Aich, N; Ahmed, N and Paul, A (2018). Issues of antibiotic
resistance in aquaculture industry and its way forward.
Int. J. Curr. Microbiol., 7: 26-41.
Amenyogbe, E (2023). Application of probiotics for
sustainable and environment-friendly aquaculture
management - a review. Cogent. Food Agric., 9: 2226425
Ammar, A; Abdelgelel, S; Mohamed, B and Gharib, A
(2023). Motile aeromonads as a Nile tilapia bacterial
infection: a review on prevalence, molecular
characterization, effect on immune response and
alternatives control measures. Zag. Vet., 51: 112-128.
Amoah, K; Dong, X; Tan, B; Zhang, S; Kuebutornye, FK;
Chi, S; Yang, Q; Liu, H; Zhang, H and Yang, Y (2021). In
vitro assessment of the safety and potential probiotic
characteristics of three bacillus strains isolated from the
intestine of hybrid grouper (Epinephelus fuscoguttatus,
Epinephelus lanceolatus). Front. Vet. Sci., 8: 1-16.
Anjur, N; Sabran, SF; Daud, HM and Othman, NZ (2021).
An update on the ornamental fish industry in Malaysia:
Aeromonas hydrophila-associated disease and its
treatment control. Vet. World., 14: 1143-1152.
Apkn, E and Altnok, L (2009). Effects of dietary probiotic
supplementations on prevention/treatment of
yersiniosis disease. J. Appl. Microbiol., 106: 1147–1153.
Balczar, JL; Decamp, O; Vendrell, D; Blas, ID and
RuizZarzuela, I (2006). Health and nutritional
properties of probiotics in fish and shellfish. Microb. Ecol.
Health Dis., 18: 65-70.
Bentzon Tilia, M; Sonnenschein, EC and Gram, L (2016).
Monitoring and managing microbes in aquaculture
towards a sustainable industry. Microbiol. J., 9: 527-695.
Biswas, S; Sarkar, S and Saha, S (2023). Probiotics in
aquaculture: a review on recent trends and application.
Int. J. Adv. Res. Trends Sci., 2: 1-5.
Brunt, J; Newaj-Fyzul, A and Austin, B (2007). The
development of probiotics for the control of multiple
bacterial diseases of rainbow trout, oncorhynchus mykiss
(walbaum). J. Fish Dis., 30: 10: 573-579.
Budianto, B and Suprastyani, H (2017). Aktivitas antagonis
Bacillus subtilis terhadap Streptococcus iniae dan
Pseudomonas fluorescens (antagonist activity of Bacillus
subtilis against Streptococcus iniae and Pseudomonas
fluorescens). J. Vet., 18: 409-415.
Cain, KD (2022). The many challenges of disease
management in aquaculture. J. World Aquac. Soc., 53:
1080–1083.
Chen, J; Li, Q; Fan, L; Xie, L; Zhang, Q and Deng, X (2024).
The impact of Lactococcus lactis kust48 on the
transcription profile of aeromonas hydrophila-infected
zebrafish spleen. Microbiol. Spectr., 12: e03927-23.
Commons, RJ; Smeesters, PR; Proft, T; Fraser, JD; RobinsBrowne, R and Curtis, N (2014). Streptococcal
superantigens: categorization and clinical
associations. Trends Mol. Med., 20: 48-62.
Contente, D; Feito, J; Borrero, J; Pea, N; Muoz-Atienza, E;
Igrejas, G; Poeta, P; Hernndez, PE and Cintas, LM
(2020). Lactococcus lactis rbt18: from the rainbow trout
farm to the lab, the tale of a nisin z producer.
Proceedings, 66: 8-16.
Das, P; Borah, P; Bordoloi, R; Pegu, A; Dutta, R and
Baruah, C (2024). Probiotic bacteria as a healthy
alternative for fish and biological control agents in
aquaculture. J. Appl. Nat. Sci., 16: 674 -689.
Doan, HV; Hoseinifar, SH; Ring, E; Esteban, MN; Dadar, M;
Dawood, MA and Faggio, C (2019). Host-associated
probiotics: a key factor in sustainable aquaculture. Rev.
Fish. Sci. Aquac., 1: 16-42.
Dutta, D (2015). Selection and probiotic characterization of
exoenzyme-producing bacteria isolated from the gut of
catla catla (actinopterygii: cypriniformes: cyprinidae).
Szczecin Scientific Society. Acta Ichthyol. Piscat., 45: 373-
384.
