That is my presentation on the internet of Things instruction course at the Lublin University of Technology. My subject is IoT technologies with urban centers.
This document discusses Delhi as a proposed smart city. It outlines the basic infrastructure needed for a smart city including assured electricity and water supply, sanitation, transportation, and housing. It describes proposed smart solutions for transportation such as electric buses and smart metro trains. It also discusses smart street lighting, water distribution sensors, smart waste collection, smart education, and a smart city app. The objectives are to provide quality living, a clean environment, and apply smart technologies to set an example for other cities.
Do you know that today's cities "come alive"? Do you ask how it is possible? It's thanks to sensory networks. Sensors are the basic building units in a smart city. They collect information. The software evaluates compares, publishes, and makes predictions. At the same time, the city is driving in real time.
We use sensors to monitor free parking spaces, detect air quality in the city, and help regulate the intensity of smart lighting depending on daytime and ambient traffic. They can regulate traffic. With their help buildings reduce energy consumption and prevent waste. Even the export of waste, which at first sight is completely non-technological, can be controlled by sensors and lead to maximum efficiency.
Modern sensory networks make cities a better place to live.
What is a SMART City? How to make a city a SMART city? What it includes?Shaikh Irfan
The document discusses key aspects of a smart city, including smart governance, energy, buildings, mobility, infrastructure, technology, healthcare, and people. A smart city uses digital technologies to enhance performance, reduce costs and resource consumption, and engage citizens effectively. It describes strategies for smart governance like open data and social services. It also outlines approaches for smart energy, green buildings, sustainable transportation, and connectivity across different sectors of the city. Overall, the document provides an introduction and overview of the main components involved in developing and operating a smart city.
What to consider when integrating energy into Facilities ManagementeSightEnergy
"What to consider when integrating energy into Facilities Management" - Delivered by UK Sales Manager Dean Noden at the Facilities Management event, March 2015.
Suniel Kumar- Smart Cities and Water ManagementWithTheBest
Water Resource management is critical for smart cities implementation. Smart water; resource management involves design & implementation of systems that will monitor & control the storage, flow and distribution in a efficient manner.
Various aspects of electronics - embedded systems - wireless technologies - protocols are key for designing the end nodes:
- Right type of sensors: flow - pressure - level.
- Microcontroller platforms - features - processing.
- Wireless technologies - GPRS/GSM - Zigbee - BLE - WiFi.
In this presentation, we will be touching upon on the technology options; design criteria for smart water; resource management.
The concepts can be extended for further applications in supply chain, asset tracking, energy management.
Suniel Kumar
Smart Waste Management [for NYC] - creating a sustainable future with smart c...Adela VILLANUEVA
To reduce our waste and be more efficient we can leverage in smart city technologies and current start ups. Discover here some solutions and some of the hottest startups in the field.
This document discusses Delhi as a proposed smart city. It outlines the basic infrastructure needed for a smart city including assured electricity and water supply, sanitation, transportation, and housing. It describes proposed smart solutions for transportation such as electric buses and smart metro trains. It also discusses smart street lighting, water distribution sensors, smart waste collection, smart education, and a smart city app. The objectives are to provide quality living, a clean environment, and apply smart technologies to set an example for other cities.
Do you know that today's cities "come alive"? Do you ask how it is possible? It's thanks to sensory networks. Sensors are the basic building units in a smart city. They collect information. The software evaluates compares, publishes, and makes predictions. At the same time, the city is driving in real time.
We use sensors to monitor free parking spaces, detect air quality in the city, and help regulate the intensity of smart lighting depending on daytime and ambient traffic. They can regulate traffic. With their help buildings reduce energy consumption and prevent waste. Even the export of waste, which at first sight is completely non-technological, can be controlled by sensors and lead to maximum efficiency.
Modern sensory networks make cities a better place to live.
What is a SMART City? How to make a city a SMART city? What it includes?Shaikh Irfan
The document discusses key aspects of a smart city, including smart governance, energy, buildings, mobility, infrastructure, technology, healthcare, and people. A smart city uses digital technologies to enhance performance, reduce costs and resource consumption, and engage citizens effectively. It describes strategies for smart governance like open data and social services. It also outlines approaches for smart energy, green buildings, sustainable transportation, and connectivity across different sectors of the city. Overall, the document provides an introduction and overview of the main components involved in developing and operating a smart city.
