Editorial: Microbiomics in food security: paradigm shift in omics DOI Creative Commons
Anukool Vaishnav, Shekhar Jain,

Devendra Kumar Choudhary

и другие.

Frontiers in Microbiology, Год журнала: 2023, Номер 14

Опубликована: Ноя. 28, 2023

EDITORIAL article Front. Microbiol., 28 November 2023Sec. Microbe and Virus Interactions with Plants Volume 14 - 2023 | https://doi.org/10.3389/fmicb.2023.1292293

Язык: Английский

Microbes Saving Lives and Reducing Suffering DOI Creative Commons
Kenneth N. Timmis, Zeynep Ceren Karahan, Juan L. Ramos

и другие.

Microbial Biotechnology, Год журнала: 2025, Номер 18(1)

Опубликована: Янв. 1, 2025

Язык: Английский

Процитировано

3

Seed biopriming for sustainable agriculture and ecosystem restoration DOI Creative Commons
Prachi Singh, Anukool Vaishnav, Hongwei Liu

и другие.

Microbial Biotechnology, Год журнала: 2023, Номер 16(12), С. 2212 - 2222

Опубликована: Июль 25, 2023

Abstract The utilization of microbial inoculants in the realm sustainable agricultural and ecosystem restoration has witnessed a surge recent decades. This rise is largely attributed to advancements our understanding plant–microbe interactions, urgency reduce dependence on agrochemicals growing societal demand for strategies management. However, despite rapid growth bio‐inoculants sector, certain limitations persist concerning their efficacy performance under field condition. Here, we propose that seed biopriming, an effective inoculant technique integrating both biological agents (the priming beneficial microbes seeds) physiological aspects (hydration seeds improved metabolically activity), significant potential mitigate these limitations. method increases protection against soil‐borne pathogens soil pollutants, such as salts heavy metals, while promoting germination rate uniformity, leading overall primary productivity health. Furthermore, argue coating can facilitate transgenerational associations microbes, refine plant microbiomes, maintain legacies microflora. review article aims improve biopriming approach potent valuable tool achieving agriculture successful restoration.

Язык: Английский

Процитировано

25

Seed biopriming as a promising approach for stress tolerance and enhancement of crop productivity: a review DOI
Sonal Srivastava,

Rashi Tyagi,

Shilpi Sharma

и другие.

Journal of the Science of Food and Agriculture, Год журнала: 2023, Номер 104(3), С. 1244 - 1257

Опубликована: Окт. 12, 2023

Chemicals are used extensively in agriculture to increase crop production meet the nutritional needs of an expanding world population. However, their injudicious application adversely affects soil's physical, chemical and biological properties, subsequently posing a substantial threat human health global food security. Beneficial microorganisms improve plant productivity with minimal impact on environment; however, efficacy greatly relies technique. Biopriming is advantageous technique that involves treatment seeds beneficial agents. It exhibits immense potential improving physiological functioning seeds, thereby playing pivotal role uniform germination vigor. Biopriming-mediated molecular metabolic reprogramming imparts stress tolerance plants, improves health, enhances productivity. Furthermore, it also associated rehabilitating degraded land, soil fertility, nutrient cycling. Although biopriming has vast applications agricultural system, its commercialization utilization by farmers still infancy. This review aims critically analyze recent studies based biopriming-mediated mitigation alteration physiological, processes plants. Additionally, considering necessity popularizing this technique, major challenges prospects linked systems have been discussed. © 2023 Society Chemical Industry.

Язык: Английский

Процитировано

14

Breaking seed dormancy for sustainable food production: Revisiting seed priming techniques and prospects DOI
Neha Chandel, Vishal Tripathi, Harikesh Bahadur Singh

и другие.

Biocatalysis and Agricultural Biotechnology, Год журнала: 2023, Номер 55, С. 102976 - 102976

Опубликована: Дек. 7, 2023

Язык: Английский

Процитировано

14

Bio-Priming with Bacillus Isolates Suppresses Seed Infection and Improves the Germination of Garden Peas in the Presence of Fusarium Strains DOI Creative Commons

Dragana Miljaković,

Jelena Marinković, Gordana Tamindžić

и другие.

