Intercellular

Intercellular signaling pathways can influence gene expression.

The intercellular matrix is made up of various proteins and glycosaminoglycans.

The intercellular space is filled with a fluid called interstitial fluid.

Intercellular adhesion is important for maintaining tissue structure and integrity.

Some diseases can be caused by intercellular pathogens.

Researchers are studying intercellular interactions between neurons and glial cells to better understand how the central nervous system works.

Intercellular communication can be disrupted by certain drugs or toxins.

The intercellular fluid in the eye helps maintain the shape and structure of the eye.

Certain drugs can affect intercellular signaling in the central nervous system, leading to changes in behavior or mood.

Intercellular communication is necessary for the immune system to function properly.

Cancer cells can evade the immune system by disrupting intercellular communication.

Nutrients are transported through intercellular spaces.

The intercellular transport of water and nutrients is facilitated by specialized cells in the plant tissue.

The intercellular interactions between natural killer cells and dendritic cells are critical for the recognition and elimination of infected cells.

The extracellular matrix provides intercellular support.

The intercellular communication between neurons is essential for the proper functioning of the central nervous system.

The development of the nervous system relies on complex intercellular interactions between different types of cells.

The immune response involves a complex intercellular network that coordinates the body's defenses against infection.

Intercellular adhesion molecules help white blood cells move through tissues.

The use of certain drugs can disrupt intercellular communication and lead to negative side effects.

The endocannabinoid system plays a role in intercellular communication and regulates a wide range of physiological processes.

The intercellular exchange of information is crucial for the formation and maintenance of neural circuits.

Intercellular signaling pathways are essential for the development of multicellular organisms.

Hormones and neurotransmitters are examples of chemical messengers involved in intercellular communication.

The nervous system uses neurotransmitters as intercellular messengers to transmit signals between neurons.

The intercellular communication between immune cells can be disrupted by certain viruses, leading to immunodeficiency.

Interferons are intercellular signaling molecules that play a key role in the activation of the immune system.

Intercellular bridges play a role in the development of gametes.

Tight junctions prevent intercellular diffusion.

Intercellular communication between muscle cells is essential for muscle contraction.

Intercellular transport of molecules occurs through membrane channels.

The extracellular matrix provides a scaffold for intercellular adhesion and signaling.

Action potentials are intercellular signals that propagate along the axons of neurons.

The intercellular fluid helps to transport nutrients and waste products between cells.

Intercellular signaling can regulate gene expression and cell differentiation.

Intercellular fluid plays a key role in transporting nutrients and waste products.

Intercellular calcium signaling is important for many cellular processes.

The intercellular transfer of genetic information is crucial for the development of multicellular organisms.

Intercellular junctions are specialized structures that facilitate communication.

The intercellular adhesion molecule plays a key role in the migration of leukocytes.

The formation of blood vessels involves complex intercellular interactions.

The intercellular spaces in spongy bone contain bone marrow, which produces blood cells.

The intercellular spaces in a sponge filter water and trap nutrients.

Intercellular signaling can activate or inhibit immune cell activity.

Intercellular bridges connect spermatocytes during meiosis.

Certain drugs can interfere with intercellular communication, causing adverse effects.

The intercellular matrix in bone tissue provides support and strength.

Damage to intercellular connections in the central nervous system can lead to neurodegenerative diseases.

The nervous system relies on intercellular communication between neurons for transmitting signals.

Intercellular adhesion molecules play a crucial role in immune system function.