Showing posts with label Internet of Things. Show all posts
Showing posts with label Internet of Things. Show all posts

Tuesday, February 19, 2019

Teralytic || LoRAWAN Based Smart Farming

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Main Issue : Lack of soil data during growing season lowers yields and profits, and harms the environment. 



Farmers don’t have real-time visibility into soil conditions as they’re working their fields. Without that visibility, farmers often over-or under-fertilize, harming profits and/or the environment.
Traditional soil samples and lab techniques take days to weeks to get results back, are expensive to obtain, and as a result, problems manifest in the plant before results are returned.
 

 Solution:Teralytics

Get the most detailed soil quality data available, via a single probe with 26 sensors reporting soil moisture, salinity, and NPK at three different depths, as well as aeration, respiration, air temperature, light, and humidity.

No wires. Nothing to catch or snag. Easy to install and built to stand up to the wear and tear of your farm.


Key Features:
1. These probes collect data from your soils and send wirelessly via LoRaWAN, a long-distance network that transmits sensor data up to 10 miles away.

2. Wireless LoRaWAN gateways aggregate all probe data and send it to the cloud in a secure, continuous, live stream.

3. In cloud, we run analytics on your data based on soil conditions compiled by governments, universities, and the unique criteria from your farm.

4. Report back to you with real-time and predictive insights using readable charts - and you use the insight on your farm.

5.Send Sensor data to Teralytic Cloud via Cellular, WiFi, or Ethernet

Measure Soil electrical conductivity, moisture, pH, Nitrates, Phosphates, Potassium, and temperature at 3 different depths. Sample every 15 minutes

  • Microclimate (Surface) :Air Temperature, Humidity, Light
  • Soil Sensors : Soil Moisture, Salinity, Soil Temperature, pH, Nitrate, Potassium, Phosphorus
  • Gas Sensors 18in / 6in Depths: Aeration (O2), Respiration (CO2)


Sensor Arrays Available for 3 Depths


6, 18 and 36 inches / 15, 45, and 90 cm give a stratified view of soils


 

 Analytics:

Terascore is best-in-class metric that analyzes hundreds of data points from your farm and industry statistics to summarize what you need to know about your soil health.

Terascore is crop- and soil-type specific, so it is customized based on the unique profile of your farm.




If you prefer a more detailed breakdown - thye have that too.

Easily track how inputs affect your soil conditions and view historic averages reported for each sensor, at each depth.


Pricing :

As per website, they are sold out of Teralytic probes for Spring 2019 shipment–all new pre-orders will receive shipments in Fall 2019.


Teralytic SAAS-Based Business Model

Soil Sensors as a Service: Teralytic charges up front per sensor plus a yearly subscription 
SaaS-based model includes sensors, networking, software and analytics
Crop-based pricing: Crop type determines sensor density between 575 acres, which determines price
Streamlined Onboarding and Ordering: Online tool during onboarding helps with sensor placement and pricing 
  
 

For more information reach: https://teralytic.com/index.html
This article Teralytic || LoRAWAN Based Smart Farming is first time published on IoTVigyan , for any query or suggestion, feel free to reach on iotvigyan@gmail.com.
Reference : Internet
 
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Sunday, January 6, 2019

Sensoterra | Revolutionary Precision Farming using LoRAWAN

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Only 3% of the world’s water is accessible freshwater. Of that, 70% of the freshwater consumed is used in the agricultural industry – the largest consumer of water globally. Monitoring soil moisture levels helps farmers to make effective and smart irrigation decisions. Too much water in the soil leads to waterlogged areas and anpotential for plant illness or death, while too little water will harm crop growth.

Here is the Solution !!

Sensoterra: more crop per drop. Making it easy and affordable to measure soil moisture and produce more food for less. 

Our climate is changing; freshwater supplies are dwindling and droughts, flash floods and failed crops are more and more common. This makes our global food production unstable while our population continues to grow.

Agriculture consumes 70% of the world’s water supply to provide food for 7.5 billion people, yet agriculture is far behind when it comes to embracing digital solutions to solve problems of efficiency and quality in the production of food. Less than 1% of all farmers use sensors to understand their crops condition and needs. As a result, almost all farmers over-irrigate their crops by up to 60%, wasting money, precious water and damaging healthy soils.  