Journal of Fungi, Год журнала: 2024, Номер 10(5), С. 358 - 358

Опубликована: Май 17, 2024

Seed infection caused by Fusarium spp. is one of the major threats to seed quality and yield agricultural crops, including garden peas. The use Bacillus with multiple antagonistic plant growth-promoting (PGP) abilities represents a potential disease control strategy. This study was performed evaluate biocontrol new rhizosphere isolates against two strains affecting Six identified 16S rDNA sequencing as B. velezensis (B42), subtilis (B43), mojavensis (B44, B46), amyloliquefaciens (B50), halotolerans (B66) showed highest in vitro inhibition F. proliferatum PS1 equiseti PS18 growth (over 40%). selected possessed biosynthetic genes for endoglucanase (B42, B43, B50), surfactin (B43, B44, fengycin bacillomycin D iturin were able produce indole-3-acetic acid (IAA), siderophores, cellulase. Two isolates, B43 B50, had effect on final germination, shoot length, root dry weight, seedling vigor index peas compared control. Their individual or combined application reduced increased germination presence PS18, both after inoculation bio-priming. most promising results obtained cases bacterial consortium, bio-priming, more pathogenic strain PS18. novel may be agents intended management seed-borne diseases.

Язык: Английский

Процитировано

5

How are microbes helping end hunger? DOI Creative Commons
Patricia Bernal

Microbial Biotechnology, Год журнала: 2024, Номер 17(3)

