An Approach to Business Continuity Self-Assessment
Abstract
1. Introduction
2. Background Research
2.1. Business Continuity
2.2. Business Continuity Plan
2.3. Business Continuity Management
2.4. Standards and Models of Best Practices
- Objective planning and estimation;
- Effective monitoring of progress and performance against plans and objectives;
- Identification and resolution of process-related issues;
- Providing a basis for incorporating measurement into additional processes in the future.
2.5. Discussion on Measurement in the BCM Scope
3. Methodology
- Step 1—Identification of the problem and motivation: The relevance of the research problem to be tackled was identified, defined, and presented [17]. The research problem was identified as the lack of a standardized and comprehensive self-assessment methodology for BCM. Organizations face challenges in implementing BCM, such as high costs, lack of expertise, and insufficient top management awareness. There is a need for a structured self-assessment tool to evaluate BCM readiness, identify gaps, and improve organizational resilience. The problem was contextualized within the broader scope of BCM frameworks, standards, and best practices, as discussed in the background research.
- Step 2—Definition of the objectives of a solution: We defined what an improved artifact could accomplish and inferred the objectives of a solution from the definition of the problem and the knowledge of what is achievable and feasible [45]. The primary objective was to develop a Self-Assessment System that could help organizations evaluate their BCM readiness, identify gaps, and improve strategic alignment. The solution aimed to provide a structured and adaptable evaluation tool that could be used by organizations of all sizes, regardless of their current BCM adoption level. The Self-Assessment System was designed to integrate with any framework in the BCM scope. During the design phase, careful consideration was given to balancing comprehensiveness with usability to ensure that the Self-Assessment System could be adopted by organizations with varying levels of BCM maturity and resource availability. This balance was a key design decision grounded in DSR’s emphasis on artifact relevance and applicability.
- Step 3—Design and development: Artefact development to solve the identified problem following the defined objectives. It comprises stating the artifact’s desired functionality [69], its architecture, and the design of the prototype. The Self-Assessment System was designed to align with the BCM Model, which includes eight components and 118 activities. The eight components of the BCM Model were derived from a systematic literature review (SLR) of 167 publications, which identified recurring themes in BCM across sectors such as healthcare, finance, and energy. Key components—including Risk Assessment (RA), Business Impact Analysis (BIA), and ICT Strategy—were prioritized based on their frequency in the literature (e.g., RA appeared in 39 publications, BIA in 58) and their alignment with established standards like ISO 22301. Components such as ‘Emergency Response’ and ‘Crisis Management’ were added due to emerging trends in disaster resilience (e.g., 11 publications addressed natural disaster strategies). A structured set of questions was developed for each activity within the BCM Model components. Questions for each activity were formulated using evidence from the SLR, where specific gaps or best practices were highlighted (e.g., 23 publications emphasized cybersecurity measures in ICT Strategy, prompting dedicated questions on incident recovery). To ensure validity, questions were iteratively reviewed by a panel of five experts with >15 years of BCM experience, covering domains like risk management (16 years), ICT governance (21 years), and cybersecurity (22 years). Discrepancies were resolved through Delphi rounds until consensus was reached on clarity and relevance. These questions were designed to assess the organization’s alignment with BCM best practices and standards. The questions were weighted based on their relevance and importance to the overall BCM process. Weightings were empirically determined through two methods: (1) a frequency analysis of SLR findings (e.g., ‘ICT Strategy’ received higher weights due to representation in 129 publications, versus 11 for supply chain risks), and (2) expert scale scoring (1–5) during the Focus Group session. For instance, metrics tied to data recovery (RTO/RPO) were weighted 30% higher than generic policy checks, reflecting their critical role in 70% of disruption scenarios analyzed in the literature. The Self-Assessment System was formalized as a rapid assessment tool, enabling organizations to quickly evaluate their BCM readiness and identify critical issues. The system was designed to be user-friendly, with clear instructions and visual indicators (e.g., scorecards with color-coded results) to help users interpret their scores and identify areas for improvement. The artifact design followed an iterative development approach, allowing for continuous refinement based on expert feedback and empirical evaluation. This iterative process ensured that the Self-Assessment System was not only theoretically sound but also practically viable and responsive to real organizational contexts. The system underwent an iteration based on feedback from the Focus Group. For example, initial questions about ‘cloud-computing redundancy’ (from 11 SLR publications) were simplified after users noted technical complexity, while ‘crisis communication’ metrics were expanded following participant reports of ambiguity during simulated cyberattacks.
- Step 4—Demonstration: The feasibility of the artifact was demonstrated, allowing for an accurate assessment of its suitability for its purpose. With proof of concept, we demonstrated use of the artifact to address case scenarios through simulation. The resources required for the demonstration include adequate knowledge of how to use the artifact to solve the problem [65]. The Self-Assessment System was demonstrated through a Focus Group session with experts in business continuity, ICT governance, risk management, and cybersecurity. Participants were given a hands-on opportunity to interact with the system and simulate its application within their own organizations.
