It can mean high surface tension. Hydrogen bonding occurs in water because each water molecule contains 2 hydrogen atoms, and that constitutes the positive end of that molecule with no electron present (other than the one tied up in the covalent bond with oxygen.) The oxygen end of the molecule is negative (because of unshared electrons.) The attaction between the positive end of one water molecule to the negative end of another is hydrogen bonding, and it explains many of water's properties, including surface tension, how water expands when it freezes, and even why snowflakes are 6-sided.
Hydrogen Peroxide itself is as colorless as water. Hydrogen peroxide solution is a bit ambiguous, and could vary with what you mean by "solution".
If you mean hydrogen in elemental form, it's darn near zero.
It all depends on what you're looking for. If you mean ratio of atoms, It is a one:one ratio, so 50% each If you mean mass, 1.0125% of the mass of one molecule is hydrogen and the other 98.9875% is bromine.
H2S is the formula of Hydrogen sulfide.
if by chemical name you mean element then: Nitrogen = N Hydrogen = H Iodine = I
FON Remember this as it mean only hydrogen bonded to fluorine, oxygen and nitrogen will exhibit hydrogen bonding H2O ( water ) = hydrogen bonding as hydrogen is bonded to oxygen CO ( carbon monoxide ) = no hydrogen bonding Think electronegative differences.
CH3NH2 exhibits hydrogen bonding due to the presence of N-H bonds. In addition, it also experiences dipole-dipole interactions as a result of the overall polarity of the molecule. Finally, there may be weak van der Waals forces present due to the temporary fluctuations in electron density around the molecule.
A tornado prone area has a relatively high incidence of tornadoes.
I assume you mean intermolecular hydrogen bonding. No, because carbon is insufficiently electronegative. In contrast, carbon tetrachloride exhibits some hydrogen bonding because of the electronegativity of the chlorine atoms.
Incidence of a disease refers to the number of new cases repoted recently
In sucrose, the extra hydrogen atom is due to the hydroxyl (-OH) group on the anomeric carbon in one of the glucose units. This group can undergo intramolecular hydrogen bonding, giving the appearance of an extra hydrogen molecule when drawing the structure of sucrose.
Polarity in water molecules refers to the uneven distribution of electrical charges, where the oxygen atom is slightly negative and the hydrogen atoms are slightly positive. This creates a partial positive and partial negative charge within the molecule, allowing for hydrogen bonding and unique properties like cohesion, adhesion, and high surface tension.
Yes, hydrogen is necessary for the formation of organic compounds. It is a key element in most organic molecules, serving as a building block for structures such as hydrocarbons and carbohydrates. Hydrogen contributes to the bonding and overall stability of organic compounds.
There are two possible answers to this question. If you mean the tension in a column of water, for example in the xylem, it is caused by hydrogen bonding between water molecules which enables the water column to resist breaking under the pull of gravity in the stem. If you mean surface tension, this is also caused by hydrogen bonding between water molecules. At the surface of water there are many hydrogen bonds pulling molecules inwards but none pulling them outwards. So the water behaves as if it had a "skin". This also causes water to form spherical drops.
Strands within a molecule can bond to each other through interactions such as hydrogen bonding, Van der Waals forces, or hydrophobic interactions. These bonds occur due to the chemical properties of the molecules involved and help stabilize the overall structure of the molecule.
If you mean CH3OH, then the strongest intermolecular force is hydrogen bonding as this is an alcohol containing and OH group. There are other other forcs such a sLondon dispersion forces but these are weaker as CH3OH doesn't have many electrons.
A water molecule is held together by a polar covalent bond between the oxygen atom and the hydrogen atoms. This bond involves the sharing of electrons between the atoms, with the oxygen atom attracting the shared electrons more strongly than the hydrogen atoms.