Backup & Disaster Recovery Services

Two numbers shape every design, and the business should choose them, not the technology team alone. The recovery point objective is how much recent data you can afford to lose, measured in time. The recovery time objective is how long a system can stay unavailable before the harm becomes unacceptable.

A business impact analysis assigns these goals system by system. Email and the order system rarely share the same answers. Contingency planning guidance such as NIST SP 800-34 (opens in a new tab) describes this process, from identifying critical functions to documenting recovery strategies.

Backup versus disaster recovery is the same question seen from two sides. Backup answers how much data survives. Disaster recovery answers how fast, and in what order, the business is running again.

Not every system deserves the most expensive protection. A tiered design for backup and disaster recovery services spends money where downtime hurts most.

Cloud platforms make the middle tiers affordable, because standby capacity can sit idle until needed. Documentation such as Azure Backup (opens in a new tab) shows how vendor-managed backup and replication features fit these tiers. If you are still deciding where systems should live, start with cloud migration or multi-cloud and hybrid cloud planning.

The classic guideline, often called the 3-2-1 rule, is to keep three copies of your data, on two different types of storage, with one copy held off-site. Veeam’s documentation (opens in a new tab) explains it, and many providers add a fourth idea: at least one copy that cannot be changed or deleted.

• Application-aware backups for databases and mail, so restored data is consistent. See also database administration.
• Retention rules that keep daily, weekly and monthly points, matched to legal and business needs.
• Separate credentials for backup systems, so a stolen administrator login cannot erase the copies.
• Encryption of backup data in transit and at rest.
• Monitoring that reports failed or incomplete jobs the same day.

The UK’s NCSC explains why offline or isolated copies matter in its guidance on offline backups (opens in a new tab), since attackers who reach the network try to destroy online backups first.

Ransomware changed disaster recovery from a hardware problem into an adversary problem. The attacker may sit inside your network for days, and may target backups deliberately. The CISA StopRansomware resources (opens in a new tab) set out preparation steps, including offline encrypted backups and tested recovery plans.

A sound ransomware recovery plan answers these questions in advance:

1. Who declares an incident, and who decides when to isolate systems?
2. Which systems are restored first, and from which copies?
3. How do you confirm a backup is clean before restoring it?
4. How do staff communicate if email and phones are down?
5. Who talks to regulators, insurers, customers and law enforcement?

Incident handling practice, such as NIST SP 800-61 (opens in a new tab), covers detection, containment, eradication and recovery. If you want analysts watching for attacks, that is a separate managed SOC service.

Untested plans fail in predictable ways: missing credentials, outdated diagrams, restore times far longer than assumed. Testing comes in levels.

• Restore tests: bring back files, a database or a whole server from backup and verify the content.
• Tabletop exercises: managers and technical staff talk through a scenario and find gaps in the plan.
• Failover tests: switch a system to its standby environment, then switch back.
• Full simulation: rare, but valuable for critical systems.

Record the actual recovery time of each test and compare it with the objective. A provider should also state its own response-time agreement for incidents, who it escalates to, and how it keeps you updated during a recovery. Review the plan after every test and every significant change to your systems.

Automation makes recovery repeatable: infrastructure defined as code can rebuild an environment from scripts, and scheduled jobs can verify backups by restoring them to a scratch area. Our infrastructure as code service covers that approach.

Some backup platforms use anomaly detection to flag a sudden change in data volume or file entropy, which can hint at ransomware. Treat these alerts as an early warning, not a guarantee, and keep human review in the loop.

• Healthcare: a practice needs patient records restorable with proof of integrity, plus a paper-based fallback during downtime.
• Legal and accounting: a firm needs long retention of client files and fast restoration of a single deleted matter folder.
• Manufacturing: a plant needs the production scheduling system back quickly, with an agreed manual procedure meanwhile.
• Online retail: a store needs its order database replicated so a regional outage does not stop sales.

These are illustrative examples of where backup and disaster recovery typically fit, not Kramate client results.

Data location, retention duties and breach reporting differ by country. Confirm details with legal counsel.

• USA: sector rules such as HIPAA require contingency planning for health data, and many states have breach-notification laws.
• UK: the UK GDPR requires appropriate security and the ability to restore access to personal data; the NCSC publishes practical guidance for smaller organizations in its Small Business Guide (opens in a new tab).
• Australia: the Privacy Act 1988 includes a notifiable data breach scheme, and the OAIC oversees it.
• Singapore: the Personal Data Protection Act includes data breach notification, and regulated sectors may face additional continuity rules.

Choose backup storage regions with these rules in mind. A copy kept in another country may be good for resilience but may also trigger transfer obligations. Kramate offers four to six hours of overlap with US Eastern time and a full working day with the UK, Australia and Singapore.

Costs for backup and disaster recovery services follow recovery goals. Tighter objectives need more replication, standby capacity and testing effort. Typical drivers include:

• Volume of data and how fast it changes.
• Number of systems and their recovery tier.
• Retention periods and storage type, including immutable storage.
• Standby environments and cloud capacity.
• Frequency and depth of recovery testing.
• Software licensing for backup platforms.

Providers use monthly managed-service fees, usage-based storage charges and fixed-price setup projects. Budget in phases: protect the most critical systems first, prove recovery with a test, then extend coverage. Compare the cost of protection with the cost of a day offline, which only you can estimate.

1. Goals before products. They ask for your recovery objectives first.
2. Tiered designs that match spend to criticality.
3. Isolated or immutable copies and separate administrator credentials.
4. A testing schedule with written results.
5. Clear escalation and response-time agreements during an incident.
6. A runbook you own, including contact lists and restore order.
7. Honest limits. They explain what the service does not protect, such as data in unmanaged software-as-a-service tools.

Detailed discussions begin under an NDA. After a free consultation you receive an estimate within 24 hours, with fixed-price, dedicated-team or hourly options. A dedicated project manager posts daily updates on Slack or Teams, and each two-week round ends with a demo or progress review, which suits phased protection. Kramate can lead the work or embed in your IT team. Read our approach to backup and disaster recovery.

• NIST SP 800-34 Rev. 1 Contingency Planning Guide for Federal Information Systems (opens in a new tab)NIST
• Azure Backup Documentation (opens in a new tab)Microsoft
• Veeam Backup & Replication Documentation (opens in a new tab)Veeam
• NCSC Offline Backups in an Online World (opens in a new tab)NCSC UK
• CISA StopRansomware (opens in a new tab)CISA
• NIST SP 800-61 Incident Handling Guide (opens in a new tab)NIST
• NCSC Small Business Guide (opens in a new tab)NCSC UK