Effect of Sugar Addition on the Electric Current Strength of Mixtures with Vinegar, Lime Extract, Coffee, Salt Solution, and 70% Alcohol
DOI:
https://doi.org/10.24114/ijcst.v8i2.70611Keywords:
Electrical Conductivity, Sugar Solution, Electrolyte mixture, Current strengthAbstract
This study aims to examine the electric current strength of sugar mixed with various electrolyte and non-electrolyte solutions. The research employed an experimental approach using vinegar, lime extract, coffee solution, salt solution, and 70% alcohol combined with sugar solutions. A battery system and a digital multimeter were utilized to measure the resulting current in each mixture. The findings indicate that increasing the amount of sugar leads to a reduction in current strength, whereas decreasing the sugar content results in a higher current output.References
1. Wilhelm E (2022) Solutions, in Particular Dilute Solutions of Nonelectrolytes: A Review. J Solution Chem 51, 626–710.
2. Zavitsas AA (2022) Properties of aqueous solutions. A treatise against osmotic and activity coefficients. J Mol Liq 348, 118410.
3. Munawwarah, Anwar M, Alimin (2024) Interactive E-Book Colligative Properties of Solutions: Connecting Science and Society in Chemistry Learning. Jurnal Penelitian Pendidikan IPA 10, 9208–9215.
4. Analita RN, Bakti I, Nugraheni PW, Noviyanti E (2023) The learners’ conceptual understanding: Literature review of vapor-pressure lowering and boiling-point elevation. Journal of Education and Learning (EduLearn) 17, 641–651.
5. Rahmawati A, Kamaludin A (2023) Development of Motion Graphic Video for Electrolyte and Non-Electrolyte Solutions to Increase Senior High School Students’ Interest in Learning. Jurnal Penelitian Pendidikan IPA 9, 1753–1764.
6. Thabiea ; Dewi AM, Haryani S (2022) Development of Three-Tier Test Instruments Based on Scientific Literacy in Electrolyte and Non-Electrolyte Solution Topics. Thabiea : Journal of Natural Science Teaching 5, 1–16.
7. Roling B, Kettner J, Miß V (2022) Classifying Electrolyte Solutions by Comparing Charge and Mass Transport. ENERGY & ENVIRONMENTAL MATERIALS 5, 6–9.
8. Gaohua L, Miao X, Dou L (2021) Crosstalk of physiological pH and chemical pKa under the umbrella of physiologically based pharmacokinetic modeling of drug absorption, distribution, metabolism, excretion, and toxicity. Expert Opin Drug Metab Toxicol 17, 1103–1124.
9. MIZUHATA M (2022) Electrical Conductivity Measurement of Electrolyte Solution. Electrochemistry 90, 22–66111.
10. Blazquez S, Abascal JLF, Lagerweij J, Habibi P, Dey P, Vlugt TJH, Moultos OA, Vega C (2023) Computation of Electrical Conductivities of Aqueous Electrolyte Solutions: Two Surfaces, One Property. J Chem Theory Comput 19, 5380–5393.
11. Vasheghani Farahani F, Amini MH, Ahmadi SH, Zakaria SA (2021) Investigation of layered double hydroxide/carbon dot nanocomposite on removal efficiency of Pb2+ from aqueous solution. J Mol Liq 338, 116774.
12. Torrik A, Zaerin S, Zarif M (2022) Doxorubicin and Imatinib co-drug delivery using non-covalently functionalized carbon nanotube: Molecular dynamics study. J Mol Liq 362, 119789.
13. Torrik A, Zaerin S, Zarif M (2022) Doxorubicin and Imatinib co-drug delivery using non-covalently functionalized carbon nanotube: Molecular dynamics study. J Mol Liq 362, 119789.
14. Pucholobek G, de Andrade CK, Rigobello ES, Wielewski P, de Toledo V de AA, Quináia SP (2022) Determination of the Ca, Mn, Mg and Fe in honey from multiple species of stingless bee produced in Brazil. Food Chem 367, 130652.
15. Ettarhouni ZO, Elhamassi A, Abughrin SE, ALaamin FS, Ismail S, Bhattarai A (2025) Investigation of the physical behavior of Magnesium Sulphate/Sucrose in pharmaceuticals at different temperatures. Carbohydrate Polymer Technologies and Applications 10, 100806.
16. Bakam Nguenouho OS, Chevalier A, Potelon B, Benedicto J, Quendo C (2022) Dielectric characterization and modelling of aqueous solutions involving sodium chloride and sucrose and application to the design of a bi-parameter RF-sensor. Sci Rep 12, 7209.
17. Ji F, Xia R, Tao H, Wei W, Mu X, Li D, Lu F (2020) Determination of organic acids in vinegar and related products by ion chromatography. Food Science 41, 239–44.
18. Bratthäll T (2021) Influence of divalent cations on extraction of organic acids in coffee. Umeå University, Sweden
19. El Fadel W, El Hantati S, Nour Z, Dinane A, Messnaoui B, Mounir A, Samaouali A, Arbaoui A (2025) Experimental and Modeling Study of the Thermodynamic Behavior and Solubility of the NH4NO3–D-Sucrose–Water Ternary System at 298.15 K. Processes 13, 3438.
20. Angeloni G, Masella P, Spadi A, Guerrini L, Corti F, Bellumori M, Calamai L, Innocenti M, Parenti A (2023) Using ground coffee particle size and distribution to remodel beverage properties. European Food Research and Technology 249, 1247–1256.
21. Karale RR, Kamble S, Alwaleedy S, Kabara KB, Narwade P, Al-Hamdani SM, Kumbharkhane AC, Sarode A V. (2024) Study of molecular interaction in aqueous sucrose in the GHz region using Time Domain Reflectometry (TDR). J Mol Struct 1307, 137973.
22. Shcherbakov V V., Artemkina YM, Akimova IA, Artemkina IM (2021) Dielectric Characteristics, Electrical Conductivity and Solvation of Ions in Electrolyte Solutions. Materials 14, 5617.












