In conversations with clients — from both the public and commercial sectors — the same moment almost always arrives. The conversation starts with a specific outage, a ransomware attack, or a spectacular competitor failure reported in the media. Then comes the question that really interests the person across the table: “What would happen to our organization if the same thing happened to us tomorrow?” The answer to that question — honest and grounded in facts, not wishful thinking — is precisely the essence of a business continuity plan and disaster recovery.
BCP and DRP are not documents created “just in case” and filed away in a drawer. They are living organizational mechanisms that determine whether an organization survives a crisis or becomes its victim. In December 2025, when ransomware destroys companies within hours, cloud outages simultaneously affect thousands of customers, and regulators — NIS2, DORA, the Polish Financial Supervision Authority — are beginning to enforce business continuity requirements with real financial sanctions, having a proven plan is no longer optional. It has become a necessity.
This article is a practical guide that will walk you through every element of building operational resilience — from business impact analysis, through designing recovery architecture, to testing and audit-ready documentation.
What Is BCP/DRP and Why Does Every Organization Need It?
A Business Continuity Plan (BCP) is a comprehensive organizational document describing how a company will continue to carry out its critical functions in the event of a serious disruption — regardless of its source. A Disaster Recovery Plan (DRP) is a subset of the BCP, focused specifically on restoring IT systems and infrastructure after an outage. Although the two terms are often used interchangeably, their scope differs: BCP covers business processes, people, communications, and alternative workplaces, while DRP concerns technology — servers, data, applications, and networks.
The distinction between BCP and DRP has fundamental practical significance. An organization can have an excellent DRP — backups in three locations, automatic failover to the cloud, RPO measured in minutes — and still suffer catastrophic losses if it lacks a BCP. Because restoring an IT system is not enough when no one knows who is authorized to make decisions, how to communicate with customers, where employees should report, and how to handle orders during the first twenty-four hours after an outage. Technology is only one layer of resilience — BCP addresses all the remaining ones.
Every organization should have a BCP and DRP for several simultaneous reasons. First: regulatory. NIS2, DORA, ISO 22301, financial and defense sector contractual requirements — all of these regulations or standards require documented capacity to continue operations. Second: financial. According to IBM’s Cost of a Data Breach Report 2024, the global average cost of a data breach is $4.88 million, and organizations without a business continuity plan pay more and take longer to recover from a crisis. Third: reputational. In the era of instant social media, a week-long system outage is not just lost revenue — it is customers who leave and do not return.
The key distinction: BCP answers the question “how do we keep operating?”, while DRP answers the question “how do we restore IT systems?” — both are essential, and neither can replace the other.
In conversations with clients from the local government and healthcare sectors, I notice a characteristic pattern: organizations invest in excellent backup solutions, but when I ask about BCP, the answer is “we have it written down somewhere.” On closer examination, “written down somewhere” turns out to mean a four-year-old document that nobody has read, that has never been tested, and that describes an infrastructure that no longer exists. That is not a BCP — it is an illusion of security.
📚 Read the complete guide: Backup: Zasada 3-2-1 i najlepsze praktyki backupu
How to Conduct a BIA (Business Impact Analysis) — Identifying Critical Processes
Business Impact Analysis is the foundation on which the entire BCP is built. BIA is a structured process of identifying all business processes within an organization, assessing their criticality, and understanding the consequences of their interruption across different time horizons. Without a solid BIA, there is no way to know what to protect first — and attempting to protect everything equally ends up protecting nothing effectively.
Conducting a BIA begins with mapping business processes. Not IT systems, not servers — processes. The focus is on what the organization actually does: treats patients, fulfills orders, processes payments, manages public procurement, disburses benefits. Every such process must be identified, described, and assigned to an owner — a person or department responsible for its operation. In practice, this is often the most difficult step, because in many organizations knowledge about processes is dispersed and undocumented.
