The theory of electrolytes. I. Freezing point depression and related phenomena' (Debye & Hückel, 1923)
![Rigorous treatment of pairwise and many-body electrostatic interactions among dielectric spheres at the Debye–Hückel level | The European Physical Journal E Rigorous treatment of pairwise and many-body electrostatic interactions among dielectric spheres at the Debye–Hückel level | The European Physical Journal E](https://media.springernature.com/lw685/springer-static/image/art%3A10.1140%2Fepje%2Fs10189-021-00131-9/MediaObjects/10189_2021_131_Figa_HTML.png)
Rigorous treatment of pairwise and many-body electrostatic interactions among dielectric spheres at the Debye–Hückel level | The European Physical Journal E
The theory of electrolytes. I. Freezing point depression and related phenomena' (Debye & Hückel, 1923)
![Insight into Debye Hückel length (κ−1): smart gravimetric and swelling techniques reveals discrepancy of diffuse double layer theory at high ionic concentrations | Journal of Petroleum Exploration and Production Technology Insight into Debye Hückel length (κ−1): smart gravimetric and swelling techniques reveals discrepancy of diffuse double layer theory at high ionic concentrations | Journal of Petroleum Exploration and Production Technology](https://media.springernature.com/lw685/springer-static/image/art%3A10.1007%2Fs13202-021-01380-2/MediaObjects/13202_2021_1380_Fig1_HTML.png)
Insight into Debye Hückel length (κ−1): smart gravimetric and swelling techniques reveals discrepancy of diffuse double layer theory at high ionic concentrations | Journal of Petroleum Exploration and Production Technology
![Insight into Debye Hückel length (κ−1): smart gravimetric and swelling techniques reveals discrepancy of diffuse double layer theory at high ionic concentrations | Journal of Petroleum Exploration and Production Technology Insight into Debye Hückel length (κ−1): smart gravimetric and swelling techniques reveals discrepancy of diffuse double layer theory at high ionic concentrations | Journal of Petroleum Exploration and Production Technology](https://media.springernature.com/lw685/springer-static/image/art%3A10.1007%2Fs13202-021-01380-2/MediaObjects/13202_2021_1380_Fig5_HTML.png)
Insight into Debye Hückel length (κ−1): smart gravimetric and swelling techniques reveals discrepancy of diffuse double layer theory at high ionic concentrations | Journal of Petroleum Exploration and Production Technology
![SOLVED: For an electrolyte solution, state whether the thickness of the ionic atmosphere (1/κ) (also known as Debye-Hückel screening length) increases, decreases, or remains the same when the following parameters vary. Explain SOLVED: For an electrolyte solution, state whether the thickness of the ionic atmosphere (1/κ) (also known as Debye-Hückel screening length) increases, decreases, or remains the same when the following parameters vary. Explain](https://cdn.numerade.com/ask_previews/aa52f961-b92b-4e82-a980-deeebaa29585_large.jpg)
SOLVED: For an electrolyte solution, state whether the thickness of the ionic atmosphere (1/κ) (also known as Debye-Hückel screening length) increases, decreases, or remains the same when the following parameters vary. Explain
![Colloids and Interfaces | Free Full-Text | Failure of Debye-Hückel Screening in Low-Charge Colloidal Suspensions Colloids and Interfaces | Free Full-Text | Failure of Debye-Hückel Screening in Low-Charge Colloidal Suspensions](https://www.mdpi.com/colloids/colloids-02-00051/article_deploy/html/images/colloids-02-00051-g001.png)
Colloids and Interfaces | Free Full-Text | Failure of Debye-Hückel Screening in Low-Charge Colloidal Suspensions
![Extended Pitzer–Debye–Hückel Model for Long-Range Interactions in Ionic Liquids | Journal of Chemical & Engineering Data Extended Pitzer–Debye–Hückel Model for Long-Range Interactions in Ionic Liquids | Journal of Chemical & Engineering Data](https://pubs.acs.org/cms/10.1021/acs.jced.9b00368/asset/images/medium/je-2019-003683_0006.gif)
Extended Pitzer–Debye–Hückel Model for Long-Range Interactions in Ionic Liquids | Journal of Chemical & Engineering Data
![SOLVED: Use the Debye-Hückel equation to calculate the activity coefficient of each ion at the given ionic strength in an aqueous solution at 25 °C. Ion Pb2+ Mg2+ Zn2+ Cr3+ CrO4^2- ZrO2+ SOLVED: Use the Debye-Hückel equation to calculate the activity coefficient of each ion at the given ionic strength in an aqueous solution at 25 °C. Ion Pb2+ Mg2+ Zn2+ Cr3+ CrO4^2- ZrO2+](https://cdn.numerade.com/ask_images/ebf0b6dd044b46bf9ee0858f432e4d8a.jpg)