Bản dự thảo.Báo cáo này là bản dự thảo và có thể thay đổi.
  1. Trang chủ
  2. Phụ lục

Phụ lục J

J. State of the science by technology family

What the peer-reviewed evidence says in 2026 about each alternative-protein technology family, from plant proteins and fermentation to duckweed and cultivated seafood, with key numbers and DOIs, what each means for Vietnam, and a table of corrections to earlier claims.

45 phút đọcÝ nghĩa các nhãn

Nội dung trang này bằng tiếng Anh. Đọc bản tóm tắt tiếng Việt

Trong trang này
  1. J.1 Overview: where each family stands in 2026
  2. J.2 Plant proteins and texturisation
  3. J.3 Protein quality and DIAAS
  4. J.4 Fungal biomass, mycoprotein and koji
  5. J.5 Yeast and bacterial single-cell protein
  6. J.6 Precision fermentation
  7. J.7 Microalgae
  8. J.8 Duckweed and aquatic plants
  9. J.9 Seaweed
  10. J.10 Mushrooms and mycelium
  11. J.11 Cultivated meat and seafood
  12. J.12 Insects (benchmark only)
  13. J.13 Tropical fermentation
  14. J.14 AI in research and development
  15. J.15 Corrections to earlier claims
  16. J.16 Techno-economic benchmarks used in this appendix
  17. Gaps and how to close them
  18. Related data files

This appendix sets out the state of the science in September 2026 for each technology family that could supply alternative protein from Vietnam. For each family it gives the key numbers with their DOIs, what the evidence means for Vietnam, and where our earlier drafts were wrong. Technology fit draws the conclusions; Costs and benchmarks holds the full cost inputs; K. Research landscape holds the Vietnamese research record.

Most of the evidence here is global. Vietnamese data exist only for a few families (aquafeed trials, side-stream protein extraction, microalgae cultivation). Where evidence is absent, we say so.

J.1 Overview: where each family stands in 2026

The "Vietnam evidence base" column summarises the Vietnamese peer-reviewed record found in wave 1 (Scite) and wave 2 (OpenAIRE), detailed in each section below. Counts are lower bounds 1,2 .

FamilyState of the science in 2026 (our reading of the sources below)Headline numberVietnam evidence baseEvidence for the headline number
Plant proteins and texturisationMature globally; no verified capex benchmark for extrusion foundSoy isolate DIAAS 97 (pigs)About 5 plant-based meat papers; no Vietnamese extrusion study (edition 1.1)3,4
Protein quality (DIAAS)Measured values exist for major ingredients; few human dataMung bean digestibility about 20% lower in children than pigsNo Vietnamese DIAAS or PDCAAS study found5
Fungal biomass, mycoprotein, kojiCommercial abroad; RNA reduction a fixed costMycoprotein USD 29.56/kg protein (US model)Fungal genetic tools; no mycoprotein study6
Yeast and bacterial SCPCommercial in feed abroad; partial fishmeal replacement provenGas-fermentation protein replaces about 30% of fishmeal in shrimpSpent brewer's yeast work; one 2016 methanotroph isolation7
Precision fermentationCommercial for high-value ingredients; bulk proteins below titre benchmarkBest leghemoglobin 10.1 g/L vs "above 50 g/L" benchmarkPichia expression of pharma proteins; no food protein8,9
MicroalgaeCommercial for supplements; protein quality data thinNo DIAAS for microalgal biomass (2021 review)Moderate for cultivation; thin for protein10
Duckweed and aquatic plantsProtein concentrate judged safe in EU; whole powders blocked by manganeseLemna protein concentrate safe (EFSA 2023)Germplasm collection and genome; no protein study11
SeaweedNot reviewed in depth in this studynone3 to 5 small feed studiesnone
Mushrooms and myceliumMycelium foods approved in Singapore3 mycelium or Neurospora approvals in SingaporeModerate for cultivation; thin for food protein12
Cultivated meat and seafoodApprovals exist; cost and density far from food economics28 million cells/mL best animal-free densityNo fish or shrimp cell line developed in Vietnam13
Insects (benchmark)Commercial in feed; limited fishmeal replacement in shrimp20% fishmeal replacement without loss in shrimpThin to moderate (feeding trials)14
Tropical fermentationThermotolerant strains documented; cooling saving not measured39 to 46 g/L yeast at 40 C on raw cassava starchTropical Fermentation Network links15
AI in R&DNot reviewed in this studynonenone foundnone

J.2 Plant proteins and texturisation

State of the science in 2026

  • Protein quality of common isolates and concentrates is covered in section J.3. Soy isolate is the reference: measured pig DIAAS of 97 on the older child and adult pattern 3 .
  • Costs. We found no verified capex or opex benchmark for plant protein isolation or high-moisture extrusion. The only Southeast Asian TEA found (a Thai study of freeze-aligned meat analogue, doi:10.1016/j.fufo.2023.100269) had no readable text 16 .
  • Indicative Vietnamese cost of textured soy protein (TVP). Our wave 1 worked example puts dry TVP from soy flour or concentrate at USD 790 to 2,070 per tonne ex-factory (about 3,700 to 10,700 VND per 100 g of protein). Imported soy flour or concentrate is about 70% of the cost. This is our calculation from sourced Vietnamese input prices and assumed equipment costs 17,18,19 . See Costs and benchmarks.

Vietnamese evidence

  • Side-stream plant protein is Vietnam's most developed line. Rice-based dried distillers' grain (DDG) from Vietnamese ethanol plants holds 55 to 80% protein on a dry basis; cassava DDG holds only 13 to 16% (2024 preprint, doi:10.21203/rs.3.rs-3171967/v1) 20 . Alkaline extraction recovered 90% of rice DDG protein, and enzymatically extracted protein was 77.1% digestible in vitro (doi:10.1002/apj.70043) 21 .
  • Other extraction work: ultrafiltration recovery of rice protein (doi:10.1016/j.ifset.2021.102692) and rice bran protein isolate (2016) 22,23 .
  • Products. Replacing 10 to 15% of meat with germinated mung bean flour was accepted in sausage (doi:10.1111/ijfs.17089); mangosteen peel extract extended the shelf life of soy burgers (doi:10.17113/ftb.63.01.25.8629) 24,25 . A 2026 review of plant-based fish analogues has a Vietnamese first author whose affiliation was not established 26 .
  • Counts. The OpenAIRE query for plant-based meat returned 9 Vietnam-tagged records for 2015 to September 2026; we judged about 6 to be on topic in edition 1.0. One of them, a 2025 study of the texture of meat-analogue extrudates (doi:10.1093/ijfood/vvae080), turned out in edition 1.1 to come from a Taiwanese university, leaving about 5 2,4 .
  • Equipment. We found no extruder for food texturisation in the Vietnamese literature or on the pages of pilot facilities we read 1,27 . No local maker of extruders was confirmed, and the Vietnam presence of the main foreign vendors could not be verified 28,29 .

What it means for Vietnam

  • Production cost is not what blocks textured plant protein in Vietnam. On our indicative estimate, the ex-factory cost of TVP protein is roughly 4 to 19 times below the retail price of meat and egg protein, so product quality, demand and distribution margins decide 30,31,32 .
  • Vietnam's cost edge is small because the main input, soy, is imported: Vietnam imported 2.61 Mt of soybeans in 2025, 98.4% of supply 33,34 .
  • The knowledge gap is specialist: extrusion, texturisation and sensory structure work are almost absent from the Vietnamese literature 1,2 . Rice DDG and broken rice are the obvious local protein bases to texturise.

J.3 Protein quality and DIAAS

State of the science in 2026

DIAAS (Digestible Indispensable Amino Acid Score) is the current FAO method for protein quality. Values below come from ileal digestibility measured in growing pigs unless stated.

IngredientDIAAS, older child and adult patternDIAAS, young child patternLimiting amino acidSource (DOI)Evidence
Soy protein isolate9783Sulphur amino acidsdoi:10.1002/jsfa.128093
Pea protein concentrate7060Sulphur amino acidsdoi:10.1002/jsfa.128093
Brown rice protein concentrate42not givenLysinedoi:10.1002/jsfa.128093
Cooked mung bean8668Leucine (older); lysine (young)doi:10.3390/nu1212383135
  • Human data differ from pig data. In Indian children under 2 years, true ileal digestibility of indispensable amino acids (dual isotope method) was 65.2% for mung bean, 78.5% for rice and 87.4% for egg. Mung bean digestibility was about 20% lower than pig estimates (doi:10.1093/ajcn/nqy265) 5 . Typical cereal-legume complementary diets had a DIAAS of about 80; adding egg or milk raised it to 100 in calculation 5 .
  • Blends. We found no measured (in vivo) rice plus legume blend with a DIAAS of 100 or more. Claims of 100 come from calculations, for example pea plus rice blends reaching a PDCAAS of 1.00 on the adult pattern (doi:10.1139/apnm-2021-0806) 36 .
  • Microalgae and duckweed. No DIAAS for microalgal biomass was available as of a 2021 review (doi:10.3390/foods10123002) 10 . For duckweed we found only amino-acid scores and in vitro digestibility (section J.8), and no PDCAAS or DIAAS study 37,38 .

