What Diagram Is Used To Generate Code For Object-Oriented Systems Enabling Diagrammatic Modelling of Engineering Problems

You are searching about What Diagram Is Used To Generate Code For Object-Oriented Systems, today we will share with you article about What Diagram Is Used To Generate Code For Object-Oriented Systems was compiled and edited by our team from many sources on the internet. Hope this article on the topic What Diagram Is Used To Generate Code For Object-Oriented Systems is useful to you.

Enabling Diagrammatic Modelling of Engineering Problems

Introduction

CS Peirce (1906) in his “Prolegomena to an apology for pragmaticism” stated: “Come, my Reader, and make a diagram to illustrate the general train of thought; I mean a diagrammatization system that can be used to represent any train of thought with precision”. This is the goal of the research, but in order to limit the scope of the theory and thus make it testable, the research is primarily limited to engineers (since they often think in diagrams) and the field of modeling (which often requires diagrams need). The goal is therefore to first apply the research where it will benefit the most and to encourage others to extend it to other domains and other users. The goal of this research is to simplify computing for the non-computer literate for non-programmers, including many engineers. The main area of ​​research is to enable users, such as engineers, to model problems in manufacturing and design. However, the broader goal is to research prototypes that allow a wider range of software users to model their problems the intent is to create collaborative tools that allow users to develop software in a way known from using spreadsheets. This research combines approaches from object orientation, the Semantic Web, relational databases, and model-driven and event-driven programming. Frankel et al. (2004) explain the possibilities and importance of this kind of research.

Iterative development is used in both this research and implementation to ensure that changes can be made systematically as needed and without interrupting the project.

Software engineering and modeling have a lot in common with engineering modeling, and the tools used for both have a lot in common. Software process modeling, engineering process modeling, and business/workflow modeling share a common approach and use similar tools. Much of this commonality lies in the semi-automatic conversion of requirements into code. Achieving this requires ongoing consultation between potential users, such as engineers dealing with engineering modeling problems and developers of software problems.

Organizations face a number of constraints stemming from the lack of facilities that enable programming. For example, using “out of the box” modeling tools that are difficult to customize or implement collaboration capabilities because the project deadline is so urgent that nothing else is practical.

Methodology

A common factor among these different types of modeling is the need to transform between a high level of abstraction, a lower level such as a computer model, and then code. This is illustrated with examples of semi-automatically produced programs/models (Hale, 2008). The translation process involves translation from a tree/graph representation, and this can be translated for each node into a code representation of the equation that connects that node to any other node, and this code is then displayed on the interface as the resulting tree/graph. This is available for programs and/or websites. Kraus et al. (2007) investigate and implement this transformation problem and produce code and/or web pages. Uschold (2003) defines the Semantic Web as one that can be used by machine and can be associated with multiple meanings. So this is a good way to get the abstractions represented in the source and result tree to the end user.

The intention is to demonstrate a method of diagramming costs using the example of an airplane wing box. The wing box is the structure or frame of the wing. These diagrammatic representations are achieved by visually representing the elements and equations that make up the cost of the wing box. These elements and equations can be represented in standardized categories used in engineering—“materials,” “processes,” “cost ratios,” and so on. These categories in standard engineering categories and methods of representing the theorems and equations for the items can be expressed in standard mathematical form. Therefore, using the same methodology and the same categories, other items and equations can be represented in the same way. This method can therefore be reused to calculate the cost of other engineering components, including non-aerospace ones. The costing method is also recursive, as the components and subcomponents can be calculated separately or together, top-down or bottom-up. This method can be applied to all computational modeling problems.

Engineering modeling can be done using a high-level schematic view of the problem and transferred to the computer through a transformation. A solution to this transformation problem can be found by adapting current tools and techniques with a systematic approach. Such tools and techniques include the use of modeling tools, spreadsheets, ontology management tools, and semantic web web 2.0 tools. These potential solutions are not mutually exclusive, and a combination of them may be the best way to provide usable collaborative modeling tools for computer literate end users and domain experts. A link between these alternative ways of advancing current research is translation and user-driven modelling/programming.

An extra layer of visualized semantics can be created, allowing users to enter commands in a structured language. This way of adding extra layers is how visual programming works. Users provide the information needed by the program in the visual interface layer, and the program code is automatically generated. Layers provide the bridge between abstract ideas and computer code. Taking this approach to its logical conclusion allows the user to determine what the computer should do. Each layer would then communicate this to the layer below until the computer takes the necessary action. A simple example of this approach is the use of spreadsheets. Users can enter the calculation in a mathematical sense using a formula. The table then calculates the result of the formula. Users can change the formula if it’s wrong without having to write code or recompile. This explains the popularity of spreadsheets. However, spreadsheets do not provide the central and structured data storage required for a distributed collaboration system. Therefore, the research focuses on connecting the broad applicability of general spreadsheet modeling with structured and adaptable modeling and visualization.

