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1. Real-Time IT Systems for Disaster Risk Reduction
an open hardware project
2nd OpenWater symposium and
workshops
Brussel, September 16-17, 2013
Fedi A., Ferrari D.,Lima M., Pintus F., Versace C. and Boni G.
2. Real-Time IT Systems for Disaster Risk Reduction
Layout
Introduction
Acronet Paradigm
Configurations
Some applications:
Milano Municipality
SMUPIS Project
EMMA Project
Enhancing Resilience in the Caribbean Project
Conclusions
3. Real-Time IT Systems for Disaster Risk Reduction
INTRODUCTION
For the monitoring of hydrometeorological
variables, and more generally, for decision
support systems, the instrumental in-situ
measurement is crucial.
Referring to professional
micrometeorological stations, there is a
problem represented by the high costs of
measures.
The high cost can be substantially related to
the quality of the materials, to the array of
industrial production processes and to the
costs of skilled workers, needed for the
installation and for the maintenance of the
equipment.
4. Real-Time IT Systems for Disaster Risk Reduction
Up to 20-30 K€ each,
10-15 % more
Every year for
maintainance
Always tied to proprietary
systems and protocols
5. Real-Time IT Systems for Disaster Risk Reduction
With "ACRONET Paradigm" we
propose a new model of
production, distribution, in-the-
field installation of Measuring
Systems connected through
Knowledge Networks, based on
recent concepts of "Open
Hardware”*.
* Acccording to the International vocabulary of
metrology — basic and general concepts and
associated terms (3 ed.). Joint Committee on Guides
for Metrology (JCGM). 2008.
(http://www.bipm.org/utils/common/documents/jcgm/J
CGM_200_2008.pdf)
7. Real-Time IT Systems for Disaster Risk Reduction
Real-Time IT Systems for Disaster Risk Reduction
by the end user
8. Real-Time IT Systems for Disaster Risk Reduction
Real-Time IT Systems for Disaster Risk Reduction
This should not be obtained at the expense of measurement accuracy
and quality and durability of materials.
This can be obtained focusing on
• ease of maintenance and installation
• making economies of scale and supplying directly on the market of the
hardware components.
LOWER
COST
LOW
QUALITY
LOWER is the
final unit price of the measure
only!
10. Real-Time IT Systems for Disaster Risk Reduction
Components Assembling
Shared design, implementation and
testing of suitable modular elements to
be used for the construction of measuring
instruments, through the simple
assembly of commercial parts readily
available on the market.
12. Real-Time IT Systems for Disaster Risk Reduction
Software Modules
The design and development of the
firmware for the control of modular
elements and the software to control the
measures and the flow of information
between elements adopting open
source requirements.
13. Real-Time IT Systems for Disaster Risk Reduction
Open Hardware
Free Publication of the design schemes of the
modular elements that compose the measuring
instruments, according to the "open hardware"
standards. Creation of a community of
developers for the hardware.
Licenses
Creative Commons + EUPL (firmware) + trademark (Italy)
http://www.oshwa.org
14. Real-Time IT Systems for Disaster Risk Reduction
Real-Time IT Systems for Disaster Risk Reduction
15. Real-Time IT Systems for Disaster Risk Reduction
ACRONETWORK Infrastructure
Implementation and maintenance of a
technical infrastructure for the remote
control and connection of ACRONET
instruments made through
“environmental knowledge” networks
(e.g. web based GIS).
The network allows the management of
users’ communities and the geographic
contextualization of data.
16. Real-Time IT Systems for Disaster Risk Reduction
Accuracy
The ACRONET modular elements allow the
continuous monitoring and suitable
quantification of the physical
consistency and accuracy of
measurements, by using appropriate
self-diagnosis and intrinsic validation
techniques.
This differs from the usual practice that
guarantees only (and not always) the
precision of the instrument, after lab
tests, and the compliance with standards
of production.
17. Real-Time IT Systems for Disaster Risk Reduction
Real-Time IT Systems for Disaster Risk Reduction
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18. Real-Time IT Systems for Disaster Risk Reduction
Real-Time IT Systems for Disaster Risk Reduction
21. Real-Time IT Systems for Disaster Risk Reduction
Projects
In the following, some of the projects
involving ACRONET hardware we are
working on
22. Real-Time IT Systems for Disaster Risk Reduction
Measurement of snow depth
Activation of snowplows operators
(managed by external companies)
A posteriori Evaluation of actual costs
Municipality needs:
manage owned data to evaluate in house
the situation (both in real and deferred
time)
23. Real-Time IT Systems for Disaster Risk Reduction
Snow gage
Snow depth sensor with centimetre precision using
commercial components (ultrasonic sensor of distance)
and electronics for signal conditioning
25. Real-Time IT Systems for Disaster Risk Reduction
SMUPIS – POR Italian Project
financed by Regione Liguria (IT)
aimed to the evaluation of soil
moisture in order to include its
measurements into wildfire risk
models
Use of OPEN SOURCE
(ACRONET®) instruments to
perform the monitoring campaign
on three sites
26. Real-Time IT Systems for Disaster Risk Reduction
Sensor of Volumetric
Water Content
(commercial) linked to
ACROSTATION board
The project will develop
a new sensor to measure
the humidity of the
DEADWOOD by using a
new ACRONET sensor
27. Real-Time IT Systems for Disaster Risk Reduction
Early warning system for air quality
adopting ACRONET® components
Allows monitoring of contaminants of
interest and the determination of a
synthetic index of air quality (AQI)
It furnishes forecasts (short time) of
the AQI
CIMA-ACROTEC Pilot project (self financed)
The developed sensor will be adopted by La Spezia (IT) port
authority to quantify the contribution of the port activities to
air pollution in the nearby city.
