Richard Wilson is the Head of Operational Security at GCC. His resume outlines his experience in operational security, mitigation against physical attack vectors, emerging cyber threats to vehicles, and the UK's public sector cyber security community. Key challenges include the increasing lines of code in vehicles, lack of standards to assess cybersecurity products, and implementing recent standards like ISO/SAE 21434 for automotive cybersecurity engineering.
Is cybersecurity protection of commercial vehicles harder?Gilad Bandel
Commercial vehicles threat model and risks are vastly different than those of passenger vehicles. Here details the specific risks and solutions relevant to heavy duty vehicles.
Network Security for Automotive Embedded SystemsTonex
In the past decade, the automotive industry has undergone tremendous technological changes in terms of connectivity and personal mobility.
Modern cars are more and more like computers rather than mechanical products. It is not uncommon for modern cars to have remote connectivity and high-tech features, such as touch-sensitive dashboards, which can keep themselves up to date through regular software updates.
In the automotive industry, the consequences can be severe-if safety-related functions are compromised, it can cause injury or death, and if a large number of vehicles are threatened or required to be recalled, it can cause serious damage to reputation.
In the new digital age, due to the vehicle’s wireless communication capabilities, mobile devices (such as cellular phones or tablets connected to the vehicle via USB, Bluetooth or Wi-Fi) may have vulnerabilities inside or inside, and this problem is becoming more and more disturbing Third-party equipment connected through the vehicle diagnostic port.
Tonex's Automotive Cybersecurity Training
Automotive Cyber Security Training (Network Security for Automotive Embedded Systems) is a 3-day course. Participants will discuss the basic principles of embedded systems and the application of cyber security in vehicles to illustrate unique vulnerabilities that are commonly exploited.
Who Should Attend:
Chief Product Security Officers (CPSO)
Control Platform
Developers working with embedded systems
Embedded software engineers and testers
Ethernet and CAN Bus Software Engineers and Testers, Hardware Testers
Functional Safety Electrical Engineering
Information security professionals
Machine Learning Platform Engineers and Managers
Mechatronics Engineer, Sensor Cleaning Engineers and PMs
The Main Points of This Course Include:
Check how to adapt to network security in automotive embedded systems
The basics of automotive network security.
Automotive network security, threats, threat agents/vectors, vulnerability and risk assessment; defense in depth, etc.
Embedded system foundation
Basic knowledge of automotive embedded system product design cycle, project management, production design, V&V and O&M.
And many more.
Course Outline:
Cybersecurity Applied to Automotive
Introduction to Embedded Systems and their Applications in Automotive
Automotive Cybersecurity Strategies
Automotive Embedded System Vulnerability Analysis
Automotive Cybersecurity and Layers of Protection
Cybersecurity Best Practices for Modern Vehicles
Standards Development and Best Practices
Securing Automotive Embedded Systems Interfaces and Protocols
Cybersecurity Attacks and Best Mitigation Practices for Automotive Embedded Systems
Evaluating Cybersecurity Practices for Modern Vehicles
Learn More:
https://www.tonex.com/training-courses/automotive-cybersecurity-training-course/
Will Future Vehicles Be Secure?
There is active work within the automotive community to build security into the future connected and highly autonomous vehicles and several organizations are working on cybersecurity standards. Is it going to be enough to secure future vehicles?
Join me to explore the intricacies of securing cyber-physical systems. Challenge the notion that today's tools and best practices are enough to protect connected vehicles and transportation infrastructure. Finally, discover what the industry can do to take security research to the next level and ensure a safe, secure future of transportation.
In the last few years there have been increasing interest in security of modern vehicles with several high profile demonstrations of controlling breaking and steering of a vehicle remotely across large distances. A modern vehicle already consists of up to 100 ECUs and has 100 million lines of code and the complexity is only expected to increase. There have already been suggestions that we will see 300 million lines of code in a vehicle in 5 years. With the growth in complexity we will also see growth of the attack surface. Comparing to other digital or digitized industries such as datacenters, PC, mobile, Industrial Control Systems, automobiles have not yet been actively exploited, however vulnerabilities already have bene demonstrated by security researchers and when that happens such vulnerabilities quickly get weaponized opening door to consistent exploits. With the vehicles that weigh several tons and move such proposition is very scary and there is pressing need to advance security technology to prevent malicious actors from endangering human life.
