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  1. Theoretical Insights Manifested by Wave Mechanics Theory of Microwave Absorption—Part 2: A Perspective Based on the Responses from DeepSeek
  2. Theoretical Insights Manifested by Wave Mechanics Theory of Microwave Absorption - A Perspective Based on the Responses from DeepSeek
  3. Theoretical Insights Manifested by Wave Mechanics Theory of Microwave Absorption—Part 2: A Perspective Based on the Responses from DeepSeek
  4. Theoretical Insights Manifested by Wave Mechanics Theory of Microwave Absorption—Part 2: A Perspective Based on the Responses from DeepSeek
  5. Theoretical Insights Manifested by Wave Mechanics Theory of Microwave Absorption
  6. Recognizing Problems in Publications Concerned with Microwave Absorption Film and Providing Corrections: A Focused Review
  7. Wave mechanics of microwave absorption in films: A short review
  8. Wave Mechanics of Microwave Absorption in Films: Multilayered Films
  9. Review of Wave Mechanics Theory for Microwave Absorption by Film
  10. Recognizing Problems in Publications Concerned with Microwave Absorption Film and Providing Corrections: A Focused Review
  11. Wave Mechanics of Microwave Absorption in Films: Part 3 – Multilayered Films
  12. [Commentary] Comments on: “A perspective on impedance matching and resonance absorption mechanism for electromagnetic wave absorbing” by Hou et al. [Carbon 222 (2024) 118935]
  13. Corrections of Common Errors in Current Theories of Microwave Absorption Caused by Confusing Film and Material
  14. A theoretical exploration of impedance matching coefficients for interfaces and films
  15. Wave mechanics of microwave absorption in films - Distinguishing film from material
  16. Fundamental theory of microwave absorption for films of porous nanocomposites: role of interfaces in composite fillers
  17. Review of: "Some Considerations on the Speed of Light"
  18. Wave Mechanics of Microwave Absorption Films: Part 2 - Distinguishing Film from Material
  19. The wave mechanics for microwave absorption film-Part 3: Film with multilayers
  20. Wave Mechanics of Microwave Absorption Films: Part 1 - Insights and Review
  21. The wave mechanics for microwave absorption film-Part 3: Film with multilayers
  22. Wave Mechanics of Microwave Absorption Films: Part 3 - Multilayered Films
  23. Review of: "The Compton Wavelength Is the True Matter Wavelength, Linked to the Photon Wavelength, While the de Broglie Wavelength Is Simply a Mathematical Derivative"
  24. The Wave Cancellation Theory for Microwave Absorption Films
  25. The wave mechanics for microwave absorption film – Part 2: The difference between film and material
  26. The wave mechanics for microwave absorption film-Part 1: A short review
  27. The wave mechanics for microwave absorption film-Part 3: Film with multilayers
  28. Revolutionary Shift in Impedance Matching Theory for Microwave Absorption I
  29. Revolutionary Shift in Impedance Matching Theory for Microwave Absorption II
  30. The Theory of Film Differs Significantly from Material Theory I
  31. The Theory of Film Differs Significantly from Material Theory II
  32. Reflection Loss is a Parameter for Film, not Material
  33. Microwave absorption of film explained accurately by wave cancellation theory
  34. Microwave absorption of film explained accurately by wave cancellation theory
  35. Photocatalytic degradation of tetracycline hydrochloride with g-C3N4/Ag/AgBr composites
  36. Wave Mechanics of Microwave Absorption Films --Energy Conservation
  37. The Established Microwave Absorption Mechanism for Films Has Been Overturned
  38. Wave Mechanics of Microwave Absorption Films -- The Quarter-Wavelength Theory Overturned
  39. Natural Mathematical Derivation of the Gibbs-Duhem Equation
  40. Natural Mathematical Derivation of the Gibbs–Duhem Equation Related to ΔG and ∂G/∂ξ
  41. The problems in the quarter-wavelength model and impedance matching theory in analysising microwave absorption material
  42. The Quarter-Wavelength Theory of Microwave Absorption Has Been Debunked I
  43. The Quarter-Wavelength Theory of Microwave Absorption Has Been Debunked II
