+353-1-416-8900REST OF WORLD
+44-20-3973-8888REST OF WORLD
1-917-300-0470EAST COAST U.S
1-800-526-8630U.S. (TOLL FREE)
New

Sweden Renewable Gas Waste Feedstock Management - Market Share Analysis, Industry Trends & Statistics, Growth Forecasts (2026-2031)

  • PDF Icon

    Report

  • 150 Pages
  • July 2026
  • Region: Sweden
  • Mordor Intelligence
  • ID: 6260120
The sweden renewable gas waste feedstock management market size is projected to be USD 0.61 billion in 2025, USD 0.66 billion in 2026, and reach USD 1.02 billion by 2031, growing at a CAGR of 9.10% from 2026 to 2031. This report is Segmented by Feedstock Type (Municipal Solid Waste, Agricultural Waste, Sewage Sludge / Biosolids and More) by End-Use Facility Type (Anaerobic Digestion (AD) Plants, Landfill Gas Recovery Sites and More), by Service Type (Feedstock Collection & Transport, Feedstock Testing & Laboratory Services and More). The Market Forecasts are Provided in Terms of Value (USD).

Sweden Renewable Gas Waste Feedstock Management Market Trends and Insights

Production Incentive Programs Accelerate Renewable Waste Feedstock Utilization

Sweden’s production support program has made qualified organic waste more valuable to biomethane producers. Applications for 2026 support exceeded the SEK 1.035 billion (USD 105.5 million) annual budget, with requests totaling SEK 1.058 billion (USD 107.8 million) for 3.8 TWh of production, 25% more volume than in the prior application cycle. This pressure encourages producers to sign longer supply agreements for manure, municipal biowaste, and food-processing residues. The support is paid in advance, but production must begin in the same calendar year, which increases the need for dependable feedstock and pre-treatment capacity. The government added SEK 100 million (USD 10.10 million) in 2025 and planned further funding increases for 2026 and 2027, which improves visibility for plant investments. Eligibility rules under RED III separate feedstocks that can access premium support from material that must depend more heavily on gate-fee economics. This distinction makes traceability and sustainability certification central to feedstock contracting in the Sweden renewable gas waste feedstock management market.

Advanced Municipal Bio-Waste Collection Strengthens Feedstock Availability

Sweden’s mandatory separate collection of biowaste continues to expand following nationwide implementation, increasing the availability of cleaner organic feedstocks for renewable gas production. Updated national collection volumes for 2025 have not yet been published. However, municipalities continue to strengthen source-segregated collection systems and increase participation among households and commercial waste generators. The organic material that remains in residual waste indicates significant potential to increase feedstock availability by diverting biodegradable waste from incineration. The Bio+ program is expected to launch a project in April 2026 to evaluate mechanically sorted biowaste recovered from residual waste as a supplementary substrate source. Tekniska verken receives food waste from 35 municipalities at its Linköping operations, demonstrating the scale and reliability that coordinated municipal collection contracts can provide. Waste policy reforms and clearer commercial waste collection responsibilities, expected to take effect in July 2026, are likely to bring additional organic waste from restaurants, retailers, and food manufacturers into regulated collection systems.

Intensifying Competition for High-Quality Organic Waste Resources

Rising competition for clean organic waste is restricting feedstock availability for biomethane producers as Sweden expands anaerobic digestion and gas upgrading capacity. Composting facilities, direct agricultural land application, thermal treatment, and other circular economy pathways are competing for food waste, fats, oils, and grease (FOG), limiting high-quality feedstock for renewable gas production. New biomethane projects are expected to intensify competition for premium substrates, especially in densely populated urban regions with the highest collection volumes. Feedstock quality is becoming a critical competitive factor, as substrate composition, contamination levels, and consistency affect methane yields and gate-fee revenues. According to a VTI analysis, producing 100 GWh of biogas requires approximately 86,184 tons of source-separated food waste, compared with 726,692 tons of manure, showing the significantly higher gas productivity of clean urban organic waste. This difference raises the commercial value of municipal food waste collection routes and encourages operators to secure long-term supply agreements with municipalities, retailers, food processors, and hospitality businesses before competitors do.

