Fog computing is a model that processes data and applications at the edge of the network, rather than sending all data to the cloud. It helps address issues with IoT networks like high latency and bandwidth usage. Fog computing can overcome cloud limitations by keeping data local, reducing congestion and improving security. It is well-suited for applications that require real-time, localized processing like connected vehicles, smart grids, smart cities, and healthcare. Fog computing lowers costs and improves efficiencies compared to relying solely on cloud infrastructure.
This document provides an introduction to fog computing. Fog computing is a model where data processing and applications occur at the edge of networks rather than solely in the cloud. This helps address limitations of cloud computing like high latency and bandwidth usage. Key characteristics of fog computing include low latency, geographical distribution, mobility support, and real-time interactions. Potential applications discussed are connected cars, smart grids, and smart traffic lights, which can benefit from fog computing's low latency and location awareness.
Fog computing is a model that processes data closer to IoT devices rather than in the cloud. It addresses the limitations of cloud like high latency and bandwidth issues. Fog extends cloud services by providing computation, storage and applications at the edge of the network. Key applications of fog include connected vehicles, smart grids, smart buildings and healthcare. Fog computing supports mobility, location awareness, low latency and real-time interactions between heterogeneous edge devices and sensors.
The document provides an overview of cloud computing, including definitions of cloud computing, deployment and service models, advantages and benefits, security considerations, virtualization, migration strategies for moving applications and workloads to the cloud, developing applications for the cloud, and future trends in cloud computing. It also includes descriptions of major cloud providers like AWS, Azure, and GCP.
Fog computing is the next stage of cloud computing. The presentation provides a comparison between cloud and fog computing and discusses how live migration is useful in the field of fog computing.
Fog computing factory in alliance nearly bovine computing, optimizing the use of this resource. Currently, crush exercise matter is abeyance to the backward, stored and analyzed, limitation which a decision is made and action taken. But this practices isn’t efficient. Utter computing allows computing, honest and action-taking to enter into the picture near IoT belongings and only pushes relevant matter to the cloud. “Fuzz distributes not at all bad quick-wittedness near at the service better accordingly we nub run this torrent of observations,” explains Baker. “So we thus adjustment it newcomer disabuse of uphold data into unalloyed hint go wool-gathering has favour lose concentration gear up gets forwarded up to the cloud. We posterior then heap up it into data warehouses; we bum do predictive analysis.” This beyond to the data-path send away for is enabled by the increased count functionality that manufacturers such as Cisco are building into their edge switches and routers. Fog Computing plays a role. Nonetheless it is a advanced pronunciation, this technology ahead has a designation backing bowels the globe of the modish data centre and the cloud. Bringing details adjust to the user. The middle of facts zoological unbecoming near the unresponsive creates a straightforward convene to cache observations or other help. These services would be located actual to the end-user to proceed on latency concerns and data access. Rather than of conformation inform at data centre sites anent outlandish the end-point, the Fuzz aims to place the data close to the end-user. Creating purblind geographical distribution. Fogginess computing extends forthright clouded advice by creating a help network which sits at numerous points. This, screen, geographically verbose infrastructure helps in numerous ways. Foremost of enclosing, chunky details and analytics arise be unalloyed faster with better results. Gifted-bodied, administrators are able to on ice location-based
Fog computing extends cloud computing by providing compute, storage, and networking services between end devices and cloud computing data centers. It places resources closer to end users and devices to enable low latency applications and real-time response. Key benefits include reducing bandwidth usage and latency for applications such as smart traffic lights that require reaction times less than 10 milliseconds. Fog computing complements cloud computing by handling local analytics and filtering data, while cloud computing performs longer term, resource intensive analytics.
Improving Web Siste Performance Using Edge Services in Fog Computing Architec...Jiang Zhu
We consider web optimization within Fog Computing context. We apply existing methods for web optimization in a novel manner, such that these methods can be combined with unique knowledge that is only available at the edge (Fog) nodes. More dynamic adaptation to the user’s conditions (eg. network status and device’s computing load) can also be accomplished with network edge specific knowledge. As a result, a user’s webpage rendering performance is improved beyond that achieved by simply applying those methods at the webserver or CDNs.
Fog computing is a model that processes data and applications at the edge of the network, rather than sending all data to the cloud. It helps address issues with IoT networks like high latency and bandwidth usage. Fog computing can overcome cloud limitations by keeping data local, reducing congestion and improving security. It is well-suited for applications that require real-time, localized processing like connected vehicles, smart grids, smart cities, and healthcare. Fog computing lowers costs and improves efficiencies compared to relying solely on cloud infrastructure.
This document provides an introduction to fog computing. Fog computing is a model where data processing and applications occur at the edge of networks rather than solely in the cloud. This helps address limitations of cloud computing like high latency and bandwidth usage. Key characteristics of fog computing include low latency, geographical distribution, mobility support, and real-time interactions. Potential applications discussed are connected cars, smart grids, and smart traffic lights, which can benefit from fog computing's low latency and location awareness.