Опубликована: Март 1, 2024

This article explores the potential of microbiology to positively impact all aspects food supply chain, improving quantity, quality, safety, and nutritional value products by providing innovative ways growing, processing, preserving thus contributing Zero Hunger, one Sustainable Development Goals (SDGs) United Nations. Hunger is a cruel reality that affects millions people around world could worsen in coming years due continuous growth population limitations our planet's resources. Feeding expected exceed 9 billion 2050 extremely complex requires not only an adequate sustainable but also collective effort from different sectors society. collaborative should involve key stakeholders, including politicians inspire social cultural changes scientists provide technological innovations. Social such as promoting education on proper nutrition practices or encouraging healthy lifestyles are important ensuring efficient, secure system. The efficiency system can be improved reducing lost waste, minimizing water use quality. must ensure health humans animals preventing foodborne diseases intoxications through sanitary conditions. Importantly, protect well-being individuals overall planet. current way producing unsustainable because it large amounts energy water, contributes climate change degrades ecosystems. It essential operate without causing further damage planet its biodiversity. achieved, among other actions, greenhouse gas emissions avoiding recalcitrant contaminants land deforestation. In addition growing population, itself poses significant threat challenge discussed. Climate responsible for increase number extreme weather events, temperature precipitation patterns frequency droughts floods. All these events disrupt crop yields, compromise security contribute spread pests diseases. As microbiologists, we delivering solutions challenges, since microorganisms, although historically ignored underestimated, have great many positive contributions. Microorganisms valuable allies help maintain improve ecosystems counteract adverse impacts intensive farming change, is, reduce environmental footprint agriculture. addition, they productivity system, production, distribution consumption, more importantly, security. safety processing Healthy fertile soils foster optimal conditions crops, which fundamental sustainability anthropogenic activities cause levels soil degradation. To address crisis, microbial tools been developed fertility, facilitate decomposition organic matter (Sáez-Sandino et al., 2023), promote nutrient cycling, detoxify pollutants (Jayaramaiah 2022) support resilience importance maintaining influence microorganisms addressing this has discussed Timmis Ramos (2021), who advocate creation proactively prevent loss. directly vegetable levels, would intake requiring increased consumption (Goicoechea & Antolín, 2017). They production stimulating plants, primary producers chain. Plants, beyond their value, raw materials numerous products, animal with capacity plants and, crops known plant growth-promoting (PGPMs). growth, PGPMs produce phytohormones, ethylene, cytokinin, gibberellin, auxin salicylic acid (Nascimento 2021) stimulate physiological processes cell division root development. Other form symbiotic relationships better uptake solubilizing mobilizing nutrients phosphorus nitrogen (Zhao increasing tolerance stress. For example, relationship between mycorrhizal fungi provides limited nutrient, (Shi 2023). Similarly, nitrogen-fixing (NF) bacteria certain (leguminous) roots nitrogen. NF formation new organ root, nodule, where fix atmospheric (N2) assimilated ammonia. fixation process enhances fertility soil, need synthetic fertilizers (Jhu Oldroyd, enhance under challenging associated drought, floods, temperatures (Li osmoprotectants cope scarcity during drought (Fadiji 2022). survive oxygen-deprived oxygen availability waterlogged soils, common consequence flooding (Ali Kim, 2018). mitigate temperature-related stress, inducing heat-shock proteins helping them withstand fluctuations heat waves (Seth Sebastian, 2024). Some high salinity facilitating removal excess salts tissues, problem exacerbated changing general, significantly stressors limitations, conditions, flooding, salinity. These interactions dependence mitigating negative effects crops. Although most beneficial human point view some pathogenic severe economic losses phase. Phytopathogens edible parts production. type III secretion (T3SS) virulence factors extensively studied years. T3SS specialized protein delivery inject effector into cells host plant. effectors manipulate host's cellular processes, enabling pathogen establish infection evade plant's defence mechanisms (Schreiber 2021). Given pivotal role pathogenicity phytopathogens, become major target development inhibitors. inhibitors pathogen's ability effectors, thereby limiting disease protecting damaging phytopathogens (Yuan 2020). On contrary, act natural agents suppressing harmful pathogens, controlling biological control (BCAs) biopesticides alternative chemical