Other drivers and restraints analyzed in the detailed report include:

  • Growing Biomethane Consumption Across Heavy Mobility and Industrial Energy
  • Diverse Organic Residue Base Enhances Feedstock Supply Security
  • High Collection and Transportation Costs Reduce Feedstock Economics

Segment Analysis

Municipal solid waste (MSW), particularly the source-separated organic fraction, is expected to account for 30.8% of the Sweden renewable gas waste feedstock management market share in 2025. Predictable collection volumes, long-term municipal service contracts, and well-established source-segregation systems support its leading position by ensuring a consistent supply of relatively clean feedstock for anaerobic digestion. Sweden continues to expand separate biowaste collection under national and EU waste legislation, increasing the availability of municipal organic waste for biomethane production. Food and beverage processing waste is projected to register a CAGR of 10.5% through 2031, supported by its relatively low contamination levels, established collection streams, and favorable gate-fee arrangements that enhance its commercial value. Food manufacturers, breweries, dairies, and beverage processors generate relatively homogeneous organic residues that require less pre-treatment than mixed municipal waste. As demand for high-quality industrial feedstocks continues to increase, operators are investing in specialized collection and reception infrastructure to improve handling efficiency and maintain feedstock quality. Tekniska verken's expanded Linköping operations include dedicated solid- and liquid-waste reception facilities and an automated food-waste crane system, demonstrating how operators are strengthening their capacity to manage clean, source-separated organic waste streams. As renewable gas demand increases, competition for high-quality municipal and industrial food waste is expected to intensify, encouraging longer-term supply agreements and continued investment in advanced sorting and pre-treatment infrastructure.

Agricultural waste remains a strategically important feedstock because it provides one of Sweden's largest domestic organic resource bases and supports methane emission reductions from livestock production. Continued investment in farm-scale anaerobic digestion projects and government production incentives is increasing the contribution of manure and other agricultural residues to renewable gas production. Although manure generally delivers lower methane yields than food waste, it benefits from dedicated production support and contributes to nutrient recycling through biofertilizer production. Sewage sludge and biosolids provide a stable year-round feedstock stream for municipal wastewater treatment plants, although evolving environmental regulations and digestate quality requirements continue to influence future growth. Industrial organic waste, including residues from food manufacturing, pulp and paper processing, and other bio-based industries, complements municipal and agricultural feedstocks by improving feedstock diversity and enabling more flexible substrate blending.

Complete Report Scope:

  • By Feedstock Type
    • Municipal Solid Waste (Organic Fraction / Source-Separated)
    • Agricultural Waste (Manure, Slurry, Crop Residues)
    • Sewage Sludge / Biosolids
    • Food & Beverage Processing Waste (FOG, Spent Grains, Off-Spec Product)
    • Industrial Organic Waste (Breweries, Paper Mills, Pharma Effluent)
    • Others
  • By End-Use Facility Type
    • Anaerobic Digestion (AD) Plants
    • Landfill Gas Recovery Sites
    • Gasification / Thermal Treatment Facilities
    • Wastewater Treatment Plants (Co-Digestion)
    • Others (Pyrolysis, Hydrothermal)
  • By Service Type
    • Feedstock Collection & Transport
    • Feedstock Testing & Laboratory Services
    • Feedstock Quality Assurance
    • Digital Feedstock Monitoring Platforms
    • Feedstock Supply Chain Management & Consultancy

List of Companies Covered in this Report:

  • Feedstock Collectors & Aggregators:
  • Pre-Treatment Technology Providers:
  • Integrated Feedstock + RNG Operators:
  • Strategic Entrants:

Additional Benefits:

