The document discusses security challenges for medical IoT devices. It begins with background on cyber-physical systems, Industry 4.0, and the context of IoT. It then presents a threat model for medical IoT devices, outlining risks across the device lifecycle from physical security to orchestration issues. Regulatory requirements for medical device cybersecurity from the FDA and EU are summarized. Suggestions for improvement include standardizing network communication, strengthening regulations, adopting a security-by-design approach, and supporting secure and agile software updates.
Security for Healthcare Devices – Will Your Device Be Good Enough?Walt Maclay
The Concern: Devices in Healthcare
* Cybersecurity and privacy issues have been on the increase
Security for Wearables Is More Important
* FDA digital health requirements
Security by Design for Healthcare Devices
* How to start security by design and get it right
In the new world of connected healthcare, medical device manufacturers are challenged with cybersecurity issues to comply with the new FDA regulations. We examine the 5 domain areas of cybersecurity which apply to IoT HealthCare Vendors/ Providers.
Secure Your Medical Devices From the Ground Up ICS
The Food and Drug Administration (FDA) has recently released new guidance on cybersecurity for medical devices. This presentation will provide an overview of this guidance and review what is required for 510(k) submissions. We will also discuss the upcoming European Union (EU) cybersecurity regulations and how they compare to the FDA guidance.
This webinar with ICS and partner RTI, the largest software framework company for autonomous systems, will focus on threat modeling and cybersecurity risk assessments in light of the new guidance, and how these activities impact design requirements for medical devices. You will learn common pitfalls and mistakes to avoid when establishing organizational best practices in cybersecurity.
We will also discuss the challenges to securing data in motion for connected medical devices and describe how a data-centric software framework based on open standards, addresses the design requirements for highly reliable, scalable and secure systems.
Attendees will gain an understanding of the current regulatory expectations, best practices for cybersecurity risk assessments, and standards-based solutions for secure data connectivity.
The document discusses Internet of Things (IoT) technologies and their applications. It defines IoT as connecting physical devices through networks to collect and share data. An estimated 26 billion devices will be connected to the IoT by 2020. IoT has applications in healthcare, including remote monitoring of patients' vital signs, managing medical devices, and helping with clinical operations and research. The global IoT healthcare market is valued at $58.4 billion currently and expected to reach $117 billion by 2020. Leading companies pushing the IoT market include Amazon, AT&T, Bosch, Cisco, and Dell by offering connectivity, analytics, and infrastructure services.
Internet of Things (IoT) Security and Privacy Recommendations by Jason Living...CableLabs
As IoT insecurity creates vulnerabilities, policymakers become concerned about the health of the Internet. How can public policy address these concerns in a smart way, targeting their efforts to improve IoT security without imposing unnecessary costs across the Internet ecosystem or creating unintended effects? What is the role of government versus industry?
Jason Livingood
Vice President, Technology Policy & Standards, Comcast
https://www.cablelabs.com/informed/
The document discusses Internet of Things (IoT) certification training on Azure. It defines IoT as connecting regular devices to the Internet so they can interact and share data. It describes applications of IoT in everyday life, healthcare, smart cities, agriculture, industrial automation, and disaster management. Specifically for healthcare, it outlines how IoT provides superior analytics, real-time data, and smarter devices to solve problems faced by the industry like inaccurate data and lack of smart care devices. It also discusses security issues and requirements for IoT in healthcare like confidentiality, integrity and authentication of private patient information. Finally, it mentions future areas of focus for IoT in healthcare around energy efficiency, data security and privacy, and reducing latency for
This document discusses IoT security threats and challenges. It begins by defining IoT as the network of physical objects embedded with electronics, software and sensors that enables them to connect and exchange data. It then discusses common IoT devices and associated security challenges in protecting embedded chips from remote attackers. It outlines common threats like vulnerable perimeters, data breaches, and malware/botnet attacks. Finally, it summarizes the top 10 IoT vulnerabilities introduced by OWASP like insecure interfaces, authentication, encryption and software/firmware issues.
Security Requirements in IoT Architecture Vrince Vimal
Security Requirements in IoT Architecture - Security in Enabling Technologies - Security Concerns in IoT Applications. Security Architecture in the Internet of Things - Security Requirements in IoT - Insufficient Authentication/Authorization - Insecure Access Control - Threats to Access Control, Privacy, and Availability - Attacks Specific to IoT. Vulnerabilities – Secrecy and Secret-Key Capacity - Authentication/Authorization for Smart Devices - Transport Encryption
Security for Healthcare Devices – Will Your Device Be Good Enough?Walt Maclay
The Concern: Devices in Healthcare
* Cybersecurity and privacy issues have been on the increase
Security for Wearables Is More Important
* FDA digital health requirements
Security by Design for Healthcare Devices
* How to start security by design and get it right
In the new world of connected healthcare, medical device manufacturers are challenged with cybersecurity issues to comply with the new FDA regulations. We examine the 5 domain areas of cybersecurity which apply to IoT HealthCare Vendors/ Providers.
