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Al-Soufi, S.;  García, J.;  Muíños, A.;  López-Alonso, M. Marine Macroalgae in Rabbit Nutrition. Encyclopedia. Available online: https://encyclopedia.pub/entry/27167 (accessed on 24 April 2024).
Al-Soufi S,  García J,  Muíños A,  López-Alonso M. Marine Macroalgae in Rabbit Nutrition. Encyclopedia. Available at: https://encyclopedia.pub/entry/27167. Accessed April 24, 2024.
Al-Soufi, Sabela, Javier García, Antonio Muíños, Marta López-Alonso. "Marine Macroalgae in Rabbit Nutrition" Encyclopedia, https://encyclopedia.pub/entry/27167 (accessed April 24, 2024).
Al-Soufi, S.,  García, J.,  Muíños, A., & López-Alonso, M. (2022, September 14). Marine Macroalgae in Rabbit Nutrition. In Encyclopedia. https://encyclopedia.pub/entry/27167
Al-Soufi, Sabela, et al. "Marine Macroalgae in Rabbit Nutrition." Encyclopedia. Web. 14 September, 2022.
Marine Macroalgae in Rabbit Nutrition
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The inclusion of algae in animal feed has experimentally proven to help to reduce intestinal dysbiosis. However, further studies evaluating the prebiotic effects of algal components on gut health and also identifying the compounds directly responsible for the antimicrobial, antiviral, antioxidative and anti-inflammatory properties of algae are still needed. Furthermore, the inclusion of marine algae in rabbit food could potentially become a commercial marketing strategy that could attract new consumers who are concerned about environmental sustainability and who are looking for different, high-quality foods. 

macroalgae seaweed rabbit nutrition alternative to antibiotics

1. Introduction

Rabbit meat is less common than other types of meat (such as chicken, beef and pork) but is a valuable product in Mediterranean countries, where it was consumed by ancient civilizations and is still consumed in traditional gastronomy today [1]. The EU is the second world producer of rabbit meat (after China), with most production being concentrated in Spain, France and Italy [2]. Intensive rabbit farming became popular in these countries in the 1980s and led to a highly specialized industry, although there remain small farms still in need of modernization [2][3].

2. Seaweed and Gut Health

Seaweed has traditionally been used in animal nutrition in some parts of the world—as fodder during periods of scarcity and also as a mineral supplement [4][5][6]. However, the current interest in the use of algae in animal nutrition arises from the urgent need to search for new bioactive substances that can improve animal health and the sustainability of animal production [7][8][9]. In this sense, seaweeds represent a very promising source of numerous beneficial substances, as they are very rich in polysaccharides with prebiotic potential [10][11][12][13].
The chemical composition and the bioactive metabolite content of seaweed/marine algae have been extensively studied, along with the variations related to species and genera, harvesting season, environmental conditions and geographical location (for a review, see [4]), and it is outside of the scope of this research to conduct a comprehensive review of these aspects. Overall, macroalgae are classified in three groups according to their pigmentation: green seaweeds (Chlorophyta), brown seaweeds (Phaeophyta) and red seaweeds (Rhodophyta) [7][14]. Although the composition is very variable, together, these seaweeds provide numerous nutrients of great interest (in animal nutrition). The protein content varies among groups, with red algae having the highest percentage (up to 47%) and brown algae the lowest (5–15%), and it is generally of very good quality in all types due to the high content of essential amino acids [13]. Seaweeds are a rich source of minerals, as they contain high levels of potassium, sodium and calcium, as well as iron, zinc, iodine, manganese, copper, cobalt and selenium [7][15][16] and also high levels of vitamins, especially vitamins A, C and E and the B group vitamins (B1, B2 and B12) [15][17]. Seaweeds also contain large amounts of PUFAs, particularly omega-3 and omega-6, which are present in a balanced ratio [13][15][16]. They are also rich in polyphenolic compounds (such as flavonoids and tannins), which act as strong antioxidants [13][14][15][17].
The main current interest in the use of seaweeds in animal nutrition lies in their high contents of complex polysaccharides and oligosaccharides, which are not generally digested in the small intestine and are thus partially or fully fermented in the large intestine or colon, providing a rich source of dietary fibre (25–75% of DM) [5][15][17]. Brown seaweeds contain soluble fibres such as alginates, fucoidans and laminarins; green seaweeds contain ulvans, galactans, xylans and mannans; and red seaweeds are mostly composed by agars, carrageenans, xylans and porphyran [13][18][19][20][21]. Some of these polysaccharides, such as laminarins, fucoidans, alginates, galactans and ulvans, have been demonstrated to have prebiotic activity [11][15][22], among other properties (Table 1; [18][19]). These polysaccharides are fermented by and stimulate the growth of commensal bacteria and also inhibit the growth and adhesion of pathogens and improve gut architecture [5][20][21]. Improved gut health is reflected at many levels, as the consumption of algae increases the absorption of nutrients and thus growth and animal welfare [5][7]. Some of these compounds also display immunomodulatory and anti-inflammatory activities [15].
Table 1. Main polysaccharides of interest in macroalgae.