28. Real-Time IT Systems for Disaster Risk Reduction
Air quality
Realization of a complete station with 3 sensors for the
measurement of concentrations of pollutants in the air
(Nitrogen Oxides / Carbon Monoxide, Ozone and
PM10) and ad-hoc electronic parts.
Principles of Operation sensors:
NO2/CO, O3 - sensors made of metal oxides, semiconductors (
variation of the resistance)
PM10: measuring the variation of light intensity due to the
scattering induced by the presence of particulate
29. Real-Time IT Systems for Disaster Risk Reduction
Problem: monitoring of
meteorological variables
during the hurricanes season
Solution: ACRONET Rural
Board and third party
instruments
(anemometer, rain
gauge, thermometer)
30. Real-Time IT Systems for Disaster Risk Reduction
NESA PL 400
High precision Rain Gauge Sensor
Surface area 400cm2
Measure with stainless steel tilting bucket
Compact and light design in aluminium
WMO standards compliant
able to measure up to 300mm/h
SUTRON TIPPING BUCKET RAIN GAUGE
STAINLESS STEEL
Orifice Size: Ø 7.87 in. (20 cm)
Surface area 314cm2
WMO standards compliant
Rugged Magnetic Proximity Switch
31. Real-Time IT Systems for Disaster Risk Reduction
Data
Collector
at national
Met-Service
SFTP
(Internet)
GSM/
GPRS
DEWETRA
AWS
Database
GSM/
GPRS
GSM/
GPRS
GSM/
GPRS
GSM/
GPRS
GSM/
GPRS
GPRS
32. Real-Time IT Systems for Disaster Risk Reduction
Real-Time IT Systems for Disaster Risk Reduction
Due to its characteristics of "economy"
and "openness", just like open source
software, the paradigm can still find a
significant development in niche areas
in industrialized countries.
The model aims to be ethically
sustainable, adoptable without large initial
investments, and manageable in total
autonomy, even in countries with emerging
economies.
33. Real-Time IT Systems for Disaster Risk Reduction
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Notas del editor
A further problem in the development of the sector is represented by "closed" products which, for structural layouts, data management and communications, are almost always referred to as "proprietary protocols", which push the customer to a perpetual and non-negotiable "loyalty" to the supplier.High costs, not only for the “hardware” (the instruments) but also for services and maintenance
The sustainability and the low unit cost of the measure should not be obtained at the expense of measurement accuracy and quality and durability of materials.Low cost can be obtained focusing on ease of maintenance and installation, allowing the use the local labor force, even with low skills, but with high capacity and speed of in-situ intervention and making economies of scale and supplying directly on the market of the hardware components.to achieve these objectives, the model includes ....
Thisshouldnot be obtainedat the expense of measurementaccuracy and quality and durability of materials.This can be obtainedfocusing on ease of maintenance and installation, allowing the use the locallabor force, even with lowskills, but with high capacity and speed of in-situ intervention and makingeconomies of scale and supplyingdirectly on the market of the hardware components.
In addition to the ACRONET modular elements, each control unit may include any kind of third-party sensors, solar panels, etc.
Self consistenttests to identificate biases in the measurements
Analog test: each ACRONET board is equipped with an independent circuit through which, via the control interface of the measuring chain (ACRONETWORK) a known pulse can be sent and the actual instrumental response verified. This is to verify the proper operation of the signal conditioning. An automatic system allows to perform these tasks on a regular basis and alert the user if the instrumental response is manifestly incorrect.Differential test: The control refers to the measure of the same variable realized simultaneously with two sensors belonging to different technologies. Greater precision devices with lower measurement frequency can be associated to the primary (master) sensor as control (slave) sensors. The routine work is done in normal conditions by the master sensor.Crosschecking: suitablycombiningmeasures of differentvariables in the sameconfiguration (some possiblyintroduced for the purpose), some routines on-board the ACRONET module, can verify the correlation of the differentmeasuredvariables over time (eg solar radiation vs air temperature) allowing to monitor the quality of the measurementcomparinganydeviations from the physicallyreasonablevalue of the corelation.
In particular in each ACROSTATION unit the basic andsignalconditioningelectronics for eachsensor are physicallydisconnectedIn thisregardthereis a motherboard ACROBOARD equipped with a definednumber of universalconnectors, and a board for signalconditioning for eachtype of sensorimplemented.The opening of the systemallowsanyone to create new “conditioning” boards for anysensorsnotoriginallyplanned, providedthatitiscompliant with the standard connectorsystemadopted by ACRONET.Consequently must be made firmware and software for the control of the new configuration.The bus systemisadopted for the transfer of the signal, both the data flow afterconditioning, allows the proliferation of the number of sensorsconnected to eachunit, with the onlylimitenergyconsumptionthatthesedevicesrequire the power.