Learning Outcomes:
Understand vehicle ECU and network architecture and challenges securing Highly Automated and Connected Vehicles
Describe modern end-to-end security architecture for connected vehicles
Understand evolution of the future security technologies
Cyber security for Autonomous Vehicles.pdfDorleControls
An overview of Cyber security for Autonomous Vehicles will be given in this introduction, along with a focus on the significance of protecting these cutting-edge modes of transportation.
Hacking your Connected Car: What you need to know NOWKapil Kanugo
Cars these days are 90% controlled by electronics and 10% using mechanics. The average new car already contains around 20 individual processors to monitor and control various functions — everything from the transmission’s shift points to the operation of the defroster — with about 60 megabytes of software code.
Many new cars are as “wired” as a home office — with onboard GPS navigation and wireless communications networks including Bluetooth, Wi-Fi or Internet run on Embedded OS's which run on converged Electronics to control these actions.
What if modern car’s onboard electronics be “hacked” or infected by a computer virus introduced through a wireless device that might corrupt or disable or controlled by a Hacker sitting at home?
The software does come with built in security but this is not enough and there is a need to offer a full Security package along with Car to guarantee Car's security. Life of people is more important than a gadget and people will pay and buy this package with a new car or upgrade to ensure that their car is not hacked by Hackers to malfunction or be used for other pervert interests.
Is cybersecurity protection of commercial vehicles harder?Gilad Bandel
Commercial vehicles threat model and risks are vastly different than those of passenger vehicles. Here details the specific risks and solutions relevant to heavy duty vehicles.
Network Security for Automotive Embedded SystemsTonex
In the past decade, the automotive industry has undergone tremendous technological changes in terms of connectivity and personal mobility.
Modern cars are more and more like computers rather than mechanical products. It is not uncommon for modern cars to have remote connectivity and high-tech features, such as touch-sensitive dashboards, which can keep themselves up to date through regular software updates.
In the automotive industry, the consequences can be severe-if safety-related functions are compromised, it can cause injury or death, and if a large number of vehicles are threatened or required to be recalled, it can cause serious damage to reputation.
In the new digital age, due to the vehicle’s wireless communication capabilities, mobile devices (such as cellular phones or tablets connected to the vehicle via USB, Bluetooth or Wi-Fi) may have vulnerabilities inside or inside, and this problem is becoming more and more disturbing Third-party equipment connected through the vehicle diagnostic port.
Tonex's Automotive Cybersecurity Training
Automotive Cyber Security Training (Network Security for Automotive Embedded Systems) is a 3-day course. Participants will discuss the basic principles of embedded systems and the application of cyber security in vehicles to illustrate unique vulnerabilities that are commonly exploited.
Who Should Attend:
Chief Product Security Officers (CPSO)
Control Platform
Developers working with embedded systems
Embedded software engineers and testers
Ethernet and CAN Bus Software Engineers and Testers, Hardware Testers
Functional Safety Electrical Engineering
Information security professionals
Machine Learning Platform Engineers and Managers
Mechatronics Engineer, Sensor Cleaning Engineers and PMs
The Main Points of This Course Include:
Check how to adapt to network security in automotive embedded systems
The basics of automotive network security.
Automotive network security, threats, threat agents/vectors, vulnerability and risk assessment; defense in depth, etc.
Embedded system foundation
Basic knowledge of automotive embedded system product design cycle, project management, production design, V&V and O&M.
And many more.
Course Outline:
Cybersecurity Applied to Automotive
Introduction to Embedded Systems and their Applications in Automotive
Automotive Cybersecurity Strategies
Automotive Embedded System Vulnerability Analysis
Automotive Cybersecurity and Layers of Protection
Cybersecurity Best Practices for Modern Vehicles
Standards Development and Best Practices
Securing Automotive Embedded Systems Interfaces and Protocols
Cybersecurity Attacks and Best Mitigation Practices for Automotive Embedded Systems
Evaluating Cybersecurity Practices for Modern Vehicles
Learn More:
https://www.tonex.com/training-courses/automotive-cybersecurity-training-course/
Will Future Vehicles Be Secure?