Vietnamese evidence

  • We found no Vietnamese DIAAS or PDCAAS study 1 . In vitro digestibility has been reported, for example 77.1% for rice DDG protein 21 .
  • No Vietnamese laboratory page we read lists an amino-acid profile or a protein-digestibility assay among its services; PDCAAS and DIAAS work will probably need an overseas laboratory for now 39,40 .

What it means for Vietnam

  • Mung bean is a strong local legume by pig DIAAS but weaker in humans; rice protein alone is poor because it is lysine-limited 3,35,5 . Prefer human data for food claims (DG-110).
  • A Vietnamese DIAAS reference dataset (rice DDG, mung bean, spent yeast, catfish side-stream isolates, spirulina) is a cheap public good that any novel-food dossier will need.

J.4 Fungal biomass, mycoprotein and koji

State of the science in 2026

  • RNA reduction is a fixed cost. Mycoprotein RNA falls from about 10% to about 2% of dry weight after a 68 C, 20-minute heat step that lets the fungus's own enzymes break down RNA. The step is described as industrially expensive (doi:10.3390/nu12041115) 41 . A secondary review says below 1% is needed "to be considered safe"; we use the primary figure (DG-107) 42 .
  • Protein content. Fusarium venenatum mycoprotein is about 30 to 45% protein on a dry basis (secondary review, doi:10.3390/fermentation11010024) 42 .
  • Aspergillus oryzae safety. A. oryzae cannot make aflatoxin, because its aflatoxin gene cluster carries disabling mutations. It can make cyclopiazonic acid (CPA) and 3-nitropropionic acid. Modern industrial strains carry a deletion that removes both the aflatoxin and CPA clusters. Kojic acid is not classed as a mycotoxin. Reports of aflatoxin-producing "A. oryzae" are misidentified A. flavus (doi:10.1007/s00253-018-9354-1) 43 .
  • Fungal biomass on side streams. In a shake-flask study on diluted molasses vinasse, crude protein (N x 6.25) was 44.7% for A. oryzae, 57.6% for Neurospora intermedia and 50.9% for Rhizopus oryzae; F. venenatum and Monascus purpureus did not grow (doi:10.3390/fermentation5040099) 44 . The biomass yield the paper reports cannot be read as a broth concentration (see the correction below).
  • Costs. A full TEA of continuous airlift mycoprotein production (2 x 155 m3 reactors, 2,000 kg/h wet output) gives USD 3.55/kg wet, or USD 29.56/kg of protein, with capex of about USD 108 million; the reactors are 66.7% of capex (doi:10.3389/fsufs.2023.1204307) 6 . The authors conclude that mycoprotein can match beef on protein cost but "will not be an economic alternative for inexpensive products such as chicken". Buying food-grade biotin and zinc sulphate instead of laboratory grade cut cost by 22% 6 .
  • Approvals. Singapore has approved five fungal biomass or mycoprotein ingredients: Nature's Fynd (2021), The Protein Brewery (2024), The Better Meat Co (2024), Infinite Roots (2025) and Ultimeat (2026) 12 . China reportedly issued its first mycoprotein approval in 2025 (Fushine Biotech); the date was not verified 45,46 .

Vietnamese evidence

  • VNU Hanoi groups have built fungal genetic tools: a dual-auxotrophic transformation system in A. oryzae (doi:10.1007/s11274-021-03060-z) and 100% pyrG deletion efficiency in five Cordyceps militaris strains, the base for a food-grade expression platform (doi:10.47371/mycosci.2024.10.003) 47,48 .
  • A 2025 study in the National Institute for Food Control journal tested aflatoxin in 38 samples of traditional fermented soy (tương) 49 .
  • A 2025 preprint reports that solid-state fermentation of cassava and soybean residue with oyster-mushroom (Pleurotus ostreatus) mycelium raised protein 1.84-fold 50 .
  • We found no Vietnamese study on mycoprotein or tempeh-type food fungi 1,2 .

What it means for Vietnam

  • Fungal biomass on cassava or molasses residues is scientifically plausible, but published yields per litre must be read with care. Pilot data on Vietnamese substrates are needed before any cost model.
  • A koji route that relies on the tương tradition still needs strain characterisation for CPA and 3-nitropropionic acid. Wild starter cultures are not automatically safe, and industrial deletion strains are proprietary 43 .
  • RNA reduction and drying are unavoidable cost lines for food use; feed use tolerates higher RNA 41 .
  • Our indicative Vietnamese cost of fungal biomass protein for feed is USD 2,227 to 6,612 per tonne of product, or USD 4,050 to 14,700 per tonne of protein; capital charges and maintenance are 54 to 67% of cost (our calculation, wave 1 worked example) 6,51,18 . Fishmeal protein cost about USD 2,625 per tonne in 2025 and USD 3,846 in August 2026 52 .

J.5 Yeast and bacterial single-cell protein

State of the science in 2026

Yeast.

  • Candida utilis grown on cassava peel hydrolysate reached 47.5% crude protein on glucose, 49.1% on acid hydrolysate and 56.7% on enzymatic hydrolysate, with a biomass yield of 0.44 to 0.52 g per g of sugar and a maximum growth temperature of 41 C (doi:10.17265/2159-5828/2012.08.004) 53 . These are crude protein values (N x 6.25), which include nucleic-acid nitrogen, from a low-tier journal on Nigerian cassava peel.
  • Brewer's yeast replaced 45% of fishmeal in hybrid "Thai Panga" catfish with better growth and immunity, according to a 2024 review (doi:10.3390/ani14192851) 54 .
  • China's Angel Yeast makes more than 11,000 t/yr of yeast protein at Yichang 46 .

Bacterial SCP in aquafeed. Single-cell protein trials are summarised below (details in replacement_trials.csv).

Organism and productSpeciesResultSource (DOI)Evidence
Clostridium autoethanogenum protein (CAP, gas fermentation of steel-mill off-gas, about 84% crude protein)Whiteleg shrimpReplaces about 30% of fishmeal without growth lossdoi:10.1016/j.aqrep.2021.100938, cited in doi:10.1155/2022/82252737
CAPWhiteleg shrimpHalving fishmeal (25% to 12.5% of diet) cut growth unless 0.06% chenodeoxycholic acid (a bile acid) was addeddoi:10.3390/ani1313210955
CAPWhiteleg shrimpImproved growth and survival after pathogen challenge at 15 to 45 ppt salinitydoi:10.3389/fimmu.2022.103499456
CAPLargemouth bass67 to 68% of fishmeal replaced (from a 70% fishmeal diet); 100% reduced growthdoi:10.3390/metabo1211108857
CAPLarge yellow croaker15% of fishmeal; 30 to 45% reduced growthdoi:10.3390/fishes705022858
Methanotroph meal (Methylococcus capsulatus Bath)Whiteleg shrimp (30% of test diet)Protein digestibility lower than the control; growth reduceddoi:10.1155/2022/82252737
FeedKind (methanotroph SCP, 75.14% crude protein)Black sea breamUp to 24.8% of fishmeal protein replaced without lossdoi:10.3389/fmars.2021.77830159
FeedKindLargemouth bass3 to 6% of diet equal to control; 9% worsedoi:10.3390/antiox1108147960
Methanotroph SCPBarramundi fry25% and 50% replacement both harmful (enteritis, lower survival)doi:10.1111/jfd.1398561
Mixed-culture SCP from soybean-processing wastewater (preprint)Whiteleg shrimpUp to 90% of fishmeal replaced with growth maintained (up to 220 g SCP per kg of feed)doi:10.64898/2025.12.11.69382562
  • Bacterial SCP can reach up to about 65% protein on a dry basis (secondary review) 42 .
  • A single trial is not the last word on methanotroph meal: FeedKind-specific shrimp trials were not retrieved 7 .

Costs and scale.