Elbaz, NF and Fatah, MEAA (2022). Bacterial disease
outbreaks in some freshwater fish farms in Kafr el-Sheikh,
Egypt. J. Appl. Aquac., 36: 1-23.
Fachri, M; Amoah, K; Huang, Y; Cai, J; Alfatat, A;
Ndandala, C; Shija, VM; Jin, X; Bissih, F and Chen, H
(2024). Probiotics and paraprobiotics in aquaculture: a
sustainable strategy for enhancing fish growth, health
and disease prevention-a review. Front. Mar. Sci., 11: 1-
28.
Feliatra, F; Lukistyowati, I; Nursyirwani, N; Melina, D and
Ramadhani, ME (2018). Comparative study between
probiotics isolated from giant freshwater prawns and
giant tiger prawns in improving the health of nile tilapia
(oreochromis nilotius). IOP Conf. Ser. Earth Environ. Sci.,
216.
Fidyandini, HP; Yuhana, M and Lusiastuti, A (2016).
Pemberian probiotik multispesies dalam media budi
daya ikan lele dumbo untuk mencegah penyakit motile
aeromonads septicemia (addition of multispecies
probiotics in the culture medium of African catfish to
prevent the motile aeromonads septicemia disease). J.
Vet., 17: 440-448.
Gatesoupe, F (2007). Updating the importance of lactic acid
bacteria in fish farming: natural occurrence and probiotic
treatments. J. Mol. Microbiol. Biotechnol., 14: 107–114.
Gong, L; He, H; Li, D; Cao, L; Khan, TA; Li, Y; Pan, L; Yan, L;
Ding, X; Sun, Y; Zhang, Y; Yi, G; Hu, S and Xia, L (2019).
A new isolate of Pediococcus pentosaceus (sl001) with
antibacterial activity against fish pathogens and potency
in facilitating the immunity and growth performance of
grass carps. Front. Microbiol., 10: 1384.
Hamka, S (2021). Efek probiotik Bacillus megaterium ptb 1.4
dan Pediococcus pentosaceus e2211 terhadap repons
imun dan kelangsungan hidup ikan lele (clarias sp.)
selama uji tantang aeromonas hydrophila. J. Fish. Mar.
Res., 5: 567-577.
Haniffa, MM (2015). Effect of probiotic on microbiological
and haematological responsiveness of cat fish
(heteropnuestes fossilis) challenged with bacteria A.
hydrophila and fungi aphanomyces invadans. OMICS
Publishing Group. J. Aquac. Res. Develop., 12: 1-6.
Hong, HA; Duc, LH and Cutting, SM (2004). The use of
bacterial spore formers as probiotics: table 1. Oxford
University Press. Microbiol. Rev., 29: 813–835.
Hoseinifar, SH; Sun, Y; Wang, A and Zhou, Z (2018).
Probiotics as means of diseases control in aquaculture, a
review of current knowledge and future perspectives.
Front. Microbiol., 9: 2429.
Ibrahem, MD (2013). Evolution of probiotics in aquatic
world: potential effects, the current status in Egypt and
recent prospectives. Elsevier BV. J. Adv. Res., 6: 765-791.
Irianto, A and Austin, B (2002). Probiotics in aquaculture.
Fish Dis., 25: 633-642.
Jang, I; Kim, D and Heo, M (2013). Dietary administration
of probiotics, Bacillus sp. is-2, enhance the innate
immune response and disease resistance of paralichthys
olivaceus against Streptococcus iniae. Korean J. Microbiol.,
49: 172-178.
Jlidi, M; Akremi, A; Brabra, W; Hmani, H; Daoud, L;
Brahim, AH; Suissi, N and Ali, MB (2021). In vitro
assessment of the probiotic characteristics of Bacillus
strains from gut of gilt-head bream, sparus aurata.
MOL2NET., 5: 2624-5078.
Johar, S; Puvanasundram, P; Cruz, CDD; Chong, C; Yasin,
IM; Lim, KC; Noordin, NM and Karim, M (2024). Invitro inhibitory activities of potential probiotic isolated
from Pangasius nasutus against Aeromonas hydrophila
and Streptococcus agalactiae. Sains Malaysiana., 53: 99-
110.
Jurez-Corts, MZ; Vzquez, LEC; Daz, SFM and Flix, CSC
(2024). Streptococcus iniae in aquaculture: a review of
pathogenesis, virulence, and antibiotic resistance. Int. J.