What to consider when integrating energy into Facilities ManagementeSightEnergy
"What to consider when integrating energy into Facilities Management" - Delivered by UK Sales Manager Dean Noden at the Facilities Management event, March 2015.
Suniel Kumar- Smart Cities and Water ManagementWithTheBest
Water Resource management is critical for smart cities implementation. Smart water; resource management involves design & implementation of systems that will monitor & control the storage, flow and distribution in a efficient manner.
Various aspects of electronics - embedded systems - wireless technologies - protocols are key for designing the end nodes:
- Right type of sensors: flow - pressure - level.
- Microcontroller platforms - features - processing.
- Wireless technologies - GPRS/GSM - Zigbee - BLE - WiFi.
In this presentation, we will be touching upon on the technology options; design criteria for smart water; resource management.
The concepts can be extended for further applications in supply chain, asset tracking, energy management.
Suniel Kumar
Smart Waste Management [for NYC] - creating a sustainable future with smart c...Adela VILLANUEVA
To reduce our waste and be more efficient we can leverage in smart city technologies and current start ups. Discover here some solutions and some of the hottest startups in the field.
[WeGO e-Government Program]City Paper Presentation : Ulaanbaatar(Mongolia)shrdcinfo
The document outlines Ulaanbaatar's Smart City program which was approved in 2014. The goals of the program are to improve governance, develop the economy through technology and innovation, improve citizen services, protect the environment, and enhance quality of life. The program aims to connect all districts and local governments through an integrated network, and establish required hard infrastructure like networking, data centers, and wireless connectivity over 2-6 years. The smart city initiatives will address areas like transportation, public safety, infrastructure, education, healthcare, energy management, and more to make Ulaanbaatar more efficient, sustainable and livable.
IRJET- Review on Applications Areas of Smart CitiesIRJET Journal
This document discusses applications of smart cities. It begins by defining smart cities as cities that collect and analyze real-world urban data through software, servers, networks, and devices. It then outlines several key application areas of smart cities, including smart economy, smart governance, smart mobility, smart environment, smart living, and smart people. Each application area is discussed in 1-2 paragraphs. The document also covers challenges of implementing internet of things technologies in smart cities and concludes that smart cities can improve quality of life through technologies while also facing challenges due to many stakeholders and social aspects.
MidoSnc has developed a smart metering system called MiDoMet that is self-powered, versatile, and can connect to any type of mechanical meter. The system stores meter readings and sends the data through wired or wireless networks to a cloud-based management system provided by MidoSnc. The solution aims to save administrative costs, bill based on real consumption, detect leaks, and eliminate manual meter reading. Pilot projects showed savings of 1 million euros for one water utility company. MidoSnc's goal is to partner with water and gas distribution companies and public utilities to expand the system internationally.
Ap plication & research technologies.pptxskumartarget
This document contains confidential and proprietary information about Target Soft Systems. It defines confidential information as including corporate, employee, infrastructure, implementation, training, cost, project management, and quality process information about Target Soft Systems. The document states that confidential information shall not be disclosed or duplicated without permission and is only to be used to evaluate proposals. It then provides examples of internet of things applications in various domains like connected homes, wearables, retail, smart cities, healthcare, agriculture, transportation, industrial automation and energy management.
Internet of Things(IoT) Applications
IoT has many applications. This video is talking about some of the iot applications,namely
Smart Home
Smart Wearables
Smart City
Smart Grid
Connected Cars
Connected Health
Smart Retail
Smart Farming
Smart City water management solutions -Faststream TechnologiesSudipta Maity
Faststream Technologies provides a simpler, more efficient, and reliable intelligent water Management Solutions for City and Household. Under a single umbrella of Smart Water Management Solutions, we serve AMR, Leakage Management, Water Quality Monitoring, Reservoir Water Level Monitoring, etc. With the portable, ergonomic, and secure hardware design, user-friendly software, and state of the art technologies Faststream enhances efficiency and ease of use in utility management.
The document discusses building smart cities through empowering citizens and making use of crowdsourced data. It describes how integrating data from multiple sources, automating data collection, and analyzing data can help identify actionable insights to address challenges facing cities. Citizens can play a key role by using their smartphones to sense and report issues like traffic, noise, or drainage problems through mobile applications. Aggregating data from both sensors and crowdsourcing can provide a holistic view of the city to support better decision making. However, key challenges remain around data ownership, legal liability from citizen reports, and ensuring data is used to meaningfully improve life in cities.