The next stage is assessing the impact of interrupting each process. For each process, a series of questions is asked: what are the financial consequences of one hour of downtime? Two hours? A full day? A week? What are the legal and regulatory consequences? Which contractual obligations may be violated? What is the reputational impact? What data is being processed and what are the consequences of its unavailability or loss? The answers to these questions allow each process to be assigned a criticality level — typically on a scale of: critical, high, medium, low.
The output of a BIA is a hierarchy of critical processes with assigned recovery parameters. Critical processes are those whose interruption within minutes or hours can cause irreversible losses — financial, legal, or a direct threat to life (as in hospitals or critical infrastructure management systems). High-priority processes are those whose interruption for several hours is a serious problem, but the organization will survive. Low-priority processes are those that can wait days or weeks without catastrophic consequences.
BIA should be regularly updated — at least once a year and after every significant change in the organization: implementation of a new system, structural change, acquisition of another company, or expansion into a new area of activity. A static BIA from three years ago in an organization that has since changed its ERP systems twice and deployed cloud services is a document describing a company that no longer exists.
📚 Read the complete guide: Business Continuity: Business Continuity (BCP/DR) in the Era of Cyberattacks — How to Survive a Ransomware Disaster?
How to Define RPO and RTO for Critical Systems
Recovery Point Objective (RPO) and Recovery Time Objective (RTO) are the two most important technical parameters in disaster recovery planning. They are related, but they measure different things — and confusing them is one of the most common mistakes I encounter during audits.
RPO answers the question: “How much data can I afford to lose?” — expressed in units of time. If the RPO for an ERP system is 1 hour, that means the organization accepts the loss of a maximum of 1 hour of transactions. In practice, RPO determines how frequently backups must be performed and whether real-time replication is necessary. RPO = 0 means zero data loss, which requires synchronous replication between sites. RPO = 24 hours means a single daily backup is sufficient. The shorter the RPO, the higher the infrastructure cost.
RTO answers the question: “How much time do I have to restore the system?” — expressed in units of time. If the RTO for a customer service system is 4 hours, that means the system must be available again within 4 hours after an outage. RTO determines what type of backup site is required: a hot site (minutes), a warm site (hours), or a cold site (days). The shorter the RTO, the higher the cost of maintaining switchover readiness.
The key organizational mistake is setting RPO and RTO “by feel” or copying values from other organizations without analyzing one’s own needs. RPO and RTO must derive from the BIA — specifically from the answer to the question of how much downtime and how much data loss the organization can economically absorb. If one hour of downtime on a sales system costs 50,000 zlotys in losses, then RTO = 24 hours is unacceptable, even if it is cheaper to provide.
Establishing RPO and RTO should be a joint conversation between business process owners and IT specialists. Business owners define the needs — “we need to resume accepting orders within 2 hours.” IT responds with what is technically feasible and at what cost. The compromise between business needs and infrastructure costs is the outcome of that conversation, not a top-down decision by either party.
Below are typical RPO and RTO values by system category:
- Critical systems (core banking, ERP, hospital HIS): RPO 0–15 minutes, RTO 15–60 minutes
- High-priority systems (CRM, e-commerce, order management): RPO 1–4 hours, RTO 2–8 hours
- Standard systems (HR, BI, reporting): RPO 4–24 hours, RTO 4–24 hours
- Low-priority systems (archives, auxiliary systems): RPO 24–72 hours, RTO 24–72 hours
Remember that RPO and RTO are commitments — not wishes. If you define RPO = 1 hour but perform backups every 24 hours and restoration takes 8 hours — you have an internal documentation consistency problem that will surface at the first real outage or at the first audit.
How to Design a Ransomware-Resilient Backup Strategy — The 3-2-1-1-0 Rule
The traditional 3-2-1 rule — three copies of data, two different media types, one copy offsite — was the gold standard of backup for decades. In the era of ransomware, however, it has proven insufficient. Ransomware attacks are not like a server room fire. They are like intelligent sabotage: attackers spend weeks inside the network, identifying and encrypting not only production data but also backups — local, networked, and increasingly cloud backups as well, if they are accessible from the same network.
