🟢 CAMM + Paper: Fully recyclable with paper and certified CEPI 95/5.
 Home-compostable and water-soluble, leaving no microplastic trace.

🟢 Pure Paper: Easily recyclable in paper streams when clean and dry.
 Widely accepted, though limited in barrier performance.

🔴 Paper + PE: Plastic coating blocks fiber recovery.
 Not CEPI-compliant; usually landfilled or incinerated.

🟠 Bioplastics: Industrially compostable (EN 13432), but only in specialized facilities.
 Most end up in landfill due to missing infrastructure.

🔴 Conventional Plastics: Technically recyclable but rarely collected (< 15 %).
 Predominantly incinerated or exported, not truly circular.Description text goes here

🟢 CAMM + Paper: Completely toxin-free and microplastic-free.
 Safe for food contact and human health; contains no PFAS, phthalates, or heavy metals.

🟢 Pure Paper: Natural cellulose material; safe and non-toxic.
 However, coatings or printing inks can sometimes add chemicals.

🟠 Paper + PE: The plastic layer may contain additives or stabilizers.
 Potential for chemical migration over time, especially under heat.

🟠 Bioplastics: Generally considered safe, but degradation may release small polymer fragments.
 Limited research on long-term health effects of residues.

🔴 Conventional Plastics: Often contain additives (plasticizers, stabilizers, colorants) linked to toxicity.
 Release micro- and nanoplastics that can enter the food chain.Description text goes here

🟢 CAMM + Paper: Made from renewable, biodegradable ingredients.
 Fully circular — dissolves in water, integrates into paper recycling, and leaves no persistent waste.

🟢 Pure Paper: Renewable and recyclable, but requires high energy and water input for production.
 Limited durability often leads to higher material consumption.

🔴 Paper + PE: Hybrid material — difficult to separate; neither fully recyclable nor compostable.
 Relies on fossil-based plastics, causing long-term pollution.

🟠 Bioplastics: Partly renewable; performance depends on feedstock and infrastructure.
 Potentially sustainable in theory, but lacks real-world composting systems.

🔴 Conventional Plastics: Fossil-based, non-renewable, and persistent for centuries.
 Major contributor to microplastic pollution and climate emissions.Description text goes here

🟢 CAMM + Paper: Excellent strength, flexibility, and print quality.
 Delivers plastic-like performance while maintaining paper recyclability.

🟠 Pure Paper: Moderate quality — strong when dry but weakens when exposed to moisture.
 Limited durability and tear resistance for demanding applications.

🟢 Paper + PE: High performance — strong, flexible, and fully waterproof.
 However, plastic coating compromises recyclability.

🟠 Bioplastics: Acceptable quality for light-duty packaging; can deform under heat or pressure.
 Mechanical properties vary widely depending on polymer blend.

🟢 Conventional Plastics: High performance, strong, and flexible with excellent barrier protection.
 Stable in use but causes long-term pollution after disposal.Item description

🟢 CAMM + Paper: Runs on standard coating and heat-sealing equipment.
 No major process adjustments required — compatible with existing paper and film lines.

🟠 Pure Paper: Limited processability — cannot be heat-sealed.
 Requires adhesives, mechanical closure, or lamination for functional packaging.

🟢 Paper + PE: Excellent processability — fully compatible with current plastic machinery.
 However, introduces complex recycling challenges downstream.

🟠 Bioplastics: Narrow processing window; sensitive to temperature and humidity.
 Often requires special calibration and slower production speeds.

🟢 Conventional Plastics: Highly processable — flexible, fast, and efficient on all standard lines.
 Mature, cost-effective technology but environmentally outdated.Item description