Search

Loading [MathJax]/extensions/mml2jax.js

Filter Results
Location
- Campus Bookshelves (2)
Classification
- Article type
  - Book or Unit
  - Chapter
  - Section or Page
  - N/A
  - N/A
- Stage
  - Stub
  - Draft
  - Review
  - Final
  - Outdated
  - Obsolete
- Author
  - Tim Soderberg
  - Robert Cichewicz
  - Delmar Larsen
  - Robert Carter
  - Nancy Levinger
  - Mark Draganjac
  - Oliver Seely
  - Lisa Nichols
  - Thomas Wenzel
  - OpenStax
  - Patrick Fleming
  - Stephen Lower
  - Robert Belford
  - Jack Simons
  - David Harvey
  - ChemPRIME
  - Allison Soult
  - Jim Clark
  - Elizabeth Gordon
  - Richard Banks
  - Roger Nix
  - Theresa Julia Zielinski
  - Claire Vallance
  - Curriki
  - Santa Monica College
  - Robert Lancashire
  - Gamini Gunawardena
  - Jeremiah Gassensmith
  - Tandy Grubbs
  - Dianne Bennett
  - Mark Tuckerman
  - Chung (Peter) Chieh
  - William Reusch
  - ChemCases
  - Nick Greeves
  - Chris Schaller
  - Paul Seeburger
  - ChemCollective
  - James Birk
  - Dan Berger
  - Marcia Levitus
  - Andrei Tokmakoff
  - Jim Hebden
  - Michael Evans
  - Gert van der Zwan
  - Johnny Betancourt
  - Larry Kaplan & Amadeo Pesce
  - Lucian Lucia
  - Cynthia K. Larive & Albert K. Korir
  - Ginger Shultz
  - Frank Rioux
  - Kelley J. Donaghy
  - Henry Jakubowski
  - Paul M. Shiundu
  - Alexander Sandtorv
  - Kate Graham
  - Pavan M. V. Raja & Andrew R. Barron
  - Caralyn Zehnder et al.
  - Paul Ellgen
  - Kathryn Haas
  - Layne Morsch
  - Tharmalingam Punniyamurthy
  - Organic Reactions Wiki
  - Justin Shorb, Caleb Bronner, & William Lake
  - Stefan Franzen
  - Anthony Dutoi
  - Derrick Kaseman
  - Andrew R. Barron
  - Jacqui Drak, Gina Fiorini, Jennie Mayer, Dan Mitchell, Marie Villarba, & Doug Wick
  - Andrea Allgood Carter
  - Rebekah O'Donnell
  - Sergio Cortes
  - Kai Landskron
  - Stanley Manahan
  - Vinícius Wilian D. Cruzeiro, Xiang Gao, and Valeria D. Kleiman
  - Gunnar Jeschke
  - Sorangel Rodriguez-Velazquez
  - Anonymous
  - Robert G. Salomon
  - John D. Roberts and Marjorie C. Caserio
  - Daniel Nocera
  - Paul R. Young
  - Catherine McCusker
  - Valeria D. Kleiman
  - Melanie M. Cooper & Michael W. Klymkowsky
  - Michael J Blandamer & Joao Carlos R Reis
  - S. M. Blinder
  - Jessica Garber-Morales
  - Xin Liu
  - Gilbert Castellan
  - Jianshu Cao
  - CK-12 Foundation
  - Muhammad Malik
  - Igor V. Arhangel`skii, Alexander V. Dunaev, Irina V. Makarenko, Nikolay A. Tikhonov, & Andrey V. Tarasov
  - Dwayne Miller
  - Chem 310 Students
  - M. S. Balakrishna & Prasenjit Ghosh
  - Preston Snee
  - Howard DeVoe
  - Wikipedia
  - Sylvia Moes, Kees van Gestel, & Gerco van Beek
  - John Moore, Jia Zhou, and Etienne Garand
  - Lisa Sharpe Elles
  - Scott Van Bramer
  - ToxMSDT
  - Martín Martínez Ripoll & Félix Hernández Cano
  - Analytical Sciences Digital Library
  - Serge L. Smirnov and James McCarty
  - Donald Sadoway
  - John D. Roberts
  - UC Davis Chemistry
  - Devin R Latimer
  - Kirk McMichael
  - Roger W. Binkley and Edith R. Binkley
  - Roberto Peverati
  - Justin Shorb and Charlie Cox
  - Richard F. W. Bader
  - Leonard Anagho, Patrice Bell, Neville Forlemu, Emily Henary, Rebecca Kalman, Michael Kirberger, Seungjin Lee, Xiaoping Li, Joshua Morris, and Sang Park
  - Eden Francis
  - Nicholas Boaz and Orion Pearce
  - Elvin D. de Araujo, Bilal Saqib, Jeffrey W. Keillor, and Patrick T. Gunning
  - R Balaji Rao
  - Gordon J. Miller
  - Ta-Wei Li
  - Taro Saito
  - Deboleena Roy
  - Prabha Shetty
  - Judith Herzfeld
  - Chuck Pearson
  - Jamie MacArthur
  - Andryj Borys
  - Garima Garg
  - IUCr Commission on Crystallographic Nomenclature
  - Los Medanos College
  - LibreTexts
  - Sol Parajon Puenzo
  - Marco Zimmer-De Iuliis and Anna Galang
  - Elvin D. de Araujo, Timothy Wright, Bilal Saqib, Jeffrey W. Keillor, and Patrick T. Gunning
  - Alexandra Strom
  - Camille Kaslan
  - Alaka Pradhan
  - Theodore Chan
  - Stephanie Bryan and Ken Friedrich
  - Michael Fowler
  - Tanesha Osborne
- Show Page TOC
  - yes on page
  - no on page
- Cover Page
  - Set Cover Page/Add to Download Center
  - Set Cover Page/Not in Download Center
  - Compile but don't publish
- License
  - Public Domain
  - CC BY
  - CC BY-SA
  - CC BY-NC-SA
  - CC BY-ND
  - CC BY-NC-ND
  - GNU GPL
  - All Rights Reserved
  - CC BY-NC
  - GNU FDL
  - Mixed Licenses
  - CK-12
  - Caltech License
  - Collection
- Transcluded
  - yes
- Number of Print Columns
  - Two
  - Three
- PrintOptions
  - No Header/Footer
  - No Title
  - No Header/Footer/Title
- OER program or Publisher
  - College of the Canyons - Zero Textbook Cost Program
  - ASCCC OERI Program
  - CK-12
  - OpenStax
  - GALILEO
  - OpenSUNY
  - MIT OpenCourseWare
  - Virginia Tech Libraries' Open Education Initiative
  - The Publisher Who Must Not Be Named
  - eCampusOntario
  - WAC Clearinghouse
  - BC Campus
  - Lumen
  - Open Oregon
  - OpenStax CNX
  - PDXOpen
- Student Analytics
  - yes
- Autonumber Section Headings
  - title with space delimiters
  - title with colon delimiters
  - title with dash delimiters
- License Version
  - 1.0
  - 2.0
  - 2.5
  - 3.0
  - 4.0
  - 1.3
- Print CSS
  - Default
  - Dense
Include attachments
- Content Type
  - Document
  - Image
  - Other

