Ingram Micro Cyber Attack: What You Need to Know About the Latest Breach (2026)

Understanding the Ingram Micro Cyber Attack: Context and Timeline

In July 2025, Ingram Micro, one of the world’s largest IT distributors, suffered a significant ransomware attack that disrupted operations for days and compromised the personal information of over 42,000 individuals. This incident serves as a critical case study for understanding how attackers target critical infrastructure nodes within global supply chains and the cascading consequences that ripple through interconnected business ecosystems. The attack demonstrates that even organizations with substantial cybersecurity budgets and mature IT operations remain vulnerable to sophisticated, financially-motivated threat actors using advanced persistence techniques and double extortion tactics.

The July 2025 Ransomware Incident: Initial Discovery and Scope

On July 2 and 3, 2025, attackers gained unauthorized access to Ingram Micro’s internal systems and began exfiltrating files from company repositories. The company publicly disclosed the breach on July 5, 2025, triggering immediate business continuity responses. The SafePay ransomware group, identified as the threat actor responsible for the attack, deployed encryption malware that locked critical systems and demanded ransom payment in exchange for decryption keys and promises not to publish stolen data.

The scope of the breach extended far beyond operational systems. Ingram Micro’s incident response investigation revealed that attackers accessed employment and applicant records, exposing sensitive personal information for approximately 42,500 affected individuals. This data included Social Security numbers, driver’s license numbers, dates of birth, addresses, and employment history. The company later determined that certain employee personal information was indeed among the compromised datasets, triggering notification obligations under various state and federal privacy laws.

The attack differed significantly from traditional ransomware campaigns in its sophistication and scope. Rather than focusing exclusively on rapid encryption and immediate ransom demands, the SafePay group demonstrated patience and precision in their targeting of high-value data repositories. This methodical approach suggests that human operators directed aspects of the campaign beyond what automated malware typically achieves, indicating a mature threat operation with clear objectives around both operational disruption and data monetization.

Impact on Global IT Distribution Networks

Ingram Micro’s position as a global IT distributor means its operational disruption affected thousands of organizations. The company serves as a critical intermediary between technology manufacturers and resellers, managing complex supply chains that deliver hardware, software, and services to enterprises, mid-market companies, and small businesses worldwide. When Ingram Micro’s systems went offline, the consequences extended rapidly across the industry.

Critical platforms including Xvantage (enterprise resource planning system), Impulse (order management platform), and EDI (electronic data interchange) services became unavailable or degraded. These systems facilitate order placement, inventory tracking, licensing management, and financial transactions that are central to daily operations for thousands of partners. The outage created immediate bottlenecks: resellers couldn’t place orders, track shipments, or access software licenses; enterprises couldn’t procure necessary IT products; and service providers couldn’t fulfill customer commitments that depended on timely product acquisition.

The multi-day outage created secondary business impacts that extended well beyond Ingram Micro itself. Organizations that depended on Ingram Micro for just-in-time inventory management faced the choice between accepting delivery delays to customers or sourcing from competing distributors at potentially higher costs. This incident exposed a critical vulnerability in supply chain design: the concentration of distribution power in relatively few large companies creates systemic risk that affects the entire technology ecosystem when those central nodes fail.

Initial Detection and Response Mechanisms

Ingram Micro employees and system administrators first detected anomalous activity when normal business operations began failing on July 2, 2025. Users attempting to access order processing systems, generate licenses, or execute routine transactional activities encountered errors and service unavailability. Rather than treating this as a standard infrastructure issue, Ingram Micro’s security operations center recognized patterns consistent with active ransomware activity and escalated the incident to senior leadership and the incident response team.

The company’s immediate response focused on containment. Ingram Micro took affected systems offline to prevent further lateral movement by the malware and to halt data exfiltration. This decision, while painful from an operational perspective, prevented the attack from spreading to additional systems and potentially compromising even more data. The company simultaneously engaged external cybersecurity experts, including forensic investigators and incident response specialists, to understand the attack’s scope and methods.

Law enforcement notification occurred early in the response process. Ingram Micro reported the incident to the FBI and relevant cybersecurity agencies, which is both a legal requirement for breaches of this magnitude and a practical necessity for understanding the threat actor’s tactics and potentially blocking them from attacking other organizations. This cooperation between private industry and law enforcement provides valuable intelligence that helps the broader cybersecurity community understand emerging threats.

