The 2023 Cost of a Data Breach Report found that the average total cost of a data breach globally reached a new high of USD 4.45 million, up from USD 4.35 million in 2022. The average per-record cost also increased slightly to USD 165. Key findings included that only 1/3 of breaches were discovered internally, cloud breaches accounted for 82% of incidents, and healthcare breach costs have increased 53.3% since 2020.
Cybersecurity roadmap : Global healthcare security architecturePriyanka Aash
Using NIST cybersecurity framework, one of the largest healthcare IT firms in the US developed the global security architecture and roadmap addressing security gaps by architecture domain and common security capability. This session will discuss the architecture framework, capability matrix, the architecture development methodology and key deliverables.
(Source : RSA Conference USA 2017)
Building a Next-Generation Security Operation Center Based on IBM QRadar and ...IBM Security
Learn about Sogeti’s journey of creating a new Security Operation Center, and how and why we leveraged QRadar solutions. We explore the full program lifecycle, from strategic choices to technical analysis and benchmarking on the product. We explain how QRadar accelerates the go-to-market of the SOC, and how we embed IBM Security Intelligence offerings in our solution. Having a strong collaboration between different IBM stakeholders such as Software Group, Global Technology Services, as well as the Labs, was key to client satisfaction and operational effectiveness. We also show the value of integrating new QRadar features in our SOC roadmap, in order to constantly stay ahead in the cyber security game.
What is the NIST Cybersecurity Framework?
Why YOU should care?
How would I apply it?
Would you drive BLINDFOLDED?
A false sense of security?
Without a Security Framework…
Why Cyber Security Framework?
How would I measure my effectiveness?
The Nozomi Networks solution improves ICS cyber resiliency and provides real-time operational visibility. Major customers have improved reliability, cybersecurity and operational efficiency using our technology. Learn more about our solutions and technology here and how they can bring immediate benefit to your industrial control system (ICS)
Use Cases are a formal technique taught in most IS/IT disciplines. This presentation discusses a model to take that methodology and apply it to developing Security Operations and SIEM focused uses cases. The template discussed is in use at a major SIEM provider today, and is based on 10 years of implementing SIEM and building up SecOps across 15+ organizations over 10 years.
Sqrrl and IBM: Threat Hunting for QRadar UsersSqrrl
This document discusses threat hunting using IBM QRadar and Sqrrl analytics. It introduces threat hunting, the threat hunting process, and the Sqrrl behavior graph for visualizing and exploring linked security data. Use cases for threat hunting with Sqrrl analytics on the QRadar platform are presented, along with a reference architecture showing how Sqrrl integrates with QRadar. A demonstration of the Sqrrl threat hunting platform concludes the document.
Security and Compliance Initial Roadmap Anshu Gupta
The document outlines a 30 day, 6 month, and 1 year plan for developing a comprehensive security program. The 30 day plan includes establishing a security baseline, inventorying assets and backups, and remediating preventive controls. Within 3 months, a roadmap and budget will be developed and key processes and engineering gaps addressed. By 1 year, regulatory compliance will be achieved through audits, all security controls will be designed and operational, and security will be embedded within business functions.
Presentation for March 2017 webcast by NIST.
www.nist.gov/cyberframework
Webcast video: https://www.nist.gov/news-events/events/2017/03/cybersecurity-framework-virtual-events
This presentation introduces the audience to the Framework for Improving Critical Infrastructure Cybersecurity (“The Framework”). It provides a brief history about why and how the Framework was developed, and an understanding of each of the three primary Framework components (the Core, Implementation Tiers, and Profiles). It covers potential benefits of Framework, and how the Framework can be used. It highlights industry resources, progress in Roadmap areas, and future direction of the Framework program.
Cybersecurity roadmap : Global healthcare security architecturePriyanka Aash
Using NIST cybersecurity framework, one of the largest healthcare IT firms in the US developed the global security architecture and roadmap addressing security gaps by architecture domain and common security capability. This session will discuss the architecture framework, capability matrix, the architecture development methodology and key deliverables.
(Source : RSA Conference USA 2017)
Building a Next-Generation Security Operation Center Based on IBM QRadar and ...IBM Security
Learn about Sogeti’s journey of creating a new Security Operation Center, and how and why we leveraged QRadar solutions. We explore the full program lifecycle, from strategic choices to technical analysis and benchmarking on the product. We explain how QRadar accelerates the go-to-market of the SOC, and how we embed IBM Security Intelligence offerings in our solution. Having a strong collaboration between different IBM stakeholders such as Software Group, Global Technology Services, as well as the Labs, was key to client satisfaction and operational effectiveness. We also show the value of integrating new QRadar features in our SOC roadmap, in order to constantly stay ahead in the cyber security game.
What is the NIST Cybersecurity Framework?
Why YOU should care?
How would I apply it?
Would you drive BLINDFOLDED?
A false sense of security?
Without a Security Framework…
Why Cyber Security Framework?
How would I measure my effectiveness?
The Nozomi Networks solution improves ICS cyber resiliency and provides real-time operational visibility. Major customers have improved reliability, cybersecurity and operational efficiency using our technology. Learn more about our solutions and technology here and how they can bring immediate benefit to your industrial control system (ICS)
Use Cases are a formal technique taught in most IS/IT disciplines. This presentation discusses a model to take that methodology and apply it to developing Security Operations and SIEM focused uses cases. The template discussed is in use at a major SIEM provider today, and is based on 10 years of implementing SIEM and building up SecOps across 15+ organizations over 10 years.
Sqrrl and IBM: Threat Hunting for QRadar UsersSqrrl
This document discusses threat hunting using IBM QRadar and Sqrrl analytics. It introduces threat hunting, the threat hunting process, and the Sqrrl behavior graph for visualizing and exploring linked security data. Use cases for threat hunting with Sqrrl analytics on the QRadar platform are presented, along with a reference architecture showing how Sqrrl integrates with QRadar. A demonstration of the Sqrrl threat hunting platform concludes the document.
Security and Compliance Initial Roadmap Anshu Gupta
The document outlines a 30 day, 6 month, and 1 year plan for developing a comprehensive security program. The 30 day plan includes establishing a security baseline, inventorying assets and backups, and remediating preventive controls. Within 3 months, a roadmap and budget will be developed and key processes and engineering gaps addressed. By 1 year, regulatory compliance will be achieved through audits, all security controls will be designed and operational, and security will be embedded within business functions.
Presentation for March 2017 webcast by NIST.
www.nist.gov/cyberframework
Webcast video: https://www.nist.gov/news-events/events/2017/03/cybersecurity-framework-virtual-events
This presentation introduces the audience to the Framework for Improving Critical Infrastructure Cybersecurity (“The Framework”). It provides a brief history about why and how the Framework was developed, and an understanding of each of the three primary Framework components (the Core, Implementation Tiers, and Profiles). It covers potential benefits of Framework, and how the Framework can be used. It highlights industry resources, progress in Roadmap areas, and future direction of the Framework program.
Building a Next-Generation Security Operations Center (SOC)Sqrrl
So, you need to build a Security Operations Center (SOC)? What does that mean? What does the modern SOC need to do? Learn from Dr. Terry Brugger, who has been doing information security work for over 15 years, including building out a SOC for a large Federal agency and consulting for numerous large enterprises on their security operations.
Watch the presentation with audio here: http://info.sqrrl.com/sqrrl-october-webinar-next-generation-soc
The session theme is "Threat Management, Next Generation Security Operations Center".
The session focuses how security information and event management can help enterprises to collects data from the heterogeneous landscape to have incident response plans and have automation in the entire security operations framework.
The session is handled by The session will be handled by Mr.Ravi Shankar Mallah, Architect / IBM security Specialist – Resilient & i2.
Ravi has over 13+ years of experience in the field of Cyber security. Over the course of his career he has been involved in building & running multiple enterprise level SOC while taking care of both perimeter and internal security of these setup. He also enjoys real life experience of various Security related technologies such as SIEM, SOAR, IPS, firewalls, Vulnerability management, Anti-APT solutions etc.
In his current role at IBM he is working as an Architect and enjoys the role of specialist for Incident Response Platform (IRP) and Threat Hunting
This document summarizes a presentation given by Ranjit Sawant of FireEye. The presentation covered the following key points:
1) Attackers are increasingly leveraging COVID-19 themes in cyber attacks, with malicious emails related to COVID-19 increasing fourfold in March 2020. However, these emails still represent a small percentage of overall malicious emails detected.
2) FireEye Endpoint Security provides capabilities to detect and respond to advanced threats, going beyond just malware to track indicators of compromise, behavior, and attacker techniques across the attack lifecycle.
3) The presentation included a war story example of how FireEye Endpoint Security was used to investigate and respond to a sophisticated nation-state attacker targeting an Asian bank.
Upgrade Your SOC with Cortex XSOAR & Elastic SIEMElasticsearch
Together, Cortex XSOAR and Elastic SIEM deliver a flexible and effective solution for today's security operations teams. Combining Cortex XSOAR's robust orchestration, automation, and case management capabilities with Elastic's open collection, search, and analytics abilities provides the comprehensive end-to-end strategy SOC teams need to gain visibility to stop threats.
The Cybersecurity Risk Management Framework Strategy for Defense Platform Systems course prepares command leadership to implement the National Institute of Standards and Technology’s (NIST) cybersecurity Risk Management Framework (RMF) from a Platform Information Technology (PIT) perspective.
This one-day workshop reviews the five functions of cybersecurity that leadership must consider when making decisions about program resources and requirements.
This document provides information about security operations centers (SOCs). It discusses why organizations build security controls and capabilities like SOCs, which are designed to reduce risk, protect businesses, and move from reactive responses to proactive threat mitigation. The document defines a SOC as a skilled team that follows processes to manage threats and reduce security risk. It outlines the major responsibilities of a SOC, which include monitoring, analyzing, and responding to security events. It also notes that effective SOCs balance people, processes, and technology. The document provides details about building a SOC and considerations in each of these domains. It includes a sample job description for a SOC analyst role.
Here are my slides on "Board and Cyber Security" that I presented at the Just People Information Security breakfast this morning. Thanks Adam for arranging the session and those who attended.
Effective Security Operation Center - present by Reza AdinehReZa AdineH
The document discusses how to effectively manage a cyber security operations center (SOC). It addresses questions about how to assess the effectiveness and maturity of a SOC, ensure sufficient threat detection capabilities through proper sensors and data collection, and utilize threat intelligence and data enrichment. The document also provides steps to implement threat management, incident response processes, and leverage machine learning and user entity behavior analytics to detect anomalous user behavior and insider threats.
Established in 1999 Secon Cyber have a long standing experience of providing class leading cyber security solutions to customers ranging from small to large enterprises.
We continuously strive to innovate and develop solutions to enable our customers and partners to work, play and live safely in the connected world. As part of this commitment we have developed our own Managed Detection and Response Service.
In this session David King will discuss the benefits of an MDR service over a traditional MSSP or SIEM solution.
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.
1) OT cybersecurity requires taking a holistic view of plant risk that considers impacts beyond financials, such as safety, environmental and operational impacts. Assets should be classified according to risk so priorities can be set.
2) Knowing the assets in the OT environment is essential before strategies can be developed. New technologies can help with asset inventory.
3) OT cybersecurity responsibilities need to be clearly defined, which could include one or two CISO roles to oversee both IT and OT, with close collaboration.
Cyber Security Layers - Defense in Depth
7P's, 2D's & 1 N
People
Process
Perimeter
Physical
Points (End)
Network
Platform
Programs (Apps)
Database
Data
Cortex secures the future by reinventing security operations through its unique approach. Cortex breaks down data and product silos by gaining enterprise-scale visibility across network, endpoint, and cloud data using its Cortex XDR platform. Cortex XDR improves prevention, detection, and response capabilities. Demisto automates security processes and orchestrates responses through playbooks with its many product integrations.
Cyber Security Trends
Business Concerns
Cyber Threats
The Solutions
Security Operation Center
requirement
SOC Architecture model
SOC Implementation
SOC & NOC
SOC & CSIRT
SIEM & Correlation
-----------------------------------------------------------
Definition
Gartner defines a SOC as both a team, often operating in shifts around the clock, and a facility dedicated to and organized to prevent, detect, assess and respond to cybersecurity threats and incidents, and to fulfill and assess regulatory compliance. The term "cybersecurity operation center "is often used synonymously for SOC.
A network operations center (NOC) is not a SOC, which focuses on network device management rather than detecting and responding to cybersecurity incidents. Coordination between the two is common, however.
A managed security service is not the same as having a SOC — although a service provider may offer services from a SOC. A managed service is a shared resource and not solely dedicated to a single organization or entity. Similarly, there is no such thing as a managed SOC.
Most of the technologies, processes and best practices that are used in a SOC are not specific to a SOC. Incident response or vulnerability management remain the same, whether delivered from a SOC or not. It is a meta-topic, involving many security domains and disciplines, and depending on the services and functions that are delivered by the SOC.
Services that often reside in a SOC are:
• Cyber security incident response
• Malware analysis
• Forensic analysis
• Threat intelligence analysis
• Risk analytics and attack path modeling
• Countermeasure implementation
• Vulnerability assessment
• Vulnerability analysis
• Penetration testing
• Remediation prioritization and coordination
• Security intelligence collection and fusion
• Security architecture design
• Security consulting
• Security awareness training
• Security audit data collection and distribution
Alternative names for SOC :
Security defense center (SDC)
Security intelligence center
Cyber security center
Threat defense center
security intelligence and operations center (SIOC)
Infrastructure Protection Centre (IPC)
مرکز عملیات امنیت
Understanding Zero Trust Security for IBM iPrecisely
As security threats continue to evolve and increase, companies need to also adapt their approach to IT security. One important concept that is gaining in popularity and adoption is zero trust security. The main concept behind the zero trust security model is "never trust, always verify,” which means that devices should not be trusted by default, even if they are connected to a permissioned network such as a corporate LAN and even if they were previously verified.