Vet. Sci. Med., 12: 25-38.
Kim, D; Subramanian, D; Park, SH; Jang, Y and Heo, M
(2017). Assessment and potential application of the
probiotic strain, Bacillus amyloliquefaciens jfp2, isolated
from fermented seafood-jeotgal in flounder paralichthys
olivaceus juveniles. Isr. J. Aquacult. Bamidgeh,,69 :1352-
1363.
Klingklib, C and Suanyuk, N (2017). Streptococcus
agalactiae serotype ib, an emerging pathogen affecting
climbing perch (Anabas testudineus) and gnthers walking
catfish (Clarias macrocephalus) polycultured in southern
thailand. Thai. J. Vet. Med., 47: 183-197.
Knipe, H; Temperton, B; Lange, A; Bass, D and Tyler, CR
(2020). Probiotics and competitive exclusion of
pathogens in shrimp aquaculture. Rev. Aquacult., 13:
324–352.
Len, J; Aponte, JJ; Cuadra, DL; Galindo, N; Jaramillo, L;
Vallejo, M and Marguet, E (2016). Actinomicetos
aislados de argopecten purpuratus productores de
enzimas extracelulares y con actividad inhibitoria de
patgenos marinos. Rev. Biol. Mar. Oceanogr., 51: 69-80.
Leong, SS; Korel, F; Lingoh, AD; Sarbini, SR; Toh, SC; Abit,
LY and Wong, SC (2023). Current probiotics application
for aquaculture feed: a review. Borneo Sci., 44: 1-13.
Lin, P; Chen, S; Wen, Z and Hu, S (2022). Administration of
the potential probiotic Paenibacillus ehimensis npust1
enhances expression of indicator genes associated with
nutrient metabolism, growth and innate immunity
against Aeromonas hydrophila and Streptococcus indie
infections in zebrafish (danio rerio). Fishes, 7: 2-15.
Lubis, AR; Sumon, MAA; Dinh-Hung, N;, Dhar, AK;
DelamareDeboutteville, J; Kim, D; Shinn, A;
Kanjanasopa, D; Permpoonpattana, P; Doan, H; Linh,
NV and Brown, CL (2024). Review of quorum-quenching
probiotics: a promising non-antibiotic-based strategy for
sustainable aquaculture. J. Fish Dis., 47: 1-33.
Marukov, IC; Schusterov, P; Popelka, P; Gancarkov, S;
Csank, T; Fekaninov, A; Ratvaj, M and Mudroov, D
(2021). Effect of Autochthonous lactobacilli on
immunologically important molecules of rainbow trout
after bacterial infection studied on intestinal
primoculture. Fish Shellfish Immunol., 119: 379-383.
Mawardi, M; Indrawati, A; Lusiastuti, A and Teguh, W
(2023). Antibiotic resistance gene-free probiont
administration to tilapia for growth performance and
streptococcus agalactiae resistance. Vet. World, 16:
2504-2514.
Meidong, R; Doolgindachbaporn, S; Jamjan, W; Sakai, K;
Tashiro, Y; Okugawa, Y and Tongpim, S (2017). A novel
probiotic Bacillus b44v isolated from Thai pickled
vegetables for potential use as a feed supplement in
aquaculture. J. Gen. Appl. Microbiol., 63: 246–253.
Min-Yeong, L and Kim, EH (2014). Inhibitory effects of
candidate probiotic bacteria on the growth of fish
pathogenic bacteria, streptococcus sp.. J. Fish Pathol., 27:
107-114.
Mohapatra, S; Chakraborty, T; Kumar, V; Boeck, GD and
Mohanta, KN (2012). Aquaculture and stress
management: a review of probiotic intervention. J. Anim.
Physiol. Anim. Nutr., 97: 405-430.
Mulyadin, A; Widanarni, W; Yuhana, M and
Wahjuningrum, D (2021). Growth performance,
immune response, and resistance of Nile tilapia fed
paraprobiotic bacillus sp. np5 against Streptococcus
agalactiae infection. J. Akuakult. Indon., 20: 34-46.
Munangandu, HM; Paul, J and Evensen, Y (2016). An
overview of vaccination strategies and antigen delivery
systems for Streptococcus agalactiae vaccines in Nile
tilapia (Oreochromis niloticus). Multidisciplinary Digital
Publishing Institute. Vaccines, 4: 48-61.
