0
Article Tier 2 Sign in to save

Sustainably intensified fresh-market vegetable production with compact bed plasticulture

AI summary Read the abstract

Researchers designed compact bed plasticulture — taller, narrower raised beds — for fresh-market pepper and found it maintained or increased yields while cutting plastic mulch, drip tape, pesticides, and irrigation by 44–50%, reducing microplastic inputs, nitrogen loading, and carbon emissions by 928 kg CO₂-equivalents per hectare.

Intensive plasticulture systems must evolve to increase productivity while reducing resource use and environmental impacts under climate change. Here we design and evaluate compact bed plasticulture (CBP) using taller and narrower beds to modify the plastic-covered soil environment for reducing inputs, losses, and stressors while improving crop productivity and profits. Field experiments with fresh-market pepper showed that CBP maintained or increased yields while reducing inputs such as plastics (mulch and drip tape), pesticides, and irrigation volume by 44–50% compared to conventional systems. CBP also reduced saturation stress and was associated with reduced incidence of waterborne disease (Phytophthora wilt) in one season. CBP meets multiple Sustainable Development Goals by reducing carbon emissions (928 kg CO₂ eq./ha), nitrogen loading (34 kg/ha), subsurface water loss (43 cm), plastic waste, and the associated microplastics. These reductions lowered production costs (up to $1279/ha) and risks for growers, while offering opportunities to increase yield per unit area of farmland. Compact bed plasticulture maintains or increases vegetable yields while reducing inputs, environmental impacts, carbon emissions, and production risks, based on field experiments with fresh-market pepper and assessments of multiple metrics.

More Papers Like This

Article Tier 2

Data for "Sustainably Intensified Fresh-market Vegetable Production with Compact Bed Plasticulture" by Hansen et. al. 2026

AI summary Read the abstract

This dataset accompanies a 2026 study evaluating compact bed plasticulture—a modified raised-bed system with taller, narrower plastic-mulched beds—for fresh-market vegetable production. The system was designed to improve productivity and reduce plastic inputs, resource losses, and environmental stressors compared to conventional plasticulture.

Article Tier 2

Reducing Water, Nutrient, Pesticide, and Carbon Footprints and Costs for Drip-Irrigated Vine Crops with Compact Bed Plasticulture

AI summary Read the abstract

Narrower and taller compact bed plasticulture designs were evaluated for drip-irrigated vine crops, finding they reduced water, fertilizer, plastic, pesticide, and fuel inputs while maintaining watermelon yields. Compact beds reduced greenhouse gas emissions and production costs while increasing input productivity, representing a synergistic climate-smart plasticulture approach.

Article Tier 2

Data for "Sustainably Intensified Fresh-market Vegetable Production with Compact Bed Plasticulture" by Hansen et. al. 2026

AI summary Read the abstract

This dataset accompanies a 2026 field study on compact bed plasticulture (CBP) for fresh-market vegetables, providing experimental data on crop yields, resource use, and environmental outcomes under the modified bed design. The study demonstrated that CBP can improve both productivity and sustainability metrics compared to conventional plastic-mulched beds.

Article Tier 2

Data for "Sustainably Intensified Fresh-market Vegetable Production with Compact Bed Plasticulture" by Hansen et. al. 2026

AI summary Read the abstract

This dataset accompanies a 2026 field study on compact bed plasticulture (CBP) for fresh-market vegetables, providing experimental data on crop yields, resource use, and environmental outcomes under the modified bed design. The study demonstrated that CBP can improve both productivity and sustainability metrics compared to conventional plastic-mulched beds.

Article Tier 2

Waste-Based Vertical Planting System Proposal to Increase Productivity in Sustainable Horticulture; “PETREE”

AI summary Read the abstract

Researchers proposed a vertical planting system called PETREE, built from repurposed plastic waste containers, as a way to grow more food in less space. The system aims to address shrinking agricultural land and labor shortages by enabling efficient vertical horticulture. The study suggests that reusing plastic waste for sustainable food production could help tackle both plastic pollution and food security challenges.

Research digests by email

When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.

Email me about

Share this paper