Zero Trust means moving beyond a perimeter security strategy. As companies offer customers and business partners new digital experiences and processes, networks can be local, in the cloud, or a combination or hybrid with resources anywhere as well as workers in any location. This dynamic is impacting IBM i customers and zero trust security is an important element of a modern security strategy.
Join us for this webcast to hear about:
• Understanding zero trust security concepts
• Zero trust security in the real world
• Zero trust security for IBM i environments
Optimizing Security Operations: 5 Keys to SuccessSirius
Organizations are suffering from cyber fatigue, with too many alerts, too many technologies, and not enough people. Many security operations center (SOC) teams are underskilled and overworked, making it extremely difficult to streamline operations and decrease the time it takes to detect and remediate security incidents.
Addressing these challenges requires a shift in the tactics and strategies deployed in SOCs. But building an effective SOC is hard; many companies struggle first with implementation and then with figuring out how to take their security operations to the next level.
Read to learn:
--Advantages and disadvantages of different SOC models
--Tips for leveraging advanced analytics tools
--Best practices for incorporating automation and orchestration
--How to boost incident response capabilities, and measure your efforts
--How the NIST Cybersecurity Framework and CIS Controls can help you establish a strong foundation
Start building your roadmap to a next-generation SOC.
The Next Generation of Security Operations Centre (SOC)PECB
The document discusses the key aspects of building a next generation Security Operations Centre (SOC). It emphasizes that skilled people, well-defined processes, and integrating new technologies are critical. Specifically, it recommends adopting automation and analytics to analyze large datasets, integrating threat intelligence from multiple sources, and establishing red and blue teams to continuously test defenses. The goal of a next generation SOC is to use predictive analysis of vast security data to improve threat detection, response, and the overall security posture of an organization.
Adopting A Zero-Trust Model. Google Did It, Can You?Zscaler
Based on 6 years of creating zero trust networks at Google, the BeyondCorp framework has led to the popularization of a new network security model within enterprises, called the software-defined perimeter.
Briefing the board lessons learned from cisos and directorsPriyanka Aash
Communicating effectively with the board of directors can make or break a security program. Across 2016, John Pescatore and Alan Paller of SANS talked with dozens of CISOs and several members of corporate boards and distilled down a set of best practices and lessons learned. This session will present the findings from that effort, with lessons learned from real-world board sessions.
(Source : RSA Conference USA 2017)
This document provides an overview of security operation centers (SOCs), security information and event management (SIEM) tools, threat hunting, and related concepts. It defines SOCs as facilities that monitor and analyze an organization's security posture using technology and processes. SIEM tools are listed that help with this. Threat hunting is described as investigating security incidents to uncover new tactics, techniques and procedures (TTPs) used by attackers. The Cyber Kill Chain model and common indicators used to detect compromises like IOCs and IOAs are also summarized.
The document summarizes the findings of a 2017 study on the cost of cybercrime. Some key findings include:
1) The average annual cost of cybercrime increased significantly from the previous year, rising 27.4% to $11.7 million.
2) Costs varied significantly by country, with the US having the highest average cost at $21 million and Australia the lowest at $5.41 million. Germany saw costs rise the most, increasing 42.4% from the previous year.
3) Spending on security technologies that provide the greatest cost savings, like security intelligence systems, could help organizations better balance their security investments and reduce cybercrime costs.
Building a Next-Generation Security Operations Center (SOC)Sqrrl
So, you need to build a Security Operations Center (SOC)? What does that mean? What does the modern SOC need to do? Learn from Dr. Terry Brugger, who has been doing information security work for over 15 years, including building out a SOC for a large Federal agency and consulting for numerous large enterprises on their security operations.
Watch the presentation with audio here: http://info.sqrrl.com/sqrrl-october-webinar-next-generation-soc
The session theme is "Threat Management, Next Generation Security Operations Center".
The session focuses how security information and event management can help enterprises to collects data from the heterogeneous landscape to have incident response plans and have automation in the entire security operations framework.
The session is handled by The session will be handled by Mr.Ravi Shankar Mallah, Architect / IBM security Specialist – Resilient & i2.
Ravi has over 13+ years of experience in the field of Cyber security. Over the course of his career he has been involved in building & running multiple enterprise level SOC while taking care of both perimeter and internal security of these setup. He also enjoys real life experience of various Security related technologies such as SIEM, SOAR, IPS, firewalls, Vulnerability management, Anti-APT solutions etc.
In his current role at IBM he is working as an Architect and enjoys the role of specialist for Incident Response Platform (IRP) and Threat Hunting
This document summarizes a presentation given by Ranjit Sawant of FireEye. The presentation covered the following key points:
1) Attackers are increasingly leveraging COVID-19 themes in cyber attacks, with malicious emails related to COVID-19 increasing fourfold in March 2020. However, these emails still represent a small percentage of overall malicious emails detected.
2) FireEye Endpoint Security provides capabilities to detect and respond to advanced threats, going beyond just malware to track indicators of compromise, behavior, and attacker techniques across the attack lifecycle.
3) The presentation included a war story example of how FireEye Endpoint Security was used to investigate and respond to a sophisticated nation-state attacker targeting an Asian bank.
Upgrade Your SOC with Cortex XSOAR & Elastic SIEMElasticsearch
Together, Cortex XSOAR and Elastic SIEM deliver a flexible and effective solution for today's security operations teams. Combining Cortex XSOAR's robust orchestration, automation, and case management capabilities with Elastic's open collection, search, and analytics abilities provides the comprehensive end-to-end strategy SOC teams need to gain visibility to stop threats.
The Cybersecurity Risk Management Framework Strategy for Defense Platform Systems course prepares command leadership to implement the National Institute of Standards and Technology’s (NIST) cybersecurity Risk Management Framework (RMF) from a Platform Information Technology (PIT) perspective.
This one-day workshop reviews the five functions of cybersecurity that leadership must consider when making decisions about program resources and requirements.
This document provides information about security operations centers (SOCs). It discusses why organizations build security controls and capabilities like SOCs, which are designed to reduce risk, protect businesses, and move from reactive responses to proactive threat mitigation. The document defines a SOC as a skilled team that follows processes to manage threats and reduce security risk. It outlines the major responsibilities of a SOC, which include monitoring, analyzing, and responding to security events. It also notes that effective SOCs balance people, processes, and technology. The document provides details about building a SOC and considerations in each of these domains. It includes a sample job description for a SOC analyst role.
Here are my slides on "Board and Cyber Security" that I presented at the Just People Information Security breakfast this morning. Thanks Adam for arranging the session and those who attended.
Effective Security Operation Center - present by Reza AdinehReZa AdineH
The document discusses how to effectively manage a cyber security operations center (SOC). It addresses questions about how to assess the effectiveness and maturity of a SOC, ensure sufficient threat detection capabilities through proper sensors and data collection, and utilize threat intelligence and data enrichment. The document also provides steps to implement threat management, incident response processes, and leverage machine learning and user entity behavior analytics to detect anomalous user behavior and insider threats.
Established in 1999 Secon Cyber have a long standing experience of providing class leading cyber security solutions to customers ranging from small to large enterprises.
We continuously strive to innovate and develop solutions to enable our customers and partners to work, play and live safely in the connected world. As part of this commitment we have developed our own Managed Detection and Response Service.
In this session David King will discuss the benefits of an MDR service over a traditional MSSP or SIEM solution.
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.
1) OT cybersecurity requires taking a holistic view of plant risk that considers impacts beyond financials, such as safety, environmental and operational impacts. Assets should be classified according to risk so priorities can be set.
2) Knowing the assets in the OT environment is essential before strategies can be developed. New technologies can help with asset inventory.
3) OT cybersecurity responsibilities need to be clearly defined, which could include one or two CISO roles to oversee both IT and OT, with close collaboration.
Cyber Security Layers - Defense in Depth
7P's, 2D's & 1 N
People
Process
Perimeter
Physical
Points (End)
Network
Platform
Programs (Apps)
Database
Data
Cortex secures the future by reinventing security operations through its unique approach. Cortex breaks down data and product silos by gaining enterprise-scale visibility across network, endpoint, and cloud data using its Cortex XDR platform. Cortex XDR improves prevention, detection, and response capabilities. Demisto automates security processes and orchestrates responses through playbooks with its many product integrations.
Cyber Security Trends
Business Concerns
Cyber Threats
The Solutions
Security Operation Center
requirement
SOC Architecture model
SOC Implementation
SOC & NOC
SOC & CSIRT
SIEM & Correlation
-----------------------------------------------------------
Definition
Gartner defines a SOC as both a team, often operating in shifts around the clock, and a facility dedicated to and organized to prevent, detect, assess and respond to cybersecurity threats and incidents, and to fulfill and assess regulatory compliance. The term "cybersecurity operation center "is often used synonymously for SOC.
A network operations center (NOC) is not a SOC, which focuses on network device management rather than detecting and responding to cybersecurity incidents. Coordination between the two is common, however.
A managed security service is not the same as having a SOC — although a service provider may offer services from a SOC. A managed service is a shared resource and not solely dedicated to a single organization or entity. Similarly, there is no such thing as a managed SOC.
Most of the technologies, processes and best practices that are used in a SOC are not specific to a SOC. Incident response or vulnerability management remain the same, whether delivered from a SOC or not. It is a meta-topic, involving many security domains and disciplines, and depending on the services and functions that are delivered by the SOC.
Services that often reside in a SOC are:
• Cyber security incident response
• Malware analysis
• Forensic analysis
• Threat intelligence analysis
• Risk analytics and attack path modeling
• Countermeasure implementation
• Vulnerability assessment
• Vulnerability analysis
• Penetration testing
• Remediation prioritization and coordination
• Security intelligence collection and fusion
• Security architecture design
• Security consulting
• Security awareness training
• Security audit data collection and distribution
Alternative names for SOC :
Security defense center (SDC)
Security intelligence center
Cyber security center
Threat defense center
security intelligence and operations center (SIOC)
Infrastructure Protection Centre (IPC)
مرکز عملیات امنیت
Understanding Zero Trust Security for IBM iPrecisely
As security threats continue to evolve and increase, companies need to also adapt their approach to IT security. One important concept that is gaining in popularity and adoption is zero trust security. The main concept behind the zero trust security model is "never trust, always verify,” which means that devices should not be trusted by default, even if they are connected to a permissioned network such as a corporate LAN and even if they were previously verified.
Zero Trust means moving beyond a perimeter security strategy. As companies offer customers and business partners new digital experiences and processes, networks can be local, in the cloud, or a combination or hybrid with resources anywhere as well as workers in any location. This dynamic is impacting IBM i customers and zero trust security is an important element of a modern security strategy.
Join us for this webcast to hear about:
• Understanding zero trust security concepts
• Zero trust security in the real world
• Zero trust security for IBM i environments
Optimizing Security Operations: 5 Keys to SuccessSirius
Organizations are suffering from cyber fatigue, with too many alerts, too many technologies, and not enough people. Many security operations center (SOC) teams are underskilled and overworked, making it extremely difficult to streamline operations and decrease the time it takes to detect and remediate security incidents.
Addressing these challenges requires a shift in the tactics and strategies deployed in SOCs. But building an effective SOC is hard; many companies struggle first with implementation and then with figuring out how to take their security operations to the next level.
Read to learn:
--Advantages and disadvantages of different SOC models
--Tips for leveraging advanced analytics tools
--Best practices for incorporating automation and orchestration
--How to boost incident response capabilities, and measure your efforts
--How the NIST Cybersecurity Framework and CIS Controls can help you establish a strong foundation
Start building your roadmap to a next-generation SOC.
The Next Generation of Security Operations Centre (SOC)PECB
The document discusses the key aspects of building a next generation Security Operations Centre (SOC). It emphasizes that skilled people, well-defined processes, and integrating new technologies are critical. Specifically, it recommends adopting automation and analytics to analyze large datasets, integrating threat intelligence from multiple sources, and establishing red and blue teams to continuously test defenses. The goal of a next generation SOC is to use predictive analysis of vast security data to improve threat detection, response, and the overall security posture of an organization.
Adopting A Zero-Trust Model. Google Did It, Can You?Zscaler
Based on 6 years of creating zero trust networks at Google, the BeyondCorp framework has led to the popularization of a new network security model within enterprises, called the software-defined perimeter.
Briefing the board lessons learned from cisos and directorsPriyanka Aash
Communicating effectively with the board of directors can make or break a security program. Across 2016, John Pescatore and Alan Paller of SANS talked with dozens of CISOs and several members of corporate boards and distilled down a set of best practices and lessons learned. This session will present the findings from that effort, with lessons learned from real-world board sessions.
(Source : RSA Conference USA 2017)
This document provides an overview of security operation centers (SOCs), security information and event management (SIEM) tools, threat hunting, and related concepts. It defines SOCs as facilities that monitor and analyze an organization's security posture using technology and processes. SIEM tools are listed that help with this. Threat hunting is described as investigating security incidents to uncover new tactics, techniques and procedures (TTPs) used by attackers. The Cyber Kill Chain model and common indicators used to detect compromises like IOCs and IOAs are also summarized.
The document summarizes the findings of a 2017 study on the cost of cybercrime. Some key findings include:
1) The average annual cost of cybercrime increased significantly from the previous year, rising 27.4% to $11.7 million.
2) Costs varied significantly by country, with the US having the highest average cost at $21 million and Australia the lowest at $5.41 million. Germany saw costs rise the most, increasing 42.4% from the previous year.
3) Spending on security technologies that provide the greatest cost savings, like security intelligence systems, could help organizations better balance their security investments and reduce cybercrime costs.
This document provides information about Module 002 of the course IT 411 - Information Assurance and Security 2. The module aims to examine fundamental computer security techniques and identify potential security issues. It covers topics like cryptography, application security, incident response, risk assessment, and compliance with regulations. The module outlines learning objectives, outcomes, resources, tasks, content items, and assessments. It also includes detailed lessons on topics like the financial impacts of cybercrime, developing a security strategy using the 10 steps approach, techniques for protecting against attacks like examining the perimeter and network segregation, and methods for detecting attacks through logging.