Fog computing is a model that processes data closer to IoT devices rather than in the cloud. It addresses the limitations of cloud like high latency and bandwidth issues. Fog extends cloud services by providing computation, storage and applications at the edge of the network. Key applications of fog include connected vehicles, smart grids, smart buildings and healthcare. Fog computing supports mobility, location awareness, low latency and real-time interactions between heterogeneous edge devices and sensors.
The document provides an overview of cloud computing, including definitions of cloud computing, deployment and service models, advantages and benefits, security considerations, virtualization, migration strategies for moving applications and workloads to the cloud, developing applications for the cloud, and future trends in cloud computing. It also includes descriptions of major cloud providers like AWS, Azure, and GCP.
Fog computing is the next stage of cloud computing. The presentation provides a comparison between cloud and fog computing and discusses how live migration is useful in the field of fog computing.
Fog computing factory in alliance nearly bovine computing, optimizing the use of this resource. Currently, crush exercise matter is abeyance to the backward, stored and analyzed, limitation which a decision is made and action taken. But this practices isn’t efficient. Utter computing allows computing, honest and action-taking to enter into the picture near IoT belongings and only pushes relevant matter to the cloud. “Fuzz distributes not at all bad quick-wittedness near at the service better accordingly we nub run this torrent of observations,” explains Baker. “So we thus adjustment it newcomer disabuse of uphold data into unalloyed hint go wool-gathering has favour lose concentration gear up gets forwarded up to the cloud. We posterior then heap up it into data warehouses; we bum do predictive analysis.” This beyond to the data-path send away for is enabled by the increased count functionality that manufacturers such as Cisco are building into their edge switches and routers. Fog Computing plays a role. Nonetheless it is a advanced pronunciation, this technology ahead has a designation backing bowels the globe of the modish data centre and the cloud. Bringing details adjust to the user. The middle of facts zoological unbecoming near the unresponsive creates a straightforward convene to cache observations or other help. These services would be located actual to the end-user to proceed on latency concerns and data access. Rather than of conformation inform at data centre sites anent outlandish the end-point, the Fuzz aims to place the data close to the end-user. Creating purblind geographical distribution. Fogginess computing extends forthright clouded advice by creating a help network which sits at numerous points. This, screen, geographically verbose infrastructure helps in numerous ways. Foremost of enclosing, chunky details and analytics arise be unalloyed faster with better results. Gifted-bodied, administrators are able to on ice location-based
Fog computing extends cloud computing by providing compute, storage, and networking services between end devices and cloud computing data centers. It places resources closer to end users and devices to enable low latency applications and real-time response. Key benefits include reducing bandwidth usage and latency for applications such as smart traffic lights that require reaction times less than 10 milliseconds. Fog computing complements cloud computing by handling local analytics and filtering data, while cloud computing performs longer term, resource intensive analytics.
Improving Web Siste Performance Using Edge Services in Fog Computing Architec...Jiang Zhu
We consider web optimization within Fog Computing context. We apply existing methods for web optimization in a novel manner, such that these methods can be combined with unique knowledge that is only available at the edge (Fog) nodes. More dynamic adaptation to the user’s conditions (eg. network status and device’s computing load) can also be accomplished with network edge specific knowledge. As a result, a user’s webpage rendering performance is improved beyond that achieved by simply applying those methods at the webserver or CDNs.
This document discusses cloud computing, including its pros and cons for pharmaceutical companies. It describes the three types of cloud services - Infrastructure as a Service (IaaS), Platform as a Service (PaaS), and Software as a Service (SaaS). While cloud computing provides benefits like elastic resources and lower costs, it also poses risks around data security, regulatory compliance, and loss of control. The document analyzes specific cloud applications for molecular modeling and considers how cloud computing could be applicable in the pharmaceutical industry.
Walking through the fog (computing) - Keynote talk at Italian Networking Work...FBK CREATE-NET
"Walking through the fog (computing): trends, use-cases and open issues"
Despite its huge success in many IT-enabled application scenarios, cloud computing has demonstrated some intrinsic limitations that may severely limit its adoption in several contexts where constraints like e.g. preserving data locally, ensuring real-time reactivity or guaranteeing operation continuity despite lack of Internet connectivity (or a combination of them) are mandatory. These distinguishing requirements fostered an increased interest toward computing approaches that inherit the flexibility and adaptability of the cloud paradigm, while acting in proximity of a specific scenario. As a consequence, the emergence of this “proximity computing” approach has exploded into a plethora of architectural solutions (and novel terms) like fog computing, edge computing, dew computing, mist computing but also cloudlets, mobile cloud computing, mobile edge computing (and probably few others I may not be aware of…). The talk will initially make an attempt to introduce some clarity among these “foggy” definitions by proposing a taxonomy whose aim is to help identifying their peculiarities as well as their overlaps. Afterwards, the most important components of a generalized proximity computing architecture will be explained, followed by the description of few research works and use cases investigated within our Center and based on this emerging paradigm. An overview of open issues and interesting research directions will conclude the talk.
