Digital skills for children: what to learn and how to choose a cybersecurity or AI class
Before enrolling a child in a cybersecurity or artificial intelligence class, ask them to show something they made on a computer and explain how it works. A small game, presentation or animated story can open a better conversation than asking how many hours they spend on a screen. For parents seeking to strengthen digital skills, the starting point combines creation, checking information and protecting privacy. Start at home and use a course if the child wants structure and needs guidance.
A girl who has already changed code, encountered a fault and fixed it brings some experience to the next task. A boy who has not tried this needs an opportunity to learn. This is a difference in experience that can be identified and addressed, not a reason to assume the future is already decided. Instead of asking who started first, establish what each child can do now and what would help them progress.
Routine computer use is only part of the picture
Several skills are sometimes bundled together under the word technology. Digital literacy includes finding information, organizing files, understanding permissions and deciding what to share. Programming involves formulating and testing instructions: what should happen, what actually happened and which instruction needs changing.
In children's cybersecurity education, look for a foundation of protection and responsibility: recognizing impersonation messages, safeguarding accounts and understanding that someone else's system must not be tested without permission. Technical practice should take place in a prepared environment under an instructor's guidance. The ability to operate a tool does not replace understanding its limits.
Artificial intelligence also requires the ability to assess an answer that looks convincing. UNESCO's published student competency framework combines technological understanding, ethics and critical judgment, distinguishing understanding, application and creation. At home, this becomes a simple question: how did you check that your result was correct?
Choose a task according to the child's experience
In elementary school, start with a short, tangible task: moving a character on screen, putting instructions in the correct order or creating a story with several possible endings. Block‑based programming, which joins visual instructions, allows experimentation without immediately writing a coding language. Give beginners room to repeat an action and change one detail at a time.
Approaching middle school, offer a project with choices: a quiz game on a favorite subject, an animation or a small program sorting invented data. The important question is whether the child can explain their decisions. If everything was copied from a demonstration, ask for a small change and work out together what needs adjusting.
In high school, explore programming, networks or AI models more deeply according to interest and existing foundations. This is a suggested progression, not a compulsory age ladder. A 15‑year‑old beginner also needs an orderly introduction, while an experienced younger child may need another challenge. Do not choose a course merely because its name sounds advanced.
What to see in a course before paying
Request a syllabus and an example of what students are expected to produce. Then ask what an ordinary session looks like: how long the instructor demonstrates, how long children work independently and how they receive help when something fails. The phrase small group is not enough. Ask for the maximum participant number and the number of instructors actually supporting them.
Check experience teaching children alongside the instructor's professional knowledge. Ask how a new concept is explained, what happens when abilities differ and how feedback is given to a struggling child. In a trial lesson, if offered, notice whether the child performs an action independently and can ask questions without feeling they are holding everyone up.
One example is Israel Cyber Campus, which presents cybersecurity and artificial intelligence courses for children and teenagers on its website. According to the college's website, the children's course includes online safety and programming fundamentals, while its AI course for ages 12 to 16 covers models, data and bias in live Zoom sessions. These are the programs as published by the college; obtain the particular group's details, price and timetable before enrolling. The same checks are needed elsewhere.
The real cost also includes time, equipment and help
Request a complete written quote covering session numbers, the length of each session and additional software or equipment expenses. Clarify whether lesson duration is stated in minutes or academic hours, whether breaks are included and what happens on holidays or after absences. Ask about a trial lesson and cancellation terms rather than relying on an oral promise.
For an online course, check beforehand whether the home computer supports the software, whether installation is needed and whether a paid account is required. Ask how much work is expected between sessions and whether a parent should be available to help. A lesson that fits the calendar may still be too long for the particular child; examine how practice and breaks are divided.
Put the comparison on one page: what is taught, what is built, who teaches, how much support is provided and the total price. This makes it easier to understand what you are paying for. A promise of service in a particular military unit or a future career is not an appropriate measure for choosing a child's class.
Agree privacy rules before the first account
Find out which services children will use, their age requirements and the parental consent needed. A course being age‑appropriate does not mean every tool it includes is open to independent use by the child. If service terms do not fit, request an appropriate learning alternative rather than bypassing them with a false birth date.
In its guidance for AI activities, the Ministry of Education emphasizes student privacy and critical review of outputs. For home practice, use invented characters and data. There is no need to upload a report card, a friend's photograph, an address or a family conversation to learn how to phrase a request to a tool. Even an attractive result is no reason to publish information about another person without consent.
Ask the course to explain whether lessons are recorded, who may view them and whether children's work is published online. At home, agree whom to approach after a distressing message or request for details. Say explicitly that help is available even after a click or disclosure the child regrets.
Three activities to begin without paying for a class
Start with Scratch, a free creative environment where blocks are joined to build stories, games and animations. Choose a small task: a character reaching a destination or a story changing after a choice. Ask the child to explain one change they made. The suggested exercise does not require publishing the work to the community.
To practice checking information, choose a question whose answer can be verified in a book or authoritative source. If using an AI tool appropriate to the child's age and its terms, compare its answer with the source and check one claim. The same exercise can use a text found online without opening a new account.
For safety practice, invent a message on paper promising a prize and requesting a password. Look together for suspicious features, ways to check who sent it and why passwords should not be shared. These are conversation and thinking exercises, not a test of the child or an attempt to catch them out.
After several attempts, return to what the child created and assess what changed: do they explain more clearly, try to fix things independently and ask for help when needed? If they want to continue and lack guidance, there is a practical basis for finding a course. If they currently prefer experimenting at home, choose another project together and let curiosity lead.
Read also: Artificial intelligence in public services: uses and risks