Mustahal, M; Sevia, S; Herjayanto, M; Syamsunarno, MB
and Putra, AN (2021). The effect of adding Bacillus np5
to feed on growth, survival rate, and protection against
Aeromonas hydrophila of catfish (Clarias sp.). IOP
Publishing. The 2nd International Conference on
Agriculture and Rural Development Conf. Ser.: Earth
Environ. Sci., 715: 012058.
Muthezhila, R; Yogananth, N; Akila, M; Ali, MS and
Jayaprakas, M (2019). Determination of probiotic
bacteria from intestine of sparisoma viride and
bioencapsulation of artemia salina with probionts. Res. J.
Microbiol., 15: 1-8.
Nafiqoh, N; Andriyanto, S; Novita, H; Sugiani, D and
Taukhid, T (2021). Kombinasi sirih dan kipahit sebagai
imunostimulan terhadap penyakit streptococcosis pada
ikan nila (oreochromis niloticus). Pusat Penelitian dan
Pengembangan Perikanan. J. Riset. Akuakultur., 16 1: 39-
47.
Naz, K; Ullah, N; Zaheer, T; Shehroz, M; Naz, A and Ali, A
(2020). Pan-genomics of model bacteria and their
outcomes. In Pan-genomics: Applications, Challenges, and
Future Prospects. Cambridge, MA: Academic Press. PP:
189–201.
Noshair, I; Kanwal, Z; Jabeen, G; Arshad, M; Yunus, F;
Hafeez, R; Mairaj, R; Haider, I; Ahmad, N and Alomar,
SY (2023). Assessment of dietary supplementation of
Lactobacillus rhamnosus probiotic on growth
performance and disease resistance in oreochromis
niloticus. Microorganisms,11: 1423-1442
Novita, H; Rusmana, I; Yuhana, M and Pasa, FH (2015).
Potential of Bacillus sp., as a producer of ahl lactonase
and its application as a probiotic for the prevention of
mas in catfish (Clarias gariepinus). J. Fish. Aquat. Sci., 10:
464-476.
Omar, NS; Emilia, S; Danish-Daniel, M; Iehata, S and
Ikhsan, NFM (2023). Probiotics bacteria as quorum
sensing degrader control Aeromonas hydrophila
pathogenicity in cultured red hybrid tilapia. Indon.
Aquac. J., 18: 11-15.
Parashuramappa, RK (2024). Role of probiotics on
aquaculture: importance and future perspectives. Int. J.
Curr. Microbiol. App. Sci., 137: 180-195.
Partridge, G (2016). Testing the efficacy of probiotics for
disease control in aquaculture. Microbiol. Aust., 37: 122-
123.
Pereira, WA; Mendona, CMN; Villasante, A; Marteinsson,
V; LeBlanc, JG; Cotter, PD; Figueroa, E; Romero, J and
Oliveira, RPDS (2022). Use of probiotic bacteria and
bacteriocins as an alternative to antibiotics in
aquaculture. Microorganisms, 10: 1705.
Phasunon, R; Taengphu, S; Panphut, W; Chatchaiphan, S;
Dong, H and Senapin, S (2023). Improving the diagnosis
of Streptococcus iniae using a novel probe-based qpcr
assay combined with an enrichment step. J. Fish Dis., 46:
1391-1401.
Pirarat, N; Pinpimai, K; Chankow, K; Malila, K; Chansue,
N; Niyomtham, W and Rodkhum, C (2009). In vitro
efficacy of human-derived probiotic, Lactobacillus
rhamnosus against pathogenic bacteria in fish and frogs.
Thai. J. Vet. Med., 39: 305-310.
Puvanasundram, P; Chong, C; Sabri, S; Yusoff, MSM; Lim,
KC and Karim, M (2022). Efficacy of single and multistrain probiotics on in vitro strain compatibility,
pathogen inhibition, biofilm formation capability, and
stress tolerance. Biol., 11: 1644.
Rahayu, S; Amoah, K; Huang, Y; Cai, J; Wang, B; Shija, VM;
Jin, X; Anokyewaa, MA and Jiang, M (2024). Probiotics
application in aquaculture: its potential effects, current
status in china and future prospects. Front. Mar. Sci., 11:
1455905.
Ran, C; Carrias, A; Williams, MA; Capps, NK; Dan, BCT;
Newton, JC; Kloepper, JW; Ooi, EL; Browdy, CL;
Terhune, JS and Liles, MR (2012). Identification of
Bacillus strains for biological control of catfish
pathogens. Public Library of Science. PLoS ONE., 7:
e45793.
