Hydroxyapatite (HAP) is a green catalyst that has a wide range of applications in catalysis
due to its high flexibility and multifunctionality. These properties allow HAP to accommodate …

Upgrading ethanol to n-butanol is an attractive way for renewable n-butanol production.
Herein, Cu was selected to modify NiMgAlO catalysts for improving ethanol conversion and …

Several studies have investigated the acidic/basic sites of the hydroxyapatite (HAP) surface.
However, their specific role in the catalytic properties of HAP is still discussed. Here, we …

The upgrading of ethanol to n-butanol was performed using a molecular catalyst integrated
into a carbon nitride support, one of the first examples of a supported molecular catalyst …

An efficient and stable catalyst to produce higher alcohols with a higher heat value and
cetane number and less corrosive to engines from aqueous ethanol is still facing …

Understanding the nature of intermediates/active species in reactions is a major challenge
in chemistry. This is because spectator species typically dominate the experimentally …

Hybrid systems of hydroxyapatite supported on carbonaceous materials of different nature
(activated charcoals, acetylene black, carbon black, graphite flake, synthesized microporous …

Calcium hydroxyapatite (HAp) has emerged as a green, bifunctional catalyst for the
heterogeneous coupling of various biomass-derived molecules, including ethanol to n …

The widespread concern about the burning of fossil fuels and its effects on the environment
has driven our research efforts toward sustainable energy solutions. As a result, there is a …

The catalytic upgrading of CO 2-based ethanol into valuable products, such as higher
alcohols, is of increasing interest. Carbon-neutral n-butanol can substitute major fractions of …