Monday, November 5 Take out your “VSEPR Theory” notes and new piece of paper Marshmallow lab tomorrow- Thank you Brianna L and Kristi H for donating supplies.

Slides:

Advertisements

Similar presentations

Copyright McGraw-Hill Chapter 9 Chemical Bonding II: Molecular Geometry and Bonding Theories.

Advertisements

Chapter 9 Molecular Geometry and Bonding Theories.

Molecular Shapes Chapter 6 Section 3. Molecular Structure It mean the 3-D arrangement of atoms in a molecule Lewis dot structures show how atoms are bonded.

1 VSEPR Theory In any molecule or ion there are regions of high electron density: Bonds (shared electron pairs) Lone pairs (unshared electrons) Due to.

Molecular Geometry ( Textbook: page )

Molecular Geometry and VSEPR Theory. VSEPR Theory Valence Shell Electron Pair Repulsion Theory States that electron pairs repel each other and assume.

Molecular Geometry Chapter 6.5.

VSEPR Theory Valence Shell Electron Pair Repulsion.

Molecular Shape Section 9.4

IIIIII Molecular Geometry Molecular Structure. A. VSEPR Theory  Valence Shell Electron Pair Repulsion Theory  Electron pairs orient themselves so that.

Cornell Notes (Section 8.4, especially page 263  Topic: Molecular Geometry  Date: 2/7/2012  VSEPR = Valence Shell Electron Pair Repulsion  Valence.

Chemistry Chapter 9 Notes #3. Representing Molecules Molecular Formula –Ex. CH 4 –Ex. H 2 O Structural/ Lewis Formula Ball & Stick Model Space Filling.

Molecular Shapes Chapter 6 Section 3. Lewis dot structures show how atoms are bonded together, but they often do not illustrate the true shape of a molecule.

After today, you will be able to… Explain Valence Shell Electron Pair Repulsion Theory (VSEPRT) Use structural formulas to describe the molecular geometry.

Section 8.13 Molecular Structure: The VSEPR Model VSEPR: Valence Shell Electron-Pair Repulsion. ▪Used to predict a 3-dimensional shape of a molecule ▪Based.

VSEPR Theory Valence Shell Electron Pair Repulsion.

Molecular Geometry and VSEPR Theory

Valence Shell Electron Pair Repulsion Theory

Sahara Williams.

Molecular Geometry VSEPR.

Molecular Geometry VSEPR Theory- “Valence- shell, electron-pair repulsion” states that repulsion between the sets of valence-level electrons surrounding.

VSEPR and Molecular Geometry

Unit 12, Part II: VSEPR Theory

TOPIC: Molecular Geometry (Shapes of Molecules) Essential Question: How do you determine the different shapes of molecules?

Timberlake LecturePLUS

Ch. 6 – Molecular Structure

Valence Shell Electron Pair Repulsion Theory

Molecular Geometry bond length, angle determined experimentally

Valence Shell Electron Pair

MOLECULAR GEOMETRY Topic # 18

Ch. 6.5 Bonding Theories Molecular Geometry.

Valence Shell Electron Pair Repulsion Theory (VSEPR)

Bellwork Monday Draw the following Lewis dot structures. CCl4 NH4+

Valence shell electron pair repulsion (VSEPR) model:

Valence Shell Electron Pair Repulsion

MOLECULAR GEOMETRY Bonding Unit.

II. Molecular Geometry (p. 183 – 187)

CHEMISTRY 161 Chapter 10 Chemical Bonding II

Chapter 6 – 3 Molecular Geometry (p. 214 – 218)

Ch. 6 – Molecular Structure

Molecular Geometry and VSEPR Theory

Important Information:

Molecular Structure Molecular Geometry.