Technical Analysis of the Attack: Methodology and Exploitation

Understanding how attackers penetrated Ingram Micro’s defenses and achieved their objectives requires examining the technical components of the attack, the likely initial compromise vector, and the progression from entry to data exfiltration and encryption. While Ingram Micro has not released comprehensive technical indicators of compromise, security researchers and threat intelligence firms have analyzed the SafePay group’s typical methodologies to reconstruct the probable attack sequence.

SafePay Ransomware Group: Capabilities and Tactics

SafePay represents a financially-motivated threat actor operating under a ransomware-as-a-service (RaaS) model. The group maintains infrastructure for deploying ransomware payloads, negotiating ransom payments through dark web portals, and managing stolen data. SafePay is known for employing double extortion tactics: attackers exfiltrate valuable data before encrypting systems, then threaten to sell or publish that data if the victim refuses to pay.

The group typically targets organizations with high revenue and perceived ability to pay substantial ransoms. Large IT distributors like Ingram Micro fit this profile perfectly: they operate globally, have significant revenue, depend on rapid recovery for business continuity, and face pressure from thousands of customers expecting service restoration. SafePay operators demonstrated sophisticated business acumen by claiming that 3.5 terabytes of data was stolen, a figure chosen to appear credible while emphasizing the magnitude of the breach to pressure Ingram Micro into negotiating ransom payment.

The group’s operational security practices protect their identify and prevent attribution. They use multiple layers of infrastructure, including compromised servers and rented virtual private servers in jurisdictions with minimal cybercrime enforcement. Ransom negotiations occur through encrypted messaging systems and custom payment portals. The group has demonstrated consistency in their methodology across multiple attacks, suggesting a well-organized criminal enterprise rather than opportunistic cybercriminals.

Remote Access Vulnerability Exploitation

While Ingram Micro has not publicly disclosed the exact initial compromise vector, security industry analysis suggests the attack likely began with exploitation of remote access infrastructure. Organizations managing complex global operations typically provide employees with remote access capabilities through VPNs, remote desktop protocols, and cloud-based collaboration platforms. These entry points represent attractive targets for attackers because they bypass perimeter defenses and provide direct access to internal networks.

The attack likely followed this progression: First, attackers conducted reconnaissance to identify Ingram Micro’s remote access infrastructure and potential vulnerabilities. This reconnaissance phase typically involves scanning for exposed management interfaces, identifying software versions with known vulnerabilities, and searching for weak authentication mechanisms. Attackers may have employed credential stuffing attacks using previously compromised passwords obtained from other breaches, or they may have exploited unpatched remote access systems.

Once initial access was achieved, the attacker likely conducted further enumeration to understand the network environment, identify high-value targets, and locate systems with sensitive data. This post-exploitation phase involved lateral movement techniques that allowed the attacker to expand their presence from the initial compromise point to multiple systems across the network. Traditional endpoint detection and response systems may have missed this activity if they were not configured with aggressive hunting rules or if the attacker used techniques that appear similar to normal administrative activity.

The timeline from initial compromise to ransomware deployment suggests a human-operated campaign rather than fully automated exploitation. If the attack were entirely automated, encryption would have occurred rapidly, potentially within hours. The fact that Ingram Micro’s systems remained operational until July 2 and 3 before becoming encrypted indicates that the attacker spent time conducting thorough reconnaissance and data exfiltration, maximizing the value extracted from the compromise. This approach is characteristic of mature threat actors who understand that their primary revenue comes from ransom negotiation and secondary data sales, making the time investment worthwhile.

Modular Malware Architecture and Functional Components

The ransomware payload deployed in the Ingram Micro attack employed a sophisticated modular architecture designed to accomplish multiple objectives across diverse network environments. Rather than a monolithic program, the malware consisted of interdependent components, each designed to perform specific functions while working in coordination with other modules. This architectural approach provides several advantages to attackers: modularity allows rapid adaptation to different network conditions, enables targeted deployment of specific capabilities, and complicates analysis and remediation efforts.