Waste managment as an IoT enabled service in smart citiesABHISHEK KUMAR
This document presents a project on implementing an IoT-enabled waste management system in smart cities. The system uses ultrasonic sensors, Arduino, Raspberry Pi, and an Android app to monitor waste levels in bins and optimize waste collection. It aims to empower cleanliness initiatives, provide transparency to municipalities and workers, and offer services to various stakeholders involved in waste management. The system was presented by students under the guidance of their professor for their academic year 2016-17 project.
Shaping the Smart City Journey
Presented as part of the Smart Cities Summit Parramatta
@parracity @FutureCitiesAU #ParraSmartCity
(http://www.futurecities.org.au/projects/smart-cities)
Auckland! how smart city you are! peter chong - 20190804-uploadDrPeterChong
This document discusses smart cities and the role of vehicle-to-everything (V2X) technology. It begins with an overview of population growth and the challenges facing modern cities. It then introduces the concept of a smart city and how technologies like IoT, AI and big data can help address issues related to resources, transportation and other areas. The document focuses on V2X specifically, explaining how vehicles can communicate with other vehicles, infrastructure and pedestrians to improve traffic flow and safety. It provides examples of V2X applications and standards like DSRC and cellular-V2X. The document outlines a V2V demonstration conducted at AUT and the vision to develop connected, autonomous electric vehicles and an on-campus V
This document discusses how IoT can be used to create a smart city by connecting devices and sensors to provide real-time data collection and monitoring of various city systems and services. Some key applications of IoT in a smart city include smart transportation through connected vehicles that provide traffic information, smart buildings that remotely monitor energy and utilities, smart hospitals that allow remote patient monitoring and doctor consultations, and facilities to help serve the disabled community through connected assistive devices. Overall, IoT in a smart city aims to simplify life for citizens through automated and interconnected systems that are managed online.
The document summarizes the results of Roland Berger's global study on smart city strategies. It finds that while most cities have room for improvement in their smart city strategies, the top-scoring strategies come from Vienna, Chicago, and Singapore and excel in strategic planning, infrastructure, and action fields. It identifies best practices such as actively involving stakeholders, avoiding isolated solutions, and establishing coordination bodies. The document concludes by recommending 10 key points for cities to address when developing smart city strategies, such as reevaluating the city's role, encouraging private sector contributions, and ensuring data security.
1) The document discusses Schneider Electric's work on smart city projects in Southeast Asia, including projects in cities like Da Nang, Bangkok, and Singapore.
2) Smart city projects involve connecting infrastructure across domains like energy, water and transportation to improve efficiency. The level of maturity and scope of projects varies between smaller cities and larger cities.
3) The document outlines Schneider Electric's end-to-end smart city solution involving connected products, edge control systems, applications, analytics and cybersecurity tools. Case studies provide examples of efficiency gains from their work.
Sensor Technologies for Smart City services” by Jose M. Hernandez-Munoz The Smart Santander project at Smart Cities & the Future Internet organised by Fireball, Eurocities and ENoLL on January 25th, 2012.
This document discusses the potential of using street lamps ("humble lampposts") as platforms for smart city technologies and initiatives. It notes that street lamps currently account for a large portion of cities' energy costs and that retrofitting them with LED bulbs and sensors could provide significant energy and cost savings while enabling additional smart city applications. The document outlines a collaborative initiative among 25 European organizations to leverage street lamps to accelerate smart city development, with a goal of outfitting 10 million street lamps across EU cities. It presents street lamps as an open platform architecture that can support various sensors, connectivity, and urban services.
Intelligent water systems, also known as smart water networks, integrate sensors, meters, and other devices to remotely monitor water distribution networks. This allows utilities to detect problems, optimize infrastructure, and improve decision making. The iWIDGET project is evaluating smart metering technologies in three European case studies. Key challenges of smart water systems include high costs, data security and privacy, developing standards, and assessing the business case. To address water losses and energy use, utilities are considering expanding metering programs, which have reduced consumption by 12% in tested areas. Overall, smart networks aim to improve water management, efficiency and infrastructure investment decisions.
This document discusses IBM's focus on innovation to drive green growth. It notes that IBM files over 7,000 patents per year, spends $6 billion annually on R&D, and has acquired over 150 companies since 2000 focused on software and services. It then outlines how cognitive systems using machine learning, natural language processing, and other techniques can help leverage the growing amounts of unstructured data. Specific examples are given around using real-time and predictive data from IoT sensors to optimize waste management, freight delivery routes, and water utilities maintenance. The document advocates taking a cross-disciplinary approach and using emerging technologies to anticipate issues and deliver green solutions in partnership with other organizations.