Cloud computing provides on-demand access to computing resources and data storage over the Internet. There are three main types of cloud computing models: Infrastructure as a Service (IaaS), Platform as a Service (PaaS), and Software as a Service (SaaS). IaaS provides basic computing resources, PaaS provides platforms for developing applications, and SaaS provides fully hosted software. Major cloud providers include Amazon Web Services, Microsoft Azure, Google Cloud, and IBM Cloud. The lifecycle of a cloud solution involves defining requirements, choosing appropriate computing, storage, networking and security services, testing processes, and analyzing data.
Cloud computing is the on-demand availability of computer resources like data storage, computing power, and applications over the internet without active management by the user. It was originally conceived in the 1960s and uses hardware and software delivered as a service over a network. Users can access files and applications from any device connected to the network. While Amazon helped popularize the concept, cloud computing allows data and applications to be stored on remote servers rather than local devices, improving access and reducing costs. The main types of cloud include public, private, and hybrid clouds. Cloud services provide infrastructure, platforms, software, and other resources to users on demand.
This document discusses cloud computing. It defines cloud computing as network-based computing that takes place over the Internet using integrated hardware, software, and networking services delivered through the Internet. Cloud computing provides on-demand access to shared computing resources like servers, storage, databases, and more via the web or mobile devices. The document outlines different cloud deployment models including private, public, hybrid and community clouds as well as different service models like SaaS, PaaS and IaaS. It discusses advantages like cost efficiency and convenience as well as disadvantages like security concerns and limited features of cloud computing.
Fog computing is a model that processes and stores data near network edge devices rather than solely in cloud data centers. It extends cloud computing to the edge of the network to provide low latency services to end users. Key characteristics include proximity to users, dense geographical distribution, and support for mobility. Fog computing is well-suited for applications requiring real-time processing like industrial automation and IoT networks of sensors. It helps improve quality of service by bringing services closer to users and enabling real-time analytics on distributed data sources.
This document discusses fog computing and its role in supporting Internet of Things applications. It defines fog computing as extending cloud computing to the edge of the network to enable applications requiring low latency, mobility support, and location awareness. Key characteristics of fog include its geographical distribution, support for real-time interactions, and role in streaming and sensor applications. The document argues fog is well-suited as a platform for connected vehicles, smart grids, smart cities, and wireless sensor networks due to its ability to meet latency and mobility requirements. It also describes the interplay between fog and cloud for data analytics, with fog handling real-time analytics near data sources and cloud providing long-term global analytics.
This document defines cloud computing and outlines its key characteristics. Cloud computing provides on-demand access to shared computing resources like networks, servers, storage, applications and services over the internet. Users can access these resources from anywhere without needing to manage the physical infrastructure. The cloud offers advantages like flexibility, scalability, device independence and reduced costs compared to maintaining physical servers. However, security, vendor lock-in and reliance on a stable internet connection are challenges to cloud computing adoption.
Attack graph generation for micro services architectureAbdul Qadir
Cyber crime is an evolving issue for global enterprises and individuals. Cyber criminals (i.e., attackers) are focusing more on valuable assets and critical infrastructures in a networked system (e.g., enterprise systems and cyber physical systems), which potentially has a high socioeconomic impact in an event of an attack. Security mechanisms (e.g., firewalls) may enhance the security, but the overall in-depth security of the networked system cannot be estimated without a security analysis (e.g., cannot identify security flaws and potential threats). Moreover, attackers may explore an attack surface of the networked system to find vulnerabilities, and exploit them to penetrate through. Therefore, it is important to reduce and continuously change the attack surface based on a security analysis.
When remote command injection attacks succeed at the entry points of a cloud (servers exposed to the outside Internet), attackers targeting a specific asset in the cloud will pursue further exploration to find their targets. Attack targets, such as database servers, are often running on separate machines, forcing an extra step for a successful attack.
This document provides an overview of emerging machine learning architectures, including cloud, edge, fog, and mist computing. It discusses the timeline of remote and machine learning computing from early cloud computing to current edge and fog approaches. The need for edge computing to address latency issues for applications like augmented reality and face recognition is explained. Key aspects of fog computing like its role in scalably extending cloud computing to network edges are covered. The document also provides an example of implementing deep learning for an IoT video recognition application across edge and cloud resources.
The document discusses cloud storage and file systems. It provides an overview of cloud storage, noting that data is stored across multiple servers and locations managed by hosting companies. Customers can purchase storage capacity as needed. File systems for cloud computing allow many clients shared access to data partitioned across chunks stored on remote machines. Popular distributed file systems like GFS and HDFS are designed to handle large datasets across thousands of servers for applications requiring massive parallel processing. Load balancing is important to efficiently distribute workloads.
The document discusses the integration of fog computing with Internet of Things (IoT) applications. It introduces fog computing and how it extends cloud computing by providing data processing and storage locally at IoT devices to address challenges of latency and mobility. Benefits of fog computing include low latency, scalability, and flexibility to support various IoT applications like smart homes, healthcare, traffic lights, and connected cars. Challenges of integrating fog computing with IoT include security, privacy, resource estimation, and ensuring communication between fog servers and the cloud. The document reviews open issues and concludes by discussing future research directions for fog computing and IoT integration.
