Computer Science and Engineering

Frank M. Freimann Professor of Computer Science and Department Chair:
Jane Cleland-Huang

Professor and Associate Chair:
Michael Niemier

Associate Professor and Director of Graduate Studies:
Timothy Weninger

Teaching Professor and Director of Undergraduate Studies:
Ramzi K. Bualuan

Associate Professor and Director of Inclusive Excellence and Engagement:
Taeho Jung

Assistant Teaching Professor and Director of the Bachelor of Arts in Computer Science Program:
William Thiesen

Professor and Vice President and Associate Provost for Teaching and Learning:
Ronald Metoyer

Frank M. Freimann Professor and Director of Lucy Family Institute for Data and Society:
Nitesh Chawla

Clare Boothe Luce Assistant Professor of Computer Science and Engineering:
Karla Badillo-Urquiola

Professor of the Practice and Director, Center for Civic Innovation:
Jay B. Brockman

Snyder Family Mission Collegiate Professor of Computer Science:
Erin Chambers

Fritz Duda Family Professor of Engineering:
Patrick J. Flynn

Leo E. and Patti Ruth Linback Professor of Engineering, Computer Science and Engineering:
X. Sharon Hu

Ted H. McCourtney Professor of Computer Science and Engineering:
Peter M. Kogge

Dennis O. Doughty Collegiate Professor of Engineering:
Walter Scheirer

Galassi Family Collegiate Professor in Computer Science and Engineering:
Yanfang Ye

Leonard C. Bettex Collegiate Professor of Computer Science:
Xiangliang (Lynn) Zhang

Professors:
Danny Z. Chen; Tijana Milenkovic; Yiyu Shi; Aaron Striegel; Douglas Thain; Chaoli Wang

Associate Professors:
David Chiang; Adam Czajka; Meng Jiang; Collin McMillan

Assistant Professors:
Tingyu Cheng; Diego Gómez-Zará; Siddharth Joshi; Fanxin Kong; Jia-Jun (Toby) Li; Spyridon Mastorakis; Joanna da Silva Santos

Assistant Professor of the Practice:
Dan Rehberg

Teaching Professor:
Peter Bui

Associate Teaching Professors:
Aaron Dingler; Shreya Kumar; Paul “Will” McBurney; Matthew Morrison

Professor Emeritus:
Kevin W. Bowyer

Research Professor Emeritus:
Gregory R. Madey

Program of Studies

The Department of Computer Science and Engineering offers programs of study that lead to the degrees of bachelor of science in computer science and bachelor of science in computer engineering. The program in computer engineering is accredited by the Engineering Accreditation Commission of ABET, abet.org. The program in computer science is accredited by the Computing Accreditation Commission of ABET, abet.org. The department also offers programs that lead to a master of science in computer science and engineering, and a Ph.D.

Program Goals

The goals of the programs in computer science and computer engineering are

to prepare all students for careers in the public or private sector;
to prepare outstanding students for graduate study;
to develop lifelong learning skills in all students;
to provide comprehensive education in computer science, including theoretical foundations, software and hardware systems, and applications; and
to ensure significant design experience including working in teams.

Computer Science Program Educational Objectives

Graduates of the Computer Science program will achieve the following objectives:

They will be technically qualified for practice in the profession; they will demonstrate the ability to specify, design, and implement software and/ or hardware-software systems to meet customer requirements or to advance the state of the art; the ability to employ modern computer languages, environments, and platforms in such tasks; and the ability to apply knowledge of science and mathematics to such tasks;
They will be effective technical communicators, orally and in writing, and effective team members capable of working effectively in groups on computing problems;
They will be ethical professionals, capable of evaluating personal and professional choices in terms of codes of ethics and ethical theories and understanding the impact of their decisions on themselves, their professions, and on society;
They will be successful as graduates, either through professional employment in the private or public sector, or as students in graduate study. They will also be able to employ life-long learning tools and techniques to maintain their currency in the field.