pesticides practices. BCAs eliminate variety strategies do so. Certain induce systemic resistance activating pathways preparing respond efficiently subsequent attacks. application ISR-inducing (Pieterse 2014; Salwan limit competing same resources (nutrient competition), importantly iron using siderophores, small, high-affinity chelating compounds. Since require BCA-produced siderophores good strategy incidence (Ahmed Holmström, 2014). involved interbacterial competition, killing inhibiting pathogens. antimicrobial compounds, antibiotics peptides (AMP), secreted environment inhibit pathogens (Roca Matilla, hydrogen cyanide (HCN), secondary metabolite released interferes respiration soilborne death (Barahona 2011). methods offer non-contact approaches environment. contrast, possess contact-dependent molecular machineries toxic rival bacterial eukaryotic cells. best characterized Type VI Secretion System (T6SS) (Allsopp Bernal, 2023) present specifically gram-negative bacteria. T6SS described potent mechanism biocontrol enables kill ecological niches (Bernal 2017, 2021; Durán 2021), holds true T4BSS (Purtschert-Montenegro predatory recognized (Zhang enzymes degrade walls organisms structures capture, penetrate consume prey. particular, Myxobacteria Bdellovibrio like (BALOs) exhibit broad predation spectrum making candidates applications Likewise, viruses infect phytopathogenic used organisms. novel approach minimizes non-target considered promising currently underused mostly regulatory obstacles (Wagemans Many behaviour promotes infections, biofilms allow adhere surfaces first step infection. compounds interfere adhesive properties, difficult infections. Pathogenic coordinate gene expression 'social' factors, biofilm T3SS, at level Quorum Sensing (QS) communication QS Quenching (QQ) (Liu inhibits coordinated factors. signalling molecules volatile (VOCs). spore germination, therefore exploited pest agriculture (Almeida diverse arsenal employed BCAs. Research fields continues uncover insights understanding offering opportunities optimize benefit management ecosystem health. A recent example technologies being field seed biopriming inoculant technique combines effective seed, hydration, metabolism activity bioinoculants (Singh, Vaishnav, fact, shown protection seeds against soil-borne pollutants, heavy metals, while germination rate uniformity, last decade, gained attention environmentally friendly continue grow future. Fungi fruiting bodies mushrooms others alike excellent source direct easily cultivated cooked. years, mycelium, Mycoprotein Quorn (brand), hit market. protein-rich ingredient produced Fusarium venenatum often component vegetarian 'meat' offers meaty texture suitable content (Banks mycelia species Pleurotus ostreatus (oyster mushroom) Ganoderma lucidum (reishi meat alternatives snack mushroom chips jerky. Furthermore, fungal mycelium extracts functional beverages, teas elixirs, benefits. decades, photosynthetic cyanobacterium Spirulina containing amino acids, vitamins antioxidants. hold promise becoming future (García 2017) protein. Moreover, filamentous Nostoc commonly consumed Asian cultures, particularly China, content. cultivation microbes typically less land, compared traditional agriculture, source. However, taste acceptance cultures challenge, efforts ongoing palatability. various especially fermentation, method centuries. Biochemically speaking, metabolic break down simpler ones, by-products taste, texture, bioactive properties foods (Kiczorowski Examples include fermentation milk yoghurt, cheese kefir; cabbage sauerkraut; cereals bread beer grapes wine, vinegar, champagne spirits brandy grappa. plant-based dairy emerged (Harper Conscious manipulation consistency but, flavour extensive list resulting process, presenting here impractical, readers refer fantastic reviews (Tamang Instead, highlight producer interest humans, profound culture. Saccharomyces cerevisiae, baker's yeast, fungus baking brewing. Greek means 'sugar fungus' uses sugars by-product, produces alcohol. Alcohol molecule function except resistant weapon competitors. widely decades involvement revisions available literature (Gänzle, yeasts steps cocoa flavour. Cocoa beans very bitter acidic go correct lose bad obtain quality chocolate. Up 45 yeast genera identified countries Saccharomyces, Pichia, Candida, Hanseniaspora, Torulaspora, Issatchenkia Saccharomycopsis (Schwan spontaneous coffee together part microbiota fruit. formed yeasts, vary depending varieties, fruit maturation, season, altitude, affecting beverage cerevisiae fungi, Penicillium roqueforti, camemberti Geotrichum candidum, centuries nalgiovense salami dry-cure meat, (Ropars Giraud, Interestingly, biotechnology, distant lineages domesticated specific parallel adaptation events. lead phenotypic convergence lipolysis, proteolysis, compound competitive spoilers time, degeneration unused traits toxin alcoholic sake, result rice Aspergillus oryzae. fungus, sojae, soybeans wheat fermented condiment, soy sauce (Luh, 1995). second mould mixture named koji undergoes