Malware Module	Primary Function	Typical Indicators	Detection Methods
Loader/Dropper	Deploys main payload, disables security software, establishes persistence	New processes spawning with unusual parent relationships, disabled Windows Defender, removed firewall rules	Process monitoring, registry auditing, firewall rule change logging
Privilege Escalation	Obtains administrative rights through vulnerabilities or token theft	Failed privilege escalation attempts, suspicious token creation, access to LSASS process	Process access auditing, privileged account behavior analysis
Credential Harvester	Extracts passwords, session tokens, and authentication credentials	Registry access to credential vaults, memory dumps of lsass.exe, access to credential manager	Credential dumping detection, memory integrity checks, LSA protection
Lateral Movement Engine	Identifies reachable systems and distributes malware across the network	Unusual network scanning, SMB share enumeration, lateral movement tools execution	Network segmentation, egress filtering, lateral movement detection rules
Encryption Core	Encrypts files with strong cryptography to render them inaccessible	High CPU utilization, disk I/O spikes, file extension changes, encryption key generation	Behavioral analysis, encryption detection signatures, file activity monitoring
Data Exfiltration Agent	Identifies, stages, and transmits sensitive data to attacker-controlled servers	Unusual network connections, bulk data transfers to external IPs, encrypted tunnel activity	Network monitoring, data loss prevention tools, encrypted traffic inspection
Command and Control Handler	Receives instructions from attacker infrastructure and reports operational status	Connections to known C2 domains, unusual outbound HTTPS connections, DNS queries for attacker domains	DNS filtering, network IDS/IPS, threat intelligence integration

The loader or dropper module represented the initial payload deployed on compromised systems. This module’s primary responsibilities included executing with appropriate privileges, disabling or bypassing security tools that might detect subsequent activity, establishing persistence mechanisms to survive system reboots, and downloading additional malware components as needed. The loader typically employed techniques to minimize its detection: small file size to avoid notice, code obfuscation to frustrate static analysis, and injection into legitimate system processes to hide malicious activity within normal-appearing traffic.

Once the loader established a foothold, the privilege escalation and credential harvesting modules executed. These components attempted to identify and exploit local privilege escalation vulnerabilities that would grant administrative access. Unpatched systems or systems where security updates had not been fully deployed provided the easiest targets. The credential harvester module accessed Windows credential vaults, parsed browser cookies and saved passwords, and extracted session tokens from memory. This credential material became invaluable for lateral movement: if the attacker obtained a domain administrator’s credentials, they could move through the network with minimal friction and minimal detection.

The lateral movement engine used harvested credentials and enumerated network shares, identifying systems it could reach and infect. This process typically employed SMB (Server Message Block) protocol for share enumeration and exploitation of systems without proper segmentation or monitoring. The attacker used tools like Mimikatz for credential extraction and PsExec for remote command execution, techniques that are well-documented but still effective against networks without proper detection capabilities.

The encryption core represented the final stage of the attack. Before encryption began, the data exfiltration agent had already transmitted valuable data to attacker-controlled servers. Once exfiltration completed, the encryption process began, typically starting on strategically important systems to cause maximum operational disruption. The ransomware identified file types to encrypt, applied strong encryption algorithms (typically AES or RSA), and overwrote the original files with encrypted versions. The ransom note provided instructions for contacting the attackers through the dark web portal where negotiation and payment would occur.

Data Compromise: Scope, Content, and Regulatory Implications

The data exfiltration phase of the Ingram Micro attack yielded over 3.5 terabytes of information, representing one of the largest disclosed data thefts from an IT distributor. Understanding what was stolen, who was affected, and the regulatory consequences is critical for assessing the true impact of the breach and understanding notification obligations.

Affected Data Categories and Volume

Ingram Micro’s investigation identified that the compromised data primarily included employment and applicant records. For the approximately 42,500 affected individuals, this data contained personally identifiable information including full names, Social Security numbers, driver’s license numbers, dates of birth, addresses, and employment history. Additionally, some applicant records contained resume information and sometimes passport numbers or other government-issued identification numbers from international recruitment processes.

The 3.5 terabyte figure represents a massive volume of data, equivalent to approximately 700 million pages of text or roughly 1.4 million high-resolution photographs. This scale indicates that the attackers did not target specific high-value files but rather conducted broad data harvesting, copying entire directories and databases without careful curation. This approach is common among ransomware operators who prioritize speed and thoroughness over precision, assuming that some percentage of the stolen data will have monetizable value either through ransom threats or secondary sales.