Computer Engineering Program Educational Objectives

Graduates of the Computer Engineering program will achieve the following objectives:

They will be technically qualified for practice in the profession; they will demonstrate the ability to specify, design, implement and verify software and/or hardware-software systems to meet customer requirements or to advance the state of the art; the ability to employ modern computer languages, environments, and platforms in such tasks; the ability to follow applicable engineering standards in the execution of such tasks; and the ability to apply knowledge of science and mathematics to such tasks;
They will be effective communicators, orally and in writing, and collaborative team members capable of working in groups across software/ hardware/data boundaries on complex problems;
They will be ethical individuals, capable of evaluating personal and professional choices in terms of codes of ethics and ethical theories and understanding the impact of their decisions on themselves, their professions, and on society;
They will be successful as computer engineering graduates, either through professional employment in the private or public sector, or as students in graduate study. They will also be able to employ life-long learning tools and techniques to maintain their currency in the field.

Programs

Programs in the Department of Computer Science and Engineering follow the four-year curricula listed below. These include required and elective courses in the basic, pure, and applied sciences, as well as the humanities, Computer Science engineering, computer science, and computer engineering. Emphasis is on developing a mastery of the key principles underlying the organization, operation, and application of modern computers to real problems, with a solid grounding in math and science to permit a quantitative analysis of such solutions. In addition, central to both programs is the development of the ability to function, both independently and in multidisciplinary teams, and to be prepared for continued change in future computing technology and what effects it will have on all aspects of society. Opportunities for specialization in several professional computer disciplines are available. Students are individually assisted and advised in their choices of elective courses.

The Department of Computer Science and Engineering offers concentrations in five areas: Bioinformatics and Computational Biology, Media Computing, Mobile Computing, Cloud Computing, and Cyber Security. Each concentration is designed to offer a structured set of elective courses around an organized theme. Upon a student’s successful completion of a CS/CPEG program with a chosen concentration, the concentration will appear on the student’s transcript.

Further information about computer science and computer engineering programs may be found on the web at cse.nd.edu. Information about the Bachelor of Arts in computer science may be found at altech.nd.edu/programs/ba-in-computer-science.

The Department of Computer Science and Engineering offers their courses under the subject code of: Computer Science and Engineering (CSE). Courses associated with their academic programs may be found below. The scheduled classes for a given semester may be found at classearch.nd.edu.

Computer Science and Engineering (CSE)

CSE 10001 Principles of Computing (3 Credit Hours)

As computing and technology become increasingly intertwined with everyday life, it is essential that everyone develops a basic understanding of how computing works. In this course, students will explore the foundations of computing: hardware, software, and communications and examine the underlying concepts and ideas that transform digital information into the innovations we utilize and depend on. To gain a deeper understanding of computing at a technical level, students will develop basic programming skills via regular coding assignments and software projects. Moreover, to relate computing to different disciplines, the social, economic, and political impact of computing will be discussed.

Satisfies the following University Core Requirements: WKST-Core Science & Technology

CSE 10024 History of Artificial Intelligence (3 Credit Hours)

How can we discuss the present and future of Artificial Intelligence if we don't understand its past and how we arrived at our current situation? As the pervasiveness of Artificial Intelligence (AI) in our lives and society reaches new levels, new and old questions arise, demonstrating the urgency in equipping present and future generations with tools to understand the evolution of AI better. For over 70 years, AI has provided us with an enthusiastic sequence of events beyond the continuous cycles of hype and disillusion. Understanding how these events unfolded is crucial to understanding and debating AI today and foreseeing its future applications and challenges. The "History of Artificial Intelligence" course has three main learning goals: 1) identify critical events that influenced the rise of AI and align them with the history of related scientific disciplines; 2) describe the various phases of AI's evolution and context and discuss their influence in present discussions; and, 3) reflect on AI's ethical/societal implications and critique current/possible applications.

CSE 10101 Elements of Computing I (3 Credit Hours)

An introduction to the technical and social dimensions of computing. This course assumes no prior programming experience and emphasizes computational thinking, problem-solving, object-oriented programming, and programming literacy using Python. Topics covered include basic syntax, data types, conditional execution, control flow structures, file I/O, and basic data manipulation. This includes basic programming constructs such as data, variables, functions, conditionals, loops, lists, files, sets, and dictionaries. Also addresses the social and historical dimensions of computing, stakeholder analysis, design requirements, and research in technology domains.