  • SCP from steel-mill off-gas via acetate: USD 4.15/kg (USD 2.78/kg if intensified), with USD 320 million of capital for 20,000 t/yr (doi:10.3390/fermentation9080771) 51 .
  • SCP from hydrogen and CO2: minimum selling price USD 2,070/t (abstract only, doi:10.1021/acs.est.3c10312) 63 .
  • SCP made with renewable electricity: EUR 5.5 to 6.1/kg of protein in 2028, EUR 4.0 to 4.5 in 2030 and EUR 2.1 to 2.3 in 2050 at optimal sites (doi:10.1038/s41467-025-56364-1) 64 .
  • Scale references: Solar Foods' Factory 01 can make at most 160 t/yr of Solein 65 ; Calysseo runs a 20,000 t/yr FeedKind plant in Chongqing with two 10,000 t/yr fermenters 66 ; ICI's 1,500 m3 Pruteen feed-SCP reactor ran from 1979 to 1987 and sold at about twice the price of soy protein 6 .
  • A Chinese bacterial biomass from glutamic-acid fermentation, at least 70% crude protein, is already imported into Vietnam for pig, poultry, fish and shrimp feed 67 .

Vietnamese evidence

  • HUST studied nucleic-acid reduction in spent brewer's yeast hydrolysate (2018) and recovered 84.9% of the protein from spent brewer's yeast for a food product (2024) 68,69 .
  • Spent brewer's yeast replaced up to 60% of fishmeal protein in giant freshwater prawn without loss of growth or survival (doi:10.1111/anu.12915) 70 . Brewer's yeast has also been tested against soybean meal in Nile tilapia 71 .
  • A 2016 paper isolated a methane-oxidising bacterium for SCP, with no follow-up found 72 . A 2023 conference paper on SCP from bamboo cellulose was retracted and is not used 73 .
  • We found no Vietnamese trial of bacterial SCP, methanotroph meal or microalgae as bulk protein in pangasius or shrimp 1 .

What it means for Vietnam

  • Shrimp feed is the right target for bacterial and yeast SCP, but the evidence supports partial replacement (about 30% of fishmeal per ingredient), not full replacement 7,55 .
  • Pangasius and tilapia feeds already use little fishmeal, so SCP there competes with soybean meal on price, a harder benchmark: soybean meal protein cost about USD 880 per tonne in August 2026 against USD 3,846 for fishmeal protein 52 .
  • Early life stages need their own trials; the barramundi fry result is a warning 61 .
  • SCP from tofu and soy-milk wastewater is a Vietnam-relevant lead worth a local trial, but it rests on one preprint 62 .
  • For legal routes (livestock list, aquafeed trials, penalties since August 2026), see G. Regulation.

J.6 Precision fermentation

State of the science in 2026

  • The titre benchmark. The leading review states: "The cost-efficiency requirements involve production titers above 50 g/L" (Nielsen, Meyer and Arnau, Annual Review of Food Science and Technology 15:173-187, online 2023, issue 2024; doi:10.1146/annurev-food-072023-034256) 8 . The same group repeats "protein titers well above 50 g/L are needed" in 2025 and gives cost targets of USD 10/kg by 2025 and USD 1/kg by 2035 as "envisaged" (doi:10.1177/15509087251398318) 74 . Neither paper shows the cost model behind the 50 g/L figure: it is an expert assertion, not a calculated threshold.
  • Industrial hosts. Industrial A. oryzae strains are the most mature hosts. A 2025 study on bovine beta-lactoglobulin raised product amount by 79% and carbon yield by 73% through pH, temperature and feed optimisation, but kept the absolute titre confidential 74 .
  • Best published leghemoglobin titres:
    • 3.5 g/L, secreted, in Pichia pastoris (Shao et al. 2022, doi:10.1016/j.biortech.2022.127884; value read through a citing paper) 75,76 ;
    • 7.27 g/L, intracellular, in Kluyveromyces marxianus (Tian et al. 2024, doi:10.3389/fbioe.2023.1329016) 76 ;
    • 10.1 g/L in 5 L bioreactors, also in K. marxianus (Chen et al. 2026, doi:10.1002/biot.70239) 9 . These are 5 to 15 times below the bulk-protein benchmark. Heme proteins are used at only 0.5 to 2% of a product, so the benchmark binds less for them 9 .
  • Trichoderma reesei. VTT produced beta-lactoglobulin and ovalbumin in T. reesei (Aro et al., Food Research International 163:112131, dated 2023; doi:10.1016/j.foodres.2022.112131), but we could not read the titres 77 . VTT reports brazzein (a sweet protein) at 1.3 g/L in a 250 mL bioreactor, with an estimated cost of EUR 57 to 80/kg; it also states more than 80 g/L for one unnamed heterologous protein as unpublished data, which we treat as a claim, not evidence (doi:10.3389/fbioe.2025.1688495) 78 .
  • OPENPichia. A genome-sequenced Komagataella phaffii type strain (NCYC 2543) with a HOC1 truncation that restores transformability. It is near-identical to the patented strain NRRL Y-11430, and no strain was consistently better at protein production. It comes under "liberal end-user distribution licences" that allow royalty-free commercial manufacture, with a toolkit free of third-party material transfer agreements (doi:10.1038/s41564-023-01574-w) 79 .
  • Regulatory science. EFSA issued an opinion in 2024 on soy leghemoglobin from genetically modified K. phaffii as a food additive (colour in meat analogues) (doi:10.2903/j.efsa.2024.8822) 80 . Singapore has approved three precision-fermented ingredients: Remilk beta-lactoglobulin (2023) and two human milk oligosaccharides from Chr. Hansen (2025) 12 .
  • Costs and capacity. We could not verify any peer-reviewed TEA for precision-fermented food proteins. For scale, Liberation Bioindustries' plant in Richmond, Indiana has 600 m3 of fermentation and starts operating in 2026 81 .

Vietnamese evidence

  • Vietnam has moderate strength in recombinant expression, mostly of pharmaceutical and enzyme proteins: growth factors FGF-2, KGF/FGF7 and PDGF-BB in Pichia (VNU-HCM, 2020 to 2021), an alkaline phytase aimed at aquafeed (2025) and a bacteriocin applied to pork bologna (2024) 82,83,84,85,86 .
  • After screening, Vietnam has zero records on precision fermentation or recombinant food proteins (dairy, egg, heme) for 2015 to 2026 2,1 .

What it means for Vietnam

  • A Vietnamese precision-fermentation startup using public strains would start 5 to 10 times below the bulk-protein titre benchmark. High-value, low-dose ingredients (heme proteins, sweet proteins, enzymes) are the only near-term fit 8,9 .
  • OPENPichia removes one freedom-to-operate barrier for Vietnamese groups already working with Pichia; product-specific patents (for example on leghemoglobin constructs) still apply 79 .
  • K. marxianus links precision fermentation to thermotolerance (section J.13), which suits Vietnam's climate 76,15 .
  • Legally, a precision-fermented protein is probably a "product of a GMO" in Vietnam, and a plant using a GM strain needs MAE's closed-production certificate 87 . See G. Regulation.

J.7 Microalgae

State of the science in 2026

  • No DIAAS for microalgal biomass was available as of a 2021 review 10 . We did not verify spirulina protein content or digestibility in this study.
  • In a whiteleg shrimp digestibility screen at 30% of the test diet, Chlorella did not reduce growth, while methanotroph meal and insect meals did 7 .
  • Singapore has approved two Chlamydomonas reinhardtii algae biomass ingredients from Triton Algae Innovations (2019 and 2022) 12 .

Vietnamese evidence

  • Microalgae is Vietnam's largest topic in the alternative-protein bibliometric set: 87 Vietnam-tagged spirulina records for 2015 to 2026 (3.62 per 10,000 publications), similar to Malaysia and Indonesia and below Thailand. But the most-cited Vietnamese spirulina papers are about wastewater, biofuel and nanoparticles; only one surfaced paper is about extracting spirulina protein as an ingredient 2 .
  • A salt-tolerant spirulina strain reached 48.73% protein (dry weight) in 42 ppt medium (doi:10.3390/su151511906) 88 . A 2021 review covers Arthrospira production in Vietnam 89 . Microalgae isolated from Vietnamese shrimp ponds have been assessed for food, feed and biodiesel 90 .

What it means for Vietnam

  • Vietnam has cultivation skills and saline-water sites, but protein quality data and ingredient processing are missing.
  • Legally, microalgae food can be self-declared or registered as a health supplement; microalgae are on the livestock feed list but not on the aquafeed list 91,92,93 .