Cyber-security is the number one technology issue in the C-suite and Board Room. No wonder that many senior executives are asking what they can be doing to stem the tide of cyber-attacks on their firms.
This document discusses cyber security trends based on data collected by IBM from monitoring over 3,700 clients in 130+ countries. Some key points:
- On average, organizations experience 73,400 attacks, 90 security incidents, and 81.9 million security events annually.
- Manufacturing and finance face the most incidents, accounting for nearly 50% of incidents.
- Malicious code and sustained probes/scans make up over 60% of incident categories. Most incidents are attributed to end-user error and misconfigured systems.
- Opportunistic attacks motivated by opportunity account for nearly 50% of attackers. Outsiders instigate around half of all attacks.
Guide to high volume data sources for SIEMJoseph DeFever
The document discusses the need for security teams to have access to more data from a variety of sources to address evolving security challenges. As adversaries become more motivated by lucrative opportunities and employ more evasive and patient attack methods, security teams need more context from diverse data sources to identify unknown threats, investigate long dwell times, and combat evasion techniques. Both basic attacks exploiting misconfigurations and advanced attacks require security teams to maintain visibility across on-premises and cloud environments and access security-relevant data for detections, investigations, and responses. High-profile examples that illustrate the need for more data include cloud-based data breaches, sophisticated supply chain attacks, and evolving ICS/SCADA and IoT attacks.
The document is a research report that compares insurance protection for tangible versus intangible assets. Some key findings:
1) Information assets are valued slightly higher on average ($1.082 billion) than tangible property, plant, and equipment ($947 million) but have much lower insurance coverage (15% vs 59%).
2) The potential maximum loss from information assets being stolen or destroyed is estimated to be higher on average ($979 million) than potential losses from tangible assets ($770 million).
3) Despite higher risks and potential losses to information assets, companies are reluctant to purchase cyber insurance and many would not disclose material losses of information assets in financial statements like they would for tangible assets.
Assessing and Managing IT Security RisksChris Ross
Data privacy and protection has become the gold standard in IT. Scale Venture Partners and Wisegate share what they learned from over 100 IT professionals questioned about the risks and technology trends driving their security programs. Read about the move towards data centric security and the need for improvement in automated security controls and metrics reporting.
The document discusses cybersecurity challenges and capabilities in the insurance industry based on a survey conducted by Accenture Security. Some key findings include:
- Insurance companies have made progress in their cybersecurity capabilities but around 20% of attempted breaches are still successful, exposing risk.
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State of ICS and IoT Cyber Threat Landscape Report 2024 previewPrayukth K V
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The latest edition of the OT/ICS and IoT security Threat Landscape Report 2024 also covers:
State of global ICS asset and network exposure
Sectoral targets and attacks as well as the cost of ransom
Global APT activity, AI usage, actor and tactic profiles, and implications
Rise in volumes of AI-powered cyberattacks
Major cyber events in 2024
Malware and malicious payload trends
Cyberattack types and targets
Vulnerability exploit attempts on CVEs
Attacks on counties – USA
Expansion of bot farms – how, where, and why
In-depth analysis of the cyber threat landscape across North America, South America, Europe, APAC, and the Middle East
Why are attacks on smart factories rising?
Cyber risk predictions
Axis of attacks – Europe
Systemic attacks in the Middle East
Download the full report from here:
https://sectrio.com/resources/ot-threat-landscape-reports/sectrio-releases-ot-ics-and-iot-security-threat-landscape-report-2024/
Five principles for improving your cyber securityWGroup
The document discusses cyber security risks for businesses and provides five principles for improving cyber security. It notes that as corporate assets have increasingly become virtual, cyber security risks have also increased. The five principles are: 1) Identifying security risks and determining how to address them, 2) Managing risks through resource allocation and transferring risks, 3) Understanding legal implications of breaches, 4) Obtaining technical expertise on security issues, and 5) Having expectations and oversight of the cyber security program.
Secrets to managing your Duty of Care in an ever- changing world.
How well do you know your risks?
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How well are you prioritising Cybersecurity initiatives?
Liability for Cybersecurity attacks sits with Executives and Board members who may not have the right level of technical security knowledge. This session will outline what practical steps executives can take to implement a Cybersecurity Roadmap that is aligned with its strategic objectives.
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LogRhythm Reducing cyber risk in the legal sector WhitepaperTom Salmon
1) The document discusses cybersecurity risks faced by legal firms and recommends adopting security intelligence tools to help detect threats faster through improved monitoring. It outlines key threat vectors like mergers and acquisitions targeting, insider threats, phishing emails, and disgruntled employees.
2) Specific threats are detailed, like the FIN4 group monitoring legal firms for financial gain from M&A insights. Insider threats from file sharing or email are also risks. Monitoring tools can help detect anomalous user behavior or policy violations.
3) The document recommends a security intelligence approach using analytics to gain visibility across systems and detect threats in hours rather than days to help reduce costs from cyber incidents. Case studies show these tools improving detection and
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2) Specific threats like the FIN4 group targeting legal firms during M&A are examined, along with recommendations to monitor email rules and network traffic to detect their activities. Insider threats, disgruntled employees, and targeted phishing emails are also covered with suggestions on using tools to analyze file access, internet usage, and email metadata to
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3) The best approach is argued to be security intelligence solutions that provide centralized monitoring and analytics to quickly detect anomalies and improve mean time to detect and respond to threats. This helps reduce costs from cyber incidents for legal firms.
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2. Table of contents
01 →
Executive summary
– What’s new in the 2023 report
– Key findings
02 →
Complete findings
– Global highlights
– Initial attack vectors
– Identifying attacks
– Data breach lifecycle
– Key cost factors
– Ransomware and destructive attacks
– Business partner supply chain attacks
– Software supply chain attacks
– Regulatory environments
– Cloud breaches
– Mega breaches
– Security investments
– Security AI and automation
– Incident response
– Threat intelligence
– Vulnerability and risk management
– Attack surface management
– Managed security service providers
(MSSPs)
03 →
Recommendations
to help reduce the cost
of a data breach
04 →
Organization demographics
– Geographic demographics
– Industry demographics
– Industry definitions
05 →
Research methodology
– How we calculate the cost of a
data breach
– Data breach FAQs
– Research limitations
06 →
About Ponemon Institute
and IBM Security
– Take the next steps
2
3. 01
3
Next section
Executive summary
The Cost of a Data Breach Report equips IT,
risk management and security leaders with
quantifiable evidence to help them better manage
their security investments, risk profile and strategic
decision-making processes. The 2023 edition
represents this report’s 18th consecutive year.
This year’s research—conducted independently
by Ponemon Institute and sponsored, analyzed
and published by IBM Security®—studied 553
organizations impacted by data breaches that
occurred between March 2022 and March 2023.
The years mentioned in this report refer
to the year the report was published,
not necessarily the year of the breach.
The breaches studied took place across
16 countries and regions and in 17
different industries.
Throughout this report, we’ll examine the
root causes and both short-term and long-
term consequences of data breaches. We’ll
also explore the factors and technologies
that enabled companies to limit losses—as
well as those that led to increased costs.
4. 4
Each year, we continue to evolve the
Cost of a Data Breach Report to match
new technologies, emerging tactics
and recent events. For the first time,
this year’s research explores:
Next section
Previous section
01 Executive summary
– How breaches are identified: whether
by an organization’s own security teams,
another third party or the attacker
– The impact of involving law enforcement
in a ransomware attack
– The effect of ransomware playbooks
and workflows
– Specific costs associated with
regulatory fines
– If and how companies plan to increase
security investment as a result of
a breach
– The impact of the following mitigation
strategies:
• Threat intelligence
• Vulnerability and risk management
• Attack surface management (ASM)
• Managed security service providers
(MSSPs)
What’s new in the 2023 report
As the cost of a breach continues to
increase, this report delivers essential
insights to help security and IT teams
better manage risk and limit potential
losses. The report is divided into five
major sections:
– The executive summary with key findings
and what’s new in the 2023 edition
– In-depth analysis on the complete
findings, including breach costs by
geographic region and industry
– Security recommendations from
IBM Security experts based on this
report’s results
– Demographics of organizations and
industry definitions
– The study’s methodology, including how
costs were calculated
5. The key findings described here are based
on IBM Security analysis of research data
compiled by Ponemon Institute. Cost
amounts in this report are measured in
US dollars (USD).
01
5
Next section
Previous section
Key findings
Average total cost of a breach
The average cost of a data breach reached an all-time high in 2023
of USD 4.45 million. This represents a 2.3% increase from the 2022
cost of USD 4.35 million. Taking a long-term view, the average cost has
increased 15.3% from USD 3.86 million in the 2020 report.
Percentage of organizations planning to increase
security investments as a result of a breach
While data breach costs continued to rise, report participants
were almost equally split on whether they plan to increase security
investments because of a data breach. The top areas identified
for additional investments included incident response (IR)
planning and testing, employee training, and threat detection
and response technologies.
The effect of extensive security AI and automation
on the financial impact of a breach
Security AI and automation were shown to be important investments
for reducing costs and minimizing time to identify and contain
breaches. Organizations that used these capabilities extensively within
their approach experienced, on average, a 108-day shorter time to
identify and contain the breach. They also reported USD 1.76 million
lower data breach costs compared to organizations that didn’t use
security AI and automation capabilities.
USD 4.45M
51%
USD 1.76M
6. 01
6
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Previous section
1 in 3
Number of breaches identified by an
organization’s own security teams or tools
Only one-third of companies discovered
the data breach through their own security
teams, highlighting a need for better
threat detection. 67% of breaches were
reported by a benign third party or by the
attackers themselves. When attackers
disclosed a breach, it cost organizations
nearly USD 1 million more compared to
internal detection.
82%
The percentage of breaches that involved
data stored in the cloud—public, private or
multiple environments
Cloud environments were frequent targets
for cyberattackers in 2023. Attackers often
gained access to multiple environments,
with 39% of breaches spanning multiple
environments and incurring a higher-than-
average cost of USD 4.75 million.
53.3%
Since 2020, healthcare data breach costs
have increased 53.3%
The highly regulated healthcare industry
has seen a considerable rise in data breach
costs since 2020. For the 13th year in
a row, the healthcare industry reported
the most expensive data breaches, at an
average cost of USD 10.93 million.
USD 470,000
Additional cost experienced by
organizations that didn’t involve law
enforcement in a ransomware attack
This year’s research shows that excluding
law enforcement from ransomware
incidents led to higher costs. While 63%
of respondents said they involved law
enforcement, the 37% that didn’t also
paid 9.6% more and experienced a 33-day
longer breach lifecycle.
Executive summary
7. 01
7
Next section
Previous section
USD 1.02M
Average cost difference between
breaches that took more than 200 days
to find and resolve, and those that took
less than 200 days
Time to identify and contain breaches—
known as the breach lifecycle—continues
to be integral to the overall financial
impact. Breaches with identification and
containment times under 200 days cost
organizations USD 3.93 million. Those
over 200 days cost USD 4.95 million—a
difference of 23%.
USD 1.44M
Increase in data breach costs for
organizations that had high levels of
security system complexity
Organizations that reported low or no
security system complexity experienced
an average data breach cost of USD 3.84
million in 2023. Those with high levels
of security system complexity reported
an average cost of USD 5.28 million,
representing an increase of 31.6%.
USD 1.68M USD 1.49M
Cost savings from high levels of
DevSecOps adoption
Integrated security testing in the software
development process (DevSecOps) showed
sizable ROI in 2023. Organizations with
high DevSecOps adoption saved USD
1.68 million compared to those with
low or no adoption. Compared to other
cost-mitigating factors, DevSecOps
demonstrated the largest cost savings.
Cost savings achieved by organizations
with high levels of IR planning and testing
In addition to being a priority investment
for organizations, IR planning and testing
emerged as a highly effective tactic for
containing the cost of a data breach.
Organizations with high levels of IR
planning and testing saved USD 1.49
million compared to those with low levels.
Executive summary
8. 02
8
Next section
Previous section
Complete findings
In this section, we provide the detailed findings of
this report across 18 themes. Topics are presented
in the following order:
– Global highlights
– Initial attack vectors
– Identifying attacks
– Data breach lifecycle
– Key cost factors
– Ransomware and destructive attacks
– Business partner supply chain attacks
– Software supply chain attacks
– Regulatory environments
– Cloud breaches
– Mega breaches
– Security investments
– Security AI and automation
– Incident response
– Threat intelligence
– Vulnerability and risk management
– Attack surface management
– Managed security service providers
9. Global highlights
The Cost of a Data Breach Report
provides a global picture of the cost of
data breaches, built using data from over
553 breaches in 16 different countries
and taking into account hundreds of cost
factors. This section examines critical
metrics at the level of global average.
We also explore the average per-record
comparative costs between countries
and industries.
Complete findings
02
USD 4.45M
Global average total cost of a data breach
10. Figure 1. The cost of a data breach
climbed to a new high.
Globally, the average cost of a data breach
rose to USD 4.45 million, a USD 100,000
increase from 2022. This represents a
2.3% increase from the 2022 average cost
of USD 4.35 million. Since 2020, when the
average total cost of a data breach was
USD 3.86 million, the average total cost has
increased 15.3%.
Figure 2. Per-record cost of a data breach
also reached a new high.
