Born-Haber cycle for formation of CaO ( s ) from its elements should be drawn. Concept introduction: The pictorial representation of formation of ionic solids from its constituent elements is known as Born-Haber cycle. Following are the steps required to draw Born-Haber cycle of any ionic compound: Step 1: Solid metal is converted into gaseous isolated atoms. It takes place by process called sublimation. Step 2: Gaseous molecules are broken down into separate atoms. Energy is supplied to break molecules apart and this is called bond dissociation energy . Step 3: Isolated metal atoms are converted into respective cations with the help of ionization energy. Step 4: Anions are formed from gaseous atoms with the help of electron affinity . Step 5: Ionic compound is formed by the combination of cation and anion. Energy is released in this process.
Born-Haber cycle for formation of CaO ( s ) from its elements should be drawn. Concept introduction: The pictorial representation of formation of ionic solids from its constituent elements is known as Born-Haber cycle. Following are the steps required to draw Born-Haber cycle of any ionic compound: Step 1: Solid metal is converted into gaseous isolated atoms. It takes place by process called sublimation. Step 2: Gaseous molecules are broken down into separate atoms. Energy is supplied to break molecules apart and this is called bond dissociation energy . Step 3: Isolated metal atoms are converted into respective cations with the help of ionization energy. Step 4: Anions are formed from gaseous atoms with the help of electron affinity . Step 5: Ionic compound is formed by the combination of cation and anion. Energy is released in this process.
Solution Summary: The author explains the steps involved in drawing Born-Haber cycle for formation of ionic solids from its constituent elements.
Formula Formula Bond dissociation energy (BDE) is the energy required to break a bond, making it an endothermic process. BDE is calculated for a particular bond and therefore consists of fragments such as radicals since it undergoes homolytic bond cleavage. For the homolysis of a X-Y molecule, the energy of bond dissociation is calculated as the difference in the total enthalpy of formation for the reactants and products. X-Y → X + Y BDE = Δ H f X + Δ H f Y – Δ H f X-Y where, ΔHf is the heat of formation.
Chapter 6, Problem 6.33CP
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Interpretation Introduction
Interpretation:
Born-Haber cycle for formation of CaO(s) from its elements should be drawn.
Concept introduction:
The pictorial representation of formation of ionic solids from its constituent elements is known as Born-Haber cycle. Following are the steps required to draw Born-Haber cycle of any ionic compound:
Step 1: Solid metal is converted into gaseous isolated atoms. It takes place by process called sublimation.
Step 2: Gaseous molecules are broken down into separate atoms. Energy is supplied to break molecules apart and this is called bond dissociation energy.
Step 3: Isolated metal atoms are converted into respective cations with the help of ionization energy.
Step 4: Anions are formed from gaseous atoms with the help of electron affinity.
Step 5: Ionic compound is formed by the combination of cation and anion. Energy is released in this process.
The reaction is carried out with gases: A → B + C at 300 K. The
total pressure is measured as a function of time (table). If the
reaction order is 2, calculate the rate or kinetic constant k (in
mol-1 L s¹)
Ptotal (atm) 492 676 760 808 861
t(s)
0 600 1200 1800 3000
can someone give a description of this NMR including whether its a triplt singlet doublet where the peak is around at ppm and what functional group it represents
1. Determine the relationship between the following molecules as identical, diastereomers, or enantiomers (6
points, 2 points each).
OH
OH
OH
A-A
OH
HOT
HO-
ACHN
and
HO-
ACHN
OH
HO
HO
°
OH
and
OH
OH
SH
and
...SH
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