Enrollment limited to students in the Computer Applications department.

CSE 10102 Elements of Computing II (3 Credit Hours)

Intermediate level programming in Python, building on concepts covered in Elements of Computing I. Object-oriented programming and Python development environments. Topics covered include data structures; relational database systems; and data manipulation, analysis, and communication in a Python programming environment.

Prerequisites: CSE 10101 or CSE 30010

CSE 10124 Introduction to Using Generative AI (3 Credit Hours)

This course introduces students to the principles, capabilities, and societal impacts of modern large language models (LLMs) and other foundational models that power today’s AI systems. Students will learn effective prompt engineering techniques to elicit high-quality responses, the mathematical foundations of text generation, and examine how different models approach the same problem, highlighting both their strengths and limitations. A key focus of the course is developing critical thinking about AI systems: students will analyze common model failure modes, investigate why models produce incorrect or misleading outputs, and practice strategies for verification and evaluation. Additional topics include the energy and environmental costs of large-scale AI, ethical considerations in model design and deployment, and emerging issues in multimodal systems and agentic workflows. Through hands-on projects and iterative experimentation, students will build the knowledge and skills needed to engage thoughtfully and responsibly with modern AI technologies, both in professional and academic environments.

CSE 10150 Responsible and Ethical AI (3 Credit Hours)

This course provides a comprehensive exploration of the intersection between artificial intelligence and ethical responsibility, equipping students with the knowledge and critical thinking skills necessary to navigate the challenges of AI deployment in society. Beginning with foundational concepts, students will gain insight into machine learning, neural networks, and data-driven decision-making, setting the stage for discussions on the ethical concerns that arise from these technologies, including bias, privacy risks, and transparency issues. Through real-world case studies in domains like healthcare, finance, social media, and governance, students will evaluate both the promises and perils of AI, applying ethical frameworks such as deontology, utilitarianism, and fairness guidelines to propose responsible solutions. The course further examines pressing topics such as data privacy, AI accountability, regulation, and governance, providing a global perspective on AI policy efforts and industry standards. As AI continues to shape the workforce, the environment, and public trust in media, students will critically engage with its societal impact, debating automation, misinformation, and the digital divide. By the end of the course, students will synthesize their knowledge through discussions, project presentations, and reflections on future trends, ensuring they emerge as informed and ethical contributors to the evolving AI landscape.

Students cannot enroll who have a program in Computer Engineering or Computer Science.

CSE 14101 Elements of Computing I (2-4 Credit Hours)

Introduction to programming using the Python language. This course assumes no prior programming experience and emphasizes computational thinking, problem-solving, object-oriented programming, and programming literacy. Topics covered include basic syntax, data types, conditional execution, control flow structures, file I/O, and basic data manipulation. This includes basic programming constructs such as data, variables, functions, conditionals, loops, lists, files, sets, and dictionaries. LB - Leuven, Belgium This course is an introduction to Python programming with a focus on the concepts of programming specifically applicable to the processing and analysis of spatial data. A student at the end should be able to work out a solution strategy to analyze spatial data based on a general scientific problem, write out program codes that allow for processing and analyzing spatial data, and develop simple programming applications in existing GIS software.

CSE 14102 Elements of Computing II (3 Credit Hours)

CSE 20024 History of Artificial Intelligence (3 Credit Hours)

CSE 20110 Discrete Mathematics (3 Credit Hours)

Introduction to mathematical techniques fundamental to computer engineering and computer science. Topics: mathematical logic, induction, set theory, relations, functions, recursion, recurrence relations, introduction to asymptotic analysis, algebraic structures, graphs, and machine computation.

Prerequisites: MATH 10560 or MATH 10092

CSE 20133 Introduction to Computing for EE Majors (3 Credit Hours)

This course introduces Electrical Engineering majors to computational thinking, and develops their ability to solve engineering problems in software. Students will learn structured programming, algorithm analysis and development, C syntax and semantics, logical and syntactical debugging, and software engineering fundamentals. Students will engage in practical, hands-on programming exercises both inside and outside of class

Enrollment is limited to students with a major in Electrical Engineering.