J.8 Duckweed and aquatic plants

State of the science in 2026

  • Composition. Wolffia protein is 20 to 30% of freeze-dried weight across 11 laboratory-grown species (doi:10.3389/fchem.2018.00483) 37 . Thai samples held 44.3% crude protein in Wolffia, 22.2% in Lemna and 18.0% in Spirodela; in vitro standardised ileal protein digestibility (pig-simulating) was 72% for Lemna, 69% for Wolffia and 39% for Spirodela (doi:10.48048/tis.2024.8324) 94 . Drum-dried Wolffia globosa held 32 to 34% protein, with in vitro digestibility rising from 81% fresh to 85% dried (doi:10.1002/jsfa.70332) 95 .
  • Manganese is the documented food-safety issue. Wolffia samples held 78 to 431 mg of manganese per kg of dry weight 37 . EFSA could not establish the safety of whole Wolffia globosa powder (2021, doi:10.2903/j.efsa.2021.6938) or of mixed water-lentil powder (2021, doi:10.2903/j.efsa.2021.6845) because of manganese intake. It found a Lemna protein concentrate safe under the proposed uses (2023, doi:10.2903/j.efsa.2023.7903) 96,97,11 . Protein extraction removed the problem that blocked whole-plant powders.
  • Human data. A human study found Lemna minor protein absorbed less well than pea protein (doi:10.1007/s11130-022-00952-9) 98 .
  • Productivity. About 30 t of dry matter per hectare per year is the average cited in a 2026 review, and 33 t per hectare was reached over 8 months in domestic wastewater; "up to 100 t per hectare per year" is an extrapolated upper bound 99,100 . We use 10 to 30 t per hectare per year for planning until Vietnamese field trials exist (our judgement; DG-109).

Vietnamese evidence

  • A national survey collected more than 100 wild Spirodela, Lemna and Wolffia samples and keeps them in a laboratory collection (2022) 101 . A Vietnamese-led team assembled a chromosome-scale Spirodela intermedia genome (2020) 102 . Duckweed removed nutrients from anaerobically treated swine wastewater in laboratory ponds 103 .
  • We found no protein extraction, food trial or feed trial with Vietnamese duckweed from 2015 to 2026 1 . The OpenAIRE duckweed cluster (23 Vietnam-tagged records) is mostly genomics and taxonomy 2 . A European researcher's duckweed work linked to Vietnam in earlier leads has no Vietnamese publication 104 .

What it means for Vietnam

  • Duckweed grown on aquaculture effluent fits feed. For food, the EU record shows that mineral control (manganese) and controlled water are the gate, and that a protein concentrate is an easier regulatory path than whole-plant powder 96,11 .
  • Legally, bèo (duckweed) is on the livestock feed list but not on the aquafeed list 92,93 .
  • Vietnam holds germplasm and a genome but has not used either for protein. Screening the national collection for protein and manganese is a quick public good.

J.9 Seaweed

  • State of the science. The wave 2 science review did not cover seaweed protein, so we give no global benchmark here.
  • Vietnamese evidence. Green seaweed (Cladophora) protein partly replaced fishmeal protein in black tiger shrimp postlarvae (doi:10.1007/s10811-018-1457-7), and gut weed (Ulva intestinalis) meal was evaluated with Artemia biomass as dietary protein for the same species (doi:10.1016/j.ejar.2022.11.003) 107,108 . A 2022 Wageningen report studied seaweed cultivation in Vietnam for livestock methane reduction 109 . We found no Vietnamese work on food protein extraction from seaweed 1 ; the OpenAIRE seaweed-protein query found one Vietnam-tagged record 2 .
  • What it means for Vietnam. Seaweed (Ulva, Caulerpa, Kappaphycus) is a possible feed and food protein source with almost no Vietnamese protein data. Rong (seaweed) is on the livestock feed list 92 . We treat seaweed protein as an open research question, not a near-term supply option.

J.10 Mushrooms and mycelium

  • State of the science. Mycelium and fungal biomass foods have reached approval: Singapore lists Pleurotus pulmonarius mycelium biomass (Infinite Roots, 24 September 2025) and two Neurospora crassa mycoproteins (The Better Meat Co, 15 October 2024; Ultimeat, 27 April 2026) 12 . The wave 2 science review did not cover mycelium growth or texture data.
  • Vietnamese evidence. Vietnam has about 40 papers on mushroom cultivation and bioactives but only 2 to 3 on protein 1 . Examples: grey oyster mushroom grown on cassava peel from starch production (doi:10.1051/e3sconf/202340501009); dual-enzyme Pleurotus pulmonarius protein hydrolysates (doi:10.1016/j.fochx.2025.103310); and the 1.84-fold protein gain in cassava and soybean residue fermented with Pleurotus mycelium (preprint) 110,111,50 . The Cordyceps toolkit (section J.4) is a possible food-grade expression platform 48 .
  • What it means for Vietnam. Edible-mushroom species carry lower legal risk than new strains under the current food law, because they have food history 112,91 . Mycelium grown on cassava or soybean residue links Vietnam's mushroom skills to its side streams, but food-grade protein data are thin.

J.11 Cultivated meat and seafood

State of the science in 2026

  • Cell lines for Vietnamese species. Striped catfish (Pangasianodon hypophthalmus, Vietnamese tra) cell lines exist in India (ICAR-NBFGR): a thymus line, PHT (accession NRFC-078; 52 passages; L-15 medium with 20% fetal bovine serum; 28 C; epithelial and adherent) (doi:10.56093/ijans.v93i2.128796), a gill line (2022, doi:10.1007/s10695-022-01053-9) and a caudal fin line (2018, doi:10.1016/j.actatropica.2018.03.015). A skin epithelial line was published from Taiwan in 2025. All were built for virology and toxicology, not food 113,114,115,116 .
  • Shrimp. "PmLyO-Sf9" is a black tiger shrimp lymphoid cell x insect Sf9 hybrid from Cochin University of Science and Technology (CUSAT), used for virus work (doi:10.1016/j.fsi.2021.03.023). It contains insect genetic material. We found no true continuous shrimp cell line in the literature 117,118 .
  • Density limits (Humbird 2021, doi:10.1002/bit.27848). Absolute maximum 258 g/L of wet cells; 110 g/L in fed-batch before ammonia inhibition; 140 g/L with one perfusion filter; 195 g/L oxygen-limited. With inefficient metabolism, inhibition caps density at 7 to 20 g/L. The conclusion is that economics "would likely preclude" affordability as food 119 .
  • Best documented animal-free result. Chicken cells at 28 million cells/mL over 20 days of repeated harvest, with medium cost cut by 38% (Pasitka et al. 2024, doi:10.1038/s43016-024-01022-w). A companion analysis modelled USD 13.67/kg for a 50:50 cell and plant hybrid product (doi:10.1038/s43016-023-00692-2) 13,120 . At 2,000 to 3,000 pg per cell, 28 million cells/mL is about 56 to 84 g/L of wet cells (our arithmetic), below Humbird's 140 to 195 g/L. No comparable data exist for fish or shrimp cells.
  • Growth factor cost depends on the price assumption. Humbird models growth factors at only USD 3 to 4 per kg of wet cells at 100,000 t/yr, assuming bulk recombinant prices 119 . At current prices, growth factors can be up to 95% of serum-free medium cost, and medium about 98% of raw-material cost at scale (preprint citing Negulescu et al. 2023) 121 . Both are true; they describe different futures (DG-104).
  • Production cost models. Humbird: USD 37/kg of wet cell mass in fed-batch (24 x 20 m3 reactors, 6.8 kt/yr) and USD 51/kg in perfusion, with USD 663 million of capital for 6.9 kt/yr 122 . A 2022 estimate of USD 63/kg at 540 t/yr is known only through a 2026 review 123 .
  • Approvals. Singapore lists six cultivated products, including the world's first cultivated duck (April 2026) and beef (July 2026) 12 . The US FDA has completed five cultivated-cell consultations, including Wildtype's coho salmon on 28 May 2025, the first cultivated seafood cleared in the US 124 . See N. Regional.

Vietnamese evidence

  • Vietnam already expresses some of the costliest ingredients of cell culture media, but not for food: FGF-2, KGF/FGF7 and PDGF-BB in Pichia at VNU-HCM 83,84,85 .
  • Vinmec tested four commercial serum-free and xeno-free kits for cord-blood mesenchymal stem cells; only one worked (doi:10.1186/s13287-021-02694-y) 125 . Other work compares fetal bovine serum with serum-free long-term culture 126 .
  • The only livestock stem-cell paper found is on porcine female germline stem cells (2019) 127 . The only Vietnamese cultivated-meat paper is a 2024 legal analysis of EU and Singapore rules 128 .
  • We found no fish or shrimp cell line developed in Vietnam, in either database 1,2 .

What it means for Vietnam

  • Vietnam has no food-grade fish or shrimp cell line to start from. The Indian catfish lines are a useful research tool for the same species as Vietnamese tra, but would need serum-free adaptation, suspension growth and muscle or fat character 113 .
  • Any shrimp cultivated-seafood claim built on PmLyO-Sf9 should be treated as misinformed: the line is part insect 117 .
  • The science supports "watch, do not build" for food production. Useful public research steps are serum-free adaptation of catfish cells and testing Vietnamese Pichia growth factors on fish cells.

