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The basic aim of this paper is to checking out the on, off status of rice cooker by using fuzzy logic technique and mat lab graphical user interface technique. Then find out the trouble shooting and the solution of this by using graphical user interface technique. There are various rice cooker available in market but it has an advance technique to cooking various types of rice, according to the water level. After starting of the cooking checking out the trouble, if there is any trouble then it smartly detected it and solving it automatically.

Since the beginning of computers there have been many types of user interfaces. Early user interfaces were extremely limited because of the computers limited resources. As computing systems and computing power evolve, so have the user interfaces evolved. The current stage of evolution for graphical user interfaces (GUI) for most computer systems is the WIMP (Windows, Icons, Mice, Pointer). The WIMP graphical user interface design has been the standard since its conception in the 1970s. Progressing beyond the WIMP to the next level of graphical user interface has proven extremely difficult [1]. Animated Graphical User Interfaces (AGUI) are a significant improvement over windowed interfaces for some applications. The users perceived usefulness, perceived value, and perceived quality can be improved by applying an Animated Graphical User Interface to the application. Improving the users perceived usefulness, perceived value, and perceived quality can lead to a significant increase in revenue for some applications. Advertising in traditional windowed applications is not widely accepted by users making it difficult to use as a revenue source. The introduction of an Animated Graphical User Interface to an application also gives rise to the option of introducing animated advertising in the application. Animated advertising can present a new revenue source in addition to or in place of the purchase price of the application. Animated advertisements can be presented in an entertaining and passive format that users will find acceptable in applications where advertising is not normally tolerated. The Animated Graphical User Interface can also be used to bridge language barriers. Animations for the interface can be designed with a goal of language independence. The user interface and animations can be designed with intuitive animations and graphics that users can understand without using a language. Animated applications designed for language independence can be used by people all over the world without modifications for language considerations. Design innovative user Animated Graphical User Interfaces that are functional and entertaining. Use the Animated Graphical User Interface Model to increase the users perceived usefulness, perceived quality, and perceived value of the target application. Create an environment using the Animated Graphical User Interface Model that instills user tolerance for animated advertising embedded in applications. Design animations, graphics and functionalities using the Animated Graphical User Interface Model that allows language independent use of the application.

The use of Natural User Interface in a real-world environment is explored by taking the example of a classroom in a government (public) school in a developing country such as India. Problems such as lack of infrastructure and inability to instill interest among students are addressed. A Microsoft Kinect based application was developed to demonstrate the use of Natural User Interface in such a classroom. The application maps Natural User Interface elements onto a Graphical User Interface and the application logic. The body gestures, distance from motion sensing device, and camera feed completely control the application, its look and feel, and the computations performed by it. The work performed, the main innovation and the salient aspects of the application, implemented as a student project, are presented.

This paper presents a novel approach to modeling and implementation of graphical user interfaces (GUI) of business applications and information systems. Its main goal is to propose a solution for efficient handling of complexity in user interface development.

User interfaces in mobile applications are complex since they need to provide sufficient features to variety of users in a restricted space where a small number of components are available. When user acquires expertise in the system they expect user interfaces which satisfy their unique needs. Therefore, user interfaces in mobile applications should be adapted to different users. Since this problem exists in various applications a general solution is required to make user interfaces adaptive using user context history. In this paper, we introduce a conceptual prototype framework for mobile applications to make the user interfaces adaptive to the user. This identifies a suitable experience level to a user by learning his/her history of interactions with applications and then displays adaptive user interfaces. A proof of concept application is implemented to inspect the behavior of framework. Further, a user study was conducted on the developed proof of concept application and user context data was stored. This data was used as the training data for the Inference engine. This framework introduces an abstract solution which can be used to adapt various user interfaces based on human computer interactions. We believe the suggested framework can be used in related adaptation for Web applications, desktop applications and other mobile platforms.

In this paper is explained one solution for automation of testing Graphical User Interface. The paper gives a description of the problem, the concept of a solution and a description of the implementation of such a solution in order to confirm the above concept. Validation of the implementation was carried out on graphical tool for the development of software for audio target platform.

This paper presents our framework for runtime generated user adapted interfaces and describes an extension to the work we presented in [1]. We call our system RUNNING to emphasize that user interfaces are generated at the runtime of an application. In addition, RUNNING allows to generate adaptable user interfaces in the sense that the resulting interface considers both the capabilities of the user's device as well as the preferences of the user. The generation process itself runs on a server to ensure fast calculation and to make it available for arbitrary client systems. We also present an extension to our Abstract Definition of the Interface, which is called (ADI VAR). With the extension it is possible to change the content of a user interface dynamically. RUNNING is also very comfortable for software developers. It allows them to concentrate on the logic of an interface rather than focusing on the UI components.