Secure Your Medical Devices From the Ground Up ICS
The Food and Drug Administration (FDA) has recently released new guidance on cybersecurity for medical devices. This presentation will provide an overview of this guidance and review what is required for 510(k) submissions. We will also discuss the upcoming European Union (EU) cybersecurity regulations and how they compare to the FDA guidance.
This webinar with ICS and partner RTI, the largest software framework company for autonomous systems, will focus on threat modeling and cybersecurity risk assessments in light of the new guidance, and how these activities impact design requirements for medical devices. You will learn common pitfalls and mistakes to avoid when establishing organizational best practices in cybersecurity.
We will also discuss the challenges to securing data in motion for connected medical devices and describe how a data-centric software framework based on open standards, addresses the design requirements for highly reliable, scalable and secure systems.
Attendees will gain an understanding of the current regulatory expectations, best practices for cybersecurity risk assessments, and standards-based solutions for secure data connectivity.
The document discusses Internet of Things (IoT) technologies and their applications. It defines IoT as connecting physical devices through networks to collect and share data. An estimated 26 billion devices will be connected to the IoT by 2020. IoT has applications in healthcare, including remote monitoring of patients' vital signs, managing medical devices, and helping with clinical operations and research. The global IoT healthcare market is valued at $58.4 billion currently and expected to reach $117 billion by 2020. Leading companies pushing the IoT market include Amazon, AT&T, Bosch, Cisco, and Dell by offering connectivity, analytics, and infrastructure services.
Internet of Things (IoT) Security and Privacy Recommendations by Jason Living...CableLabs
As IoT insecurity creates vulnerabilities, policymakers become concerned about the health of the Internet. How can public policy address these concerns in a smart way, targeting their efforts to improve IoT security without imposing unnecessary costs across the Internet ecosystem or creating unintended effects? What is the role of government versus industry?
Jason Livingood
Vice President, Technology Policy & Standards, Comcast
https://www.cablelabs.com/informed/
The document discusses Internet of Things (IoT) certification training on Azure. It defines IoT as connecting regular devices to the Internet so they can interact and share data. It describes applications of IoT in everyday life, healthcare, smart cities, agriculture, industrial automation, and disaster management. Specifically for healthcare, it outlines how IoT provides superior analytics, real-time data, and smarter devices to solve problems faced by the industry like inaccurate data and lack of smart care devices. It also discusses security issues and requirements for IoT in healthcare like confidentiality, integrity and authentication of private patient information. Finally, it mentions future areas of focus for IoT in healthcare around energy efficiency, data security and privacy, and reducing latency for
This document discusses IoT security threats and challenges. It begins by defining IoT as the network of physical objects embedded with electronics, software and sensors that enables them to connect and exchange data. It then discusses common IoT devices and associated security challenges in protecting embedded chips from remote attackers. It outlines common threats like vulnerable perimeters, data breaches, and malware/botnet attacks. Finally, it summarizes the top 10 IoT vulnerabilities introduced by OWASP like insecure interfaces, authentication, encryption and software/firmware issues.
Security Requirements in IoT Architecture Vrince Vimal
Security Requirements in IoT Architecture - Security in Enabling Technologies - Security Concerns in IoT Applications. Security Architecture in the Internet of Things - Security Requirements in IoT - Insufficient Authentication/Authorization - Insecure Access Control - Threats to Access Control, Privacy, and Availability - Attacks Specific to IoT. Vulnerabilities – Secrecy and Secret-Key Capacity - Authentication/Authorization for Smart Devices - Transport Encryption
Fog Computing is a paradigm that extends Cloud computing and services to the edge of the network. Similar to Cloud, Fog provides data, compute, storage, and application services to end-users. The motivation of Fog computing lies in a series of real scenarios, such as Smart Grid, smart traffic lights in vehicular networks and software defined networks.
The document discusses the Internet of Things (IoT). It defines IoT as the network of physical objects embedded with electronics, software, and sensors to collect and exchange data. The document outlines the history of the internet and how everything has become digitized. It discusses current uses of IoT in areas like smart appliances, healthcare, wearables, and transportation. The future outlook is that each person will interact with 3,000 to 5,000 connected devices. However, increased connectivity also increases risks of terrorism and hacking of critical systems.
The document discusses the Internet of Things (IoT), which connects physical devices to the internet and allows them to collect and exchange data. It describes how IoT is used in various industries and will consist of 50 billion objects by 2020. Some key enabling technologies for IoT are discussed, including RFID, WiFi, barcodes, ZigBee, and smartphones. The document then covers various applications of IoT such as smart homes, connected cars, smart cities, bio-chips, and more. Issues and challenges with IoT adoption are also summarized.