Cloud computing is an umbrella term used to refer to Internet based development and services
A number of characteristics define cloud data, applications services and infrastructure:
Remotely hosted: Services or data are hosted on remote infrastructure.
Ubiquitous: Services or data are available from anywhere.
Insights of cloud computing
*Types of cloud computing
*Cloud Computing Market
*Sneak Peak of top 5 players
*Role of Intellectual Property Services in Software Technology Protection
*Share of Cloud Computing Patents by Major Companies
*Patent acquisition steps
*Amazon case study
Do you want to know what is cloud computing? here you can learn history of cloud computing, application of cloud computing. this is the best ppt for Cloud computing beginners.
This document provides an overview of cloud computing, including its definition, history, key properties, usage, and pros and cons. Cloud computing allows large groups of users to access software, platforms, and infrastructure over the internet. It provides users flexibility and scalability compared to traditional personal computing. While security and speed issues remain challenges, cloud computing is expected to continue expanding and becoming more dominant in the future.
Cloud computing is the emerging trend in todays world. Cloud computing is not a separate technology, it is platform which provides platform as a service, Infrastructure as a service and Software as a service. The most important thing with cloud is that we hire everything from a third party or store our important datas in a third parties place .Here comes the major issue of how our datas are secured. In this paper, we discuss about how to protect our datas in the cloud with various cryptographic techniques. Padmapriya I | Ragini H "Cloud Cryptography" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-3 | Issue-2 , February 2019, URL: https://www.ijtsrd.com/papers/ijtsrd21547.pdf
Paper URL: https://www.ijtsrd.com/computer-science/computer-network/21547/cloud-cryptography/padmapriya-i
The Security and Privacy Threats to Cloud ComputingAnkit Singh
This document discusses security and privacy threats to cloud computing. It begins with an introduction to cloud computing, describing cloud service models and threats. It then analyzes security weaknesses like lack of encryption and data leaks. Recommendations for research from ENISA are provided. The document also discusses how governments can access user data. Finally, it describes the TClouds project for more trustworthy clouds and concludes that privacy is a major challenge when storing sensitive data in the cloud.
Your Basic Building Blocks - AWS Compute - AWS Summit Tel Aviv 2017Amazon Web Services
AWS offers multiple compute products allowing you to deploy, run, and scale your applications as virtual servers, containers, or code. This session will cover the main service starting with Amazon EC2 - Resizable cloud-based compute capacity, Amazon Lightsail - The easiest way to launch and manage a virtual private server, Amazon EC2 Container Service (ECS) - highly scalable, high performance container management service that supports Docker containers and AWS Lambda which allows you to run code without provisioning or managing servers.
The document provides an overview of an AWS 101 presentation. It includes an agenda for the presentation covering AWS concepts and live demonstrations of keypairs, security groups, EC2 instances, autoscaling, Amazon Machine Images, S3, CloudFront, Elastic Load Balancer, and RDS. It also provides background information on Amazon Web Services and an overview of the various AWS services covered in the toolbox section.
This document discusses cloud computing, including its pros and cons for pharmaceutical companies. It describes the three types of cloud services - Infrastructure as a Service (IaaS), Platform as a Service (PaaS), and Software as a Service (SaaS). While cloud computing provides benefits like elastic resources and lower costs, it also poses risks around data security, regulatory compliance, and loss of control. The document analyzes specific cloud applications for molecular modeling and considers how cloud computing could be applicable in the pharmaceutical industry.
Walking through the fog (computing) - Keynote talk at Italian Networking Work...FBK CREATE-NET
"Walking through the fog (computing): trends, use-cases and open issues"
Despite its huge success in many IT-enabled application scenarios, cloud computing has demonstrated some intrinsic limitations that may severely limit its adoption in several contexts where constraints like e.g. preserving data locally, ensuring real-time reactivity or guaranteeing operation continuity despite lack of Internet connectivity (or a combination of them) are mandatory. These distinguishing requirements fostered an increased interest toward computing approaches that inherit the flexibility and adaptability of the cloud paradigm, while acting in proximity of a specific scenario. As a consequence, the emergence of this “proximity computing” approach has exploded into a plethora of architectural solutions (and novel terms) like fog computing, edge computing, dew computing, mist computing but also cloudlets, mobile cloud computing, mobile edge computing (and probably few others I may not be aware of…). The talk will initially make an attempt to introduce some clarity among these “foggy” definitions by proposing a taxonomy whose aim is to help identifying their peculiarities as well as their overlaps. Afterwards, the most important components of a generalized proximity computing architecture will be explained, followed by the description of few research works and use cases investigated within our Center and based on this emerging paradigm. An overview of open issues and interesting research directions will conclude the talk.
Cloud computing provides on-demand access to computing resources and data storage over the Internet. There are three main types of cloud computing models: Infrastructure as a Service (IaaS), Platform as a Service (PaaS), and Software as a Service (SaaS). IaaS provides basic computing resources, PaaS provides platforms for developing applications, and SaaS provides fully hosted software. Major cloud providers include Amazon Web Services, Microsoft Azure, Google Cloud, and IBM Cloud. The lifecycle of a cloud solution involves defining requirements, choosing appropriate computing, storage, networking and security services, testing processes, and analyzing data.