Molecular Geometry and VSEPR Theory

Molecular Geometry VSEPR Theory

Chapter 8 Covalent Bonding 8.3 Bonding Theories

Molecular Geometry bond length, angle determined experimentally

Valence Shell Electron Pair Repulsion Theory

Valence Shell Electron Pair Repulsion

Chapter 10 Properties of Solids and Liquids

Molecular Geometry VSEPR Theory- “Valence- shell, electron-pair repulsion” states that repulsion between the sets of valence-level electrons surrounding.

Molecular Geometry 11/8 Opener:

Shapes of molecules and ion

Valence Shell Electron Pair Repulsion Theory

Valence Shell Electron Pair Repulsion Theory

5.1 Molecular Shape Obj 1 Chemistry.

Molecular Structure II. Molecular Geometry.

Molecular Geometry.

Molecular Geometry bond length, angle determined experimentally

Molecular Geometry bond length, angle determined experimentally

II. Molecular Geometry (p. 183 – 187)

Valence Shell electron pair repulsion model 3D models

Molecular Shapes VSEPR Model

6.5 VSEPR Theory and Molecular Shapes

Valence Shell Electron Pair Repulsion

II. Molecular Geometry (p. 183 – 187)

II. Molecular Geometry (p. 183 – 187)

Valence Shell Electron-pair Repulsion model

Valence Shell Electron Pair Repulsion Theory

Valence Shell Electron Pair Repulsion (VSEPR) Theory

Presentation transcript:

Monday, November 5 Take out your “VSEPR Theory” notes and new piece of paper Marshmallow lab tomorrow- Thank you Brianna L and Kristi H for donating supplies. Test Thursday, November 8!

Tuesday, November 6 Take out your notes from Chapter 6: Chemical Bonding When finished with lab today, begin working on homework questions. Reminders: Ch. 6 Review Homework due tomorrow Test Thursday, November 8!

Wednesday, November 7 Take out you Chapter 6 Review homework. Reminders: Test Thursday, November 8! Molecular Geometry Chapter 6 Vocab Lewis Structures Notes

Thursday, November 8 Turn in your Chapter 6 Review homework on front counter. When finish test, complete Ch. 7 Vocab words.

Chemical Bonding Lab Chemical FormulaLewis StructureMolecular SketchMolecular Geometry 1. H2O 2. NH3 3. CH4 4. C2H6 5. N2 6. CH2O

VSEPR Theory Valence Shell Electron Pair Repulsion

VSEPR Theory Predicts the molecular shape of a bonded molecule Electrons around the central atom arrange themselves as far apart from each other as possible Unshared pairs of electrons (lone pairs) on the central atom repel the most So only look at what is connected to the central atom

These are for molecules with only paired electrons around the central atom.

Linear 2 atoms attached to center atom 0 unshared pairs (lone pairs) Bond angle = 180 o Type: AB 2 Ex. : BeF 2

Linear BeH2 CO2

Trigonal Planar 3 atoms attached to center atom 0 lone pairs Bond angle = 120 o Type: AB 3 Ex. : AlF 3

Trigonal Planar BCl3 BH3

Tetrahedral 4 atoms attached to center atom 0 lone pairs Bond angle = o Type: AB 4 Ex. : CH 4

Tetrahedral PO4

Trigonal Bipyramidal 5 atoms attached to center atom 0 lone pairs Bond angle = – equatorial -> 120 o – axial -> 90 o Type: AB 5 Ex. : PF 5

Trigonal Bipyramidal PCl5

Octahedral 6 atoms attached to center atom 0 lone pairs Bond angle = 90 o Type: AB 6 Ex. : SF 6

These are for molecules with both paired and unshared (lone) pairs of electrons around the central atom.

Bent/Angular 2 atoms attached to center atom 1 or 2 lone pairs of electrons Bond angle = o Type: AB 2 E 2 Ex. : H 2 O

Bent/Angular NO2

Trigonal Pyramidal 3 atoms attached to center atom 1 lone pair Bond angle = 107 o Type: AB 3 E Ex. : NH 3

Trigonal Pyramidal PCl3