Very few studies have evaluated the inclusion of seaweed in the diets of rabbits, and in most of the studies, the main objective has been to evaluate the potential prebiotic effects on gut health. Two studies performed in Egypt [16][23] evaluated the effect of including whole algae (sun-dried) on the growth performance and gut health of growing rabbits. In both cases, the inclusion of 1% Ulva lactuca had positive effects on the growth performance and digestive health parameters of rabbits. On the contrary, in a study conducted in Brazil [24], in which rabbits were fed Lithothammium flour (up to 1% of the diet), no significant effects on animal performance or digestive health were observed, even though the highest concentration of algae (1%) led to a decrease in the length and width of the villi. Finally, studies were recently conducted in Italy with the main objective of evaluating the effects of natural extracts from plants and algae (including polysaccharides from brown seaweeds) on the reproductive performance of does [25], semen quality in bucks [26] and zootechnical performance and antioxidant effects; although no significant effects on the reproductive endpoints were observed, the supplementation of the diets with algae improved the antioxidant status and fat metabolism in the animals. In a similar study carried out in Italy, the effect of natural extracts from plants and algae on the growth performance and meat quality parameters of growing rabbits was evaluated [27][28]. The long-term supplementation of lactating does and their offspring with brown seaweed and plant polyphenols (0.3 and 0.6%) improved growth performance, lowered cholesterol content and enhanced the oxidative stability and sensory quality of the meat, leading the researchers to conclude that a low dose of brown seaweed (Laminaria spp.) and plant-extract supplementation (phenolic acid, hydroxycinnamic acids, tannins and flavonoids) could enhance growth performance and produced better-quality rabbit meat. Although none of these studies evaluated the gut health of rabbits, most indicated that seaweed consumption can potentially enhance growth performance and antioxidant status and produce better-quality meat.
On the contrary, a large body of research has been carried out in piglets to evaluate the inclusion of macroalgae and algal extracts (mainly laminarin and fucoidans) in the diet in the post-weaning period. Pig production faces problems similar to those of rabbit production related to dysbiosis during the post-weaning period, which was traditionally controlled with the use of antibiotic-medicated feed and supplementation with high levels of minerals (particularly copper and zinc) [29]. The ban on (or limited use of) antibiotics has led to the need for feeding strategies in the post-weaning period that can re-establish the gut eubiosis lost at weaning, aimed at restoring the Lactobacillus count, promoting the growth of beneficial bacteria that boost the mucosal immune system and lowering the proliferation of pathogenic bacteria [30]. The pig farming sector already has some experience in using seaweed to improve the health and performance of piglets while avoiding the use of in-feed antibiotics (for a review, see [5][7][29]). The results of the numerous studies carried out in this field are summarized in Figure 1. Most studies have been performed with laminarin and fucoidan, which have been demonstrated to have many valuable properties. These compounds increase beneficial microbiota, enhance nutrient digestibility, improve villus structure, stimulate SCFA production, reduce pathogen populations and boost immune function, ultimately reducing post-weaning diarrhoea [5][9][10][31][32][33][34][35][36][37][38][39][40][41][42][43][44].
Figure 1. Benefits of seaweeds on piglet gut health. Increase beneficial microbiota [31][32][34][35][39][40][42], boost immune function [32][38][42], enhance nutrient digestibility [31][32][33][34][36][43], stimulate SCFA production [38][44], reduce pathogen populations [33][34][35][39][40][42][44], improve villous structure [34][44].
Given the experience with piglets, it seems reasonable to assume that rabbits could benefit from the supplementation of some algae or algae extracts enriched in polysaccharides to improve the health of the immature digestive system in the post-weaning period. This possibility deserves further study.

3. Seaweed and Meat Quality

Rabbit meat is a high-quality product due to its nutritive and dietetic properties [1][45]. It has a high protein content (of about 22%), characterised by high essential amino-acid levels. It is also a good source of potassium, phosphorous, selenium and B vitamins (being one of the richest sources of vitamin B12) and has a very low sodium content [2][45][46]. Moreover, the fatty acid profile of rabbit meat is considered very healthy, because the meat contains lower levels of cholesterol and saturated fatty acids than other meats and is also very rich in PUFAs, which are well balanced between the n-3 and n-6 series [47]. However, the high content of PUFAs makes this meat susceptible to oxidative deterioration and the generation of toxic compounds, which alter the sensorial properties and limit its shelf-life. Therefore, it is very important to increase the levels/balance of antioxidants in rabbit meat to guarantee its stability [47]; this can be performed by including antioxidants (preferably of natural origin) in the animal feed.
Seaweeds are a rich source of antioxidants such as polyphenols and vitamins [4][15][48][49], and numerous studies have demonstrated their usefulness in improving muscle oxidative stability and antioxidant capacity in the main livestock species (Figure 2). The inclusion of laminarin and fucoidan derived from Laminaria digitata in piglet diets reduces lipid oxidation in the fresh meat [50][51] and also improves its antioxidant capacity [51]. Another study [52] has observed an effect on meat colour that may be related to an increase in antioxidant compounds [49]. This effect has also been observed in ruminants [53][54] and in broiler chickens [55].