  • The market estimate (ME) sheet in Excel format
  • 3 months of analyst support

Table of Contents

1 Introduction
1.1 Study Assumptions & Market Definition
1.2 Scope of the Study
2 Research Methodology
3 Executive Summary
3.1 Market Snapshot (2025 vs 2031)
3.2 Key Findings by Segment
3.3 Investment Hotspots & White Space
4 Market Landscape
4.1 Market Overview
4.1.1 Role of Feedstock Management in the Renewable Gas Value Chain
4.1.2 Feedstock Management as a Profit Center Vs. Cost Center
4.1.3 Gate Fee Economics and Revenue Model for Feedstock Operators
4.2 Market Drivers
4.2.1 Production Incentive Programs Accelerate Renewable Waste Feedstock Utilization
4.2.2 Advanced Municipal Bio-Waste Collection Strengthens Feedstock Availability
4.2.3 Growing Biomethane Consumption Across Heavy Mobility and Industrial Energy
4.2.4 Diverse Organic Residue Base Enhances Feedstock Supply Security
4.2.5 Circular Economy Policies Drive Higher Waste-to-Gas Conversion Rates
4.2.6 Expansion of Biomethane Infrastructure Improves Feedstock Commercialization
4.3 Market Restraints
4.3.1 Intensifying Competition for High-Quality Organic Waste Resources
4.3.2 High Collection and Transportation Costs Reduce Feedstock Economics
4.3.3 Feedstock Availability Constraints Limit Long-Term Capacity Expansion
4.3.4 Seasonal Variability Creates Inconsistent Biomass Supply
4.4 Market Opportunities
4.4.1 Rising Liquefied Biomethane (LBG) Demand Creates New Feedstock Value Chains
4.4.2 Untapped Livestock Manure Resources Support Renewable Gas Expansion
4.4.3 Advanced Waste-to-Gas Technologies Improve Feedstock Conversion Efficiency
4.4.4 European Biomethane Trade Opens New Revenue Opportunities
4.5 Value Chain & Supply Chain Analysis
4.5.1 Waste Generation & Source Separation
4.5.2 Collection & Aggregation
4.5.3 Pre-Treatment & Conditioning
4.5.4 Feedstock Quality Assurance & Testing
4.5.5 Storage & Logistics
4.5.6 Dosing & Delivery to Facility
4.6 Regulatory Landscape
4.7 Technology Landscape (Pre-Treatment Focus)
4.7.1 Mechanical Pre-treatment (Depackaging, Shredding, Magnetic Separation)
4.7.2 Biological Pre-treatment (Pasteurization, Enzymatic Hydrolysis)
4.7.3 Thermal Pre-treatment (Thermal Hydrolysis Process THP)
4.7.4 Feedstock Quality Monitoring (BMP Analysis, Real-Time Sensors, AI Blending Optimization)
4.8 Insights on Waste Feedstock Generation (2026-2031)
4.9 Impact of AI & Digitalization on Feedstock Supply Chain Management
4.10 Geopolitical Factors Affecting Organic Waste Feedstock Flows
5 Market Size & Growth Forecasts
5.1 By Feedstock Type
5.1.1 Municipal Solid Waste (Organic Fraction / Source-Separated)
5.1.2 Agricultural Waste (Manure, Slurry, Crop Residues)
5.1.3 Sewage Sludge / Biosolids
5.1.4 Food & Beverage Processing Waste (FOG, Spent Grains, Off-Spec Product)
5.1.5 Industrial Organic Waste (Breweries, Paper Mills, Pharma Effluent)
5.1.6 Others
5.2 By End-Use Facility Type
5.2.1 Anaerobic Digestion (AD) Plants
5.2.2 Landfill Gas Recovery Sites
5.2.3 Gasification / Thermal Treatment Facilities
5.2.4 Wastewater Treatment Plants (Co-Digestion)
5.2.5 Others (Pyrolysis, Hydrothermal)
5.3 By Service Type
5.3.1 Feedstock Collection & Transport
5.3.2 Feedstock Testing & Laboratory Services
5.3.3 Feedstock Quality Assurance
5.3.4 Digital Feedstock Monitoring Platforms
5.3.5 Feedstock Supply Chain Management & Consultancy
6 Competitive Landscape
6.1 Market Concentration & Structure
6.2 Strategic Moves & Developments (2022 - 2025)
6.2.1 Mergers & Acquisitions
6.2.2 Feedstock Supply Contract Announcements
6.2.3 Pre-treatment Technology Partnerships & JVs
6.2.4 Geographic Expansion
6.3 Market Share Analysis (by revenue, by feedstock managed)
6.4 Company Profiles
6.4.1 Feedstock Collectors & Aggregators:
6.4.1.1 Gasum Oy
6.4.1.2 Tekniska verken i Linköping AB
6.4.1.3 Stockholm Exergi AB
6.4.1.4 SYSAV Industri AB
6.4.1.5 NSR AB (Nordvästra Skånes Renhållnings AB)
6.4.1.6 VafabMiljö Kommunalförbund
6.4.1.7 Borås Energi och Miljö AB
6.4.2 Pre-Treatment Technology Providers:
6.4.2.1 Scandinavian Biogas Fuels International AB
6.4.2.2 MalmbergGruppen AB
6.4.2.3 Purac AB
6.4.2.4 Biofrigas Sweden AB
6.4.2.5 Wärtsilä Biogas Solutions AB
6.4.2.6 Bright Renewables B.V.
6.4.3 Integrated Feedstock + RNG Operators:
6.4.3.1 St1 Biokraft AB
6.4.3.2 Scandinavian Biogas Fuels International AB
6.4.3.3 Tekniska verken i Linköping AB
6.4.3.4 Stockholm Exergi AB
6.4.3.5 Aneo Biogas Sverige AB
6.4.3.6 Söderåsens Bioenergi AB
6.4.4 Strategic Entrants:
6.4.4.1 Aneo AS
6.4.4.2 Stockholm Exergi AB
7 Market Opportunities & Future Outlook
7.1 White-Space & Unmet-Need Assessment
7.1.1 Emerging feedstock streams (Pharma Organics, Textile Effluent)
7.1.2 Technology gaps (Real-time Feedstock Quality Optimization at Scale)
7.2 Strategic Recommendations
7.3 Future Outlook: Feedstock Management in the 2030 Renewable Gas Economy

Companies Mentioned (Partial List)

A selection of companies mentioned in this report includes, but is not limited to:

  • Feedstock Collectors & Aggregators:
  • Pre-Treatment Technology Providers:
  • Integrated Feedstock + RNG Operators:
  • Strategic Entrants: