Environmental Monitoring Market to Expand to USD 26.7 billion by 2025 With Major Players : 3M; Agilent Technologies & Danaher Corporation
The global environmental monitoring market size is expected to reach USD 26.7 billion by 2025 at a CAGR of 9.5% over the next forecast period. Growing rate of pollution levels, supportive regulatory and political scenario, and increasing awareness regarding pollution monitoring is anticipated to drive the market through 2025. Furthermore, adoption and implementation of environment-friendly practices in industrial operations is expected to play a pivotal role in the deployment of environmental monitoring systems worldwide.
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Rise in funding for environmental monitoring and pollution control initiatives by multilateral bodies and government institutions is also a key market driver. The Green Climate Fund (GCF) is one such financial initiative under the United Nations Framework Convention on Climate Change (UNFCC) to assist developing countries in adoption, adaptation, and mitigation initiatives to counter climate change. GCF has pledged to set up a goal of raising $100 billion a year by 2020. Multilateral and institutional funding on similar lines is likely to promote the market for environmental monitoring systems.
In terms of connectivity and communication technology, there has been significant development in cellular and non-cellular communications such as Bluetooth, ZigBee, and NB-IoTs, which has enabled users to deploy their systems indoor as well as at remote locations. Moreover, emerging technologies such as Artificial Intelligence (AI), Machine Learning (ML), and big data analytics is expected to prove beneficial in the deployment of environmental sensors to achieve consistency, accuracy, and efficiency.
Use of AI in Early Warning Systems (EWS) to identify the onset of critical situations has been implemented and proved efficient in the UrbanFlood Project. The project was funded under EU's 7th Framework Programme in 2009 to investigate the use of sensors within flood embankments to support EWS. The future prospects of environmental monitoring seems to be promising with technological advancements leading to the creation of intelligent or smart environmental monitoring systems.
North America dominated the market in 2018 owing to stringent and well-established pollution control laws and regulations by the U.S. Environmental Protection Agency (EPA) and Canada's Canadian Environmental Assessment Agency (CEAA). Asia Pacific, on the other hand, is expected to emerge as the fastest-growing regional market owing to increasing focus of countries such as India and China to curb pollution pro-actively. 'China's National Clean Air Action Plan' and India's similar initiative 'National Clean Air Mission' are notable initiatives, which is likely to boost the market.
Further key findings from the report suggest:
• Based on component, particulate matter monitoring systems are expected to witness the fastest growth owing to increasing health problems caused by exposure to particulate matter (PM) and strict regulatory steps to mitigate particulate pollution initiated by governments worldwide
• By product, the monitor segment accounted for the largest share in 2018 owing to emerging sensing techniques, miniaturization of sensors, affordability, and easy integration with Internet of Everything (IoE)
• On the basis of application, air pollution is likely to witness the fastest growth owing to rising air pollution worldwide and constructive initiatives taken to curb it. According to WHO, around 7 million people die every year due to exposure to fine particle matters, which lead to diseases such as lung cancer, stroke, heart disease, and chronic obstructive pulmonary disease
• By way of sampling method, continuous monitoring systems will exhibit the highest CAGR during the forecast period owing to proliferation of IoT devices and its increasing connectivity with devices, applications, and people to monitor and take decisions seamlessly
• Some of the major players include in environmental monitoring market are 3M; Agilent Technologies; Danaher Corporation; Emerson Electric; General Electric Company; Honeywell International Inc.; Horiba, Ltd.; Siemens; Teledyne Technologies Inc.; and Thermo Fisher Scientific, Inc.
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Assignment #3
Early warning system for Disaster management in
rural area(2015)
Z.N. Khalil Wafi , Mohd Fareq Abd.Malek,
Sateaa Hikmat alnajjar, R.Badlishah Ahmad
"The stakeholder of ICT
Information & Communication Technology is facing
problems and challenges in identifying the necessary
requirements for the proper design of communications
in rural areas, the need of early alarm system in these
area has been increase to reduce the gab of
communication problems, scientists and engineers start
to do researches to cover the problem by using new
communication methods to ensure the connection with
people in rural area especially during disasters such as
floods, fires, storms and other disasters [3]"
My study relates about giving the information in rural areas
by giving information to the people in this areas through radio
or sending sms warning for the upcoming disaster.
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Earthquake Early Warning System by IOT using
Wireless Sensor Networks(2016)
Alphonsa A.,Ravi G.
"In this paper, we propose an earthquake early warning system by means
of an IOT in WSN. The sensors are placed in the surface of the earth. When
an earthquake occurs, both compression P wave and transverse S
wave radiates outward the epicenter of the earth. The P wave,
which travels fastest, trips the sensors, placed in the landscape. It
causes early alert signals to be transfer ahead, giving humans and
automated electronic system a warning to take precautionary
actions. So that before the damage begins with the arrival of the
slower but stronger S waves, the public are warned earlier.[4]"
In this study the case is the prediction in earthquake disaster, a warning
system by IOT using WSN. My study is also related to my study that
when the system detects a earth motion in the ground using a seismometer,
the system then give the information annd providing an early warning
before the earthquake arrive in the region.