Figure 2. Benefits of seaweeds on meat quality.
It has also been observed that some seaweeds (L. digitata, L. japonica, A. nodosum) enhance the fatty acid profile of the meat by increasing the PUFA content and reducing the levels of saturated fatty acids and cholesterol, as observed in piglets [56], ducks [57] and cattle [58]. A reduction in abdominal fat in broiler chickens has also been observed when fed a diet including Ulva lactuca [59]. The inclusion of laminarin and fucoidan in piglet diets also enhanced the visual sensory descriptors of the meat [56] and reduced bacterial counts during storage [51]. Finally, the high iodine content of some brown algae, easily transferred to animal tissues, has been proposed as a potential means of mitigating iodine deficiency in humans, with health benefits regarding the prevention of thyroid dysfunctions [32].
Information about the capacity of seaweeds to improve meat quality in rabbits is scarce. The short- and long-term inclusion of Laminaria spp. (0.3 and 0.6%) in rabbit diets was recently studied [27][28]. In a 42-day-long trial in growing rabbits, the vitamin A and E contents of muscle were improved, enhancing nutritional quality and oxidative stability; the sensory parameters were also enhanced. When lactating does were given the algal supplement, their offspring showed a reduction in cholesterol content and an increase in α-tocopherol and retinol contents, while the sensory quality of the meat was also improved.
Altogether, the available information indicates that the inclusion of macroalgae in the diet of rabbits could further improve the intrinsic properties of the meat and enhance its stability. This approach could be used as a marketing tool to help to generate a niche market for rabbit meat as a healthy food [1].

4. Seaweed and Sustainable Animal Farming

Seaweed farming is increasing worldwide as part of the development of a sustainable economy [60]. China and Indonesia, where harvesting or collecting algae from the natural environment is an ancient practice, are the major seaweed-producing countries, contributing 86.6% of global seaweed production [4][61]. Within Europe, France is also a top producer of algae [61], and seaweed farming is currently expanding in Mediterranean countries [62]. Seaweeds are used for multiple purposes, directly as animal feed and to produce biofertilizers. They can also be refined to extract some compounds of interest for the pharmaceutical, cosmetic and food industries, and by-products are used to produce biofuels or biofertilizers [62][63][64][65].
The use of macroalgae as an alternative to the use of antibiotics in animal production has many environmental benefits, beginning with the direct reduction in the discharge of pharmaceutical residues in the environment [66]. The global consumption (228 countries) of antimicrobials in food animal production was estimated to be 63,151 (±1560) tonnes in 2010 and is expected to rise by 67% in 2030, almost doubling in BRICS countries [67]. Between 40 and 90% (depending on the class of drugs) of the antibiotic dose administered is excreted as parent compounds in the active form in the faeces and urine, eventually reaching the environment and contaminating soils, water and plants [68]. Once in the environment, antibiotic residues can have negative effects on biota at different trophic levels and on human health via the consumption of contaminated food and water, also contributing to increasing the resistant bacterial population and maintaining selective pressure that leads to the development and/or dissemination of resistance in different environmental compartments [69][70].
The inclusion of seaweed as an ingredient in animal feed provides essential amino acids, PUFAs, vitamins and minerals, antioxidants and soluble fibre, which together can improve animal health and contribute to low mortality rates and a reduction in antibiotic use [4][29]. The minimization of mortality rates would considerably reduce the environmental impact of rabbit farming by increasing its efficiency [46][71]. To achieve this goal, the development of diets that are well adapted to the post-weaning period together with improved farm management and hygienic conditions are crucial [46][72].
It is well known that the greatest environmental impact of monogastric farming is associated with feed production, especially commercial protein feeds such as soybean meal, which are associated with deforestation and emissions derived from transport [46][73]. Reduced protein intake and the substitution of part of the protein with other sources with lower environmental impact, such as macroalgae, would, therefore, contribute to mitigating damage to the environment and pollution due to nitrogen excretion [46][74][75]. Moreover, in the context of population growth and limited sources, high rates of production of marine seaweeds could be achieved without the need for fresh water, arable land or fertilisation; seaweeds, therefore, represent an interesting source of ingredients and bioactive compounds for human and animal nutrition [5][44][48][74][76].
Within sustainable farming systems, seaweed cultivation is of interest because of the ecosystem services that algae provide [60]. Macroalgae possess bioremediation properties, as they are capable of minimising eutrophication by removing excess dissolved nutrients such as C, N and P [77][78]. They also remove heavy metals from water [79] and act as a potential carbon sink that contributes to mitigating ocean acidification and climate change [48][64]. In this sense, seaweed cultivation has been proposed as a beneficial co-culture practice in aquaculture, in a new system called IMTA (integrated multi-trophic aquaculture), in order to reduce the environmental impact of fish and mussel production [78]. Intensive mariculture produces large quantities of organic and inorganic pollutants that cause environmental deterioration [77]. The IMTA system combines the cultivation of various species from different trophic levels and complementary ecosystem functions (fed species (fish/shrimp), filtering species (mussels/oysters/other molluscs) and extractive species (seaweeds)), so that the waste and nutrients derived from one culture can be reused and used for other species [78][80]. As a result, the whole system is less harmful to the environment [77][80], and total production is higher than that of monoculture systems, reaching higher biomass yield [81] and better-quality products [78].
