Introduction
Ensuring the safety of digital data in the online space is possible due to the provision of appropriate control. For this purpose, promoting specific monitoring methods is a valuable practice. This work called security architecture and design is a significant activity in the use, processing, and storage of information. The application of such a security algorithm is relevant in various networks with different types of data, including private and corporate files. In addition, this practice can be of value in my career as a mechanism to hone information security skills and develop the necessary data control and management attainments. Security architecture and design makes it possible to maintain effective digital asset monitoring and implement algorithms to validate and adjust to the information flow.
Features of Security Architecture and Design
The use of security architecture and design principles is a prerequisite for modern approaches to ensuring the safety of digital data resources. According to Køien (2020), one of the main goals of this practice is “to make the system robust and resilient in the face of an adversary” (p. 1615). The process of establishing the necessary security barriers can be different depending on the criteria of the network itself, the type of information processed, as well as its volume. As Varadharajan et al. (2018) note, most modern algorithms are policy-based and controlled by such parameters as levels of access to data, rules for communication between users and digital devices, and some other aspects. Woods (2016) provides a history of the development of these approaches to ensuring data security and remarks that promoting such systems has become a natural phenomenon. Thus, in the face of a large information flow, ensuring the necessary security framework is imperative.
Principles of Security Architecture Operation
One of the main strengths of security architecture and design frameworks is their adaptability. Beer and Hassan (2017) argue that opportunities to establish the necessary data control system within a specific network and manage all data flows comprehensively make such algorithms dynamic. In other words, for each network, certain monitoring mechanisms may be created. According to Gehrmann and Gunnarsson (2019), this architecture is a security design that allows identifying and remedying security risks and threats to stored data timely. Woods (2016), in turn, provides the analysis of software architecture stages and notes that for each of the steps, individual control principles are relevant – monolithic, distributed, Internet-connected, Internet native, and intelligent connected. As Køien (2020) states, any vulnerabilities in data storage and transmission systems are identified due to special monitoring mechanisms that determine potentially dangerous and malicious processes. Therefore, when running smoothly, security architecture frameworks are valuable tools.
Application to Different Purposes
Due to their adaptability and usability, security architecture and design frameworks are applied across different networks. Beer and Hassan (2017) mention their relevance in enterprise environments and note that security capabilities allow gaining control over even large digital data flows. In addition, the authors argue that custom designs allow for both public and private certificates and keys, which expands the range of the use of security systems (Beer & Hassan, 2017). For many companies, preserving intellectual property products is a priority when establishing a safety program. In this regard, as Guin et al. (2018) note, utilizing security architecture for this purpose is significant and valuable and creates an environment for protecting digital content from cyberpiracy. At the same time, the application of special security designs on private networks also helps keep users’ personal information safe and protect software and data from malicious software and other threats. Therefore, the variability of the areas for applying security architecture makes this algorithm indispensable in the modern realities of the digital space.
Application to My Professional Career
Security architecture frameworks can be applied to my professional career. In particular, as Bass (2018) argues, working in accordance with these safety algorithms allows addressing not only technical but also organizational and cultural aspects. Implementing the necessary changes with dedicated protection tools is an effective means of improving my qualifications and, consequently, organizational effectiveness. With regard to the cultural role, the application of security architecture promotes responsibility for the performed functions and stimulates the accumulation of knowledge to prevent threats to user data. Nejib et al. (2017) note that designing such systems requires utilizing agile methodologies to maintain adequate safety management. Thus, by applying skills in this activity, I can expand my attainments and develop a unique and adaptive system that can work across networks and meet today’s digital security standards.
Conclusion
In the face of the need to ensure the safety of user information, implementing security architecture and design algorithms makes it possible to maintain control over digital data. These mechanisms are utilized for different purposes and are adaptive, which makes the range of their application wide. Their use in corporate and private networks allows securing data of various formats and purposes and prevents attacks by malicious software. Applying security architecture and design frameworks in my career is a valuable activity that can help not only improve my individual professional qualifications but also address organizational and cultural aspects of working with digital data
References
Bass, L. (2018). The software architect and DevOps. IEEE Software, 35(1), 8-10.
Beer, M. I., & Hassan, M. F. (2017). Adaptive security architecture for protecting RESTful web services in an enterprise computing environment. Service Oriented Computing and Applications, 12(2), 111-121.
Gehrmann, C., & Gunnarsson, M. (2019). A digital twin based industrial automation and control system security architecture. IEEE Transactions on Industrial Informatics, 16(1), 669-680.
Guin, U., Zhou, Z., & Singh, A. (2018). Robust design-for-security architecture for enabling trust in IC manufacturing and test. IEEE Transactions on Very Large Scale Integration (VLSI) Systems, 26(5), 818-830.
Køien, G. M. (2020). A philosophy of security architecture design. Wireless Personal Communications, 113(3), 1615-1639.
Nejib, P., Beyer, D., & Yakabovicz, E. (2017). Systems security engineering: What every system engineer needs to know. INCOSE International Symposium, 27(1), 434-445.
Varadharajan, V., Karmakar, K., Tupakula, U., & Hitchens, M. (2018). A policy-based security architecture for software-defined networks. IEEE Transactions on Information Forensics and Security, 14(4), 897-912.
Woods, E. (2016). Software architecture in a changing world. IEEE Software, 33(6), 94-97.