In 2023, the average cost per record
involved in a data breach was USD 165, a
small increase from the 2022 average of
USD 164. This matches the relatively small
growth from 2021 to 2022, where the cost
rose by just USD 3. In the last seven years,
the largest increase in average per-record
costs was between 2020 and 2021, when
the average rose from USD 146 to USD 161
or 10.3%. This study examined breaches
sized between 2,200 and 102,000 records.1
10
Next section
Previous section
Complete findings
02
2017 2018 2019 2020 2021 2022 2023
$141
$148
$150
$146
$161
$164 $165
$135
$140
$145
$150
$155
$160
$165
$170
Total cost of a data breach
Figure 1. Measured in USD millions
Per-record cost of a data breach
Figure 2. Measured in USD
$3.62
$3.86 $3.92 $3.86
$4.24 $4.35 $4.45
$2.50
$3.00
$3.50
$4.00
$4.50
$5.00
2017 2018 2019 2020 2021 2022 2023
11. Of this year’s top five, Japan is the only
country that didn’t appear on the 2022 top
five list, moving up from the number 6 most
expensive spot last year. The top 5 list last
year also included the United Kingdom (UK)
at an average data breach cost of USD 5.05
million. This year, the UK saw a significant
drop in average cost at USD 4.21 million—
down 16.6% from last year—resulting in
placement just outside of the top five.
The United States again had the highest
average total cost of a data breach at USD
9.48 million, an increase of 0.4% from
last year’s USD 9.44 million. Like last year,
the Middle East had the second-highest
average total cost of a data breach at
USD 8.07 million, up 8.2% from USD
7.46 million.
11
Next section
Previous section
2023 2022
1 United States
USD 9.48 million
United States
USD 9.44 million
2 Middle East
USD 8.07 million
Middle East
USD 7.46 million
3 Canada
USD 5.13 million
Canada
USD 5.64 million
4 Germany
USD 4.67 million
United Kingdom
USD 5.05 million
5 Japan
USD 4.52 million
Germany
USD 4.85 million
Figure 3. For the 13th consecutive year,
the United States held the title for the
highest data breach costs.
The top five countries or regions with the
highest average cost of a data breach saw
considerable changes from 2022.
Complete findings
02
In Canada, the average total cost of a data
breach decreased from USD 5.64 million
to USD 5.13 million or 9%. The average
cost also decreased in Germany, dropping
from USD 4.85 million to USD 4.67 million
or 3.7%. Japan saw the average drop
slightly, from USD 4.57 million to USD 4.52
million or 1.1%.
12. #1
United States
2022 $9.44
2023 $9.48 ↑
#2
Middle East
2022 $7.46
2023 $8.07 ↑
#3
Canada
2022 $5.64
2023 $5.13 ↓
#4
Germany
2022 $4.85
2023 $4.67 ↓
#5
Japan
2022 $4.57
2023 $4.52 ↓
#6
United
Kingdom
2022 $5.05
2023 $4.21 ↓
#7
France
2022 $4.34
2023 $4.08 ↓
#8
Italy
2022 $3.74
2023 $3.86 ↑
#9
Latin America
2022 $2.80
2023 $3.69 ↑
#10
South Korea
2022 $3.57
2023 $3.48 ↓ #11
ASEAN
2022 $2.87
2023 $3.05 ↑
#12
South Africa
2022 $3.36
2023 $2.79 ↓
#13
Australia
2022 $2.92
2023 $2.70 ↓
#14
India
2022 $2.32
2023 $2.18 ↓
#15
Scandinavia
2022 $2.08
2023 $1.91 ↓
#16
Brazil
2022 $1.38
2023 $1.22 ↓
Cost of a data breach by country or region
Figure 3. Measured in USD millions
Complete findings
02
2
13. Figure 4. Across industries, healthcare
reported the highest costs for the 13th
year in a row.
Healthcare continues to experience the
highest data breach costs of all industries,
increasing from USD 10.10 million in 2022
to USD 10.93 million in 2023—an increase
of 8.2%. Over the past three years, the
average cost of a data breach in healthcare
has grown 53.3%, increasing more than
USD 3 million compared to the average cost
of USD 7.13 million in 2020. Healthcare
faces high levels of industry regulation
and is considered critical infrastructure by
the US government. Since the start of the
COVID-19 pandemic, the industry has seen
notably higher average data breach costs.
The top five most costly industries
underwent some changes from last year’s
rankings. Technology dropped out of the
13
Next section
Previous section
2023 2022
1 Healthcare
USD 10.93 million
Healthcare
USD 10.10 million
2 Financial
USD 5.90 million
Financial
USD 5.97 million
3 Pharmaceuticals
USD 4.82 million
Pharmaceuticals
USD 5.01 million
4 Energy
USD 4.78 million
Technology
USD 4.97 million
5 Industrial
USD 4.73 million
Energy
USD 4.72 million
top five while the industrial sector was
added, showing a 5.8% increase as it
moved from the seventh-highest to the
fifth. According to IBM threat intelligence,
manufacturing is the industry most
commonly targeted by cybercriminals.
Complete findings
02
Cost of a data breach by industry
Figure 4. Measured in USD millions
$2.07
$3.28
$2.94
$3.15
$3.83
$3.88
$3.86
$3.86
$3.62
$3.59
$4.70
$4.97
$4.47
$4.72
$5.01
$5.97
$10.10
$2.60
$2.96
$3.36
$3.58
$3.62
$3.63
$3.65
$3.80
$3.90
$4.18
$4.47
$4.66
$4.73
$4.78
$4.82
$5.90
$10.93
$0.00 $1.00 $2.00 $3.00 $4.00 $5.00 $6.00 $7.00 $8.00 $9.00 $10.00 $11.00
Public sector
Retail
Hospitality
Media
Entertainment
Research
Education
Consumer
Communications
Transportation
Professional services
Technology
Industrial
Energy
Pharmaceuticals
Financial
Healthcare
2023 2022
14. 191
197
206
207
212
207
204
66
69
73
73
75
70
73
257
266
279
280
287
277
277
0 50 100 150 200 250 300
2017
2018
2019
2020
2021
2022
2023
MTTI MTTC
Figure 5. Mean times to identify
and contain breaches stayed roughly
the same.
Compared to 2022, both the mean time
to identify (MTTI) and the mean time to
contain (MTTC) breaches saw only marginal
changes. Mean time to identify refers to
the time it takes an organization to uncover
a security breach. Mean time to contain
refers to the time required to resolve a
security breach once it has been identified.
14
Next section
Previous section
In 2022, it took organizations 207 days
to identify a breach. In 2023, it took only
204 days. On the other hand, organizations
required an average of 73 days to contain
breaches in 2023, while they required
just 70 days on average in 2022. The
highest mean times to contain and identify
breaches both occurred in 2021, at 212
and 75 days, respectively.
Complete findings
02
Time to identify and contain the breach
Figure 5. Measured in days
15. Cost of a data breach divided into four cost segments
Figure 6. Measured in USD millions
Figure 6. Lost business costs hit a
five-year low.
Last year’s report saw detection and
escalation costs rise to become the
costliest category of data breach expenses,
indicating a shift toward longer and more-
complex breach investigations. The trend
continued this year as detection and
escalation costs remained in the top spot
and rose from USD 1.44 million to USD 1.58
million, demonstrating a change of USD
140,000 or 9.7%. Detection and escalation
costs include activities that enable a
company to reasonably detect a breach
and can include forensic and investigative
activities, assessment and audit services,
crisis management, and communications
to executives and boards.
The other key cost segments of a data
breach—lost business cost, post-breach
response and notification—also saw
changes compared to 2022. Lost business
costs dropped 8.5%, from USD 1.42
million in 2022 to USD 1.30 million in
2023. Lost business costs include activities
such as business disruptions and revenue
losses from system downtime, the cost
of lost customers and acquiring new
customers, and reputation losses and
diminished goodwill.
Notably, the notification cost segment rose
from USD 310,000 in 2022 to USD 370,000
in 2023, which represents a 19.4%
increase. Post-breach response costs rose
by just USD 20,000. Notification costs
include activities that enable the company
to notify data subjects, data protection
regulators and other third parties.
15
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2018 2019 2020 2021 2022 2023
Notification
Post-breach response
Detection and escalation
Lost business cost
$1.45 $1.42 $1.52 $1.59 $1.42
$1.30
$1.23 $1.22 $1.11
$1.24 $1.44 $1.58
$1.02 $1.07 $0.99
$1.14
$1.18 $1.20
$0.16 $0.21 $0.24
$0.27
$0.31 $0.37
$0.00
$0.50
$1.00
$1.50
$2.00
$2.50
$3.00
$3.50
$4.00
$4.50
Complete findings
02
16. Figure 7. Smaller organizations faced
considerably higher data breach costs
than last year.
In 2023, organizations with more than
5,000 employees saw the average cost
of a data breach decrease compared to
2022. On the other hand, those with
5,000 or fewer employees saw
considerable increases in the average
cost of a data breach.
Organizations with fewer than 500
employees reported that the average
impact of a data breach increased from
USD 2.92 million to USD 3.31 million or
13.4%. Those with 500–1,000 employees
saw an increase of 21.4%, from USD 2.71
million to USD 3.29 million. In the 1,001–
5,000 employee range, the average cost of a
data breach increased from USD 4.06 million
to USD 4.87 million, rising nearly 20%.
In the 10,001–25,000 range, respondents
reported an average cost of USD 5.46
million, a decrease of 1.8% from 2022’s
figure of USD 5.56 million. Organizations
with more than 25,000 employees saw the
average cost drop from USD 5.56 million
in 2022 to USD 5.42 million in 2023, a
decrease of USD 140,000 or 2.5%.
16
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Cost of a data breach by head count
Figure 7. Measured in USD millions
$2.95
$2.61
$4.05
$5.10
$5.47
$5.28
$2.92
$2.71
$4.06
$5.18
$5.56 $5.69
$3.31 $3.29
$4.87
$4.33
$5.46 $5.42
$0.00
$1.00
$2.00
$3.00
$4.00
$5.00
$6.00
Fewer than 500
employees
500–1,000
employees
1,001–5,000
employees
5,001–10,000
employees
10,001–25,000
employees
More than 25,000
employees
2021 2022 2023
17. Figure 8. Most organizations continue
to increase the prices of services and
products as a result of a data breach.
The majority (57%) of respondents
indicated that data breaches led to an
increase in the pricing of their business
offerings, passing on costs to consumers.
This finding is similar to our 2022 report,
where 60% of respondents said they
increased prices.
Did the data breach result in your
organization increasing the cost of
services and products?
Figure 8. Share of total sample
of breached organizations
Yes
57%
No
43%
17
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18. $0 $40 $80 $120 $160 $200
$183
Customer PII
$181
Employee PII
$168
Other corporate data
$138
Anonymized customer data (non-PII)
$156
Intellectual property
Figures 9a and 9b. Customer PII was
the costliest—and most common—record
compromised.
Of all record types, customer and employee
personal identifiable information (PII)
was the costliest to have compromised.
In 2023, customer PII such as names and
Social Security numbers cost organizations
USD 183 per record, with employee PII
close behind at USD 181 per record.
The least expensive record type to have
compromised is anonymized customer
data, which cost organizations USD 138 per
record in 2023.
As was the case in 2022 and 2021,
customer PII was the most commonly
breached record type in 2023. 52%
of all breaches involved some form of
customer PII. This is an increase of five
percentage points from 2022, when
customer PII accounted for 47% of all data
compromised. The second-most commonly
compromised data type was employee
PII at 40%. Compromised employee PII
has seen sizable growth from 2021,
when it only accounted for 26% of all
records compromised.
Compromised intellectual property grew
three percentage points since 2022, while
anonymized (non-PII) data dropped seven
percentage points from 2022—decreasing
from 33% to 26%. Other corporate
data, such as financial information and
client lists, increased from 15% of data
compromised in 2022 to 21% in 2023.
18
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02
Type of data compromised
Figure 9a. More than one response permitted
Per-record cost of a data breach by type of record compromised
Figure 9b. Measured in USD
12%
15%
21%
Other corporate data
28%
33%
26%
27%
31%
34%
Intellectual property
26%
34%
40%
Employee PII
44%
47%
52%
Customer PII
0% 10% 20% 30% 40% 50% 60%
2023 2022 2021
19. 19
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USD 4.90M
Average cost of a data breach with a malicious
insider initial attack vector
16%
Percentage of breaches in which
phishing was the initial attack vector
Initial attack vectors
This section examines the initial attack
vector identified for data breaches in
the study and its impact on the breach
cost and timeline. It identifies the most
common root causes for data breaches in
the report and compares the average cost
of breaches for each category as well as
the average time to identify and contain
those breaches. Phishing and stolen or
compromised credentials were the two
most prevalent attack vectors in this year’s
report, and both also ranked among the top
four costliest incident types.
Complete findings
02
20. Figure 10. Phishing and stolen or
compromised credentials were the two
most common initial attack vectors.
Phishing and stolen or compromised
credentials were responsible for 16%
and 15% of breaches, respectively, with
phishing moving into the lead spot by
a small margin over stolen credentials,
which was the most common vector in
the 2022 report. Cloud misconfiguration
was identified as the initial vector for 11%
of attacks, followed by business email
compromise at 9%. This year, for the first
time, the report examined both zero-day
(unknown) vulnerabilities as well as known,
unpatched vulnerabilities as the source
of the data breach and found that more
than 5% of the breaches studied originated
from known vulnerabilities that had yet
to be patched.
Although relatively rare at 6% of
occurrences, attacks initiated by malicious
insiders were the costliest, at an average
of USD 4.90 million, which is 9.6% higher
than the global average cost of USD 4.45
million per data breach. Phishing was
the most prevalent attack vector and
the second most expensive at USD 4.76
million. Breaches attributed to system error
were the least costly, at an average of USD
3.96 million, and the least common, at 5%
of occurrences.
