Yaroslavtsev Andrei Borisovich

Publications in Math-Net.Ru

1. Composite cathodes containing $\gamma$-sulfur and reduced graphene oxide for lithium–sulfur batteries
   
   Mendeleev Commun., 35:5 (2025),  560–562
2. Composite cathode material based on sulfur and microporous carbon for Li–S batteries
   
   Mendeleev Commun., 34:4 (2024),  478–480
3. Solid-state electrolytes: a way to increase the power of lithium-ion batteries
   
   Usp. Khim., 93:6 (2024),  1–36
4. Improvement of Li/Mg monovalent ion selectivity of cation-exchange membranes by incorporation of cerium or zirconium phosphate particles
   
   Mendeleev Commun., 33:3 (2023),  365–367
5. Recent progress in lithium-ion and lithium metal batteries
   
   Mendeleev Commun., 32:3 (2022),  287–297
6. Effect of ultrasonic treatment of Nafion® solution on the performance of fuel cells
   
   Mendeleev Commun., 32:2 (2022),  224–225
7. Current progress in membranes for fuel cells and reverse electrodialysis
   
   Mendeleev Commun., 31:4 (2021),  423–432
8. Hydrogen energy: development prospects and materials
   
   Usp. Khim., 90:6 (2021),  627–643
9. Polymer electrolytes for metal-ion batteries
   
   Usp. Khim., 89:10 (2020),  1132–1155
10. High pressure synthesis and transport properties of a perfluorinated sulfocationic exchange membrane
    
    Mendeleev Commun., 29:6 (2019),  661–662
11. Effect of the nature of functional groups grafted on the surface of silica nanoparticles on properties of the hybrid proton-conductive membranes based on N-phosphorylated polybenzimidazole
    
    Mendeleev Commun., 29:4 (2019),  403–404
12. Hybrid membranes based on short side chain perfluorinated sulfonic acid membranes (Inion) and heteropoly acid salts
    
    Mendeleev Commun., 28:6 (2018),  657–658
13. New approach to the preparation of grafted ion exchange membranes based on UV-oxidized polymer films and sulfonated polystyrene
    
    Mendeleev Commun., 27:6 (2017),  572–573
14. Water state and ionic conductivity of grafted ion exchange membranes based on polyethylene and sulfonated polystyrene
    
    Mendeleev Commun., 27:4 (2017),  380–381
15. Activation of NaFePO₄ with maricite structure for application as a cathode material in sodium-ion batteries
    
    Mendeleev Commun., 27:3 (2017),  263–264
16. Effect of the treatment of MF-4SC membranes on the cross sensitivity of Donnan potential sensors to cations in the aqueous solutions of organic ampholytes
    
    Mendeleev Commun., 26:6 (2016),  505–507
17. New high-capacity anode materials based on gallium-doped lithium titanate
    
    Mendeleev Commun., 26:3 (2016),  238–239
18. Phase transitions and proton conductivity in hafnium hydrogen phosphate with the NASICON structure
    
    Mendeleev Commun., 26:2 (2016),  152–153
19. Solid electrolytes: main prospects of research and development
    
    Usp. Khim., 85:11 (2016),  1255–1276
20. An improvement in the ionic conductivity and electrochemical characteristics of LiFePO₄ by heterogeneous doping with NASICON-type phosphate
    
    Mendeleev Commun., 25:3 (2015),  207–208
21. Relationships between water uptake, conductivity and mechanical properties of hybrid MF-4SC membranes doped by silica nanoparticles
    
    Mendeleev Commun., 25:1 (2015),  54–55
22. Electrode nanomaterials for lithium-ion batteries
    
    Usp. Khim., 84:8 (2015),  826–852
23. Hybrid membranes containing inorganic nanoparticles
    
    Mendeleev Commun., 24:6 (2014),  319–326
24. Temperature control-type electrolyte based on tungstovanadosilicic heteropoly acid and trioctylmethylammonium chloride
    
    Mendeleev Commun., 24:3 (2014),  147–148
25. Lithium intercalation and deintercalation into lithium–iron phosphates doped with cobalt
    
    Mendeleev Commun., 23:5 (2013),  251–252
26. Low temperature methane coupling in a Pd-based membrane reactor with UV activation
    
    Mendeleev Commun., 23:2 (2013),  69–70
27. Hybrid materials based on MF-4SC perfluorinated sulfo cation-exchange membranes and silica with proton-acceptor properties
    
    Mendeleev Commun., 23:2 (2013),  66–68
28. Preparation and Conductivity of a Hybrid Material based on Tungstovanadosilicic Acid Polyvinylpyrrolidone
    
    Mendeleev Commun., 23:1 (2013),  29–30
29. Membrane catalysis in dehydrogenation and hydrogen production processes
    
    Usp. Khim., 82:4 (2013),  352–368
30. Perfluorinated sulfocation-exchange membranes modified with zirconia for sensors susceptible to organic anions in multiionic aqueous solutions
    
    Mendeleev Commun., 22:2 (2012),  83–84
31. Nanostructured materials for low-temperature fuel cells
    
    Usp. Khim., 81:3 (2012),  191–220
32. Influence of incorporated nanoparticles on the ionic conductivity of MF-4SC membrane
    
    Mendeleev Commun., 20:3 (2010),  156–157
33. Synthesis and transport properties of membrane materials with incorporated metal nanoparticles
    
    Mendeleev Commun., 20:2 (2010),  89–91
34. Composite materials with ionic conductivity: from inorganic composites to hybrid membranes
    
    Usp. Khim., 78:11 (2009),  1094–1112
35. Conductivity and phase transitions in a potassium–magnesium molybdate
    
    Mendeleev Commun., 17:2 (2007),  95–96
36. Phase transition through intermediate formation?
    
    Mendeleev Commun., 14:5 (2004),  191–193
37. Ion transfer in ion-exchange and membrane materials
    
    Usp. Khim., 72:5 (2003),  438–470
38. Proton mobility in the composites of iron acid sulfate monohydrate with silica
    
    Mendeleev Commun., 12:6 (2002),  223–224
39. Influence of anions on the kinetics of hydrogen/sodium ion exchange in a crystalline acid zirconium phosphate
    
    Mendeleev Commun., 9:2 (1999),  50–53
40. Ion exchange on inorganic sorbents
    
    Usp. Khim., 66:7 (1997),  641–660
41. Ion-exchange in acid tantalum phosphate
    
    Mendeleev Commun., 6:2 (1996),  56–57
42. Synthesis and Proton Conductivity of Acid Tantalum Phosphate
    
    Mendeleev Commun., 5:4 (1995),  136–137
43. Proton Transfer in Low Temperature Proton Conductors
    
    Mendeleev Commun., 5:2 (1995),  46–49
44. Proton conductivity of inorganic hydrates
    
    Usp. Khim., 63:5 (1994),  449–455