Regression-Based Recovery Time Predictions in Business Continuity Management: A Public College Case Study

Regression-Based Recovery Time Predictions in Business Continuity Management: A Public College Case Study

Athanasios Podaras, Konstantia Moirogiorgou, Michalis Zervakis
DOI: 10.4018/978-1-7998-4978-0.ch020
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Abstract

Business continuity is crucial for modern public organizations. It enables the uninterrupted operation of critical business functions and services in the event of an unexpected crisis situation. A key business continuity activity is to set proactively and non-arbitrarily recovery priorities while computing the recovery time effort (RTE) for these functions. The specific activity requires the consideration of technical and environmental factors of individual business functions in order to compute mathematically their recovery time. A recently published formula stems from the business continuity points method. Its limitation has been the absence of real data during its conception. The purpose of the chapter is firstly, to use business continuity data from a public college in order to validate the initial formula and, secondly, to infer a new more accurate and robust RTE equation based on regression analysis techniques. The inferred RTE formula can be used as input for predicting service availability rates.
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Introduction

Modern organizations, either private or public and non-profit are facing multiple challenges. A challenge of major importance for the organizations of all types is the provision of rapid, quality and ICT – enabled services to customers and citizens. Such services are provided through and supported by electronic platforms and systems for which the operational availability should be ensured. Moreover, security regarding transactions and customer data protection is also a matter of major concern for such services and systems. Apart from the processes which are intended for customer service, the majority of modern business functions and operations rely heavily on information technologies. As a consequence, any event that may result in an operational failure of business information systems should be treated in a timely manner in order to avoid or minimize any negative business consequences. In general, the exposure to such threatening events should urge public organizations apply targeted and effective recovery policies.

In general, public organizations are vulnerable to a multitude of threats. Such threats are distinguished to man-made, natural, technical and biological threats. Cybercrimes, earthquakes, network outages and epidemics are representative examples from each of the aforementioned general categories. The coordinated, timely and effective recovery of the unexpectedly interrupted critical business functions and processes in public organizations is based on the formulation of stable and standard business continuity policies. Business continuity is a “management process that identifies potential factors that threaten an organization and provides a framework for building resilience and the capability for an effective response” (Speight, 2011). One of the most important Business Continuity Management (BCM) objectives is the definition of the time that is required to recover a process, activity and the involved systems. The specific timeframes are unfortunately determined based exclusively on the viewpoint of domain experts (Jaech et al, 2018). Despite the fact that these timeframes satisfy the recovery requirements of the business functions and that they are reasonable and practically achievable, they lack a standard mathematical background that provides further stability and robustness especially for the cases of mission - critical functions and processes. As in the case of other public organizations, business continuity management is a matter of grave importance in universities and colleges, as well. Except for the time required to recover an individual business function at a university, an additional task is the definition of recovery priorities regarding the total of the business functions. The specific task is part of the Business Impact Analysis (BIA). Business Impact Analysis at universities is intended to assist management in identifying critical functions that are essential to the survival of the department. BIA evaluates how quickly a department can return to full operation following a disaster situation. BIA also looks at the type of resources required to resume business (Pace University, 2020).

Key Terms in this Chapter

Business Continuity: The act of ensuring that core business units and critical services operate at an acceptable level after some unexpected interruption or a crisis incident.

Recovery Time Effort: The effort which is demanded for the complete restoration of the business functions and their supporting information systems. It is measured using time duration units (seconds, minutes, hours, days, weeks, months, years and more).

Regression Analysis: A statistical technique used to explore relationship among two or more variables. In data mining, regression analysis is used for predicting numeric values.

Availability: A concept stemming from the reliability engineering term which refers to the degree to which a system operates normally and is at the disposal of users.

Business Function: High-level business operation composed of complex business processes, activities, and tasks.

Business Impact Analysis: A business continuity management activity which is mainly intended for defining the core business functions, the recovery priorities regarding these functions and the corresponding time required for the resumption of each function.

Data Mining: The data-based knowledge discovery phase throughout which data are efficiently processed for thorough analysis and formulation of rules – based decisions and predictions regarding specific facts.

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