  44. Wave Mechanics of Microwave Absorption Films -- Application
  45. Ionic liquid assisted preparation of phosphorus-doped g-C3N4 photocatalyst for decomposition of emerging water pollutants
  46. Clarifications of rudements in crystallography
  47. Construction of 1D Ag-AgBr/AlOOH Plasmonic Photocatalyst for Degradation of Tetracycline Hydrochloride
  48. Relationship derived by different but connected approaches
  49. New procedure in characterizing Microwave absorption
  50. An investigation into “reflection loss”
  51. Characterization microwave absorption with more rigorous method
  52. Microwave absorption and reflection loss
  53. Characterizing Materials Using Reflection Loss Is Not Feasible
  54. Parameter set applicable to microwave absorption
  55. Three different methods for calculating interplanar spacing in a lattice
  56. Preparation and characterizations of Ba1−xPbxFe12O19/polypyrrole composites
  57. Transmission Line Theory and Microwave Absorption
  58. Several Theoretical Perspectives of Ferrite-Based Materials—Part 2: Close Packing Model for Crystal Structure
  59. Several Theoretical Perspectives of Ferrite-Based Materials-Part 3: Crystal Structure and Synthesis
  60. Preparation and characterizations of active carbon/barium ferrite/polypyrrole composites
  61. Increasing microwave absorption efficiency in ferrite based materials by doping with lead and forming composites
  62. A mathematical approach to chemical equilibrium theory for gaseous systems IV: a mathematical clarification of Le Chatelier’s principle
  63. A mathematical approach to chemical equilibrium theory for gaseous systems—III: $$\hbox {Q}_\mathrm{p}$$ Q p , $$\hbox {Q}_\mathrm{c}$$ Q c , and $$\hbox {Q}_{\mathrm{x}}$$ Q x
  64. A comparative study of Fe3O4/polyaniline composites with octahedral and microspherical inorganic kernels
  65. The handedness structure of octahedral metal complexes with chelating ligands
  66. Anodic Polarization Curves Revisited
  67. A mathematical approach to chemical equilibrium theory for gaseous systems—I: theory
  68. A mathematical approach to chemical equilibrium theory for gaseous systems—II: extensions and applications
  69. Correlation between Fourier series expansion and Hückel orbital theory
  70. Preparation, characterizations and magnetic properties of doped barium hexaferrites BaFe12-2x Mn x Sn x O19 (x = 0.0–1.0)
  71. Optimizing the methods of synthesis for barium hexagonal ferrite—An experimental and theoretical study
  72. Connections between Concepts Revealed by the Electronic Structure of Carbon Monoxide
  73. Correlations between two sets of angular relation equations
  74. Structure Information of Barium Hexaferrite and Strategies for its Syntheses
  75. Magnetic Properties of Mn/Co/Sn Substituted Barium Hexaferrites Synthesized by an Improved Co-Precipitation Method
  76. Improved Synthesis Methods for Barium Hexaferrite
  77. Preparation and magnetic properties of barium ferrites substituted with manganese, cobalt, and tin
  78. A New Method for Obtaining Russell−Saunders Terms
  79. Preparation and magnetic properties of La–Mn and La–Co doped barium hexaferrites prepared via an improved co-precipitation/molten salt method
  80. Preparation, characterization and magnetic properties of the doped barium hexaferrites BaFe12−2xCox/2Znx/2SnxO19, x=0.0–2.0
  81. Efficiency and purity control in the preparation of pure and/or aluminum-doped barium ferrites by hydrothermal methods using ferrous ions as reactants
  82. Correlation between regioselectivity and site charge in propene polymerisation catalysed by metallocene
  83. Comparison of the Sol-gel Method with the Coprecipitation Technique for Preparation of Hexagonal Barium Ferrite
  84. The crucial importance of agostic interactions in intermediates formed in propylene polymerization using neutral salicyladiminato palladium(II) and nickel complexes as catalysts
  85. Intermediate ion stability and regioselectivity in propene polymerization using neutral salicyladiminato nickel(II) and palladium(II) complexes as catalysts
  86. A DFT study of propylene polymerization using neutral salicyladiminato nickel(II) and palladium(II) as catalysts
  87. Where Should the Nuclei Be Located?