# Bio-building kits for children Children's construction and model-building toys built around a biological material or biological structure — GROWN.bio's Grow-It-Yourself mycelium shape kits, Bioblo's honeycomb-profile biocomposite building blocks, Thames & Kosmos' biology and architectural model-building sets, and 3D Molecular Designs' Cell Modeling Kit — distinct from conventional plastic building-toy brands and from the CRISPR/DNA-extraction lab-skills kits elsewhere in this catalog. Source: https://en.bioecon.ru/technology/bio-building-kits-children/ Updated: 2026-08-18 ## Overview and value chain Markers: [EC: FDA/CPSC-equivalent toy-safety guidance & EU REACH (toy material/reagent labeling) | OECD: Biotech & health | Regulator: FDA (USA), NMPA (China)] A bio-building kit for children is a construction or model-building toy in which the biology is not decorative but structural — either the building material itself is grown or made from a biological substrate, or the assembled model represents a real biological structure (a cell, a DNA molecule). The category spans two distinct mechanisms: a physically biological building material (mycelium grown into a shape, or a plant-fiber biocomposite brick) and a biology-as-subject construction set (snap-together cell and DNA models used as teaching aids). Prices range from about $8 for a small DNA-model set to $85 for a detailed cell modeling kit and €25-190 for biocomposite block sets of varying size; none require genetic engineering or lab reagents — the biology is either the raw material or the subject being modeled. The key directions of bio-building kits for children are: 1. **Grow-It-Yourself mycelium shape kits (GROWN.bio):** a substrate and a plastic growth-form mold are shipped together; the child feeds and shapes a living mycelium culture over one to two weeks into a finished, dried object such as a planter or wine cooler. 2. **Biocomposite building blocks (Bioblo):** honeycomb-profile bricks made from a wood-fiber/cellulose biocomposite rather than petroleum-based plastic, sold as open-ended stacking-block sets from 40-piece starter boxes to 340-piece big boxes. 3. **Biology and architectural model-building kits (Thames & Kosmos):** STEM kits that build physical models of real-world structures, spanning an "Architectural Engineering" 26-model structural-elements set to biology-specific kits (a microscope-and-lab set, an "Ooze Labs" squishable-organ human-body model). 4. **Molecular and cell model construction kits (3D Molecular Designs):** an open-ended Cell Modeling Kit ($85) whose components let middle- and high-school students physically build and explore cell structures and processes rather than only viewing a diagram. ### Sectoral value chain ``` [Biomaterial/model design] ──> [Kit assembly & packaging] ──> [Safety & curriculum documentation] ──> [Retail/classroom distribution] │ (age-grading & toy-safety testing) │ ▼ [Companion set reorder] <─── [Expansion packs / replacement forms] <────────┘ ``` ### Value chain levels | Level | Description | Key inputs/outputs | |:---|:---|:---| | **Biomaterial/model design** | Designing a mycelium substrate-and-mold system, a biocomposite brick formulation, or an anatomically/structurally accurate model kit | **In:** mycelium spawn, wood-fiber biocomposite resin, or model-accuracy reference data. **Out:** a buildable material or component system. | | **Component/brick manufacturing** | Manufacturing the growth-form molds, biocomposite bricks, or model components at production scale | **In:** raw biomaterial, molds/tooling. **Out:** shelf-ready components. | | **Kit assembly & packaging** | Packaging components, substrate, instructions and any required accessories into a single retail unit | **In:** components, packaging, printed instructions. **Out:** a shelf-ready kit. | | **Safety & curriculum documentation** | Toy-safety testing (choking hazard, material safety) and writing age-grading, care instructions or standards-aligned learning objectives | **In:** kit + safety/testing data. **Out:** a certified, classroom- or retail-ready product. | | **Retail/classroom distribution** | Selling through toy retail, direct e-commerce, or school science-supply catalogs depending on the product's positioning | **In:** packaged kits. **Out:** delivered retail units or classroom sets. | | **Building, growing & display** | The end use: assembling a model or growing/shaping a mycelium form into a finished, playable or displayable object | **In:** kit + child's assembly/care effort. **Out:** a finished built or grown object. | Cross-cutting technologies of the sector: - **Grow-It-Yourself mycelium forming:** a mycelium-and-substrate mixture is packed into a plastic mold and left to colonize for 1-2 weeks, then dried/baked to halt growth and lock in the final shape. - **Wood-fiber biocomposite molding:** cellulose and wood-fiber material is compounded and injection-molded into building-brick shapes, replacing petroleum-based ABS/plastic in a conventional stacking-toy format. - **Molecular model construction systems:** snap-together or magnetic components represent real molecular or cellular structures (base pairs, organelles) at a scale and level of detail suited to classroom teaching. --- ## US The US anchors the biology-model-building and molecular-education-kit ends of the category: Thames & Kosmos and 3D Molecular Designs both sell direct to consumers, schools and science-supply distributors. ### biology/architectural model-building kits, molecular and cell model kits - **Thames & Kosmos:** sells a broad STEM model-building line spanning an Architectural Engineering kit (26 structural-element models, a Parents' Choice Gold Award winner), a Kids First Biology Lab microscope-and-lab set, a metal-and-glass TK2 Scope biology microscope set (25 experiments), and an "Ooze Labs" squishable-organ human-body model. - **3D Molecular Designs:** sells the Cell Modeling Kit ($85), whose open-ended components let middle- and high-school students physically build cell structures and processes