Young Explorers Club: Coding Camps Across Switzerland

At the Young Explorers Club, we’re running coding camps across Switzerland that teach hands-on, age-specific digital skills. They help address a national ICT specialist shortage by producing tangible portfolio projects, measurable instructor assessments, and stronger digital problem-solving confidence. Programs run as day, residential, online, and hybrid formats. Curricula cover play-based ScratchJr for ages 5–7 up to Python, web engines, and AI/robotics for teens. Parents should check language, staffing, safety, and cost details before enrolling.

Key Takeaways

Purpose

The camps are designed to narrow Switzerland’s ICT skills gap and offer early career-proofing by building computational thinking, creativity, and presentation skills. They focus on creating real, demonstrable outcomes that support future study and job applications.

Measurable outcomes

Typical deliverables emphasize practical assessment and clear evidence of learning:

Working prototype or live demo of the student project
Documented project files (source code, assets, and notes)
Demo video summarizing objectives and functioning features
Rubric-based instructor assessments that measure skills and progression

Formats and progression

Program options and curriculum progression are intentionally varied to match ages and experience levels. Formats include half-day workshops, intensive multi-week camps, and flexible in-person, online, or hybrid models.

Early years: block-based tools such as ScratchJr and play-based activities
Primary: Scratch and introductory robotics or simple hardware interfacing
Teens: text-based languages like Python and JavaScript, web engines, and AI/robotics

Parent checks

Before enrolling, parents should verify key operational and safety details to ensure a good fit and a secure environment:

Language of instruction and whether bilingual options are available
Instructor credentials, experience with the age group, and whether background checks are performed
Student–teacher ratios and supervision policies
Written safety and data-protection policies, including first-aid procedures and photo consent
Sample daily schedules so you can see the balance of instruction, hands-on work, and breaks

Costs and aid

Weekly fees in Switzerland vary widely depending on format, location, staffing, and materials. Ask these practical questions when comparing programs:

What do the fees cover (meals, materials, hardware loan or purchase)?
Is hardware loaned, provided, or required to be supplied by families?
Are there early-bird or sibling discounts, scholarships, or municipal subsidies?

Comparing answers to these items will help match quality, transparency, and affordability to your child’s needs.

Why Coding Camps Matter in Switzerland

We, at the Young Explorers Club, see the gap between demand and supply for digital skills growing fast. The ICT specialist shortage in Switzerland — estimated in the tens of thousands by industry reports and the Swiss Federal Statistical Office — makes early, focused learning essential. Global forecasts from the WEF / Future of Jobs also predict that a large share of roles will require digital fluency by 2030, so I treat coding as career-proofing as much as a learning activity. PISA/OECD assessments have flagged digital problem-solving as an area for improvement, which strengthens the case for practical, hands-on camps.

Coding camps deliver measurable, transferable outcomes. Students gain computational thinking, digital problem solving, creativity, collaboration and basic robotics and electronics skills. Typical tangible outputs include a final project demo, a portfolio artifact such as a project video or code repository, instructor assessment checklists and an end-of-camp skill checklist. Soft outcomes are equally important: camps raise confidence with tech, improve perseverance and debugging habits, and give kids experience presenting technical work to peers and family.

I recommend focusing instruction and assessment on the following practical checkpoints:

A working prototype or playable build that demonstrates core mechanics
Documented code or project files that can be reviewed later
A short demo or pitch that tests both technical and communication skills
Instructor rubrics that map observed behaviors to skill levels

Age-targeted progression and a 1-week case study

Early exposure (starting as young as 5) should prioritize play-based, unplugged activities that build sequencing and pattern recognition. During primary years, shift from block-based tools to simple text concepts, concentrating on logic, loops, events and sensor interactions. For teens (12+), push Python or JavaScript projects, web basics, introductory AI/ML ideas and hardware interfacing so students can build portfolio-ready work.

One-week Scratch game-camp — typical schedule and outcomes:

Day 1 — game concept, storyboarding and role assignments.
Day 2 — sprites, motion and event-driven behaviors.
Day 3 — scoring, variables and state management.
Day 4 — iterative testing, debugging and polish.
Day 5 — final demo to parents and a short team presentation.

Skills practiced include:

Sequencing
Loops
Conditionals
Iterative testing
Collaboration
Public presentation

Measurable artifacts at the week’s end: a playable .sb3 file, a 2–3 minute team demo video and rubric scores from instructors. For parents comparing options, see our roundup of the best summer camps to find the right fit.

