Features of the Liver Microstructural Organization of the Bactrian Camel

Camels have developed unique adaptive mechanisms, one of which is the active accumulation of lipids. This metabolic feature has a direct influence on the liver ultrastructure. Its analysis reveals how exactly the hepatocytes have evolved to effectively store fat and neutralize toxins, which is crucial for survival in the desert. Considering the latter, the aim of this research is to establish the features of the microstructural organization of the liver of the Bactrian camel (<i>Camelus bactrianus</i>). This study was conducted using 15 liver tissue fragments from 5 healthy Bacterian camels (3 pieces from each animal) via biopsy. The sections were examined using a JEM-1011 electron microscope at magnifications of 2500-8000. Electron microscopic analysis of hepatocytes revealed a significantly larger hepatocyte diameter (25-30 µm), suggesting an adaptation for metabolites and water storage. Hepatocytes exhibited fewer, medium-sized (0.5-2 µm) lipid droplets, present in only 12-15% of cells. A high density of specialized Kupffer (15-20 cells per 10,000 µm<sup>2</sup>) and activated Ito cells was observed, indicating enhanced detoxification and immune functions. These specific ultrastructural features provide a model for studying metabolic resistance and inform veterinary diagnostics and husbandry practices for this species.

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Journal
Animals
Published
2025-10-08
DOI
https://doi.org/10.3390/ani15192921
Primary Topic
Animal Diversity and Health Studies
Type
article
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article

Features of the Liver Microstructural Organization of the Bactrian Camel

А. И. Лебедева, Л. И. Дроздова, А. В. Прусаков, Л. А. Мусина et al.
Animals
Animal Diversity and Health Studies
article

Features of the Liver Microstructural Organization of the Bactrian Camel

А. И. Лебедева, Л. И. Дроздова, А. В. Прусаков, Л. А. Мусина, Vladimir Sergeevich Ponamarev
article en

Abstract

Camels have developed unique adaptive mechanisms, one of which is the active accumulation of lipids. This metabolic feature has a direct influence on the liver ultrastructure. Its analysis reveals how exactly the hepatocytes have evolved to effectively store fat and neutralize toxins, which is crucial for survival in the desert. Considering the latter, the aim of this research is to establish the features of the microstructural organization of the liver of the Bactrian camel (<i>Camelus bactrianus</i>). This study was conducted using 15 liver tissue fragments from 5 healthy Bacterian camels (3 pieces from each animal) via biopsy. The sections were examined using a JEM-1011 electron microscope at magnifications of 2500-8000. Electron microscopic analysis of hepatocytes revealed a significantly larger hepatocyte diameter (25-30 µm), suggesting an adaptation for metabolites and water storage. Hepatocytes exhibited fewer, medium-sized (0.5-2 µm) lipid droplets, present in only 12-15% of cells. A high density of specialized Kupffer (15-20 cells per 10,000 µm<sup>2</sup>) and activated Ito cells was observed, indicating enhanced detoxification and immune functions. These specific ultrastructural features provide a model for studying metabolic resistance and inform veterinary diagnostics and husbandry practices for this species.

AnimalsVol. 15(19)
St Petersburg University (RU), Ural State Agrarian University (RU), Bashkir State Medical University (RU), Saint Petersburg State University of Veterinary Medicine (RU)
Openalex Percentile: Top 66%
Animal Diversity and Health Studies
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