rather than only studying a static diagram. --- ## CN No China-based vendor with a confirmed direct-to-consumer or direct-to-school bio-building kit product surfaced in this screen. Chinese toy manufacturing capacity is enormous but the confirmed brands in this category (GROWN.bio, Bioblo, Thames & Kosmos, 3D Molecular Designs) are all Western-designed and -marketed, with China serving primarily as a manufacturing base for conventional plastic building toys rather than as the origin of a dedicated bio-material or biology-model-building brand. ### toy manufacturing base, no confirmed dedicated bio-building brand - **Market structure:** Chinese factories manufacture and export a large share of the world's conventional building-block toys, but no confirmed domestic brand built specifically around a biological growth material or biology-model concept was found in this screen. - **Distribution gap:** the same pattern as the other education/consumer-kit categories in this catalog — Chinese retail distribution for this niche runs through imported Western brands rather than a domestic branded product. --- ## EU The Netherlands and Austria anchor the confirmed EU activity in this screen: a Grow-It-Yourself mycelium kit maker and a biodegradable building-block toy maker both sell direct to European consumers. ### Grow-It-Yourself mycelium kits, biodegradable biocomposite building blocks - **GROWN.bio (Netherlands):** sells Grow-It-Yourself mycelium kits with interchangeable growth-form molds — a wine shipper (€48.40), a "Daisy" planter (€60), and a wine cooler (€60.50) — each shipped with substrate and instructions for the buyer to grow and shape at home. - **Bioblo (Austria):** sells honeycomb-profile building blocks made from a wood-fiber biocomposite rather than plastic, in sets from a 40-block rainbow starter box (€24.99) to a 340-brick Big Box, positioned as an eco-friendly alternative to conventional plastic stacking toys. --- ## Leading companies and research institutes | Company / Institute | Country | Key products / platforms | Tech features | Status 2026 | |:---|:---|:---|:---|:---| | **GROWN.bio** | 🇳🇱 Netherlands | *Grow-It-Yourself mycelium kits (wine shipper, planter, cooler forms)* | Mycelium substrate + mold, grows and dries into a finished object over 1-2 weeks; €48-60 per kit | Commercial | | **Bioblo** | 🇦🇹 Austria | *Honeycomb-profile biocomposite building blocks* | Wood-fiber biocomposite replacing plastic, €24.99 (40 blocks) to 340-brick Big Box | Commercial | | **Thames & Kosmos** | 🇺🇸 USA | *Architectural Engineering, Kids First Biology Lab, TK2 Scope, Ooze Labs* | Broad STEM model-building line spanning structural, biology and human-body model kits | Commercial | | **3D Molecular Designs** | 🇺🇸 USA | *Cell Modeling Kit* | Open-ended components for physically building cell structures, $85, middle/high school level | Commercial | --- ## Tech stack and innovations The category applies two distinct engineering approaches: growing or molding a genuinely biological building material, and translating real molecular/cellular structure into a physically buildable model. 1. **Living-material forming (GROWN.bio):** - A mycelium-and-substrate mixture packed into a plastic growth-form mold colonizes over roughly 1-2 weeks at room temperature, taking the shape of the mold as the fungal network binds the substrate together. - Drying or baking halts further fungal growth, locking the object into its final lightweight, biodegradable state. 2. **Biocomposite injection molding (Bioblo):** - Wood-fiber and cellulose material is compounded into a moldable biocomposite and injection-molded into the honeycomb-profile brick shape, replacing petroleum-based ABS plastic in a functionally equivalent stacking-toy format. 3. **Structural and molecular model accuracy (Thames & Kosmos, 3D Molecular Designs):** - Model components are engineered to represent real structural or biological relationships at a scale appropriate for the target age group — architectural load-bearing elements, or the relative size and arrangement of organelles within a cell — so the finished build teaches a real structural or biological principle rather than being purely decorative. --- ## Value chains and production pipelines ### Bio-building kit pipeline (toy-safety-reviewed consumer product) ``` ┌───────────────────────────┐ ┌───────────────────────────┐ │ 1. Biomaterial/model design│ ───> │ 2. Component/brick manufacturing│ └───────────────────────────┘ └───────────────────────────┘ │ ▼ ┌───────────────────────────┐ ┌───────────────────────────┐ │ 4. Safety & curriculum documentation│ <─── │ 3. Kit assembly & packaging│ └───────────────────────────┘ └───────────────────────────┘ │ ▼ ┌───────────────────────────┐ ┌───────────────────────────┐ │ 5. Retail/classroom distribution│ ───> │ 6. Building, growing & display│ └───────────────────────────┘ └───────────────────────────┘ ``` #### Stage 1: Biomaterial/model design A mycelium substrate-and-mold system, a biocomposite brick formulation, or a structurally/biologically accurate model kit is designed for the target age group and skill level. #### Stage 2: Component/brick manufacturing Growth-form molds, biocomposite bricks, or model components are manufactured at production scale, sized and shaped for safe handling by children. #### Stage 3: Kit assembly & packaging Components, substrate, instructions and any required accessories are packaged into a single retail-ready unit. #### Stage 4: Safety & curriculum documentation Toy-safety testing (choking hazard, material safety) is completed and age-grading, care instructions or standards-aligned learning objectives are written. #### Stage 5: Retail/classroom distribution Kits ship through toy retail, direct-to-consumer e-commerce, or school science-supply catalogs depending on the product's positioning. #### Stage 6: Building, growing & display The end user assembles a model or grows/shapes a mycelium form into a finished object, then plays with, displays, or (for the mycelium kits) uses the finished piece.