122 results on '"Zhou, Shaodong"'
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2. Genome-wide association study for biomass accumulation traits in soybean.
3. General Construction of Amine via Reduction of N= X (X = C, O, H) Bonds Mediated by Supported Nickel Boride Nanoclusters.
4. Über die besondere Rolle des Stickstoffliganden in den durch [NbN]+ katalysierten Redoxreaktionen von N2O/CO in der Gasphase.
5. On the Remarkable Role of the Nitrogen Ligand in the Gas‐Phase Redox Reaction of the N2O/CO Couple Catalyzed by [NbN]+.
6. Thermal Activation of CH4 and H2 as Mediated by the Ruthenium Oxide Cluster Ions [RuOx]+ (x=1–3): On the Influence of Oxidation States.
7. Tuning the Reactivities of the Heteronuclear [AlnV3−nO7−n]+ (n=1, 2) Cluster Oxides towards Methane by Varying the Composition of the Metal Centers.
8. Selektive Übertragung eines Stickstoffatoms im [CeON]+/CH4‐System durch hocheffizientes Intersystem Crossing.
9. Selective Nitrogen‐Atom Transfer Driven by a Highly Efficient Intersystem Crossing in the [CeON]+/CH4 System.
10. Mechanistic aspects of methane activation promoted by [MO3]+ (M = Mn, Re).
11. Experimental Study on Wake Development in a Three-cylinder Model within a Tunnel in Transitional Flow.
12. Selective C−O Coupling Hidden in the Thermal Reaction of [Al2CuO5]+ with Methane.
13. Über die Ursachen der deutlich unterschiedlichen Reaktivität von Ruthenium unter den [MO]+/CH4‐Systemen (M=Fe, Ru, Os).
14. On the Origin of the Distinctly Different Reactivity of Ruthenium in [MO]+/CH4 Systems (M=Fe, Ru, Os).
15. Direkte Umwandlung von Methan zu protoniertem Formaldehyd bei Raumtemperatur in der Gasphase: Zur Rolle von Quecksilber unter den Oxidkationen der Zinktriade.
16. Direct Room‐Temperature Conversion of Methane into Protonated Formaldehyde: The Gas‐Phase Chemistry of Mercury among the Zinc Triad Oxide Cations.
17. Spin-Selective, Competitive Hydrogen-Atom Transfer versus CH2O-Generation from the CH4/[ReO4]+ Couple at Ambient Conditions.
18. Elektronische Ursache konkurrierender Mechanismen bei der thermischen Aktivierung von Methan durch das heteronukleare Clusteroxid [Al2ZnO4].+.
19. Electronic Origin of the Competitive Mechanisms in the Thermal Activation of Methane by the Heteronuclear Cluster Oxide [Al2ZnO4].+.
20. On the Electronic Origin of Remarkable Ligand Effects on the Reactivities of [NiL]+ Complexes (L=C6H5, C5H4N, CN) towards Methane.
21. Metal-Dependent Strengthening and Weakening of M−H and M−C Bonds by an Oxo Ligand: Thermal Gas-Phase Activation of Methane by [OMH]+ and [MH]+ (M=Mo, Ti).
22. Metallfreier, durch [Si2O x].+ ( x=2 -5) katalysierter Sauerstofftransfer im N2O/CO-Redoxpaar bei Raumtemperatur.
23. On the Origin of Reactivity Enhancement/Suppression upon Sequential Ligation: [Re(CO) x]+/CH4 ( x=0 -3) Couples.
24. On the Origin of Reactivity Enhancement/Suppression upon Sequential Ligation: [Re(CO) x]+/CH4 ( x=0 -3) Couples.
25. Numerical simulation on time-mean characteristics of flow and heat transfer of in-line double-column cylinders in the transitional flow using compound grid system.
26. Thermal Methane Activation by the Metal-Free Cluster Cation [Si2O4].+.
27. Ursachen der unterschiedlichen Reaktivität von [AlCeO x]+ ( x=2 -4) gegenüber Methan in Abhängigkeit vom Sauerstoffgehalt.
28. On the Origin of the Remarkably Variable Reactivities of [AlCeO x]+ ( x=2 -4) towards Methane as a Function of Oxygen Content.
29. Thermische Dehydrierung von Methan durch [ReN]+.
30. Zum Ursprung der effizienten thermischen Chemisorption von Methan durch den heteronuklearen Metalloxidcluster [Al2TaO5]+.
31. Thermal Dehydrogenation of Methane by [ReN]+.
32. The Origin of the Efficient, Thermal Chemisorption of Methane by the Heteronuclear Metal-Oxide Cluster [Al2TaO5]+.
33. Hidden Hydride Transfer as a Decisive Mechanistic Step in the Reactions of the Unligated Gold Carbide [AuC]+ with Methane under Ambient Conditions.
34. Thermische Methanaktivierung durch [Si2O5].+ und [Si2O5H2].+: Reaktivitätssteigerung durch Hydrierung.
35. Hidden Hydride Transfer as a Decisive Mechanistic Step in the Reactions of the Unligated Gold Carbide [AuC]+ with Methane under Ambient Conditions.
36. Thermal Methane Activation by [Si2O5].+ and [Si2O5H2].+: Reactivity Enhancement by Hydrogenation.
37. Efficient Room-Temperature Methane Activation by the Closed-Shell, Metal-Free Cluster [OSiOH]+: A Novel Mechanistic Variant.
38. Effiziente, thermische Aktivierung von Methan durch TaN+ unter C-N-Kupplung.
39. Efficient Room-Temperature Activation of Methane by TaN+ under C−N Coupling.
40. Die Chemie von [AuO]+/CH4 in der Gasphase: Selektive Sauerstoffatom-Übertragung auf, statt Wasserstoffatom-Abstraktion von Methan.
41. The Unique Gas-Phase Chemistry of the [AuO]+/CH4 Couple: Selective Oxygen-Atom Transfer to, Rather than Hydrogen-Atom Abstraction from, Methane.
42. Thermische Aktivierung von Methan durch [HfO].+ und [XHfO]+ (X=F, Cl, Br, I): ein außergewöhnlicher Ligandeneffekt und dessen Ursache.
43. Thermal Activation of Methane by [HfO].+ and [XHfO]+ (X=F, Cl, Br, I) and the Origin of a Remarkable Ligand Effect.
44. Spinabhängige, thermische Aktivierung von Methan durch den geschlossenschaligen Cluster [TaO3]+.
45. Spin-Selective Thermal Activation of Methane by Closed-Shell [TaO3]+.
46. Differences and Commonalities in the Gas-Phase Reactions of Closed-Shell Metal Dioxide Clusters [MO2]+ (M=V, Nb, and Ta) with Methane.
47. Mechanistic Aspects of the Holmium-Mediated, Reciprocal Hydrogen/Sulfur Exchange in the Gas Phase: C6H5CH3+CH2S→C6H5CHS+CH4.
48. Breaking and Making of Carbon-Carbon Bonds by Lanthanides and Third-Row Transition Metals.
49. Au+-vermittelte, effiziente Kupplung eines Carbenliganden mit Methan: Bildung von C2Hx (x=4, 6) bei Raumtemperatur.
50. Efficient Room-Temperature, Au+-Mediated Coupling of a Carbene Ligand with Methane To Generate C2Hx (x = 4, 6).
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