Smart Cities and Communication Infrastructure.pptxparaskodhi1
Smart cities leverage various communication technologies like wireless sensor networks and 5G networks to collect data from infrastructure and applications. This allows them to optimize services like environmental monitoring, traffic management, parking availability, and structural health monitoring. Key technologies enabling smart cities include wireless sensor networks, 5G networks, the Internet of Things (IoT), and optimizing systems like transportation, energy management, waste management, and water management through real-time data collection and analysis. Challenges to implementing these technologies include infrastructure costs, integrating different systems, and data privacy and security concerns.
A smart city uses technologies like the Internet of Things to improve quality of life through features such as smart traffic management, waste management, energy management, parking, and lighting. IoT sensors monitor traffic patterns and fill levels to optimize signals and collection, while smart grids and lighting use real-time data to reduce energy consumption and waste. While smart cities offer improved efficiency, sustainability, and decision-making, they also present risks regarding privacy, security, costs, and reliance on technology.
[WeGO e-Government Program]City Paper Presentation : Ulaanbaatar(Mongolia)shrdcinfo
The document outlines Ulaanbaatar's Smart City program which was approved in 2014. The goals of the program are to improve governance, develop the economy through technology and innovation, improve citizen services, protect the environment, and enhance quality of life. The program aims to connect all districts and local governments through an integrated network, and establish required hard infrastructure like networking, data centers, and wireless connectivity over 2-6 years. The smart city initiatives will address areas like transportation, public safety, infrastructure, education, healthcare, energy management, and more to make Ulaanbaatar more efficient, sustainable and livable.
IRJET- Review on Applications Areas of Smart CitiesIRJET Journal
This document discusses applications of smart cities. It begins by defining smart cities as cities that collect and analyze real-world urban data through software, servers, networks, and devices. It then outlines several key application areas of smart cities, including smart economy, smart governance, smart mobility, smart environment, smart living, and smart people. Each application area is discussed in 1-2 paragraphs. The document also covers challenges of implementing internet of things technologies in smart cities and concludes that smart cities can improve quality of life through technologies while also facing challenges due to many stakeholders and social aspects.
MidoSnc has developed a smart metering system called MiDoMet that is self-powered, versatile, and can connect to any type of mechanical meter. The system stores meter readings and sends the data through wired or wireless networks to a cloud-based management system provided by MidoSnc. The solution aims to save administrative costs, bill based on real consumption, detect leaks, and eliminate manual meter reading. Pilot projects showed savings of 1 million euros for one water utility company. MidoSnc's goal is to partner with water and gas distribution companies and public utilities to expand the system internationally.
Ap plication & research technologies.pptxskumartarget
This document contains confidential and proprietary information about Target Soft Systems. It defines confidential information as including corporate, employee, infrastructure, implementation, training, cost, project management, and quality process information about Target Soft Systems. The document states that confidential information shall not be disclosed or duplicated without permission and is only to be used to evaluate proposals. It then provides examples of internet of things applications in various domains like connected homes, wearables, retail, smart cities, healthcare, agriculture, transportation, industrial automation and energy management.
Internet of Things(IoT) Applications
IoT has many applications. This video is talking about some of the iot applications,namely
Smart Home
Smart Wearables
Smart City
Smart Grid
Connected Cars
Connected Health
Smart Retail
Smart Farming
Smart City water management solutions -Faststream TechnologiesSudipta Maity
Faststream Technologies provides a simpler, more efficient, and reliable intelligent water Management Solutions for City and Household. Under a single umbrella of Smart Water Management Solutions, we serve AMR, Leakage Management, Water Quality Monitoring, Reservoir Water Level Monitoring, etc. With the portable, ergonomic, and secure hardware design, user-friendly software, and state of the art technologies Faststream enhances efficiency and ease of use in utility management.
The document discusses building smart cities through empowering citizens and making use of crowdsourced data. It describes how integrating data from multiple sources, automating data collection, and analyzing data can help identify actionable insights to address challenges facing cities. Citizens can play a key role by using their smartphones to sense and report issues like traffic, noise, or drainage problems through mobile applications. Aggregating data from both sensors and crowdsourcing can provide a holistic view of the city to support better decision making. However, key challenges remain around data ownership, legal liability from citizen reports, and ensuring data is used to meaningfully improve life in cities.
