Ransomware in 2026: Why Companies Still Pay and How to Break the Cycle

Despite years of awareness campaigns, government advisories against paying, and billions spent on cybersecurity, ransomware continues to be the most financially destructive category of cyberattack. Organizations continue to pay ransoms because, in many cases, paying is the least bad option available to them at the moment of crisis.

Understanding why payment persists is the key to building defenses that make it unnecessary.

Why Organizations Pay

Backups Are Not as Resilient as Expected

Every organization believes it has adequate backups until a ransomware attack tests that belief. Common failure modes include:

• Backups stored on network-accessible shares that the ransomware encrypts along with production data
• Backup systems that were configured correctly months ago but have silently failed since
• Restoration processes that were never tested and take days or weeks longer than expected
• Backups that restore data but not the application configurations and infrastructure needed to use that data
• Attackers who specifically target backup systems before triggering encryption

Downtime Costs Exceed the Ransom

For many organizations, the cost of extended downtime vastly exceeds the ransom demand. A hospital that cannot access patient records, a manufacturer whose production lines are stopped, or a retailer whose point-of-sale systems are down faces immediate, compounding financial losses. When the ransom is $500,000 and downtime costs $2 million per day, the math pushes toward payment.

Double Extortion Changes the Calculus

Modern ransomware operators do not just encrypt data. They exfiltrate it first and threaten to publish it if the ransom is not paid. Even organizations with perfect backups face the prospect of sensitive customer data, trade secrets, or embarrassing internal communications being published. This is extortion on top of ransomware, and backups do not help.

How Modern Ransomware Operates

The ransomware ecosystem has matured into a professional industry:

• Initial access brokers sell compromised credentials and network access to ransomware operators
• Ransomware-as-a-Service (RaaS) platforms provide the malware, payment infrastructure, and negotiation services
• Affiliates conduct the actual attacks using the RaaS platform, keeping a percentage of the ransom
• Negotiators handle victim communications, sometimes even providing customer support-style interactions

Dwell time, the period between initial compromise and ransomware deployment, has increased. Attackers spend days or weeks inside the network, mapping infrastructure, identifying critical systems, disabling backups, and exfiltrating data before triggering encryption. The attack you see is the last step in a carefully planned operation.

Building Genuine Ransomware Resilience

Air-Gapped and Tested Backups

Backups must be stored in a location that ransomware cannot reach: offline, air-gapped, or in an immutable storage system that cannot be modified after writing. More importantly, backup restoration must be tested regularly. An untested backup is not a backup.

Test full restoration, not just file-level recovery. Can you rebuild your entire environment from backups within your recovery time objective? If you have never tested this, the answer is probably no.

Reduce Initial Access Vectors

Ransomware operators gain initial access through a predictable set of vectors:

• Phishing emails with malicious attachments or links
• Exploitation of internet-facing vulnerabilities (VPN appliances, RDP, web applications)
• Compromised credentials purchased from initial access brokers
• Supply chain compromise through software updates or vendor access

Each of these vectors can be addressed. Multi-factor authentication eliminates most credential-based access. Continuous vulnerability scanning identifies and prioritizes patching for internet-facing systems. Email security controls reduce phishing delivery. Vendor access reviews limit supply chain exposure.

Network Segmentation and Lateral Movement Prevention

If an attacker gains access to one system, segmentation determines whether that becomes a single compromised host or a full network encryption event. Effective segmentation limits lateral movement between zones, restricts access between business units, and prevents compromised user accounts from reaching backup infrastructure.

Detection and Response Capability

The dwell time between initial access and ransomware deployment is your window to detect and stop the attack. This requires active monitoring for indicators of compromise: unusual authentication patterns, lateral movement between systems, disabled security tools, and data staging for exfiltration.

Continuous Attack Surface Monitoring

Internet-facing vulnerabilities are the most common entry point for targeted ransomware. Continuous scanning that identifies exposed services, unpatched vulnerabilities, and misconfigurations before attackers find them is a foundational control. If OnScanner identifies that your VPN appliance has a critical CVE, patching it before a ransomware affiliate discovers it could prevent the entire attack chain.

The Decision Framework

The goal is to never face the pay-or-do-not-pay decision. Organizations that invest in prevention, detection, and resilience before an attack rarely need to consider payment. Those that underinvest find themselves in a crisis where all options are bad.

Ransomware resilience is not a single product or tool. It is a set of practices: tested backups, reduced attack surface, network segmentation, detection capability, and incident response planning. Each layer reduces the probability and impact of an attack. Together, they make ransomware a manageable risk rather than an existential threat.