Beyond employment records, the investigation likely revealed other sensitive corporate information: financial records and bank account information, technology infrastructure documentation that could facilitate future attacks on Ingram Micro or its customers, intellectual property and product development information, partner and customer lists, communication archives that might contain sensitive negotiations or business strategy discussions, and potentially credentials or access tokens that could be repurposed for future attacks. This breadth of compromised data provided the SafePay group with multiple leverage points for ransom negotiation and significant secondary monetization opportunities.

Notification Obligations and Regulatory Compliance

The breach triggered notification obligations under multiple regulatory frameworks. United States state breach notification laws require notification to affected residents within a specific timeframe. California’s CCPA (California Consumer Privacy Act), New York’s SHIELD Act, and comparable state laws mandate notification of any breach of personal information without unreasonable delay. Each state has slightly different timeframes, but most require notification within 30 to 45 days of discovery that personal information was compromised.

Ingram Micro faced additional compliance obligations beyond state-level requirements. If any affected individuals were residents of Europe, the GDPR (General Data Protection Regulation) required notification to the Data Protection Authority within 72 hours of determining that a data breach had occurred. This aggressive timeline required Ingram Micro to conduct a rapid investigation to determine the scope of the breach. Other jurisdictions including Canada, Australia, and numerous other countries have similar mandatory notification requirements that applied depending on the residence of affected individuals.

For affected individuals, Ingram Micro provided identity protection and credit monitoring services for 24 months at no cost. These services typically include continuous credit file monitoring, fraud alerts, identity restoration specialists who assist if identity theft occurs, and regular credit reports allowing individuals to monitor their credit status. While these remedial services do not undo the exposure of sensitive information, they provide practical protection against common identity theft scenarios.

From a regulatory investigation perspective, the breach likely triggered investigations by state attorneys general and potentially the FTC (Federal Trade Commission). These investigations examine whether Ingram Micro had appropriate security controls in place, whether the company responded appropriately to the breach, and whether notification to affected parties was timely and accurate. Such investigations can result in civil penalties, mandatory improvements to security practices, and ongoing compliance monitoring for several years after the breach concludes.

Incident Response and System Recovery Operations

The process of recovering from a ransomware attack of this magnitude involves complex technical and operational challenges. Ingram Micro’s response demonstrated both the importance of preparation and the real-world difficulty of executing incident response procedures under crisis conditions.

Containment and System Isolation

Within hours of detecting the attack, Ingram Micro’s incident response team made the critical decision to take affected systems offline. This decision, while causing significant operational disruption, prevented further lateral movement by the malware and halted ongoing data exfiltration. The company isolated infected systems into a quarantine environment where forensic analysis could proceed without risk of further infection.

Containment efforts included taking affected database servers offline, isolating network segments that contained sensitive systems, and blocking internet connections from potentially compromised systems. This aggressive approach prevented the ransomware from continuing to encrypt files or exfiltrate data. The decision to power down systems also impacted system availability, but it achieved the strategic objective of preventing attacker success.

Containment also required identifying all potentially compromised systems to ensure complete isolation. This process involved reviewing system logs, network traffic captures, and endpoint detection and response alerts to understand the full scope of attacker movement. In cases like Ingram Micro where the network contained thousands of systems, this process required sophisticated log analysis and threat hunting to identify all affected systems.

Third-Party Expert Engagement and Forensic Investigation

Ingram Micro engaged leading incident response firms specializing in ransomware investigations. These firms brought forensic expertise, threat intelligence about the SafePay group, and experience with large-scale recovery operations. Forensic investigators collected disk images and memory dumps from compromised systems, preserving evidence for both internal analysis and potential law enforcement prosecution.

The forensic investigation focused on several objectives: understanding the timeline of the attack and determining when initial compromise occurred; identifying the initial compromise vector and entry point used by attackers; mapping the complete lateral movement path through Ingram Micro’s network; identifying all data repositories accessed and determining the scope of data exfiltration; analyzing malware samples to understand capabilities and attack methodology; and identifying any persistence mechanisms that might allow the attacker to re-establish access after recovery.

Forensic specialists used advanced tools and techniques to recover deleted files, analyze memory contents, and reconstruct network connections. Log correlation across multiple systems and network infrastructure provided a detailed picture of attacker activities. This investigation took weeks to complete, with findings reported in a detailed forensic report that informed the company’s recovery strategy and regulatory notifications.