Waste managment as an IoT enabled service in smart citiesABHISHEK KUMAR
This document presents a project on implementing an IoT-enabled waste management system in smart cities. The system uses ultrasonic sensors, Arduino, Raspberry Pi, and an Android app to monitor waste levels in bins and optimize waste collection. It aims to empower cleanliness initiatives, provide transparency to municipalities and workers, and offer services to various stakeholders involved in waste management. The system was presented by students under the guidance of their professor for their academic year 2016-17 project.
Shaping the Smart City Journey
Presented as part of the Smart Cities Summit Parramatta
@parracity @FutureCitiesAU #ParraSmartCity
(http://www.futurecities.org.au/projects/smart-cities)
Auckland! how smart city you are! peter chong - 20190804-uploadDrPeterChong
This document discusses smart cities and the role of vehicle-to-everything (V2X) technology. It begins with an overview of population growth and the challenges facing modern cities. It then introduces the concept of a smart city and how technologies like IoT, AI and big data can help address issues related to resources, transportation and other areas. The document focuses on V2X specifically, explaining how vehicles can communicate with other vehicles, infrastructure and pedestrians to improve traffic flow and safety. It provides examples of V2X applications and standards like DSRC and cellular-V2X. The document outlines a V2V demonstration conducted at AUT and the vision to develop connected, autonomous electric vehicles and an on-campus V
This document discusses how IoT can be used to create a smart city by connecting devices and sensors to provide real-time data collection and monitoring of various city systems and services. Some key applications of IoT in a smart city include smart transportation through connected vehicles that provide traffic information, smart buildings that remotely monitor energy and utilities, smart hospitals that allow remote patient monitoring and doctor consultations, and facilities to help serve the disabled community through connected assistive devices. Overall, IoT in a smart city aims to simplify life for citizens through automated and interconnected systems that are managed online.
The document summarizes the results of Roland Berger's global study on smart city strategies. It finds that while most cities have room for improvement in their smart city strategies, the top-scoring strategies come from Vienna, Chicago, and Singapore and excel in strategic planning, infrastructure, and action fields. It identifies best practices such as actively involving stakeholders, avoiding isolated solutions, and establishing coordination bodies. The document concludes by recommending 10 key points for cities to address when developing smart city strategies, such as reevaluating the city's role, encouraging private sector contributions, and ensuring data security.
1) The document discusses Schneider Electric's work on smart city projects in Southeast Asia, including projects in cities like Da Nang, Bangkok, and Singapore.
2) Smart city projects involve connecting infrastructure across domains like energy, water and transportation to improve efficiency. The level of maturity and scope of projects varies between smaller cities and larger cities.
3) The document outlines Schneider Electric's end-to-end smart city solution involving connected products, edge control systems, applications, analytics and cybersecurity tools. Case studies provide examples of efficiency gains from their work.
Sensor Technologies for Smart City services” by Jose M. Hernandez-Munoz The Smart Santander project at Smart Cities & the Future Internet organised by Fireball, Eurocities and ENoLL on January 25th, 2012.
This document discusses the potential of using street lamps ("humble lampposts") as platforms for smart city technologies and initiatives. It notes that street lamps currently account for a large portion of cities' energy costs and that retrofitting them with LED bulbs and sensors could provide significant energy and cost savings while enabling additional smart city applications. The document outlines a collaborative initiative among 25 European organizations to leverage street lamps to accelerate smart city development, with a goal of outfitting 10 million street lamps across EU cities. It presents street lamps as an open platform architecture that can support various sensors, connectivity, and urban services.
Intelligent water systems, also known as smart water networks, integrate sensors, meters, and other devices to remotely monitor water distribution networks. This allows utilities to detect problems, optimize infrastructure, and improve decision making. The iWIDGET project is evaluating smart metering technologies in three European case studies. Key challenges of smart water systems include high costs, data security and privacy, developing standards, and assessing the business case. To address water losses and energy use, utilities are considering expanding metering programs, which have reduced consumption by 12% in tested areas. Overall, smart networks aim to improve water management, efficiency and infrastructure investment decisions.
This document discusses IBM's focus on innovation to drive green growth. It notes that IBM files over 7,000 patents per year, spends $6 billion annually on R&D, and has acquired over 150 companies since 2000 focused on software and services. It then outlines how cognitive systems using machine learning, natural language processing, and other techniques can help leverage the growing amounts of unstructured data. Specific examples are given around using real-time and predictive data from IoT sensors to optimize waste management, freight delivery routes, and water utilities maintenance. The document advocates taking a cross-disciplinary approach and using emerging technologies to anticipate issues and deliver green solutions in partnership with other organizations.