The answer to this threat is the 3-2-1-1-0 rule:
- 3 — three copies of data (original + two copies)
- 2 — two different media types (e.g., disk + tape or disk + cloud)
- 1 — one copy offsite
- 1 — one copy offline, isolated from the network (air-gapped)
- 0 — zero errors in restore verification (every backup must be tested)
The fourth “1” — the air-gapped copy — is the key innovation over the classic 3-2-1 rule. An air-gapped copy is a backup that is physically disconnected from the network. An attacker with access to the organization’s network cannot reach it. This can be an LTO tape removed from the library and stored in a safe, an external drive disconnected after backup completion, or a backup system with unidirectional access (write-once, never-readable from the production network). For critical systems, such a copy must exist — not as a theory, but as an element of a regular operational process.
The fifth “0” — zero verification errors — is a commitment that transforms backup from a technical process into a quality process. A backup that has never been tested is not a backup copy — it is a false sense of security. Verification should include not only checking whether the backup ran (that is the minimum), but also regularly restoring data in a test environment and verifying its integrity. Best practices call for monthly test restores of critical systems and quarterly restores of high-priority systems.
Additional elements of a ransomware-resilient backup strategy include: immutable storage (backup immutability — once written, data cannot be modified for a predefined period, e.g., 30 days), account separation (the backup service account should have no permissions in other systems), anomaly monitoring (a sudden spike in the number of modified or encrypted files is an early warning signal), and multi-tier retention (daily backups for one month, weekly for a quarter, monthly for a year).
An important rule: Backup is insurance — valuable only if you have verified that it pays out. Untested backup = no backup.
When selecting a backup solution, pay attention to support for WORM (Write Once, Read Many) at the media or service level, the ability to replicate between locations using different credentials (preventing an attacker from deleting both copies with a single compromised account), and integration with anomaly detection systems. Market leaders in the backup segment for mid-size and large organizations are Veeam Backup & Replication, Commvault, Cohesity, and Rubrik — each of these solutions offers ransomware protection mechanisms, though configuration is critical to their effectiveness.
How to Build a Backup Site — Hot Site, Warm Site, Cold Site, Cloud DR
A disaster recovery site is a physical or virtual location to which an organization can transfer its IT operations in the event of a primary site failure. The choice of backup site model is a decision that flows directly from RTO: the shorter the acceptable downtime, the more expensive and sophisticated the backup infrastructure required.
A hot site is a backup site operating continuously, with live data replication and systems ready to take over traffic within minutes (typically 15–60 minutes). A hot site is the most expensive option — it requires maintaining a virtually duplicated infrastructure in full operational readiness. It is used for critical systems where RTO is less than one hour: core banking, stock exchange systems, critical infrastructure management systems. Failover to a hot site can be automatic or require a manual decision, but response time is measured in minutes.
A warm site is a backup site with partial infrastructure and frequent data replication (every few hours or on a daily cycle). Systems are installed and configured but do not operate in production mode. Switchover time ranges from several to over ten hours. A warm site is the solution for systems with RTO of 4–24 hours — it is significantly cheaper than a hot site, but requires time to bring systems up and verify them. Most organizations outside the financial and critical infrastructure sectors use a warm site for high-priority systems.
A cold site is a backup site with basic infrastructure (power, air conditioning, connectivity, empty server racks, or a contract for rapid equipment delivery), but without installed systems or current data. Recovery from an outage using a cold site takes from several days to a week — it requires physical delivery or installation of hardware, installation of operating systems, and data restoration from backup. A cold site is the cheapest option and is used for low-priority systems or as a last line of defense for organizations with limited DR budgets.
Cloud DR (Disaster Recovery as a Service, DRaaS) is a relatively new approach that has revolutionized the DR market for mid-size organizations over the past few years. In the DRaaS model, an organization replicates its systems to the cloud (AWS, Azure, Google Cloud), where it maintains “frozen” copies of virtual machines ready to spin up on demand. It pays only for the storage of replicas and resource consumption during tests or an actual failover. The advantages of DRaaS are flexibility, scalability, and the elimination of the cost of maintaining dedicated physical backup infrastructure. Limitations include dependence on network bandwidth (switching production to the cloud requires adequate throughput), potential startup time for cloud instances (typically ten to sixty minutes), and data sovereignty concerns in regulated industries.
