Juan Carlos Colmenares Quintero

Prof. Juan Carlos Colmenares Quintero

Institute of Physical Chemistry, Polish Academy of Science, Warsaw, Poland
orcid

Research Focus & Metrics

Academic Career Length

23Years (2004-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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11 November 2013 in Chemical Society Reviews
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Juan Carlos Colmenares QuinteroJuan Carlos Colmenares Quintero
Juan Carlos Colmenares Quintero
Rafael LuqueRafael Luque
Rafael Luque
Heterogeneous photocatalysis has become a comprehensively studied area of research during the past three decades due to its practical interest in applications including water–air depollution, cancer therapy, sterilization, artificial photosynthesis (CO2 photoreduction), anti-fogging surfaces, heat transfer and heat dissipation, anticorrosion, lithography, photochromism, solar chemicals production and many others. The utilization of solar irradiation to supply energy or to initiate chemical reactions is already an established idea. Excited electron–hole pairs are generated upon light irradiation of a wide-band gap semiconductor which can be applied to solar cells to generate electricity or in chemical processes to create/degrade specific compounds. While the field of heterogeneous photocatalysis for pollutant abatement and mineralisation of contaminants has been extensively investigated, a new research avenue related to the selective valorisation of residues has recently emerged as a promising alternative to utilise solar light for the production of valuable chemicals and fuels. This tutorial review will focus on the potential and applications of solid photonanocatalysts for the selective transformation of biomass-derived substrates.

13 October 2014 in Advanced Functional Materials
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CHChuang Han
Chuang Han
ZCZhang Chen
Zhang Chen
NZNan Zhang
Nan Zhang
Juan Carlos Colmenares QuinteroJuan Carlos Colmenares Quintero
Juan Carlos Colmenares Quintero
YXYi‐Jun Xu
Yi‐Jun Xu

9 April 2015 in Chemical Society Reviews
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SLSiqi Liu
Siqi Liu
ZTZi-Rong Tang
Zi-Rong Tang
YSYugang Sun
Yugang Sun
Juan Carlos Colmenares QuinteroJuan Carlos Colmenares Quintero
Juan Carlos Colmenares Quintero
YXYi-Jun Xu
Yi-Jun Xu
The severe consequences of fossil fuel consumption have resulted in a need for alternative sustainable sources of energy. Conversion and storage of solar energy via a renewable method, such as photocatalysis, holds great promise as such an alternative. One-dimensional (1D) nanostructures have gained attention in solar energy conversion because they have a long axis to absorb incident sunlight yet a short radial distance for separation of photogenerated charge carriers. In particular, well-ordered spatially high dimensional architectures based on 1D nanostructures with well-defined facets or anisotropic shapes offer an exciting opportunity for bridging the gap between 1D nanostructures and the micro and macro world, providing a platform for integration of nanostructures on a larger and more manageable scale into high-performance solar energy conversion applications. In this review, we focus on the progress of photocatalytic solar energy conversion over controlled one-dimension-based spatially ordered architecture hybrids. Assembly and classification of these novel architectures are summarized, and we discuss the opportunity and future direction of integration of 1D materials into high-dimensional, spatially organized architectures, with a perspective toward improved collective performance in various artificial photoredox applications.

30 October 2015 in Green Chemistry
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SLShao-Hai Li
Shao-Hai Li
SLSiqi Liu
Siqi Liu
Juan Carlos Colmenares QuinteroJuan Carlos Colmenares Quintero
Juan Carlos Colmenares Quintero
YXYi-Jun Xu
Yi-Jun Xu
The depletion of the Earth's fossil fuel reserves and the rapid increase in the emission of greenhouse gases and other environmental pollutants are driving the development of renewable energy technologies. Lignin is one of the three main subcomponents of lignocellulosic biomass in terrestrial ecosystems and makes up nearly 30% of the organic carbon sequestered in the biosphere. As a result of its rich content of aromatic carbon, lignin has the potential to be decomposed to yield valuable chemicals and alternatives to fossil fuels. However, the complex and stable chemical bonds of lignin make the depolymerization of lignin a difficult challenge with regard to its valorization. In this review, we highlight recent advances in the selective decomposition of lignin-based compounds via photocatalysis into other value-added chemicals and the treatment of waste water containing lignin. The photocatalytic transformation of lignin under mild conditions is particularly promising.

1 June 2006 in Applied Catalysis A: General
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Juan Carlos Colmenares QuinteroJuan Carlos Colmenares Quintero
Juan Carlos Colmenares Quintero
MAM.A. Aramendía
M.A. Aramendía
Alberto MarinasAlberto Marinas
Alberto Marinas
JMJ.M. Marinas
J.M. Marinas
Francisco J. URBANOFrancisco J. URBANO
Francisco J. URBANO

8 March 2020 in ACS Sustainable Chemistry & Engineering
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AKAyesha Khan
Ayesha Khan
MGMichael Goepel
Michael Goepel
Juan Carlos Colmenares QuinteroJuan Carlos Colmenares Quintero
Juan Carlos Colmenares Quintero
Roger GläserRoger Gläser
Roger Gläser
Chitosan-derived N-doped carbon materials are attractive candidates for the preparation of catalysts with a wide range of applications. Chitosan is a nitrogen rich (~7 wt.%) renewable biomass resource derived from sea-food waste. Nitrogen-containing functional groups (amine and acetamide) of chitosan make it a suitable precursor for the synthesis of N-doped carbon materials. This perspective provides an overview on various techniques for the preparation and characterization of chitosan-based N-doped carbon materials and their application in the field of electrocatalysis and photocatalysis. Additional doping with nitrogen imparts greater electrochemical stability and basic character to the material due to the ability of nitrogen atoms to accept electrons. Nevertheless, each type of C-N bonding configuration has unique potential for catalytic reactions attributed to different electronic structure and catalytically active sites. The ability to acquire desired N-bonding states during the process of doping will provide a better control over the material application. The promising performance of chitosan-based N-doped carbon materials in electrocatalytic and photocatalytic reactions is attributed to their improved electronic structure and charge transfer properties. Moreover, research trends towards the design of chitosan-based N-doped carbons materials with required features for electrocatalytic and photocatalytic applications have also been identified.