All Stories

  1. Experimental methods in chemical engineering: X‐ray fluorescence—XRF
  2. Total Capital Investment of plastic recycling plants correlates with energy losses and capacity
  3. Feedback control strategy of Fischer–Tropsch process in a micro-GtL plant
  4. J.Harmsen, R.BosMultiphase Reactors–Reaction Engineering Concepts, Selection, and Industrial Applications. Berlin: De Gruyter, 2023, $89 USD; ISBN 978‐3‐11‐071376‐3.
  5. Liquid atomization into gas-solid fluidized beds - A review spanning the micro- to macro-scale
  6. tert‐butanol and hydrogen peroxide react over Amberlyst‐15 to form tert‐butyl hydroperoxide
  7. Vision 2050: Reaction Engineering Roadmap
  8. Perspectives on judging posters
  9. Chemical and Biological Delignification of Biomass: A Review
  10. Optimization of Supercritical Carbon Dioxide Fluid Extraction of Medicinal Cannabis from Quebec
  11. Experimental methods in chemical engineering: Data processing and data usage in decision‐making
  12. Safety analysis and risk assessment of a Micro-GtL Plant
  13. Zeolite Y hydrolyses methyl methacrylate to methacrylic acid in the gas phase
  14. Meta‐analysis and review of cannabinoids extraction and purification techniques
  15. Cover Image
  16. Experimental methods in chemical engineering: Computational fluid dynamics/finite volume method–CFD / FVM
  17. Experimental methods in chemical engineering: Reactive extrusion
  18. Experimental methods in chemical engineering: Pressure
  19. Experimental methods in chemical engineering: Hazard and operability analysis—HAZOP
  20. Experimental and Computational Synergistic Design of Cu and Fe Catalysts for the Reverse Water–Gas Shift: A Review
  21. Experimental methods in chemical engineering: Optical fibre probes in multiphase systems
  22. A perspective on The Canadian Journal of Chemical Engineering commemorating its 100th volume: 1929‐2021
  23. Ni-Cu/Al2O3 from Layered Double Hydroxides Hydrogenates Furfural to Alcohols
  24. Experimental Methods in Chemical Engineering: Atomic force microscopy— AFM
  25. Experimental nethods in chemical engineering: Scanning electron microscopy and X‐ray ultra‐microscopy–SEM , XuM
  26. Experimental methods in chemical engineering: gas chromatography‐GC
  27. Experimental methods in chemical engineering: pH
  28. Pt-WO3 oxydehydrates fructose to furans in the gas phase
  29. Cover Image
  30. Techno economic analysis of a micro Gas-to-Liquid unit for associated natural gas conversion
  31. Experimental methods in chemical engineering: X ‐ray absorption spectroscopy— XAS , XANES , EXAFS
  32. Gas to Liquids Techno-Economics of Associated Natural Gas, Bio Gas, and Landfill Gas
  33. Fluidized bed hydrodynamic modeling of CO 2 in syngas: Distorted RTD curves due to adsorption on FCC
  34. Experimental methods in chemical engineering: Mössbauer spectroscopy
  35. Experimental methods in chemical engineering: Density functional theory
  36. NSERC Discovery Grants and a tribute to Leo A. Behie
  37. Experimental Methods in Chemical Engineering: High throughput catalyst testing — HTCT
  38. Experimental methods in chemical engineering: High performance liquid chromatography— HPLC
  39. Experimental Methods in Chemical Engineering: Barrier properties
  40. Experimental methods in chemical engineering: Temperature programmed surface reaction spectroscopy— TPSR
  41. Experimental methods in chemical engineering: Zeta potential
  42. Experimental methods in chemical engineering: Raman spectroscopy
  43. Oxidation kinetics of 2–methyl–1,3–propanediol to methacrylic acid in a fluidized bed reactor
  44. Experimental methods in chemical engineering: process simulation
  45. Gas–Solid Oxidation of Unwashed Lignin to Carboxylic Acids
  46. Thermocatalytic Hydrodeoxygenation and Depolymerization of Waste Lignin to Oxygenates and Biofuels in a Continuous Flow Reactor at Atmospheric Pressure
  47. FeCrAl as a Catalyst Support
  48. Experimental methods in chemical engineering: Electron paramagnetic resonance spectroscopy‐EPR / ESR
  49. Experimental Methods in Chemical Engineering: Rheometry
