Interpretation:
How to use periodic table to predict the type of bond between two atoms is to be explained.
Concept introduction:
There is a force of attraction between atoms which keeps them together. This force of attraction is called
Answer to Problem 6RE
From the periodic table, one can find out if the element in the compound is a metal or a nonmetal or both.
- Ionic bonding is found in compounds made of a metal and a nonmetal
- Metallic bonding is found in compounds made of only metals
- Network covalent bonding is found in compounds made of only nonmetals
- Molecular covalent bonding is found in compounds made of only nonmetals
Explanation of Solution
There are four types of bonds:
- Ionic bond
- Molecular covalent bond
- Metallic bond
- Network covalent bond
- Ionic bonding is found in compounds made of a metal and a nonmetal.
- Metallic bonding is found in compounds made of only metals.
- Network covalent bonding is found in compounds made of only nonmetals.
- Molecular covalent bonding is found in compounds made of only nonmetals.
The main difference between network and molecular covalent bonding is that in molecular covalent bonding, the covalent bond is formed between two atoms by sharing of electrons. In network covalent bonding, the cluster of atoms form a continuous network of atoms bonded together via covalent bonds.
There are four models of bonding. Each model has a different property. The periodic table is very helpful in providing information about the type of bonding possible between atoms of different elements.
Chapter U1 Solutions
Living by Chemistry
Additional Science Textbook Solutions
Genetic Analysis: An Integrated Approach (3rd Edition)
Fundamentals of Anatomy & Physiology (11th Edition)
Microbiology: An Introduction
Human Anatomy & Physiology (2nd Edition)
Organic Chemistry (8th Edition)
Cosmic Perspective Fundamentals
- 3.3 Consider the variation of molar Gibbs energy with pressure. 3.3.1 Write the mathematical expression for the slope of graph of molar Gibbs energy against 3.3.2 pressure at constant temperature. Draw in same diagram graphs showing variation with pressure of molar Gibbs energies of a substance in gaseous, liquid and solid forms at constant temperature. 3.3.3 Indicate in your graphs melting and boiling points. 3.3.4 Indicate for the respective phases the regions of relative stability.arrow_forwardIn 2-chloropropane, the signal for the H on the C next to Cl should be split into how many peaks?arrow_forward4.4 Consider as perfect gas 3.0 mol of argon gas to which 229 J of energy is supplied as heat at constant pressure and temperature increases by 2.55 K. Calculate 4.4.1 constant pressure molar heat capacity. 4.4.2 constant volume molar heat capacity.arrow_forward
- 3.2 32 Consider calibrating a calorimeter and measuring heat transferred. A sample of compound was burned in a calorimeter and a temperature change of 3.33°C recorded. When a 1.23 A current from a 12.0 V source was passed through a heater in the same calorimeter for 156 s, the temperature changed of 4.47°C was recorded. 3.2.1 Calculate the heat supplied by the heater. 3.2.2 Calculate the calorimeter constant. 3.2.3 Calculate the heat released by the combustion reaction.arrow_forward-.1 Consider the standard enthalpy of formation of gaseous water at 25°C as -241.82 kJ/mol and calculate the standard enthalpy of formation of gaseous water at 100°C.arrow_forward3.5 Complete the following sentences to make correct scientific meaning. 3.5.1 The entropy of a perfect gas. 3.5.2 when it expands isothermally. The change in entropy of a substance accompanying a change of state at its transition 3.5.3 temperature is calculated from its of transition. The increase in entropy when a substance is heated is calculated from itsarrow_forward
- 3.4 Consider the internal energy of a substance 3.4.1 Draw a graph showing the variation of internal energy with temperature at constant volume 3.4.2 Write the mathematical expression for the slope in your graph in 3.4.1arrow_forwardFor a system, the excited state decays to the ground state with a half-life of 15 ns, emitting radiation of 6000 Å. Determine the Einstein coefficients for stimulated absorption and spontaneous emission and the dipole moment of the transition. Data: epsilon 0 = 8.85419x10-12 C2m-1J-1arrow_forwardProblem a. The following compounds have the same molecular formula as benzene. How many monobrominated products could each form? 1. HC =CC=CCH2CH3 2. CH2=CHC = CCH=CH₂ b. How many dibrominated products could each of the preceding compounds form? (Do not include stereoisomers.)arrow_forward
- Don't used Ai solutionarrow_forward4.3 Explain the following terms: 4.3.1 Normal boiling point. 4.3.2 Cooling curve. 4.3.3 Congruent melting. 4.3.4 Ideal solution. 4.3.5 Phase diagram of a pure substance.arrow_forwardFor CO, an electronic transition occurs at 2x1015 Hz. If the dipole moment of the transition is of the order of 1 Debye, calculate:a) The Einstein coefficient of stimulated emissionb) The lifetime of the excited statec) The natural width (in Hz)Data: epsilon 0 = 8.85419x10-12 C2m-1J-1; 1 D = 3.33564x10-30 C m;arrow_forward
- ChemistryChemistryISBN:9781305957404Author:Steven S. Zumdahl, Susan A. Zumdahl, Donald J. DeCostePublisher:Cengage LearningChemistryChemistryISBN:9781259911156Author:Raymond Chang Dr., Jason Overby ProfessorPublisher:McGraw-Hill EducationPrinciples of Instrumental AnalysisChemistryISBN:9781305577213Author:Douglas A. Skoog, F. James Holler, Stanley R. CrouchPublisher:Cengage Learning
- Organic ChemistryChemistryISBN:9780078021558Author:Janice Gorzynski Smith Dr.Publisher:McGraw-Hill EducationChemistry: Principles and ReactionsChemistryISBN:9781305079373Author:William L. Masterton, Cecile N. HurleyPublisher:Cengage LearningElementary Principles of Chemical Processes, Bind...ChemistryISBN:9781118431221Author:Richard M. Felder, Ronald W. Rousseau, Lisa G. BullardPublisher:WILEY