CSE 20147 Basic Data Science in Python & R (3 Credit Hours)

This course offers students a comprehensive overview of the foundational concepts, tools, and techniques that define the field of data science. Data science can be broadly divided into two distinct (though overlapping) areas of data engineering and data analytics; this course focuses on the analytics. Designed for beginners, this course bridges the gap between theory and practical application, enabling participants to explore how data drives decision-making across various disciplines. It is open to all majors outside of computer science and engineering, and assumes no knowledge of statistics or programming languages. Students will have the opportunity to work in either Python or R.

CSE 20176 Hacking (3 Credit Hours)

"Hacking" is one of the most pressing topics of technological and societal interest. Yet, it is one of the most misunderstood and mischaracterized practices in the public sphere, given its ethical and technical complexities. In this course we will combine anthropological and computer science methods to explore the digital tools, practices, and sociocultural histories of hacking with a focus on their context of occurrence from the late 1960s to the present. Our goal is to help students think anthropologically about computing as well as technically about the digital mediations that we depend on in our lives.

Satisfies the following University Core Requirements: WKIN - Core Integration

CSE 20221 Logic Design and Sequential Circuits (3 Credit Hours)

Boolean algebra and switching circuits, Karnaugh maps, design of combinational and of sequential logic networks, and sequential machines.

Prerequisites: MATH 10560 or MATH 10092

CSE 20222 Logic and Processor Design (4 Credit Hours)

This course is a comprehensive introduction to digital system design, intended primarily for Computer Engineering majors that spans material from basic Boolean logic through the design and implementation of a complete RISC microprocessor. Students will use the SystemVerilog hardware description language to develop models for simulation and synthesis using field-programmable gate array (FPGA) boards. Topics include an introduction to CMOS switching circuits, combinational and sequential logic, memory, finite state machines, high-level state machines, introduction to assembly language and machine code, processor datapath and controller design, and memory-mapped I/O.

Corequisites: CSE 21222

CSE 20232 C/C++ Programming (3 Credit Hours)

This course introduces students to computational thinking, and develops their ability to solve engineering problems in software. Students will learn structured programming, algorithm analysis and development, C syntax and semantics, logical and syntactical debugging, and software engineering fundamentals. Students will engage in practical, hands-on programming exercises both inside and outside of class.

Prerequisites: (EG 10111 or EG 10112) and (MATH 10550)

CSE 20289 Systems Programming (3 Credit Hours)

Systems Programming is a core Computer Science course that explores the fundamentals of computing systems. This course introduces students to the Unix programming environment where they will explore numerical representation, memory management, system calls, data structures, networking, and concurrency. Examining these topics will enable students to become familiar and comfortable with the lower level aspects of computing, while providing the foundation for further study in subsequent systems courses such as computer architecture and operating systems.

Prerequisites: CSE 20311

Enrollment is limited to students with a program in Computer Engineering or Computer Science.

CSE 20290 Career Choices in Computer Science and Engineering (1 Credit Hour)

A seminar series featuring selected speakers who are employed in fields related to Computer Science and Engineering or are career development professionals. The presentations and open symposium format emphasize career opportunities for Computer Science and Computer Engineering graduates. Course assignments are focused on personal career development (resume, cover letter, interviewing, networking).

CSE 20311 Fundamentals of Computing (4 Credit Hours)

This is the first part of a two-course computer programming sequence, intended primarily for computer science and computer engineering majors. It introduces fundamental concepts and principles of computer science, from formulating a problem and analyzing it conceptually, to designing, implementing, and testing a program on a computer. Using data and procedural abstractions as basic design principles for programs, students learn to define basic data structures, such as lists and trees, and to apply various algorithms for operating on them. The course also introduces object-oriented methods.

Prerequisites: MATH 10560 or MATH 10092

Corequisites: CSE 21311

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 20312 Data Structures (3.5 Credit Hours)

This is the second part of a two-course introduction-to-computing sequence intended for Computer Science and Computer Engineering majors. This course deepens and broadens student exposure to imperative and object-oriented programming and data structures. Topics covered include modularity, specification, data abstraction, classes and objects, genericity, inheritance. This course will focus these topics on design and use of elementary data structures such as lists, stacks, queues, and trees, as well as advanced techniques such as divide-and-conquer, sorting, searching and graph algorithms. More advanced data structures such as priority queues and search trees will also be covered.