  50. Experimental methods in chemical engineering: X‐ray diffraction spectroscopy—XRD
  51. Experimental methods in chemical engineering: Residence time distribution—RTD
  52. Experimental Methods in Chemical Engineering: Transmission Electron Microscopy—TEM
  53. Experimental Methods in Chemical Engineering: Unresolved CFD‐DEM
  54. Experimental Methods in Chemical Engineering: Thermogravimetric Analysis—TGA
  55. Experimental methods in chemical engineering: Fourier transform infrared spectroscopy—FTIR
  56. Experimental methods in chemical engineering: specific surface area and pore size distribution measurements—BET, BJH, DFT
  57. Experimental methods in chemical engineering: Fluorescence emission spectroscopy
  58. Experimental Methods in Chemical Engineering: Micro‐Reactors
  59. Experimental Methods in Chemical Engineering: Discrete Element Method‐‐‐DEM
  60. Experimental Methods in Chemical Engineering: Mass Spectrometry—MS
  61. Experimental methods in chemical engineering: Contact angles
  62. Predictive Alarm Generation for Chemical Processes with Unknown Disturbance
  63. Understanding the Influence of Rheological Properties of Shear-Thinning Liquids on Segmented Flow in Microchannel using CLSVOF Based CFD Model
  64. Flame‐assisted spray pyrolysis of lithium and manganese precursors to polycrystalline LiMn 2 O 4
  65. Intellectual contributions meriting authorship: Survey results from the top cited authors across all science categories
  66. Experimental methods in chemical engineering: Ultraviolet visible spectroscopy-UV-Vis
  67. Experimental methods in chemical engineering: Differential scanning calorimetry-DSC
  68. Experimental methods in chemical engineering: Temperature programmed reduction-TPR
  69. Experimental methods in chemical engineering: Preface
  70. Levulinic acid upgrade to succinic acid with hydrogen peroxide
  71. Cs, V, Cu Keggin-type catalysts partially oxidize 2-methyl-1,3-propanediol to methacrylic acid
  72. Catalysis for the synthesis of methacrylic acid and methyl methacrylate
  73. Flame-assisted spray pyrolysis to size-controlled LiyAlxMn2−xO4: a supervised machine learning approach
  74. Citation analysis of scientific categories
  75. CaO and isopropanol transesterify and crack triglycerides to isopropyl esters and green diesel
  76. Pt thin film transient mobility over yttria stabilized zirconia
  77. Catalytic glycerol hydrogenolysis to 1,3-propanediol in a gas–solid fluidized bed
  78. Optimization of LiFePO4 wet media milling and regressive population balance modeling
  79. Pyrolusite: An alternative oxygen carrier for chemical looping combustion
  80. Carbonation and deactivation kinetics of a mixed calcium oxide–copper oxide sorbent/oxygen carrier for post-combustion carbon dioxide capture
  81. Take our quiz to test your publishing skills
  82. Spray dried SiO2 WO3/TiO2 and SiO2 vanadium pyrophosphate core-shell catalysts
  83. A micro-refinery to reduce associated natural gas flaring
  84. An exponential expression for gas heat capacity, enthalpy, and entropy
  85. How do you write and present research well? 17-Submit your manuscript to the journal you cite most
  86. How do you write and present research well? 18-Publish and flourish
  87. How do you write and present research well? 20-state the novelty of your work explicitly
  88. How do you write and present research well? 19-emulate articles in high impact factor journals
  89. Gas phase dehydration of glycerol to acrolein: Coke on WO3/TiO2 reduces by-products
  90. Photo Initiated Chemical Vapour Deposition To Increase Polymer Hydrophobicity
  91. How do you write and present research well? 16-Target an audience and promote
  92. How do you write and present research well? 15-Prepare to say less than you prepare
  93. How do you write and present research well? 13-Set axis titles to within 1 pt of article text
  94. How do you write and present research well? 14-Favour images over text in graphical abstracts
  95. How do you write and present research well? 12-Design graphs to fit within the journal column width
  96. Pyrolusite–CO reduction kinetics
