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• W2725546503 abstract "Pigs are monogastric animals with simple, single-chambered stomach and require easily digestible, high quality feed. One of the most important factors that determine feed utilization by pigs is the particle size distribution. The reduction of particle size of feed improves pigs’ performance due to increased specific surface of feed particles allowing better contact with digestive enzymes. In this respect, fine grinding could be recommended in production of pig feed. Additionally, in modern pig production dry feed is predominantly used in pelleted form, which is mainly due to improved (i.e. decreased) feed conversion ratio (FCR) of pigs fed pelleted feed, but also due to other advantages of pelleted over mash feed. Size of feed particles is strongly reduced during pelleting process. Consequently, digestibility of nutrients in pig feed could be improved. On the other hand, presence of high quantities of fine particles in pig feed (both mash and pelleted) negatively affects the health of gastro-intestinal tract (GIT) leading to higher incidence of stomach ulceration and other negative alterations of gastric mucosa (keratization, erosions). Gastric ulcers are one of the most important causes of sudden death on farm that can result in large economic losses in pig production. Concerning that the animal therapy is expensive, labor-intensive, and mostly non-effective due to late recognition of ulceration, prophylactic recommendations are required. Thus, according to literature data, decreasing the quantity of fine particles in pig feed is strongly recommended. Particle size distribution of the pigs’ feed has a strong influence on presence of pathogen bacteria in GIT of pigs. Feeding pigs with coarse mash feed decreases pH value of stomach content compared to pigs fed finely ground mash feed and compared to pigs fed pelleted feed. This can be explained by slower passage rate, increased dry matter, and more dense consistency of stomach content in pigs fed coarse mash diets. Consequently, feed acidification in stomach is better, number of lactic acid bacteria and concentration of organic acids is higher, and pH of stomach content is lower. These conditions create additional “barrier” against pathogen bacteria. According to available data, optimal particle size of diets for pigs is in the range between 500 and 1600 μm, while particles smaller than 400 μm are considered as undesirable with high ulcerogenic capacity. Optimal particle size could be designed in the grinding process, and it was shown that the most convenient grinding method is to combine roller mill and hammer mill. Concerning that nowadays pigs are mainly fed pelleted feed, and that pelleting causes strong additional grinding of feed particles, particle size distribution (PSD) obtained within the grinding process would be dramatically changed during pelleting. The possibilities to decrease the intensity of grinding of particles during pelleting, by variation of parameters of pelleting process, are very limited. Modified extrusion process (i.e. processing using expander) followed by shaping element, is suggested in the literature as an alternative for pelleting in order to obtain agglomerated pig feed with preserved PSD, but this process is not extensively studied so far." @default.
• W2725546503 created "2017-07-14" @default.
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• W2725546503 date "2017-11-01" @default.
• W2725546503 modified "2023-10-17" @default.
• W2725546503 title "Importance of feed structure (particle size) and feed form (mash vs. pellets) in pig nutrition – A review" @default.
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• W2725546503 cites W1582506243 @default.
• W2725546503 cites W1698597028 @default.
• W2725546503 cites W172771306 @default.
• W2725546503 cites W1836487840 @default.
• W2725546503 cites W196353441 @default.
• W2725546503 cites W1964461644 @default.
• W2725546503 cites W1967951818 @default.
• W2725546503 cites W1968721762 @default.
• W2725546503 cites W1970569398 @default.
• W2725546503 cites W1972385855 @default.
• W2725546503 cites W1991258989 @default.
• W2725546503 cites W1995903044 @default.
• W2725546503 cites W2022011829 @default.
• W2725546503 cites W2030112983 @default.
• W2725546503 cites W2033071097 @default.
• W2725546503 cites W2033461504 @default.
• W2725546503 cites W2035465354 @default.
• W2725546503 cites W2039385557 @default.
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• W2725546503 cites W2049336417 @default.
• W2725546503 cites W2058924978 @default.
• W2725546503 cites W2061385635 @default.
• W2725546503 cites W2064133963 @default.
• W2725546503 cites W2069439273 @default.
• W2725546503 cites W2070025109 @default.
• W2725546503 cites W2079395474 @default.
• W2725546503 cites W2083749325 @default.
• W2725546503 cites W2088105330 @default.
• W2725546503 cites W2100450167 @default.
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• W2725546503 cites W2105750036 @default.
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• W2725546503 cites W2125188347 @default.
• W2725546503 cites W2127350062 @default.
• W2725546503 cites W2128218659 @default.
• W2725546503 cites W2131237467 @default.
• W2725546503 cites W2137932525 @default.
• W2725546503 cites W2141956830 @default.
• W2725546503 cites W2149784280 @default.
• W2725546503 cites W2155314549 @default.
• W2725546503 cites W2158228218 @default.
• W2725546503 cites W2164776951 @default.
• W2725546503 cites W2169329272 @default.
• W2725546503 cites W2169738033 @default.
• W2725546503 cites W2170054958 @default.
• W2725546503 cites W2185313718 @default.
• W2725546503 cites W2196985831 @default.
• W2725546503 cites W2260957034 @default.
• W2725546503 cites W2269345410 @default.
• W2725546503 cites W2272106365 @default.
• W2725546503 cites W2289483127 @default.
• W2725546503 cites W2294678479 @default.
• W2725546503 cites W2338027301 @default.
• W2725546503 cites W2399363062 @default.
• W2725546503 cites W2400686228 @default.
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• W2725546503 doi "https://doi.org/10.1016/j.anifeedsci.2017.06.016" @default.
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