J.12 Insects (benchmark only)

Insect protein appears in this report as an incumbent and a benchmark, not as a recommended play.

  • Shrimp. Black soldier fly (BSF) larvae meal replaced 20% of fishmeal in whiteleg shrimp without growth loss; 30% reduced growth (control diet 25% fishmeal, so 20% replacement is about 5% of the diet; doi:10.1017/s0007114521004670) 14 . BSF meal had lower protein digestibility than the control in a shrimp screen 7 . Yellow mealworm meal replaced 50% of fishmeal with better growth and cut post-challenge mortality by 76.9% (a company-linked product; doi:10.3390/ani9050258) 129 .
  • Fish. BSF meal replaced up to 60% of fishmeal in juvenile striped catfish (174 g/kg of diet), but 100% cut growth 130 . A meta-analysis puts the generally safe limit below 30% of fishmeal 131 . Cricket meal replaced 100% of fishmeal protein in snakehead without growth loss 132 .
  • Vietnamese evidence. 30% BSF larvae meal gave the best result in swamp eel (feed conversion ratio 2.33) (doi:10.3390/aquacj5010007); fresh or dried BSF larvae have been tested in snakehead 133,134 . The BSF cluster (34 Vietnam-tagged records) is led by papers on biodiesel from larval fat 2 .
  • Industry. Entobel's Vietnamese plants have a design capacity of 11,000 t/yr 135,136 .
  • What it means. As a shrimp-feed benchmark, insect meal displaces only a small share of fishmeal. Microbial proteins such as CAP match or exceed it on digestibility 7,14 . Many of the gains claimed for novel proteins in shrimp are functional (survival, palatability) rather than protein supply 56,129,137 .

J.13 Tropical fermentation

State of the science in 2026

  • Kluyveromyces marxianus SS106, isolated from Thai cassava pulp and starch-factory soil, grows at 35 to 45 C. On raw cassava starch at 40 C in 5 L stirred tanks it reached 39.3 g/L of cell dry weight (3.28 g/L/h) in a single batch and 36 to 46 g/L in repeated batches. The authors chose 40 C over 42 C to save energy (doi:10.3390/pr8080898) 15 .
  • The genome of K. marxianus DMKU 3-1042 explains its thermotolerance. High-temperature fermentation is "expected" to reduce cooling cost and contamination, but we found no published study that quantifies the cooling cost saved in a tropical plant (doi:10.1186/s13068-015-0227-x) 138 .
  • K. marxianus is also a precision-fermentation host (leghemoglobin at 7 to 10 g/L), and C. utilis tolerates up to 41 C 76,9,53 .

Engineering benchmarks

  • Aerobic growth releases about 460 kJ per mol of oxygen consumed, and cooling water is 4 to 8 times cheaper than chilled water per unit of heat 139 . A German baker's yeast plant with 7 x 150 m3 reactors removes about 11 MW of heat on average 140 . A temperate design case uses 0.56 kW of compressor power per ton of refrigeration 141 .
  • Our indicative cooling penalty for southern Vietnam is about 0.7 to 1.35 kWh per kg of dry biomass, plus chiller capex: about USD 70 to 180 per tonne of dry biomass, or roughly 2 to 4% of the indicative cost of fungal feed protein (1 to 8% at the extremes). This is our calculation from general engineering rules and an assumed design wet-bulb temperature, not a published measurement 139,141,140 . Vietnamese manufacturing power costs about USD 0.073 to 0.081 per kWh for a plant running 24 hours a day 17,142 .

Vietnamese evidence

  • The Tropical Fermentation Network, set up through the Erasmus+ AsiFood project, links HUST with French and Southeast Asian partners on starters, safety and by-product valorisation (doi:10.3389/fmicb.2018.02278) 143 .
  • We found no Vietnamese measurement of fermentation cooling energy 138,139 .

What it means for Vietnam

  • The strain toolkit for 40 to 45 C fermentation exists and matches cassava feedstocks 15 . Design for thermotolerant strains or hybrid cooling from day one.
  • One call to a Vietnamese yeast or MSG plant for its chiller energy per m3 of broth would replace our estimate with a measurement.

J.14 AI in research and development

  • State of the evidence. This study did not review the literature on artificial intelligence (AI) in protein design, strain engineering or formulation. We make no claim about its state of the art.
  • Money. The Bezos Earth Fund's Future of Food programme has committed USD 1 billion by 2030 and lists 23 grants worth USD 194.8 million, several on AI for alternative protein (fungal, cultivated and plant protein); we found no open call 144 .
  • Rules in Vietnam. Decision 23/2026 lists omics (item 48) and bioinformatics (item 50) as priority high technologies 145 . The IP Law amendment (Law 131/2025/QH15, effective 1 April 2026) adds rules on AI-created subject matter and a text and data mining exception, which bear on AI-assisted strain and protein design 146 .
  • Vietnamese capacity. VINIF, Vingroup's research foundation, has a Big Data focus in its project funding 147 . We found no Vietnamese publication applying AI to alternative-protein R&D.
  • What it means. AI tools may shorten strain and formulation development, but we have no evidence in this study to size the effect. Treat AI claims in pitches as unverified until backed by published or audited results.

J.15 Corrections to earlier claims

This table collects every science claim from earlier drafts that the wave 2 review checked. Claims marked "Unsupported" or "Wrong" are not used anywhere in the report. Conflicts are logged in R. Disagreements.

Earlier claimVerdictCurrent positionEvidenceLog
">50 g/L titre needed" for cost-efficient precision fermentation (Nielsen et al. 2023)Right, with a caveatExpert assertion in a review (issue 2024), not a model output8,74 none
Leghemoglobin 3.5 g/L secreted in Pichia (Shao 2022)RightConfirmed via a citing paper75,76 none
Leghemoglobin 7.27 g/L in K. marxianus (Tian 2024)Right but superseded10.1 g/L (Chen 2026)76,9 none
T. reesei beta-lactoglobulin and ovalbumin (Aro 2022)Partly rightPaper dated 2023; titres not verified; do not quote a titre77 none
OPENPichia is "licence-free"Partly rightLiberal licence with royalty-free commercial manufacture79 none
ICAR-NBFGR striped catfish thymus line PHTRightNRFC-078; a serum-dependent virology line, not a food line113 none
ICAR-NBFGR gill line "PHG"Partly rightA gill line exists (2022); the name is not confirmed114 none
PmLyO-Sf9 shrimp line, grouped with ICAR-NBFGRPartly wrongBlack tiger shrimp x insect hybrid from CUSAT; not a shrimp food cell line117 none
Growth factors dominate cultivated-meat media costDepends on price assumptionUp to 95% of medium cost today; USD 3 to 4/kg in Humbird's scaled model119,121 DG-104
118.5 g/L A. oryzae biomass on vinasse (Karimi et al. 2019)Wrong as a titreProbably per litre of undiluted vinasse, about 5.9 g/L in the flask; do not use44 DG-105, DG-106
A. oryzae metabolite burden (CPA, kojic acid, 3-NPA, aflatoxin)Partly rightNo aflatoxin; CPA and 3-NPA real; kojic acid not a mycotoxin43 none
Mycoprotein RNA must fall below 1%Source conflictPrimary study: about 10% to about 2% of dry weight after heat treatment41,42 DG-107
C. utilis 49 to 57% protein on cassava peelRightCrude protein (N x 6.25); low-tier journal53 none
EFSA opinion on Wolffia globosa powder (Mankai) supports food useWrong on contentSafety not established because of manganese (2021)96 DG-108
Fresh Wolffia is "not novel" in the EUUnverifiedNot found in the EC consultation list as fetched105 none
Duckweed "PDCAAS 0.89"UnsupportedNo source found; do not use37,38 none
Duckweed productivity "up to 100 t DM/ha/yr"Extrapolated ceilingUse 10 to 30 t DM/ha/yr for planning99,100 DG-109
Mung bean protein quality from pig DIAASIncompleteHuman digestibility about 20% lower than pigs35,5 DG-110
"No Vietnamese study has reported RNA reduction, mycotoxin testing or amino-acid digestibility"Too strongSuch methods exist in Vietnam for yeast, traditional soy and rice DDG, but not for novel biomass; no DIAAS study68,49,21 DG-056
Vietnam has 2 plant-based meat papers and none on extrusionUndercountAbout 5 on-topic papers (2015 to 2026) and no extrusion study (edition 1.1)2,4 DG-138, DG-139
Tropical cooling "may offset" the power advantagePartly rightReal but modest: about USD 70 to 180/t of biomass, 2 to 4% of feed-protein cost (our estimate)139,141 DG-088
A single "capex per m3" can be borrowed from a TEAWrongCapex per m3 differs about 7-fold between verified TEAs (about USD 51,000 vs 350,000 per m3)6,51 DG-087
China holds "70% of world fermentation capacity"UnsupportedEven the GFI China report author could not verify it; do not use46 DG-080

J.16 Techno-economic benchmarks used in this appendix

All values are from tea_benchmarks.csv. They are global models, mostly for US or European sites, and must not be read as Vietnamese costs. Capex per annual tonne is our derivation from the verified inputs 6,51,122 .