The document provides an introduction to the Internet of Things (IoT). It discusses the history and growth of IoT, including forecasts of 20-50 billion connected devices by 2020. Key enabling technologies for IoT are described, such as sensors, actuators, embedded systems, connectivity standards, and cloud computing. Example applications of IoT are highlighted in areas like smart cities, homes, cars, and industrial settings. However, security and privacy challenges are also noted as areas that must be addressed for IoT to reach its full potential.
The Role of Internet-of-Things (IoT) in HealthcareLuís Rita
The document discusses the role of Internet-of-Things (IoT) technologies in healthcare. It describes a multi-tier IoT system architecture consisting of biosensors, personal devices, and servers. Wireless communication standards are used to transmit health data from wearable devices to medical centers. Case studies from TigerPlace and Washington State University demonstrate how IoT can be used to detect physical and mental impairments through sensors and analyze activities of daily living.
From The Guardian to Cisco, big business to small, it seems that everybody is talking about the Internet of Things — but what exactly is IoT and why does it matter?
Taking a deep dive, we explore the many faces of IoT in Healthcare. Technology research and advisory company, Gartner, currently place the Internet of Things at the peak of inflated expectations and there are certainly challenges. But IoT also holds real promise for healthcare and it is already making an impact today.
We demonstrate why the Internet of Things has a far reaching impact across all determinants of health and how it could lead to a broader model of healthcare. We look at some of the technologies that are available to buy or that are already in development today, whilst also exploring some of the very real challenges that integrating such technologies into healthcare presents. Finally, we offer some ideas about how you can get involved, whether you are a healthcare professional or not.
The document discusses the Internet of Things (IoT). It defines IoT as connecting "things" or objects to the Internet. It traces the origins and development of IoT from 1999 when the term was coined to its growth in recent years. The document also outlines IoT architecture including devices, gateways, protocols and cloud platforms. It examines applications of IoT in various sectors like home automation, transportation, healthcare, agriculture, smart grids and smart cities. Finally, it analyzes challenges to IoT adoption like sensing environments, connectivity standards, power consumption and security/privacy issues.
The Role of Internet-of-Things (IoT) in HealthcareLuís Rita
1st Project - Health Systems.
As a result of ageing population, increasing demand and evolving technology on healthcare systems, the progress in the Internet of Things (IoT) has a key role in suppressing all these needs, in particular, redesigning modern health care with promising technological, economic and social prospects. This paper attempts to comprehensively review the current research and development on the impact of IoT in Healthcare. Relying on a comprehensive literature review, this paper analyses the architecture of an IoT-based systems, focusing on the main components and their value to the overall system. In addition, a perspective on electronic health records and on privacy and security issues are overviewed, along with the review of clinical cases of IoT-based systems. Given IoT clear acceptability and affordability among youngers and elders, combined to a broad range of devices and machine learning techniques, it’s expected these devices will facilitate in many ways health providers’ job, as long as other topics like data protection keep side-by-side.
IST - 4th Year - 2nd Semester - Biomedical Engineering.
This document discusses the use of IoT in medical systems (IoMT). It begins with an overview and introduction to IoMT, describing how it enables machine-to-machine interaction and real-time intervention solutions. It then discusses communication channels in IoMT and applications like chronic disease management. Technologies for implementing IoMT are covered, along with the growing market landscape. Future prospects conclude that IoMT could significantly improve healthcare delivery by implementing connected devices, though challenges remain around device management and cybersecurity. Advantages include improved disease management and decreased costs, while disadvantages include costs and ensuring cybersecurity of connected devices.
This document provides an introduction to IoT security. It discusses key components of IoT including sensors, actuators, microcontrollers, communication capabilities, and identification. The document outlines the ITU-T IoT reference model and describes security challenges at different levels including devices, fog networks, core networks, and data centers. It also discusses common IoT security issues such as unpredictable behavior, device similarity, problematic deployments, lack of upgrades, and lack of transparency. Finally, the document summarizes common IoT security tools including encryption, passwords, hardware security modules, two-factor authentication, and public key infrastructure certificates.
The document discusses Internet of Things (IoT) security challenges and countermeasures. It begins with basics of IoT and sensors, then discusses how IoT connects to the internet. It outlines several approaches to securing IoT, including restricted access, encryption of network and data, managing default APIs, addressing human elements of security, and learning from past exploits. Specific threats like denial of service attacks, man-in-the-middle attacks, and brute force/dictionary attacks are examined. The document concludes that IoT security design must enable open yet secure infrastructure while respecting user privacy through individual policies.
Internet of things are exploding. This whitepaper would help product developers to understand the Security and Privacy issues, their impact and a recommendation for embedding the best practices during PDLC.
Overview of Artificial Intelligence in CybersecurityOlivier Busolini
If you are interested in understsanding a bit more the potential of Artifical Intelligence in Cybersecurity, you might want to have a look at this overview.