Rasmussen, JA; Villumsen, KR; Jrgensen, LVG; Forberg, T;
Zuo, S; Kania, PW; Buchmann, K; Kristiansen, K;
Bojesen, AM and Limborg, MT (2022). Integrative
analyses of probiotics, pathogenic infections and host
immune response highlight the importance of gut. J.
Appl. Microbiol., 132: 3201-3216.
Ring, E (2020). Probiotics in shellfish aquaculture. Elsevier
BV. Aqua. Fish, 7: 105-115.
Samat, NA; Yusoff, FM; Rasdi, NW and Karim, M (2021).
The efficacy of Moina micrura enriched with probiotic
bacillus pocheonensis in enhancing survival and disease
resistance of red hybrid tilapia (Oreochromis spp.) larvae.
Multidisciplinary Digital Publishing Institute. Antibiotic,
10: 989-1002.
Santhi, N and Deivasigamani, B (2017). Crop rotation as a
better sanitary practice in culture of penaeus monodon
(fabricius, 1798). Int. J. Curr. Microbiol., 6: 1418-1443.
Sarmah, P and Sarma, S (2023). Probiotics for sustainable
development in aquaculture: a review. Uttar Pradesh J.
Zool., 4: 34-46.
Schmidt, VT; GomezChiarri, M; Roy, C; Smith, KF and
AmaralZettler, L (2017). Subtle microbiome
manipulation using probiotics reduces antibioticassociated mortality in fish. Am. Soc. Microbiol., 2: 133-
146.
Shotts Jr, EB (1990). Diagnostic approaches for fish
diseases. In Diagnostic Procedure in Veterinary
Bacteriology and Mycology. 5th edition. PP: 507-517.
Simn, R; Docando, F; Nuez-Ortiz, N; Tafalla, C and Daz
Rosales, P (2021). Mechanisms used by probiotics to
confer pathogen resistance to teleost fish. Front. Media.
Front. Immunol., 12: 1-19.
Situmorang, ML; Dierckens, K; Mlingi, F; Delsen, BV and
Bossier, P (2014). Development of a bacterial challenge
test for gnotobiotic Nile tilapia Oreochromis niloticus
larvae. Inter-Research. Dis. Aquat. Org., 109: 23–34.
Sivakumar, N; Muthuraman, S and Selvakumar, G (2012).
Probiotic effect of Lactobacillus acidophilus against
vibriosis in juvenile shrimp (Penaeus monodon).
Academic Journals. Afr. J. Biotechnol., 11: 15811-15818.
Soliman, W; Shaapan, RM; Mohamed, LA and Gayed, SS
(2019). Recent biocontrol measures for fish bacterial
diseases, in particular to probiotics, bio-encapsulated
vaccines, and phage therapy. University of Tripoli. PLoS
ONE, 7: e45793.
Soltani, M; Shafiei, S; Mirzargar, SS and Asadi, S (2023).
Probiotic, paraprobiotic, and postbiotic as an alternative
to antibiotic therapy for lactococcosis in aquaculture.
Iran. J .Vet. Med., 17: 287-300.
Sudrajat, RH; Yuhana, M; Widanarni, W; Ekasari, J and
Afiff, U (2023). Dietary supplementation of Bacillus sp.
np5 and dayak onion simplicia powder eleutherine
bulbosa (mill.) urb. for the prevention of aeromonas
hydrophila in catfish clarias sp. J. Akuakult. Indon., 22:
134-146.
Sumon, TA; Hussain, MA; Sumon, MAA; Jang, WJ; Abellan,
FG; Sharifuzzaman, S; Brown, CL; Lee, E; Kim, C and
Hasan, MT (2022). Functionality and prophylactic role of
probiotics in shellfish aquaculture. Aquac. Rep., 25 : 1-
17.
Tamamdustu, R; Widanarni, W and Yuhana, M (2015).
Administration of microencapsulated probiotic Bacillus
sp. np5 and prebiotic mannan oligosaccharide for
prevention of aeromonas hydrophila infection on
pangasianodon hypophthalmus. J. Fish. Aquat. Sci., 11:
67-76.
Tan, C; Li, Q; Yang, X; Chen, J; Zhang, Q and Deng, X
(2022). Lactococcus lactis effect on the intestinal
microbiota of streptococcus agalactiae-infected zebrafish
(danio rerio). Microbiol. Spectr., 10: e01128-22.
Taukhid, T; Wajdy, EF; Sugiani, D and Nafiqoh, N (2023).
