Artificial Plant (plastic)

Material Composition Assumptions

The typical artificial plant contains multiple plastic components that contribute to its overall carbon footprint. Polyethylene serves as the primary structural plastic for stems and branches, representing approximately 250 grams or 42% of total material weight. Polypropylene forms secondary structural elements including pot components, accounting for roughly 180 grams or 30% of the product mass.

Polyethylene terephthalate creates the fabric-like leaves and flower petals through specialized textile processing, contributing about 90 grams or 15% of weight. Steel wire provides internal structural support throughout stems and branches, adding approximately 50 grams or 8% to the total mass. Concrete or similar mineral materials serve as weighting agents in the base, representing 30 grams or 5% of the finished product weight.

Optional polyvinyl chloride components may appear in flexible elements like vine-style plants, though this material carries higher carbon intensity compared to other plastic types used in the assembly.

Manufacturing Geography

China dominates global artificial plant manufacturing due to established plastic processing infrastructure, supply chain integration, and cost advantages. The country’s manufacturing facilities benefit from proximity to petrochemical feedstock sources and specialized tooling capabilities required for detailed plant replication.

Chinese manufacturing regions typically operate on grid electricity with carbon intensity around 574 grams of CO2 per kilowatt-hour, significantly higher than many developed economies. This grid composition heavily influences the carbon footprint of energy-intensive processes like plastic resin production and thermal forming operations.

The concentration of production in specific industrial zones allows for efficient material sourcing and waste stream management, though transportation distances to global markets create substantial Scope 3 emissions that dominate the overall carbon profile.

Regional Variation

Manufacturing Region	Grid Intensity	Estimated CCI Score	Adjustment vs Default
China (baseline)	574 gCO2/kWh	38	0%
India	708 gCO2/kWh	42	+11%
Vietnam	512 gCO2/kWh	35	-8%
Turkey	436 gCO2/kWh	32	-16%
Poland	398 gCO2/kWh	29	-24%

Provenance Override Guidance

1. Submit detailed material composition data including specific plastic resin grades, recycled content percentages, and exact weight measurements for all components including steel wire and weighting materials.

2. Provide manufacturing facility electricity consumption records with renewable energy certificates or power purchase agreements that demonstrate grid displacement or on-site clean energy generation.

3. Document transportation logistics including shipping methods, distances, packaging efficiency ratios, and consolidation factors for ocean freight and regional distribution networks.

4. Supply end-of-life management documentation showing recycling partnerships, material recovery rates, or take-back programs that divert products from landfill disposal.

5. Furnish supplier audit reports covering upstream resin production facilities, including any bio-based content, chemical recycling inputs, or process efficiency improvements beyond industry averages.

Methodology Notes

• The CCI score represents cradle-to-grave emissions for a single artificial plant unit weighing approximately 600 grams including all components and typical retail packaging materials.

• Scope 1 emissions focus on direct manufacturing processes including plastic molding, assembly operations, and facility energy consumption for production activities.

• Scope 3 emissions dominate due to upstream resin production, international shipping distances, and end-of-life disposal assumptions based on typical municipal waste management practices.

• The functional unit assumes a 15-year product lifespan under normal indoor display conditions without significant degradation or replacement needs.

• Excluded factors include retail facility operations, consumer transportation from point of sale, and potential air quality impacts from volatile organic compound emissions during use phase.

• Data gaps exist around specific manufacturing process energy requirements and regional variations in plastic waste management infrastructure that could affect end-of-life emission factors.