- Step 5—Evaluation: A design artifact’s utility, quality, and effectiveness must be rigorously demonstrated through well-performed evaluation methods [66]. The business context defines the criteria for artifact evaluation. The assessment involves integrating the artifact into the business’s technical infrastructure. How well the artifact supports a solution to the problem was observed and measured [44]. It included objective quantitative performance measures, using questionnaires to evaluate the artifact’s characteristics. This quantitative evaluation employed validated scales (1–5) according to the domain of the problem. Participants rated each attribute on, for example, clarity, relevance, and usability. Open-ended responses were thematically grouped to contextualize scores. BC experts and professionals in the ICT and BC area were selected from various activity sectors. We evaluated the artifact’s completeness and the quality of the changes resulting from the iterations [44]. The artifact evaluation enabled the development of a valid artifact aimed at reducing the identified problem. The evaluation strategy incorporated both qualitative and quantitative measures to rigorously assess the artifact’s utility, quality, and effectiveness. Participant responses were analyzed using a thematic analysis approach [70], combining deductive coding based on the 16 predefined attributes (e.g., clarity, adaptability) and inductive coding for emergent themes. The authors coded the Focus Group transcripts, with discrepancies resolved through consensus. To ensure validity, coded data were cross-validated against questionnaire responses for usability, relevance, and clarity metrics.By involving diverse stakeholders from different sectors, the study ensured comprehensive validation of the Self-Assessment System’s capability to identify BCM gaps and support continuous improvement.
- Step 6—Communication: Communicate the problem and its relevance, the Self-Assessment methodology artifact, its usefulness and novelty, the rigor of its design, and its effectiveness for researchers and professionals in the area. The importance and usefulness of the research and the various step results of the research were communicated to the scientific community, professionals, and interested organizations [44,45,64]. Our objective is to submit further scientific articles to journals to disseminate our findings and contributions widely. This research contributes to the DSR body of knowledge by providing a validated artifact that addresses a recognized gap in BCM assessment, demonstrating how design science principles can be effectively applied to develop tools that enhance organizational resilience and strategic management of BC.
4. Problem Identification and Motivation
5. Proposal
5.1. Objectives and Requirements
5.2. From Self-Assessment to Measurement
5.3. Self-Assessment System
- 1 *—The domain of the activity. It does not influence measurement.
- 2 *—The weighting (p) of activity A is referenced by pA. The sum of the weightings of all the essential activities in the component is 100.
- 3 *—Essential activities for the BCM Model component in the Self-assessment Methodology.
- 4 *—The question identification number.
- 5 *—The weighting (p) of question A1 in activity A. The sum of the question weightings for each activity is 100.
- 6 *—The self-assessment question no. 1 of activity A (A1), defined for domain X1. There may be multiple questions for a single activity.
- 7 *—The scorecard of the self-assessment question A1 (sA1). A value between 0 and 100 is accepted, represented by the semaphore. Red (<60), yellow (≥60 and <90), or green (≥90). The Self-Assessment System adopts the FAMMOCN maturity model, and the resulting score can be interpreted as an indicator of the organization’s relative maturity in BCM preparedness. The scoring scale uses visual semaphores: red, yellow, and green, which offer an intuitive view of performance:
- 8 *—The result of the self-assessment question is the product of the weighting in the activity (pA) by the metric weighting (pA1) and the entered value that defines the achievement of the intention defined in the self-assessment question (sA1). The weighted score of the question is referenced by spA1.
- 9 *—The component score is the sum of the weighted results of each self-assessment question. This value assumes values between 0 and 100.
- 1 *—The BCM Model component;
- 2 *—The number of questions answered out of the total of 61 questions defined. It is considered answered if the value is between 0 and 100;
- 3 *—The weighting (p) of the CA component is referenced by pCA. The sum of the weightings of all components is 100;
- 4 *—The score of the component resulting from its assessment (score) (see Table 2). A value between 0 and 100 is accepted, which is represented by the semaphore: red (≥ 0 and < 60), yellow (≥ 60 and < 90), or green (≥ 90 and ≤ 100);
- 5 *—The result of the component of the self-assessment is the product of the component weighting (pCA) by the value of the component score (score). The weighted score of the component is referenced by spCA;
- 6 *—The total score is the sum of the weighted results of each component. This value assumes values between 0 and 100.
5.4. Components
- Red: [0–60[ Implies the need for intervention. Value 0 indicates that the intents of the components must still be considered. At a score of <60, the components’ intents have been planned and are awaiting implementation.
- Yellow: [60–90[ Indicates the importance of understanding evolution. Value ≥ 60 indicates that component intents have begun. At a value of <90, the components’ intents are nearing completion.
