In the field of material science frequently polymeric substances with an high cross link degree are called networks. This is due to the fact that polymer molecules resemble chains of many replicas basic polymer component (the monomer).
Cross links generates bonds either between different points of the same chain or between different chains so structuring the material microscopic arrangement like a sort of network.
The most famous process of this kind is rubber vulcanization. This creates many cross links based on a bridge made by three sulphur atoms and transforms completely the properties of natural rubber generating a sturdy, elastic and durable material.
A network substance could refer to any material or element that is used or processed within a network environment. This could include physical substances like cables and connectors, virtual substances like data packets or network protocols, or even abstract substances like information or communication flows within a network.
Covalent-network substances have strong covalent bonds that hold their atoms together in a three-dimensional network structure. This network structure makes it difficult for common solvents to break the bonds and dissolve the substance, leading to their insolubility in most solvents.
Diamond is an example of a network solid. It consists of a three-dimensional network of carbon atoms covalently bonded to each other.
Pore spaces that are joined to each other create a network of interconnected voids within a material or substance. This interconnected network allows for the movement of fluids or gases through the material, influencing its permeability and porosity. Examples include interconnected pore spaces in soil or rock formations.
A large molecule refers to a single, complex molecule made up of many atoms bonded together, such as proteins or DNA. On the other hand, a covalent network substance consists of a three-dimensional network of atoms connected by covalent bonds, like diamond or quartz, giving them high melting points and hardness due to the strong bonds throughout the structure.
Diamond is a substance with a high melting point in which all atoms are covalently bonded. Diamond's structure consists of a network of carbon atoms, each bonded to four other carbon atoms in a tetrahedral arrangement, resulting in a strong covalent bond network that gives diamond its exceptional hardness and melting point.
Diamond.
Covalent-network substances have strong covalent bonds that hold their atoms together in a three-dimensional network structure. This network structure makes it difficult for common solvents to break the bonds and dissolve the substance, leading to their insolubility in most solvents.
Water is a molecular substance. It is composed of molecules made up of two hydrogen atoms and one oxygen atom. Each water molecule is independent and not interconnected in a network structure.
Diamond is an example of a network solid. It consists of a three-dimensional network of carbon atoms covalently bonded to each other.
So a network covalent bond or macromolecular bond is basically a bunch of covalently bonded atoms. Imagine a diamond structure or crystal structure that keeps expanding but a model only shows a building block of the substance. So like a brick wall to a brick.
Diamond. Diamond is composed strictly of carbon, covalently bonded to one another creating a covalent network, making it the hardest substance in the world. Also, graphite of your pencil is composed strictly of carbon, except that the structure is different than diamond.
No, the cytoplasm is a gel-like substance within cells that contains various organelles and molecules. The cytoskeleton is a network of protein fibers that provides structural support and helps with cell movement. The cytoplasm surrounds and contains the cytoskeleton.
Pore spaces that are joined to each other create a network of interconnected voids within a material or substance. This interconnected network allows for the movement of fluids or gases through the material, influencing its permeability and porosity. Examples include interconnected pore spaces in soil or rock formations.
network
peptidoglycan. This substance provides structural support and protection to the bacterial cell by forming a mesh-like network around the cell membrane. Peptidoglycan is a key component of bacterial cell walls and is absent in the cell walls of other organisms, such as plants and animals.
A large molecule refers to a single, complex molecule made up of many atoms bonded together, such as proteins or DNA. On the other hand, a covalent network substance consists of a three-dimensional network of atoms connected by covalent bonds, like diamond or quartz, giving them high melting points and hardness due to the strong bonds throughout the structure.
Injecting a substance into the skin is similar to injecting it into the lymphatic system because the skin contains a network of lymphatic vessels and nodes that can transport the substance into the lymphatic circulation. This can allow the substance to reach the lymphatic system's organs and tissues, where it can be processed and potentially affect immune responses.