The 2026 DBIR Makes Recovery Your Ransomware Plan. Can You Prove It Works?

In Verizon’s 2026 Data Breach Investigations Report, 69% of ransomware victims did not pay the ransom. Declining to pay shifts the response onto recovery, because the alternative to paying for the attacker’s decryption key is restoring from your own data. The DBIR shows that refusal is climbing and the median ransom paid is falling, to $139,875 from $150,000 the year before.

The 2026 DBIR is the largest in the report’s history: more than 31,000 security incidents and over 22,000 confirmed breaches across 145 countries, covering November 2024 through October 2025. Ransomware appeared in 48% of those confirmed breaches, and the human element in 62%. Those headline numbers describe how attackers got in and what they did once inside. They do not tell you the one thing that decided how each victim’s year ended, which was whether a clean, restorable recovery point existed when the encryption started.

Not paying is a recovery bet

When 69% of victims decline to pay, the ransom stops being the center of the incident. Recovery becomes the lever that determines downtime, disclosure timing, and negotiating position. The criminal economics point the same way. Chainalysis tracked on-chain ransom payments falling roughly 8% to about $820M in 2025 even as claimed attacks rose by about half.

That shift puts weight on a capability the DBIR cannot see. The report classifies confirmed breaches by initial vector, actor, and action. It does not record, for each victim, the age of the most recent recovery point that was verified clean and proven restorable. That number is what separates an organization that recovers in days from one that inherits the attacker’s preferred timeline.

Vulnerability exploitation moved to the front, and it changes the backup question

For the first time in 19 years, software vulnerability exploitation passed stolen credentials as the top way into a breach, reaching 31% of breaches. Verizon also reported that attackers are using AI to compress the time from a disclosed vulnerability to a working exploit from months to hours.

Faster exploitation compresses the time defenders have to react, and backup jobs keep running between the moment of compromise and the moment it is detected. If the intrusion predates your most recent recovery point, that recovery point can contain the malware, the staged tooling, or the altered data the attacker left behind. The backup succeeded. The copy is intact. It is also unsafe to restore.

Attackers reach the backups before they encrypt

Targeting recovery is common enough to have its own entry in the attacker playbook. MITRE catalogs the behavior as T1490, Inhibit System Recovery, the technique for disabling or destroying a victim’s recovery options. Survey data shows how often it is attempted: in Sophos research, 94% of ransomware victims said attackers tried to compromise their backups during the attack, and 57% of those attempts succeeded.

The outcome gap is the part worth taking to a budget conversation. Organizations whose backups were compromised faced a median recovery bill near $3M, against roughly $375K for those whose backups survived, and they were about twice as likely to pay. Backups also fail under pressure for reasons that have nothing to do with an attacker. In the State of Ransomware 2025, 38% of organizations that paid more than the original demand reported their backups had failed or malfunctioned, whether from compromise, misconfiguration, or an untested restore. At decision time the cause matters less than the result: no recovery point the team can rely on.

The number that decides the outcome is not in the DBIR

The DBIR is a strong map of how breaches begin. It is not a recovery readiness score, and it was never meant to be. Whether declining to pay holds up depends on a number the DBIR never collected: the age of your last verified-clean, restorable recovery point for each tier-zero service. Most teams cannot produce that number on demand, because their backup dashboards report job success, not data integrity.

Closing that gap means treating recovery as something you can prove, not assume. For each critical service, the useful evidence is concrete: when the most recent recovery point was confirmed free of malware and encryption, who confirmed it, whether a restore was tested against realistic conditions, and how far back an analyst would have to search to find a point written before the intrusion. That last figure depends on detecting compromise inside the backup data itself, off the production trust path, so a compromised environment cannot certify its own copies.

Run that evidence forward and the first question in the runbook changes. When nearly half of breaches involve ransomware and the recovery plane is a primary target, “do we have a backup” is the wrong place to start. The question that matches the threat is which recovery point the team can defend as clean, current, and restorable, and who is authorized to act on it.

Sources

[1] Verizon, 2026 Data Breach Investigations Report, Executive Summary, 2026

[2] Verizon, Vulnerability exploitation is the top breach entry point, 2026 DBIR finds, 2026

[3] Chainalysis, 2026 Crypto Crime Report: Crypto Ransomware, February 2026

[4] Sophos, The State of Ransomware 2025, June 2025

[5] Sophos, The Impact of Compromised Backups on Ransomware Outcomes, 2024

[6] MITRE ATT&CK, T1490: Inhibit System Recovery