8.4: Ionic Bonding
https://chem.libretexts.org/Courses/Indiana_Tech/EWC%3A_CHEM_1020_-_General_Chemistry_I_(Budhi)/08%3A_Chemical_Bonding_I%3A_Lewis_Structures/8.04%3A_Ionic_Bonding
The amount of energy needed to separate a gaseous ion pair is its bond energy. The formation of ionic compounds are usually extremely exothermic. The strength of the electrostatic attraction between i...The amount of energy needed to separate a gaseous ion pair is its bond energy. The formation of ionic compounds are usually extremely exothermic. The strength of the electrostatic attraction between ions with opposite charges is directly proportional to the magnitude of the charges on the ions and inversely proportional to the internuclear distance.
10.4: Ionic Bonding
https://chem.libretexts.org/Courses/can/CHEM_210_General_Chemistry_I_(Puenzo)/10%3A_Chemical_Bonding_I-_Lewis_Structures/10.04%3A_Ionic_Bonding
The amount of energy needed to separate a gaseous ion pair is its bond energy. The formation of ionic compounds are usually extremely exothermic. The strength of the electrostatic attraction between i...The amount of energy needed to separate a gaseous ion pair is its bond energy. The formation of ionic compounds are usually extremely exothermic. The strength of the electrostatic attraction between ions with opposite charges is directly proportional to the magnitude of the charges on the ions and inversely proportional to the internuclear distance.

Search

Text Color

Text Size

Margin Size

Font Type

Support Center

How can we help?