facilitated Zygosaccharomyces rouxii Candida sp. along lactic 1995), below. well-understood caseins undergo proteolysis peptides, acids carbohydrates transformed acid. developing cheese, kefir yoghurt. LAB acetoin diacetyl characteristic tastes cheeses products. Not candidum alcohols, fatty fruity aroma brie camembert. plays critical distinctive flavours study revealed crucial Streptococcus thermophilus another bacterium, Lactococcus cremoris, palette limits unpleasant (Melkonian kumis (or koumiss), made mare's milk, involves both fermentation. Lactobacillus then lactis Kluyveromyces lactis, turns carbonated mildly drink. (Behera 2017; Tesfaye 2019). several Leuconostoc, Lactobacillus, Weissella ferment vegetables napa Korean radish kimchi. cabbages sauerkraut, cucumbers cucumber pickles olives remove bitterness make palatable. tea kombucha fashionable healthier beverages found supermarkets world. occurs culture (SCOBY) consisting LAB, acetic (AAB) metabolize sugar components. results naturally beverage, sweet sour, antioxidants trace alcohol (Diez-Ozaeta Astiazaran, popular allows preservation increases values instrumental synthesis processes. instance, B foods, yoghurt kombucha, profile benefits consumers (Capozzi 2012). ingredients additives. niger citric acid, industry acidulant sour taste. Corynebacterium glutamicum monosodium glutamate (MSG), additive dishes. colouring, cyanobacteria green blue pigments, phycocyanin, industry. Agrobacterium aurantiacum Paracoccus carotinifaciens astaxanthin, pink/red pigment food's colour. Mucor circinelloides, Neurospora crassa Phycomyces blakesleeanus β-carotene (yellow/orange) pastry, cream, ice cream Pandey, pigments benefits, antioxidant, anticancer anti-inflammatory Directly microbiota, gut microbes. digestion absorption nutrients, vitamin lymphoid gastrointestinal tract protective barrier space (Yi probiotics, digestive play Bacteria Bifidobacterium, strains boulardii Akkermansia shine probiotics concept referred postbiotics, metabolites probiotic received lot attention. multiple advantages over terms stability. stability postbiotics shelf life longer than live handled, transported incorporated supplement refrigeration. Postbiotics exert mechanisms, modulating immune function, integrity intestinal inflammation. Consequently, huge obesity, risk factor morbidity mortality worldwide. lipoteichoic (LTA) Bifidobacterium animalis postbiotic capable obesity biomarkers fat even hyperglycaemic (Balaguer Therefore, LTA therapeutic preventive agent disorders. similar line, medicine Cordyceps (Ophiocordyceps sinensis), Reishi (Ganoderma lucidum) Lion's Mane (Hericium erinaceus), dietary supplements, marketed cognitive enhancement (Łysakowska Indirectly, reducing/avoiding fertilizers. Thus, ensures lower presence chemicals supply, contamination pose industry, contaminate any stage Salmonella Listeria represent serious public concern, illnesses when consumed. undercooked eggs, poultry linked ready-to-eat deli meats, soft smoked fish. Unpasteurized related caused Salmonella, Brucella, causal brucellosis, abortion pregnant women. cases, does toxins microorganisms. Clostridium perfringens, whose spores intestines poultry, secretes enterotoxin (CPE) symptoms C. perfringens poisoning. intoxication exemplified Claviceps purpurea, ergot. infects cereal rye, alkaloid family. Consumption grains contaminated ergot ergotism, hallucinations, convulsions gangrene. embracing agricultural harnessing risks safe avoid spoilage. Substantial wasted stages consumption. Two main causes spoilage, ruin collected product, accumulate Addressing inefficiencies waste maximize previously named; spoilage toxins-producing phases distribution, extending perishable items. preserve perishability mycotoxins (Adebo 2019) inhibitory effect (Guo An interesting (forage) silage grass corn, stored airtight absence bacteria, helps forage months, decay. knowledge about indicates improves digestibility livestock, vehicle substances expand within composting anaerobic convert biogas, (Rastogi Barapatre, Zhang conclusion, indispensable intricate web increasing. manufacturing, way, entire recognizing power global challenges resilient Patricia Bernal conceived idea article, conducted necessary review, wrote manuscript. Figure 1 crafted Canva (canva.com) Freya Saad-designed template titled "Green Blue Playful Illustrative Mind Map". P.B. supported MCIN/AEI/10.13039/501100011033 Spanish agency Ramon y Cajal RYC2019-026551-I her laboratory funded three Grants State Subprogram Knowledge Generation Minister Science Innovation (MCIN); MCIN/AEI/10.13039/501100011033/FEDER, EU – PID2021, MCIN/AEI/10.13039/501100011033/NGEU/PRTR TED2021, MCIN/AEI/10.13039/501100011033/NGEU/PRTR/ CNS202, Agency (AEI) European Union (UE) reference PID2021-123000OB-I00 (MCIN/AEI/10.13039/501100011033/FEDER, UE), TED2021-130357B-I00 CNS2022-135585 (MCIN/AEI/10.13039/501100011033/"NextGenerationEU"/PRTR [The Recovery, Transformation Resilience Plan]). Grant (Excellence Andalusian (AAC), government ProyExcel_00450. author declares there no conflict interest.

