Centriole

The centriole plays a crucial role in cell division.

Aberrations in centriole duplication can lead to genetic disorders.

The damaged centriole affected the cell's ability to organize its cytoskeleton.

The damaged centriole disrupted the formation of spindle fibers.

The structure of the centriole is essential for maintaining cell polarity.

The centriole plays a crucial role in organizing the spindle fibers during mitosis.

The centriole plays a crucial role in the formation of the mitotic spindle during cell division.

The centriole pairs migrate to opposite poles of the cell during anaphase.

The centriole duplication process is crucial for accurate cell division.

Abnormalities in centriole structure and function have been associated with certain genetic disorders.

Abnormalities in centriole structure can result in genetic disorders.

The centriole orchestrates the formation of the mitotic spindle during cell division.

Mutations in centriole genes can lead to abnormal cell division and contribute to the development of certain diseases.

Mutations in genes responsible for centriole formation can lead to various genetic disorders.

The centriole serves as a template for the formation of cilia and flagella.

The defective centriole function led to impaired cell division and genomic instability.

The researchers are studying the relationship between centriole abnormalities and cancer progression.

The damaged centriole affected the normal cell division process.

Scientists discovered a novel protein associated with the regulation of centriole duplication.

Mutations in genes encoding centriole proteins can result in impaired cell division.

The researchers discovered a mutation in the gene responsible for centriole formation, resulting in a developmental defect.

The centriole is a vital organelle involved in cell division.

The abnormal centriole structure was linked to a genetic disorder.

The centriole helps in the movement of sperm in the reproductive system.

The centriole acts as a basal body, initiating the formation of cilia on the cell's surface.

The centriole directs the assembly of microtubules during cell division.

The genetic mutation affected the functioning of the centriole.

The centriole is responsible for maintaining the cell's shape and structure.

The centriole acts as a microtubule-organizing center in animal cells.

Mutations in genes encoding centriole proteins can lead to genetic disorders.

The centriole duplication process is tightly regulated to ensure accurate cell division.

The formation of the mitotic spindle is facilitated by the centriole.

The centriole is responsible for organizing the microtubules during cell division.

The centriole acts as an anchor point for the microtubules that form the spindle apparatus.

The student drew a diagram illustrating the structure of the centriole.

The formation of centriole pairs is tightly regulated to ensure accurate chromosome segregation during cell division.

Mutations in centriole genes can lead to various developmental disorders.

Researchers are investigating the relationship between centriole abnormalities and cancer development.

Mutations in genes that regulate centriole formation can cause developmental disorders.

During cytokinesis, the centriole duplicates itself to ensure each daughter cell has a properly functioning structure.

Scientists have discovered a mutation in the gene responsible for centriole formation.

The centriole acts as a template for the growth of cilia and flagella in some cells.

The centriole acts as a microtubule organizing center in the cell.

The centriole is responsible for initiating the assembly of the microtubule cytoskeleton in animal cells.

Scientists have discovered a novel protein involved in the regulation of centriole duplication.

Defects in centriole structure can lead to abnormal cell division and genetic disorders.

The centriole pairs move to opposite poles of the cell during mitosis.

The positioning of the centriole determines the orientation of cell division.

The centriole anchors the microtubules that form the cell's cytoskeleton.

Researchers are investigating the role of the centriole in ciliary function.