In practice, most mature organizations use a hybrid model: a hot site or DRaaS for critical systems, a warm site or DRaaS for high-priority systems, and a cold site or offsite backup for low-priority systems. The critical requirement is that the choice of model be driven by BIA analysis and established RPO/RTO — not by what is “standard practice in the industry” or what an integrator has proposed.
An important aspect of backup site design is its location. The backup site should be far enough from the primary site that a local disaster (fire, flood, power outage in the district) does not affect both simultaneously. The recommended minimum distance is typically 50–100 km. At the same time, the backup site cannot be so far away that replication latency becomes a problem for systems with RPO near zero — synchronous data replication at distances above 300–500 km is technically feasible, but introduces significant delays.
How to Test a Business Continuity Plan — Tabletop, Walkthrough, Full Test
A business continuity plan that has never been tested is a hypothesis, not a plan. Testing BCP and DRP is the only way to ensure that the plan works in practice — that procedures are complete, that people know what to do, that systems switch over as expected, and that the RTO/RPO defined on paper are actually achievable under real crisis conditions.
There are three main levels of business continuity plan testing, differing in scope, cost, and operational risk:
A tabletop exercise is the simplest and most commonly used type of test. It involves conducting a discussion session in which the management team and key stakeholders walk through an emergency scenario step by step — but solely through discussion, without actually executing technical procedures. The facilitator presents a scenario (“Ransomware attack — ERP systems and network backup encrypted, 3:00 a.m. on a Friday”), and participants answer questions: who makes the decision to activate the BCP? Who notifies the board? Who contacts suppliers? Where do employees work if the office is inaccessible? A tabletop identifies gaps in procedures, unclear responsibilities, and missing contacts — without any risk to production. Recommended frequency: at least once a year.
A walkthrough test goes one step further — participants do not merely discuss, but actually execute certain steps of the plan: verifying contact phone numbers, confirming that they have offline access to BCP documentation (e.g., on paper or on an encrypted USB drive), initiating notification procedures, and testing emergency communication mechanisms. A walkthrough is a “dry run” without actually switching production systems. It typically lasts several hours and involves a wider circle of people than a tabletop.
A full DR test involves actually switching systems over to the backup site. It is the most costly, most time-consuming, and carries operational risk — switching production systems (even under controlled conditions) can affect service availability. For this reason, organizations typically conduct a full test during a maintenance window (weekend, off-peak hours) and prepare a plan for returning to normal operations in case of problems. A full test is the only one that actually verifies RTO and RPO — whether systems come up within the expected time, whether data is complete, and whether applications function correctly after restoration. Recommended frequency: at least once a year for critical systems.
Every test should conclude with a formal report describing: what worked according to plan, what did not, what the actual recovery times were compared to RTO, what gaps were identified, and what corrective actions are required. Without this documentation, tests become a one-off event rather than an element of a continuous improvement cycle.
📚 Read the complete guide: ISO 22301: What Is ISO 22301? Business Continuity Management
I often encounter organizations that claim they “test BCP annually.” When I ask what type of test, it turns out to be a tabletop — the same coffee-table discussion, with the same people, covering the same scenario. That is not enough. A mature BCP testing program should include several tabletop exercises per year with different scenarios, regular walkthroughs verifying the completeness of procedures and contacts, and a full DR test at least once a year. For critical systems in the financial sector, regulators often require two full tests per year.
Which Regulations (NIS2, DORA, ISO 22301) Require BCP/DRP?
The regulatory landscape regarding business continuity is more demanding in December 2025 than ever before. The three key regulatory and normative frameworks that directly address BCP/DRP are: the NIS2 Directive (and its national implementation), the DORA Regulation for the financial sector, and the ISO 22301 standard.