System Restoration from Backups

Once forensic analysis was sufficiently complete and attackers were prevented from re-establishing access, Ingram Micro began restoring critical systems from backups. This process required careful planning to ensure that backups themselves were not compromised. Attackers sometimes poison backups by gaining access to backup infrastructure before deploying ransomware, making restoration to compromised versions counterproductive.

Ingram Micro verified that backup systems were not compromised by checking logs, analyzing backup system access patterns, and confirming that no malware was present in backup images. Once verification was complete, critical systems were restored in a specific priority order: first, systems required for fundamental business continuity like order processing and payment systems; second, systems required for supporting affected customers and partners; third, systems supporting internal operations; and finally, systems with less critical roles.

The restoration process was deliberate and careful. Rather than rapidly restoring all systems, the company verified each restored system for signs of malware infection before connecting it to the network. This methodical approach required several days to complete but significantly reduced the risk of re-infection through compromised backup materials.

Timeline for Service Restoration

Ingram Micro announced gradual restoration of services beginning approximately 36-48 hours after taking systems offline. The Xvantage platform, central to enterprise order management, was among the first services restored. Impulse, the transactional ordering system used by thousands of smaller partners, was restored within the first week. EDI services supporting automated ordering and inventory systems were restored concurrently with customer-facing platforms.

Full restoration of all systems and services took several weeks. Some customer-specific configurations and non-critical systems were restored later in the recovery timeline as resources allowed. The company maintained regular communication with partners and customers, providing updates on restoration progress and expected timelines for specific services.

Communication and Stakeholder Management

Throughout the incident response process, Ingram Micro maintained communication with multiple stakeholder groups. Partners and customers needed to understand the status of systems they depended on and when services would be available. Employees required information about the breach’s impact on the company, the company’s response, and any changes to how they would work during recovery. Regulators and law enforcement needed information about the breach scope and company response for investigation and enforcement purposes.

The company established a dedicated communication team to manage outbound messaging. Regular status updates were provided through customer portals, emails to key partners, and public statements to the media. This transparent communication approach helped maintain customer confidence and demonstrated that the company was taking the incident seriously and making progress on recovery.

Lessons Learned: Critical Vulnerabilities Exposed by the Attack

The Ingram Micro attack provided the IT industry with valuable lessons about vulnerabilities in security practices, supply chain design, and incident response capabilities. These lessons extend beyond Ingram Micro itself, applying to all large enterprises managing complex global operations and critical infrastructure roles within their industries.

Remote Access Security as a Primary Attack Vector

The likely exploitation of remote access infrastructure during the Ingram Micro attack underscores the critical importance of securing all external-facing systems with robust technical controls. Organizations must implement zero-trust architecture principles that treat all remote access requests as potentially malicious, regardless of whether they originate from known employees or trusted networks.

Multi-factor authentication (MFA) represents a fundamental requirement for all remote access systems. SMS-based MFA is better than nothing but should be supplemented with authenticator applications or hardware security keys that cannot be compromised through SIM swapping attacks. Passwordless authentication using Windows Hello, FIDO2 hardware keys, or certificate-based authentication eliminates the password as an attack surface entirely.

Organizations should conduct regular audits of remote access infrastructure to identify and remediate vulnerabilities. This includes: maintaining an accurate inventory of all remote access tools and systems in use, ensuring all remote access systems run current software versions with security patches applied, configuring remote access systems to log all connection attempts and activities, implementing IP allowlisting where practical to restrict remote access to known locations, and monitoring for unusual access patterns that might indicate compromised credentials.

Beyond technical controls, organizations need policies restricting remote access capabilities. Not all employees require unrestricted remote access: many roles can function adequately with VPN access only to specific required systems rather than full network access. Implementing the principle of least privilege for remote access means employees get access only to the specific systems required for their roles, minimizing the lateral movement an attacker can accomplish with compromised credentials.

Supply Chain Resilience and Distributed Redundancy

The Ingram Micro attack exposed how concentrated dependence on single distributors creates systemic risk. Many organizations relied on Ingram Micro as their primary or sole distributor, meaning the outage directly prevented their operations or forced them to pay premium prices for emergency sourcing from other distributors.

Building supply chain resilience requires organizations to identify critical suppliers and develop contingency plans for their failure. This might include: maintaining relationships with multiple suppliers, even if primary suppliers are preferred; keeping strategic inventory of critical items to sustain operations through disruptions of up to several weeks; negotiating contracts with backup suppliers specifying availability and pricing for surge demand scenarios; and testing continuity plans periodically to ensure they function when needed.