It is important to allow changes to the design and structure of the information source as needed, even if it contains information. This enables the continuous development of information and its combined display. A clear representation of the structure makes obsolete and duplicate information obvious so that it can be changed by the end users of the information. This ensures that information quality is maintained without requiring end users to understand relational database design; although relational databases can still be accessed by software specialists for deeper and less frequent structural changes.

Program transformation allows you to write in one representation or language and translate to another language. This is particularly useful for language-independent programming, or high-level and end-user programming that can then be translated into a language that is more easily understood by computer systems.

The representation of the taxonomy is translated into a computer model. Relationships can be broadcast to a software model that evaluates them. The system translates the information from the taxonomy and displays it in the form of a tree in the decision support tool using the example of spar production information. The display of information in a tree can be further translated to display it as an interactive diagram. The representation can be translated into different languages ​​to enable language independence.

Related research

Crapo et al. (2002) state that there is a need for a methodology to create systems that enable collaborative modeling by domain expert end users, and this, combined with visualization, allows engineers to accurately model problems. Huhns (2001) and Paternò (2005) both explain that alternatives to the current approach to software development are needed. Modeling languages ​​such as Alloy, explained by Wallace (2003), can be used as an interface to the end-user programming environment. The transformation from the model building environment to the program code was investigated by Gray et al. (2004).

Video about What Diagram Is Used To Generate Code For Object-Oriented Systems

You can see more content about What Diagram Is Used To Generate Code For Object-Oriented Systems on our youtube channel: Click Here

Question about What Diagram Is Used To Generate Code For Object-Oriented Systems

If you have any questions about What Diagram Is Used To Generate Code For Object-Oriented Systems, please let us know, all your questions or suggestions will help us improve in the following articles!

The article What Diagram Is Used To Generate Code For Object-Oriented Systems was compiled by me and my team from many sources. If you find the article What Diagram Is Used To Generate Code For Object-Oriented Systems helpful to you, please support the team Like or Share!

Rate Articles What Diagram Is Used To Generate Code For Object-Oriented Systems

Rate: 4-5 stars
Ratings: 8847
Views: 66921461

Search keywords What Diagram Is Used To Generate Code For Object-Oriented Systems

What Diagram Is Used To Generate Code For Object-Oriented Systems
way What Diagram Is Used To Generate Code For Object-Oriented Systems
tutorial What Diagram Is Used To Generate Code For Object-Oriented Systems
What Diagram Is Used To Generate Code For Object-Oriented Systems free
#Enabling #Diagrammatic #Modelling #Engineering #Problems

Source: https://ezinearticles.com/?Enabling-Diagrammatic-Modelling-of-Engineering-Problems&id=2372443

Related Posts

default-image-feature

What Is The Country Code For The U.S Phone Numbers Universal International Freephone Number (UIFN)

You are searching about What Is The Country Code For The U.S Phone Numbers, today we will share with you article about What Is The Country Code…

default-image-feature

What Is The Country Code For The Netherlands From U.S Rails Hosting – 10 VPS Providers That FULLY Support Ruby on Rails

You are searching about What Is The Country Code For The Netherlands From U.S, today we will share with you article about What Is The Country Code…

default-image-feature

What Is The Correct Icd-9-Cm Code For Infectious Diarrhea Parvovirus – The Puppy Killer

You are searching about What Is The Correct Icd-9-Cm Code For Infectious Diarrhea, today we will share with you article about What Is The Correct Icd-9-Cm Code…

default-image-feature

What Is The Code To Text At&T For Pay Bill Cell Phone Reverse Phone Lookup – Do You Think Your Mate is Cheating? Catch Them Now!

You are searching about What Is The Code To Text At&T For Pay Bill, today we will share with you article about What Is The Code To…

default-image-feature

What Is The Code That Starts With 18 U.S.C Five Kinds of Bank Fraud – Title 18 – U.S. Code – Section 1344 Explained

You are searching about What Is The Code That Starts With 18 U.S.C, today we will share with you article about What Is The Code That Starts…

default-image-feature

What Is The Code Reader Plug-In On A Car Called Learn and Use the Huge Benefits of QR Code Marketing

You are searching about What Is The Code Reader Plug-In On A Car Called, today we will share with you article about What Is The Code Reader…