Written from my CISO -and non AI expert- point of view, for fellow security professional to navigate the AI hype, and (hopefully!) make better, informed decisions :-)
All feedback welcome !
Wireless Networked Control Systems (WNCSs) are spatially distributed systems in which sensors, actuators, and controllers connect through a wireless network instead of traditional point-to-point links. WNCSs have a tremendous potential to improve the efficiency of many large-scale distributed systems in industrial automation, building automation, automated highway, air transportation, and smart grid. Transmitting sensor measurements and control commands over wireless links provide many benefits such as the ease of installation and maintenance, low complexity and cost, and large flexibility to accommodate the modification and upgrade of the components in many control applications. Several industrial organizations, such as International Society of Automation (ISA), Highway Addressable Remote Transducer (HART), and Wireless In- dustrial Networking Alliance (WINA), have been actively pushing the application of wireless technologies in the control applications. Building a WNCS is very challenging since control systems often have stringent requirements on timing and reliability, which are difficult to attain by wireless sensor networks due to the adverse properties of the wireless communication and limited battery resources of the nodes. We provide a framework for the joint optimization of controller and communication systems encompassing efficient abstractions of both systems.
The Internet of Things (IoT) offers many industries significant new opportunities, but it also exposes them and their customers to a host of security issues. Securing the IoT requires new ways of thinking that can defend the enterprise and its customers against attackers and privacy abuses.
Priyanshu Ratnakar is an Indian teen entrepreneur and founder of Protocol X. He discusses artificial intelligence and how it can help with cybersecurity. Machine learning uses neural networks to classify data with a reasonable degree of certainty and can modify its analysis to improve over time. Deep learning extends machine learning capabilities across multilayered neural networks to learn from massive amounts of data and perform advanced tasks like cancer detection. Artificial intelligence needs large relevant data sets and specific rules to examine the data in order to make useful decisions.
[Webinar] Why Security Certification is Crucial for IoT SuccessElectric Imp
[View the Webinar] - https://electrici.mp/2v1fQlI
Electric Imp CEO, Hugo Fiennes, and UL’s Director of Connected Technologies, Rachna Stegall discuss the unique demands of helping to secure the IoT — and why independent certification is even more critical in the fast-evolving world.
Join us to hear Fiennes & Stegall share candid insights into why establishing an IoT Security Benchmark, such as UL 2900-2-2 Cybersecurity Certification, is critical for due diligence of edge to enterprise technologies — and the future of commercial, industrial and consumer IoT overall.
Cybersecurity Presentation at WVONGA spring meeting 2018Jack Shaffer
The document discusses cybersecurity vulnerabilities in the oil and gas industry and frameworks to address them. It notes recent cyber attacks on energy infrastructure and outlines factors that make the industry vulnerable, such as lack of training, remote work practices, outdated systems, and insufficient network separation. It then introduces several cybersecurity standards and frameworks that can help organizations in the industry implement effective security practices, including ISO 27001, NIST Framework, CIS Controls, and IEC 62443. The presentation emphasizes that information security requires an ongoing process rather than just technology solutions.
Fog Computing is a paradigm that extends Cloud computing and services to the edge of the network. Similar to Cloud, Fog provides data, compute, storage, and application services to end-users. The motivation of Fog computing lies in a series of real scenarios, such as Smart Grid, smart traffic lights in vehicular networks and software defined networks.
The document discusses the Internet of Things (IoT). It defines IoT as the network of physical objects embedded with electronics, software, and sensors to collect and exchange data. The document outlines the history of the internet and how everything has become digitized. It discusses current uses of IoT in areas like smart appliances, healthcare, wearables, and transportation. The future outlook is that each person will interact with 3,000 to 5,000 connected devices. However, increased connectivity also increases risks of terrorism and hacking of critical systems.
The document discusses the Internet of Things (IoT), which connects physical devices to the internet and allows them to collect and exchange data. It describes how IoT is used in various industries and will consist of 50 billion objects by 2020. Some key enabling technologies for IoT are discussed, including RFID, WiFi, barcodes, ZigBee, and smartphones. The document then covers various applications of IoT such as smart homes, connected cars, smart cities, bio-chips, and more. Issues and challenges with IoT adoption are also summarized.
The document provides an introduction to the Internet of Things (IoT). It discusses the history and growth of IoT, including forecasts of 20-50 billion connected devices by 2020. Key enabling technologies for IoT are described, such as sensors, actuators, embedded systems, connectivity standards, and cloud computing. Example applications of IoT are highlighted in areas like smart cities, homes, cars, and industrial settings. However, security and privacy challenges are also noted as areas that must be addressed for IoT to reach its full potential.
The Role of Internet-of-Things (IoT) in HealthcareLuís Rita
The document discusses the role of Internet-of-Things (IoT) technologies in healthcare. It describes a multi-tier IoT system architecture consisting of biosensors, personal devices, and servers. Wireless communication standards are used to transmit health data from wearable devices to medical centers. Case studies from TigerPlace and Washington State University demonstrate how IoT can be used to detect physical and mental impairments through sensors and analyze activities of daily living.