Furthermore, some seaweeds such as Ulva spp. grow uncontrollably on the coast and have some negative environmental impacts, leading to coastal degradation and problems for the fishing industry and tourism. Seaweed is removed regularly, thereby generating tons of marine macroalgal waste every year [6][13]. In addition, the seaweed industry also generates large amounts of waste during the transformation process. This waste could be revalorized for inclusion in animal feed, among other uses, providing benefits both to animal health and the economic viability of industries. This approach would create a circular economy model that would be beneficial in environmental, economic, social and animal welfare terms (Figure 3) [6][80].
Figure 3. Environmental benefits of revalorizing seaweeds for animal feed.

References

  1. Petracci, M.; Soglia, F.; Leroy, F. Rabbit Meat in Need of a Hat-Trick: From Tradition to Innovation (and Back). Meat Sci. 2018, 146, 93–100.
  2. Cullere, M.; Dalle Zotte, A. Rabbit Meat Production and Consumption: State of Knowledge and Future Perspectives. Meat Sci. 2018, 143, 137–146.
  3. Trocino, A.; Cotozzolo, E.; Zomeño, C.; Petracci, M.; Xiccato, G.; Castellini, C. Rabbit Production and Science: The World and Italian Scenarios from 1998 to 2018. Ital. J. Anim. Sci. 2019, 18, 1361–1371.
  4. Makkar, H.P.S.; Tran, G.; Heuzé, V.; Giger-Reverdin, S.; Lessire, M.; Lebas, F.; Ankers, P. Seaweeds for Livestock Diets: A Review. Anim. Feed Sci. Technol. 2016, 212, 1–17.
  5. Øverland, M.; Mydland, L.T.; Skrede, A. Marine Macroalgae as Sources of Protein and Bioactive Compounds in Feed for Monogastric Animals. J. Sci. Food Agric. 2019, 99, 13–24.
  6. Pardilhó, S.; Cotas, J.; Pereira, L.; Oliveira, M.B.; Dias, J.M. Marine Macroalgae in a Circular Economy Context: A Comprehensive Analysis Focused on Residual Biomass. Biotechnol. Adv. 2022, 60, 107987.
  7. Corino, C.; Modina, S.C.; Di Giancamillo, A.; Chiapparini, S.; Rossi, R. Seaweeds in Pig Nutrition. Animals 2019, 9, 1126.
  8. Patel, S.; Goyal, A. The Current Trends and Future Perspectives of Prebiotics Research: A Review. 3 Biotech 2012, 2, 115–125.
  9. Sweeney, T.; O’Doherty, J.V. Marine Macroalgal Extracts to Maintain Gut Homeostasis in the Weaning Piglet. Domest. Anim. Endocrinol. 2016, 56, S84–S89.
  10. O’Sullivan, L.; Murphy, B.; McLoughlin, P.; Duggan, P.; Lawlor, P.G.; Hughes, H.; Gardiner, G.E. Prebiotics from Marine Macroalgae for Human and Animal Health Applications. Mar. Drugs 2010, 8, 2038–2064.
  11. De Jesus Raposo, M.F.; De Morais, A.M.M.B.; De Morais, R.M.S.C. Emergent Sources of Prebiotics: Seaweeds and Microalgae. Mar. Drugs 2016, 14, 27.
  12. Cherry, P.; Yadav, S.; Strain, C.R.; Allsopp, P.J.; Mcsorley, E.M.; Ross, R.P.; Stanton, C. Prebiotics from Seaweeds: An Ocean of Opportunity? Mar. Drugs 2019, 17, 327.
  13. Morais, T.; Inácio, A.; Coutinho, T.; Ministro, M.; Cotas, J.; Pereira, L.; Bahcevandziev, K. Seaweed Potential in the Animal Feed: A Review. J. Mar. Sci. Eng. 2020, 8, 559.
  14. Maghin, F. Biological Functions and Health Promoting Effects of Brown Seaweeds in Swine Nutrition. J. Dairy Vet. Anim. Res. 2014, 1, 2–5.
  15. Hamed, I.; Özogul, F.; Özogul, Y.; Regenstein, J.M. Marine Bioactive Compounds and Their Health Benefits: A Review. Compr. Rev. Food Sci. Food Saf. 2015, 14, 446–465.
  16. Abu Hafsa, S.H.; Khalel, M.S.; El-Gindy, Y.M.; Hassan, A.A. Nutritional Potential of Marine and Freshwater Algae as Dietary Supplements for Growing Rabbits. Ital. J. Anim. Sci. 2021, 20, 784–793.
  17. Wells, M.L.; Potin, P.; Craigie, J.S.; Raven, J.A.; Merchant, S.S.; Helliwell, K.E.; Smith, A.G.; Camire, M.E.; Brawley, S.H. Algae as Nutritional and Functional Food Sources: Revisiting Our Understanding. J. Appl. Phycol. 2017, 29, 949–982.