That’s where Sensoterra soil moisture measurement system comes in picture. A low cost and user-friendly tool for farmers that will make the agriculture sector more sustainable and efficient. The Sensoterra Multi Depth Probe will lower water use and increase yields in the agriculture sector, bringing agriculture professionals extensive insight into soil condition. 

The Sensoterra mission is to tackle water waste in agriculture and help farmers increase yield and decrease costs. In short; producing more food for less.

Sensoterra is a low-cost, wireless and remote system that offers farmers real-time insight into the soil moisture condition of their crops. Soil is not homogenous – it holds moisture differently in various areas. With low-cost, plug and play probes that can be deployed across a large field in more areas, the
data becomes more valuable and results in smarter irrigation decisions. 
How it Works ?
  

The step-by-step process of Sensoterra’s LoRa-enabled solution

 The company utilizes Semtech LoRa-enabled sensors in its probes and a LoRaWAN™ network that enables the IoT connectivity, Sensoterra primarily focused on the North America and European agriculture markets and has deployed over 4,000 sensors and achieved over 720,000 data points since the product launch in 2016. Sensoterra’s solutions are now being deployed in Australia, South America and other parts of the world. In Dec 2018, IoTVigyan enquired and found that right now Sensoterra's probe do not support Indian LoRAWAN frequency, but if there is attractive business case from India, they can think about the same.

 Current Projects of Sensoterra

USP of Sensoterra

Ease of installation is a key feature of Sensoterra’s soil moisture system. LoRa-enabled multi-depth probe sensors can be installed in a matter of minutes and data is viewable online within an
hour after installation. A free app is available for download and can operate on a laptop, tablet or mobile phone. Users have the ability to manage their installations through an easy to use dashboard and an open API is available for data integration.



Technical Details

Sensoterra probe



  • Economic pricing
  • Two-minute installation 
  • Fully wireless and remote 
  • Lifetime of 3-10 years 
  • Compatible with all soil types 
  • Free Data 
  • Wireless range up to 4 km 
  • Measure at different soil depths
  • Probes retail at USD 110 


The system consists of probes, a solar-powered gateway and the stand-alone cloud-system “SoilWare”. Varying probe lengths (15, 30, 60 and 90 centimeters), allow measurement at different soil depths directly at the root of the plant.

Soil moisture data is sent to the cloud through the gateway, the user can access soil moisture data from any location and at any time.

The Sensoterra SoilWare system provides the farmer insight in real-time soil moisture percentage data per measurement point, per crop and stores all data securely stored in the cloud.  Farmers can compare soil moisture distribution per day, week or even year and access all data through PC, smartphone or tablet.



 How Sensoterra can be market differentiator ?

The soil moisture sensor market is dated and prices are high, ranging between 500-1,000 USD per sensor. As a result, typically only 1 sensor is used in a field covering as much as 50 hectares. Using only 1 data point is a high risk for irrigation management, especially considering differences in soil and crop type.

Boasting completely wireless sensors with the most intuitive UX and user friendly design, our sensors are offered at a fraction of the costs of competition, averaging 110 USD per sensor.

Besides the significantly lower retail price for Sensoterra, virtually every competitor is using a subscription model for data use. Sensoterra provides data for free, and charges no fees for the app or any other hidden cost.

For more information reach:https://www.sensoterra.com/

This article Sensoterra | Revolutionary Precision Farming using LoRAWAN is first time published on IoTVigyan , for any query or suggestion, feel free to reach on iotvigyan@gmail.com.