Smart Cities and Communication Infrastructure.pptxparaskodhi1
Smart cities leverage various communication technologies like wireless sensor networks and 5G networks to collect data from infrastructure and applications. This allows them to optimize services like environmental monitoring, traffic management, parking availability, and structural health monitoring. Key technologies enabling smart cities include wireless sensor networks, 5G networks, the Internet of Things (IoT), and optimizing systems like transportation, energy management, waste management, and water management through real-time data collection and analysis. Challenges to implementing these technologies include infrastructure costs, integrating different systems, and data privacy and security concerns.
A smart city uses technologies like the Internet of Things to improve quality of life through features such as smart traffic management, waste management, energy management, parking, and lighting. IoT sensors monitor traffic patterns and fill levels to optimize signals and collection, while smart grids and lighting use real-time data to reduce energy consumption and waste. While smart cities offer improved efficiency, sustainability, and decision-making, they also present risks regarding privacy, security, costs, and reliance on technology.
This presentation highlights eight innovative solutions for smart cities that address various challenges and contribute to a more sustainable and efficient urban environment. The solutions include developing an AI-powered traffic management system to optimize traffic signals based on real-time data and reduce congestion; creating a waste management app that utilizes IoT sensors to monitor waste levels and optimize collection routes; and building a platform for community engagement through local event listings and neighborhood forums.
Urban mobility refers to how people and goods move through cities, which faces challenges due to population growth, congestion, environmental impacts, and public safety issues. As urban populations increase, cities are under pressure to improve mobility. Smart city technologies are helping cities collect and analyze data from traffic signals, cameras, and other sensors to better manage transportation systems, reduce congestion and pollution, and enhance public safety. Connected vehicle models using vehicle-to-infrastructure, vehicle-to-vehicle, and other data connections also aim to improve safety and efficiency of transportation.
Why commercially viable cross-domain use cases will drive innovation and hori...Open & Agile Smart Cities
In a joint webinar on 24 May 2018, AIOTI and OASC addressed the question “Why commercially viable cross-domain use cases will drive innovation and horizontalization of IoT-enabled smart cities”.
Speakers:
Keith Dickerson, AIOTI and Climate Associates
Martin Brynskov, OASC
Omar Elloumi, AIOTI and Nokia.
The document discusses several domains for IoT applications including home automation, smart cities, environment, and others. It provides examples of IoT uses for each domain such as smart lighting, appliances and parking for homes and cities, and weather, air and noise pollution monitoring for the environment. The applications described leverage sensors and cloud-based analytics to automate processes and provide remote monitoring and control capabilities.
The document discusses plans for Smart City Maribor and the role of Nigrad d.d., a Slovenian utility company, in developing Maribor into a pilot smart city. Specifically, it outlines three key points:
1) By 2050, nearly 70% of the world's population will live in urban areas, exacerbating environmental and social challenges. Cities need to become "smart cities" to manage these challenges.
2) Nigrad provides various public utility services in Maribor and aims to develop Maribor into a pilot smart city through projects in areas like smart winter service, road audits, environmental integration, and infrastructure like street lighting and sewerage systems.
3
Smart City Opportunity in East & North-Eastern IndiaTanmay Mishra
The document discusses opportunities for smart city development in Eastern and North-Eastern India. It provides definitions of a smart city and its core infrastructure elements. 18 cities in the region have been selected for smart city projects, which will require around $23 billion in private sector investment. The document outlines specific smart systems that could be implemented in sample cities like New Town Kolkata, Bidhannagar, Durgapur, and others to transform them into smart cities. These include smart traffic and parking management, smart energy grids, water management with sensors, waste management including waste-to-energy, and digital connectivity. Private partnerships will be important for financing the majority of investments required for smart city development.
The document discusses key aspects of making Dhaka, Bangladesh a smart and inclusive city. It outlines the population growth challenges facing Dhaka, with the city's population reaching 18 million in 2016 and growing at 4.2% annually. Rural to urban migration accounts for around 60% of Dhaka's population growth. The document also notes issues with Dhaka's current drainage and sewerage system, which includes canals and retention areas but is inadequate to support the large population. Developing smart infrastructure and governance solutions could help address these challenges and make Dhaka a more sustainable city.