  18. Pereira, L. Biological and Therapeutic Properties of the Seaweed Polysaccharides. Int. Biol. Rev. 2018, 2, 1–50.
  19. Salehi, B.; Sharifi-rad, J.; Seca, A.M.L.; Pinto, D.C.G.A. Current Trends on Seaweeds: Looking at Chemical Composition, Phytopharmacology, and Cosmetic Applications. Molecules 2019, 24, 4182.
  20. de Borba Gurpilhares, D.; Cinelli, L.P.; Simas, N.K.; Pessoa, A.; Sette, L.D. Marine Prebiotics: Polysaccharides and Oligosaccharides Obtained by Using Microbial Enzymes. Food Chem. 2019, 280, 175–186.
  21. Lopez-Santamarina, A.; Miranda, J.M.; Del Carmen Mondragon, A.; Lamas, A.; Cardelle-Cobas, A.; Franco, C.M.; Cepeda, A. Potential Use of Marine Seaweeds as Prebiotics: A Review. Molecules 2020, 25, 1004.
  22. Evans, F.D.; Critchley, A.T. Seaweeds for Animal Production Use. J. Appl. Phycol. 2014, 26, 891–899.
  23. El-banna, S.G.; Hassan, A.A.; Okab, A.B.; Koriem, A.A.; Ayoub, M.A. Effect of Feeding Diets Supplemented with Seaweed on Growth Performance and Some Blood Hematological and Biochemical Characteristics of Male Baladi Rabbits. In Proceedings of the 4th International Conference on Rabbit Production in Hot Climate, Sharm Elsheikh, Egypt, 24–27 February 2005; Volume 382, pp. 373–382.
  24. Euler, A.C.C.; Ferreira, W.M.; De Teixeira, E.; Lana, Â.M.Q.; Guedes, R.M.C.; Avelar, A.C. Desempenho, Digestibilidade e Morfometria Da Vilosidade Ileal de Coelhos Alimentados Com Níveis de Inclusão de “Lithothamnium”. Rev. Bras. Saúde Prod. An. 2010, 11, 91–103.
  25. Vizzarri, F.; Chiapparini, S.; Corino, C.; Casamassima, D.; Palazzo, M.; Parkanyi, V.; Ondruska, L.; Rossi, R. Dietary Supplementation with Natural Extracts Mixture: Effects on Reproductive Performances, Blood Biochemical and Antioxidant Parameters in Rabbit Does. Ann. Anim. Sci. 2020, 20, 565–578.
  26. Vizzarri, F.; Massányi, M.; Knížatová, N.; Corino, C.; Rossi, R.; Ondruška, Ľ.; Tirpák, F.; Halo, M.; Massányi, P. Effects of Dietary Plant Polyphenols and Seaweed Extract Mixture on Male-Rabbit Semen: Quality Traits and Antioxidant Markers. Saudi J. Biol. Sci. 2021, 28, 1017–1025.
  27. Rossi, R.; Vizzarri, F.; Chiapparini, S.; Ratti, S.; Casamassima, D.; Palazzo, M.; Corino, C. Effects of Dietary Levels of Brown Seaweeds and Plant Polyphenols on Growth and Meat Quality Parameters in Growing Rabbit. Meat Sci. 2020, 161, 107987.
  28. Rossi, R.; Vizzarri, F.; Ratti, S.; Palazzo, M.; Casamassima, D.; Corino, C. Effects of Long-Term Supplementation with Brown Seaweeds and Polyphenols in Rabbit on Meat Quality Parameters. Animals 2020, 10, 2443.
  29. López-Gálvez, G.; López-Alonso, M.; Pechova, A.; Mayo, B.; Dierick, N.; Gropp, J. Alternatives to Antibiotics and Trace Elements (Copper and Zinc) to Improve Gut Health and Zootechnical Parameters in Piglets: A Review. Anim. Feed Sci. Technol. 2021, 271, 114727.
  30. Trevisi, P.; Luise, D.; Correa, F.; Messori, S.; Mazzoni, M.; Lallès, J.P.; Bosi, P. Maternal Antibiotic Treatment Affects Offspring Gastric Sensing for Umami Taste and Ghrelin Regulation in the Pig. J. Anim. Sci. Biotechnol. 2021, 12, 31.
  31. Reilly, P.; O’Doherty, J.V.; Pierce, K.M.; Callan, J.J.; O’Sullivan, J.T.; Sweeney, T. The Effects of Seaweed Extract Inclusion on Gut Morphology, Selected Intestinal Microbiota, Nutrient Digestibility, Volatile Fatty Acid Concentrations and the Immune Status of the Weaned Pig. Animal 2008, 2, 1465–1473.
  32. Dierick, N.; Ovyn, A.; De Smet, S. Effect of Feeding Intact Brown Seaweed Ascophyllum Nodosum on Some Digestive Parameters and on Iodine Content in Edible Tissues in Pigs. J. Sci. Food Agric. 2009, 89, 584–594.
  33. McDonnell, P.; Figat, S.; Odoherty, J.V. The Effect of Dietary Laminarin and Fucoidan in the Diet of the Weanling Piglet on Performance, Selected Faecal Microbial Populations and Volatile Fatty Acid Concentrations. Animal 2010, 4, 579–585.