NIS2 (Directive 2022/2555/EU) and its national implementation imposes on essential and important entities an obligation to have business continuity and disaster recovery plans as part of minimum security measures. Article 21(2)(c) of the NIS2 Directive explicitly requires “business continuity, backup management and disaster recovery, and crisis management.” Essential entities (energy, transport, banking, health, digital infrastructure, public administration) are subject to stricter requirements than important entities. Sanctions for non-compliance amount to up to 10 million euros or 2% of global turnover for essential entities. Personal management liability is significant — Article 20 of NIS2 requires that senior management approve and oversee security measures, including BCP.
DORA (Digital Operational Resilience Act, Regulation 2022/2554/EU) is a dedicated regulation for the financial sector, applicable from January 2025. DORA sets the highest digital resilience requirements in Europe for banks, insurers, investment firms, and critical ICT providers. DORA’s BCP and DRP requirements include: developing and testing ICT continuity plans (Article 11), conducting operational resilience tests at least once a year (Article 25), testing extreme scenarios, and for systemically important entities — advanced threat-led penetration testing (TLPT). DORA also requires managing risk from external ICT providers, including ensuring that critical providers can continue their services following an outage.
ISO 22301 (Business Continuity Management Systems) is the international standard defining requirements for a Business Continuity Management System (BCMS). ISO 22301 certification is voluntary but serves as a universally recognized reference for a mature BCMS. The standard requires, among other things: conducting a BIA, establishing a business continuity strategy, developing plans, regular testing and exercising, management review, and continual improvement. ISO 22301 is consistent with ISO 27001 (information security) — many organizations combine the implementation of both standards as a single project.
Other significant regulations and standards requiring BCP/DRP include: the National Cybersecurity System Act and its amendment implementing NIS2, the Polish Financial Supervision Authority’s requirements for the banking and insurance sectors (Recommendation D, guidelines on IT risk management), NERC CIP standards for the energy sector, HIPAA for organizations processing health data (for entities with operations in the USA), and contractual requirements from large corporate clients who increasingly audit the BCP of their suppliers.
Regardless of which regulation applies to your organization, there are several common elements required by all of them: a documented plan with clear assignment of responsibilities, regular tests and evidence of their conduct, an incident management and escalation mechanism, management of risk from critical ICT suppliers, and reporting to supervisory authorities in the event of serious incidents.
How to Document BCP/DRP for an Auditor
BCP/DRP documentation is often neglected or treated as a formality that needs to be “somehow” prepared before an audit. That is a mistake. Good documentation does not serve the auditor — it serves primarily the employees who will have to act according to the plan in a stressful crisis situation, when access to “the system” may be difficult or impossible.
Complete BCP/DRP documentation should consist of several layers. The first is the strategic document — a document of several to a dozen or so pages, approved by the board, describing the organization’s business continuity policy, its scope, objectives, and general principles. The strategic document must be approved and signed by senior management — this is a requirement of NIS2, DORA, and ISO 22301.
The second layer is BIA documentation — the results of the business impact analysis, the list of critical processes with assigned owners, and RPO and RTO for each system. The BIA should be dated and signed by process owners — it constitutes evidence that the analysis was conducted deliberately, not “pulled from thin air.”
The third layer consists of operational plans (runbooks) — detailed step-by-step procedures for each emergency scenario. A good runbook contains: activation conditions (when do we launch this plan?), the decision-making structure (who makes the decision?), numbered technical steps with a description of the expected outcome of each step, contacts for key personnel and suppliers (with mobile phone numbers — not just work email addresses!), and a procedure for returning to normal operations. A runbook must be written in sufficient detail that a person who has never used a particular system before could execute the recovery procedure while being guided by phone by an expert.
The fourth layer is documentation of tests and exercises. For each BCP/DRP test, there should be a record: date, type of test, scope, participants, results (what worked, what did not), identified gaps, corrective action plan, and implementation deadlines. This is precisely the documentation most often reviewed by auditors — and its absence or poor quality is the most common reason for non-conformities in audits.
The documentation accessibility rule: BCP documentation must be accessible in a situation where the main IT systems are unavailable. This means paper copies in key locations, copies on encrypted offline media, or copies in an independent cloud system (one that is not integrated with the production infrastructure).