Cloud computing is the on-demand availability of computer resources like data storage, computing power, and applications over the internet without active management by the user. It was originally conceived in the 1960s and uses hardware and software delivered as a service over a network. Users can access files and applications from any device connected to the network. While Amazon helped popularize the concept, cloud computing allows data and applications to be stored on remote servers rather than local devices, improving access and reducing costs. The main types of cloud include public, private, and hybrid clouds. Cloud services provide infrastructure, platforms, software, and other resources to users on demand.
This document discusses cloud computing. It defines cloud computing as network-based computing that takes place over the Internet using integrated hardware, software, and networking services delivered through the Internet. Cloud computing provides on-demand access to shared computing resources like servers, storage, databases, and more via the web or mobile devices. The document outlines different cloud deployment models including private, public, hybrid and community clouds as well as different service models like SaaS, PaaS and IaaS. It discusses advantages like cost efficiency and convenience as well as disadvantages like security concerns and limited features of cloud computing.
Fog computing is a model that processes and stores data near network edge devices rather than solely in cloud data centers. It extends cloud computing to the edge of the network to provide low latency services to end users. Key characteristics include proximity to users, dense geographical distribution, and support for mobility. Fog computing is well-suited for applications requiring real-time processing like industrial automation and IoT networks of sensors. It helps improve quality of service by bringing services closer to users and enabling real-time analytics on distributed data sources.
This document discusses fog computing and its role in supporting Internet of Things applications. It defines fog computing as extending cloud computing to the edge of the network to enable applications requiring low latency, mobility support, and location awareness. Key characteristics of fog include its geographical distribution, support for real-time interactions, and role in streaming and sensor applications. The document argues fog is well-suited as a platform for connected vehicles, smart grids, smart cities, and wireless sensor networks due to its ability to meet latency and mobility requirements. It also describes the interplay between fog and cloud for data analytics, with fog handling real-time analytics near data sources and cloud providing long-term global analytics.
This document defines cloud computing and outlines its key characteristics. Cloud computing provides on-demand access to shared computing resources like networks, servers, storage, applications and services over the internet. Users can access these resources from anywhere without needing to manage the physical infrastructure. The cloud offers advantages like flexibility, scalability, device independence and reduced costs compared to maintaining physical servers. However, security, vendor lock-in and reliance on a stable internet connection are challenges to cloud computing adoption.
Attack graph generation for micro services architectureAbdul Qadir
Cyber crime is an evolving issue for global enterprises and individuals. Cyber criminals (i.e., attackers) are focusing more on valuable assets and critical infrastructures in a networked system (e.g., enterprise systems and cyber physical systems), which potentially has a high socioeconomic impact in an event of an attack. Security mechanisms (e.g., firewalls) may enhance the security, but the overall in-depth security of the networked system cannot be estimated without a security analysis (e.g., cannot identify security flaws and potential threats). Moreover, attackers may explore an attack surface of the networked system to find vulnerabilities, and exploit them to penetrate through. Therefore, it is important to reduce and continuously change the attack surface based on a security analysis.
When remote command injection attacks succeed at the entry points of a cloud (servers exposed to the outside Internet), attackers targeting a specific asset in the cloud will pursue further exploration to find their targets. Attack targets, such as database servers, are often running on separate machines, forcing an extra step for a successful attack.
This document provides an overview of emerging machine learning architectures, including cloud, edge, fog, and mist computing. It discusses the timeline of remote and machine learning computing from early cloud computing to current edge and fog approaches. The need for edge computing to address latency issues for applications like augmented reality and face recognition is explained. Key aspects of fog computing like its role in scalably extending cloud computing to network edges are covered. The document also provides an example of implementing deep learning for an IoT video recognition application across edge and cloud resources.
The document discusses cloud storage and file systems. It provides an overview of cloud storage, noting that data is stored across multiple servers and locations managed by hosting companies. Customers can purchase storage capacity as needed. File systems for cloud computing allow many clients shared access to data partitioned across chunks stored on remote machines. Popular distributed file systems like GFS and HDFS are designed to handle large datasets across thousands of servers for applications requiring massive parallel processing. Load balancing is important to efficiently distribute workloads.
The document discusses the integration of fog computing with Internet of Things (IoT) applications. It introduces fog computing and how it extends cloud computing by providing data processing and storage locally at IoT devices to address challenges of latency and mobility. Benefits of fog computing include low latency, scalability, and flexibility to support various IoT applications like smart homes, healthcare, traffic lights, and connected cars. Challenges of integrating fog computing with IoT include security, privacy, resource estimation, and ensuring communication between fog servers and the cloud. The document reviews open issues and concludes by discussing future research directions for fog computing and IoT integration.
Cloud computing is an umbrella term used to refer to Internet based development and services
A number of characteristics define cloud data, applications services and infrastructure:
Remotely hosted: Services or data are hosted on remote infrastructure.