  34. O’Doherty, J.V.; McDonnell, P.; Figat, S. The Effect of Dietary Laminarin and Fucoidan in the Diet of the Weanling Piglet on Performance and Selected Faecal Microbial Populations. Livest. Sci. 2010, 134, 208–210.
  35. Leonard, S.G.; Sweeney, T.; Bahar, B.; Lynch, B.P.; O’Doherty, J.V. Effects of Dietary Seaweed Extract Supplementation in Sows and Post-Weaned Pigs on Performance, Intestinal Morphology, Intestinal Microflora and Immune Status. Br. J. Nutr. 2011, 106, 688–699.
  36. McAlpine, P.; O’Shea, C.J.; Varley, P.F.; Flynn, B.; O’Doherty, J.V. The Effect of Seaweed Extract as an Alternative to Zinc Oxide Diets on Growth Performance, Nutrient Digestibility, and Fecal Score of Weaned Piglets. J. Anim. Sci. 2012, 90, 224–226.
  37. Walsh, A.M.; Sweeney, T.; O’Shea, C.J.; Doyle, D.N.; O’Doherty, J.V. Effect of Supplementing Varying Inclusion Levels of Laminarin and Fucoidan on Growth Performance, Digestibility of Diet Components, Selected Faecal Microbial Populations and Volatile Fatty Acid Concentrations in Weaned Pigs. Anim. Feed Sci. Technol. 2013, 183, 151–159.
  38. Walsh, A.M.; Sweeney, T.; O’Shea, C.J.; Doyle, D.N.; O’Doherty, J.V. Effect of Dietary Laminarin and Fucoidan on Selected Microbiota, Intestinal Morphology and Immune Status of the Newly Weaned Pig. Br. J. Nutr. 2013, 110, 1630–1638.
  39. Heim, G.; Walsh, A.M.; Sweeney, T.; Doyle, D.N.; O’Shea, C.J.; Ryan, M.T.; O’Doherty, J.V. Effect of Seaweed-Derived Laminarin and Fucoidan and Zinc Oxide on Gut Morphology, Nutrient Transporters, Nutrient Digestibility, Growth Performance and Selected Microbial Populations in Weaned Pigs. Br. J. Nutr. 2014, 111, 1577–1585.
  40. O’Shea, C.J.; McAlpine, P.; Sweeney, T.; Varley, P.F.; O’Doherty, J.V. Effect of the Interaction of Seaweed Extracts Containing Laminarin and Fucoidan with Zinc Oxide on the Growth Performance, Digestibility and Faecal Characteristics of Growing Piglets. Br. J. Nutr. 2014, 111, 798–807.
  41. Choi, Y.; Hosseindoust, A.; Goel, A.; Lee, S.; Jha, P.K.; Kwon, I.K.; Chae, B.J. Effects of Ecklonia Cava as Fucoidan-Rich Algae on Growth Performance, Nutrient Digestibility, Intestinal Morphology and Caecal Microflora in Weanling Pigs. Asian-Australasian J. Anim. Sci. 2017, 30, 64–70.
  42. Ruiz, Á.R.; Gadicke, P.; Andrades, S.M.; Cubillos, R. Supplementing Nursery Pig Feed with Seaweed Extracts Increases Final Body Weight of Pigs. Austral J. Vet. Sci. 2018, 50, 83–87.
  43. Wan, J.; Zhang, J.; Chen, D.; Yu, B.; He, J. Effects of Alginate Oligosaccharide on the Growth Performance, Antioxidant Capacity and Intestinal Digestion-Absorption Function in Weaned Pigs. Anim. Feed Sci. Technol. 2017, 234, 118–127.
  44. Sardari, R.R.R.; Nordberg Karlsson, E. Marine Poly- and Oligosaccharides as Prebiotics. J. Agric. Food Chem. 2018, 66, 11544–11549.
  45. Dalle Zotte, A.; Szendro, Z. The Role of Rabbit Meat as Functional Food. Meat Sci. 2011, 88, 319–331.
  46. Cesari, V.; Zucali, M.; Bava, L.; Gislon, G.; Tamburini, A.; Toschi, I. Environmental Impact of Rabbit Meat: The Effect of Production Efficiency. Meat Sci. 2018, 145, 447–454.
  47. Dalle Zotte, A. Perception of Rabbit Meat Quality and Major Factors Influencing the Rabbit Carcass and Meat Quality. Livest. Prod. Sci. 2002, 75, 11–32.
  48. Costa, M.; Cardoso, C.; Afonso, C.; Bandarra, N.M.; Prates, J.A.M. Current Knowledge and Future Perspectives of the Use of Seaweeds for Livestock Production and Meat Quality: A Systematic Review. J. Anim. Physiol. Anim. Nutr. 2021, 105, 1075–1102.
  49. Ribeiro, D.M.; Martins, C.F.; Costa, M.; Coelho, D.; Pestana, J.; Alfaia, C.; Lordelo, M.; de Almeida, A.M.; Freire, J.P.B.; Prates, J.A.M. Quality Traits and Nutritional Value of Pork and Poultry Meat from Animals Fed with Seaweeds. Foods 2021, 10, 2961.