Types of Coding Camps and Delivery Formats

We, at the young explorers club, run a range of options so families can pick what fits their schedule, learning goals and travel needs. I offer formats that prioritize either hands-on robotics or flexible online learning, and I adjust group sizes and staff ratios by age and activity.

Formats, typical durations, schedules, sizes and trade-offs

Below I list the common delivery formats and practical details you should expect.

Day camps
- Half-day and full-day options for local families.
- Great for younger kids who tire easily and for short projects.
- Keywords: day camps, in-person coding camps.
Residential/week-long camps
- Includes accommodation and extended project time for deeper builds.
- Often used for multi-day robotics and team projects.
- Keywords: residential camps, holiday coding camps Switzerland.
After-school clubs
- Recurring weekly sessions during the school term.
- Good for steady skill progression and ongoing mentorship.
Holiday intensives
- Offered during spring, summer and winter breaks.
- Common formats: 3-day intensives, 1-week (most common), and 2-week options.
- Many kids join 1-week programs for concentrated project work.
Online and hybrid camps
- Synchronous instructor-led online courses and asynchronous self-paced modules.
- Hybrid models ship hardware kits and combine virtual classes with local meetups.
- Keywords: online coding camps, hybrid coding camps.

Typical durational options you’ll see:

1-day workshops
3-day intensives
1-week camps (most common)
2-week camps
Term-long weekly programs

Example daily schedule for a full-day week-long camp:

09:00–09:15 welcome & warm-up
09:15–11:00 focused coding block
11:00–11:15 break
11:15–12:00 mini-challenge / debugging practice
12:00–13:00 lunch
13:00–14:30 project & robotics hands-on time
14:30–15:00 reflection and share-back

Class sizes and staffing I recommend:

Typical class size: 8–15 children.
Instructor-to-student ratio: 1:6–1:10; adjust toward smaller ratios for younger ages and hardware-heavy sessions.
I staff with a lead instructor plus assistants for robotics labs and troubleshooting.

Delivery languages and multi-language tracks:

Languages: German, French, Italian, English.
Bilingual or multilingual tracks are commonly available in Zurich, Geneva, Lausanne, Lugano and Basel.
Parents should confirm the language of instruction, especially for mixed-language groups.

Pros and cons — practical trade-offs you should weigh:

Online coding camps
- Pros: flexibility, lower cost, wide geographic reach.
- Cons: less hands-on robotics time, harder to facilitate teamwork for younger children.
In-person coding camps
- Pros: hands-on robotics and electronics, stronger peer collaboration, easier supervision.
- Cons: higher cost and travel/time commitment.
Hybrid coding camps
- Pros: balanced flexibility and hands-on work via shipped kits plus local meetups.
- Cons: logistics of shipping kits and variable home setups can affect consistency.

For families comparing options, I suggest checking our summer camps overview to match format, language and hands-on needs with your child’s age and experience level.

Age Groups, Typical Curricula and Tools

Curriculum by age and sample projects

We split kids into clear age ranges so activities match attention span and motor skills.

Ages 5–7: We focus on sequencing and logic through play and visual tools. Kids use ScratchJr, unplugged activities and a gentle Micro:bit intro to build an animated story in ScratchJr. The learning objective is sequencing and basic debugging; sessions use short, playful sprints with lots of adult guidance.

Ages 8–11: We introduce block-based programming with Scratch and Blockly, add introductory robotics using LEGO WeDo and Micro:bit sensors, and teach loops and conditionals. A typical sample project is an interactive game or story in Scratch that uses loops and conditionals. We recommend 60–90 minutes/day of guided coding in camp settings to keep focus and allow hands-on practice.

Ages 12–15: Move into text-based foundations. We teach Python fundamentals, HTML/CSS/JavaScript basics, Minecraft: Education Edition modding, and introductory Arduino and Raspberry Pi projects. Students build a simple web app or a Minecraft mod that demonstrates variables and functions. Expect pair work and short instructor-led demos followed by independent time.

Ages 16–18: We take on advanced Python projects, Flask/Django mini web apps, Unity or Roblox Studio game prototypes, plus data basics and an intro to AI/ML concepts. A practical sample project is deploying a small Flask app or producing a Unity prototype. We push for project ownership, code reviews, and presentation skills at this stage.

Tools, platforms and hardware — which to use when (plus cost guidance)

Below I list the platforms and kits we choose by age and purpose.