ProcessMetricValueCost basisSource (DOI)
Mycoprotein, continuous airlift (food)Minimum production costUSD 3.55/kg wet; USD 29.56/kg protein2022, USdoi:10.3389/fsufs.2023.1204307 6
MycoproteinCapexAbout USD 108 million for about 4,700 t/yr dry (about USD 22,800 per annual t dry)2022, US6
SCP from off-gas via acetate (feed)Production cost; capexUSD 4.15/kg; USD 320 million for 20,000 t/yr (about USD 16,000 per annual t)about 2022 to 2023doi:10.3390/fermentation9080771 51
SCP from H2 and CO2 (feed)Minimum selling priceUSD 2,070/tabout 2023, USdoi:10.1021/acs.est.3c10312 63
SCP on renewable electricityProtein cost at optimal sitesEUR 5.5 to 6.1/kg (2028); EUR 2.1 to 2.3/kg (2050)projectionsdoi:10.1038/s41467-025-56364-1 64
Cultivated meat, fed-batchCost of wet cell massUSD 37/kgabout 2020, USdoi:10.1002/bit.27848 122
Cultivated meat, perfusionCost; capexUSD 51/kg; USD 663 million for 6.9 kt/yr (about USD 96,000 per annual t wet)about 2020, US122
Precision-fermented food proteinsPeer-reviewed TEANone verifiedn/awave 1 cost review
Plant protein isolate, high-moisture extrusionCapex and opexNone verifiedn/awave 1 cost review

The H2 and CO2 row rests on an abstract only; the others on full text or key excerpts.

Gaps and how to close them

#GapCheapest way to close it
1Titres in Aro et al. 2023 (T. reesei beta-lactoglobulin and ovalbumin)Read the open-access full text at doi:10.1016/j.foodres.2022.112131
2Name and accession of the striped catfish gill lineEmail the ICAR-NBFGR National Repository of Fish Cell Lines (Lucknow)
3EU status of Wolffia (Implementing Regulation (EU) 2022/2223 claim)Read the Union list entry on EUR-Lex and the EC novel food catalogue
4FeedKind and other methanotroph meals in shrimp and fishSearch Aquaculture and Aquaculture Nutrition for "FeedKind" and "Methylococcus capsulatus", 2019 to 2026
5Spirulina protein content and digestibilityOne targeted literature search
6Tropical cooling cost of fermentationAsk a Vietnamese MSG or yeast plant for chiller energy per m3 of broth
7A Vietnamese DIAAS reference datasetFund a study at an overseas laboratory or build capacity at a VILAS-accredited laboratory
8Soybean-wastewater SCP (preprint): has it been peer reviewed?Check publication status; contact the authors
9SCP and yeast replacement thresholds in tilapia and pangasiusTargeted search; Can Tho University and Nong Lam University aquaculture faculties
10Seaweed protein: global benchmarks and Vietnamese species dataA focused review, then extraction tests on Ulva and Kappaphycus
11Mycelium texture and protein data on Vietnamese substratesPilot trials with VNUA mushroom groups on cassava and soybean residue
12Plant protein isolation and extrusion capexEquipment quotes from extruder vendors; read the Thai freeze-alignment TEA
13Peer-reviewed TEA for precision-fermented food proteinsGFI APAC cost analyses; capacity reports; company data
14AI in alternative-protein R&DA dedicated literature review and a call for Vietnamese examples
15The mycoprotein TEA re-run with Vietnamese inputsRe-run the open model from Risner et al. 2023 with cost_inputs.csv
  • science_facts.csv: the 43 checked science claims behind sections J.3 to J.13, with DOI, full-text flag and retraction check.
  • tea_benchmarks.csv: the 25 techno-economic benchmarks behind section J.16 (see Costs and benchmarks).
  • replacement_trials.csv: the 20 feed replacement trials behind sections J.5 and J.12 (see Feed and aquafeed market).
  • publications.csv: Vietnam-affiliated publications, including those cited here (see K. Research landscape).
  • biblio_counts.csv: OpenAIRE counts by topic and country.
  • cost_inputs.csv: Vietnamese input costs used in the indicative cost estimates.
  • disagreements.csv: DG-056, DG-080, DG-087, DG-088, DG-104 to DG-110 and DG-138 to DG-139 (see R. Disagreements).
  • Working papers: working-papers/wave2/science/science.md, working-papers/wave1/costs/costs.md, working-papers/wave1/rnd/m6-rnd-capacity.md, working-papers/wave2/feedmkt/feedmkt.md, working-papers/wave2/biblio/bibliometrics.md.

Nguồn được trích dẫn trong trang

Toàn bộ nguồn (Phụ lục T)