Prerequisites: CSE 20311

Corequisites: CSE 21312

CSE 20510 Electrical Circuits for CPEG Majors (3 Credit Hours)

An introduction to the modeling and analysis of electric circuits - this course covers basic linear circuit analysis principles that include KCL, KVL, nodal and mesh analysis methods, network theorems, operation amplifiers as linear circuit elements, and transient analysis of first-order RC/RL circuits.

CSE 20600 CSE Service Projects (1-3 Credit Hours)

Engineering projects in community service.

Course may be repeated.

CSE 20639 3D Game Environments in Unity (3 Credit Hours)

This course provides an introduction to Unity 3D, a leading platform for developing games and interactive environments. Designed for students with no prior programming experience, it covers the basics of C# programming, designing and importing 3D assets, and using Unity’s Developer Environment to build projects. By the end of the eight weeks, you’ll have created a fully playable 3D environment and gained practical skills to bring your ideas to life in Unity.

CSE 21221 Logic Design Laboratory (0 Credit Hours)

Lab for Logic Design.

Corequisites: CSE 20221

CSE 21222 Logic and Processor Design Lab (0 Credit Hours)

Lab section for its co-req CSE 20222

Corequisites: CSE 20222

CSE 21311 Fundamentals of Computing Lab (0 Credit Hours)

Lab for Fundamentals of Computing.

Corequisites: CSE 20311

CSE 21312 Data Structures Lab (0 Credit Hours)

Lab for CSE 20312

Corequisites: CSE 20312

CSE 24111 Introduction to Arduino Programming (1 Credit Hour)

In this course, you will learn Arduino programming by constructing a basic game console for your own game design using an Arduino Uno, a game pad, a small OLED display, and a buzzer for sound. All the components for the build will be provided as part of the course. This fun build will provide a solid introduction into the world of Arduino programming.

CSE 24221 Logic Design (3,4 Credit Hours)

This is a foundational course in logic design that aims to provide an understanding of the fundamental concepts, circuits in digital design and expose students to the mainstream approaches and technologies used in digital design. Digital logic is the representation of signals and sequences of a digital circuit through numbers. It is the basis for digital computing and provides a fundamental understanding of how circuits and hardware communicate within a computer. The course introduces the core logical operations and demonstrates elementary methods to design logic circuits to achieve the desired function. This course also introduces the fundamentals of combinational and sequential circuits, with their high-level implementations as demonstrations. It allows students to gain hands-on experience by building computer hardware through algorithms and simple inputs. Students can learn how simple inputs of ones and zeros can be used to store information on computers, including documents, images, sounds, and videos. At the end of the course, students should be able to demonstrate an in-depth knowledge of the fundamental concepts and issues and the engineering principles involved in digital logic design and design a series of combinational and sequential circuits. Besides, students would demonstrate through hands-on experimentation knowledge of the digital design process using HDLs. IR The module reviews the theory and practice of designing digital systems. Boolean logic and binary number systems are reviewed. Design of combination circuits is covered including truth tables and a range of basic circuits (decoders, encoders, multiplexers, adders, subtracters, multipliers). Use of Karnaugh maps for logic minimisation is explained. Design of sequential circuits is covered including basic elements (clocks, latches and flip-flops) and basic circuits (counts, shift registers). Specification and design of Finite State Machines is explained. Memory systems are described. Design issues including race conditions, hazards and glitches are considered.

CSE 24232 C/C++ Programming (3 Credit Hours)

C/C++ is a professional foundation course in computer science and technology. C is a general-purpose programming language oriented to problems. It has the characteristics of simple language, rich types, complete structure, strong expressiveness, direct operation of memory units, and application for modular structure. The C language has both the advantages of a high-level language and many features of a low-level language. While, C++ is an object-oriented development method that extends from the C language. It absorbs the useful concepts and effective methods in the field of software engineering. It encapsulates data and operations on data, and integrates abstraction, encapsulation, inheritance and polymorphism to help people develop programs with high modularity, high level of data abstraction, 2 information concealed, reusable, easy to modify, and easy to expand. The course consists of two parts, the first part is the general design principle in C++, which is part of C; the second part is the object-oriented part. Through this course, students can build a solid foundation for the courses of data structure, and algorithm design and analysis.