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A Development and Execution Environment for
Early Warning Systems for Natural Disasters(2015)
Bartosz Balis, Tomasz Bartynski, Marian Bubak,
Grzegorz Dyk, Tomasz Gubala and Marek Kasztelnik
"Early Warning Systems (EWS) may become a powerful
tool for mitigating the negative impact of natural disasters,
especially when combined with advanced IT solutions – such as
on-demand scenario simulations, semi-automatic impact assessment,
or real-time analysis of measurements from in-situ sensors.
However, such complex systems require a proper computing
environment supporting their development and operation. We
propose the Common Information Space (CIS), a software framework
facilitating design, deployment and execution of early warning
systems based on real-time monitoring of natural phenomena
and computationally intensive, time-critical computations.[5]"
Their study have a function in monitoring the natural phenomenon
and time-critical computations, and give predictions for natural
disaster to occur in the specific place, it correlates in my study
in terms of warning systems giving the awareness and preparedness
for the people.
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A Self Adaptive Telemetry Station for
Flash Flood EarlyWarning Systems(2017)
Autanan Wannachai, Paskorn Champrasert, Somrawee Aramkul
"This paper proposed a self adaptive telemetry station, SATS,
that can automatically adjust its operation mode to the environmental
conditions.An automatic environmental condition learning and
evaluation mechanism, Auto-ELE, is also proposed in this paper.[6]"
This system also helps for flash flood disaster, it has significance to
my study for it is both warning systems although this study is unique
for it is using a self adaptive telemetry station, my study focuses
on alarming and sending warning alarms to the resident.
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EARTHQUAKE EARLY WARNING SYSTEM USING REAL-TIIME
SIGNAL PROCESSING(2002)
Richard R. Leach Jr., Farid U. Dowla
"The warning system is designed to analyze the first-arrival from the three
components of an earthquake signal and instantaneously provide a profile of
impending ground motion, in as little as 0.3 sec after first ground motion
is felt at the sensors. For each new data sample, at a rate of 25 samples
per second, the complete profile of the earthquake is updated.[7]"
Just like the other warning systems, its relates to my study for it gives an
accurate and informative warning to mitigate catastrophic ground motion and
to give an early warning the people and be prepared for the disaster to occur.
RRL
Early Warning System for Disaster by IOT using broadcasting.
Disaster is a big problem to the society and most of them are natural disaster
which cannot be stopped, but can be predicted by the help of warning systems. Some
of these systems are used in different kinds of disaster like hurricanes, tsuanmi, earthquakes
these natural disaster can be predicted to prevent and reduce the damage of the disaster when
it happens.Most current natural disaster warning systems are based on
remote sensors that depend on certain characteristics of natural
disasters[1]. There are some research project takes root
in the making of a system of monitoring for early warning
systems that generates a Transport Stream (TS) signals with
the Emergency Warning Broadcast System (EWBS) code [2].In this cases, a Warning system composing
of different sensors that predicts every different disaster in their specific characteristic
behaviour will be a big help, and also using Emergency Warning Broadcast
System(EWBS) and Transport Stream(TS) for alarming the residents in the place where the
disaster takes place. This system will be helpfull not just to monitor the disaster and alsp giving
the alarm to the people and to prevent life loss and great destruction of the society.
REFERENCES
[1] B.c. Ko, H.J. Hwang, and J.Y. Nam, "Nonparametric membership
functions and fuzzy logic for vision sensor-based flame detection,"
Journal of Optical Engineering, vol. 49, pp.2-11, 23, 2010
[2] ARIB STANDARD, Service Information for Digital Broadcasting System,
Version 4.6, 2008.
[3] Shibata, Y.; Sato, Y.; Ogasawara, N.; Chiba, G.; “A Disaster Information System by Ballooned Wireless Adhoc Network “,Complex, Intelligent and Software Intensive Systems, 2009. CISIS '09. International Conference on 16-19 March 2009, P 299 - 304 Fukuoka ,ISBN: 978-1-4244-3569-2 , Accession Number: 10702165
[4] Poslad S, Middleton S.E., Chaves F., Ran Tao Necmioglu O and Bugel U., “A Semantic IOT Early Warning System for Natural Environment Crisis Management”, IEEE Transaction on Emerging in Computing, vol. 3, Issue 6, pp. 246-257, 2015.
[5] B. Balis, M. Kasztelnik, M. Bubak, T. Bartynski, T. Gubała,P. Nowakowski, and J. Broekhuijsen, “The UrbanFlood Common Information Space for Early Warning Systems,” Procedia Computer Science,vol. 4, pp. 96–105, 2011, proceedings of the International Conference on Computational Science, ICCS 2011.
[6] M. Castillo-Effer, D. H. Quintela, W. Moreno, R. Jordan, and W. Westhoff. Wireless sensor networks for flash-flood alerting. In Devices, Circuits and Systems, 2004. Proceedings of the Fifth IEEE International Caracas Conference on, volume 1, pages 142–146. IEEE, 2004.
[7] Anderson, J. G., and Q. Chen (1995). Beginnings of Earthquakes in the Mexican Subduction Zone on Strong-Motion Accelerograms. Bull. Seism. Soc. Am. 85,1 107-1 11 5.
0 notes