Design of a Cloud-Based Decryption Architecture for Malicious Information

Today’s information architecture (IA) practitioners work in a morally and politically challenging climate where pervasive, systemic problems demand that we consider the consequences of our work for social justice and sustainability. Using “Information Architecture in the Anthropocene” as a framing device, and drawing from critical perspectives in design scholarship, this chapter explores what these systemic problems mean for everyday information architecture practice, and it asks what methodological, theoretical, and paradigmatic qualities would enable information architecture to respond adequately to social and environmental challenges. Both design and information architecture practitioners are deeply involved in ongoing sociopolitical problems, which highlights the need for awareness of their limitations and their situatedness within the systems that are traditionally treated as objects for detached research and design. Reflexivity, informed by a systemic epistemology, is identified as a critical attribute for information architecture in the Anthropocene. Three proposals are offered as ways to achieve this: information architecture as a developmental process, information architecture as ethical practice, and information architecture as a network. These approaches apply processual and relational interpretations, along with biological theory, to the practice of information architecture, challenging our field to include ourselves in the systems we study and to rethink information architecture as a responsible practice.

Many cities around the world have embarked on ambitious programmes towards creating Smart Cities where information, diverse digital opportunities, and collective intelligence can be harnessed ubiquitously. Smart Cities are conceptualized using citywide smart and intelligent architectures informed by the context in which they are implemented. These architectures make it possible to access information and intelligence anywhere and at any time. Information processing and computing is embedded within the urban infrastructures to a point where immovable city entities such as traffic lights are more intelligent to make real-time decisions based on the happenings in the environment in which they are deployed. Advanced development of ambient computing within the realm of Smart Cities will further culminate into possibilities such as vehicle-to-vehicle communication (V2V) and mobile-to-mobile (M2M) communication. Using extensive and critical literature review, this chapter specifically focusses on the design of information architectures that will ultimately support the enshrining of spatial intelligence within Smart City environments hinged on the internet of things (IoT) and cloud/fog computing. The chapter presents latest trends in the research and practice of ambient intelligence (AmI) linked to the realization of the key principles of Smart Cities from the information topology and architecture point of view. A conceptual ambient intelligence architecture that highlights the building blocks of any ambient intelligence architecture as deployed in Smart City environments is also proposed. The proposed conceptual architecture can be used as a blueprint in the design of ambient intelligence topologies and architectures in different contextual settings.

With the rapid development of modern society and economy, various types of science and technology have also achieved relatively rapid development, which has led to significant changes in all walks of life in modern society. This change not only makes modern society transition toward an information society but also makes people in modern society obtain more convenience. The construction industry has also achieved higher quality development with the development of science and technology, especially through the informatization reform of existing technical means in multiple processes such as building design and construction, which has saved a lot of manpower and material resources. The most important aspect in the field of architecture is the design work before construction, and the degree of refinement in this process also determines the merits of the building to a certain extent. Therefore, the field of architectural design has also received more attention from relevant researchers. At the same time, the further development of social economy in the new era also puts forward more requirements for architectural design in the construction industry, which urges researchers to conduct in-depth research on existing architectural design. At the same time, combining some emerging information technologies, a new architectural design mode with better structure and performance is proposed. Image processing technology mainly uses computer algorithms to collect images, thereby converting these images into digital signals that can be recognized by a computer, and then displaying them on a computer display. This image processing technology can also identify and extract information from images, thereby displaying the key information therein. This article mainly analyzes image processing techniques and some data analysis algorithms to obtain the feasibility of their application in visual information mining systems for architectural design. The contribution of this study is to propose a new architectural design visual information mining system based on image processing technology and data analysis algorithms, and conduct experimental studies to prove that it is superior to existing systems in terms of information extraction accuracy, processing speed, and user convenience. The experimental results show that compared with the existing architectural design data mining system, the new system has an average performance improvement of 25.9% in many aspects, which marks an important step forward in the field of architectural design informatization. In addition, this study also provides a new perspective for the construction industry, i.e., applying image processing and data analysis technology to the design process to improve design quality and efficiency.

Recently, there is a lot of discussion in the architectural world about the impact that artificial intelligence image generation models will have on architectural design. Artificial intelligence uses information processing theory to analyze and model human cognitive abilities. According to information processing theory, architectural design is an information processing activity that establishes reasonable concepts to solve spatial problems and processes visual and conceptual information that corresponds to them. In this study, the five information processing processes of Akin's (1986) information processing model, DIPS (design information processing system), 'Information acquisition', 'Information representation', 'Information projection', 'Information confirmation', and 'Regulation of control'. The characteristics of architectural design thinking types, ‘convergent thinking’, ‘divergent thinking’, and ‘analogical thinking’ were examined. Through this, I identified the characteristics of representative design-related artificial intelligence NLP, GAN, and DNN and proposed an architectural design information processing model using artificial intelligence. The purpose of this paper is to examine the architectural design information processing model and compare the characteristics of the thinking style that occurs in the process with the characteristics of the artificial intelligence model to analyze the possibility of using artificial intelligence in architectural design and to provide architectural design information using artificial intelligence. The goal is to propose a processing model.

