Published May 13, 2026
Sustainable Ingredients & Product Reformulation, H1 2026
Explore the H1 2026 patent landscape, research trends, and emerging players shaping sustainable ingredients and product reformulation for food innovation.
Summary
The technology landscape for Sustainable Ingredients & Product Reformulation is active and increasingly practical, with 13 signals identified across a corpus of 565 findings made up of 272 patents, 221 papers, and 72 news items. The dominant theme is clear: alternative proteins are moving from broad exploration into functional optimization and product-ready formats. The strongest evidence clusters around plant-protein reformulation, food-grade extraction from underused biomass, fungi-based proteins, and fermented dairy-alternative systems. Taken together, the market is shifting from asking whether sustainable proteins are viable to determining which sources can meet taste, texture, solubility, clean-label, and scale-up requirements fastest.
The most important developments are concentrated in ingredient functionality and scalable sourcing. The signal "Plant proteins are being reformulated for solubility and texture" is strongly supported by filings such as , , and , which directly address solubility, gel strength, and process consistency in rice, soy, and oat proteins. In parallel, "Leaf and by-product proteins are moving toward food-grade extraction" is reinforced by and , indicating that green leaf and side-stream proteins are becoming more realistic sourcing options rather than fringe concepts. Jiangnan University and Northeast Agricultural University are the most visible players in this wave, while Aalborg University contributes notable work on membrane-based leaf biorefining. For product platforms closest to your portfolio, the signal "Fermented and probiotic plant-based dairy alternatives are diversifying" is backed by and , showing active work on oat, coconut, and mixed plant systems that directly support dairy-alternative reformulation.
Strategically, these signals align well with your goals to replace conventional ingredients, expand plant-based and fermentation-derived launches, and improve clean-label performance without sacrificing sensory quality. The implication is that functional qualification capabilities - especially around solubility, emulsification, off-note reduction, and texture control - are becoming a competitive bottleneck, not basic ingredient access. Geographic activity is heavily concentrated in China, which accounts for the largest share of findings and signals, with additional notable activity from South Korea, the United States, Denmark, Finland, and Italy. Technology maturity is also encouraging: many of the most relevant ingredient platforms sit at the prototype stage and are advancing, while some adjacent testing and processing tools are already commercial and advancing. That suggests near-term opportunity for pilot validation rather than long-horizon watchlisting, particularly in plant protein functionality, fermented beverage systems, and by-product protein extraction.
Looking ahead, competitive dynamics suggest both opportunity and pressure. The signal "Alternative proteins are shifting from concept to portfolio strategy", supported by , shows established food groups still using acquisitions and portfolio repositioning to build presence in plant-based categories, even as weaker players such as those referenced in temper category sentiment. At the same time, "Mycoprotein and fungi-based meat formats are maturing" - supported by , , and - points to fermentation-derived proteins becoming more commercially tangible. For this business line, the near-term priority is not broad scouting alone, but faster selection of the few ingredient platforms that can clear regulatory, sensory, and scale-up hurdles in the next 24 months.
Attention required
3Prioritize plant protein functionality screening
High-relevance signals show rapid progress in solubility, gelation, and texture tuning for rice, soy, oat, and mixed plant proteins. Accelerating internal benchmarking and supplier screening now will improve odds of hitting reformulation and new-launch targets before these capabilities become table stakes.
Backed by
Assess leaf and side-stream protein sourcing
Food-grade extraction from leaves and by-products is moving closer to practical ingredient supply, with implications for cost, Scope 3 reduction, and portfolio differentiation. A decision is needed on whether to begin exploratory supplier qualification and regulatory feasibility work for these emerging streams.
Backed by
Review alternative protein portfolio timing
Competitors are still making portfolio moves in plant-based categories despite uneven market sentiment, which raises the risk of either late entry or poorly timed investment. Leadership should revisit launch sequencing and category focus, especially where fungi-based or fermentation-derived formats may offer better differentiation than crowded conventional plant-based segments.
Backed by
Signals
Strategic shifts and opportunities identified across the landscape.
Landscape
Where the activity is happening, who is driving it, and how mature it is.