Язык: Английский

Процитировано

4

Soil Health to Enhance Ecological Restoration and Conservation DOI Creative Commons
Paola Pisetta Raupp, Yolima Carrillo, Uffe N. Nielsen

и другие.

Journal of Sustainable Agriculture and Environment, Год журнала: 2024, Номер 3(4)

Опубликована: Окт. 1, 2024

ABSTRACT Ecological restoration has gained increased attention to combat the global biodiversity and habitat loss driven by human activities climate change. To address these impacts, efforts apply interventions aimed at recovering native ecosystems on degraded lands. However, they tend centre vegetation‐based interventions, with limited aboveground belowground linkages. Soil health, including its physicochemical, biological functional attributes, is fundamental ecosystem resilience sustainability, provision of services, well‐being. This synthesis explores how a deeper understanding soil‐vegetation interactions can support conservation efforts. We discuss be applied from early later stages restoration, future directions novel approaches that target processes promote soil health successful plant community establishment. propose integrating practices explicitly consider linkages among vegetation, properties biota lead more effective outcomes establishment resilient, self‐sustaining ecosystems.

Язык: Английский

Процитировано

4

An overview of the effect of seed priming induced physiochemical and molecular processes in plants: abiotic stress tolerance DOI
Tilak Raj Sharma,

Ayushi Malik,

Anukrati Dhabhai

и другие.

Elsevier eBooks, Год журнала: 2025, Номер unknown, С. 215 - 232

Опубликована: Янв. 1, 2025

Язык: Английский

Процитировано

0

Biopriming of Cucumis sativus L. Seeds with a Consortium of Nitrofixing Cyanobacteria Treated with Static Magnetic Field DOI Creative Commons
Yadenis Ortega Díaz, Liliana Gómez Luna, Yilan Fung Boix

и другие.

Plants, Год журнала: 2025, Номер 14(4), С. 628 - 628

Опубликована: Фев. 19, 2025

The growing demand for sustainable agriculture necessitates innovative strategies to enhance crop productivity while minimizing environmental impact. This study explores the biopriming potential of Cucumis sativus L. seeds using extracts derived from a consortium nitrofixing cyanobacteria Nostoc commune, Calothrix sp., and Aphanothece minutissima subjected static magnetic field (SMF) treatments. cyanobacterial consortia were exposed SMF at varying inductions (40-50 mT 100-200 mT), followed by extract preparation application as agents. Results demonstrated significant improvements in key seedling growth parameters, including root stem length, vigor index I, fresh biomass. treated with 40-50 showed most pronounced growth-stimulating activity, suggesting enhanced bioactive compound production under this treatment that might be related auxin biosynthesis. Biopriming maintained balanced nutritional uptake plant health, indicated stable weight dry ratios. These findings highlight SMF-enhanced agents horticultural crops. Future research should elucidate underlying modes action optimize conditions broader applications.

Язык: Английский

Процитировано

0

Enhancing nickel stress tolerance in Micro-Tom tomatoes through biopriming with Paraburkholderia phytofirmans PsJN: insights into growth and physiological responses DOI Creative Commons
Mujo Hasanović, Adaleta Durmić-Pašić, Erna Karalija

и другие.

Frontiers in Microbiology, Год журнала: 2025, Номер 16

Опубликована: Март 13, 2025

Introduction The strategic utilization of plant growth-promoting (PGP) rhizospheric bacteria is a sustainable approach to mitigating the negative effects anthropogenic activities and excessive nickel (Ni) accumulation in plants. Given that specific symbiotic interactions depend on direct relationship between species, bacterial strain, heavy metals (HMs), this study aimed investigate Paraburkholderia phytofirmans PsJN seed priming Ni tolerance adult Micro-Tom tomato plants ( Solanum lycopersicum L .). Methods Sterilized seeds were bioprimed with P. for 24 hours then sown into soil. Non-primed, imbibed used as control. After 10 days, seedlings transferred Hoagland nutrient solution. Chronic (10 μM Ni) acute (50 stress conditions induced by supplementing solution salt. experiment lasted approximately 75 covering complete life cycle Various physiological biochemical parameters analyzed. Results Significant differences p < 0.05) observed non-primed terms fruit yield. Bioprimed tomatoes exhibited higher resilience stress, particularly under conditions. Non-primed treated 50 showed statistically lower concentrations chlorophyll total chlorophylls compared tomatoes. Moreover, proline content was generally more stable plants, indicating reduced oxidative stress.The activity antioxidant enzymes distinct patterns nonprimed Conclusion findings suggest biopriming enhances growth stress. This technique appears mitigate Ni-induced effects, at concentrations, making it promising strategy improving performance Ni-contaminated environments. Future studies should explore underlying molecular mechanisms field applications approach.

Язык: Английский

Процитировано

0