There is active work within the automotive community to build security into the future connected and highly autonomous vehicles and several organizations are working on cybersecurity standards. Is it going to be enough to secure future vehicles?
Join me to explore the intricacies of securing cyber-physical systems. Challenge the notion that today's tools and best practices are enough to protect connected vehicles and transportation infrastructure. Finally, discover what the industry can do to take security research to the next level and ensure a safe, secure future of transportation.
In the last few years there have been increasing interest in security of modern vehicles with several high profile demonstrations of controlling breaking and steering of a vehicle remotely across large distances. A modern vehicle already consists of up to 100 ECUs and has 100 million lines of code and the complexity is only expected to increase. There have already been suggestions that we will see 300 million lines of code in a vehicle in 5 years. With the growth in complexity we will also see growth of the attack surface. Comparing to other digital or digitized industries such as datacenters, PC, mobile, Industrial Control Systems, automobiles have not yet been actively exploited, however vulnerabilities already have bene demonstrated by security researchers and when that happens such vulnerabilities quickly get weaponized opening door to consistent exploits. With the vehicles that weigh several tons and move such proposition is very scary and there is pressing need to advance security technology to prevent malicious actors from endangering human life.
Learning Outcomes:
Understand vehicle ECU and network architecture and challenges securing Highly Automated and Connected Vehicles
Describe modern end-to-end security architecture for connected vehicles
Understand evolution of the future security technologies
Cyber security for Autonomous Vehicles.pdfDorleControls
An overview of Cyber security for Autonomous Vehicles will be given in this introduction, along with a focus on the significance of protecting these cutting-edge modes of transportation.
Hacking your Connected Car: What you need to know NOWKapil Kanugo
Cars these days are 90% controlled by electronics and 10% using mechanics. The average new car already contains around 20 individual processors to monitor and control various functions — everything from the transmission’s shift points to the operation of the defroster — with about 60 megabytes of software code.
Many new cars are as “wired” as a home office — with onboard GPS navigation and wireless communications networks including Bluetooth, Wi-Fi or Internet run on Embedded OS's which run on converged Electronics to control these actions.
What if modern car’s onboard electronics be “hacked” or infected by a computer virus introduced through a wireless device that might corrupt or disable or controlled by a Hacker sitting at home?
The software does come with built in security but this is not enough and there is a need to offer a full Security package along with Car to guarantee Car's security. Life of people is more important than a gadget and people will pay and buy this package with a new car or upgrade to ensure that their car is not hacked by Hackers to malfunction or be used for other pervert interests.
Verification of IVI Over-The-Air using UML/OCLSeungjoo Kim
Verification of IVI Over-The-Air using UML/OCL @ ICCC 2019 (International Common Criteria Conference), which is a major conference for the community of experts involved in security evaluation
Preparing for CV Deployment read ahead 9-8-18raymurphy9533
The fundamental premise of the connected vehicle environment lies in the power of wireless connectivity among vehicles (V2V communications), the infrastructure (V2I communications), and mobile devices to bring about transformative changes in highway safety, mobility, and the environmental impacts of the transportation system.
Telematics is a disruptive automotive technology that utilizes IT and communication protocols to send, receive and store information pertaining to remote vehicles.
Telematics can be effectively used in various industries such as agriculture & forestry, construction, manufacturing, freight & delivery, retail, finance/insurance, mining, etc.
https://www.embitel.com/iot-insights/what-is-telematics
Current state of automotive network securityFFRI, Inc.
Many electronic devices have been used by automobiles.These devices are connected each other and communicate to control automobile. Recent years, automotive network has been connected to smartphones and the internet. It makes new threats turn up. This slides summarizes how automotive network security have been and what is expected as incoming threats.
WHITE PAPER▶ Building Comprehensive Security Into CarsSymantec
Over the past few years, automotive security threats have gone from theory to reality. Tech-savvy thieves have stolen cars throughout Europe and North America. Online videos show hackers remotely hitting the brakes on cars in ways that can endanger drivers and passengers. Hackers can exploit some of these vulnerabilities from an adjacent lane without forewarning to the driver.