  97. Coke promoters improve acrolein selectivity in the gas-phase dehydration of glycerol to acrolein
  98. Pt on Fecralloy catalyses methane partial oxidation to syngas at high pressure
  99. How do you write and present research well? 10-State the uncertainty, but not too precisely
  100. How do you write and present research well? 11-Respect SI writing conventions
  101. How do you write and present research well? 9-show and state what error bars represent
  102. How do you write and present research well? 8 - Assign authorship according to intellectual involvement
  103. How do you write and present research well? 7-Cite to get cited
  104. Gas-to-liquids processes: Preface
  105. Chemical looping syngas from CO2and H2O over manganese oxide minerals
  106. Partial oxidation of methane to syngas over Pt/Rh/MgO catalyst supported on FeCralloy woven fibre
  107. Attrition resistance of calcium oxide–copper oxide–cement sorbents for post-combustion carbon dioxide capture
  108. Micro-syngas technology options for GtL
  109. How do you write and present research well? 6-Tell it in the title
  110. How do you write and present research well? 5 -revise sentences over 30 words long
  111. Ilmenite–CO reduction kinetics
  112. Gas–solid conversion of lignin to carboxylic acids
  113. Conversion of Refined and Waste Oils by Ultrasound-Assisted Heterogeneous Catalysis
  114. Partial oxidation of 2-methyl-1,3-propanediol to methacrylic acid: experimental and neural network modeling
  115. Gas phase oxidation of 2-methyl-1,3-propanediol to methacrylic acid over heteropolyacid catalysts
  116. How do you write and present research well? Q4 - Do not metastasize with metadiscourse
  117. How do you write and present research well? 3-shave your text with Occam's Razor
  118. Response to comment on “How do you write and present research well?”
  119. Comment on “How do you write and present research well?”
  120. Response to ‘Comment on “How do you write and present research well?”’
  121. Write sentences in the active voice: Agents precede vigorous verbs. The passive voice hides agents.
  122. How do you write and present research well? 1 - admit that you did it
  123. One step cracking/transesterification of vegetable oil: Reaction–regeneration cycles in a capillary fluidized bed
  124. Gas-Phase Partial Oxidation of Lignin to Carboxylic Acids over Vanadium Pyrophosphate and Aluminum-Vanadium-Molybdenum
  125. How do you write and present research well?
  126. Transient acrolein selectivity and carbon deposition study of glycerol dehydration over WO3/TiO2 catalyst
  127. Techno-Economic Comparison of a 7-MWthBiomass Chemical Looping Gasification Unit with Conventional Systems
  128. Thermogravimetric heat and mass transfer: Modeling of bitumen pyrolysis
  129. Communicate Science Papers, Presentations, and Posters Effectively
  130. Publishing Industry
  131. Reporting Data
  132. Plagiarism
  133. Paper Essentials
  134. Tables
  135. Graphs
  136. Writing Style
  137. Posters That Captivate
  138. Presentations They Will Remember
  139. Appendix
  140. Solutions
  141. Front Matter
  142. Preface
  143. Conversion of Refined and Waste Oils by Ultrasound-assisted Heterogeneous Catalysis
  144. Transient modeling of biomass steam gasification with Co3O4
  145. Partial oxidation of d-xylose to maleic anhydride and acrylic acid over vanadyl pyrophosphate
  146. Biofuel synthesis in a capillary fluidized bed
  147. Ultrasonic free fatty acids esterification in tobacco and canola oil
  148. TGA and kinetic modelling of Co, Mn and Cu oxides for chemical looping gasification (CLG)
  149. Vanadium-Phosphorus Oxide Catalyst for n-Butane Selective Oxidation: From Catalyst Synthesis to the Industrial Process
  150. Ultrafast Biodiesel Production Using Ultrasound in Batch and Continuous Reactors
  151. Gas-phase propane combustion in the freeboard of a fluidized bed
  152. Selectively combusting CO in the presence of propylene
  153. Significant catalytic recovery of spent industrial DuPont catalysts by surface deposition of an amorphous vanadium-phosphorus oxide phase
  154. Traveling column for comparison of invasive and non-invasive fluidization voidage measurement techniques