The key error in documentation is the absence of a change history. A BCP plan that was “written at some point” without metadata about the date, author, and version is a document that an auditor will immediately question. Every version of the plan should have a version number, the date of the last update, the author/reviewer, and a description of changes from the previous version. A good practice is to establish an annual review and update cycle — with a formal review register.
What Does a BCP/DRP Maturity Matrix Look Like?
A maturity matrix allows an organization to assess what level of business continuity management it has reached and to define a realistic path for improvement. The matrix below describes five maturity levels — from a complete absence of any structures to a fully optimized BCP/DRP program.
| Area | Level 1: Absent | Level 2: Initial | Level 3: Defined | Level 4: Managed | Level 5: Optimized |
|---|---|---|---|---|---|
| Strategy and governance | No BCP policy. Topic absent from the board agenda. | Board is aware of BCP, but no formal policy or owner. | Formal BCP policy approved by the board. Program owner designated. | BCP integrated with risk management. Regular reports to the board. | BCP as part of organizational culture. Continuous improvement. |
| BIA analysis | No BIA. Critical processes undefined. | Informal, incomplete process inventory. | BIA completed, critical processes identified, RPO/RTO established. | BIA updated annually, process owners engaged, metrics monitored. | Dynamic BIA, linked to the risk register. Continuous updates with changes. |
| Backup strategy | No backup or uncontrolled backup. | Ad-hoc backup, no verification, single medium. | Regular 3-2-1 backup, basic verification. Retention defined. | 3-2-1-1-0 backup, immutable storage, regular restore tests, monitoring. | Fully automated backup, continuous integrity verification, zero tolerance for errors. |
| Backup site | No backup site. | Agreement “just in case” with no prepared infrastructure. | Cold site or warm site with basic infrastructure. Switchover procedures written. | Warm site or hot site. Regular switchover tests. RTO/RPO verified. | DRaaS or hot site with automatic failover. RTO/RPO continuously verified. |
| Documentation and procedures | No documentation. | Fragmentary documentation, outdated, unavailable offline. | Complete documentation of BIA, policies, runbooks. Versioned. Available offline. | Documentation current, regularly reviewed. Signed by owners. | Dynamic documentation, integrated with GRC tools. Automatic review alerts. |
| Testing | No tests. | One-off test with no documentation of results. | Annual tabletop. Results documented. Corrective actions taken. | Annual tabletop + walkthrough + full DR test. Results systematically monitored. | Continuous exercises, extreme scenarios, surprise tests, KPI metrics for the program. |
| Regulatory compliance | No awareness of requirements. | Basic awareness, but no compliance. | NIS2/DORA/ISO 22301 requirements mapped. Known gaps. | Compliance with key regulatory requirements. Evidence documented for the auditor. | Full compliance. ISO 22301 certification. Proactive tracking of regulatory changes. |
Most organizations I speak with in Poland today sit at level 2–3. Regulated sectors (banking, insurance, energy, healthcare) often reach level 3–4 under regulatory pressure. The target for organizations subject to NIS2 and DORA is at least level 3–4. Level 5 is an aspiration — and a sign of organizational maturity that relatively few companies achieve.
How nFlo Helps Organizations Build Operational Resilience
nFlo works with over 200 clients from the public and commercial sectors, delivering over 500 projects in the field of cybersecurity. Over years of work with organizations of different sizes and from different industries, we have developed a structured approach to building operational resilience — from the first diagnostic conversation to implementation, testing, and ongoing support for the BCP/DRP program.
Our process begins with an assessment of BCP/DRP maturity based on the matrix described above. Within 2–3 days, we are able to conduct a preliminary assessment that shows where the organization stands, what the key gaps are, and what a realistic timeline looks like for achieving compliance with the required regulations. This assessment is the starting point for further collaboration — we do not sell “off-the-shelf catalogue” solutions, but ones tailored to the specifics of each organization.