Reference : Internet










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Sunday, November 11, 2018

ClodPi LoRAWAN Indoor Gateway Integration with ClodPi IoT Portal

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                                                      Figure 1 : Clodpi Indoor Gateway
Specification
Frequency Band: IN865-867
RF Transceiver: Semtech SX LoRa radio module
Number of Channels: 8 concurrent channels
WiFi: 802.11 b/g/n 2.4GHz
WAN Port: One RJ-45 10/100Base-T/TX, Auto-sensing, Auto-MDIX
Transmit RF Power: 0.5W (up to 27 dBm)
Receive Sensitivity: Down to -142 dBm
Modulation: Based on LoRaWAN
USB Port: One USB 2.0 port
Power Supply: 5VDC/2A via mini-USB port
Antenna Type: Built-in Wi-Fi antenna and one (1) external SMA LoRa antenna

Step 1:
•    Power On the Gateway and check for Power LED to Glow
•    Power On the Gateway will initiate the Wi-fi connection of the Gateway for configuration purposes.
•    Identify the Open Wifi connection – Start or end with AP
•    Connect to this Wifi connection , in this case it is AP-F3830D
•    Once connected , open any browser and connect the Gateway configuration panel by accessing the IP address : 192.168.55.1

                                  Figure 2: Access Gateway with standard wifi access
Note: This wifi access is unsecured (with out password), so it is recommended to change or secure the wifi access using wifi encryption.

Step 2:

                                     Figure 3 : Login to Gateway

•    Login to the gateway by given password. Username : admin, password : admin
•    Now go to Packet Forward --> Setting
o    Configure Server Address: bridge.clodpi.io
o    Server Uplink Port: 1700
o    Server Downlink Port: 1700



                           Figure 4 : Configure Server Address and Port for Clodpi IoT platform

•    Copy the Gateway ID , this will require in Cloudpi IoT portal to add the Gateway

Step 3: Adding the Gateway to Clodpi IoT cloud console
•    Access site : https://console.clodpi.io/
•    Signup with your details – email address, password, Name & Organisation Name


                                        Figure 5
•    Login to the site after getting the account confirmation

                              Figure 6


•    Login screen


                            Figure 7
•    Add Gateway : Click left sidebar at Add New Gateway
•    This will take you to the following screen

 
                                         Figure 8

•    Enter Name as you like, Description about your gateway (may be location or project name and MAC Address
o    Kindly note that the mac address need to add “0000” prefix as the mac address given in Clodpi gateway is of only 12 digits but the requirement id of 16 digit .
o    So if your gateway mac is :abcdef123456 , then you need to enter 0000 abcdef123456 in the settings







                                                                   Figure 9

•    Now Check the live frames from Gateway
o    If the color of the dot is RED/MAROON ,means LoRAWAN gateway is still not communicating with Clodpi IoT platform
o    If the color of the dot is BLUE , means LoRAWAN gateway is communicating with Clodpi IoT platform



                                       Figure 10

•    Now check Live frames (wait for few seconds to get the Live data from gateway):





                                       Figure 11

For more information, write us on iotvigyan@gmail.com.
ClodPi Indoor Gateway Integration with ClodPi IoT Portal  is first time published on IoT Vigyan Blog.




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Tuesday, March 13, 2018

Why IoT Projects are getting failed?

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IDC predicts that the worldwide installed base of Internet of Things (IoT) endpoints will grow from 14.9 billion at the end of 2016 to more than 82 billion in 2025[1]. At this rate, the Internet of Things may soon be as indispensable as the Internet itself.

Despite the forward momentum, a new study conducted by Cisco shows that 60 percent of IoT initiatives stall at the Proof of Concept (PoC) stage and only 26 percent of companies have had an IoT initiative that they considered a complete success. Even worse: a third completed projects were not considered a success.

Speaking at Cisco's IoT World Forum in London, chief exec Chuck Robbins said part of the problem was a lack of interest from the top of companies, with leaders failing to "buy in" to IoT.[2]
Cisco found that in most cases, it was not a technology problem. In most cases, problems arise from company culture, organization and structure [3]. 

As per Ericsson “The main challenges that we have seen in the areas of IoT are, for one, the complexity. Designing, implementing and operating an end-to-end solution for a device, bringing data into analytics, and presenting results in an application environment requires a lot of integration,”.

“Secondly,” he added, “the ability to actually share and work in a joint ecosystem, and share the financial results of the final solution, does not exist today.”