From The Guardian to Cisco, big business to small, it seems that everybody is talking about the Internet of Things — but what exactly is IoT and why does it matter?
Taking a deep dive, we explore the many faces of IoT in Healthcare. Technology research and advisory company, Gartner, currently place the Internet of Things at the peak of inflated expectations and there are certainly challenges. But IoT also holds real promise for healthcare and it is already making an impact today.
We demonstrate why the Internet of Things has a far reaching impact across all determinants of health and how it could lead to a broader model of healthcare. We look at some of the technologies that are available to buy or that are already in development today, whilst also exploring some of the very real challenges that integrating such technologies into healthcare presents. Finally, we offer some ideas about how you can get involved, whether you are a healthcare professional or not.
The document discusses the Internet of Things (IoT). It defines IoT as connecting "things" or objects to the Internet. It traces the origins and development of IoT from 1999 when the term was coined to its growth in recent years. The document also outlines IoT architecture including devices, gateways, protocols and cloud platforms. It examines applications of IoT in various sectors like home automation, transportation, healthcare, agriculture, smart grids and smart cities. Finally, it analyzes challenges to IoT adoption like sensing environments, connectivity standards, power consumption and security/privacy issues.
The Role of Internet-of-Things (IoT) in HealthcareLuís Rita
1st Project - Health Systems.
As a result of ageing population, increasing demand and evolving technology on healthcare systems, the progress in the Internet of Things (IoT) has a key role in suppressing all these needs, in particular, redesigning modern health care with promising technological, economic and social prospects. This paper attempts to comprehensively review the current research and development on the impact of IoT in Healthcare. Relying on a comprehensive literature review, this paper analyses the architecture of an IoT-based systems, focusing on the main components and their value to the overall system. In addition, a perspective on electronic health records and on privacy and security issues are overviewed, along with the review of clinical cases of IoT-based systems. Given IoT clear acceptability and affordability among youngers and elders, combined to a broad range of devices and machine learning techniques, it’s expected these devices will facilitate in many ways health providers’ job, as long as other topics like data protection keep side-by-side.
IST - 4th Year - 2nd Semester - Biomedical Engineering.
This document discusses the use of IoT in medical systems (IoMT). It begins with an overview and introduction to IoMT, describing how it enables machine-to-machine interaction and real-time intervention solutions. It then discusses communication channels in IoMT and applications like chronic disease management. Technologies for implementing IoMT are covered, along with the growing market landscape. Future prospects conclude that IoMT could significantly improve healthcare delivery by implementing connected devices, though challenges remain around device management and cybersecurity. Advantages include improved disease management and decreased costs, while disadvantages include costs and ensuring cybersecurity of connected devices.
This document provides an introduction to IoT security. It discusses key components of IoT including sensors, actuators, microcontrollers, communication capabilities, and identification. The document outlines the ITU-T IoT reference model and describes security challenges at different levels including devices, fog networks, core networks, and data centers. It also discusses common IoT security issues such as unpredictable behavior, device similarity, problematic deployments, lack of upgrades, and lack of transparency. Finally, the document summarizes common IoT security tools including encryption, passwords, hardware security modules, two-factor authentication, and public key infrastructure certificates.
The document discusses Internet of Things (IoT) security challenges and countermeasures. It begins with basics of IoT and sensors, then discusses how IoT connects to the internet. It outlines several approaches to securing IoT, including restricted access, encryption of network and data, managing default APIs, addressing human elements of security, and learning from past exploits. Specific threats like denial of service attacks, man-in-the-middle attacks, and brute force/dictionary attacks are examined. The document concludes that IoT security design must enable open yet secure infrastructure while respecting user privacy through individual policies.
Internet of things are exploding. This whitepaper would help product developers to understand the Security and Privacy issues, their impact and a recommendation for embedding the best practices during PDLC.
Overview of Artificial Intelligence in CybersecurityOlivier Busolini
If you are interested in understsanding a bit more the potential of Artifical Intelligence in Cybersecurity, you might want to have a look at this overview.
Written from my CISO -and non AI expert- point of view, for fellow security professional to navigate the AI hype, and (hopefully!) make better, informed decisions :-)
All feedback welcome !