For clients who need support in conducting a BIA, we work directly with the owners of business processes — not just with the IT department. This is critical. I have encountered situations where IT had an excellent DRP concept, but the business process owners discovered during the BIA that their priorities were completely different from what the technical department had assumed. Without that conversation, the DR plan restores IT systems — but not necessarily the ones critical to the organization’s survival.
In the area of backup and DR architecture, we advise, design, and implement solutions based on the best available platforms — Veeam, Commvault, Cohesity — taking into account the specifics of cloud environments (Azure, AWS) and on-premises infrastructure. We help organizations move from the model of “we have a backup” to the model of “we have a backup that we test and that works.” The difference between those two sentences is measured in hours of recovery time after a real incident.
Our support also includes preparation for audits under NIS2, DORA, and ISO 22301. We prepare complete sets of documentation — from the BCP policy through the BIA, runbooks, and test reports — ready to be presented to an internal or external auditor. We also help organize and facilitate tabletop exercises, particularly for management teams who have rarely had the opportunity to work through a realistic crisis scenario.
98% of our clients renew their engagement with nFlo after the first project. This stems from our approach: we do not stop at delivering a document or implementing a system. BCP and DRP are programs that require maintenance — updates following organizational changes, regular tests and exercises, and monitoring of regulatory developments. We offer annual support subscriptions that ensure organizations’ BCP/DRP remains current and effective in an evolving threat and regulatory landscape.
nFlo’s response time to client incidents and inquiries is under 15 minutes during business hours and per SLA for clients with 24/7 support. When an organization activates its DRP and encounters problems, our engineers are available — not just during office hours.
Planning to implement or review your BCP/DRP? Our experts will conduct a preliminary maturity assessment of your organization and propose a path to compliance with NIS2, DORA, or ISO 22301. Contact us to schedule a free initial consultation.
Related Terms
Explore key terms related to this article in our cybersecurity glossary:
- Backup — Backup is the process of creating a duplicate of data to protect it against loss or corruption…
- Business Continuity — Business Continuity is an organization’s ability to continue its critical functions during and after a serious disruption…
- Cybersecurity — Cybersecurity is the set of techniques, processes, and practices for protecting IT systems…
- Ransomware — Ransomware is malicious software that encrypts a victim’s data and demands a ransom for restoring access…
- Compliance — Compliance is an organization’s adherence to applicable laws, industry regulations, and standards…
Learn More
Explore related articles in our knowledge base:
- 3-2-1 Backup: The Foundation of Secure IT Infrastructure
- Business Continuity (BCP/DR) in the Era of Cyberattacks — How to Survive a Ransomware Disaster?
- What Is ISO 22301? Business Continuity Management
- Business Continuity Plan (BCP) for OT Systems — What If the Main Control System Is Unavailable for 24 Hours?
- Security Culture: How to Turn Employees into a Human Firewall?
Check Our Services
Do you need support with business continuity and disaster recovery? See:
- IT Security Audit — comprehensive assessment of security posture and BCP/DRP maturity
- Backup and Disaster Recovery — design and implementation of backup and DR solutions
- Managed Security Services (MSSP) — continuous monitoring and 24/7 operational support
FAQ — Frequently Asked Questions
Do Small and Medium-Sized Businesses Need BCP/DRP?
Yes — although the scale of the plan should be proportionate to the size and risk profile of the organization. Small businesses often mistakenly assume that BCP/DRP is the domain of large corporations. In reality, it is precisely small and medium-sized organizations that are most vulnerable to the effects of a serious outage, because they lack the financial and operational resources of large companies that would allow them to survive a prolonged disruption. A ransomware attack or server failure that for a large corporation is a serious incident to be managed, can for a small business without backup and a recovery plan mean the end of operations. Minimum BCP requirements for SMEs are: regular backup with a restore test, a list of emergency contacts, a procedure for communicating with customers during an outage, and a contract with an IT support provider with a defined SLA.
How Much Does BCP/DRP Implementation Cost and What Does the Price Depend On?