Block/entry platforms:
- Scratch, ScratchJr, Blockly, Code.org, Tynker
Languages and platforms:
- Python (IDLE/Thonny), JavaScript/HTML/CSS, Unity, Roblox Studio, Minecraft: Education Edition, Replit, Trinket
Hardware and maker kits:
- Micro:bit (including BBC micro:bit V2), Raspberry Pi (models 3/4/400), Arduino (Uno/Nano), LEGO Education WeDo and Mindstorms, LEGO SPIKE Prime, Sphero, TinkerCAD

We match tools to age and learning goals. Use Scratch and ScratchJr for the early years to teach sequencing without syntax errors. Add Micro:bit or LEGO WeDo when you want sensors and immediate physical feedback for ages 8–11. Introduce Python, Raspberry Pi and Arduino once teens (12–15) can handle syntax and debugging. For older teens (16–18) we recommend full Python projects, Flask or Django for web fundamentals, and Unity or Roblox Studio for game-engine experience. Include Minecraft: Education Edition across middle ages for engagement and modding practice.

Cost guidance is practical and clear. A basic Raspberry Pi kit typically runs roughly CHF 50–100; check current prices before purchasing. LEGO kits, Micro:bit boards and Arduino starter kits have wider price ranges, so plan budgets according to project scope.

We design syllabi that scale complexity while keeping play and experimentation central. For parents comparing options, our take on good practice appears in our guide to summer camps, and you can read more about summer camps for detailed program choices.

Pricing, Financial Aid and What’s Included

We price our coding camps to reflect instruction quality, equipment and supervision. Typical Swiss ranges you’ll see are CHF 120–350 half-day / CHF 250–800 full-day per week / CHF 600–1,800 residential, depending on duration, accommodation and special equipment. I’ll outline what those fees generally cover and where extra costs tend to appear.

We include core items in most packages and break out common add-ons so you can budget accurately. For parents wanting a broader view of options across regions, consult our page on summer camps in Switzerland for comparisons and seasonal offers.

What’s covered, common extras and a parent checklist

Below are the typical inclusions and the most useful questions to ask before you book:

Standard inclusions most camps list:

Professional instruction and curriculum time.
Learning materials and printed handouts.
Use or loan of hardware kits (verify whether it’s loaned or comes home with the child).
Snacks and lunch for day camps; meals and lodging for residential courses.
A final project showcase or demo day.

Common extras that may be charged separately or bundled in premium packages:

USB stick with project files.
Printed certificate and photos.
Take-home hardware or expanded electronics kits.

Discounts and financial aid to check for:

Early-bird discount 5–15% if you register early.
Sibling discount, often 5–15%.
Need-based scholarships offered by some providers.
Municipal subsidies and cantonal support — availability varies by canton.
Employer vouchers or contributions via Familienbüro or local family services.

Practical budgeting tips:

Confirm whether hardware is included or available for loan; if not, add kit costs to your budget.
Ask whether lunches, field trips or special software licenses incur extra fees.
Request a formal invoice/receipt to support subsidy or employer rebate applications.
Factor in travel and travel insurance if the camp is outside your locality.

Critical checklist items to ask every provider:

What exactly is included in the fee (meals, materials, kit ownership)?
What is the refund and cancellation policy?
Does the camp require or recommend travel or personal insurance?
Are hardware kits provided, or do families need to buy them?
What are staff qualifications and adult-to-child ratios?
Can I see a sample daily schedule and final deliverables?

We recommend you document answers in writing and keep receipts for subsidy claims or employer reimbursement. If you expect to apply for municipal subsidies, verify the canton’s timelines and required paperwork before the early-bird deadline.

Where to Find Camps, Provider Types and Market Snapshot

We, at the Young Explorers Club, see most coding courses clustered in Switzerland’s major urban centres. Zurich coding camps, Geneva coding camps, Lausanne coding camps, Basel coding camps, Bern coding camps and Lugano coding camps host the largest selection. Cantons such as Zurich, Vaud and Geneva often run stronger extracurricular digital initiatives. Rural cantons can have sparser options, so families may need to travel or choose online formats.

Provider types are distinct and predictable, which helps parents compare offerings fast. Notable university outreach and summer-school programs include ETH Zurich and EPFL outreach and summer schools. Private vendors range from single-location operators to franchise-style companies. Non-profits and community clubs show up as CoderDojo chapters and similar volunteer groups. Maker spaces and FabLabs commonly run short hardware-focused workshops. Schools and municipal youth services sometimes add coding sessions to holiday programs.

I list the primary provider categories and what to expect from each:

University/outreach programs: strong on curriculum quality; often use campus facilities and may offer advanced topics.
Private for-profits: flexible schedules, polished marketing and varied price points.
Non-profits/volunteer clubs: lower cost, community-driven, great for exploratory learning.
Maker spaces / FabLabs: hands-on hardware activities like robotics and 3D printing.
School-run and municipal programs: convenient and often bilingual or local-language focused.

