Methane CH
does not have ionic bonds. Because of the close value of electronegativity of the carbon and hydrogen atoms the electrons are shared forming covalent bonds.
Answer:
battery acid is the type of acid used in your cars battery
Answer:
- <u><em>9.01 g of fertilizer</em></u>
Explanation:
Assume initially that the amount in grams of the multinutrient fertilizer is 100 g, and calculate the amount of nitrogen supplied by every compound present in these 100 g of fertilizer.
<u>1) Urea (CH₄N₂O)</u>:
- Molar mass of urea: 60.06 g/mol
- Atomic mass of N: 14.007 g/mol
- Total mass of N in the formula: 2 × 14.007 g/mol = 28.014 g/mol
- Amount of N in 100 g of compound: 100 g × 54.8% × 28.014 g / 60.06 g = 25.56 g
<u>2) KNO₃</u>
- Molar mass of KNO₃: 101.1032 g/mol
- Atomic mass of N: 14.007 g/ mol
- Total mass of N in the formula: 14.007 g/mol
- Amount of N in 100 of the compound: 100 g × 26.3% × 14.007 / 101.1032 = 3.64 g
<u>3) (NH₄)₂PO₄</u>
- Molar mass of (NH₄)₂PO₄: 132.06 g/mol
- Atomic mass of N: 14.007 g/ mol
- Total mass of N in the formula: 2×14.007 g/mol = 28.014 g/mol
- Amount of N in 100 of the compound: 100 g × 14.1% × 14.007 / 132.06 = 2.99 g
4) <u>Total mass of N in 100 g of fertilizer</u>:
Add all the amounts of N obtained above
- 25.56g + 3.69 g + 2.99 g = 32.19 g of N
5) <u>Mass of fertilizer that should be applied to provide 2.90 g of N to a plant</u>.
Set a proportion:
- 32.19 g of N / 100 g of fertilizer = 2.90 g of N / X
Solve for X:
- X = 2.90 g of N × 100 g of fertilizer / 32.19 g of N = 9.01 g of fertilizer
That is the answer: 9.01 g of fertilizer should be applied to provide 2.90g of N to a plant.
Answer:
The general trend is for ionisation energies to increase across a period. In the whole of period 2, the outer electrons are in 2-level orbitals - 2s or 2p. ... That causes greater attraction between the nucleus and the electrons and so increases the ionisation energies.
Explanation:
The general trend is for ionisation energies to increase across a period. In the whole of period 2, the outer electrons are in 2-level orbitals - 2s or 2p. ... That causes greater attraction between the nucleus and the electrons and so increases the ionisation energies.
Answer:
Isomers that contain the same number of atoms of each kind but differ in which atoms are bonded to one another are called structural isomers, which differ in structure or bond type. For inorganic complexes, there are three types of structural isomers: ionization, coordination and linkage.