Ubiquitous: Services or data are available from anywhere.
Insights of cloud computing
*Types of cloud computing
*Cloud Computing Market
*Sneak Peak of top 5 players
*Role of Intellectual Property Services in Software Technology Protection
*Share of Cloud Computing Patents by Major Companies
*Patent acquisition steps
*Amazon case study
Do you want to know what is cloud computing? here you can learn history of cloud computing, application of cloud computing. this is the best ppt for Cloud computing beginners.
This document provides an overview of cloud computing, including its definition, history, key properties, usage, and pros and cons. Cloud computing allows large groups of users to access software, platforms, and infrastructure over the internet. It provides users flexibility and scalability compared to traditional personal computing. While security and speed issues remain challenges, cloud computing is expected to continue expanding and becoming more dominant in the future.
Cloud computing is the emerging trend in todays world. Cloud computing is not a separate technology, it is platform which provides platform as a service, Infrastructure as a service and Software as a service. The most important thing with cloud is that we hire everything from a third party or store our important datas in a third parties place .Here comes the major issue of how our datas are secured. In this paper, we discuss about how to protect our datas in the cloud with various cryptographic techniques. Padmapriya I | Ragini H "Cloud Cryptography" Published in International Journal of Trend in Scientific Research and Development (ijtsrd), ISSN: 2456-6470, Volume-3 | Issue-2 , February 2019, URL: https://www.ijtsrd.com/papers/ijtsrd21547.pdf
Paper URL: https://www.ijtsrd.com/computer-science/computer-network/21547/cloud-cryptography/padmapriya-i
The Security and Privacy Threats to Cloud ComputingAnkit Singh
This document discusses security and privacy threats to cloud computing. It begins with an introduction to cloud computing, describing cloud service models and threats. It then analyzes security weaknesses like lack of encryption and data leaks. Recommendations for research from ENISA are provided. The document also discusses how governments can access user data. Finally, it describes the TClouds project for more trustworthy clouds and concludes that privacy is a major challenge when storing sensitive data in the cloud.
Your Basic Building Blocks - AWS Compute - AWS Summit Tel Aviv 2017Amazon Web Services
AWS offers multiple compute products allowing you to deploy, run, and scale your applications as virtual servers, containers, or code. This session will cover the main service starting with Amazon EC2 - Resizable cloud-based compute capacity, Amazon Lightsail - The easiest way to launch and manage a virtual private server, Amazon EC2 Container Service (ECS) - highly scalable, high performance container management service that supports Docker containers and AWS Lambda which allows you to run code without provisioning or managing servers.
The document provides an overview of an AWS 101 presentation. It includes an agenda for the presentation covering AWS concepts and live demonstrations of keypairs, security groups, EC2 instances, autoscaling, Amazon Machine Images, S3, CloudFront, Elastic Load Balancer, and RDS. It also provides background information on Amazon Web Services and an overview of the various AWS services covered in the toolbox section.
The document provides an overview and agenda for the AWS Dev Tech Summit. It summarizes Amazon Web Services (AWS) as a cloud computing platform that provides flexible, scalable, and cost-effective IT infrastructure. It outlines key AWS services like EC2, S3, SQS, and highlights how AWS aims to reduce costs and improve time to market by managing infrastructure. The agenda includes talks from customer companies and an overview of AWS tools.
This document discusses security management for cloud computing on AWS. It describes AWS regions and availability zones around the world. It then discusses that security cannot block innovation and shows that AWS adds security features faster than other significant features. It outlines that AWS manages security of the cloud while customers are responsible for security in the cloud. Key security services on AWS include identity and access management, encryption options, security groups, and CloudTrail to log API usage.
Amazon Web Services for Application Hosting | SugarCon 2011SugarCRM
In this presentation, Jeff Barr will introduce the principal Amazon Web Services from a business and technical point of view. Jeff will review the economics of cloud-based solutions, and will discuss the Elastic Compute Cloud (EC2), the Simple Storage Service (S3), and the Relational Database Service (RDS). Jeff will also discuss the ins and outs of hosting complex applications on AWS.
Presented by Jeff Barr, Senior Web Services Evangelist, Amazon Web Services, at SugarCon 2011.
Content Delivery: accelerare in modo sicuro e flessibile siti web e applicazioniAmazon Web Services
This document discusses using Amazon CloudFront, Lambda@Edge, AWS Shield, and AWS WAF to provide flexible, secure content delivery. It describes how Amazon CloudFront's global network of edge locations can improve performance and availability. Lambda@Edge allows running code at edge locations to customize content for users. AWS Shield provides DDoS protection, and AWS WAF provides web application firewall capabilities to filter malicious traffic and protect applications.
This document provides an overview of Amazon Web Services (AWS) including its history, services, pricing model, global infrastructure, and how customers can get started with AWS. It describes how AWS began as Amazon's internal infrastructure and has grown to serve over 1 million customers globally across industries like startups, enterprises, and government agencies. The document outlines AWS's broad range of cloud computing services across categories like compute, storage, databases, analytics, mobile, and more. It emphasizes AWS's focus on innovation with new services and features, lower prices through economies of scale, and its utility-based on-demand pricing model. Finally, it suggests steps for getting started like using the free tier, training, and certification programs.
