Carbohydrates are an important family of molecules, particularly biological molecules, found in all organisms and are described as organic molecules due to their carbon and hydrogen content.
Carbohydrates have various important roles in the cell, including as a source of energy and a store of energy.
Sugars are one of the foods that we eat to gather most of our energy and carbohydrates can be termed as sugars as well.
Carbohydrates can be found in foods such as pasta, rice, and bread.
Carbohydrates have a structural role in particular cells, particularly in plant cells, where they add strength and rigidity to the cell.
A carbohydrate molecule, regardless of type, contains only three elements: carbon, hydrogen, and oxygen.
The simplest carbohydrates are called monosaccharides, which are the monomers or building blocks for more complex carbohydrates.
A monosaccharide with three carbons is known as a triose, a tetros with four carbons, a pentose with five carbons, and a hexose with six carbons.
The molecular formula for each type of sugar or monosaccharide can be worked out by using the general formula.
The general formula for a monosaccharide is C H2O n, where n is the number of carbons, oxygens, and hydrogens in the sugar.
Glyceraldehyde, threos, ribose, and glucose are examples of monosaccharides with specific names.
Glucose is a hexose sugar with six carbons.
Fructose and galactose are commonly found hexose monosaccharides.
The molecular formula for a monosaccharide with three carbons is C3H6O3, for four carbons it's C4H8O4, for five carbons it's C5H10O5, and for six carbons it's C6H12O6.
Monosaccharides are soluble and sweet tasting, and are also known commonly as sugars.
Monosaccharides are single sugar monomers and cannot be broken down into smaller carbohydrates.
The molecular formula for glucose is C6H12O6.
Glucose is not very reactive compared to some other monosaccharides, meaning the breakdown in respiration must be catalyzed and controlled by enzymes.
Glucose molecules are combined with the oxygen that we breathe in from the air and it reacts to give two side products and one useful product, namely CO2 and water.
Glucose exists in isomers, meaning it has different structural forms known as isomers.
Monosaccharides have their own general formula: CnH2nOn, where n represents the number of carbon, hydrogen, and oxygen atoms in the molecule.
Amylose is a molecule known as a polysaccharide.
In a polysaccharide, the monosaccharides are glucose.
Glucose is the main source of energy in respiration for any cells.
Glucose is also used to produce an important molecule known as ATP.
Glucose is a very small monosaccharide, making it easily transported in and out of cells and it's done so through carrier proteins.
Glucose is important to carry out respiration and the process of making ATP is what we call respiration.
Glucose is a very soluble molecule, making it easily transported around an organism.
Glucose is the building block for larger carbohydrates.
Alpha glucose and beta glucose are different molecules, with alpha the oh group on the bottom and beta the oh group on the top.
The number of isomers that a molecule has is the number of different arrangements it can exist in.
In molecules with physical blocks, the green and yellow atoms cannot swap around due to the double bond.
Isochemically, the same molecules can have different arrangements of atoms due to different bonding patterns.
Glucose has two isomers, alpha glucose and beta glucose, differing by one single position of a hydroxyl group.
Glucose itself has two isomers, alpha glucose and beta glucose, differing by one single position of a hydroxyl group.
Alpha glucose and beta glucose are different molecules, with