Jean-Marc Choubert

Dr. Jean-Marc Choubert


Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

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

Representative Publications

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1 May 2009 in Environmental Pollution
Verified
Journal Article
Closed access
CMC. Miège
C. Miège
JCJean-Marc Choubert
Jean-Marc Choubert
LRL. Ribeiro
L. Ribeiro
MEM. Eusèbe
M. Eusèbe
MCM. Coquery
M. Coquery

1 January 2013 in Science of The Total Environment
Verified
Journal Article
Closed access
MPM. Pomiès
M. Pomiès
JCJean-Marc Choubert
Jean-Marc Choubert
CWC. Wisniewski
C. Wisniewski
MCM. Coquery
M. Coquery

1 September 2010 in Science of The Total Environment
Verified
Journal Article
Closed access
VGV. Gabet-Giraud
V. Gabet-Giraud
CMC. Miège
C. Miège
JCJean-Marc Choubert
Jean-Marc Choubert
SRS. Martin Ruel
S. Martin Ruel
MCM. Coquery
M. Coquery

1 January 2008 in Water Science & Technology
Verified
Journal Article
Closed access
PDF file
CMC. Miège
C. Miège
JCJean-Marc Choubert
Jean-Marc Choubert
LRL. Ribeiro
L. Ribeiro
MEM. Eusèbe
M. Eusèbe
MCM. Coquery
M. Coquery
We created a database in order to quantitatively assess the occurrence and removal efficiency of PPCPs in WWTPs. From 113 scientific publications, we compiled 5887 data on the concentrations and loads of PPCPs in WWTP influents and effluents, and on their removal efficiency. The first outputs of our database include: (1) a list of the most frequently studied molecules, their frequency of detection, their mean concentration and removal in liquid influent and effluent; (2) a comparison of the removal efficiency for different WWTP processes; (3) a study of the influence of the operating conditions (sludge and hydraulic retention times).

1 January 2021 in Chemosphere
Verified
Journal Article
Closed access
BMB. Mathon
B. Mathon
MCM. Coquery
M. Coquery
ZLZ. Liu
Z. Liu
YPY. Penru
Y. Penru
AGA. Guillon
A. Guillon
JCJean-Marc Choubert
Jean-Marc Choubert

24 August 2021 in Waste and Biomass Valorization
Verified
Journal Article
Open access
PDF file
BBBenedicte BAKAN
Benedicte BAKAN
NBNicolas Bernet
Nicolas Bernet
THEODORE BOUCHEZTHEODORE BOUCHEZ
THEODORE BOUCHEZ
RBRachel Boutrou
Rachel Boutrou
JCJean-Marc Choubert
Jean-Marc Choubert
ATAnne Tremier
Anne Tremier
To move today’s agricultural and urban systems towards tomorrow’s circular economy and respond to climate change, it is imperative to turn organic residues and wastewater into resourceful assets. This article discusses the changes that are needed in research to drive this paradigm shift and to go from a “losses and waste” situation to a “resource and opportunities” ambition. The current lines of research aim to maximise the use and value of biomass or organic residues and wastewater and propose new organisational schemes driven by technical innovations. Exploring the pathways to a sustainable future through many domains let us identify five challenges to structure the research efforts and find circular bioeconomy solutions for organic residues and wastewater: (1) proposing innovative processes and integrated multi-process systems; (2) promoting the emergence of multi-scale and cross-sectoral organisations; (3) developing multi-performance evaluation methods, (4) rethinking research–society intersections, and (5) enhancing research–legislation interactions. We end by outlining prospects for moving forward past current limitations: beyond increasing knowledge, research will continue its own transition. Our responsibility today is not to think about what we could do for a better world but what we should do to make our ever-changing world even better and more sustainable. Graphic Abstract