Other vulnerabilities are open to attack over the cellular network—from halfway around the world—and for large numbers of cars simultaneously.
Even though technology exists to solve many of these security problems, the challenges of deploying such technology in cars loom far larger than similar challenges do in traditional information technology (IT) systems. In traditional IT systems, most problems can be solved with a quick install, update, or configuration change—or at worst, restoring from a backup, executing a failover to a disaster recovery site, or calling in a breach response team to tackle the most sophisticated threats.
However, cars don’t work like that. Multi-year safety certification processes to meet Federal Motor Vehicle Safety Standards (FMVSS) requirements don’t engender the weekly, daily, and real-time security updates that IT teams enjoy. Nobody can call in a breach response team to investigate the millions of cars you’ve built, now happily garaged in millions of homes. A car can’t safely fail over to another car. Companies often use redundancies at critical IT layers to keep high-volume web services running reliably, but few, if any, carmakers can afford the NASA-like investment of doing this for every vehicle.
Protecting cars against such threats has to be done in a context that works both within the car, and at scale for carmakers. The responsibility doesn’t stop at the assembly line: It extends all the way from the carmakers to the full breadth, depth, and complexity of auto supplier relationships. Security is a concern at each tier of the value chain, and attackers seek the weakest links.
Cybersecurity - Dominic Nessi, Former CIO, Los Angeles World AirportsSITA
In the digital age of air transport – with its ever-more connected industry operations, passengers and aircraft – air transport faces a constant threat of cyber attacks, both on the critical infrastructure that keeps the wheels of air travel in motion, and on passenger data. The spotlight on threat intelligence, identity protection, data privacy and security in air transport has never been more intense. As we navigate deepening ‘lakes’ of data to become smarter at every step, how do we protect our operations and passengers, ensuring the utmost security and resilience across the air transport community?
Improving the detection of intrusion in vehicular ad-hoc networks with modifi...TELKOMNIKA JOURNAL
Vehicular ad-hoc networks (VANETs) are wireless-equipped vehicles that form networks along the road. The security of this network has been a major challenge. The identity-based cryptosystem (IBC) previously used to secure the networks suffers from membership authentication security features. This paper focuses on improving the detection of intruders in VANETs with a modified identity-based cryptosystem (MIBC). The MIBC is developed using a non-singular elliptic curve with Lagrange interpolation. The public key of vehicles and roadside units on the network are derived from number plates and location identification numbers, respectively. Pseudo-identities are used to mask the real identity of users to preserve their privacy. The membership authentication mechanism ensures that only valid and authenticated members of the network are allowed to join the network. The performance of the MIBC is evaluated using intrusion detection ratio (IDR) and computation time (CT) and then validated with the existing IBC. The result obtained shows that the MIBC recorded an IDR of 99.3% against 94.3% obtained for the existing identity-based cryptosystem (EIBC) for 140 unregistered vehicles attempting to intrude on the network. The MIBC shows lower CT values of 1.17 ms against 1.70 ms for EIBC. The MIBC can be used to improve the security of VANETs.
Marlink IMO 2021 Guide to Cyber Risk ManagementCHRIS CLIFFORD
Applicable to commercial ships with over 500 gross tonnage, the IMO resolution (MSC 428, 98) confirmed all shipping companies need to have cyber security in their safety management system. Flag states are encouraged to ensure these requirements are met by vessel operators in the first annual audit after January 2021. Non-compliance may lead to vessel detainment. This means maritime companies need to be identifying and safeguarding against maritime cyber risks now to be ready for the first annual verification of the Company’s Document of Compliance.
Joint Alstom and STM presentation made at UITP IT-Trans in Karlshruhe - Why Integration at the Operation Control Centre (OCC) is Vital for Rail Security?
Verification of IVI Over-The-Air using UML/OCLSeungjoo Kim
Verification of IVI Over-The-Air using UML/OCL @ ICCC 2019 (International Common Criteria Conference), which is a major conference for the community of experts involved in security evaluation
Preparing for CV Deployment read ahead 9-8-18raymurphy9533
The fundamental premise of the connected vehicle environment lies in the power of wireless connectivity among vehicles (V2V communications), the infrastructure (V2I communications), and mobile devices to bring about transformative changes in highway safety, mobility, and the environmental impacts of the transportation system.