“Thirdly, the challenge of deploying an innovative solution in a production IT environment often leads to longer time to market than expected,” Isaksson stated. [4]





The most common reasons for IoT Project failures are as follows:


  • ·         So many standards in the each working domain of end2end IoT Solution, be at Sensors/device level, Connectivity level, Provisioning level, Analytics level or Security. Every customer in every industry have unique needs. No one Size fit for all.
  • ·         Too much time in project completions. As modern technologies have given lot of ease in work, so People want plug and play type solutions (no standard or integration botheration)
  • ·         No readymade business models available or lack of data points so most of the time project fails because of quick expectations on ROI, however returns will only available once sufficient data points are available for trending and predictive analysis. General time frame is 1-2 year to get rich data points for analysis
  • ·         No sufficient e2e skills/competence available, lack of interdomain integration expertise. Needed cross functional courses, training or certifications.In fact, some of the toughest skill sets to hire for are in the highest demand for IoT projects. When asked about technological skills necessary for IoT success, and the difficulty faced in hiring for those skills, IoT professionals ranked data analytics and big data first (75% and 35%), followed by embedded software development (71% and 33%) and IT security (68% and 31%).[5]
This article is published first time on IoT Vigyan Blog


References:
[1] Source: IDC Worldwide Internet of Things Installed Base by Connectivity Forecast, 2017–2021, March 2017

 



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Wednesday, February 28, 2018

Cellular IoT market Forecast

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IoT (Internet of things) devices with cellular connectivity make up a substantial portion of the overall IoT wireless connectivity market, particularly in the Massive IoT space where wide-area connectivity and mobility are requied. Here are top future trends for the cellular IoT market:

-As per Ericsson IoT forecast, the number of mobile phones is expected to be surpassed by connected things in year 2018. The number of IoT devices with cellular connections is projected to reach 1.5 billion in 2022, or about 70% of wide-area IoT connections. Between 2016 and 2022, IoT devices are expected to increase at a CAGR of 21 percent, driven by new use cases.
The wide-area category consists of devices using cellular connections (3GPP-based 2G,3G,4G,5G etc.. with some CDMA), as well as unlicensed low-power technologies, such as Sigfox, LoRa and Ingenu.


Figure 1. Ericsson IoT Forcast

- The top players reported a combined active base of 407 million cellular IoT connections at the end of First half of 2017. As per Analyst firm Berg Insight ,top 10 global mobile operators account of 76% of the cellular IoT market. They are:
1.      China Mobile – 150m connections
2.      Vodafone – 59m
3.      China Unicom  – 50m
4.      AT&T – 36m
5.      China Telecom – 28m
6.      Deutsche Telecom – 15-20m
7.      Softbank/Sprint – 15-20m
8.      Verizon – 15-20m
9.      Telefonica – 15-20m
1.  Telenor – 12m

“The Chinese mobile operators achieved tremendous volume growth in 2017, driven by accelerating uptake of cellular IoT in the domestic market,” said Tobias Ryberg, senior analyst at Berg Insight and the author of the report. “China Mobile is believed to have reached 200 million cellular IoT connections at the end of 2017.” However, Berg also found that although China is ahead in connections, Western operators generate more IoT revenues. Berg predicts that at least three operator groups will make more than $1 billion in IoT revenues this year: AT&T, Verizon and Vodafone.

- As per J. Sharpe Smith is the Senior Editor of eDigest, The five-year forecast predicts NB-IoT will take over 57 percent of cellular IoT shipments by 2022, followed by LTE-M (CAT-M) with 25 percent of the market.


-Grand View Research estimated the value of cellular IoT market at nearly $1.8 billion in 2016 and projected that it will reach $9.65 billion by 2025. The firm cited cellular networks’ resilience, ubiquitous mobility, and security as primary drivers for cellular IoT market growth.


Source: Grand View Research

“Cellular connectivity in IoT applications ensures massive deployments in sectors such as fleet tracking and management capillary networks and smart buildings, owing to which the application is expected to witness highest growth in the Asia Pacific region,” Grand View said. “The ever-increasing population, high demand for consumer goods, and recent proliferation of the disruptive technology in industrial applications are the major factors driving market growth over the forecast period.”


