Presentación de Ana Sánchez Montero (Instituto de Agricultura Sostenible - CSIC) sobre el proyecto SHui como caso de éxito - SC2 H2020.
Jornada informativa organizada el 10 de octubre de 2019 sobre las convocatorias 2020 del Reto 2 en el marco de Horizonte 2020. El evento, celebrado en la Universidad de Córdoba, fue organizado por la Agencia Andaluza del Conocimiento en colaboración con CDTI, Red OTRI Andalucía, la UCO, el CeiA3
Sujeción e inmobilización de perros y gatos (1).pdf
Proyecto SHui
1. Dr. José A. Gómez, Ana Sánchez Montero
Córdoba, 10 Octubre 2019
1
SHui Project
La experiencia de su preparación y pasos
iniciales.
2. Contar nuestra experiencia por si puede ser de
ayuda.
Objetivo
1- Pasos dados desde que leímos el
call.
2- Descripción proyecto.
3- Algunas reflexiones.
Estructura
2
3. 3
Call
Comenzamos a hablar entre un grupo pequeño de
socios a principios de Octubre 2016 aunque BOKU
estaba pendiente.
9. 9
Concepto
Plataforma de estudios experimentales a largo plazo y
a partir de ahí tratar de complementar el consorcio
para cubrir todo lo que pedía la propuesta.
En realidad a estas alturas permanecía bastante
difuso.
Decidimos durante estos meses quien lideraba.
Clave: Compromiso real de varios socios, en especial
dos (ULANC, CVTU) para todo.
10. 10
SHui: Soil Hydrology research
platformunderpinning innovation
to manage
water scarcity in European and
Chinese cropping systems
Concepto
18. PROJECT COORDINATED VISION
THROUGH WPs
WP1: Platformof
agro-system
observatories.
WP2: Hydrology
and crop
modelling.
WP3: Satellite
data assimilation
for integrated soil
& water manag.
WP4:
Development
technological
packages for
integrated water
manag.
WP5:
Socieconomic
and
environmental
implications for
policy planning.
WP6:
Stakeholders
engagement,
dissemination,
communication &
capacity build.
WP7: Overall
project
coordination
and manag.
19. Comentarios
1- No apurar los plazos tanto como nosotros. En
especial para ponerse en marcha.
2- Aspectos que creo clave en nuestro caso:
a) Núcleo del consorcio que se conoce bien y
trabaja en equipo (2-4 ha sido suficiente).
b) Tener un concepto claro desde el
principio. Evitar cambios continuos.
19
20. Comentarios
c) Buscar ayuda experimentada para la
preparación.
d) Tratar de responder (mejor o peor) a todo
lo que pide el call.
e) Todo lo que se dedique a mejorar la
edición es poco. Socios británicos.
f) Dirigir, reducir estrategia a un núcleo
pequeño de 2-3 personas.
20
21. 4- Tratamos de evitar quemarnos:
a) Una oportunidad de establecer y mejorar
redes (esp. China) y aprender.
b) Minimizar el parón en nuestras
actividades.
c) Dejar claro a socios que si lideraba
necesitaba ayuda de verdad y especificar cual.
Comentarios
21
3- Recordar que hay un punto de azar.
23. WP1
WP1: Platformof agro-
system observatories.
1- Develop an open-data platform for sharing
long-term agricultural experimental data aimed
at optimizing yield and soil and water use
.
2- Compile and provide basic data
benchmarking water use and impacts on agro-
ecosystemservices
for specific crops and environments
3- Validate experimentally integrated best
management practices developed by WP4.
Leaders: Andreas Klik (BOKU, Austria) &
Xingmin Mu (Northwest A&F University,
Yangling).
1- Cereal based rotations.
2- Tree crops (irrigated, rainfed)
such as olives, citrus, vines...
3- Other crop such as : rice,
horticultural crops
24. WP2
WP2: Hydrology and
crop modelling.
1- To improve, calibrate and validate the AquaCrop model to:
- simulate crop yield response to variable water supply
in the different SHui environments.