20
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Figure 10. Measured in USD millions
Business email
compromise
$4.67
Cloud
misconfiguration
$4.00
Phishing
$4.76
Physical security
compromise
$4.10
Social
engineering
$4.55
Stolen or compromised
credentials
$4.62
Unknown (zero-day)
vulnerability
$4.45
$3.50
$3.80
$4.10
$4.40
$4.70
$5.00
4% 6% 8% 10% 12% 14% 16% 18%
Accidental data loss or lost
or stolen device
$4.46
Known unpatched
vulnerability
$4.17
Malicious insider
$4.90
System error
$3.96
Complete findings
02
Cost and frequency of a data breach by initial attack vector
21. 0 50 100 150 200 250 300 350
MTTI MTTC
240 88 328
Stolen or compromised credentials
228 80 308
Malicious insider
218 80 298
Social engineering
217 76 293
Phishing
205 78 283
Accidental data loss or lost or stolen device
195 77 272
Unknown (zero-day) vulnerability
198 69 267
Physical security compromise
194 72 266
Business email compromise
190 68 258
Cloud misconfiguration
183 70 253
Known unpatched vulnerability
180 56 236
System error
Figure 11. Breaches that initiated with
stolen or compromised credentials
and malicious insiders took the longest
to resolve.
This year, it took nearly 11 months (328
days) to identify and contain data breaches
resulting from stolen or compromised
credentials, on average, and about 10
months (308 days) to resolve breaches
that were initiated by a malicious insider.
Those two vectors, along with phishing
and business email compromise, were also
responsible for the costliest breaches.
As a point of comparison, the overall mean
time to identify and contain a data breach
was 277 days or just over nine months.
That figure has remained relatively constant
over the past few years of the report.
21
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02
Time to identify and contain a data breach by initial attack vector
Figure 11. Measured in days
22. 22
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33%
Only one-third of breaches
were identified by the
organizations’ internal
security teams and tools
Identifying attacks
This section looks at how breaches
were identified and the differences in
cost and containment time based on
the identification method, analyses that
are reported for the first time this year.
There are three categories that define
how breaches are identified: by an
organization’s internal security teams and
tools, including managed security service
providers (MSSPs); by a benign third
party, such as a security researcher or law
enforcement; and by disclosure from the
attacker, as in the case of ransomware.
Complete findings
02
23. Figure 12. Breaches were most commonly
identified by a benign third party.
40% of breaches were identified by a
benign third party or outsider, whereas
33% of breaches were identified by internal
teams and tools. Over one-quarter or 27%
of breaches were disclosed by the attacker
as part of a ransomware attack.
Figure 13. Data breaches disclosed by the
attacker, such as with ransomware, cost
significantly more.
Attacks disclosed by attackers had an
average cost of USD 5.23 million, which
was a 19.5% or USD 930,000 difference
over the average cost of breaches identified
through internal security teams or tools of
USD 4.30 million. Additionally, breaches
disclosed by attackers cost 16.1% or USD
780,000 more than the USD 4.45 million
average cost of a data breach for 2023.
Breaches identified by an organization’s
own security teams and tools were
significantly less expensive, costing nearly
USD 1 million less than incidents disclosed
by the attacker.
23
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How was the breach identified?
Figure 12. Only one response permitted
Cost of a data breach by how the breach was identified
Figure 13. Measured in USD millions
Complete findings
02
0% 5% 10% 15% 20% 25% 30% 35% 40% 45%
27%
By disclosure from the attacker
33%
By the organization’s
security teams and tools
40%
By a benign third party
$4.68
By a benign third party
$0.00 $1.00 $2.00 $3.00 $4.00 $5.00 $6.00
$5.23
By disclosure from the attacker
$4.30
24. Figure 14. Data breaches disclosed by
the attacker also took the longest time to
identify and contain.
Respondents required a mean time of
320 days to identify and contain breaches
disclosed by the attacker. This time frame
was 80 additional days or 28.2% longer
compared to breaches identified internally,
which took a mean time of 241 days to
identify and contain. The mean time to
identify and contain a breach disclosed by
the attacker took 47 days or 15.9% longer
compared to breaches identified by a
benign third party.
24
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Time to identify and contain a breach by how the breach was identified
Figure 14. Measured in days
Complete findings
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0 50 100 150 200 250 300 350
MTTI MTTC
233 87 320
By disclosure from the attacker
203 70 273
By a benign third party
182 59 241
By the organization’s security teams and tools
25. Next section
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Data breach lifecycle
The data breach lifecycle is defined as the
elapsed time between the initial detection
of the breach and its containment. “Time
to identify” describes the time, in days,
it takes to discover an incident. “Time
to contain” refers to the time, in days,
it takes for an organization to resolve
the situation and restore service after
the breach has been detected. These
two metrics help determine the
effectiveness of an organization’s
IR and containment processes.
Complete findings
02
277 days
Time to identify and contain a data breach
26. Figure 15. A shorter data breach lifecycle
continues to be associated with lower
data breach costs.
A shorter data breach lifecycle of fewer
than 200 days was associated with an
average cost of USD 3.93 million, while a
longer lifecycle of more than 200 days was
associated with an average cost of USD
4.95 million. This reflects a 23% difference
and a cost savings of USD 1.02 million for
the shorter lifecycle.
Looking back at previous years, the average
cost of a data breach based on the 200-
day lifecycle has been relatively consistent,
although it changed incrementally.
For a data breach lifecycle of fewer than
200 days, the 2023 value of USD 3.93
million grew 5.1% from the previous year’s
average cost of USD 3.74 million. For a data
breach lifecycle of more than 200 days, the
2023 value of USD 4.95 million grew 1.9%
from the previous year’s average cost of
USD 4.86 million. The average cost savings
of USD 1.02 million reported in 2023
reflects an 8.9% decrease from 2022’s
cost savings of USD 1.12 million.
26
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Cost of a data breach based on the
breach lifecycle
Figure 15. Measured in USD millions
Complete findings
02
$3.93
$4.95
$0.00
$1.00
$2.00
$3.00
$4.00
$5.00
$6.00
Lifecycle
<200 days
27. USD 5.36M
Average cost of a breach for organizations
with high levels of security skills shortage
Key cost factors
The types of security technologies and
practices employed within an organization
are among many factors that influence the
mean cost of a data breach. This section
quantifies 27 cost factors to help security
and risk decision-makers understand the
degree to which these factors amplify
or mitigate costs. These factors aren’t
additive, so it’s not consistent with the
research methodology to add multiple cost
factors together to calculate the potential
cost of a breach.
Complete findings
02
This year, the Cost of a Data Breach Report
considers several new factors, including
supply chain breaches, ASM tools, data
security and protection software, endpoint
detection and response (EDR) tools, threat
intelligence, proactive threat hunting,
IR teams, and security orchestration,
automation and response (SOAR) tools.
28. Impact of key factors on total cost of a data breach
Figure 16. Measured in USD
Figure 16. The impact of 27 factors on the
mean cost of a data breach.
The chart demonstrates the average cost
difference of breaches at organizations with
these cost-influencing factors compared
to the overall average data breach cost of
USD 4.45 million. Cost mitigators describe
those factors that are associated with a
lower-than-average breach cost, while cost
amplifiers are associated with a higher-
than-average breach cost.
The three factors that rank most effective
as cost mitigators—those associated
with the biggest cost reduction—are
the adoption of a DevSecOps approach,
employee training, and IR planning
and testing. For example, breaches at
organizations with a DevSecOps approach
in place had an average cost that was USD
249,000 less than the 2023 mean cost
of a data breach of USD 4.45 million or
approximately USD 4.20 million.
The biggest cost amplifiers were security
system complexity, security skills shortage,
and noncompliance with regulations. For
example, breaches at organizations with
security system complexity had an average
cost of USD 241,000 more than the 2023
mean cost of a data breach of USD 4.45
million or approximately USD 4.69 million.
28
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Complete findings
02
$240,889
$238,637
$218,915
$218,362
$216,441
$195,428
$192,485
$173,074
-
-
$73,082
$130,086
-$162,278
-$167,818
-$170,412
-$174,267
-$180,358
-$187,703
-$196,452
-$196,936
-$201,111
-$202,232
-$202,347
-$221,593
-$221,794
-$225,627
-$232,008
-$232,867
-$249,278
-$300,000 -$200,000 -$100,000 Avg. cost $100,000 $200,000 $300,000
Security system complexity
Security skills shortage
Noncompliance with regulations
Migration to the cloud
Third-party involvement
IoT or OT environment impacted
Supply chain breach
Remote workforce
MSSP
CISO appointed
ASM tools
Board-level oversight
Data security and protection software
EDR tools
Identity and access management (IAM)
Offensive security testing
Insurance protection
Threat intelligence
Proactive threat hunting
SOAR tools
Security information and event management (SIEM)
Encryption
IR team
AI, machine learning–driven insights
IR plan and testing
Employee training
DevSecOps approach
29. Figure 17. The three most impactful cost
amplifiers out of 27 factors.
This chart compares organizations
with the highest levels of a top-ranking
cost amplifier to those with the lowest
level, which in some cases could mean
no instance of that same factor. This
comparison differs from the prior analysis
(Figure 16) in which a high presence of
these factors is compared to the mean.
There was a difference of USD 1.58 million
or 34.6% between high levels and low
levels of secrity skills shortage. A difference
of USD 1.44 million or 31.6% occurred
between high levels and low levels of
security system complexity. And there
was a difference of USD 1.04 million or
23% between high levels and low levels
of noncompliance with regulations.
Organizations with a high level of security
skills shortage had a USD 5.36 million
average cost, which was USD 910,000
higher than the average cost of a data
breach, a difference of 18.6%. Those with
a high level of security system complexity
had a USD 5.28 million average cost, for
a difference of USD 830,000 or 17.1%
compared to the average cost of a data
breach. Organizations with a high level of
noncompliance with regulations showed
an average cost of USD 5.05 million, which
exceeded the average cost of a data breach
by USD 560,000, a difference of 12.6%.
29
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Cost of a data breach for organizations with a high level
versus low level of three cost-amplifying factors
Figure 17. Measured in USD millions
$5.36 $5.28
$5.05
$3.78 $3.84 $4.01
$0.00
$1.00
$2.00
$3.00
$4.00
$5.00
$6.00
Security skills shortage Security system
complexity
High level Low level or none
Complete findings
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30. Figure 18. The three most impactful cost
mitigators out of 27 factors.
The chart compares organizations with
the highest levels of a top-ranking cost
mitigator to those with the lowest level,
which in some cases could mean no
instance of that same factor. The average
cost of a breach showed a difference
of USD 1.68 million or 38.4% between
organizations with high levels and low
levels of a DevSecOps approach. There
was a difference of USD 1.49 million or
34.1% between high levels and little to no
IR planning and testing. And last, there was
a difference of USD 1.5 million or 33.9%
between high levels and low levels of
employee training.
Organizations with high levels of these cost
mitigators present had a significantly lower
than average cost of a data breach. High-
level DevSecOps adopters had an average
cost of USD 3.54 million—a difference
of USD 910,000 or 22.8% compared to
the overall average cost of a data breach.
Organizations with a low usage of a
DevSecOps approach had an average cost
of USD 5.22 million, which was significantly
higher by a difference of USD 770,000
or 15.9% compared to the average cost
of a data breach.
30
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Cost of a data breach for organizations with a high level
versus low level of three cost-mitigating factors
Figure 18. Measured in USD millions
Complete findings
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$3.54 $3.62 $3.68
$5.22 $5.11 $5.18
$0.00
$1.00
$2.00
$3.00
$4.00
$5.00
$6.00
DevSecOps approach IR plan and testing Employee training
High level Low level or none
31. 31
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25%
Share of malicious
attacks that rendered
systems inoperable
Ransomware and
destructive attacks
This year, ransomware and destructive
attacks3
accounted for 24% and 25% of
malicious attacks, respectively.
As in the 2022 report, we looked at the
lifecycle of these types of breaches and
the impact of paying a ransom compared
to not paying a ransom. This study
doesn’t include the cost of the ransom in
calculating the total cost of the breach.
In the 2023 report, for the first time, we
examined the influence of involving law
enforcement in the effort to contain a
ransomware attack.
Complete findings
02
32. Figure 19. Nearly one-quarter of attacks
involved ransomware.
Destructive attacks that left systems
inoperable accounted for one out of every
four attacks, and another 24% involved
ransomware. Business partner and
software supply chain attacks accounted
for 15% and 12% of attacks, respectively.
Figure 20. Ransomware attack costs
increased significantly.
At USD 5.13 million, the average cost of
a ransomware attack in the 2023 report
increased 13% from the average cost of
USD 4.54 million in the 2022 report. At
USD 5.24 million, the average cost of a
destructive attack in the 2023 report also
increased 2.3% from the average cost of
USD 5.12 million in the 2022 report.
32
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Share of total breaches by type of malicious attack
Figure 19. Percentages for each attack type shown are
out of total breaches; bars will not sum to 100%
Cost of a ransomware or destructive attack
Figure 20. Measured in USD millions
Complete findings
02
12%
15%
24%
25%
0% 5% 10% 15% 20% 25% 30%
Attack on the software supply chain
Attack on the business partner supply chain
Ransomware
Destructive attack
$5.13
$5.24
$0.00 $1.00 $2.00 $3.00 $4.00 $5.00 $6.00
Ransomware attack
Destructive attack
33. Figures 21 and 22. Organizations that
involved law enforcement saw significant
time and cost savings.
37% of ransomware victims opted not to
involve law enforcement to help contain
a ransomware breach, but those that did
experienced a less costly ransomware
breach overall. The average cost of a
ransomware breach was USD 5.11 million
when law enforcement wasn’t involved and
USD 4.64 million when law enforcement
was involved, for a difference of 9.6%
or USD 470,000.
33
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Share of ransomware attacks with
law enforcement involved
Figure 21. Share of all ransomware attacks
63%
37%
Law enforcement involved
Law enforcement not involved
Cost of a ransomware attack by
law enforcement involvement
Figure 22. Measured in USD millions
Complete findings
02
$4.64
$5.11
$0.00
$1.00
$2.00
$3.00
$4.00
$5.00
$6.00
Law enforcement
involved
Law enforcement
not involved
34. Time to identify and contain a ransomware
attack with law enforcement involvement
Figure 23. Measured in days
Figure 23. Law enforcement helped
shorten time to identify and contain
ransomware breaches.
Total time to identify and contain a
ransomware breach was 11.4% or 33 days
shorter with law enforcement involvement,
at 273 days in total compared to 306 days.
