Digital Logic - Syllabus

Introduction to the historical development of number systems and their significance.

Overview of positional and non-positional number systems, including their characteristics and applications.

In-depth study of the decimal number system, including its representation and operations.

In-depth study of the binary number system, including its representation and operations.

In-depth study of the octal and hexadecimal number systems, including their representation and operations.

Conversion of numbers between different number systems, including binary, octal, hexadecimal, and decimal.

Study of r's complement and r-1's complement, including their applications and examples.

Addition and subtraction of binary numbers, including their rules and examples.

Study of different binary codes, including absolute, gray code, weighted binary code, BCD, ASCII, and Unicode.

Introduction to error detection codes and their applications in digital systems.

Introduction to distributed database concepts and their advantages.

Techniques for data fragmentation, replication, and allocation in distributed databases.

Methods and approaches for designing distributed databases.

Overview of different types of distributed database systems.

Introduction to various architectures used in distributed databases.

Overview of software tools used for simulation, including their features and applications.

Introduction to programming languages specifically designed for simulation, such as GPSS.

In-depth study of the GPSS simulation language, including its syntax, features, and examples.

Analysis of real-world examples of simulation in different domains, highlighting their objectives, methodologies, and outcomes.

Concepts and techniques for designing and developing simulation models, including model types and their applications.

Methods for building mathematical models that can be used for simulation, including equation-based and algorithmic models.

The internship work should be relevant to the field of computer science and information technology, with a minimum duration of 180 hours or ten weeks.

The internship evaluation consists of three phases: Proposal Submission, Mid-Term Submission, and Final Submission.

A regular faculty member of the college is assigned as a supervisor to supervise the students throughout the internship period.

A regular employee of the intern providing organization is assigned as a mentor to guide the students throughout the internship period.

The evaluation scheme consists of Proposal Defense, Midterm, and Final Defense, with a total of 200 marks.

The internship report should contain prescribed content flow, including introduction, problem statement, objectives, and references.

The citation and referencing standard should be APA referencing standard, with proper citation and referencing in the document.

This topic covers the challenges faced by e-government in terms of security and the approaches to address them. It explores the importance of security in e-government and the ways to mitigate risks.

This topic introduces a security management model for e-government, outlining the key components and processes involved in ensuring the security of e-government systems.

This topic delves into the architecture of e-government security, including the design and implementation of secure systems and infrastructure for e-government services.

This topic covers the security standards and guidelines for e-government, including international standards and best practices for ensuring the security of e-government systems and data.

The internship work should be relevant to the field of computer science and information technology, with a minimum duration of 180 hours or ten weeks.

The internship evaluation consists of three phases: Proposal Submission, Mid-Term Submission, and Final Submission.

A regular faculty member of the college is assigned as a supervisor to supervise the students throughout the internship period.

A regular employee of the intern providing organization is assigned as a mentor to guide the students throughout the internship period.

The evaluation scheme consists of Proposal Defense, Midterm, and Final Defense, with a total of 200 marks.

The internship report should contain prescribed content flow, including introduction, problem statement, objectives, and references.

The citation and referencing standard should be APA referencing standard, with proper citation and referencing in the document.

The report format standards include page number, page size and margin, paragraph style, text font, section headings, figures and tables.

The final report should be submitted in three copies, with a golden embracing and black binding, to the Dean Office, Exam Section, Institute of Science and Technology, Tribhuvan University.

A type of digital integrated circuit that can be programmed to perform a specific digital function, similar to PLA but with some differences.

This topic covers various project management techniques used to plan, organize, and control projects. It includes developing project management plans and implementing, monitoring, and controlling projects.

This topic focuses on creating an environment that fosters collaboration and teamwork. It includes communications planning, organizing and conducting effective meetings, and other collaborative development strategies.

Methods of communication between processes, including race conditions and critical sections.

Techniques for achieving mutual exclusion, including busy waiting, sleep and wakeup, semaphores, monitors, and message passing.

Solutions to classic inter-process communication problems, including producer-consumer, sleeping barber, and dining philosopher problems.

Goals and techniques for scheduling processes, including batch, interactive, and real-time systems.

This topic covers deadlock prevention techniques, which ensure that deadlocks cannot occur by preventing one of the necessary conditions for deadlock.