For critical suppliers like Ingram Micro, implementing geographic redundancy and system isolation can reduce vulnerability. Multiple data centers in different regions can absorb failures of any single location. Separating systems so that failure of one does not automatically cause failure of others provides resilience. Regular disaster recovery testing ensures that backup systems can actually function when primary systems fail.

Data Classification and Sensitive Information Protection

The 3.5 terabyte exfiltration suggests that Ingram Micro did not have adequate controls around sensitive information access and movement. Data classification frameworks that identify what information is sensitive and implement appropriate controls around it can significantly reduce damage from breaches. Not all data needs the same level of protection: employment records should receive more rigorous protection than publicly available product catalogs.

Organizations should implement data loss prevention (DLP) tools that monitor and restrict movement of sensitive information. These tools can detect when classified data is being copied to unusual locations, transmitted over email, or moved to cloud storage and can prevent the transfer or alert security teams for investigation. While DLP tools are not perfectly effective, they increase friction for attackers attempting large-scale data exfiltration and often detect campaigns that careful attention to logs would miss.

Additionally, restricting access to sensitive information through role-based access controls and identity and access management systems ensures that only employees with legitimate business needs can access sensitive data. Regular access reviews identify and revoke inappropriate access, reducing the information accessible to attackers who compromise a particular user account.

Backup and Recovery Program Assessment

The fact that Ingram Micro was able to recover systems from backups demonstrates the importance of maintaining effective backup programs. However, the attack also illustrates why backup programs must address ransomware scenarios specifically.

Backup programs should include: immutable backups that cannot be modified or deleted once written, preventing attackers from poisoning backups after gaining administrative access; offline backups with no network connectivity, preventing ransomware from finding and encrypting backup systems; geographic distribution of backups to prevent single-point-of-failure scenarios where attackers destroy all backups in a single location; regular backup restoration testing to verify that backups actually function and contain the data expected; and rapid recovery procedures documented and practiced so that restoration occurs quickly when needed.

The 3-2-1 backup rule represents a fundamental best practice: maintain at least three copies of critical data, stored on at least two different types of media, with at least one copy in a geographically separate location. This approach ensures that attackers cannot destroy all backups regardless of their access level or technical capabilities.

Comparative Analysis: Similar Large-Scale Ransomware Attacks

The Ingram Micro attack represents one of several significant ransomware campaigns targeting major supply chain nodes and critical infrastructure providers. Examining similar incidents provides context for understanding how widespread this threat has become and what common patterns emerge across attacks of this magnitude.

Organization	Attack Date	Threat Actor	Data Compromised	Operational Impact	Ransom (Reported)
Ingram Micro	July 2025	SafePay	3.5 TB, 42,500 individuals	Multi-day outage of order systems, licensing platforms	Not disclosed
CDK Global	June 2024	Unknown	Customer and dealer information	Widespread outages affecting car dealerships	Unknown
Change Healthcare	February 2024	BlackCat/ALPHV	Healthcare provider information	Healthcare claims processing disruption nationwide	22 million dollars
MGM Resorts	September 2023	Unknown (likely LockBit)	Customer information, internal systems	Casino and hotel operations disrupted	Not disclosed
3CX Supply Chain	March 2023	North Korean (likely)	Software supply chain compromise	Thousands of organizations compromised	Not applicable

These incidents demonstrate a consistent pattern: attackers increasingly target organizations occupying central roles in critical supply chains and infrastructure. These targets are attractive because: they affect large numbers of downstream organizations when disrupted, they possess valuable data repositories worth significant ransom payments, and they often have substantial budgets making them more likely to pay ransoms to restore operations quickly.

Recommendations for Enterprise Security Implementation

Organizations seeking to reduce their vulnerability to ransomware attacks of the sophistication demonstrated in the Ingram Micro incident should implement the following recommendations across their security programs.

Zero-Trust Architecture Implementation

Zero-trust architecture represents a fundamental shift from traditional perimeter-based security. Rather than assuming that anything inside the network firewall is trustworthy, zero-trust assumes that all access requests require authentication and authorization verification, regardless of whether they originate from internal networks or external locations.

Endpoint Detection and Response Deployment