-In Cisco’s 2017 Visual Networking Index for global mobile traffic, the company noted that bandwidth-intensive IoT applications such as video monitoring are on the rise, with IoT capabilities “similar to end-user mobile devices are experiencing an evolution from 2G to 3G and 4G and higher technologies.” Cisco, which still classifies IoT devices as M2M (machine-to-machine traffic), said that on a global basis, connections will grow from 780 million in 2016 to 3.3 billion by 2021, a 34% CAGR and fourfold growth over the forecast period.


Figure : Global Machine-to-Machine Growth and Migration from 2G to 3G and 4G+

This article is first time published on IoT Vigyan Technology Blog.

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Mumbai Mega City Transportation System Can be Smarter

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Figure 1 [1]
Improvement of transportation conditions due to traffic congestion problems is high on the Indian government’s agenda for urban cities like Mumbai. India, one of the fastest growing economies in the world, is achieving a growth rate of 7.5% per annum. With a growing population too, the country is working hard to transform itself over the next few decades.
According to the Census 2011, at least 377 million Indians, comprising about 31 per cent of the country’s population, live in urban areas. Today, India’s urban population is more than the entire population of a country like United States of America or Brazil. The urbanization level in India is set to further increase and the urban population is expected to reach about 600 million by 2030. Unfortunately, today we are witnessing more and more congestion on the streets of our cities which is leading to problems like road accidents, air and noise pollution, posing serious health hazards for citizens [2]. To build inclusive, safer, and more sustainable cities of tomorrow, technology will play a decisive role in identifying mobility gaps and transforming existing transportation services.
Mumbai is one of the most highly populated cities and is the capital city of Maharashtra, also called the financial capital of India. With a population of 21.3 million and a high population density of nearly 21,000 persons/square km, the demand of proper transportation system and the role of the transportation system in the lives of the average earning population are crucial. Currently the majority of Mumbai’s population relies on the bus and public rail services.
The expansion and growth of buses as well as rail transportation modes in Mumbai has proven to be insufficient to match the growth of population in this hub of business. There are other new modes of transportation like metro rail, mono rail and electric buses which are also being introduced in the city and have low carbon foot prints and provide better services i.e. less noisy, air conditioned, less commutation time.
Major modes of transportation
  • Railways (Mumbai Suburb Rail)
Mumbai suburban railway is the lifeline of the city, as per the recorded data, more than 80% of all the motorized trips are undertaken on public bus and rail services and more than half of the trips of public transport mentioned above are taken on the rail services.
 
Figure 2: Mumbai Suburban Map [3]

Figure 3: Mumbai Suburban [4]

Approximately 8 million commuters use the 2900 trains of the suburban rail system. During peak hours these trains are overcrowded to nearly four times the network’s capacity.

Various initiatives are taken by the state government to improve the condition of the suburban railway system along with the World Bank, named the Mumbai Urban Transport Project (MUTP I, II & III) [5].
    
  • Buses [6]
BEST (Brihanmumbai Electric Supply & Transport) introduced Mumbai to its first bus and finally on 10th February of 1926 as replacement of tramcars. The popularity of motor buses increased exponentially, and people started using buses frequently for traveling as it used to be a faster way to travel as compared to tramcars. With the frequent availability of buses, its regularity, quickness, and cleanliness, people started preferring motor-buses above any other mode of transportation.

Within a year the fleet of motor-buses started to expand to meet the public transportation service demand. To meet the public demand, the public started hiring private buses by the end of the first year, 600K passengers used the service and in the next year with the help of better management and addition of new fleet, the figure rose to 3.8 million. Since then BEST is one of the major modes of transportation in Mumbai. Due to various reasons, now BEST services are in trouble and unable to provide the increasing demand of bus services, Increasing the Mumbai population [7], increasing the private car density (the highest density is 430 cars per kilometer[8]), the fleet of BEST has not shown the same growth as the population of Mumbai (fallen 21 percent in last 5 years [9]) , high road accidents [10], and financial crisis [11] are some of the major issues.



From older facilities like share-an-auto services, to infrastructure projects like the Mumbai Metro and the Mumbai Monorail, to private sector offerings like app-driven private taxi services by, all have taken passengers away from the BEST.