Wireless Networked Control Systems (WNCSs) are spatially distributed systems in which sensors, actuators, and controllers connect through a wireless network instead of traditional point-to-point links. WNCSs have a tremendous potential to improve the efficiency of many large-scale distributed systems in industrial automation, building automation, automated highway, air transportation, and smart grid. Transmitting sensor measurements and control commands over wireless links provide many benefits such as the ease of installation and maintenance, low complexity and cost, and large flexibility to accommodate the modification and upgrade of the components in many control applications. Several industrial organizations, such as International Society of Automation (ISA), Highway Addressable Remote Transducer (HART), and Wireless In- dustrial Networking Alliance (WINA), have been actively pushing the application of wireless technologies in the control applications. Building a WNCS is very challenging since control systems often have stringent requirements on timing and reliability, which are difficult to attain by wireless sensor networks due to the adverse properties of the wireless communication and limited battery resources of the nodes. We provide a framework for the joint optimization of controller and communication systems encompassing efficient abstractions of both systems.
The Internet of Things (IoT) offers many industries significant new opportunities, but it also exposes them and their customers to a host of security issues. Securing the IoT requires new ways of thinking that can defend the enterprise and its customers against attackers and privacy abuses.
Priyanshu Ratnakar is an Indian teen entrepreneur and founder of Protocol X. He discusses artificial intelligence and how it can help with cybersecurity. Machine learning uses neural networks to classify data with a reasonable degree of certainty and can modify its analysis to improve over time. Deep learning extends machine learning capabilities across multilayered neural networks to learn from massive amounts of data and perform advanced tasks like cancer detection. Artificial intelligence needs large relevant data sets and specific rules to examine the data in order to make useful decisions.
[Webinar] Why Security Certification is Crucial for IoT SuccessElectric Imp
[View the Webinar] - https://electrici.mp/2v1fQlI
Electric Imp CEO, Hugo Fiennes, and UL’s Director of Connected Technologies, Rachna Stegall discuss the unique demands of helping to secure the IoT — and why independent certification is even more critical in the fast-evolving world.
Join us to hear Fiennes & Stegall share candid insights into why establishing an IoT Security Benchmark, such as UL 2900-2-2 Cybersecurity Certification, is critical for due diligence of edge to enterprise technologies — and the future of commercial, industrial and consumer IoT overall.
Cybersecurity Presentation at WVONGA spring meeting 2018Jack Shaffer
The document discusses cybersecurity vulnerabilities in the oil and gas industry and frameworks to address them. It notes recent cyber attacks on energy infrastructure and outlines factors that make the industry vulnerable, such as lack of training, remote work practices, outdated systems, and insufficient network separation. It then introduces several cybersecurity standards and frameworks that can help organizations in the industry implement effective security practices, including ISO 27001, NIST Framework, CIS Controls, and IEC 62443. The presentation emphasizes that information security requires an ongoing process rather than just technology solutions.
Due to advancement of technology and incorporation of sofrtwares and microchips, vulnerability increased for medical devices.
Outsiders are hacking the devices by advanced technologies.
Achieving Software Safety, Security, and Reliability Part 1: Common Industry ...Perforce
In part one of our three-part webinar series, we examine common software development challenges, review the safety and security standards adopted by different industries, and examine the best practices that can be applied to any software development team.
This document provides an overview of Supervisory Control and Data Acquisition (SCADA) and Industrial Control Systems (ICS), including fundamentals, evolution over time, vulnerabilities, security frameworks, good practices, and resources. It defines SCADA/ICS, describes how they have become more interconnected, lists vulnerabilities like outdated systems and remote access, outlines security standards like NIST and NERC, recommends practices like segmentation and patching, and provides example frameworks and resources.
How We Stopped Being Just Antivirus and Became a Unique Industrial Infrastruc...Kaspersky
A talk delivered by Vladimir Dashchenko at S4x19 in Miami on the history of Kaspersky Industrial Cybersecurity experience development: from delivering AV to investigation of sophisticated attacks and vulnerabilities in ICS hardware and software to providing the customers with threat intelligence and security awareness services and specific technologies for ICS threats detection and prevention.
The document discusses cybersecurity challenges related to IoT. It outlines several security incidents involving IoT devices over time. It then discusses inherent security challenges for IoT, including threats from advanced persistent threats, cyber terrorism, and compromised supply chains. The document also summarizes statistics on IoT security concerns and vulnerabilities. It identifies top vulnerabilities according to OWASP and discusses how to secure IoT in different domains like smart cities and homes.
The document outlines an agenda for a presentation on tackling cloud computing security. The agenda includes: setting the stage; existing cloud standards; ISACA resources; a proposed approach to tackle cloud security; cloud assurance and contract considerations; and a conclusion. It then provides details on each section, outlining existing cloud standards and frameworks, ISACA tools for cloud security, approaches to governing cloud security based on risk management and extending current practices to third parties, and considerations for operating in the cloud securely.
This document summarizes a lecture on cyber threats to critical infrastructures. It discusses past cyber incidents affecting systems like power grids and ports. SCADA (Supervisory Control and Data Acquisition) systems are used to monitor and control critical infrastructure systems, but rely on open network standards and protocols that can be vulnerable to attack. Emerging threats include the convergence of IT and operational systems, migration to open protocols and wireless technologies, and remote access capabilities. The document outlines various components of SCADA systems and potential motives for cyber attacks including sabotage, terrorism, and human error.