Web pages could be understood as graphical user interfaces to domain specific data provided by the internet. The specification of HTML5 facilitates the realization of user interfaces based on open standards and thereby the easy integration of code for user-tracking in already existing web pages. This paper describes a system for the detection and analysis of patterns within the user-traces. The core component of the system is a module that provides stochastic models for capturing patterns. In contrast to the simple detection of patterns within a stream of interaction events a model based approach condenses the patterns to states. The system enables an analyst to define restrictions to the state space and facilitates the interpretation of the found states.

This paper describes the problem of testing graphical user interfaces (GUI) in applications with commonly used methods and introduces a new approach to such applications. The idea is to separate the GUI from the rest of the application and focus on testing the correctness of the interface itself and not the whole system.

We attack the problem of user fatigue in using an interactive genetic algorithm to evolve user interfaces in the XUL interface definition language. The interactive genetic algorithm combines computable user interface design metrics with subjective user input to guide evolution. Individuals in our population represent interface specifications and we compute an individual's fitness from a weighted combination of user input and user interface design guidelines. Results from our preliminary study involving three users indicate that users are able to effectively bias evolution towards user interface designs that reflect both user preferences and computed guideline metrics. Furthermore, we can reduce fatigue, defined by the number of choices needing to be made by the human designer, by doing two things. First, asking the user to pick just two (the best and worst) user interfaces from among a subset of nine shown. Second, asking the user to make the choice once every t generations, instead of every single generation. Our goal is to provide interface designers with an interactive tool that can be used to explore innovation and creativity in the design space of user interfaces.

The Project54 system integrates electronic devices in police cruisers and provides a speech user interface and a GUI. It also incorporates the original user interfaces provided by the devices' manufacturers. We evaluate how the different interfaces are used by officers in the field and report on three lessons on designing in-car user interfaces.

A point and pick graphical user interface has been developed for television. Bit-mapped menus are operated with a wireless pointer. Television and external component control has been consolidated into one button on a single remote control.

This paper presents the way that a technique for preference ordering has been applied for advice generation in an intelligent graphical user interface. The graphical user interface is called I-Mailer and helps users while sending and receiving messages or during the organisation of their mailbox. In order to achieve that, I-Mailer constantly reasons about every user action in terms of the user's goals and plans. In case the user is involved in a problematic situation, it transforms the user's problematic action and generates alternative actions that are better than the problematic one in the context of the user's hypothesized intentions. In order to select the best alternative action to present to the user it uses the technique for order preference by similarity to ideal solution (TOPSIS). TOPSIS is used in I-Mailer in order to find which alternative action is closest to an ideal alternative and propose it to the user.

CEA-2027 A User Interface for Home Networks Using Web-based Protocols is a new standard that uses select Internet protocols to define a common method for remote control of consumer electronics (CE) devices connected in a home network by presenting device controls to a user via a graphical user interface (GUI) on a digital television (DTV) screen or PC.

It is very time-consuming and expensive to create highly-interactive graphical styles of user interface. User interface management systems (UIMSs) attempt to make the creation of user interfaces easier, but most existing UIMSs have many problems. This paper describes the Northwestern Polytechnical University UIMS (NPUUIMS), a UIMS that adopts object-oriented methods and direct manipulation techniques that are used to create direct manipulation interfaces. In addition, we introduce a form-independent concept, which allows the presentation components of user interfaces to be generated automatically. >

The present generation of energy management system user interfaces (UIs) has low user satisfaction. The full graphics user interface (FGUI) as so far implemented actually decreases efficiency compared with the older, character graphics UI. The fundamental problem of the FGUI may be its use of an inadequate UI paradigm, but there are many other factors affecting its efficiency: low relative display resolution, insufficient understanding of user tasks and a low level of information display and user input actions. At least some of these factors can be mitigated in UI design. Visualization can increase display resolution and communicate information to operators on a higher level than numbers and alarms. An example visualization of power system state is used to illustrate this point. >

We describe a novel query interface allowing the construction and manipulation of description logic expressions. The construction process is driven by the content of a conceptual model, guiding the user towards appropriate choices and providing a lucid interface.