  50. Moroney, N.C.; O’Grady, M.N.; O’Doherty, J.V.; Kerry, J.P. Addition of Seaweed (Laminaria digitata) Extracts Containing Laminarin and Fucoidan to Porcine Diets: Influence on the Quality and Shelf-Life of Fresh Pork. Meat Sci. 2012, 92, 423–429.
  51. Rajauria, G.; Draper, J.; McDonnell, M.; O’Doherty, J.V. Effect of Dietary Seaweed Extracts, Galactooligosaccharide and Vitamin E Supplementation on Meat Quality Parameters in Finisher Pigs. Innov. Food Sci. Emerg. Technol. 2016, 37, 269–275.
  52. Jerez-Timaure, N.; Sánchez-Hidalgo, M.; Pulido, R.; Mendoza, J. Effect of Dietary Brown Seaweed (Macrocystis Pyrifera) Additive on Meat Quality and Nutrient Composition of Fattening Pigs. Foods 2021, 10, 1720.
  53. Montgomery, J.L.; Allen, V.G.; Pond, K.R.; Miller, M.F.; Wester, D.B.; Brown, C.P.; Evans, R.; Bagley, C.P.; Ivy, R.L.; Fontenot, J.P. Tasco-Forage: IV. Influence of a Seaweed Extract Applied to Tall Fescue Pastures on Sensory Characteristics, Shelf-Life, and Vitamin E Status in Feedlot-Finished Steers 1. J. Anim. Sci. 2001, 79, 884–894.
  54. Braden, K.W.; Blanton, J.R.; Montgomery, J.L.; Van Santen, E.; Allen, V.G.; Miller, M.F. Tasco Supplementation: Effects on Carcass Characteristics, Sensory Attributes, and Retail Display Shelf-Life. J. Anim. Sci. 2007, 85, 754–768.
  55. Zhu, W.; Li, D.; Wang, J.; Wu, H.; Xia, X.; Bi, W.; Guan, H.; Zhang, L. Effects of Polymannuronate on Performance, Antioxidant Capacity, Immune Status, Cecal Microflora, and Volatile Fatty Acids in Broiler Chickens. Poult. Sci. 2015, 94, 345–352.
  56. Moroney, N.C.; O’Grady, M.N.; Robertson, R.C.; Stanton, C.; O’Doherty, J.V.; Kerry, J.P. Influence of Level and Duration of Feeding Polysaccharide (Laminarin and Fucoidan) Extracts from Brown Seaweed (Laminaria digitata) on Quality Indices of Fresh Pork. Meat Sci. 2015, 99, 132–141.
  57. Islam, M.M.; Ahmed, S.T.; Kim, Y.J.; Mun, H.S.; Kim, Y.J.; Yang, C.J. Effect of Sea Tangle (Laminaria japonica) and Charcoal Supplementation as Alternatives to Antibiotics on Growth Performance and Meat Quality of Ducks. Asian-Australas. J. Anim. Sci. 2014, 27, 217–224.
  58. Fike, J.H.; Saker, K.E.; O’Keefe, S.F.; Marriott, N.G.; Ward, D.L.; Fontenot, J.P.; Veit, H.P. Effects of Tasco (a Seaweed Extract) and Heat Stress on N Metabolism and Meat Fatty Acids in Wether Lambs Fed Hays Containing Endophyte-Infected Fescue. Small Rumin. Res. 2005, 60, 237–245.
  59. Abudabos, A.M.; Okab, A.B.; Aljumaah, R.S.; Samara, E.M.; Abdoun, K.A.; Al-Haidary, A.A. Nutritional Value of Green Seaweed (Ulva lactuca) for Broiler Chickens. Ital. J. Anim. Sci. 2013, 12, 177–181.
  60. Jagtap, A.S.; Meena, S.N. Seaweed Farming: A Perspective of Sustainable Agriculture and Socio-Economic Development. In Natural Resources Conservation and Advances for Sustainability; Elsevier Inc.: Amsterdam, The Netherlands, 2021; pp. 493–501.
  61. Ferdouse, F.; Løvstad Holdt, S.; Smith, R.; Murúa, P.; Yang, Z. The Global Status of Seaweed Production, Trade and Utilization; FAO Globefish Research Programme; FAO: Rome, Italy, 2018; Volume 124, p. 120.
  62. Van Den Burg, S.W.K.; Dagevos, H.; Helmes, R.J.K. Towards Sustainable European Seaweed Value Chains: A Triple P Perspective. ICES J. Mar. Sci. 2021, 78, 443–450.
  63. Biris-Dorhoi, E.S.; Michiu, D.; Pop, C.R.; Rotar, A.M.; Tofana, M.; Pop, O.L.; Socaci, S.A.; Farcas, A.C. Macroalgae—A Sustainable Source of Chemical Compounds with Biological Activities. Nutrients 2020, 12, 85.
  64. Hasselström, L.; Thomas, J.B.; Nordström, J.; Cervin, G.; Nylund, G.M.; Pavia, H.; Gröndahl, F. Socioeconomic Prospects of a Seaweed Bioeconomy in Sweden. Sci. Rep. 2020, 10, 1610.