- integrate soil physical properties and soil fertility to more
realistically simulate actual crop performance.
- capture the impact of different management strategies on
water limited productivity
- link with SHui hydrologic models to scale point simulations up
to farm & regional analyses of crop responses to water scarcity
2- To develop a hybrid-type model to simulate yield responses
of tree crops to variable water supply
Leaders: Leaders:WP2.1. Elias
Fereres (UCO, Spain) & Qiang Zuo
(China Agricultural University) .
WP2.2: Tomas Dostal (CVUT, Czech
R.) & Honghu Liu (Changiang River
3- Calibrate current generation of selected hydrological, erosion
models at plot and field scale for soil-water interaction and
processes, hydrological balance, soil degradation & water quality
description.
4- Performing large catchment analyses including crop yield
scenarios using conceptual upscaling based on GIS platform.
5- Coordinating exploratory analyses of fully coupled hydrologic
& crop models that link variability of soil properties
(related to water availability) to yield at field scale.
25. WP3
WP3: Satellite data
assimilation for
integrated soil & water
management.
1- To obtain optimal estimates of soil moisture and
vegetation, along with all other geophysical land surface
variables, by integrating satellite-based microwave remote
sensing data into a coupled land surface-crop model at
the regional scale
2- To quantify the effect of soil properties on the simulation
of soil and crop responses at the regional scale
3- To optimize crop production and limit soil loss via
irrigation and climate scenario analyses at the regional
scale
Leaders: Gabrielle De Lannoy (KU
Leuven, Belgium) & Suang Liu
(Beijing Normal University).
26. WP4
WP4: Development
technological
packages for
integrated water
management
1- To link temporal and spatial data including
basic soil and crop information, & results of
remote and proximal sensing of soil and plants,
to farm and region decision making by
integrating knowledge & interpreting data/model
outputs from WPs1-3, 5
2 -To build decision support algorithms (DSAs)
based on crop-specific objective functions,
socio-economic realities and goals,
environmental parameters and accessible data
acquisition
3- Converting DSAs into practical applications
for end users.
Leaders: Alon Ben -Gal (ARO, Israel)
& J ianhua Zhang (Hong Kong Baptist
University).
27. WP5
WP5: Socieconomic
and environmental
implications for policy
planning.
1- Evaluate and construct an adapted cost-
benefit analysis of best management on-farm
strategies developed within the project.
2- Develop an efficient strategic framework for
regional and local allocation of soil and water
resources under specific cropping systems
including the impact on selected ecosystem
services and changing scenarios of climate
change and land use changes
3Analyse and assess environmental
performance of best management practices via
water and carbon footprints
4 Coordinate and disseminate economic
analyses for policy makers and land users using
participatory approaches.
Leaders: Holger Bergmann (U.
Göttingen, Germany) & Funing Zhong
(Nanjing Agricultural University).
28. WP6
WP6: Stakeholders
engagement,
dissemination,
communication &
capacity building
1- Deliver the project website in both English
and Chinese. Coordinate communications,
database integration and technology transfer.
2- Coordinate engagement with local
stakeholder groups, particularly farmers, and
citizens for dissemination. Assist commercial
partners to facilitate technology adoption in
cooperation with WP4
3- Train early career scientists in applying
technologies that enhance the productive use of
water in agriculture (since each partner has
specific expertise, but not necessarily in all
disciplines)
4- Deliver research via communications/
publications to end users.
Leaders: Ian Dodd (U. Lancaster,
U.K.) & Zhi-Qiang Zhang (Beijing
Forestry University)
29. WP7
WP7: Overall
project
coordination
and
management
.
1- To facilitate all administrative duties and
communication across partners. Let everyone
concentrate in their tasks.
2- Early identification of arising problems
working to address themwith partners and
external advisory board.
3- Help partners to fully exploit the project
potential particularly for stakeholders (e.g. WP1,
WP6, …)
4- Keep the focus in delivering our
compromises (DLs) timely.
Leaders: J osé A. Gómez (CSIC,
Spain) & Weifeng Xu (Fujian
Agriculture and Forestry University).