Market snapshot — items flagged for verification before publishing:

Local counts: number of providers by city (city-level counts need local verification).
Pricing: price comparison CHF vs EUR for average weekly rates (confirm current exchange and market prices).
Demand: enrollment growth (year-on-year growth in coding camps/edtech for kids requires survey data).
Offerings: percentage offering hardware-based activities and percentage offering multilingual instruction (German, French, Italian, English instruction) — verify with provider surveys.

Recommendation: check a consolidated directory before you book; for an overview of camp types and what to expect, review our selection of the best summer camps for quick comparisons.

Practical listing guidance for parents

Use these quick checks as you scan options:

Identify provider type in the city: university outreach, private vendor, CoderDojo/non-profit, maker space, or school program.
Confirm language of instruction — many offer English tracks, but always verify whether German, French, Italian or English instruction is used.
Check hardware offerings: verify whether the camp includes hardware-based activities if you want robotics or electronics; otherwise expect mostly software and block coding.
Compare weekly prices and ask for a breakdown of what’s included (meals, excursions, kit fees).
Ask about group size and instructor qualifications; smaller groups and certified educators improve outcomes.
Verify logistics: exact location, drop-off hours and cancellation policy.
Request local counts if needed: ask regional education offices or the provider network for the number of providers by city to cross-check market availability.

We keep this guidance practical so families can act fast: scan provider types in your target city, confirm language and hardware offerings, then compare price and schedule against your priorities.

Instructor Qualifications, Safety, Expected Outcomes and Parent Checklist

Instructors are required to have solid technical and teaching backgrounds. Typical profiles include computer science students, certified teachers, industry professionals and trained camp leaders. We expect documented pedagogical or classroom experience, references and demonstrable project work. Recommended credentials include first aid training, a clear child protection policy and formal background checks (Swiss criminal-record check equivalent). We, at the young explorers club, ask to see staff bios and referees before enrolment.

Safety and data protection are non-negotiable. For digital safety we insist on account privacy, moderated project-sharing and set procedures for safe online collaboration. Physical safety covers lab procedures for soldering, power handling and tool use, with supervised hands-on sessions and written safety policy documents. Camps should explicitly state compliance with data protection (Swiss law/GDPR) and explain how student data and project files are stored, who can access them and how long they’re retained. Parents should get a plain-language summary of these rules.

Watch for these red flags and basic checks parents can do:

No written contract or terms — a credible provider will supply clear terms.
No visible child protection policy — this should be published or shared on request.
Very high student–teacher ratios — ask for typical ratios and maximum group sizes.
Inability to show staff bios or background checks — always request sample bios and verification processes.
Vague refund or cancellation terms — clear financial and cancellation policies are essential.

Always ask for sample staff bios, statements about background checks and copies of risk assessments. For extra confidence, compare providers on safety policy and student–teacher ratio before you commit. If you need a broader view on choosing camps, consider resources about summer camps in Switzerland to help your decision.

FAQs (five quick answers)

Q1: What will my child make by the end of the camp?

A: They’ll complete a tangible final project — a game, web page or robot demo — present it briefly and receive a digital file or video to keep, plus a certificate.
Q2: Is my child too young to start?

A: No. Camps for ages 5–7 use play-based activities and ScratchJr; prior experience isn’t required.
Q3: Do they need prior experience?

A: Most camps accept beginners to intermediate learners; providers should state prerequisite skills clearly.
Q4: What equipment is required?

A: Providers must state whether laptops, tablets or hardware kits are provided or required and confirm loan options.
Q5: What happens if my child needs extra support?

A: Ask about instructor ratios, differentiation strategies and whether assistants or extra staff are available.

Parent checklist — items to request from providers

Below are the documents and facts to request before booking; bring this list to enrollment conversations:

Age-appropriate curriculum and sample projects
Instructor credentials, bios and background checks statement
Student–teacher ratio and pre/post assessment approach
Language of instruction and detailed schedule
Cost breakdown, refund policy and invoice for subsidies or employer rebates
Safety policy, child protection policy and first aid arrangements
Data protection (Swiss law/GDPR) statement and storage details for project files
Hardware inclusion, loan terms and portfolio delivery (code repo, project video, certificate)

We recommend tracking reported metrics such as student satisfaction %, parent satisfaction %, number of projects completed per session and progression/return rates to measure success and compare providers.

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