Telematics is a disruptive automotive technology that utilizes IT and communication protocols to send, receive and store information pertaining to remote vehicles.
Telematics can be effectively used in various industries such as agriculture & forestry, construction, manufacturing, freight & delivery, retail, finance/insurance, mining, etc.
https://www.embitel.com/iot-insights/what-is-telematics
Current state of automotive network securityFFRI, Inc.
Many electronic devices have been used by automobiles.These devices are connected each other and communicate to control automobile. Recent years, automotive network has been connected to smartphones and the internet. It makes new threats turn up. This slides summarizes how automotive network security have been and what is expected as incoming threats.
WHITE PAPER▶ Building Comprehensive Security Into CarsSymantec
Over the past few years, automotive security threats have gone from theory to reality. Tech-savvy thieves have stolen cars throughout Europe and North America. Online videos show hackers remotely hitting the brakes on cars in ways that can endanger drivers and passengers. Hackers can exploit some of these vulnerabilities from an adjacent lane without forewarning to the driver.
Other vulnerabilities are open to attack over the cellular network—from halfway around the world—and for large numbers of cars simultaneously.
Even though technology exists to solve many of these security problems, the challenges of deploying such technology in cars loom far larger than similar challenges do in traditional information technology (IT) systems. In traditional IT systems, most problems can be solved with a quick install, update, or configuration change—or at worst, restoring from a backup, executing a failover to a disaster recovery site, or calling in a breach response team to tackle the most sophisticated threats.
However, cars don’t work like that. Multi-year safety certification processes to meet Federal Motor Vehicle Safety Standards (FMVSS) requirements don’t engender the weekly, daily, and real-time security updates that IT teams enjoy. Nobody can call in a breach response team to investigate the millions of cars you’ve built, now happily garaged in millions of homes. A car can’t safely fail over to another car. Companies often use redundancies at critical IT layers to keep high-volume web services running reliably, but few, if any, carmakers can afford the NASA-like investment of doing this for every vehicle.
Protecting cars against such threats has to be done in a context that works both within the car, and at scale for carmakers. The responsibility doesn’t stop at the assembly line: It extends all the way from the carmakers to the full breadth, depth, and complexity of auto supplier relationships. Security is a concern at each tier of the value chain, and attackers seek the weakest links.
Cybersecurity - Dominic Nessi, Former CIO, Los Angeles World AirportsSITA
In the digital age of air transport – with its ever-more connected industry operations, passengers and aircraft – air transport faces a constant threat of cyber attacks, both on the critical infrastructure that keeps the wheels of air travel in motion, and on passenger data. The spotlight on threat intelligence, identity protection, data privacy and security in air transport has never been more intense. As we navigate deepening ‘lakes’ of data to become smarter at every step, how do we protect our operations and passengers, ensuring the utmost security and resilience across the air transport community?
Improving the detection of intrusion in vehicular ad-hoc networks with modifi...TELKOMNIKA JOURNAL
Vehicular ad-hoc networks (VANETs) are wireless-equipped vehicles that form networks along the road. The security of this network has been a major challenge. The identity-based cryptosystem (IBC) previously used to secure the networks suffers from membership authentication security features. This paper focuses on improving the detection of intruders in VANETs with a modified identity-based cryptosystem (MIBC). The MIBC is developed using a non-singular elliptic curve with Lagrange interpolation. The public key of vehicles and roadside units on the network are derived from number plates and location identification numbers, respectively. Pseudo-identities are used to mask the real identity of users to preserve their privacy. The membership authentication mechanism ensures that only valid and authenticated members of the network are allowed to join the network. The performance of the MIBC is evaluated using intrusion detection ratio (IDR) and computation time (CT) and then validated with the existing IBC. The result obtained shows that the MIBC recorded an IDR of 99.3% against 94.3% obtained for the existing identity-based cryptosystem (EIBC) for 140 unregistered vehicles attempting to intrude on the network. The MIBC shows lower CT values of 1.17 ms against 1.70 ms for EIBC. The MIBC can be used to improve the security of VANETs.