  • Private vehicles [12]
Over the past 5 years, the number of vehicles in Mumbai has grown from 200K to 300K, an increase of 50%, however the road length in Mumbai, at around 2,000km, has not changed significantly during the period. The main reason for people to buy private vehicles are inefficient public transport and easy availability of car loans for buying vehicles. These private vehicles are responsible for increasing the vehicle density in Mumbai and lead to traffic issues and encroachment of public roads due to lack of sufficient parking spaces in the city.
To reduce private vehicles in urban areas and boost public transport, the state government has come up with a new urban transport draft policy which has suggested introducing additional charges to the cost of vehicle and high parking charges based on location [13].

Modernization projects in Mumbai
  • Mumbai Metro [14]
 
Figure 4: Mumbai Metro [15]
Mumbai Metro is a rapid transit system serving the city of Mumbai. The system is designed to reduce traffic congestion in the city, and supplement the overcrowded Mumbai Suburban Railway network. It is being built in three phases over a 15-year period, with overall completion expected in 2025. When completed, the core system will comprise of 8 high-capacity metro railway lines, spanning a total of 235 kms (146 mi) (24% underground, the rest elevated, with a minuscule portion built at-grade), and serviced by 200 stations. Line 1 is operational now. The status of the project is as follows:

Figure 5: Mumbai Metro master plan [16]

  • Monorail [17]
Figure 6 : Mumbai Monorail [18]
Where the systems like the Metro cannot be implemented, Monorail can be easily implemented and can negotiate sharp turns and climb up and down steep gradients easily. The system started commercial operation after partially opening its Phase 1 to the public in 2014. Upon the completion of entire Phase 1 in mid-2017, the Mumbai Monorail is set to become the fifth-largest monorail system in the world.
The cost of the monorail service was estimated in 2010 to be ₹2.0 billion (roughly ₹850 million (US$13 million) per km). Approximately 135 kms (84 mi) of line is planned to be built in phases between 2011 and 2031.
The Mumbai Monorail master plan proposed the construction of 8 lines at a cost of ₹202.96 billion (US$3.2 billion).
Figure 7 : Mumbai Monorail master plan [19]
  • Electric buses [20]
Introduction of new e-buses, run on lithium ion batteries. Unlike the buses run on fossil fuels, they do not have an engine, gearbox or clutch. Electric motors ensure that they are noiseless and smokeless. They are more eco-friendly than hybrid electric and compressed natural gas-run buses.
Figure 8 : Mumbai Electric Bus [21]

  • Virtual Taxi, Bus and Auto Apps [22]

Figure 9 [23]
The simplest way to grab a cab today is to reach into your pocket and use an app. Whether you’re running late for work or feeling too lazy to get bothered by the super-dense crush load of local trains, there’s a cab for every occasion. There are loads of superb apps for booking cabs on the go. We have plethora of options for Mumbai such as Meru, Ola, Uber, Easy Cab, Taxi for Sure, and Tab Cab. So just sit back, relax, & plan your itinerary.
rBus, Cityflo and OfficeBus offer point-to-point private bus services to many areas of Mumbai city. And apps such as Jump In Jump Out, LiftO, BlaBlaCar and Tripda allow people to seek out or offer lifts and share the cost of commuting by taxi or autorickshaws in addition to private vehicles.
All these services are less than a 2-3 years old, set up by young entrepreneurs who spotted a gap in the market. The main features of these services are ease of use and flexibility, the new contract carriage services offer better infrastructure (air-conditioning, wifi, reclining seats, water bottles and newspapers) and even a sense of community.
Hurdle for new Innovative Solution in transportation:
In the absence of reliable travel data for Mumbai city, until now, has made it difficult for public officials to assess the impact of infrastructure projects on urban mobility and to identify future needs. This is no longer the case with developments in geo-mapping technologies and open standards, with GTFS (General Transit Feed Specification) being the most commonly used. Transit agencies need to make GTFS feeds on routes and schedules and GIS locations on transport infrastructure publicly available. Some transit agencies have also released data sets on budgetary, performance and ridership data.