A survey across a wide range of historical, status quo, and related analogues can be performed to form a multi-dimensional trade space for the des ign of the NASA Constellation Program's Lunar Command, Control, Communication, and Information (C3I) architecture. In turn, a comprehensive mapping of the architectural trade space informs which design variables and options are available to synthesize, analyze, and e valuate numerous system-of-systems configurations over the evolution of the lunar camp aign. In order to achieve this mapping, the scope of this paper focuses on extracting and documenting commonalities and differences in the control and management of information and operational activities across seven selected analogues, so as to better understand which information flow models and concepts enable desired states of operations.

Several common phrases, such as “information society” or “virtual reality” point out the fact that information technology, digital tools and numerous different services via various communication networks have become crucially important factors of our western lifestyle and living environment. The trends of the society reflects naturally the working environments of the construction field, architectural discipline being amongst them. It is almost inconceivable to even imagine an architect without computer-based tools anymore. This evolutional development process has, from historical perspective, only recently started. The process is constantly evolving and rapidly increasing our possibilities to use and enjoy these modern digital fruits. The sometimes unpredictable and rapid changes in our working environment should make architects nervous about the impacts of the changes. All those delicate methods and collective traditions of the several thousand year architectural discipline(!), just simply cannot be transferred into the digital realm in a few decades. Researchers and teachers should very carefully, but still open mindedly, critically explore, analyse and adjust the so-called “modern technology” into the world of architecture, construction, design, planning – and education. We are not just “endusers”, It is we, in fact, who should define what, where and how are we willing to use it(IT). The value of information is constantly growing in our society, and in the future it will evidently be even more so. The value of information is quite hard to define with measurable or agreed concepts, but information evidently contains value-factors. The information which the architects are creating, modifying and manipulating, contains essential and valuable core data concerning the whole built environment of our society. It affects the physical surroundings of our society, in which we will be living for decades – hence, the information has a historical basis. The architectural core information also very strongly affects the quality of life of our fellow citizens – consequently, it has deep social meaning. The essentials of architectural information relies on the tradition of centuries – hence, it clearly has acknowledged cultural values, which are also extremely difficult to quantify. So how could architectural information be described? The information covers a wide range of heterogeneous concepts, items, values, methods, tools, materials, true facts, rumours, intuition and knowledge, plus a multitude of yet undefined or unpredictable factors, which still have to be watched and prepared for. Since the information deals with common and general subjects, it should also be described with common and general concepts. On the other hand as the information is also concerned with the minutiae of specific projects, the architectural information should also be described with well identified and unique entities. With our digital tools we handle all information – including architectural – more and more digitally. We have to handle and manipulate information currently as digital data, which could be understood the ”raw material” of architectural information. Digital data becomes valuable information, when some kind of meaning or purpose to somebody can be attributed to it. In the early gloomy days of ”digital architecture” in the 1960’s and 1970’s, researchers tried to describe architectural artefacts and even design process mathematically. The details of architectural information were quite difficult to describe with binary alphanumeric information of main-frame machines. The architects’ tools development then led to a trend where architects could better represent and visualize the design objects digitally. The widespread and common use of 2D-drawing and 3D-modelling tools is still a very strong trend within our discipline. In fact it is “the way” the majority of architectural information is managed today. During the last 15–20 years, so-called conceptual modelling or product data modelling, done in various technical and construction field research units worldwide, has from one viewpoint clarified the basis and essence of architectural information. Hence, it’s not only CAD-software application development, but also elementary and theoretical research that gives us valuable help to survive among the ever growing seas of terabits of data in the future to come. Architectural information is something that simply cannot be described just with DWG-drawings or dummy scanned photographs any more. Although drawings and photos may contain very important bits of architectural documentation, we need ntimes more “complexity layers”, concepts and tools to manage and understand the essence of architectural information today. A proper way to manage the data we are working with, has to cover the whole architectural discipline. The methods and tools also have to be valid and flexible for several decades in the future.

Eight principles of information architecture

Information Architecture plays a central role in the usability of Information Systems. It is vital that organisations employ appropriate methods to know their users when designing and evaluating Information Architecture in their systems to make them more effective. This chapter presents concepts and techniques to help organisations apply user-centred methods to design and evaluate Information Architecture in their Information Systems. The discussion is centred on the card sort technique, presenting its main variants and their applicability. The chapter also presents a worked example with the application of the Card sort technique to organise the content of the authors' university website, with data collected from 38 participants. By means of the discussion of the worked example, the chapter presents how to prepare a Card sort, recruit participants, run the study and analyse the results to be applied in the design and evaluation of Information Architecture of Information Systems.