Marlink IMO 2021 Guide to Cyber Risk ManagementCHRIS CLIFFORD
Applicable to commercial ships with over 500 gross tonnage, the IMO resolution (MSC 428, 98) confirmed all shipping companies need to have cyber security in their safety management system. Flag states are encouraged to ensure these requirements are met by vessel operators in the first annual audit after January 2021. Non-compliance may lead to vessel detainment. This means maritime companies need to be identifying and safeguarding against maritime cyber risks now to be ready for the first annual verification of the Company’s Document of Compliance.
Joint Alstom and STM presentation made at UITP IT-Trans in Karlshruhe - Why Integration at the Operation Control Centre (OCC) is Vital for Rail Security?
For people responsible for the design, commissioning and support of PROFINET networks, explaining how to integrate existing PROFIBUS DP and PROFIBUS PA devices into that network. The webinar took the form of a presentation with demonstrations to aid understanding.
For people responsible for the commissioning and support of PROFIBUS networks. The webinar took the form of a presentation with demonstrations to aid understanding.
This 40-minute long webinar follows on from the PROFINET Network Design Webinar but is this time intended for people responsible for the commissioning and support of PROFINET networks. The webinar took the form of a presentation with demonstrations to aid understanding.
Particularly relevant to people responsible for the design of PROFINET networks, highlighting the common errors and assumptions made that could make on-going support of the network rather difficult.
More from PROFIBUS and PROFINET InternationaI - PI UK (20)
TECHNICAL TRAINING MANUAL GENERAL FAMILIARIZATION COURSEDuvanRamosGarzon1
AIRCRAFT GENERAL
The Single Aisle is the most advanced family aircraft in service today, with fly-by-wire flight controls.
The A318, A319, A320 and A321 are twin-engine subsonic medium range aircraft.
The family offers a choice of engines
Final project report on grocery store management system..pdfKamal Acharya
In today’s fast-changing business environment, it’s extremely important to be able to respond to client needs in the most effective and timely manner. If your customers wish to see your business online and have instant access to your products or services.
Online Grocery Store is an e-commerce website, which retails various grocery products. This project allows viewing various products available enables registered users to purchase desired products instantly using Paytm, UPI payment processor (Instant Pay) and also can place order by using Cash on Delivery (Pay Later) option. This project provides an easy access to Administrators and Managers to view orders placed using Pay Later and Instant Pay options.
In order to develop an e-commerce website, a number of Technologies must be studied and understood. These include multi-tiered architecture, server and client-side scripting techniques, implementation technologies, programming language (such as PHP, HTML, CSS, JavaScript) and MySQL relational databases. This is a project with the objective to develop a basic website where a consumer is provided with a shopping cart website and also to know about the technologies used to develop such a website.
This document will discuss each of the underlying technologies to create and implement an e- commerce website.
Sachpazis:Terzaghi Bearing Capacity Estimation in simple terms with Calculati...Dr.Costas Sachpazis
Terzaghi's soil bearing capacity theory, developed by Karl Terzaghi, is a fundamental principle in geotechnical engineering used to determine the bearing capacity of shallow foundations. This theory provides a method to calculate the ultimate bearing capacity of soil, which is the maximum load per unit area that the soil can support without undergoing shear failure. The Calculation HTML Code included.
Quality defects in TMT Bars, Possible causes and Potential Solutions.PrashantGoswami42
Maintaining high-quality standards in the production of TMT bars is crucial for ensuring structural integrity in construction. Addressing common defects through careful monitoring, standardized processes, and advanced technology can significantly improve the quality of TMT bars. Continuous training and adherence to quality control measures will also play a pivotal role in minimizing these defects.
Immunizing Image Classifiers Against Localized Adversary Attacksgerogepatton
This paper addresses the vulnerability of deep learning models, particularly convolutional neural networks
(CNN)s, to adversarial attacks and presents a proactive training technique designed to counter them. We
introduce a novel volumization algorithm, which transforms 2D images into 3D volumetric representations.