  65. López-Mosquera, M.E.; Fernández-Lema, E.; Villares, R.; Corral, R.; Alonso, B.; Blanco, C. Composting Fish Waste and Seaweed to Produce a Fertilizer for Use in Organic Agriculture. Procedia Environ. Sci. 2011, 9, 113–117.
  66. Yang, Q.; Gao, Y.; Ke, J.; Show, P.L.; Ge, Y.; Liu, Y.; Guo, R.; Chen, J. Antibiotics: An Overview on the Environmental Occurrence, Toxicity, Degradation, and Removal Methods. Bioengineered 2021, 12, 7376–7416.
  67. Van Boeckel, T.P.; Brower, C.; Gilbert, M.; Grenfell, B.T.; Levin, S.A.; Robinson, T.P.; Teillant, A.; Laxminarayan, R. Global Trends in Antimicrobial Use in Food Animals. Proc. Natl. Acad. Sci. USA 2015, 112, 5649–5654.
  68. Polianciuc, S.I.; Gurzău, A.E.; Kiss, B.; Georgia Ștefan, M.; Loghin, F. Antibiotics in the Environment: Causes and Consequences. Med. Pharm. Rep. 2020, 93, 231–240.
  69. Kuppusamy, S.; Kakarla, D.; Venkateswarlu, K.; Megharaj, M.; Yoon, Y.E.; Lee, Y.B. Veterinary Antibiotics (VAs) Contamination as a Global Agro-Ecological Issue: A Critical View. Agric. Ecosyst. Environ. 2018, 257, 47–59.
  70. Jayalakshmi, K.; Paramasivam, M.; Sasikala, M.; Sumithra, A. Review on Antibiotic Residues in Animal Products and Its Impact on Environments and Human Health. J. Entomol. Zool. Stud. 2017, 5, 1446–1451.
  71. Maertens, L. Possibilities to Reduce the Feed Conversion in Rabbit Production. In Proceedings of the Giornate di Coniglicoltura ASIC, Forlì, Italy, 2–3 April 2009; pp. 57–59.
  72. Gidenne, T.; Fortun-Lamothe, L. Feeding Strategy for Young Rabbits around Weaning: A Review of Digestive Capacity and Nutritional Needs. Anim. Sci. 2002, 75, 169–184.
  73. Austin, K.F. Soybean Exports and Deforestation from a World-Systems Perspective: A Cross-National Investigation of Comparative Disadvantage. Sociol. Q. 2010, 51, 511–536.
  74. Van Krimpen, M.M.; Bikker, P.; Van Der Meer, I.M.; van der Peet-Schwering, C.M.C.; Vereijken, J.M. Cultivation, Processing and Nutritional Aspects for Pigs and Poultry of European Protein Sources as Alternatives for Imported Soybean Products; Wageningen UR Livestock Research: Lelystad, Netherlands, 2013; p. 48.
  75. Maertens, L.; Cavani, C.; Petracci, M. Nitrogen and Phosphorus Excretion on Commercial Rabbit Farms: Calculations Based on the Input-Output Balance. World Rabbit Sci. 2005, 13, 3–16.
  76. Lopez-Santamarina, A.; Cardelle-Cobas, A.; del Carmen Mondragon, A.; Sinisterra-Loaiza, L.; Miranda, J.M.; Cepeda, A. Evaluation of the Potential Prebiotic Effect of Himanthalia Elongata, an Atlantic Brown Seaweed, in an in Vitro Model of the Human Distal Colon. Food Res. Int. 2022, 156, 111156.
  77. Wu, H.; Huo, Y.; Hu, M.; Wei, Z.; He, P. Eutrophication Assessment and Bioremediation Strategy Using Seaweeds Co-Cultured with Aquatic Animals in an Enclosed Bay in China. Mar. Pollut. Bull. 2015, 95, 342–349.
  78. Nardelli, A.E.; Chiozzini, V.G.; Braga, E.S.; Chow, F. Integrated Multi-Trophic Farming System between the Green Seaweed Ulva lactuca, Mussel, and Fish: A Production and Bioremediation Solution. J. Appl. Phycol. 2019, 31, 847–856.
  79. Znad, H.; Awual, M.R.; Martini, S. The Utilization of Algae and Seaweed Biomass for Bioremediation of Heavy Metal-Contaminated Wastewater. Molecules 2022, 27, 1275.
  80. Fraga-Corral, M.; Ronza, P.; Garcia-Oliveira, P.; Pereira, A.G.; Losada, A.P.; Prieto, M.A.; Quiroga, M.I.; Simal-Gandara, J. Aquaculture as a Circular Bio-Economy Model with Galicia as a Study Case: How to Transform Waste into Revalorized by-Products. Trends Food Sci. Technol. 2022, 119, 23–35.
  81. Marinho, G.S.; Holdt, S.L.; Birkeland, M.J.; Angelidaki, I. Commercial Cultivation and Bioremediation Potential of Sugar Kelp, Saccharina Latissima, in Danish Waters. J. Appl. Phycol. 2015, 27, 1963–1973.
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