The mean time to contain a ransomware
breach was 63 days or 23.8% shorter with
law enforcement involvement compared
to 80 days without. It’s clear that involving
law enforcement can help reduce the cost
and duration of a ransomware breach.
34
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Complete findings
02
306
273
MTTC
MTTI
210 63
226 80
35. Figure 24. Automated response playbooks
or workflows cut down the time to contain
a ransomware breach.
Among organizations that experienced
a ransomware attack, those that had
automated response playbooks or
workflows designed specifically for
ransomware attacks were able to contain
them in 68 days or 16% fewer days
compared to the average of 80 days for
organizations without automated response
playbooks or workflows.
Figure 25. Paying the ransom led to
minimal cost savings.
Organizations that paid the ransom during
a ransomware attack achieved only a
small difference in total cost, at USD 5.06
million compared to USD 5.17 million, a
cost difference of USD 110,000 or 2.2%.
However, this calculation doesn’t include
the cost of the ransom itself. Given the
high cost of most ransomware demands,
organizations that paid the ransom likely
ended up spending more overall than
those that didn’t pay the ransom. In the
2022 report, the total cost savings were
USD 630,000, with a total cost difference
of 13.1%, again not including the cost of
the ransom itself. The data shows that
paying a ransom has become increasingly
less advantageous overall, with an 82.5%
decrease in savings from the 2022 to
2023 reports.
35
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Impact of automated response playbooks or workflows for ransomware
on time to contain a ransomware breach
Figure 24. Measured in days
Cost of a ransomware attack based on whether the ransom was paid
Figure 25. Measured in USD millions (cost of ransom not included)
Complete findings
02
68
80
0 10 20 30 40 50 60 70 80 90
Had automated response
playbooks or workflows
Didn’t have automated response
playbooks or workflows
MTTC
$4.49
$5.06
Paid ransom
$5.12
$5.17
Didn’t pay ransom
$0.00 $1.00 $2.00 $3.00 $4.00 $5.00 $6.00
2023 2022
36. 36
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Business partner supply
chain attacks
A business partner supply chain
compromise is a data breach that originates
with an attack on a business partner. In
this year’s study, 15% of organizations
identified a supply chain compromise as
the source of a data breach.
Complete findings
02
Time to identify and contain a data breach based on occurrence
of a business partner supply chain compromise
Figure 27. Measured in days
Cost of a data breach due to a business partner supply chain compromise
Figure 26. Measured in USD millions
Figures 26 and 27. A business partner
supply chain compromise cost 11.8%
more and took 12.8% longer to identify
and contain than other breach types.
The cost of a data breach due to a business
partner supply chain compromise averaged
USD 4.76 million, which was USD 530,000
or 11.8% higher than the USD 4.23 million
average cost of a data breach that was due
to another cause.
Organizations took an average of 233
days to identify and 74 days to contain a
business partner supply chain compromise,
for a total lifecycle of 307 days. That
average lifecycle was 37 days or 12.8%
longer than the average lifecycle of 270
days for data breaches attributed to
another cause.
$4.23
$4.76
$0.00 $1.00 $2.00 $3.00 $4.00 $5.00
Not a business partner supply
chain compromise
Business partner supply
chain compromise
MTTI MTTC
206
233
64
74
270
307
0 50 100 150 200 250 300
Not a business partner supply
chain compromise
Business partner supply
chain compromise
37. 37
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12%
Share of data breaches
originated from a software
supply chain attack
Software supply chain attacks
For the first time this year, the study also
examined attacks that originated from a
software supply chain attack in which an
attacker infiltrates a software vendor’s
network and deploys malicious code
to compromise the software before the
vendor sends it to its customers. The
compromised software then attacks the
customer’s data or system. In this year’s
study, 12% of organizations identified a
software supply chain attack as the source
of a data breach.
Complete findings
02
38. 269
202 67
217 77 294
0 50 100 150 200 250 300
Not a software supply
chain compromise
Software supply
chain compromise
MTTI MTTC
$4.26
$4.63
$0.00 $1.00 $2.00 $3.00 $4.00 $5.00
Software supply
chain compromise
Figures 28 and 29. Software supply chain
compromises cost 8.3% more and took
8.9% longer to identify and contain than
other breach types.
The cost of a data breach due to a software
supply chain compromise averaged USD
4.63 million, which was USD 370,000 or
8.3% higher than the USD 4.26 million
average cost of a data breach that was
due to another cause. A breach due to a
software supply chain compromise had
an 8.9% longer lifecycle, at 294 days
compared to 269, than data breaches
due to other causes.
38
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Time to identify and contain a data breach based on
occurrence of a software supply chain compromise
Figure 29. Measured in days
Cost of a data breach based on occurrence of a software
supply chain compromise
Figure 28. Measured in USD millions
Complete findings
02
Although a supply chain compromise
originating from within the software supply
chain is less costly than one originating
from a business partner, both still cost
more and take longer than the average
data breach.
39. Next section
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USD 250,000
20% of organizations that experienced
a data breach paid this much or more
in fines
Regulatory environments
The research examined how the degree of
data regulation affected the cost of a data
breach. In environments with high levels of
data regulation, 58% of costs continued to
accrue after the first year. In low-regulation
environments, 64% of the costs associated
with a breach were more likely to be
resolved within the first year.
The cost of a data breach tends to change
in the time elapsed since the breach. There
may be different costs associated with each
stage of the breach as it’s identified and
contained and as the compromised data is
recovered or repaired.
Complete findings
02
40. Figures 30a and 30b. Peak costs were
incurred more than two years after a
data breach was identified in high-data
regulation environments.
Organizations in low-regulation
environments took on nearly two-thirds
of their data breach costs in the first
year, whereas organizations in high-
regulation environments took on less
than half of their data breach costs in
the first year. Data breach costs in low-
regulation environments peaked at 21%
of total costs accrued in the time frame of
6–9 months. Data breach costs in high-
regulation environments peaked at 21%
of total costs accrued after the two-year
mark. The bulk of data breach costs in
a low-regulation environment spiked
early on and tapered with time. In a high-
regulation environment, costs oscillated
and continued to rise two years after the
breach was identified.
40
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Distribution over time of data breach costs in low-data versus high-data regulation environments
Figure 30a. Percentage of total costs accrued in three-month intervals
Distribution of data breach costs by
year in low-data versus high-data
regulation environments
Figure 30b. Percentage of total costs over the years
Time elapsed
since breach Percentage of total cost
2023
average
Low
regulation
High
regulation
First year 51% 64% 42%
Second year 31% 32% 37%
Two-plus years 18% 4% 21%
Complete findings
02
5%
16%
6%
7%
2%
18%
10%
20%
16%
5%
4%
18%
10%
15%
21%
14%
4%
9%
16%
9%
10%
13%
3%
10%
3%
15%
21%
0%
5%
10%
15%
20%
25%
0–3
months
3–6
months
6–9
months
9–12
months
12–15
months
15–18
months
18–21
months
21–24
months
>2 years
2023 average Low regulation High regulation
41. $5.04
Other industries
$3.78
Cost of a data breach for critical infrastructure
industries versus other industries
Figure 31. Data breach costs for critical
infrastructure industries exceed
USD 5 million.
Critical infrastructure organizations
included those in the financial
services, industrial, technology, energy,
transportation, communication, healthcare,
education and public sector industries.
These organizations incurred data breach
costs that were USD 1.26 million higher
than the average cost of USD 3.78 million
for organizations in other industries, a
difference of 28.6%. This USD 5.04 million
value also reflects a 4.6% increase of
USD 4.82 million over the 2022 reported
average cost of a data breach for critical
infrastructure industries.
41
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Complete findings
02
Figure 31. Measured in USD millions
42. Figures 32 and 33. Fewer than one-third
of organizations incurred fines due to data
breaches, and 80% of fines amounted to
USD 250,000 or less.
Of the organizations studied, 31% incurred
fines as a result of a data breach, and only
20% of those fines exceeded USD 250,000.
A fine of USD 250,000 represented 5.6%
of the average total cost of a data breach
in the 2023 report.
42
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Did your organization incur any
fines from the data breach?
Figure 32. Share of all organizations
31%
69%
Incurred fines No fines
Distribution of cost of fines incurred from a data breach
Figure 33. Among those that experienced fines, as measured in USD
Complete findings
02
0%
5%
10%
15%
20%
25%
30%
15%
Less than $25,000
19%
$25,000–$50,000
25%
$50,001–$100,000
21%
$101,001–$250,000
20%
More than $250,000
43. 43
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82%
Share of breaches that
involved data stored in
cloud environments—
public cloud, private
cloud or across multiple
environments
Cloud breaches
The cost and duration of a breach varied
depending on where the data was stored.
Most commonly, the breaches studied
included data that spanned multiple
environments—including cloud and on
premises—and breaches of this type also
contributed to higher costs and longer time
to identify and contain a data breach.
Complete findings
02
44. Figure 34. Breaches most commonly
impacted data stored across multiple
environments.
The largest percentage of breaches,
39%, involved data stored across
multiple environments, followed by 27%
of breaches that involved data stored in
the public cloud. The number of breaches
occurring across multiple environments
surpassed the combined 34% of
breaches occurring only in private
cloud or on-premises environments.
44
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Where was the breached data stored?
Figure 34. Share of all breaches
Complete findings
02
Figure 35. Data breaches in public
clouds and multiple environments
had higher costs.
In the 2023 report, the cost of data
breaches across multiple environments
reached USD 4.75 million, the highest
cost of the environments analyzed, and
17.6% higher than the USD 3.98 million
cost of data breaches in a private cloud
environment, which was the lowest
cost of the environments analyzed. The
cost of data breaches across multiple
environments also exceeded the average
cost of a data breach of USD 4.45 million
by a margin of 6.5%.
Cost of a data breach by storage location of breached data
Figure 35. Measured in USD millions
$3.98
$4.57
$3.99
$4.75
$0.00 $0.50 $1.00 $1.50 $2.00 $2.50 $3.00 $3.50 $4.00 $4.50 $5.00
On premises
Public cloud
Private cloud
16%
27%
18%
39%
0% 5% 10% 15% 20% 25% 30% 35% 40%
Across multiple types
of environments
On premises
Public cloud
Private cloud
45. Figure 36. The use of public clouds and
multiple environments also contributes
to longer data breach lifecycles.
The longest time to identify and contain
a breach involved data stored across
multiple environments, taking 291 days.
This interval exceeded the shortest time to
identify and contain a breach—which was
235 days in a private cloud environment—
by 56 days or 21.3%. It’s also worth noting
that the use of multiple environments is
the only model that exceeds the 2023
reported average time to identify and
contain a data breach of 277 days by
a margin of 14 days or 4.9%.
45
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Time to identify and contain a data breach by storage location of breached data
Figure 36. Measured in days
Complete findings
02
178 54 232
On premises
0 50 100 150 200 250 300
MTTI MTTC
178 56 235
Private cloud
207 69 276
Public cloud
216 76 291
Across multiple types
of environments
46. 46
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USD 332M
Average total cost for breaches of
50 million to 60 million records
Mega breaches
Mega breaches, characterized by more
than one million compromised records, are
relatively rare. But they exert a powerful
impact due to their outsized scope.
This year’s study included 20 organizations
that endured the loss or theft of between
1 million and 60 million records due to data
breaches. The study deployed a distinct
methodology to examine those mega
breaches. They were considered separately
from the study’s other 553 breaches,
each including no more than 101,200
lost or compromised records. For a full
explanation of the research methodology,
see the data breach FAQs at the end
of this report.
Complete findings
02
47. Figure 37. The cost of mega breaches fell
in the 2023 report.
Across all breach size cohorts, the average
cost of a mega breach fell to varying
degrees. The highest percentage decrease
occurred in the 1 million to 10 million
cohort, with a 26.5% decrease from USD
49 million in the 2022 report to USD 36
million in the 2023 report. The smallest
percentage decrease occurred in the 30
million to 40 million cohort, with a 3.8%
decrease from USD 316 million in the
2022 report to USD 304 million in the
2023 report. In the 50 million to 60 million
cohort, the 2022 reported cost of USD 387
million decreased by USD 55 million
or 14.2% to equal USD 332 million in
the 2023 report.
47
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Cost of a mega breach by number of records lost
Figure 37. Measured in USD millions
Complete findings
02
$0
$50
$100
$150
$200
$250
$300
$350
$400
2022 2023
$332
$387
50M–60M
$328
$379
40M–50M
30M–40M
$304
$316
$225
$241
20M–30M
$166
$180
10M–20M
1M–10M
$36
$49
48. 48
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Security investments
This section examines the security
investment strategies that organizations
adopted after experiencing a data breach.
We’ll explore how often organizations
increased spending after a breach as well
as how they chose to allocate funds.
Complete findings
02
51%
Percentage of
organizations increasing
security investments
after a breach
49. Figure 38. Respondents were split on
increasing security investment after
a breach.
Even as the global cost of a data breach
increased, research participants reported
divided perspectives on increasing security
investments after an incident. 51% of
respondents indicated they planned
for additional security spending after
the breach.
49
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Following the data breach, will
your organization increase its
security investment?
Figure 38. Percentage of all organizations
Complete findings
02
51%
49%
Will increase security investment
Won’t increase security investment
50. 50
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Figure 39. IR planning and testing and
employee training saw significant
post-breach investment.
Of the 51% that increased spending after
a breach, organizations’ most common
investment was in IR planning and testing at
50%, followed closely by employee training
at 46%. Threat detection and response
technologies placed third at 38%, making
them the top-ranked technology or tool
investment considered in this section.
Notably, these three investments map
closely to top factors associated with lower
data breach costs that are explored in this
year’s key cost factors section. At only 18%
of respondents, insurance protection was
the least common investment after a breach.