  1. RD-01 scite.ai literature database. 2026-09-23
  2. BIB-01 OpenAIRE AMKE. OpenAIRE Graph API v1, researchProducts endpoint
  3. SCI-40 Bailey HM, Fanelli NS, Stein HH. Effect of heat treatment on protein quality of rapeseed protein isolate compared with soy, whey, rice and pea proteins. 2023
  4. HSC-01 OpenAlex works API, queried through the OpenAlex MCP connector (no personal identifiers sent). 2026-09-24
  5. SCI-42 Shivakumar N et al. Protein-quality evaluation of complementary foods in Indian children. 2019
  6. COST-43 Risner D., McDonald K.A., Jones C.E. A techno-economic model of mycoprotein production: achieving price parity with beef protein. 2023
  7. SCI-23 Li X et al. Evaluation of Six Novel Protein Sources on Apparent Digestibility in Pacific White Shrimp. 2022
  8. SCI-01 Nielsen MB, Meyer AS, Arnau J. The Next Food Revolution Is Here: Recombinant Microbial Production of Milk and Egg Proteins by Precision Fermentation. 2024
  9. SCI-05 Chen H et al. Integrated Fermentation Engineering Enables High-Level Leghemoglobin Production in Kluyveromyces marxianus. 2026
  10. SCI-39 Wang Y, Tibbetts SM, McGinn PJ. Microalgae as Sources of High-Quality Protein for Human Food and Protein Supplements. 2021
  11. SCI-30 EFSA NDA Panel. Safety of water lentil protein concentrate from Lemna gibba and Lemna minor. 2023
  12. RGN-04 Singapore Food Agency. SFA list of approved novel foods. 14 Aug 2026
  13. SCI-16 Pasitka L et al. Nature Food (2024), animal-free medium study. 2024
  14. SCI-27 Chen Y et al. Effect of black soldier fly larvae meal on lipid and glucose metabolism of Pacific white shrimp. 2021
  15. SCI-44 Malairuang K et al. Intensive Multiple Sequential Batch SSC of Kluyveromyces marxianus SS106 from Raw Cassava Starch. 2020
  16. COST-56 Jarunglumlert T., Chantanuson R., Hayashi R., et al. Techno-economic assessment of plant-based meat analogue produced by the freeze alignment technique. 2023
  17. COST-01 Ministry of Industry and Trade. Decision 1279/QD-BCT on retail electricity prices. 9 May 2025
  18. COST-21 Cushman & Wakefield. Southern Key Economic Zone Industrial MarketBeat Q2 2026. 2026
  19. COST-28 World Bank via IndexMundi. Soybean meal, Argentine 45/46%, CIF Rotterdam
  20. RD-22 Nguyen T.-T. et al. Rice-based distillers' dried grains from bio-ethanol production, a potential source of protein for food application. 2024
  21. RD-23 Vuong M.-D. et al. Functional characterization of protein from rice-based ethanol by-products for food industry use. 2025
  22. RD-24 Doan N.T.T., Lai Q.D. Ultrafiltration for recovery of rice protein: fouling analysis and technical assessment. 2021
  23. RD-25 Nguyen T.M.P. et al. Preparation of protein isolated from rice bran. 2016
  24. RD-26 Le T.K.Y. et al. Meat-reduced sausage substituted with germinated mung bean flour. 2024
  25. RD-27 Nguyen N.H.K. et al. Influence of mangosteen peel extract on. 2025
  26. RD-66 Tran Thi Ha M.K. et al. Plant-based fish analogues: advances in formulation, processing, nutrition and market dynamics. 2026
  27. RD-07 Food Industries Research Institute
  28. INF-24 Rieckermann, home page
  29. INF-27 FAMSUN corporate home page
  30. COST-39 Pork category. Bach Hoa Xanh (online)
  31. COST-40 Chicken category. Bach Hoa Xanh (online)
  32. COST-41 Eggs category. Bach Hoa Xanh (online)
  33. MAC-04 USDA FAS GAIN. Vietnam: Oilseeds and Products Annual, report VM2026-0006 (Nguyen Linh). 15 Apr 2026
  34. MAC-09 Bao Ha Tinh. Viet Nam nhap khau 2,61 trieu tan dau tuong nam 2025, kim ngach dat 1,21 ty USD. 8 Mar 2026
  35. SCI-41 Han F, Moughan PJ et al. DIAAS of Six Cooked Chinese Pulses. 2020
  36. SCI-43 Nichele S et al. Plant-based food patterns to stimulate muscle protein synthesis: a narrative review. 2022
  37. SCI-34 Appenroth KJ et al. Nutritional Value of the Duckweed Species of the Genus Wolffia as Human Food. 2018
  38. SCI-38 Appenroth KJ et al. Nutritional value of duckweeds (Lemnaceae) as human food. 2017
  39. INF-03 FIRI. FIRI, National Center for Food Analysis and Certification (NACEFA) page. undated
  40. INF-10 MOH. National Institute for Food Control (NIFC), home page
  41. SCI-20 Coelho MOC et al. Ingestion of a Nucleotide-Rich Mixed Meal Increases Serum Uric Acid. 2020
  42. SCI-21 D'Almeida AP, de Albuquerque TL. Is It Possible to Produce Meat Without Animals?. 2025
  43. SCI-19 Frisvad JC et al. Safety of the fungal workhorses of industrial biotechnology. 2018
  44. SCI-18 Karimi S et al. Evaluation of Filamentous Fungal Biomass Cultivated on Vinasse as an Alternative Nutrient Source of Fish Feed. 2019
  45. RGN-20 GFI APAC. GFI APAC's 2025 Report Card + 6 Things to Watch in 2026. Jan 2026
  46. RGN-24 van der Kley, D. China Biomanufacturing Study Report. 31 Jul 2026
  47. RD-33 Thai H.-D. et al. Development of a new Agrobacterium-mediated transformation system based on a dual auxotrophic approach in Aspergillus oryzae. 2021
  48. RD-34 Trinh M.T. et al. Efficient generation of uridine/uracil auxotrophic mutants in homokaryotic Cordyceps militaris strains for constructing a food-grade expression platform. 2024
  49. RD-61 Le T.H.Y. et al. Quality evaluation of Vietnam traditional soy sauce concerning nutritional composition and aflatoxin criteria. 2025
  50. RD-29 Doan C.C. Improving nutrition facts of cassava and soybean residue through solid-state fermentation by Pleurotus ostreatus mycelium. 2025
  51. COST-44 Vlaeminck E., Uitterhaegen E., Quataert K., et al. Single-Cell Protein Production from Industrial Off-Gas through Acetate: Techno-Economic Analysis for a Coupled Fermentation Approach. 2023
  52. FM-01 World Bank. Commodity Price Data (The Pink Sheet). 2 Sep 2026
  53. SCI-22 Ezekiel OO, Aworh OC, du Preez JC. Cultivation of Candida utilis on Cassava Peel Hydrolysates for Single-cell Protein Production. 2012
  54. SCI-26 Sultana S et al. Factors Affecting Yeast Digestibility and Immunostimulation in Aquatic Animals. 2024
  55. SCI-24 Shi M et al. Chenodeoxycholic acid in a low fishmeal diet containing Clostridium autoethanogenum protein, L. 2023
  56. FM-20 Frontiers in Immunology. Effects of dietary Clostridium autoethanogenum protein on the growth, disease resistance, intestinal digestion, immunity and microbiota structure of Litopenaeus vannamei. 2022
  57. FM-21 Metabolites 12. Dietary effect of Clostridium autoethanogenum protein on growth, intestinal histology and flesh lipid metabolism of largemouth bass. 2022
  58. FM-18 Fishes 7. Substituting fish meal with a bacteria protein (Clostridium autoethanogenum protein) derived from industrial-scale gas fermentation: effects on growth ... in large yellow croakers. 2022
  59. FM-17 Frontiers in Marine Science. Evaluation of methanotroph (Methylococcus capsulatus, Bath) bacteria meal (FeedKind) as an alternative protein source for juvenile black sea bream. 2021
  60. FM-16 Antioxidants 11. A natural gas fermentation bacterial meal (FeedKind) as a functional alternative ingredient for fishmeal in diet of largemouth bass. 2022
  61. FM-19 Journal of Fish Diseases. Replacement of fishmeal with a microbial single-cell protein induced enteropathy and poor growth outcomes in barramundi (Lates calcarifer) fry. 2024
  62. SCI-25 Santillan E et al. Microbial community-based protein derived from food-processing wastewater supports substantial fishmeal replacement in L. 2025
  63. COST-45 Jean A.B., Brown R.C. Techno-Economic Analysis of Gas Fermentation for the Production of Single Cell Protein. 2024
  64. COST-46 Fasihi M., Jouzi F., Tervasmaki P., et al. Global potential of sustainable single-cell protein based on variable renewable electricity. 2025
  65. COST-53 Solar Foods Oyj. Investor pages and Half-year Report H1 2026. 11 Aug 2026
  66. FM-13 Calysseo. Calysseo, company website
  67. FM-12 CK Vietnam Group / V-Group Vietnam. Mycoprotein
  68. RD-31 Nguyen T.T.N. Influences of technological hydrolysis condition on nucleic acid content of spent brewer's yeast hydrolysate. 2018
  69. RD-32 Nguyen M.Q. et al. Investigation of consumer insights and development of alternative protein-rich products from alcoholic beverage byproducts. 2024
  70. RD-48 Nguyen H.Y.N. et al. Spent brewer's yeast as a replacement for fishmeal in diets for giant freshwater prawn. 2019
  71. RD-49 Nguyen H.Y.N. et al. Gradual replacement of soybean meal with brewer's yeast in Nile tilapia diet. 2024
  72. RD-28 Nguyen T.H.T., Dinh T.H. Isolation of a methane-oxidizing bacterium for the study on single cell protein production from methane. 2016
  73. RD-30 Ho K.N. et al. Bamboo cellulose based single cell protein and nanocellulose. 2023
  74. SCI-02 Nielsen MB, Meyer AS, Hansen K. Enhanced Production of Bovine beta-Lactoglobulin in an Industrial Aspergillus oryzae Host. 2025
  75. SCI-03 Shao Y et al. High-level secretory production of leghemoglobin in Pichia pastoris. 2022
  76. SCI-04 Tian T et al. High-level expression of leghemoglobin in Kluyveromyces marxianus by remodeling the heme metabolism pathway. 2024
