Pseudopodia

The ability to form pseudopodia is critical for certain immune responses.

The nervous system relies on the movement of specialized cells called growth cones that extend pseudopodia to navigate and establish connections.

The formation of pseudopodia is essential for the migration of white blood cells to fight infections.

The unicellular organism extends pseudopodia to catch small aquatic insects.

The flatworm uses pseudopodia to crawl along the ocean floor.

White blood cells create pseudopodia to engulf pathogens.

The marine snail uses pseudopodia to capture and bring food to its mouth.

The immune cells extend their pseudopodia to capture and engulf invading bacteria.

The formation of pseudopodia is an important step in cell migration.

The pseudopodia of the paramecium help it swim and capture prey.

The cancer cells were observed to migrate by forming pseudopodia.

The cell culture showed abnormal movements of pseudopodia.

The unicellular protist known as slime mold can form a large multicellular mass through the coordinated extension of pseudopodia.

The cancer cells in her body are spreading through the pseudopodia.

The sea star extended its pseudopodia to capture food particles floating in the water.

The presence of pseudopodia in the cancer cells made diagnosis difficult.

The single-celled organism used its pseudopodia to capture prey.

The pseudopodia of the hydra helped it catch the small organisms.

The abnormal pseudopodia formation in the neurons is associated with neurodegenerative disorders.

The paramecium extends pseudopodia to catch and ingest smaller organisms.

The unicellular organism explored its environment by extending pseudopodia.

Researchers are exploring ways to use artificial materials that mimic the movement of pseudopodia to create soft, flexible robots.

The flatworm's pseudopodia help it crawl and search for food.

The unusual pseudopodia seen in the muscle cells may be related to a genetic disorder.

The protist used its pseudopodia to engulf the algae.

The slime mold migrated by extending pseudopodia.

The sea urchin uses pseudopodia to stick to rocks and avoid being swept away by the current.

Pseudopodia enable some cells to move towards chemical signals in their environment.

The pseudopodia of the white blood cells are crucial in fighting infections.

The protist's pseudopodia create a current to bring in food particles.

The slime mold uses pseudopodia to move and find food.

The irregularly shaped red blood cells showed pseudopodia formation under the microscope.

Some types of fungi use pseudopodia to absorb nutrients from their surroundings.

The use of pseudopodia in cell motility is still an active area of research.

The pseudopodia of some cells can be used to measure the viscosity of liquids.

The radiolarians have intricate skeletons that support their pseudopodia.

Pseudopodia in Radiolaria, a type of marine protozoan, are made of silica and have intricate designs.

Researchers are studying the role of pseudopodia in the formation of new synapses.

The macrophages engulf invading bacteria by extending pseudopodia around them.

Pseudopodia in some types of cells help them to adhere to surfaces and form a protective barrier.

The movement of the foraminifera is facilitated by its pseudopodia.

Pseudopodia allow some cells to squeeze through narrow spaces in tissues.

The formation of pseudopodia in response to a stimulus is a characteristic of amoeba.

The shape of the pseudopodia varies depending on the type of cell.

The neutrophil cells chase bacteria by extending their pseudopodia towards them.

The amoeba's pseudopodia have a gel-like consistency due to the presence of actin filaments.

The star-shaped organism moves by extending its pseudopodia in all directions.

Certain species of plankton have evolved to have longer pseudopodia to catch more food in their ocean environment.

Some types of algae have pseudopodia that allow them to move towards light.

The cell moved towards the wound by extending pseudopodia.