CSE 24312 Data Structures (3-4 Credit Hours)

CSE 28901 Undergraduate Research (1-3 Credit Hours)

Undergraduate research project at for freshmen or sophomores under the supervision of a CSE faculty member.

Course may be repeated.

CSE 30124 Introduction to Artificial Intelligence (3 Credit Hours)

Foundational concepts and techniques in AI and machine learning. Historical overview of the field. Search and logic programming. Canonical machine learning tasks and algorithms: supervised and unsupervised learning (classification and regression). Essential concepts from probability and statistics relevant to machine learning. Performance characterization. Modern software environments for machine learning and AI programming. Applications in unsupervised and supervised learning from image and textual data.

CSE 30125 Computational Methods (3 Credit Hours)

Fundamentals of numerical methods and development of programming techniques to solve problems in civil and environmental engineering. This course requires significant computer use via a scientific program language such as Matlab and/or FORTRAN. Standard topics in numerical linear algebra, interpolation, discrete differentiation, discrete integration, and approximate solutions to ordinary differential equations are treated in a context-based approach. Applications are drawn from hydrology, environmental modeling, geotechnical engineering, modeling of material behavior, and structural analysis. Fall.

CSE 30151 Theory of Computing (3 Credit Hours)

Introduction to formal languages and automata, computability theory, and complexity theory with the goal of developing understanding of the power and limits of different computational models. Topics covered include: regular languages and finite automata; context-free grammars and pushdown automata; Turing machines; undecidable languages; the classes P and NP; NP completeness.

Prerequisites: CSE 20312

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 30246 Database Concepts (3 Credit Hours)

Effective techniques in managing, retrieving and updating information from a database system. Focusing primarily on relational databases, the course presents the entity-relationship model, query processing, and normalization. Topics such as relational calculus and algebra, integrity constraints, distributed databases, and data security will also be discussed. A final project will consist of the design and the implementation of a database system with a Web interface.

Prerequisites: CSE 20312

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 30264 Computer Networks (3 Credit Hours)

This course introduces students to fundamental topics on the principles, design, implementation, and performance of computer networks. Topics include: Internet architecture, protocols, socket programming, congestion control, switching and routing, local area networks, mobile and ad-hoc networks, network security, the end-to-end arguments and resource allocation.

CSE 30321 Computer Architecture (3 Credit Hours)

Introduction to basic architectural concepts that are present in current scalar and superscalar machines, together with an introduction to assembly language programming and performance evaluation. Microarchitecture simulation software is used to deepen the student's understanding of processor design.

Prerequisites: CSE 20221

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 30332 Programming Paradigms (3 Credit Hours)

Programming language overview: imperative and functional languages; logic programming. Scripting languages and tools. Development environments. Multilanguage interfacing. Case studies. Comprehensive programming practice using several languages.

Prerequisites: CSE 30331 or CSE 34331 or CSE 20312

Enrollment is limited to students with a major in Computer Engineering, Computer Science or Computer Science & Engineering.

CSE 30341 Operating System Principles (3 Credit Hours)

Introduction to all aspects of modern operating systems. Topics include process structure and synchronization, interprocess communication, memory management, file systems, security, I/O, and distributed files systems.

Prerequisites: (CSE 20312 (may be taken concurrently) or CSE 34331 (may be taken concurrently)) or CSE 30331

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 30342 Digital Integrated Circuits (3 Credit Hours)

This course, which builds upon the CSE 20221 Logic Design course, is where students learn the principles, components, and methodologies for design of large-scale digital circuits, and their integration into modern computing systems

CSE 30353 Signals Processing Fundamentals (3 Credit Hours)

This course considers the behavior, theory, and applications of linear systems. Representative topics to be considered may include: time/transform domain representations, convolution operations, Fourier series signal expansions, Fourier and Laplace transform analysis of linear systems, discrete time Fourier systems, fast Fourier transforms, digital information processing (analog/digital, digital/analog conversion), etc.