Scope of ICT in transformation of Mumbai Transportation [24]
The ICT sector contributes about 2% of global  Carbon dioxide (chemical formula CO2) emissions, but can help to eliminate a significant portion of the remaining 98% from other industries. Fully integrating transport infrastructure, vehicles and users with ICT has been shown to significantly reduce environmental impact and deliver improved safety and efficiency. It also enables the connectivity required to support infrastructure for future green vehicles (electric vehicles).

As suggested by an ICT Industry leader, the state can have a strategy in 2 parts to drive the transformation. Firstly, working in partnership with local academia/university to develop intelligent ICT-enabled solutions, including primarily operators but also utilities, transportation, governments and others. And secondly actively engaging with stakeholders and policymakers regionally and nationally to inform public policy and to drive initiatives to accelerate the potential of broadband to transform cities, reduce carbon, increase efficiency, spur innovation, and enhance life quality.

The approach to connecting the transportation industry can be focused on providing solutions in three stages: connected, cooperating and automated.
 
Figure10: Transformation in transportation [25]

The first stage is all about connecting different elements of the transport ecosystem – vehicles and the infrastructure that supports their mobility like roads, traffic lights and bus stops – through wireless sensors. The three main challenges within transportation are safety, efficiency, and sustainability; connectivity is the first step to improving all three of these.
The Connected Urban Transport is a completely new way to connect everything and everyone that moves. It is a solution that enables data sharing and takes interaction between infrastructure, traffic and all stakeholders to a new level. It is an important cornerstone in the transport industry's transition from merely being connected, to being cooperative and automated. The Connected Urban Transport gives transport authorities and cities the ability to aggregate and analyze diverse, real-time data from connected vehicles, infrastructure, and devices. The solution thereby expands their insights and assists with operational decision-making.

The scope of the connected urban transport:
 
Figure 11: Connected Urban transport [26]
  • Combine and control: Collect real-time data from vehicles, roadside infrastructure and travelers. Allow data sharing to proactively deliver timely and accurate information to the right recipients.
  • Predict and suggest: This out-of-the-box software enables monitoring, managing and sharing of real time traffic data and road condition data, between people, various modes of transportation and authorities.
  • Turn your insignts into actions: When traffic and road information is allowed to interact, it is possible to proactively deliver the right information to the right stakeholders. This will give us a more efficient and sustainable urban environment with a new range of digital services. With real time insight, traffic flows can ultimately become automated.

Solution for integrated mobility
Multi-modal fare collection offers a sole source for trip planning, mobile ticketing and payment and connected multiple transport service providers. With one solution, mobility service providers can now offer citizens a seamless transportation experience that can also reduce the need for exclusive reliance on private cars.

Figure 12 : Integrated Mobility [27]

  • Provides one-stop-shop access for trip planning and payment.
  • Supports new business models and partnerships.
  • Creates personalized solutions to meet traveler's preferences.
For example, Implementation of an Intelligent Transportation System (ITS) that fully supports the public buses operation can be implemented, this ITS may include:
  • Integrated E-ticketing system for BEST Buses, Rail System, Metro and Monorail
  • System for automatic vehicle location (AVL)
  • Real Time Passenger Information system (RTPI)
  • Traffic management system that provides priority to buses
  • CCTV system at intersections and bus stops
  • Control Rooms

Conclusion
Any mobility crisis is a unique one, seeing as it involves a multitude of actors from transit agencies to ICT entrepreneurs. To meet the challenge effectively, a dialogue between stakeholders is essential to evaluate assets and to devise innovative mobility solutions. New mobility is a lucrative industry  one that can serve local communities and provide opportunities to many. As the Mumbai state government looks to make sustainable urban transport a priority, Mumbai can become a model for policymakers and entrepreneurs in India to use ICT to provide customized, safe and sustainable transportation to all.
Reference Links
[2] :HPEC ,20110


Appendix
  • BEST - Brihanmumbai Electric Supply and Transport
  • MMRDA - Mumbai Metropolitan Region Development Authority
  • MUTP - Mumbai Urban Transport Project


Note : This article is first published on http://iglus.org/mumbai-transportation-system-transformation/
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