AWS provides a wide range of cloud computing services including compute, storage, databases, analytics, machine learning, and more. The document discusses key AWS services such as EC2 for virtual servers, S3 for object storage, DynamoDB for NoSQL databases, Lambda for serverless computing, and others. It also covers AWS concepts like regions, availability zones, deployment models, and service models.
What is Innovation? How can cloud computing help you innovate? How can you make your applications smarter? Predictive? How can you interpret data and anticipate trends? With AWS Artificial Intelligence Solutions: Machine Learning, Rekognition, Polly; with serverless - Lambda, Step Functions.
Introduction to AWS OutIntroduction to AWS Outposts - CMP203 - Chicago AWS Su...Amazon Web Services
AWS Outposts allows customers to run compute and storage on-premises while connecting to AWS's full range of services in the cloud. It provides three main benefits:
1) It allows customers to build applications once and deploy them on-premises or in the cloud using the same AWS APIs, services, and tools.
2) It offers a fully managed service model so customers don't have to worry about procuring, operating, or maintaining their own infrastructure.
3) It provides the same security, performance, reliability, and operational experience of AWS regions while also addressing the needs of applications that require low latency access to on-premises systems or local data processing.
This document provides an overview and introduction to Amazon Web Services (AWS) and cloud computing. It discusses what cloud computing and AWS are, the benefits of using AWS like cost savings and agility, AWS global infrastructure and services, and how to get started with AWS. It also includes demonstrations of using AWS services like S3, CloudFront, EC2 and Lambda.
AWS Summit 2013 | India - Web, Mobile and Social Apps on AWS, Kingsley WoodAmazon Web Services
This document provides an overview of Amazon Web Services (AWS) and best practices for building scalable applications in the cloud. It discusses using AWS services like S3, CloudFront, Route53, EC2, ELB, Auto Scaling, RDS and DynamoDB. The key recommendations are to offload static content, cache content at the edge, avoid duplicating code/assets, load balance from the start, implement auto scaling correctly, leverage database services, and test/optimize applications. The goal is to build highly scalable and reliable applications that can grow from a startup to support millions of users globally.
Aws 101 A walk-through the aws cloud (2013)Martin Yan
AWS 101 - A Walk through the AWS Cloud: Introduction to Cloud Computing with AWS
This document provides an introduction to Amazon Web Services (AWS) and cloud computing. It discusses the benefits of cloud computing such as pay-as-you-go pricing, lower costs, scalability, agility, and removing the need to manage infrastructure. The document also summarizes AWS's global infrastructure and regions, services such as compute, storage, databases and analytics, and how customers can get started with the free tier. Examples are given of how various organizations are using AWS across different industries.
This document provides an overview of Amazon Web Services (AWS). It discusses the advantages and disadvantages of cloud computing. It then details AWS's global infrastructure, including 16 regions and 42 availability zones worldwide. It provides information on AWS services for networking, compute, storage, databases, migration, analytics, security, management tools, applications, developer tools, and other areas. It also lists developer resources for learning about AWS.
This document provides an overview and demos of AWS Lambda@Edge. It discusses how Lambda@Edge allows developers to run Node.js code at AWS edge locations to customize content delivery. Some key use cases include modifying requests and responses, URL rewriting, response generation from multiple origins, and adding security headers. The presentation includes demos of redirecting URLs, personalization, and A/B testing using Lambda@Edge.
The document provides an overview of the modules in an AWS training course. Module 1 introduces AWS and its history. Module 2 focuses on foundational AWS services including Amazon EC2, Amazon VPC, Amazon S3, and Amazon EBS. It describes launching EC2 instances, instance types, the instance lifecycle, and choosing the right instance. It also discusses VPCs and Amazon's storage services S3 and EBS.
The document provides information about an AWS training event, including:
- The WiFi password and information about where to find people to ask questions.
- Thanks to the sponsor of the event.
- The instructor's contact information and details about Module 1 on the introduction and history of AWS.
Cloud Spotting 2017: An overview of cloud computingPatrice Kerremans
An overview of cloud computing I taught to students. With a strong bias towards Amazon Web Services (AWS). Some examples are included as well as an overview of the most important AWS services.
AWS Cloud Kata 2014 | Jakarta - 2-1 AWS Intro and Scale 2014Amazon Web Services
This document provides an overview of strategies for building scalable applications on AWS. It recommends starting simply with EC2, RDS, and Route 53, then adding services like S3, DynamoDB, ElastiCache, and CloudFront to optimize performance. Auto Scaling is introduced to automatically scale resources based on demand. The document discusses best practices like separating databases by function, implementing sharding, and leveraging serverless options. The goal is to demonstrate how these techniques can help applications scale to millions of users on AWS.
