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Use Lewis electron-dot symbols to represent the formation of

(a)BrF3 from bromine and fluorine atoms;

(b)AlF3from aluminium and fluorine atoms.

Short Answer

Expert verified

The intermolecular force between the molecules are

  1. The Lewis dot structure of the molecule BrF3 is sp3d hybridisation.

2. The Lewis dot structure of the molecule AlF3 is sp2 hybridisation.

Step by step solution

01

Intermolecular Forces

Intermolecular forces are the interaction which are formed by the attraction of the two having opposite charges (partial positive and partial negative charge). The opposite charge are formed by the presence of the electron-negative atom in the molecule. Due to the presence of an electron-negative atom, there is an induced partial positive charge is generated on the electron-positive charge (or less electron-negative charge) atom. There will be an attraction between the both oppositely charges to form a bond.

Lewis dot structure can be defined as the structure formed by using the valence electron of the atom which can be calculated by using electronic configuration.

02

Explanation

In this BrF3molecule, halogens are involved in which both are electronegative atoms but the difference in the size of an atom is large as Br-atom is bigger in size than F-atom. The F-atom is more electronegative than Br-atom due to the size difference. The halogens have only one electron in the valence shell. So, the Lewis dot structure is:

In this AlF3molecule, halogens are involved in which one is an electronegative atom and the other is an electropositive atom but the difference in the size of an atom is large as Al-atom is bigger in size than F-atom. The F-atom is more electronegative than Al-atom due to the size difference. The F-atom has only one electron in the valence shell and Al has 3 electrons in the valence shell.

So, the Lewis dot structure is:

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Most popular questions from this chapter

Linear, triatomic CO2vibrates by symmetric stretch, bend, and asymmetric stretch with frequencies of 4.02ร—1013s-1, 2.00ร—1013s-1andโ€„7.05ร—1013s-1 respectively.

  1. In what region of the electromagnetic spectrum are these frequencies?
  2. calculate the energy (in J) of each vibration. Which takes the least energy?

Heats of reaction calculated from bond energies and from heats of formation are often, but not always, close to each other.

a) Industrial ethanol (CH3CH2OH ) is produce by a catalytic reaction of ethylene (H2C=CH2 ) with water at high pressure and temperatures. Calculateฮ”Horx for this gas-phase hydration of ethylene to ethanol, using bond energies and then using heats of formation.

b) ethylene glycol is produced by the catalytic oxidation of ethylene to ethylene oxide, which then reacts with water to form ethylene glycol:

The ฮ”Horx for this hydrolysis step, based on heat of formation, is -97kJ/mol. Calculate ฮ”Horx for the hydrolysis using bond energies.

c) why are two values relatively close for the hydration in part (a) but not close for the hydrolysis in part(b).

Using the periodic table only, arrange the elements in each set in order of increasing EN: (a) I, Br, N; (b) Ca, H, F

Rank the members of each set of compounds in order of increasing the ionic character of their bonds. Use polar arrows to indicate the bond polarity of each:

(a) HBr, HCl, HI

(b) H2O, CH4 , HF

(c) SCI2 , PCI3 , SiCI4

Which is the more polar bond in each of the following pairs from Problem 9.62: (a) or (b); (c) or (d); (e) or (f)?

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