Get to zero stealth natural gas_executive_overview_chSherid444
The document introduces Unisys Stealth, a cybersecurity solution that aims to help natural gas utilities protect their networks, control systems, and infrastructure from cyber threats. It discusses how Stealth makes systems invisible and undetectable, isolates critical segments, and secures data in motion. Stealth is presented as a way for utilities to reduce risks, facilitate regulatory compliance, lower costs, and gain security agility through its capabilities to hide systems from unauthorized access and tightly control access based on user identity. Contact information is provided for representatives who can provide more details on Stealth.
The document discusses cybersecurity issues related to critical infrastructure sectors. It notes that there are 16 critical infrastructure sectors designated by the US Department of Homeland Security that are vital to national security and safety. These sectors include chemical, communications, dams, emergency services, financial services, government facilities, information technology, transportation, and others. The document expresses concern about the lack of security for industrial control systems and SCADA systems that monitor and control critical infrastructure. It provides examples of past cyber attacks on these systems and notes that the majority of attacks in 2014 targeted advanced persistent threats. The document concludes that as industrial systems increasingly connect to the internet and migrate to web-based interfaces, they represent an growing security risk due to vulnerabilities.
Grid Analytics Europe 2016: "Defend the Grid", April 2016OMNETRIC
Presentation by Jon Longstaff at Grid Analytics Europe 2016: Cyber-Secure Analytics – identifying and overcoming the security vulnerabilities of next generation grid analytics infrastructures that integrate multiple systems and data sources.
A presentation by Tracy Rausch, CEO of DocBox and Chip Block of Evolver Inc. on medical device security & patient monitoring. Presented at The Security of Things Forum on Sept. 10, 2015.
This document provides an overview of SCADA (Supervisory Control and Data Acquisition) security challenges and strategies. It describes common SCADA system components and functionality. It then discusses increasing cyber threats to SCADA systems from sources like hostile governments and employees. The document outlines various physical and cyber vulnerabilities in SCADA systems and components. It recommends security standards from organizations like NIST, ISA, and NERC to help mitigate risks. The document also provides guidelines on physical asset security and cybersecurity strategies.
This document provides an overview of SCADA (Supervisory Control and Data Acquisition) security challenges and strategies. It describes common SCADA system components and functionality. It then discusses increasing cyber threats to SCADA systems from sources like hostile governments and employees. The document outlines various physical and cyber vulnerabilities in SCADA systems and components. It recommends security standards from organizations like NIST, ISA, and NERC to help mitigate risks. The document also provides guidelines on physical asset security and cybersecurity strategies.
Internet of Things (IoT) will enable dramatic society transformation. This seminar presents an introduction to the IoT and explains why IoT Security is important.
Then it presents security issues in wireless sensor networks that constitute a main ingredient of IoT.
Seminar given at Centre Tecnològic de Telecomunicacions de Catalunya (CTTC) on 28 January 2015.
This document discusses cybersecurity trends in Europe. It outlines key drivers of improving cybersecurity like consumerization, regulatory pressures, and emerging threats. It describes the lifecycle of advanced persistent threats and differences between targeted attacks. European strategies on cybersecurity and the Network Information Security Directive are presented. The directive aims to enhance resilience to cyber threats and ensure network security across the EU. Requirements for competent authorities, cooperation between states, and risk management are discussed. Implementation in France and guidance from ISACA on applying the European framework are also summarized.
Understanding Cybersecurity in Medical Devices and ApplicationsEMMAIntl
One of the major pillars of the current Industry 4.0 is Automation. Indeed, technology is intervening in almost every domain to “automate” the workforce and make human life easier and better. In the present age, machines are getting integrated with the Internet of Things, Cloud Computing, and Artificial Intelligence with the data flow being transferred and processed via the Internet. These changes indeed catalyze the overall productivity, but also expose data to the public
domains.
In cases of continuous data transfers and exposition, Cybersecurity becomes a pivotal element where it not only protects the data but also proactively provides mechanisms to defend against malicious attacks and malware. In the case of medical devices that include sensitive medical data flows and software-controlled hardware devices like heart implants or Continuous Glucose Monitoring (CGM) devices, Cybersecurity becomes an important factor for contributing towards system safety and quality...
This primary focus of study was to investigate how cyber risks in ICT infrastructures of supply chains are managed. As its theoretical base, the study used the Adaptive Security Architecture framework that has been employed by most IT security specialists. Five experienced IT experts participated in a semi-structured interview to provide practical insights on the state of cybersecurity in supply chains operations from various industries. Their responses were analyzed based on the four stages of prediction, prevention, detection and response.
This study offers a new framework that suggests cybersecurity requires anticipatory vigilance, profiling malevolence, instantaneous response and uncompromised recovery to dealing with the cyber threats posing disruptions to supply chains.