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2. The AWS Cloud: 16 Regions, 42 Availability Zones
https://aws.amazon.com/about-aws/global-infrastructure/
3. The AWS Edge: 74 Locations
https://aws.amazon.com/about-aws/global-infrastructure/
Ashburn, VA (3), Atlanta GA (3), Chicago,
IL, Dallas/Fort Worth, TX (2), Hayward, CA,
Jacksonville, FL, Los Angeles, CA (2),
Miami, FL, Minneapolis, MN, New York, NY
(3), Newark, NJ, Palo Alto, CA,
Philadelphia, PA, San Jose, CA, Seattle,
WA, South Bend, IN, St. Louis, MO,
Montreal, QC, Toronto, ON
Rio de Janeiro, Brazil, São Paulo, Brazil (2)
Amsterdam, The Netherlands (2), Berlin,
Germany, Dublin, Ireland, Frankfurt,
Germany (5), London, England (4), Madrid,
Spain, Marseille, France, Milan, Italy,
Munich, Germany, Paris, France (2),
Prague, Czech Republic, Stockholm,
Sweden, Vienna, Austria, Warsaw, Poland
Zurich, Switzerland.
Chennai, India, Hong Kong, China (3),
Manila, the Philippines, Melbourne,
Australia, Mumbai, India (2), New Delhi,
India, Osaka, Japan, Seoul, Korea (3),
Singapore (2), Sydney, Australia, Taipei,
Taiwan, Tokyo, Japan (3)
11. AWS Lambda: Serverless computing
• Run code without servers: Node.js, Python, Java, C#
• Triggered by events or called from APIs:
– PUT to an Amazon S3 bucket
– Updates to Amazon DynamoDB table
– Call to an Amazon API Gateway endpoint
– Mobile app back-end call
– CloudFront requests
– And many more…
• Makes it easy to:
– Perform real-time data processing
– Build scalable back-end services
– Glue pieces of AWS infrastructure
12. Running code at Edge Locations: Lambda@Edge
• Lambda@Edge is an extension of AWS Lambda that allows you to run your
Node.js code at AWS Edge Locations.
• Customize your content very close to your users, improving the end-user
experience.
Continuous
scaling
No servers
to manage
Never pay for idle –
no cold servers
Globally
distributed
14. Write Once, Deploy Everywhere
https://aws.amazon.com/about-aws/global-infrastructure/
Ashburn, VA (3), Atlanta GA (3), Chicago,
IL, Dallas/Fort Worth, TX (2), Hayward, CA,
Jacksonville, FL, Los Angeles, CA (2),
Miami, FL, Minneapolis, MN, New York, NY
(3), Newark, NJ, Palo Alto, CA,
Philadelphia, PA, San Jose, CA, Seattle,
WA, South Bend, IN, St. Louis, MO,
Montreal, QC, Toronto, ON
Rio de Janeiro, Brazil, São Paulo, Brazil (2)
Amsterdam, The Netherlands (2), Berlin,
Germany, Dublin, Ireland, Frankfurt,
Germany (5), London, England (4), Madrid,
Spain, Marseille, France, Milan, Italy,
Munich, Germany, Paris, France (2),
Prague, Czech Republic, Stockholm,
Sweden, Vienna, Austria, Warsaw, Poland
Zurich, Switzerland.
Chennai, India, Hong Kong, China (3),
Manila, the Philippines, Melbourne,
Australia, Mumbai, India (2), New Delhi,
India, Osaka, Japan, Seoul, Korea (3),
Singapore (2), Sydney, Australia, Taipei,
Taiwan, Tokyo, Japan (3)
16. Most machine-generated data never reaches the cloud
Medical equipment
Industrial machinery
Extreme environments
17. This problem isn’t going away
Law of physics
Law of economics
Law of the land
AWS Greengrass
18. Our customers need to…
Extend their "
data center
Process data
Expedite "
move
Encrypted, secure, "
and embedded
compute
Write data directly "
when it’s generated
A fast and "
cost effective way to
ensure data can be
quickly transferred to
and from the cloud
Simplify"
data transfer
Use standard "
and familiar tools "
for the data "
transfer process
19. AWS Snowball Edge
Petabyte-scale hybrid device with onboard compute and storage
• 100 TB local storage
• Local compute equivalent to an "
Amazon EC2 m4.4xlarge instance
• 10GBase-T, 10/25Gb SFP28, and "
40Gb QSFP+ copper, and optical "
networking
• Ruggedized and rack-mountable
20. AWS Snowball Edge use cases
Offline "
Staging
Local Tiering and
Compute
IoT
Local
Transformation
21. The Philips IntelliSpace Console"
relies on Snowball Edge
• Aggregates and stores 1200+ "
ICU patient data points per day
• Uses Lambda for data transformation
• Performs real-time analysis
• Keeps running even if hospital faces
an IT / network outage
http://www.usa.philips.com/healthcare/product/HCNOCTN501
30. Deep Learning challenges
• Training Deep Learning models requires a lot of resources (compute & storage)
• Robots or autonomous cars can’t exclusively rely on the Cloud
• #1 issue: network availability, throughput and latency
• Other issues: memory footprint, power consumption, form factor
• Need the best of both worlds
• Elasticity and scalability in the Cloud to train models
• Local, real-time inference on the device