The cost of BCP/DRP implementation varies widely and depends on several key factors: the size of the organization and the number of critical processes, the required RTO and RPO (the shorter they are, the more expensive the hot site or DRaaS), the number and complexity of IT systems covered by the DR plan, the starting state (if the organization already has solid backup and documentation, the project is significantly cheaper), and the chosen backup site model. As a rough guide: implementing basic BCP/DRP for an organization employing 50–200 people (BIA analysis, documentation, backup configuration with testing, one tabletop exercise) in 2025 costs in the range of 30,000–80,000 Polish zlotys for the project. Annual maintenance and support (updates, tests, audit support) amounts to an additional 15,000–40,000 zlotys per year. A hot site or DRaaS for critical systems represents an additional infrastructure cost, depending on requirements.
What Is the Difference Between BCP and Incident Management?
BCP (Business Continuity Plan) and incident management (Incident Response, IR) are related but different processes. Incident management focuses on the first hours after a security event is detected: identification, containment, threat elimination, and post-incident analysis. It answers the question “how do we respond to the attack?”. BCP is activated when an incident has caused a serious disruption and it is necessary to ensure the continuity of critical functions — it answers the question “how do we keep operating despite the disruption?”. In practice, BCP and IR complement each other: IR minimizes the duration and scope of the disruption, while BCP ensures that the organization can function during the time it takes IR to bring the situation under control. Mature organizations have both plans and exercise them together — because in a real crisis, both are activated simultaneously.
How Often Should a BCP/DRP Plan Be Updated?
The minimum requirement is a review and update once a year — such a cycle is required by NIS2, DORA, and ISO 22301. In practice, the plan should also be updated after every significant event: implementation of a new system or platform, organizational restructuring (new departments, acquisitions, mergers), change of a critical ICT supplier, relocation of an office or server room, and after any serious incident or test that revealed gaps. Nomenclature matters: a plan “updated annually” by an administrator who changed the dates and nothing else is not an updated plan — it is the same document with a new date. An update must include verification of the currency of contact data, technical procedures, and the list of critical systems.
Does Public Cloud Solve the Disaster Recovery Problem?
Public cloud significantly simplifies many aspects of disaster recovery, but it does not solve the problem automatically. The main benefits are flexibility (on-demand resources without the cost of maintaining a dedicated hot site), global reach (easy geographical distribution), and built-in replication and high availability mechanisms. However, moving infrastructure to the cloud does not replace BCP/DRP planning — it replaces only one element: the physical backup site. You still need: a BIA with identified critical processes and RPO/RTO, switchover and return procedures, a communication plan during an outage, tests confirming that cloud failover actually works within the expected time, and identity and access management in an emergency scenario. Moreover, public cloud outages do happen — and in those cases, organizations that have moved 100% of their infrastructure to a single cloud without a backup plan have a serious problem. A multi-cloud or hybrid cloud DR strategy is recommended for systems with the highest criticality.
Sources
- IBM Security (2024). Cost of a Data Breach Report 2024. IBM Corporation. https://www.ibm.com/reports/data-breach
- Directive of the European Parliament and of the Council (EU) 2022/2555 of 14 December 2022 on measures for a high common level of cybersecurity across the Union (NIS2). Official Journal of the European Union, L 333.
- Regulation of the European Parliament and of the Council (EU) 2022/2554 of 14 December 2022 on digital operational resilience for the financial sector (DORA). Official Journal of the European Union, L 333.
- ISO (2019). ISO 22301:2019 Security and resilience — Business continuity management systems — Requirements. International Organization for Standardization.
- ENISA (2023). Good Practices for Business Continuity in Cybersecurity. European Union Agency for Cybersecurity. https://www.enisa.europa.eu/publications/good-practices-for-business-continuity
- NIST (2024). Cybersecurity Framework 2.0. National Institute of Standards and Technology. https://www.nist.gov/cyberframework
- Veeam Software (2024). 2024 Data Protection Trends Report. Veeam Software Group GmbH.
- Gartner (2023). IT Key Metrics Data: Infrastructure Measures — Availability and Disaster Recovery Analysis. Gartner Inc.