Geographies
Players
| Name | Country | Activity | Findings | Signals |
|---|---|---|---|---|
| Jiangnan University | China | PatentsPapers | 8 | 5 |
| Northeast Agricultural University | China | PatentsPapers | 8 | 4 |
| Dalian Polytechnic University | China | PatentsPapers | 4 | 1 |
| Jilin University | China | Patents | 4 | 2 |
| Aalborg University | Denmark | Papers | 2 | 2 |
| Beyond Meat | United States | News | 2 | 1 |
| Bohai University | China | PatentsPapers | 2 | 1 |
| Enifer | Finland | News | 2 | 2 |
| Inner Mongolia Mengniu Dairy Group Co Ltd | China | Patents | 2 | 2 |
| Nanjing University of Finance and Economics | China | PatentsPapers | 2 | 2 |
| Ocean University of China | China | Papers | 2 | 2 |
| Shihezi University | China | PatentsPapers | 2 | 1 |
| Zhejiang University of Technology ZJUT | China | Patents | 2 | 1 |
Technology readiness
| Technology | Domain | Stage | Trend | Findings |
|---|---|---|---|---|
| Dietetic Food Products – Dietetic Food Products | Food and Beverage Processing | Lab stage | Advancing | 51 |
| Dietetic Food Products – Additive-Based Nutrition Modification | Food and Beverage Processing | Lab stage | Advancing | 51 |
| Dietetic Food Products – Plant Extract Additives | Food and Beverage Processing | Lab stage | Advancing | 51 |
| Dietetic Food Products – Vitamin-Enriched Foods | Food and Beverage Processing | Lab stage | Advancing | 51 |
| Dietetic Food Products – Dietary Fibre Addition | Food and Beverage Processing | Lab stage | Advancing | 51 |
| Dietetic Food Products | Food and Beverage Processing | Lab stage | Advancing | 51 |
| Cereal-Derived Products | Food and Beverage Processing | Prototype | Advancing | 35 |
| Food Shaping and Working – Food Extrusion | Food Shaping and Coating | Prototype | Advancing | 31 |
| Food Shaping and Working | Food Shaping and Coating | Prototype | Advancing | 31 |
| Food Preservation and Additives | Food and Beverage Processing | Commercial | Advancing | 28 |
| Meat Products | Food and Beverage Processing | Commercial | Advancing | 27 |
| Foods with Additives – Microbial Thickening Agents | Food and Beverage Processing | Prototype | Advancing | 26 |
| Foods with Additives | Food and Beverage Processing | Prototype | Advancing | 26 |
| Agriculture and Food Industries | Low-Carbon Manufacturing | Lab stage | Advancing | 25 |
| Seasonings, Flavourings, and Sweeteners | Food and Beverage Processing | Prototype | Advancing | 24 |
| Peptide and Protein Preparation | Peptide and Protein Production | Lab stage | Advancing | 24 |
| Health-Effect Foods – Health-Effect Foods | Food Composition Classification | Lab stage | Advancing | 24 |
| Bacteria and Culture Media – Bacteria and Culture Media | Microorganisms & Enzymes | Lab stage | Advancing | 24 |
| Other Edible Oils | Edible Oils and Fats | Commercial | Advancing | 24 |
| Protein Processing for Food – Soy Protein Processing | Food Protein Technologies | Prototype | Advancing | 23 |
| Protein Processing for Food – Microbial Protein Processing | Food Protein Technologies | Prototype | Advancing | 23 |
| Protein Processing for Food – Protein Texturising | Food Protein Technologies | Prototype | Advancing | 23 |
| Protein Processing for Food | Food Protein Technologies | Prototype | Advancing | 23 |
| Food Analysis – Food Analysis | Materials Testing and Analysis | Commercial | Advancing | 21 |
| Enzymology and Microbiology Apparatus | Enzymology and Microbiology Apparatus | Lab stage | Advancing | 20 |
| Edible Food Coating – Edible Coating Application | Food Shaping and Coating | Prototype | Advancing | 19 |
| Protein Extraction for Food | Food Protein Technologies | Prototype | Advancing | 18 |
| Product-Defined Food Processing – Particle Encapsulation | Food Shaping and Coating | Prototype | Advancing | 17 |
| Vegetable Proteins – Vegetable Proteins | Food Protein Technologies | Prototype | Advancing | 16 |
| Agricultural GHG Reduction – Agricultural GHG Reduction | Low-Carbon Manufacturing | Lab stage | Advancing | 15 |
| Milk Substitute Products | Dairy and Milk Product Processing | Prototype | Advancing | 12 |
| Food Agglomeration Processes – Food Agglomeration Processes | Food Shaping and Coating | Prototype | Advancing | 4 |
Findings
The underlying patents, scientific papers, and news that backed the analysis.