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Laabri

Practice: Intro to Bonding 24.25

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Last updated 6 months ago
19 Nsɛmmisa
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1.

Electronegativity is:

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2.

Order these elements from the smallest (first/top) electronegativity to the largest (last/bottom) electronegativity.

  1. Fluorine (F)

  2. Potassium (K)

  3. Francium (Fr)

  4. Chlorine (Cl)

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3.

Elements that are near each other on the periodic table have a similar electronegativity.

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4.

All chemical bonding is a result of:

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5.

CHOOSE ALL THAT APPLY.

During bonding, electrons can be:

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6.

All atoms need 8 valence electrons to achieve a stable electron configuration.

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7.

Atoms try to achieve the stable electron configuration of the nearest Noble gas.

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8.

Match the type of bond that will form as a result of the difference in electronegativity (e.n.) between atoms.

Draggable itemarrow_right_altCorresponding Item

metallic bond

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large difference in e.n.

polar covalent bond

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zero to minimal difference in e.n. between metals

ionic bond

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zero to minimal difference in e.n. between nonmetals

non-polar covalent bond

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low to small difference in e.n.

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9.

A substance that forms as a result of two or more different types of atoms bonding is called a .

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10.

Sort the following descriptions by the type of bonding they describe.

  • forms between different nonmetals

  • (low to) medium conductivity

  • medium melting/boiling point

  • bonding creates intermolecular forces

  • forms between similar nonmetals

  • has both intermolecular and intramolecular forces

  • has only intramolecular forces

  • valence electrons shared mostly equally between atoms

  • low melting/boiling point

  • valence electrons are shared unequally between atoms

  • base unit is a molecule (without dipoles)

  • base unit is a molecule with dipoles

  • covalent bonding (non-polar)

  • polar covalent bonding

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11.

How many electrons are typically shared in a single covalent bond?

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12.

What determines the strength of a covalent bond?

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13.

In a covalent bond, which type of elements are commonly involved?

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14.

In a polar covalent bond, which atom attracts the shared valence electrons more?

In the exciting world of Chemistry, we often hear about forces that hold molecules together. Two crucial types of forces in this realm are intermolecular and intramolecular forces. Let's dive into understanding the key differences between these forces. Firstly, let's explore intramolecular forces. These forces are the mighty bonds that hold atoms together within a molecule. They are incredibly strong and determine the chemical properties of substances. For instance, in a water molecule (H2O), the intramolecular forces between the hydrogen and oxygen atoms create a stable structure. On the other hand, intermolecular forces are the interactions between different molecules. These forces are relatively weaker compared to intramolecular forces. One common intermolecular force is hydrogen bonding, which occurs between molecules containing hydrogen bonded to highly electronegative atoms like oxygen or nitrogen. Understanding the distinction between these forces is crucial in explaining various phenomena in Chemistry, such as why water molecules stick together to form droplets or why some substances have higher boiling points than others. In summary, intramolecular forces keep atoms within a molecule connected, while intermolecular forces attract molecules to each other. Mastering these concepts opens up a fascinating world of understanding the behavior of matter at the molecular level.

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15.

What type of forces hold atoms together in a molecule?

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16.

What type of forces hold molecules to each other?

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17.

How do intermolecular forces differ from intramolecular forces?

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18.

What are intramolecular forces responsible for?

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19.

Which force is stronger: intermolecular or intramolecular?