- Green: [90–100[ Targets have been met, and no relevant intervention is required; nevertheless, adjustments may be necessary.
6. Demonstration
6.1. Focus Group Session
6.2. Results of the Demonstration
7. Evaluation
7.1. Evaluation Process
7.2. Semi-Structured Interviews
7.3. Overview of a Use Case
7.4. Key Findings and Refinements
8. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
Abbreviations
BC | Business Continuity |
BCM | Business Continuity Management |
BCMS | Business Continuity Management System |
BCP | Business Continuity Plan |
BIA | Business Impact Analysis |
CMMI | Capability Maturity Model Integration |
COBIT | Control Objectives for Information and Related Technology |
CR-SAT | Cyber Resilience Self-Assessment Tool |
FAMMOCN | Framework for the Multidisciplinary Assessment of Organizational Maturity on Business Continuity Management |
DSR | Design Science Research |
ICT | Information and Communication Technologies |
IS | Information Systems |
ITIL | Information Technology Infrastructure Library |
KPI | Key Performance Indicators |
PDCA | Plan-Do-Check-Act |
SLR | Systematic Literature Review |
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Attribute | Description | Classification |
---|---|---|
Identifier | Question identification number | Identification |
BC Component | BC component identification | |
BC Component Activity | Activity identification in the BC component | |
Activity Question Weighting | Weight of the question to achieve the intention of the activity | |
Domain | The field of action | |
Self-assessment Question | The question for self-assessment about what should be accomplished | Self-assessment |
Self-assessment Question Guidance | Guidelines for direct measurement in self-assessment, suggesting what should be achieved in each color of the scorecard | |
Question Scorecard | The percentage range of accumulated measurements according to the goal of defining the color of the scorecard | Achievement |
Notes | Relevant comments on any parameter | Evidence |
Domain | Activity Weighting | Activity | Question ID | Question Weighting | Self-Assessment Question | Scorecard 0 to 100 | Weighted Score |
---|---|---|---|---|---|---|---|
Domain X1 (1 *) | pA (2 *) | Activity A (3 *) | # (4 *) | pA1 (5 *) | Question A1 (6 *) | sA1 (7 *) | pA x pA1 × sA1 = spA1 (8 *) |
# | pA2 | Question A2 | sA2 | pA x pA2 × sA2 = spA2 | |||
Domain X2 | pB | Activity B | # | pB1 | Question B1 | sB1 | pB x pB1 × sB1 = spB1 |
# | pB2 | Question B2 | sB2 | pB x pB2 × sB2 = spB2 | |||
pC | Activity C | # | pC1 | Question C1 | sC1 | pC x pC1 × sC1 = spC1 | |
Domain X3 | pD | Activity D | # | pD1 | Question D1 | sD1 | pD x pD1 × sD1 = spD1 |
Component Score | spA1 + spA2 + spB1 + spB2 + spC2 + spD1 (9 *) |
BCM Model component | Answered Questions | Component Weighting | Component Score | Weighted Score |
---|---|---|---|---|
Top Management commitment (1 *) | # of 5 (2 *) | pCA (3 *) | scoreCA (4 *) | pCA × scoreCA = spCA (5 *) |
Understand the organization | # of 5 | pCB | scoreCB | pCB × scoreCB = spCB |
Manage Risk | # of 8 | pCC | scoreCC | pCC × scoreCC = spCC |
Consolidate the strategy for continuity | # of 11 | pCD | scoreCD | pCD × scoreCD = spCD |
Plan and structure the continuity response | # of 11 | pCE | scoreCE | pCE × scoreCE = spCE |
Implement and maintain continuity plans | # of 8 | pCF | scoreCF | pCF × scoreCF = spCF |
Check the continuity management system | # of 8 | pCG | scoreCG | pCG × scoreCG = spCG |
Improve the continuity management system | # of 5 | pCH | scoreCH | pCH × scoreCH = spCH |
# of 61 | Total Score | spCA + spCB + spCC + + spCD + spCE + spCF + + spCG + spCH (6 *) |
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Russo, N.; São Mamede, H.; Reis, L. An Approach to Business Continuity Self-Assessment. Technologies 2025, 13, 242. https://doi.org/10.3390/technologies13060242
Russo N, São Mamede H, Reis L. An Approach to Business Continuity Self-Assessment. Technologies. 2025; 13(6):242. https://doi.org/10.3390/technologies13060242
Chicago/Turabian StyleRusso, Nelson, Henrique São Mamede, and Leonilde Reis. 2025. "An Approach to Business Continuity Self-Assessment" Technologies 13, no. 6: 242. https://doi.org/10.3390/technologies13060242
APA StyleRusso, N., São Mamede, H., & Reis, L. (2025). An Approach to Business Continuity Self-Assessment. Technologies, 13(6), 242. https://doi.org/10.3390/technologies13060242