BUIR logo
Communities & Collections
All of BUIR
  • English
  • Türkçe
Log In
Please note that log in via username/password is only available to Repository staff.
Have you forgotten your password?
  1. Home
  2. Browse by Subject

Browsing by Subject "Scientific illustration."

Filter results by typing the first few letters
Now showing 1 - 2 of 2
  • Results Per Page
  • Sort Options
  • Loading...
    Thumbnail Image
    ItemOpen Access
    Automated layout of process description maps drawn in systems biology graphical notation = Systems biology graphical notation kullanılarak çizilen proses diyagramlarının otomatik yerleştirilmesi
    (2014) Genç, Begüm
    Evolving technology has increased the focus on genomics. The combination of today’s advanced studies with decades of molecular biology research yield in huge amount of pathway data. These models can be used to improve high-throughput data analysis by linking correlation to the causation, shedding light on many complex diseases. In order to prevent ambiguity and ensure regularity of the research, a need for using a standard notation has emerged. Systems Biology Graphical Notation (SBGN) is a visual language developed by a community of biochemists, modellers and computer scientists with the intention of enabling scientists to represent networks, including models of cellular processes, in a standard, unambiguous way. SBGN is formed of three languages: process, entity relationship and activity flow. This research is focused on its process diagram branch. Automated layout is commonly used to clearly visualize the information represented by graphs. Considering the fact that, biological pathways includes nested structures (e.g., nucleoplasms), we have made use of a force-directed automatic layout algorithm called Compound Spring Embedder (CoSE), which supports the compound graph structures. On top of this layout structure, we have developed a specialized layout algorithm called SBGN-PD layout. SBGN-PD layout enhancements mainly include properly tiling of complex members and disconnected molecules, placement of product and substrate edges on the opposite sides of a process node without disturbing the force-directed structure of the algorithm.
  • Loading...
    Thumbnail Image
    ItemOpen Access
    Methods and tools for visualization and management of SBGN process description maps
    (2014) Sarı, Mecit
    Graphs are commonly used to model relational information in many areas such as relational databases, software engineering, biological and social networks. In visualization of graphs, automatic layout, interactive editing and complexity management of crowded graphs are essential for effective utilization of underlying information. Advances in graphical user interfaces have given rise and value to interactive editing and diagramming techniques in graph visualization. As the size of the information to be visualized vastly increased, it became harder to analyze such networks, making use of relational information needed to be acquired. To overcome this problem, sophisticated and domain-specific complexity management techniques should be provided. The Systems Biology Graphical Notation (SBGN) has been developed over a number of years by biochemists and computer scientists to standardize visual representation of biochemical and cellular processes. SBGN introduces a concrete, detailed set of symbols for scientists to represent network of interactions, in a way that is not open to more than one interpretation. It also describes the manner, in which such graphical information should be interpreted. The SBGN Process Description (PD) language shows how entities are influenced by processes, which are represented by several reaction types in a biological pathway. It can be used to show all the molecular interactions taking place in a network of biochemical entities, with the same entity appearing multiple times in the same diagram. We developed methods and tools to effectively visualize and manage SBGNPD diagrams. Specifically, we introduced new algorithms for proper management of complexity of large SBGN-PD diagrams. These algorithms strive to keep SBGN-PD diagrams intact as complexity management takes places. In addition, we provided software components and web-based tools that implement these methods. These tools use state-of-the-art web technologies and libraries.

About the University

  • Academics
  • Research
  • Library
  • Students
  • Stars
  • Moodle
  • WebMail

Using the Library

  • Collections overview
  • Borrow, renew, return
  • Connect from off campus
  • Interlibrary loan
  • Hours
  • Plan
  • Intranet (Staff Only)

Research Tools

  • EndNote
  • Grammarly
  • iThenticate
  • Mango Languages
  • Mendeley
  • Turnitin
  • Show more ..

Contact

  • Bilkent University
  • Main Campus Library
  • Phone: +90(312) 290-1298
  • Email: dspace@bilkent.edu.tr

Bilkent University Library © 2015-2025 BUIR

  • Privacy policy
  • Send Feedback