Streptococcosis on Nile tilapia (Oreochromis niloticus) in
Indonesian freshwater aquaculture. Omni-Akuatika., 19:
1- 14.
Thi, Q; Dung, TQ; Hien, HN; Trung, NB; Dung, T and Thuy,
N (2023). Antibacterial activity of lactic acid bacteria
from various freshwater fish species against pathogenic
bacteria in caged red tilapia (Oreochromis sp.).
Biodiversitas, 24: 3373-3383.
Uddin, GMN; Larsen, M; Christensen, H; Aarestrup, FM;
Ph, TM and Dalsgaard, A (2015). Identification and
antimicrobial resistance of bacteria isolated from
probiotic products used in shrimp culture. PLoS ONE.,
10: e0132338.
Vargas-Gonzlez, A; Barajas, M and Prez-Snchez, T (2024).
Isolation of lactic acid bacteria (lab) from salmonids for
potential use as probiotics: in vitro assays and toxicity
assessment of salmo trutta embryonated eggs. Anim., 14:
200-223.
Vendrell, D; Balcázar, JL; Ruiz-Zarzuela, I; De Blas, I;
Gironés, O and Múzquiz, JL (2006). Lactococcus
garvieae in fish: a review. Comp. Immunol. Microbiol.
Infect. Dis., 29: 177-198.
Verschuere, L; Rombaut, G; Sorgeloos, P and Verstraete,
W (2000). Probiotic bacteria as biological control agents
in aquaculture. Microbiol. Mol. Biol. Rev., 64: 655-671.
Vieco-Saiz, N; Belguesmia, Y; Raspoet, R; Auclair, E;
Gancel, F; Kempf, I and Drider, D (2019). Benefits and
inputs from lactic acid bacteria and their bacteriocins as
alternatives to antibiotic growth promoters during foodanimal production. Front. Microbiol., 10: 1-17.
Wang, Y; Lin, H and Chang, P (2023). Evaluation of
probiotic potentiality of gm-lac (Lactobacillus and
Bifidobacterium) in juvenile Asian seabass lates
calcarifer. Aquac. Rep., 30: 101615.
Wei, LS; Goh, KW; Hamid, NKA; Kari, ZA; Wee, W and
Doan, HV (2022). A mini-review on co-supplementation of
probiotics and medicinal herbs: application in
aquaculture. Front. Vet. Sci., 9: 869564.
Weinstein, MR; Litt, M; Kertesz, DA; Wyper, PA; Rose, DP;
Coulter, M; McGeer, A; Facklam, RR; Ostach, C; Willey,
B; Borczyk, A and Low, DE (1997). Invasive infections
due to a fish pathogen, Streptococcus iniae. N. Engl. J.
Med., 9: 589-594.
Widanarni, W and Tanbiyaskur, T (2015). Application of
probiotic, prebiotic and synbiotic for the control of
streptococcosis in tilapia oreochromis niloticus. Pak. J.
Biol. Sci., 18: 59-62.
Wu, P; Liu, C and Hu, S (2021). Probiotic Bacillus safensis
npust1 administration improves growth performance,
gut microbiota, and innate immunity against
Streptococcus iniae in nile tilapia (Oreochromis niloticus).
Microorganisms, 9: 2494-2514.
Zabidi, A; Yusoff, FM; Amin, S; Yaminudin, NJM;
Puvanasundram, P and Karim, M (2021). Effects of
probiotics on growth, survival, water quality and disease
resistance of red hybrid tilapia (Oreochromis spp.)
fingerlings in a biofloc system. Anim., 11: 3514.
Zhou, S; Xia, Y; Zhu, C and Chu, W (2018). Isolation of
marine Bacillus sp. with antagonistic and organicsubstances-degrading activities and its potential
application as a fish probiotic. Mar. Drugs., 16: 196-208.
Zhou, S; Zhang, A; Yin, H and Chu, W (2016). Bacillus sp.
qsi-1 modulate quorum sensing signals reduce
Aeromonas hydrophila level and alter gut microbial
community structure in fish. Front. Media. Front. Cell.
Infect. Microbiol., 6: 1-8.
Zorriehzahra, MJ; Delshad, ST; Adel, M; Tiwari, R;
Karthik, K; Dhama, K and Lazado, CC (2016).
Probiotics as beneficial microbes in aquaculture: an
update on their multiple modes of action: a review. Vet.
Q., 36: 228-241.
