Problem: OPTIONS:
- three
- four
- twelve
- two
Q: Answer the following question given this paragraph: Q: Insulin is made up of how many polypeptide chains? A:
Answer: two

Problem:OPTIONS:
- helium
- nitrogen
- calcium
- hydrogen

Answer the following question given this paragraph: Amides are carbonyls attached to one nitrogen atom and one carbon or hydrogen atom. Amides are used in materials such as crayons and inks, as well as in paper rubber products. Q: Amides are carbonyls attached to one nitrogen atom and one carbon or which other atom? A:
****
A: hydrogen

Answer the following question given this paragraph: An explosive eruption produces huge clouds of volcanic ash. Chunks of the volcano fly high into the atmosphere. Explosive eruptions can be tens of thousands of times as powerful as an atomic bomb ( Figure below ). Hot magma beneath the surface mixes with water. This forms gases. The gas pressure grows until it must be released. The volcano erupts in an enormous explosion. Q: Explosive eruptions associated with what can be tens of thousands of times as powerful as an atomic bomb? A:
OPTIONS:
- forest fires
- hurricanes
- earthquakes
- volcanoes
volcanoes

Answer the following question given this paragraph: Some solutions have special properties because they are acids. Orange juice is an example. It contains an acid called citric acid. It makes orange juice taste sour. Some solutions are bases rather than acids. Q: What in orange juice makes it taste sour? A:
OPTIONS:
- amino acid
- acetic acid
- carbonation
- citric acid

Answer: citric acid

Question: Answer the following question given this paragraph: Simple carbohydrates can be classified in terms of chain length. Q: Which carbohydrates can be classified in terms of chain length? A:
OPTIONS:
- binary
- atomic
- complex
- simple
Answer: simple

input: OPTIONS:
- ammonia and nitrogren
- nitrogen and hydrogen
- calcium and oxygen
- nitrogen and oxygen Now, answer this question: Answer the following question given this paragraph: The oxides of nitrogen(III), nitrogen(IV), and nitrogen(V) react with water and form nitrogen-containing oxyacids. Nitrogen(III) oxide, N2O3, is the anhydride of nitrous acid; HNO2 forms when N2O3 reacts with water. There are no stable oxyacids containing nitrogen with an oxidation state of 4+; therefore, nitrogen(IV) oxide, NO2, disproportionates in one of two ways when it reacts with water. In cold water, a mixture of HNO2 and HNO3 forms. At higher temperatures, HNO3 and NO will form. Nitrogen(V) oxide, N2O5, is the anhydride of nitric acid; HNO3 is produced when N2O5 reacts with water: N 2 O 5(s) + H 2 O(l) 2HNO 3(aq) The nitrogen oxides exhibit extensive oxidation-reduction behavior. Nitrous oxide resembles oxygen in its behavior when heated with combustible substances. N2O is a strong oxidizing agent that decomposes when heated to form nitrogen and oxygen. Because one-third of the gas liberated is oxygen, nitrous oxide supports combustion better than air (one-fifth oxygen). A glowing splinter bursts into flame when thrust into a bottle of this gas. Nitric oxide acts both as an oxidizing agent and as a reducing agent. For example: oxidizing agent: P 4(s) + 6NO(g) P 4 O 6(s) + 3N 2(g). Q: What forms as a result of decomposition when n2o is heated? A:
A:
output:
nitrogen and oxygen