Most common investment types among those increasing security
investments following a breach
Figure 39. Share among organizations that are increasing investment; more than one response permitted
Complete findings
02
0% 10% 20% 30% 40% 50%
18%
Insurance protection
25%
Data security or protection tools
31%
Managed security services
32%
IAM
35%
Offensive security testing
38%
Threat detection and response technologies
46%
Employee training
50%
IR plan and testing
51. 51
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108 days
Organizations with extensive use of security AI
and automation identified and contained a data
breach 108 days faster than organizations
with no use.
Security AI and automation
With security AI and automation use
cases for the security industry advancing,
this report examines the impact of these
technologies on data breach costs and
timelines. Examples include the use of
AI, machine learning, automation and
orchestration to augment or replace human
intervention in detection and investigation
of threats as well as the response and
containment process. On the opposite
end of the spectrum are processes driven
by manual inputs, often across dozens of
tools and complex, nonintegrated systems,
without data shared between them.
Though this is the sixth year of investigating
the impact of AI and automation on
cybersecurity, this year we’re introducing
new criteria that considered AI’s permeation
throughout an organization’s security
processes as opposed to its level of
deployment—ranging from not deployed
to partially or fully deployed—in prior
years’ data.
– “Extensive use” refers to the integration
of security AI and automation throughout
operations, including several different
tool sets and capabilities.
– “Limited use” refers to applying AI
to just one or two use cases within
security operations.
– “No use” refers to security processes
that are driven solely by manual inputs.
Complete findings
02
52. State of security AI and automation
comparing three usage levels
Figure 40. Percentage of organizations per usage level
28%
33%
39%
0%
5%
10%
15%
20%
25%
30%
35%
40%
45%
Extensive use Limited use No use
Figure 40. A 61% majority of
organizations employ some level of
security AI and automation.
Only 28% of organizations extensively
used security AI and automation tools in
their cybersecurity processes, while 33%
had limited use. That leaves nearly 4 in
10 relying solely on manual inputs in their
security operations.
52
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Figure 41. Measured in USD millions
Cost of a data breach by security AI
and automation usage level
$3.60
$4.04
$5.36
$0.00
$1.00
$2.00
$3.00
$4.00
$5.00
$6.00
Extensive use Limited use No use
Figure 41. Extensive security AI and
automation use delivered cost savings
of nearly USD 1.8 million.
Organizations with extensive use of security
AI and automation demonstrated the
highest cost savings comparatively, with
an average cost of a data breach at USD
3.60 million, which was USD 1.76 million
less and a 39.3% difference compared to
no use. Even organizations with limited use
of security AI and automation measured
an average cost of a data breach of USD
4.04 million, which was USD 1.32 million
less or a 28.1% difference compared to no
use. However, organizations with no use of
security AI and automation experienced
an average cost of a data breach of USD
5.36 million. This is 18.6% more than the
2023 average cost of a data breach of
USD 4.45 million.
Complete findings
02
53. Figure 42. Extensive security AI and
automation reduced the time to identify
and contain a breach by more than
100 days.
Respondents from organizations
that extensively used security AI and
automation were able to identify and
contain a breach in 214 days, which was
108 days shorter than those with no use.
This means identifying and containing a
breach with extensive use of security AI
and automation took just 66% of the time
it took organizations with no use. Limited
use also made a significant impact, with
an average time to identify and contain a
breach in 234 days, which was 88 days
shorter than organizations with no use.
It’s clear that even a limited effort to
integrate security AI and automation into
security workflows can offer a significant
acceleration in the time to identify and
contain a breach as well as a sizable
reduction in costs.
53
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Time to identify and contain a data breach by security AI and automation use level
Figure 42. Measured in days
Complete findings
02
0 50 100 150 200 250 300
25 75 125 175 225 275 325
MTTI MTTC
167 47 214
Extensive use
172 62 234
Limited use
237 85 322
No use
54. 54
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Incident response
IR strategies and tactics have been
instrumental in reducing the impact of data
breaches. The most effective IR strategy
for reducing the duration of a data breach
was to combine formation of an IR team
with testing of the IR plan. However, some
organizations pursued only one of those
two strategies. As a standalone effort, IR
plan testing was more effective than only
forming an IR team in reducing the total
time to identify and contain the breach.
Complete findings
02
54 days
Organizations with both an IR team and IR plan
testing identified breaches 54 days faster than
those with neither.
55. 55
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Figure 43. The combined IR strategy
saved 54 days in identifying and
containing a breach.
The dual strategy of forming an IR team
and testing an IR plan demonstrated a
shorter time, 252 days, to identify and
contain a data breach compared to 306
days of employing neither approach, a
difference of 54 days or 19.4%. Testing the
IR plan without forming a team was nearly
as effective, resulting in a difference of
48 days or 17%.
Time to identify and contain a data breach by IR team formation and testing
Figure 43. Measured in days
Complete findings
02
0 50 100 150 200 250 300
MTTI MTTC
216 90 306
208 80 288
196 62 258
194 58 252
Neither IR team nor IR plan testing
Formation of an IR team
Testing of the IR plan
Both IR team and IR plan testing
56. Next section
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28 days
Organizations using threat
intelligence identified
breaches 28 days faster.
Threat intelligence
New to the report this year is the impact
of threat intelligence services on the
mean time to identify a breach. Threat
intelligence services provide security
leaders with information and insights
about cyberthreats and vulnerabilities to
help them improve their organization’s
security posture.
Complete findings
02
57. Doesn’t use threat intelligence
216
Uses threat intelligence
188
Time to identify a data breach using threat intelligence
Figure 44. MTTI measured in days
Figure 44. Threat intelligence reduced
breach identification time.
This year’s research showed that threat
intelligence users uncovered breaches
in 13.9% less time than those without
a threat intelligence investment, a
difference of 28 days. Compared to
this year’s global MTTI of 204 days,
organizations employing threat intelligence
services were able to identify breaches in
8.2% or 16 days less time. Respondents
that did not use threat intelligence took
5.7% or 12 days longer than the global
average to identify breaches.
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Complete findings
02
58. USD 3.98M
Cost of a data breach for organizations that
deployed robust risk-based analysis
Vulnerability and risk
management
New this year, the research examined
how organizations prioritized risks and
vulnerabilities and how this impacted the
cost of a data breach. Organizations with
more proactive and risk-based vulnerability
management, such as vulnerability
testing, penetration testing or red teaming,
experienced lower than average data
breach costs compared to organizations
that relied solely on the industry standard
Common Vulnerabilities and Exposures
(CVE) glossary and the Common
Vulnerability Scoring System (CVSS).
Generally, proactive risk management
efforts involve the organization’s IT
security team adopting the perspective of
a potential attacker to determine which
vulnerabilities are exploitable and can
cause the most harm.
Complete findings
02
59. Figures 45 and 46. Organizations that
prioritize activities beyond CVE score
experienced less costly breaches.
More than one-third of organizations
or 36% relied solely on CVE scoring to
prioritize vulnerabilities, while the majority
of organizations or 64% used more involved
risk-based analysis. The 2023 research
showed a significant difference
in the cost of data breaches between these
two groups. Organizations that deployed
more intensive, risk-based analysis
experienced an average cost of a data
breach of USD 3.98 million, a difference
of 18.3%, compared to USD 4.78 million
for organizations that relied on CVE
scores only.
59
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Complete findings
02
How does your organization manage
vulnerability prioritization?
Figure 45. Percentage of all organizations
36%
64%
CVE score only
Other risk-based analysis
Cost of a data breach by vulnerability-
management prioritization approach
Figure 46. Measured in USD millions
$0.00
$1.00
$2.00
$3.00
$4.00
$5.00
$4.78
CVE score only
$3.98
Other risk-based
analysis, for example,
based on real-world
attacks
60. 60
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Attack surface management
ASM is a set of processes that aids in
the discovery, analysis, remediation and
monitoring of an organization’s potential
attack surfaces or vulnerabilities.
Organizations that deployed an ASM
solution were able to identify and contain
data breaches in 75% of the time of those
without an ASM solution.
Complete findings
02
Time to identify and contain a data breach by use of an ASM solution
Figure 47. Measured in days
Figure 47. ASM helped accelerate total
time to identify and contain a data breach
by nearly 12 weeks.
Without an ASM solution, organizations
took 260 days to identify a data breach
and another 77 days to contain it, for a
total of 337 days or about 11 months.
Organizations with an ASM solution
identified the breach in 193 days and
contained it in 61 days. The 254-day total
time to identify and contain a breach
represented an acceleration of 83 days or
about 12 weeks so the data breaches were
identified and contained in 75% of the time
taken by data breaches at organizations
without ASM solutions.
MTTI MTTC
193
260
61
77
254
337
0 50 100 150 200 250 300 350
Has ASM solution
Doesn’t have ASM solution
61. 61
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Managed security
service providers
For the first time, our research explored
the impact that partnering with an MSSP
had on the time to identify and contain
a breach. MSSPs offer organizations the
ability to outsource security monitoring and
management, often using high-availability
security operations centers to provide
around-the-clock services. MSSPs can
help organizations enhance their security
posture without increasing head count or
investing in training for internal resources.
Complete findings
02
Time to identify and contain a data breach when using an MSSP
Figure 48. Measured in days
Figure 48. Organizations with
MSSPs experienced a 21% shorter
breach lifecycle.
In the 2023 report, organizations that had
an MSSP were able to identify and contain
breaches in 80% of the time of those
without. Organizations that worked with
an MSSP identified breaches 16 days faster
or an 8.2% shorter identification time than
the 2023 reported global average of 204
days. Those that didn’t took 28 days longer
or 12.8% longer. Containment times with
no MSSP were five days longer or 6.6%
longer than the 2023 reported global
average of 73 days. Containment times
with MSSP assistance were 10 days faster
or 14.7% faster.
MTTI MTTC
0 50 100 150 200 250 300
232 78 310
No MSSP
188 63 251
Using MSSP
62. In this section, IBM Security outlines steps
organizations can take to help reduce the financial
and reputational impacts of a data breach. Our
recommendations include successful security
approaches that are associated with reduced costs
and lower times to identify and contain breaches.
03
62
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Recommendations to help
reduce the cost of a data breach
Build security into every stage
of software development and
deployment—and test regularly
Modernize data protection
across hybrid cloud
Use security AI and automation
to increase speed and accuracy
Strengthen resiliency by
knowing your attack surface
and practicing IR
1
2
3
4
63. Build security into every stage of software
development and deployment—and
test regularly
Regulatory requirements continue to
become more intricate, especially as
technology becomes more intertwined
with everyday activities and software
becomes more feature rich and complex.
A DevSecOps approach—the top cost
mitigator in a special analysis of 27 factors
in the 2023 report—will be essential to
building security into any tools or platforms
an organization depends on to engage its
workforce or its customers.
Organizations of all types should look to
ensure that security is at the forefront of
the software they’re developing as well
as commercial off-the-shelf software that
they’re deploying. Application developers
must continue to accelerate the adoption
of the principles of secure by design and
secure by default to ensure that security
is a core requirement that’s considered
during the initial design phase of digital
transformation projects and not simply
addressed after the fact. The same
principles are being applied to cloud
environments to support cloud-native app
development that makes a serious effort to
protect user privacy and minimize attack
surfaces.
1
63
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Application testing or penetration testing
from the perspective of an attacker can
also give organizations the opportunity to
identify and patch vulnerabilities before
they turn into breaches. No technology
or application will ever be fully secure,
and adding more features introduces new
risks. Ongoing application testing can help
organizations identify new vulnerabilities.
03 Recommendations to help reduce
the cost of a data breach
64. Recommendations to help reduce
the cost of a data breach
64
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03
Modernize data protection across
hybrid cloud
Data is being created, shared and accessed
at unprecedented scale across multicloud
environments. Fast-paced adoption of
new cloud applications and services
is compounding the risk of “shadow
data”—sensitive data not being tracked
or managed—increasing security and
compliance risks. The majority (82%) of
data breaches in this report involved data
stored in cloud environments, and 39%
of breaches included data that spanned
multiple types of environments. The
cost and risk of these data breaches are
compounded by an ever-evolving matrix
of regulations and stiff penalties for
noncompliance.
In the wake of these challenges, gaining
visibility and control of data spread across
hybrid cloud should be a top priority for
organizations of all types and should
include a focus on strong encryption,
data security and data access policies.
Companies should seek data security and
compliance technologies that work on all
platforms, allowing them to protect data
as it moves across databases, applications
and services deployed across hybrid cloud
environments. Data activity–monitoring
solutions can help ensure proper controls
are in place while actively enforcing
these policies—such as early detection of
suspicious activity and blocking real-time
threats to critical data stores.
Additionally, newer technologies such as
data security posture management can
help find unknown and sensitive data
across the cloud, including structured
and unstructured assets within cloud
service providers, software as a service
(SaaS) properties and data lakes. This can
help identify and mitigate vulnerabilities
in underlying data store configurations,
entitlements and data flows.
2
As organizations continue to move further
into hybrid multicloud operations, it’s
essential to deploy strong identity and
access management (IAM) strategies that
include technologies such as multifactor
authentication (MFA), with particular focus
on managing privileged user accounts that
have an elevated access level.
65. Recommendations to help reduce
the cost of a data breach
65
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Use security AI and automation to
increase speed and accuracy
In the 2023 report, only 28% of
organizations used security AI and
automation extensively in their operations,
which means many organizations have a
significant opportunity to improve their
speed, accuracy and efficiency. Extensive
use of security AI and automation delivered
nearly USD 1.8 million in data breach
cost savings and accelerated the time to
identify and contain a breach by more
than 100 days compared to organizations
with no use.
Security teams can benefit from having
security AI and automation embedded
throughout their tool sets. For example,
03
using security AI and automation across
threat detection and response tools can
help analysts detect new threats more
accurately and contextualize and triage
security alerts more effectively. These
technologies can also automate portions
of the threat investigation process or
recommend actions to speed response.
Additionally, AI-driven data security and
identity solutions can help drive a proactive
security posture by identifying high-
risk transactions, protecting them with
minimal user friction and stitching together
suspicious behaviors more effectively.