Smart cities use digital technologies and data to improve city services and quality of life. Key components of smart cities include smart infrastructure to provide reliable utilities like energy and water, smart mobility options through transportation technologies, and smart governance with accessible public services and engaged citizens. Benefits of smart cities include improved sustainability through efficient resource use, economic growth from new industries and jobs, and an enhanced living experience for residents through connected, livable communities. However, barriers to developing smart cities include limited funding for new technologies, lack of established business models, skills gaps in local governments, challenges integrating data and departments, and privacy/security concerns around new data sources.
Telefonica's vision is to help cities become smart by collecting data from devices and sensors, analyzing it using big data techniques, and using the insights to improve city services and operations. They see opportunities in areas like transportation, utilities, security, and more. Telefonica plans to offer smart city platforms and solutions to cities, and generate revenue through services built on top of the platform. Their Smart Santander project has deployed thousands of IoT devices in the city of Santander to test these ideas and develop smart city applications.
Smart City, Internet de las cosas al servicio de los ciudadanos - Jorge GuerraLab San Isidro
The document discusses smart cities and defines them as developed urban areas that create sustainable economic development and good quality of life through investments in infrastructure, technology, and citizen engagement. It provides examples of smart city concepts like smart buildings, weather monitoring, and farming and discusses technologies involved like IoT, cloud computing, and big data. The document also outlines standards organizations working on smart city standards and some implementations of smart cities around the world.
This document provides an overview of domain-specific Internet of Things (IoT) applications. It describes how IoT is used in various domains like homes, cities, environment, energy systems, retail, logistics, industry, agriculture, and health & lifestyle. For each domain, it lists some common IoT applications and provides 1-2 paragraphs describing examples and benefits.
Smart cities global experiences and lessons for india at ASCI Hyderabad 25 ...Prakash Kumar
How Information and Communication technology is being used by cities in developed countries and what lessons can be drawn for cities in emerging countries.
1. The document discusses smart cities, which use technology like IoT sensors and data analysis to improve operations and quality of life.
2. Smart cities aim to deliver high-quality services while reducing costs through efficiencies. Technologies like smart parking and traffic management optimize city functions.
3. While smart cities provide benefits, challenges include ensuring security, privacy, connectivity between devices, and engaging citizens in development. Examples of leading smart cities are given.
The document discusses the future of smart cities and adaptive cities. It provides examples of smart city technologies like smart buildings, mobility, lighting and roads. Characteristics of smart cities include efficient infrastructure, open innovation processes, and adapting to changing needs. Challenges include high costs, security/privacy concerns, and ensuring social inclusion. The document advocates for adaptive cities that can respond flexibly to disruptions through digital and physical agility. It provides steps to establish an adaptive city vision, design for adaptability, and build intrinsic agility. Finally, it describes plans for Neom Bay Airport in Saudi Arabia which will use land art and a mirrored design inspired by mirages.
Take a look to see how the Internet of Things is critical to future city-planning processes. In fact, day by day, cities are facing a variety of challenges such as: job creation, economic growth, environmental sustainability and social resilience.
Similar to Internet of thing with urban center (20)
HijackLoader Evolution: Interactive Process HollowingDonato Onofri
CrowdStrike researchers have identified a HijackLoader (aka IDAT Loader) sample that employs sophisticated evasion techniques to enhance the complexity of the threat. HijackLoader, an increasingly popular tool among adversaries for deploying additional payloads and tooling, continues to evolve as its developers experiment and enhance its capabilities.
In their analysis of a recent HijackLoader sample, CrowdStrike researchers discovered new techniques designed to increase the defense evasion capabilities of the loader. The malware developer used a standard process hollowing technique coupled with an additional trigger that was activated by the parent process writing to a pipe. This new approach, called "Interactive Process Hollowing", has the potential to make defense evasion stealthier.
Discover the benefits of outsourcing SEO to Indiadavidjhones387
"Discover the benefits of outsourcing SEO to India! From cost-effective services and expert professionals to round-the-clock work advantages, learn how your business can achieve digital success with Indian SEO solutions.
Honeypots Unveiled: Proactive Defense Tactics for Cyber Security, Phoenix Sum...APNIC
Adli Wahid, Senior Internet Security Specialist at APNIC, delivered a presentation titled 'Honeypots Unveiled: Proactive Defense Tactics for Cyber Security' at the Phoenix Summit held in Dhaka, Bangladesh from 23 to 24 May 2024.