The field of Human-Computer Interaction (HCI) Design has traditionally been very inclusive, as it emerged from the confluence of seemingly disparate disciplines, such as Computer Science, Information Design and even Rhetoric. However, this interdisciplinary orientation has not translated into direct conversations with other disciplines in order to explore a variety of actionable design strategies, which can inform future systems and interactions. This position paper explores one such possible relationship, arguing that HCI can benefit by drawing from other design fields, specifically Architecture. In order to understand how architectural design can inform better information design, we compare and contrast architectural design elements and principles to information architecture design elements within websites. We then use examples of both typical and award-winning architecture to compare to common and award-winning information architecture and website design, in order to draw parallels between the principles at work. The comparison specifically explores how architects of physical spaces create a sense of place through context and transition spaces, and provide users with a thorough understanding of they space they are navigating, concluding with implications for transfer into information design.

Website Information Architecture (IA) has transcended into a discipline that is concerned with design principle and architecture of information in digital landscape. IA models in web-mediated environment however lack theoretical perspectives, empirical evidence and cultural context. In our effort to enlighten these aforementioned, we proposed the Web Architectural-Inducing Model (WA-IM) for IA. We conceptualized website IA as multidimensional constructs and explore the applicability of WA-IM for IA. We conducted a web-based survey to 427 Muslim online user as the cultural case study and examine the expectations of using IA in culture-centred website; i.e., Islamic genre website. Construct validation of the multifactor structure of website IA was assessed via confirmatory factor analysis (CFA), using structural equation modeling (SEM). A five factor hypothesis goodness fit model was evaluated where the CFA verified that website IA is composed of multidimensional constructs of five factors; ‘content-information’, ‘content-trust’, ‘navigation-trait’, ‘navigation-wayfinding’ and ‘context-information design’.

At present, the design requirements and construction management requirements of modern buildings are higher, which not only meet people's needs for the environment, but also meet the practical functional indicators of buildings. With the help of BIM technology, the incongruity of traditional architectural design mode can be broken, and then the visibility of architectural design and the simulation of construction management can be realized. This paper expounds the advantages of BIM computer aided architectural design technology, analyzes the specific role of this technology in architectural engineering, constructs an integrated framework of architectural structural design model based on BIM, and preliminarily realizes the integration of architectural and structural model information through the developed model transformation platform, which provides reference for developing integrated architectural engineering software system based on BIM technology and improving the level of computer aided architectural design.

Chapter 5 - Informational Architecture and Logical Database Design

The delivery of information to the general public is one of the business processes that need to be developed at Mojorejo 01 Elementary School, Madiun City. The school profile website can be used as a medium for distributing school information, so that the general public, guardians, students, and teachers can obtain information on time. In addition, information about guidance and counseling from student achievements needs to be published to increase the school's excellence. In this study, an architectural design was designed for the development of a school profile website and e-counseling application to support the business processes at Mojorejo 01 Elementary School, Madiun City. The development of architectural design includes several stages of business process architecture design, data and information architecture, application architecture, and technology architecture. The results of the study are in the form of architectural design and recommendations for developing school web applications and e-counseling that can be used by schools and developers in developing applications. To assess the suitability of the architectural design to the needs of the business process and business processes of Mojorejo 01 Elementary School, an evaluation has been carried out with a result of 83.8%, which shows that the architectural design can be applied in application development.

<p>One of the public facilities that use websites is the hospital. However, there are some shortcomings complained by users related to the hospital website, which is the lack of information, confusing view of the menu, etc. Therefore, we need the information architecture to manage related content and website structure. The build of information architecture is done by using a bottom-up approach in card sorting. There are five stages in the research, which the first stage is a strategy to equalize the goal in the development of the hospital website either from the point of view of the organization or company and the user's point of view of the hospital website. The second stage is a scope to find out what are the needs of the user in order to build the hospital website. The third stage is structure, which is the formation of the initial structure of information architecture by using a bottom-up approach to the card sorting method. The type of card sorting that is commonly used is the open card sorting. The fourth stage is the skeleton stage, which is used to make information architecture model design using wireframe and prototype. The fifth stage is the test using findability testing and usability testing. From the test, the design of information architecture is made to fulfill the desires and needs of users, as proven by the results of findability testing achieved 15.9 seconds, and the results of usability testing achieved 80.33. Hence, by the results of these tests, it can be concluded that the design of information architecture at the hospital website has a good value from findability testing and usability testing.</p>

Information is enterprise asset and resource. Information planning that comply with business characteristics and strategies can improve service performance, productivity, and effectiveness of inter-and intra-organizational information management. Information architecture is a form of information planning as a base for information control, decision making, and IT development. The meaning and role of information has encourages LPMP to develop information architecture that can support education quality improvement. Knowledge and understanding of an organization is an important part for information architecture development. The organization essence can be obtained from Enterprise Ontology concept and become a part of business architecture. Enterprise Ontology is implemented through Design and Engineering Methodology for Organizations (DEMO). It's expressed ontological construction m odels in generic organizational design to synthesize transactional patterns and services which based on the organization core concept and communication. Results of design represent information elements i.e. actor, data, and transactional services of LPMP. Relations of information elements can be represented in information traceability conceptual model that shows information flows space. This model can be reviewed with performance indicators to guide the potential information control organization activities.