3
When applying AI within your security
operations, look for technologies that
offer trusted and mature use cases with
demonstrated accuracy, effectiveness and
transparency to eliminate potential bias,
blind spots or drift. Organizations should
plan an operational model for AI adoption
that supports continuous learning as
threats and technology capabilities evolve.
Organizations can also benefit from an
approach that tightly integrates core
security technologies for smoother
workflows and the ability to share
insights across common data pools. Chief
information security officers (CISOs) and
security operations (SecOps) leaders can
also use threat intelligence reports to help
with pattern recognition and threat visibility
for emerging threats.
66. Recommendations to help reduce
the cost of a data breach
66
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Strengthen resiliency by knowing
your attack surface and practicing IR
Understand your exposure to the attacks
most relevant to your industry and
organization, and prioritize your security
strategy accordingly. Tools such as ASM or
techniques such as adversary simulation
can help organizations gain an attacker-
informed perspective into their unique risk
profile and vulnerabilities, including which
vulnerabilities are readily exploitable.
Additionally, having a team in place that’s
already versed in the right protocols and
tools to respond to an incident has been
shown to significantly reduce costs and
the time to identify and contain the breach.
Not only was IR planning and testing
a top 3 cost mitigator in the 2023
report, but the data also showed that
organizations with high levels of these
countermeasures in place incurred USD
1.49 million lower data breach costs
compared to organizations with low levels
or none, and they resolved incidents 54
days faster. Form a dedicated IR team,
draft IR playbooks and regularly test IR
plans in tabletop exercises or simulated
environments such as a cyber range.
Having an IR vendor on retainer can also
help speed the time to respond to a breach.
03
4
Lastly, organizations should look to
implement network segmentation
practices to limit the spread of attacks
and the extent of damage they can cause,
strengthening overall resiliency and
reducing recovery efforts.
Recommendations for security practices
are for educational purposes and don’t
guarantee results.
67. 04
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Organization demographics
This year’s study examined 553 organizations of
various sizes across 16 countries and geographic
regions and 17 industries. This section explores
the breakdown of organizations in the study
by geography and industry and defines the
industry classifications.
18 years
The United States has been a part of
the Cost of a Data Breach Report for
18 years, the longest of all countries
or regions involved.
68. Organization demographics
68
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04
The 2023 study was conducted across
16 different countries and regions.
Global study at a glance
Figure 49. Table of all countries studied
Geographic demographics
Countries
2023
sample
Percentage Currency
2023 USD
conversion rate7
Years
studied
ASEAN 23 4% SGD 1.3294 7
Australia 24 4% AUD 1.4916 14
Brazil 43 8% BRL 5.0702 11
Canada 26 5% CAD 1.3525 9
France 34 6% EUR 0.9198 14
Germany 45 8% EUR 0.9198 15
India 51 9% INR 82.19 12
Italy 24 4% EUR 0.9198 12
Japan 42 8% JPY 132.75 12
Latin America4
23 4% MXN 18.025 4
Middle East5
36 7% SAR 3.7037 10
Scandinavia6
22 4% NOK 10.4445 5
South Africa 21 4% ZAR 17.73 8
South Korea 23 4% ZRW 1303.8 6
United Kingdom 49 9% GBP 0.8085 16
United States 67 12% USD 1.00 18
Total 553 100%
69. Organization demographics
69
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The selection of 17 industries has been
included in the study for multiple years.
Industry demographics
04
14%
12%
11%
10%
8%
7%
7%
6%
5%
5%
4%
4%
2%
2%
2%
1% 1%
Distribution of the sample by industry
Figure 50. Percentage of industries
Five industries together
accounted for 55% of
organizations sampled
in this year’s study.
14% Financial
12% Services
11% Technology
10% Industrial
8% Energy
Financial
Professional services
Technology
Industrial
Energy
Public sector
Consumer
Retail
Transportation
Communications
Hospitality
Pharmaceuticals
Entertainment
Education
Media
Research
Healthcare
70. Organization demographics
70
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Industry definitions
Healthcare
Hospitals and clinics
Financial
Banking, insurance and investment
companies
Energy
Oil and gas companies, utilities and
alternative energy producers and suppliers
Pharmaceuticals
Pharmaceuticals including biomedical
life sciences
Industrial
Chemical processing and engineering
and manufacturing companies
Technology
Software and hardware companies
Education
Public and private universities and colleges
and training and development companies
Services
Professional services such as legal,
accounting and consulting firms
Entertainment
Movie production, sports, gaming
and casinos
Transportation
Airlines, railroads and trucking and
delivery companies
Communications
Newspapers, book publishers and public
relations and advertising agencies
Consumer
Manufacturers and distributors
of consumer products
Media
Television, satellite, social media
and internet
Hospitality
Hotels, restaurant chains and cruise lines
Retail
Brick and mortar and e-commerce
Research
Market research, think tanks and research
and development (R&D)
Public
Federal, state and local government
agencies and nongovernmental
organizations (NGOs)
04
71. 05
71
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Research methodology
To preserve confidentiality, the benchmark
instrument didn’t capture any company-specific
information. Data collection methods excluded
actual accounting information and instead relied
on participants estimating direct costs by marking
a range variable on a number line. Participants
were instructed to mark the number line in one
spot between the lower and upper limits of a range
for each cost category.
The numerical value obtained from the
number line, rather than a point estimate
for each presented cost category,
preserved confidentiality and ensured
a higher response rate. The benchmark
instrument also required respondents to
provide a second separate estimate for
indirect and opportunity costs.
In the interest of maintaining a manageable
data set for benchmarking, we included
only those cost activity centers with a
crucial impact on data breach costs.
Based on discussions with experts, we
chose a fixed set of cost activities. After
collecting benchmark information, we
carefully reexamined each instrument for
consistency and completeness.
We limited the scope of data breach cost
factors to known categories that apply to a
broad set of business operations involving
personal information. We chose to focus
on business processes instead of data
protection or privacy compliance activities
because we believed the process study
would yield better-quality results.
72. Research methodology
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05
Detection and escalation
Activities that enable a company to detect
the breach, including:
– Forensic and investigative activities
– Assessment and audit services
– Crisis management
– Communications to executives
and boards
Notification
Activities that enable the company to notify
data subjects, data protection regulators
and other third parties, including:
– Emails, letters, outbound calls or general
notices to data subjects
– Determination of regulatory
requirements
– Communication with regulators
– Engagement of outside experts
To calculate the average cost of a data
breach, this research excluded very small
and very large breaches. Data breaches
examined in the 2023 report ranged in size
between 2,160 and 101,200 compromised
records. We used a separate analysis to
examine the costs of mega breaches; that
methodology is explained further in the
“Data breach FAQs” section of this report.
This research used activity-based
costing, which identifies activities and
assigns a cost according to actual use.
Four process-related activities drive a
range of expenditures associated with
an organization’s data breach: detection
and escalation, notification, post-breach
response and lost business.
How we calculate the cost
of a data breach
Post-breach response
Activities to help victims of a breach
communicate with the company and
conduct redress activities to victims
and regulators, including:
– Help desk and inbound communications
– Credit monitoring and identity
protection services
– Issuing of new accounts or credit cards
– Legal expenditures
– Product discounts
– Regulatory fines
Lost business
Activities that attempt to minimize the
loss of customers, business disruption
and revenue losses, including:
– Business disruption and revenue
losses due to system downtime
– Cost of losing customers
and acquiring new customers
– Reputational damage and
diminished goodwill
73. Research methodology
73
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05
What’s a data breach?
A breach is defined as an event in
which records containing personally
identifiable information (PII); financial or
medical account details; or other secret,
confidential or proprietary data are
potentially put at risk. These records can
be in electronic or paper format. Breaches
included in the study ranged from 2,200 to
102,000 compromised records.
What’s a compromised record?
A record is information that reveals
confidential or proprietary corporate,
governmental or financial data, or
identifies an individual whose information
has been lost or stolen in a data breach.
Examples include a database with an
individual’s name, credit card information
Data breach FAQs
and other PII, or a health record with
the policyholder’s name and payment
information.
How do you collect the data?
Our researchers collected in-depth
qualitative data through over 3,475
separate interviews with individuals at 553
organizations that suffered a data breach
between March 2022 and March 2023.
Interviewees included IT, compliance and
information security practitioners familiar
with their organization’s data breach and
the costs associated with resolving the
breach. For privacy purposes, we didn’t
collect organization-specific information.
How do you calculate the average cost of
a data breach?
We collected both the direct and indirect
expenses incurred by the organization.
Direct expenses included engaging
forensic experts, outsourcing hotline
support and providing free credit-
monitoring subscriptions and discounts
for future products and services. Indirect
costs included in-house investigations
and communications along with the
extrapolated value of customer loss
resulting from turnover or diminished
customer acquisition rates.
This research represented only events
directly relevant to the data breach
experience. Regulations such as the
General Data Protection Regulation (GDPR)
and the California Consumer Privacy Act
(CCPA) may encourage organizations to
increase investments in their cybersecurity
governance technologies. However, such
activities didn’t directly affect the cost
of a data breach for this research.
For consistency with prior years, we used
the same currency translation method
rather than adjusting accounting costs.
74. Research methodology
74
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How does benchmark research differ from
survey research?
The unit of analysis in the Cost of a Data
Breach Report was the organization. In
survey research, the unit of analysis is the
individual. We recruited 553 organizations
to participate in this study.
Can the average per-record cost be used
to calculate the cost of breaches involving
millions of lost or stolen records?
It’s not consistent with this research to use
the overall cost per record as a basis for
calculating the cost of single or multiple
breaches totaling millions of records. The
per-record cost is derived from our study
of hundreds of data breach events in which
each event featured 101,200 or fewer
compromised records. To measure the
impact of mega breaches that involve one
million or more records, the study instead
uses a simulation framework based on a
sample of 20 events of that size.
Why did you use simulation methods to
estimate the cost of a mega data breach?
The sample size of 20 companies that
experienced a mega breach was not large
enough to support a statistically significant
analysis using the study’s activity-based
cost methods. To remedy this issue, we
deployed Monte Carlo simulations to
estimate a range of possible, meaning
random, outcomes through repeated trials.
In total, we performed more than 250,000
trials. The grand mean of all sample means
provided a most likely outcome at each size
of data breach, ranging from 1 million to 60
million compromised records.
Are you tracking the same organizations
each year?
Each annual study involves a different
sample of companies. To be consistent
with previous reports, we recruit and
match companies each year with similar
characteristics, such as the company’s
industry, head count, geographic footprint
and size of data breach. Since starting this
research in 2005, we have studied the data
breach experiences of 5,580 organizations.
05
75. Research methodology
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Research limitations
Our study used a confidential and
proprietary benchmark method that has
been successfully deployed in earlier
research. However, the inherent limitations
with this benchmark research need to
be carefully considered before drawing
conclusions from findings.
Nonstatistical results
Our study drew upon a representative,
nonstatistical sample of global entities.
Statistical inferences, margins of error and
confidence intervals can’t be applied to
this data, given that our sampling methods
weren’t scientific.
Nonresponse
Nonresponse bias wasn’t tested, so
it’s possible that companies that didn’t
participate are substantially different in
terms of underlying data breach cost.
Sampling-frame bias
Because our sampling frame was
judgmental, the quality of results was
influenced by the degree to which the
frame was representative of the population
of companies being studied. We believe
that the current sampling frame was biased
toward companies with more mature
privacy or information security programs.
Company-specific information
The benchmark didn’t capture company-
identifying information. Individuals could
use categorical response variables to
disclose demographic information about
the company and industry category.
Unmeasured factors
We omitted variables from our analyses
such as leading trends and organizational
characteristics. The extent to which omitted
variables might explain benchmark results
can’t be determined.
Extrapolated cost results
Although certain checks and balances can
be incorporated into the benchmark
process, it’s always possible that
respondents didn’t provide accurate or
truthful responses. In addition, the use
of cost extrapolation methods rather
than actual cost data may inadvertently
introduce bias and inaccuracies.
Currency conversions
The conversion from local currencies to
the US dollar deflated average total cost
estimates in other countries. For purposes
of consistency with prior years, we decided
to continue to use the same accounting
method rather than adjust the cost. It’s
important to note that this issue may
affect only the global analysis because all
country-level results are shown in local
currencies. The current real exchange rates
used in this research report were published
by the Federal Reserve on 31 March 2023.
05
76. 06
76
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About Ponemon Institute
and IBM Security
Ponemon Institute
Founded in 2002, Ponemon Institute is
dedicated to independent research and
education that advances responsible
information and privacy management
practices within business and government.
Our mission is to conduct high-quality
empirical studies on critical issues
affecting the management and security
of sensitive information about people
and organizations.
Ponemon Institute upholds strict data
confidentiality, privacy and ethical
research standards and doesn’t
collect any PII from individuals or
company-identifiable information in
business research. Furthermore, strict
quality standards ensure that subjects
aren’t asked extraneous, irrelevant or
improper questions.
IBM Security
IBM Security helps secure the world’s
largest enterprises and governments with
an integrated portfolio of security products
and services infused with dynamic security
AI and automation capabilities. The
portfolio, supported by world-renowned
IBM Security X-Force® research, enables
organizations to predict threats, protect
data as it moves, and respond with speed
and precision without holding back
business innovation. IBM is trusted by
thousands of organizations as their partner
to assess, strategize, implement and
manage security transformations.
IBM operates one of the world’s broadest
security research, development and delivery
organizations; monitors more than 150
billion security events each day in more than
130 countries; and has been granted more
than 10,000 security patents worldwide.
If you have questions or comments about
this research report, including requests for
permission to cite or reproduce the report,
please contact by letter, phone call or email:
Ponemon Institute LLC
Attn: Research Department
2308 US 31 North
Traverse City
Michigan 49686 USA
1.800.887.3118
research@ponemon.org
Visit ibm.com/security.
Join the conversation in the
IBM Security Community.
Learn more about advancing
your security posture
77. About Ponemon Institute and IBM Security
77
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