Question

describe how the water molecule arragement of ice is different from that of liquid water?

describe how the water molecule arragement of ice is different from that of liquid water?

Homework Answers

Answer #1

Water, two atoms of hydrogen and one atom of oxygen, contains two O-H bonds. Oxygen atom contains 2 lone pairs of electrons. At any stage, the partial charges lead t development of polarity and thus arises Hydrogen bonding. The molecule stays as a distorted Tetrahedral because of lone pairs.

In the diagram above we can see how as Ice, a single water molecule remains surrounded by four, each bonded to the central via hydrogen bonds shown by blue lines. This structural pattern repeats itself in 3D. But as ICE turns into water, the distortion of the tight structure takes place. The hydrogen bonds break occasionally and the structure loses its lattice nature.

Know the answer?
Your Answer:

Post as a guest

Your Name:

What's your source?

Earn Coins

Coins can be redeemed for fabulous gifts.

Not the answer you're looking for?
Ask your own homework help question
Similar Questions
describe how the water molecule arragement of ice is different from that of liauid water.
describe how the water molecule arragement of ice is different from that of liauid water.
3.6 kilograms of water are changed (a) from ice at 0?C into liquid water at 0?C...
3.6 kilograms of water are changed (a) from ice at 0?C into liquid water at 0?C and (b) from liquid water at 100?C into steam at 100?C. For each situation, determine the change in mass of the water.
2.6 kilograms of water are changed (a) from ice at 0?C into liquid water at 0?C...
2.6 kilograms of water are changed (a) from ice at 0?C into liquid water at 0?C and (b) from liquid water at 100?C into steam at 100?C. For each situation, determine the change in mass of the water.
3.1 kilograms of water are changed (a) from ice at 0?C into liquid water at 0?C...
3.1 kilograms of water are changed (a) from ice at 0?C into liquid water at 0?C and (b) from liquid water at 100?C into steam at 100?C. For each situation, determine the change in mass of the water.
Adding Ice to Water An insulated beaker with negligible mass contains liquid water with a mass...
Adding Ice to Water An insulated beaker with negligible mass contains liquid water with a mass of 0.340 kg and a temperature of 66.3 ∘C . How much ice at a temperature of -17.9 ∘C must be dropped into the water so that the final temperature of the system will be 22.0 ∘C ? Take the specific heat of liquid water to be 4190 J/kg⋅K , the specific heat of ice to be 2100 J/kg⋅K , and the heat of...
How much heat is required to convert 80.0 g of ice at -20.0°C into liquid water...
How much heat is required to convert 80.0 g of ice at -20.0°C into liquid water at 50.0°C?
The enthaply of fusion of ice is 334 J/g. The heat capacity of liquid water is...
The enthaply of fusion of ice is 334 J/g. The heat capacity of liquid water is 4.18 j/gxC. What is the smallest number of ice cubes at 0C, each containing one mole of water necessary to cool 500 g of liquid water intially at 20 C to 0 C?
How much heat would it take to convert 60.0 g ice at 0.00˚C into liquid water...
How much heat would it take to convert 60.0 g ice at 0.00˚C into liquid water at 20.0˚C? The trend in polarizability from left to right across a period in the Periodic Table is due to … a. decreasing electronegativity. b. decreasing ionization energy. c. increasing mass. d. decreasing atomic size.
This problem examines the effects of mixing water at two different temperatures and/or two different phases,...
This problem examines the effects of mixing water at two different temperatures and/or two different phases, such as dropping ice cubes into warm water. Assume that heat of fusion is 333.55 J/g, that CP for ice is constant at 2.11 J/(g·K), and CP for liquid water is constant at 4.19 J/(g·K). You can assume CP approximately equals CV for solids and liquids. For each of the following cases, assume the mixing is adiabatic and carried out at atmospheric pressure. Find...
At 0°C the latent heat of the ice<-->liquid transition is 3.34 × 105 J/kg. Clean water...
At 0°C the latent heat of the ice<-->liquid transition is 3.34 × 105 J/kg. Clean water can be cooled a few degrees below 0°C without freezing on an ordinary time-scale, even though ice would have lower G. This non-equilibrium liquid state typically remains until some disturbance (e.g. a bubble) triggers the freezing. 1) What is the entropy difference between 4 kg of liquid water and 4 kg of ice at 0°C? 2) The specific heat of liquid water is cpw=...
ADVERTISEMENT
Need Online Homework Help?

Get Answers For Free
Most questions answered within 1 hours.

Ask a Question
ADVERTISEMENT