This covers the whole range. Age-by-age guides on what children can actually do at each stage. Kit reviews that say when something is overpriced. Activities from what is already in your kitchen.
Planets, constellations, and the questions children ask. Why is the sky dark at night. Is Pluto still a planet. Could I jump higher on the Moon. Where does space end. Are there aliens. This section is built for those questions, and the answers are told as stories, not a collection of disconnected facts. Planet guides that read like adventures, surprising facts for car journeys, creative stories for cloudy nights, and book reviews. Read it together and let the questions lead.
You don't need a lab coat or a chemistry set. Most of our experiments use things already in your kitchen - lemon juice, baking soda, food colouring, salt. Each one takes under 30 minutes, works for ages 4–10, and teaches a real scientific concept (not just "mix things and watch them fizz"). We write these as stories because that's how kids actually experienced them. The science is real. The spilled lemon juice is also real.
Robotics kits and coding toys sorted by age, from first button-press robots at 4 to open-ended builds for 12-year-olds who've stopped reading the instructions. Each guide explains what children can actually do at that stage, which kits suit it, and which ones end up in the cupboard after a week. We tested most of them. Some were great. Some were not. We tell you which.
This section is for the parent who just watched their child open a robotics kit containing forty-seven pieces of plastic and a manual written entirely in assumptions. You don't need to know what a servo motor does. You don't need to have an engineering background. You need someone to tell you which bits matter, which bits you can safely ignore, and what to do on the evening when nobody wants to touch it anymore.
Why Mars sunsets are blue, how many moons Jupiter has, what Saturn's rings are actually made of, and why Mercury has ice despite being closest to the Sun. Planet guides written to be read aloud in the car or at bedtime. Each one is short enough to finish before someone falls asleep and deep enough to make them ask the next question. Which is the whole point.
Sometimes the sky is overcast and the telescope stays in the cupboard. These are gentle, imaginative stories about stars, constellations, and the people who first named them. Written for reading aloud on nights when you can't see a thing. They work at bedtime, on rainy afternoons, or in the back of the car. Best for ages 4 to 8, but older kids have been known to listen in.
Articles grounded in science and child development research
A 2024 review identified six factors that shape brain development between ages two and eleven. Five of them are decided at home, not at school. Sleep, nutrition, movement, music, a nurturing environment. The interesting things parents focus on sit on top of conditions that are usually invisible.
Researchers gave first graders one month of coding lessons and measured what changed. Not their coding ability. Their ability to plan, inhibit impulses, and think through problems that had nothing to do with a screen.
The skill that best predicted their arithmetic performance three years later wasn't intelligence or early number ability. It was something most maths lessons never mention.
Motivated kids don't quit because they can't do it. They quit because they were stuck for five minutes with no one nearby. That's the whole difference between a child who loves robotics and one who says they hate it.
The children who struggled with maths weren't less intelligent. They were missing a spatial foundation the curriculum quietly assumes is already there and nobody notices until the numbers get harder.
Eye-tracking study of 6-8 year olds doing robotics found their visuospatial working memory improved 4% every 2 months, logical reasoning jumped, and processing speed increased. Researchers watched kids' brains literally rewire in real-time.