Internet of things_by_economides_keynote_speech_at_ccit2014_finalAnastasios Economides
Internet of Things forecast, economics, applications, technology, research challenges, sensor networks security, attack models, countermeasures, network security visualization
Similar to 313 – Security Challenges in Healthcare IoT - ME (20)
Blockchain: everyone wants to sell me that - but is that really right for my ...EQS Group
Another day, another article praising blockchain’s untapped potential: it will start a new era, revolution the financial system, disrupt every industry and will change the world. Or will it not? and is that really what I need for my next project?
After this presentation, you will be able to:
- Understand the basic of blockchains as compared to other traditional (both centralized and distributed) technologies such as relational databases and identity management systems.
- Identify the characteristics of a potentially successful blockchain project, versus one that should be tackled with "traditional" technology.
- What are the main factors that tell an initiative is or is not a good candidate for a blockchain project, and how to find a topic which may be a good candidate within your organization.
- How to answer the excessive counter-critiques, such as that there is no good use for blockchains at all. This is obviously not true and there are very good examples of successful projects, from which we can learn the essentials.
Impact of GDPR on Third Party and M&A SecurityEQS Group
GDPR impact has been dissected and examined to death - however, M&A activities, as well as third-party security posture, can be greatly affected as well, and this aspect has not been very often pursued. This session hopes to be useful for that.
Mergers & Acquisitions security - (ISC)2 Secure Summit DACHEQS Group
It does not have an ISO standard. NIST barely mentions it. Despite hundreds of publications, no dedicated book is in sight. Enterprise Risk Management frameworks barely touch on it - if they even do. A chapter in Tipton's book dating 2007, proprietary solutions and sparse articles is all we have. In 2007 there was no Cloud yet - and that can be both a big help or a major issue in the process. Mergers & Acquisition is a matter left to Business Administration professionals, who don't like thinking about Information Security risks anyway. Information Security for Mergers & Acquisition is often an afterthought and rarely a deciding factor in due diligence exercises - but when your company acquires a new firm every quarter, you need to start thinking about something. This session will propose a simple framework and you will walk away with an actionable material you can start using tomorrow.
Learning Objectives:
- Understand information security risks and threats connected with merger and acquisition activities, which include months of often precarious IT migrations, a Cloud mess, and legacy services left exposed for months or years.
- Understand how Cloud Computing affects information security risks and threats during a merger and acquisition activities, as well as the positive opportunities they can offer.
- Why it is important that Information Security is involved in the early phases of due diligence, including during the phases in which the deal is structured and evaluated, and the acquisition model is defined.
- Walk home with a simple framework and actionable material they can start using the day after.
Solutions.Information Security During Mergers & Acquisitions:
Issues, Safety Measures, and Need-to-Know Solutions.
Information security risks and threats connected with mergers and acquisitions, which can include months of often precarious IT migrations and legacy services left exposed; how Cloud computing affects information security risks and threats during merger and acquisition activities, as well as the positive opportunities that they can offer; why Information Security should be involved in the early phases of due diligence, including the phases during which the deal is structured and the acquisition model is defined; a simple framework and actionable material.
Architecting Security across global networksEQS Group
The document discusses identifying networks in a complex company. It describes challenges with the company's asset database, including many outdated or duplicate entries for operating systems and support groups. It also notes the network maps and asset database do not have a clear correspondence to the physical network. The document advocates identifying currently used versus legacy systems, their functions, vulnerabilities, and how they are arranged on the network. It contrasts firewall-based versus routing-based network planning and some pros and cons of the firewall approach.
Achieving PCI-DSS compliance with network security implementations - April 2011EQS Group
This document summarizes Marco Ermini's presentation on achieving PCI-DSS compliance through network security implementations. The presentation discusses using network-based approaches to meet various PCI-DSS requirements, including using network security scanners to verify password security, patch management, and system hardening. It also addresses using intrusion detection/prevention systems, web application firewalls, and database activity monitors to help meet encryption, access control, and logging requirements.
Best practices in NIPS - IDC Sofia - March 2010EQS Group
They were called "Network Intrusion Detection Systems" first - today we call them "Network Intrusion Prevention Systems". Those tools have been around for several years, and are now experiencing a second youth once they are part of new compliance requirements and helps in meet your mitigation measures and policies. But are those systems really useful and provide an effective security tool? Many says, that if not implemented correctly, they can be easily bypassed. Is that true? and so, how should I implement them? Is my current deployment really optimal? Are NIPS really worth their (high) cost? This presentation aims at shredding some light - or at least, to give some tool, to start looking at NIPS from a more realistic point of view, out of the vendors' hype.
Best practices in NIPS - Brighttalk - January 2010EQS Group
Marco Ermini, Network Security Manager will discuss his best practices of Network Intrusion Detection and Prevention and deployment of the overall NIDS/NIPS infrastructure and network vulnerability.