Multimedia Builder

This module entitles "understanding Multimedia" was given in English class program for Informatics Engineering and practised to meet the need of TI students to learn English language (bahasa Inggris 1). It was designed for students of Informatics Engineering Department of undergraduate level (pre-intermediate and intermediate level). The module is provided for broadening their knowledge of English language of reading comprehension and word power vocabularies based on the genre-based text

This paper presents a software tool for generating graphical interfaces for general-purpose ACSL simulation models. The tool is aimed to construct simulators for education and training in fields such as process control. Final users can manipulate the simulation from an upper level, avoiding the details of simulation, names of variables and experiments, etc., and focusing attention on the work with each particular simulated system. The tool is based on graphical operation and transparent communication with the supporting simulation. The steps that must be followed by the programmer to prepare the graphical interface for users of the simulation are outlined. An application example, including the interface configuration as well as its use with the simulation, is provided.

Background: The development and increasing adoption of advanced microscopy imaging technologies, including high resolution, multi-dimensional digital photography and multiple fluorescence channel acquisition, as well as the availability of inexpensive terabyte-capacity storage, have enabled research laboratories to pursue neurohistological imaging experiments involving multiple neurochemical probes and experimental conditions covering a variety of brain regions. Analyzing and processing the resulting datasets, composed of hundreds of micrographs, presents challenges in ensuring accuracy and reproducibility under demanding time and training constraints. New method: The 'Custom Macros' plugin suite for ImageJ automates and systematizes user interaction in neurohistological image analysis tasks, including region selection and thresholding, point/object counts, area measurement, batch filter processing, and data review. Written in the accessible ImageJ macro language, the plugin implements a user login-based data storage framework and facilitates inter-laboratory collaboration over cloud file server clients. Results: A macro-based interface approach integrates dozens of novel operations, software interactions, algorithm calls, and background tasks into individual shortcut commands. Every completed procedure generates image, region, and calibrated measurement records that are saved in a standardized folder structure. Comparisons with existing methods: Plugin installation adds startup access to a persistent interface layer of extensive and streamlined functionality that is generalizable to a variety of neurohistological contexts, thus providing an efficient and reliable alternative to the use of analysis software in an unstructured, provisional manner that necessitates repeated menu and plugin interaction. Conclusions: Our free/open-source software provides researchers a straightforward solution to addressing daunting usability and data oversight issues, ultimately making efficient, accessible, and reproducible image analysis methodology attainable for many laboratories.

Thesis (M.S.V.S.)--Massachusetts Institute of Technology, Dept. of Architecture, 1984.MICROFICHE COPY AVAILABLE IN ARCHIVES AND ROTCH.Includes bibliographical references (leaves 66-67).This thesis describes a system for scripting and editing graphic procedures with graphic representations or "icons." The icons are small bitmap images that carry with them information about spatial placement, list placement, and pointers to procedures. Icons have been created and connected to a series of image transformation procedures. Two interactive graphic software packages have been written, one for producing icons and one for scripting with icons. Icons can be created in two ways: (1) making bitmaps from frame buffer images and (2) drawing by grid filling. Scripts can be created in two ways: (1) by storyboa~ding icons or (2) by playing out a sequence of graphics and recording the list of events. Scripts can be edited, saved, re-edited, and played upon request. The software takes advant...

Due to the condition of the original material, there are unavoidable flaws in this reproduction. We have made every effort possible to provide you with the best copy available. If you are dissatisfied with this product and find it unusable, please contact Document Services as soon as possible. A B S T R A C T This thesis describes a system for scripting and editing graphic procedures with graphic representations or "icons." The icons are small bitmap images that carry with them information about spatial placement, list placement, and pointers to procedures. Icons have been created and connected to a series of image transformation procedures. Two interactive graphic software packages have been written, one for producing icons and one for scripting with icons. Icons can be created in two ways: (1) making bitmaps from frame buffer images and (2) drawing by grid filling. Scripts can be created in two ways: (1) by storyboarding icons or (2) by playing out a sequence of graphics...

PE (Portable executable) file is a standard format for executable file and is applied extensively. PE file has diversity, uncertainty of file size, complexity of file structure and singleness of file format, which make PE file easy to be a carrier of information hiding, especially for that of large hiding capacity. A novel software information hiding algorithm is proposed, which makes full use of display characteristics of palette icon of portable executable file. In this algorithm, the information is embedded into the transparent area of the icon by taking advantage of the redundant color items in the palette. The experimental results show that after embedding the information, the size of the icon remains unchanged, that is, the size of the resource section will not change, and the size of the PE file will not change. On the other hand, the icon with embedded data can be correctly analyzed and displayed without any distortion. PE file can run normally, and does not affect the performance of the program, so the algorithm has good concealment. The algorithm selects an index value whose color is black according to rules in the XOR bitmap, these index values are encoded for information hiding, its complexity is low. At the same time, we can further improve the hiding capacity by adding one or more icons to PE file.

In present, computer software becomes very well developed. At the starting stage of revolution there were many computer software developed. Best one was operating system which has been necessary for any computer device to perform different operation. They gave important facility to deal with the bytes of data which would be stored on disk or in the document and simply known as copy-paste/cut-paste type operations. But the main problem with this type of operation is that user cannot able to make copy operation again without pasting older one. But present system will provide the facility to make copy operation again and again without past older one and also store the content on the physical memory.

The Vim text editor is very rich in capabilities and thus complex. This article is a description of Vim and a set of considerations about its usage and design. It results from more than ten years of experience in using Vim for writing and editing various types of documents, e.g. Python, C++, JavaScript, ChucK programs; \LaTeX, Markdown, HTML, RDF, Make and other markup files; % TTM binary files. It is commonplace, in the Vim users and developers communities, to say that it takes about ten years to master (or start mastering) this text editor, and I find that other experienced users have a different view of Vim and that they use a different set of features. Therefore, this document exposes my understandings in order to confront my usage with that of other Vim users. Another goal is to make available a reference document with which new users can grasp a sound overview by reading it and the discussions that it might generate. Also, it should be useful for users of any degree of experie...

Currently ImageJ presents itself as a good working tool for medical imaging research. Image processing and analysis using specific ImageJ plugins is a simple process, mainly due to its natively support for a wide range of image formats. However, there are medical imaging modalities (e.g. endoscopy, ultrasound), with video output formats that are still not supported by ImageJ (e.g. VOB, MPG). With the base package of ImageJ it is possible to open videos in AVI format and with additional plugins (e.g., QuickTime Movie Writer, JMF Movie Reader, QuickTime Opener) videos in Quicktime Movie format (i.e. MOV and PIC) are also supported. For other video formats it is necessary to convert the video to a supported format using a third party video converter application. A video is basically a temporal sequence of images. An average endoscopy produces a five to ten minute video with a frame rate of 50 fps. Of these tens of thousands of images only a few are relevant, thus it is necessary to sel...

Online experiments are growing in popularity, and the increasing sophistication of Web technology has made it possible to run complex behavioral experiments online using only a Web browser. Unlike with offline laboratory experiments, however, few tools exist to aid in the development of browser-based experiments. This makes the process of creating an experiment slow and challenging, particularly for researchers who lack a Web development background. This article introduces jsPsych, a JavaScript library for the development of Web-based experiments. jsPsych formalizes a way of describing experiments that is much simpler than writing the entire experiment from scratch. jsPsych then executes these descriptions automatically, handling the flow from one task to another. The jsPsych library is open-source and designed to be expanded by the research community. The project is available online at www.jspsych.org.