When combined with 3D convolution and deep curriculum learning optimization (CLO), itsignificantly improves
the immunity of models against localized universal attacks by up to 40%. We evaluate our proposed approach
using contemporary CNN architectures and the modified Canadian Institute for Advanced Research (CIFAR-10
and CIFAR-100) and ImageNet Large Scale Visual Recognition Challenge (ILSVRC12) datasets, showcasing
accuracy improvements over previous techniques. The results indicate that the combination of the volumetric
input and curriculum learning holds significant promise for mitigating adversarial attacks without necessitating
adversary training.
Student information management system project report ii.pdfKamal Acharya
Our project explains about the student management. This project mainly explains the various actions related to student details. This project shows some ease in adding, editing and deleting the student details. It also provides a less time consuming process for viewing, adding, editing and deleting the marks of the students.
Welcome to WIPAC Monthly the magazine brought to you by the LinkedIn Group Water Industry Process Automation & Control.
In this month's edition, along with this month's industry news to celebrate the 13 years since the group was created we have articles including
A case study of the used of Advanced Process Control at the Wastewater Treatment works at Lleida in Spain
A look back on an article on smart wastewater networks in order to see how the industry has measured up in the interim around the adoption of Digital Transformation in the Water Industry.
3. Operational
Security
• Vulnerability management
• Protective monitoring
• Incident management
• Configuration and change management
“Services must be operated and managed in a way to impede,
detect or prevent attacks”.
4. Mitigation
against
PhysicalAttack
Vectors
• Installing a network traffic monitoring and tampering alarm
in the vehicle that detects
unusual CAN messages (including messages sent at unusually
high rates) and transmit a
warning signal to fleet managers and manufacturer
cybersecurity team
• Implementing firewalls, whitelisting, and blacklisting of ECU
messages to prevent unsafe
Commands
• Employing secure coding practices and auditing the source
code
• Securing the entire vehicle’s networked functionalities with
mechanical fail-safe
mechanisms.
5. The challenge
Today’s cars have up to 150 electronic control units
By 2030, many observers expect them to have roughly 300
million lines of software code.
By way of comparison, today’s cars have about 100 million
lines of code. To put that into perspective:
• passenger aircraft has an estimated 15 million lines of
code.
• a modern fighter jet about 25 million.
• and a mass-market PC operating system close to 40 million.
7. If theSOC fits.
Part of the challenge for manufacturers is to find their way
through the huge range of cyber-security products and
services available in the marketplace.
There are very few standards against which to assess the
quality of individual products which can also make it difficult to
decide what is appropriate.
8. Journey PAS 1885 - the international standard on road vehicles that
discusses automotive cyber security across the lifetime.
WP. 29 The UNECE World Forum for Harmonization of Vehicle
Regulations.
UN Regulation No. 155 - Cyber security and cyber security
management system
ISO/SAE 21434 Road Vehicles – Cybersecurity Engineering
(August 2021).
9. CS &O-T-A
GRVA is the Working Party preparing draft regulations,
guidance documents and interpretation documents for
adoption by the parent body, WP.29.
Activities under the purview of GRVA
- Functional Requirements for Automated Vehicles (FRAV)
- Validation Method for Automated Driving (VMAD)
- Event Data Recorder and Data Storage System for Automated
Driving (EDR/DSSAD)
- Cyber Security and Over-The-Air issues (CS/OTA)
10. Stress testing
Cyber Insurance
& HealthChecks
Time for a cyber health check?
• Cyber insurance.
• GapAnalysis
• Maturity Modelling
11. TheUK’s
Public Sector
Cyber Security
Community
Local Law Enforcement. Whilst the picture varies across the
UK, almost all police forces now have a clearly identifiable
point of contact for dealing with cyber-security issues.
City of London Police andAction Fraud. Much of the cyber-
security challenge manifests itself as criminal activity and in
particular, fraud.
NationalCrime Agency (NCA). The NCA is home of the
National Cyber Crime Unit (NCCU) which coordinates the
national response to cyber-crime.
NationalCyber Security Centre (NCSC). The NCSC is
increasingly providing a central leadership and coordination
role in the public sector
12. So what,
what’s next?
Implementation of the raft of operational processes, developed
in accordance with the detailed requirements of the given
standard.
Compliance (including supply chain) of UNECE R-155
Handrailing ISO/SAE 21434 Road Vehicles – Cybersecurity
Engineering (August 2021). clauses 5 - 15