All Stories

  1. Dynamical weakening of pyroclastic flows by mechanical vibrations
  2. Enhancement of CO2 capture in limestone and dolomite granular beds by high intensity sound waves
  3. Crystallographic transformation of limestone during calcination under CO2
  4. Calcium-looping for post-combustion CO2 capture. On the adverse effect of sorbent regeneration under CO2
  5. Role of crystal structure on CO2
  6. Multicyclic conversion of limestone at Ca-looping conditions: The role of solid-sate diffusion controlled carbonation
  7. Effect of Heat Pretreatment/Recarbonation in the Ca-Looping Process at Realistic Calcination Conditions
  8. High and stable CO2...
  9. Nanosilica supported CaO: A regenerable and mechanically hard CO2 sorbent at Ca-looping conditions
  10. Effect of magnetic field orientation on fluidized beds of magnetic particles: Theory and experiment
  11. Flow properties of CO2 sorbent powders modified with nanosilica
  12. Enhancement of CO2 capture at Ca-looping conditions by high-intensity acoustic fields
  13. Stabilization of fluidized beds of particles magnetized by an external field: effects of particle size and field orientation
  14. Constant rate thermal analysis for enhancing the long-term CO2 capture of CaO at Ca-looping conditions
  15. Use of silica nanopowder to accelerate CO2 sorption by Ca(OH)2
  16. A model on the CaO multicyclic conversion in the Ca-looping process
  17. Role of Looping-Calcination Conditions on Self-Reactivation of Thermally Pretreated CO2 Sorbents Based on CaO
  18. Dry gas–solid carbonation in fluidized beds of Ca(OH)2 and nanosilica/Ca(OH)2 at ambient temperature and low CO2 pressure
  19. CO2 multicyclic capture of pretreated/doped CaO in the Ca-looping process. Theory and experiments
  20. Acoustic streaming in gas-fluidized beds of small particles
  21. Fluidization of Fine Powders
  22. The Modified Geldart’s Diagram
  23. Fluidization of Nanopowders
  24. Fluidization Assistance Techniques
  25. Magnetic Stabilization of Fluidized Beds of Magnetizable Particles
  26. Dynamic Aggregation of Fine Particles in Gas-Fluidized Beds
  27. Effect of Gas Viscosity on the Fluidization Behavior of Fine Powders
  28. The Use of Additives to Control Powder Flow. Mechanical Properties of Fine Powder Beds
  29. The Fluidlike Behavior of Fine and Ultrafine Powders Fluidized by Gas
  30. The Fluidlike Behavior of Granular Materials Fluidized by Liquids
  31. Fluidlike Fluidization as Affected by External Fields
  32. The Structure of Geldart A Gas-Fluidized Beds
  33. Introduction. The Classical Geldart’s Diagram and the New Type of Gas-Fluidization Behavior
  34. On the Question of Fluid-Like Fluidization Stability
  35. Ca-based synthetic materials with enhanced CO2capture efficiency
  36. Attrition of Ca‐based CO2‐adsorbents by a high velocity gas jet
  37. CO2 capture enhancement in a fluidized bed of a modified Geldart C powder
  38. Enhancement of Fast CO2 Capture by a Nano-SiO2/CaO Composite at Ca-Looping Conditions
  39. Magneto-Stabilization of Fluidized Beds as due to Short Ranged Interparticle Forces
  40. Fluidization of nanopowders: a review
  41. Probing the nature of the contact between fine particles by using ultrasound propagation
  42. Avalanches in moistened beds of glass beads
  43. Enhanced nanofluidization by alternating electric fields
  44. Electrofluidized bed of silica nanoparticles
  45. Magnetofluidization of fine magnetite powder
  46. Electromechanics of fluidized beds of nanoparticles
  47. Nanofluidization as affected by vibration and electrostatic fields
  48. Fluidization of nanoparticles: A simple equation for estimating the size of agglomerates
  49. Bubbling Suppression in Fluidized Beds of Fine and Ultrafine Powders
  50. Effect of inclination on gas-fluidized beds of fine cohesive powders
  51. A modified Richardson–Zaki equation for fluidization of Geldart B magnetic particles
  52. Fluidization, bubbling and jamming of nanoparticle agglomerates
  53. Fluidization of fine and ultrafine particles using nitrogen and neon as fluidizing gases
  54. Types of gas fluidization of cohesive granular materials
  55. Adhesive elastic plastic contact: theory and numerical simulation
  56. Magnetic field assisted fluidization: A modified Richardson–Zaki equation
  57. Compaction of fine powders: from fluidized agglomerates to primary particles
  58. Effect of vibration on agglomerate particulate fluidization
  59. Fluidization of nanoparticles: A modified Richardson‐Zaki Law
  60. The Sevilla Powder Tester: A Tool for Characterizing the Physical Properties of Fine Cohesive Powders at Very Small Consolidations
  61. Aggregation and sedimentation in gas-fluidized beds of cohesive powders
  62. The effect of particle size on interparticle adhesive forces for small loads
  63. Mechanical stresses of a layer of colloidal particles aggregated by means of an electric field
  64. The tensile strength and free volume of cohesive powders compressed by gas flow
  65. On the breakup of slender liquid bridges: Experiments and a 1-D numerical analysis
  66. The tensile strength of cohesive powders and its relationship to consolidation, free volume and cohesivity