  77. SCI-06 Aro N et al. Production of bovine beta-lactoglobulin and hen egg ovalbumin by Trichoderma reesei using precision fermentation technology. 2023
  78. SCI-07 Mojzita D, Aro N et al. Label-free analytical characterization of brazzein produced with Trichoderma reesei. 2025
  79. SCI-08 Claes K et al. OPENPichia: licence-free Komagataella phaffii chassis strains and toolkit for protein expression. 2024
  80. SCI-09 EFSA FAF Panel. Safety of soy leghemoglobin from genetically modified Komagataella phaffii as a food additive. 2024
  81. COST-54 Liberation Bioindustries. Press releases, GlobeNewswire (2 Jun 2025; 15 Jan 2026)
  82. RD-35 Chau Q.C. et al. Development of a Pichia pastoris strain for secretory production of recombinant alkaline phytase. 2025
  83. RD-36 Le H.K. et al. Secretory expression of the recombinant FGF-2 protein in Pichia pastoris carrying multiple copies of target gene. 2020
  84. RD-37 Tran L.H. et al. Glycerol-methanol and sorbitol-methanol mixed feed strategies for recombinant hPDGF-BB production in Pichia pastoris. 2021
  85. RD-38 Pham T. et al. Heterologous expression of human KGF/FGF7 in Pichia pastoris. 2020
  86. RD-63 Nguyen H. et al. Heterologous expression of pediocin PA-1 in Pichia pastoris. 2024
  87. REG2-11 Government. Nghị định 43/2026/NĐ-CP (Art 37a added to Decree 69/2010; Art 5 definition). 26 Jan 2026
  88. RD-21 Dang D.H. et al. Transcriptome analysis of Spirulina platensis at different salinity and nutrient compositions for sustainable cultivation in Vietnam. 2023
  89. RD-20 Nguyen D.B. et al. Arthrospira production in Vietnam: current status and prospects. 2021
  90. RD-62 Luu T.N. et al. Isolation and characterization of two microalgal isolates from Vietnam with potential for food, feed and biodiesel production. 2020
  91. REG-02 Government. Nghị định 15/2018/NĐ-CP hướng dẫn Luật An toàn thực phẩm (Decree 15/2018/ND-CP). 2 Feb 2018
  92. REG-32 MARD. Thông tư 21/2019/TT-BNNPTNT hướng dẫn Luật Chăn nuôi về thức ăn chăn nuôi. 28 Nov 2019
  93. REG2-01 MAE. Thông tư 16/2026/TT-BNNMT quản lý giống thủy sản, thức ăn thủy sản, sản phẩm xử lý môi trường nuôi trồng thủy sản. 9 Mar 2026
  94. SCI-35 Thongthung H et al. Chemical Composition and In Vitro Protein Digestibility of Duckweed and Feed Ingredients. 2024
  95. SCI-48 Pattarayingsakul W et al. Effects of drum drying on the nutritional composition, proteomic profile, and functional properties of Wolffia globosa. 2025
  96. SCI-28 EFSA NDA Panel. Safety of Wolffia globosa powder as a Novel food. 2021
  97. SCI-29 EFSA NDA Panel. Safety of water lentil powder from Lemnaceae as a Novel Food. 2021
  98. SCI-33 Mes JJ et al. Daily Intake of Lemna minor or Spinach as Vegetable. 2022
  99. SCI-36 Salian A et al. Lemnaceae as a poultry feed supplement: a review. 2026
  100. SCI-37 Pagliuso D et al. Duckweeds as Promising Food Feedstocks Globally. 2022
  101. RD-44 Tran N.B.T. et al. Morphological variation, chromosome number and DNA barcoding of giant duckweed (Spirodela polyrhiza) in Vietnam. 2022
  102. RD-71 Hoang P.T.N. et al. Chromosome-scale genome assembly for the duckweed Spirodela intermedia. 2020
  103. RD-45 Dinh T.T.U. et al. Nutrient removal by duckweed from anaerobically treated swine wastewater in lab-scale stabilization ponds in Vietnam. 2020
  104. RD-59 Stadtlander T. et al. Partial replacement of fishmeal with duckweed (Spirodela polyrhiza) in feed for Eurasian perch and rainbow trout. 2023
  105. SCI-32 European Commission. Consultation process on novel food status (web page)
  106. SCI-31 Venkatachalam K et al. Wolffia globosa as an Emerging Plant-Based Protein Source. 2026
  107. RD-50 Nguyen T.N.A. et al. Partial replacement of fishmeal protein with green seaweed (Cladophora) protein. 2018
  108. RD-51 Nguyen T.N.A. et al. Evaluating Artemia biomass and gut weed (Ulva intestinalis) meal as dietary protein for P. 2023
  109. RD-57 Deolu-Ajayi A.O. et al. Seaweed cultivation in Vietnam for livestock methane reduction: a Top Sector Agri & Food SMP report. 2022
  110. RD-64 Huynh N.-H.T. et al. Circular economy approach: cultivating grey oyster mushroom using cassava peel waste from starch production. 2023
  111. RD-65 Nguyen T.N.G., Tran V.K. Sustainable valorization of Pleurotus pulmonarius via green dual-enzyme technology. 2025
  112. REG-01 National Assembly. Luật An toàn thực phẩm 2010 (Law on Food Safety 55/2010/QH12). 17 Jun 2010
  113. SCI-10 Soni P, Pradhan PK, Sood N et al. Development, characterization and in vitro applications of a thymus cell line from Pangasianodon hypophthalmus. 2023
  114. SCI-11 Sathiyanarayanan A, Goswami M, Nagpure NS et al. Development and characterization of a new gill cell line from the striped catfish. 2022
  115. SCI-46 Wu YC, Wang LC. Evaluation of striped catfish skin responses to Aeromonas hydrophila using established skin epithelial cell line. 2025
  116. SCI-47 Soni P et al. Development, characterization and application of a new epithelial cell line from caudal fin of Pangasianodon hypophthalmus. 2018
  117. SCI-12 Anoop BS, Puthumana J et al. Immortalization of shrimp lymphoid cells by hybridizing with the continuous cell line Sf9 leading to the development of 'PmLyO-Sf9'. 2021
  118. SCI-13 Dominic DV et al. In vitro propagation of IHHNV in PmLyO-Sf9. 2022
  119. SCI-14 Humbird D. Scale-up economics for cultured meat. 2021
  120. SCI-17 Weber T et al. Fetal bovine serum: how to leave it behind. 2025
  121. SCI-15 Dolgin J et al. Engineered Vibrio natriegens lysate can replace multiple components of cell culture media. 2026
  122. COST-47 Humbird D. Scale-up economics for cultured meat. 2021
  123. COST-49 Kim S., Park K.-H., Park S.-J., et al. Cultivated Meat and the Future of Food Systems: Promise, Progress, and Challenges. 2026
  124. RGN-03 US FDA. Human Food Made with Cultured Animal Cells Inventory
  125. RD-39 Nguyen T.L. et al. Optimization of human umbilical cord blood-derived MSC isolation and culture methods in serum- and xeno-free conditions. 2022
  126. RD-40 Le M.H. et al. Differential development of umbilical cord-derived MSCs during long-term maintenance in FBS-supplemented and xeno- and serum-free media. 2021
  127. RD-42 Bui L.Q.N. et al. Isolation of female germline stem cells from porcine ovarian tissue and differentiation into oocyte-like cells. 2019
  128. RD-43 Nguyen X.M.H., Nguyen T.K.A. From lab to table: food safety regulations for cell-cultured meat in the EU and Singapore, implications for Vietnam. 2024
  129. FM-26 Animals 9. Replacing fish meal with defatted insect meal (yellow mealworm Tenebrio molitor) improves the growth and immunity of Pacific white shrimp. 2019
  130. FM-22 Aquaculture Research. Effects of dietary protein substitution of fishmeal with black soldier fly larval meal on growth and physiological responses of juvenile striped catfish. 2022
  131. FM-25 Journal of Insects as Food and Feed. Evaluation of dietary inclusion of black soldier fly (Hermetia illucens) larvae on fish production performance: a meta-analysis. 2022
  132. FM-23 Life 13. Effects of substituting the two-spotted cricket (Gryllus bimaculatus) meal for fish meal on growth performances and digestibility of striped snakehead. 2023
  133. RD-54 Nguyen N.T., Tran N.H. Black soldier fly larvae meal as a sustainable alternative to fishmeal in juvenile swamp eel diets. 2025
  134. RD-55 Hoang N.M. et al. Effect of inclusion of fresh or dried black soldier fly larvae in diets on snakehead fish. 2024
  135. ECO-01 Entobel. Entobel Sets Industry Record with the Opening of the Largest Insect Protein Production Plant in Asia. 23 Nov 2023
  136. ECO-03 Early Warning System database. CnC-Entobel (IFC-46903). 23 Feb 2023
  137. FM-45 Molecules 26. Palatability enhancement potential of Hermetia illucens larvae protein hydrolysate in Litopenaeus vannamei diets. 2021
  138. SCI-45 Lertwattanasakul N et al. Genetic basis of the highly efficient yeast Kluyveromyces marxianus. 2015
  139. COST-50 Almeida Benalcazar E., van Winden W.A., Puiman L., et al. Single Cell Protein Production From Ethanol: Model-Based Bioreactor Operation at Industrial Scale. 2025
  140. COST-52 Lisicar Vukusic J., Kneer A., Mosche M., et al. Turning industrial aerobic fermentation plants into thermal power stations. 2018
  141. COST-51 Davis R., Grundl N.J., Tao L., et al. Process Design and Economics for the Conversion of Lignocellulosic Biomass to Hydrocarbon Fuels and Coproducts: 2018 Biochemical Design Case Update. 2018
  142. COST-03 VietNamNet. Khung gio cao diem moi: Gia dien buoi toi cao nhat len toi 5.422 dong/kWh. 2026
  143. RD-56 Waché Y. et al. Prospects for food fermentation in South-East Asia: Tropical Fermentation and Biotechnology Network at the end of the AsiFood Erasmus+ project. 2018
  144. CAP-61 Bezos Earth Fund. Future of Food
  145. REG-47 Prime Minister. Quyết định 23/2026/QĐ-TTg Danh mục công nghệ cao được ưu tiên đầu tư phát triển. 15 May 2026
  146. REG-62 National Assembly. Luật Sở hữu trí tuệ sửa đổi 2025 (Law 131/2025/QH15). 10 Dec 2025
  147. RD-05 Vingroup Innovation Foundation