Mateusz Bucław

Dr. Mateusz Bucław

orcid

Research Focus & Metrics

Academic Career Length

11Years (2016-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 April 2016 in Journal of Animal Physiology and Animal Nutrition
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Journal Article
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MBMateusz Bucław
Mateusz Bucław

9 January 2025 in Agriculture
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Journal Article
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MAMichalina Adaszyńska-Skwirzyńska
Michalina Adaszyńska-Skwirzyńska
PKPaweł Konieczka
Paweł Konieczka
MBMateusz Bucław
Mateusz Bucław
DMDanuta Majewska
Danuta Majewska
APArkadiusz Pietruszka
Arkadiusz Pietruszka
DSDanuta Szczerbińska
Danuta Szczerbińska
The study aimed to analyze and evaluate the production and economic performance of a broiler chicken farm in Poland during the years 2020–2023. Production performance was assessed by comparing final body weight (BW), feed intake (FI), feed conversion ratio (FCR), and the European Performance Efficiency Factor (EPEF). Economic results were determined using the sales value, production costs, profit (direct surplus), and profitability index (PI). During the study years, the broiler rearing period lasted on average 40 days, with six production cycles each year. The average BW was found to be 2.51 kg with an average FCR of 1.54 kg/kg. For the four production years, the EPEF was calculated, reaching a high average value of 399. Broiler chicken production in Poland was profitable despite the continuously increasing production costs. In the years studied, the cost of feed accounted for 69.6–76.1% of the total production costs, chicks 15.0–19.7%, and labor costs 1.59–2.39%. In all of the analyzed production cycles, the PI of broiler chicken rearing was above 100, averaging 120.48%, and the average profit per bird was 0.46 EUR. During the study period, several negative events occurred, including the COVID-19 pandemic, the spread of avian influenza outbreaks, and consequent fluctuations in feed and poultry prices. Despite these challenges, namely the consistently rising production costs, broiler production in the study farm remained profitable.

3 March 2016 in British Poultry Science
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Journal Article
Closed access
DMDanuta Majewska
Danuta Majewska
DSD. Szczerbińska
D. Szczerbińska
MLM. Ligocki
M. Ligocki
MBMateusz Bucław
Mateusz Bucław
ASA. Sammel
A. Sammel
JMJ. Majewski
J. Majewski
(2016). Comparison of the mineral and fatty acid profiles of ostrich, turkey and broiler chicken livers. British Poultry Science: Vol. 57, No. 2, pp. 193-200.

31 July 2023 in Molecules
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MAMichalina Adaszyńska-Skwirzyńska
Michalina Adaszyńska-Skwirzyńska
SZSławomir Zych
Sławomir Zych
MBMateusz Bucław
Mateusz Bucław
DMDanuta Majewska
Danuta Majewska
MDMałgorzata Dzięcioł
Małgorzata Dzięcioł
DSDanuta Szczerbińska
Danuta Szczerbińska
The aim of the study was to investigate the antibacterial effects of essential oils isolated from different cultivars and morphological parts of lavender (Lavandula angustifolia Mill.) in combination with the aminoglycoside antibiotic gentamicin. This in vitro study analyzed the effectiveness of the combinations of gentamicin and lavender essential oils against the following strains: Staphylococcus aureus ATCC 25923, Staphylococcus aureus MRSA and Pseudomonas aeruginosa ATCC 9027. The effect of the combination of lavender oils with gentamicin was tested using the checkerboard method. A synergistic effect against S. aureus strain ATCC 25923 was found when gentamicin was combined with lavender essential oils isolated from flowers and leafy stalks (flowers: ‘Blue River’ FICI—0.192; ‘Ellagance Purple’ FICI—0.288; leafy stalks: ‘Blue River’ FICI—0.192; ‘Ellagance Purple’ FICI—0.320). A synergistic effect was also observed for the combination of gentamicin with lavender essential oils from flowers against the resistant strain of S. aureus (MRSA) (‘Blue River’ FICI—0,191; ‘Ellagance Purple’ FICI—0.263), as well as for the essential oils from leafy stalks (‘Blue River’ FICI—0.076; ‘Ellagance Purple’ FICI—0.089). No interaction was observed for the combination of studied essential oils with gentamicin against P. aeruginosa strain ATCC 9027 (FICI = 1.083–1.300).

6 July 2020 in Scientific Reports
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Journal Article
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MBMateusz Bucław
Mateusz Bucław
DMDanuta Majewska
Danuta Majewska
DSDanuta Szczerbińska
Danuta Szczerbińska
MLMarek Ligocki
Marek Ligocki
Studies were carried out to determine the influence of age and sex on two types of fat (back fat and abdominal fat) in the emu, as these are factors that influence the composition of animal tissues. The material involved 26 emus at the age 1 (6 males), 3 (6 males) and 15 years (8 females and 6 males), kept on the same farm and fed the feed of the same nutritional value. The basic chemical composition, cholesterol and mineral content, as well as fatty acid profile of back and abdominal fat of emu were determined. Abdominal fat was characterized by higher content of fat and ash, as well as Mn and Ba. Back fat, on the other hand, showed a higher level of protein, cholesterol, C16:1 and the elements K, P, Si, Na, Ca, Mg, Fe, Zn, Se and Cu. With age, regardless of the type of fat tissue, fat content decreased and water content increased. The highest content of protein, ash, cholesterol, some fatty acids (C18:0, C18:1n9c, C18:2n6c), generally higher content of MUFA, PUFA and the elements K, P, Ca, Mg, Fe, Zn, Pb, Se, Cr, Cd, were found in the fatty tissue of 15-year-old emus. Sex did influence the content of Si, Ca, Cu, Sr, which was higher in the fatty tissue of males. The composition of emu storage fat is determined by factors such as age, sex and the location of the fat tissue in the body.

1 June 2017 in World's Poultry Science Journal
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Journal Article
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MBMateusz Bucław
Mateusz Bucław
Since 2006, when the European Union imposed a total ban on the use of antibiotic growth promoters, scientific interest has focused on natural feed additives that might be positive to both production performance and animal health. Inulin is a prebiotic, which occurs naturally in many plants as a storage material. The specific structure of inulin underlies the fact that it is not digested by the host digestive enzymes. Unchanged, the prebiotic reaches the large intestine, where it undergoes fermentation and becomes a substrate for some strains of healthy bacteria. Current literature contains information on the effects of inulin on broiler performance and laying performance of hens. It may be concluded from data available that inulin is beneficial in the production of poultry meat and eggs. Inulin may improve feed intake and conversion, stimulate weight gains, strengthen the skeletal system, improve carcass yields and the production and quality of eggs. However, reports on the subject are scarce, and the results they present vary substantially. The mode of action of inulin appears to be complex, multidirectional and is not yet fully understood. The ambiguous character of inulin may result from the fact that its effectiveness in poultry nutrition depends on a number of factors. Despite these unresolved issues, the positive properties of inulin may be of benefit to the poultry industry.