  155. Experimental Methods and Instrumentation for Chemical Engineers
  156. Experimental Planning
  157. Fluid Metering
  158. Physicochemical Analysis
  159. Solutions
  160. Introduction
  161. Pressure
  162. Temperature
  163. Gas and Liquid Concentration
  164. Measurement and Analysis
  165. Analysis of Solids and Powders
  166. Kinetics of mixed copper–iron based oxygen carriers for hydrogen production by chemical looping water splitting
  167. Oxidation Kinetics of Carbon Deposited on Cerium-Doped FePO4 during Dehydration of Glycerol to Acrolein
  168. Transient kinetics ofn-butane partial oxidation at elevated pressure
  169. Transient Redox Activity of Vanadyl Pyrophosphate at Ambient and Elevated Pressure
  170. Hydrogen production through chemical looping using NiO/NiAl2O4 as oxygen carrier
  171. Simulation of catalyst loss from an industrial fluidized bed reactor on the basis of labscale attrition tests
  172. Non-premixed fluidized bed combustion of C1–C4 n-alkanes
  173. Steam carbon gasification of a nickel based oxygen carrier
  174. MeOH to DME in bubbling fluidized bed: Experimental and modelling
  175. Maleic anhydride yield during cyclic n-butane/oxygen operation
  176. Oxidative dehydrogenation of propane to propene, 1: Kinetic study on V/MgO
  177. Fluidized Bed Combustion of Natural Gas and other Hydrocarbons
  178. International VPO Workshop: Preface
  179. Butane oxidation process development in a circulating fluidized bed
  180. Effect of feed nozzle configuration on n-butane to maleic anhydride yield: From lab scale to commercial
  181. Parametric study of n-butane oxidation in a circulating fluidized bed reactor
  182. Simultaneous quantitative measurement of gaseous species composition and solids volume fraction in a gas/solid flow
  183. Reactive Vaporization of Crude Glycerol in a Fluidized Bed Reactor
  184. Kinetic Modeling of Methanol-to-Olefin Reaction over ZSM-5 in Fluid Bed
  185. Regeneration studies of redox catalysts
  186. Chemical-looping combustion process: Kinetics and mathematical modeling
  187. Reactor Technologies for Propane Partial Oxidation to Acrylic Acid
  188. Drift flux modelling of entrained gas–solids suspensions
  189. Gas-Phase Combustion in the Freeboard of a Fluidized Bed-Freeboard Characterization
  190. Drift flux modelling of CFB risers
  191. Formaldehyde process intensification through gas heat capacity
  192. Phosphorous modified ZSM-5: Deactivation and product distribution for MTO
  193. Pressure Calcination of VPO Catalyst
  194. Fluid bed gas RTD: Effect of fines and internals
  195. Heat transfer studies in an inorganic membrane reactor at pilot plant scale
  196. VPO transient lattice oxygen contribution
  197. VPO Transient Oxidation Kinetics
  198. Membrane pilot reactor applied to selective oxidation reactions
  199. Transient n-butane partial oxidation kinetics over VPO
  200. Butane Oxidation to Maleic Anhydride:  Kinetic Modeling and Byproducts
  201. Fines effects on collapsing fluidized beds
  202. Butane partial oxidation in an externally fluidized bed-membrane reactor
  203. Radial Hydrodynamics in Risers
  204. Gas phase hydrodynamics in circulating fluidized bed risers
  205. Hydrodynamics of circulating fluidized bed risers: A review
  206. A New Commercial Scale Process for n-Butane Oxidation to Maleic Anhydride Using a Circulating Fluidized Bed Reactor
  207. Modelling of propylene oxidation in a circulating fluidized-bed reactor
  208. Gas phase hydrodynamics in the riser of a circulating fluidized bed
  209. Modeling the catalytic oxidation of n-butane to maleic anhydride in a circulating fluidized bed reactor
  210. Scaling considerations for circulating fluidized bed risers
  211. Reply to Mitschka
  212. Reply to Andersson and Kristoffersen
  213. Combined thermal-momentum start-up in long pipes
  214. Unified entry length for newtonian and power-law fluids in laminar pipe flow
  215. “Laminar start-up flow in short pipe lengths”
  216. Laminar start-up flow in short pipe lengths
  217. Calculation Of Gas Solubility In Wabasca Bitumen