Securing BGP: Operational Strategies and Best Practices for Network Defenders...APNIC
Md. Zobair Khan,
Network Analyst and Technical Trainer at APNIC, presented 'Securing BGP: Operational Strategies and Best Practices for Network Defenders' at the Phoenix Summit held in Dhaka, Bangladesh from 23 to 24 May 2024.
2. 1) Smart city concepts
Why city especially why smart city
what are the problems
2)IOT Benefits
3)Challenge in adoption of IOT by cities
Overview
3. Fıve bıg reasons we focus on cıtıes
1.More than half the world lives in cities.
2.By 2050, 70% of the world’s population will live in
cities.
3.More than 60% of cities have yet to be built.
4.Cities have been the center of civilization, life, and
knowledge for centuries.
5. Cities are at the forefront of global innovation.
5. Smart City
• Structural Health of buildings
• Waste Management
• Air Quality
• Noise Monitoring
• Traffic Congestion
• City Energy Consumption
• Smart Parking
• Smart Lighting
• Automation of public buildings
6. Smart City
● Structural Health of buildings
Structural Health Monitoring (SHM) Structural health monitoring is a tool used to ensure the safety and soundness
of structures.
Structural Health Monitoring (SHM) concerns the
continuous monitoring of civil and industrial
buildings to increase human safety and to reduce
maintenance costs.
7. Smart City
• Waste Management
The most common IoT use case in waste management is route
optimization, which reduces fuel consumption while emptying the
garbage can throughout the city.
8. Smart City
• Air Quality
Air pollution is a growing problem.
Vehicle traffic and smog from industrial
plants and households and aviation
contribute significantly to air quality
While IoT solutions will not initially
replace fixed monitoring stations, the
relieve of their deployment can provide
some important benefits, including early
indicators of high pollution zones.
In Spain, Barcelona has tapped into smart
lighting that feeds data to the government
as well as sensors across the city to
monitor air quality.
9. Smart City
• Noise Monitoring
The increase in noise levels in cities are due to factors such as people's migration to big cities,
the impact of transport and traffic, building works, industries, and outdoor and nightlife activities
such as concerts and festivals.
This makes noise pollution one of the problems that worries citizens and public administrations
the most.
The solution for monitoring environmental noise in smart cities
includes
● Sound level meter
● System for data collection (datalogger).
● Control center for data reception.
● Information platform.
10. Smart City
•Traffic Congestion
vehicles waiting for a longer time at signal lights .
Emergency vehicles blocked by such huge traffic can put one’s
life in danger.
It is a known fact that even when there are less vehicles on one
lane and more on another, the green signal is turned on for the
same time thus wasting precious time on green signal for
empty roads.
11. Smart City
• City Energy Consumption
Home Appliances,
Education and Healthcare,
Food Industry,
Transportation
With the increase in IoT applications for smart cities,
energy-efficient solutions are also evolving for
low-power devices.
There are some energy-efficient solutions that can
either reduce energy consumption or optimize resource
usage.
Lightweight Protocols,Scheduling
Optimization,Low-Power Transceivers,Cloud-Based
Approach
12. Smart City
• Smart Parking
Smart parking development implies an
IoT-based system that sends data about
free and occupied parking places with
web/mobile application
The IoT-device, including sensors and
microcontrollers, is located in each
parking place
13.
14. Smart City
• Smart Lighting
Smart lighting is broadly understood to cover
the automation of lamp responses, such as
dimming or on/off control to enhance user
comfort and save energy.
An ambient light sensor (ALS) can be used to
detect the amount of natural light available,
allowing a lamp's output to be adjusted
accordingly
15. Smart City
• Automation of public buildings
Automated heating control
By configuring your heating so that it only
functions at certain times, you are able to reduce
your overall costs.
Control of your lighting systems
A single switch can be configured to activate
or deactivate all lighting in the building, or
individual lights can be turned on and off
remotely.
Notifications
Sensors can detect when you have left windows
and doors open and notify you accordingly.
22. Benefits:
CITY SERVICES
● Efficient service delivery and response system
● Increased revenues
● Enhanced environmental monitoring capabilities
● Access to Connectivity
● Access of Information to citizens
23. Challenges in Adaption of IoT by Cities
Ubiquitous
connectivity
Ubiquitous
connectivity Security and
“trustability”
Interoperability
24. Challenges in Adaption of IoT by Cities
Lack of “role
models”
Return on
Investment (RoI)
Adaptability