Prerequisites: CSE 30342

CSE 30600 CSE Service Projects (1-3 Credit Hours)

Engineering projects in community service.

Course may be repeated.

CSE 30872 Programming Challenges (3 Credit Hours)

This course encourages the development of practical programming and problem solving skills through extensive practice and guided learning. The bulk of the class revolves around solving "brain-teaser" and puzzle-type problems that often appear in programming contests, online challenges, and job interviews. Topics covered in this course include: performing I/O, processing strings, using data structures, performing searching and sorting, utilizing recursion, manipulating graphs, and applying advanced algorithmic techniques such as dynamic programming. Additionally, basic software engineering practices such as debugging, testing, and source code management will be utilized throughout the course.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 31321 Computer Architecture Lab (0 Credit Hours)

Lab for Computer Architecture I.

Corequisites: CSE 30321

CSE 32078 Silicon Valley Pre-Departure (0.5 Credit Hours)

This course prepares CSE students bound for the Silicon Valley spring semester, including their internship search.

CSE 34037 Data Science for Engineers (3 Credit Hours)

This course provides a comprehensive introduction to the principles and practices of Data Science. Students will develop intermediate proficiency in Python, enabling them to design and implement effective data science workflows. Key topics include data sourcing, curation, and engineering (such as filtering, storage, and selection). The course also covers modern data visualization techniques, alongside foundational concepts in inference, including classification and regression. Additionally, students will learn to construct compelling narratives and stories using the insights gained from data science processes. Additional comments: This 6-week class will have the following time allocation: 1. Programming skill level-up (Python) (1 week) 2. Data engineering: sourcing, import, transform, clean, store (1 week) 3. Data to inference: regression and classification (3 weeks) 4. Visualization and storytelling (1 week) Assessment will include weekly assignments or quizzes that will build on one another.

CSE 34124 Intro to Artificial Intelligence (3,4 Credit Hours)

Artificial Intelligence (AI) is all about programming computers to perform tasks normally associated with intelligent behaviour. Classical AI programs have played games, proved theorems, discovered patterns in data, planned complex assembly sequences and so on. This unit of study will introduce representations, techniques and architectures used to build intelligent systems. It will explore selected topics such as heuristic search, game playing, machine learning, neural networks and probabilistic reasoning. Students who complete it will have an understanding of some of the fundamental methods and algorithms of AI, and an appreciation of how they can be applied to interesting problems. The unit will involve a practical component in which some simple problems are solved using AI techniques.

CSE 34151 Theory of Computing (3-4 Credit Hours)

CSE 34246 Database Concepts (3 Credit Hours)

Collection, organisation and storage of data are major tasks in many human activities and in every modern computing system. Computer-based information systems ensure that this data is permanently maintained, quickly updated and made accessible to users. Databases are essential components of computerised information systems. This is a module for all students interested in understanding how to design, develop and query databases. In this module students will learn the fundamentals of database models, database designing methodologies, database querying. They will learn details about the relational database model, relational database query languages (relational algebra/calculus, SQL), the entity-relationship model for database design. From a more practical point of view they will gain experience in building a relational database using a commercial database management system. Students will find these skills very useful in the development of any application requiring the storage and manipulation of data.

CSE 34264 Computer Networks and Internet Systems (3-4 Credit Hours)

Taught at a host institution. COMP 30040 Computer Networks at UCD. This module introduces the OSI stack to students, and goes through the various layers in detail. The topics covered include: Network Types, functions, topologies, transmissions, switching, routing, management, reference models, architectures, protocols and standards; network user applications; flow and congestion control strategies; design and implementation considerations; use in Internet systems. There will be a few hot topics included each year Taught as CS 3102 Data Communications and Networks at St. Andrews University.This module introduces the basics of data communications and computer networks, and examines network protocols and architectures.

CSE 34321 Computer Architecture (3-4 Credit Hours)

This module introduces computer architecture through a hardware description language (HDL). The course objectives are: to describe, simulate and synthesis of digital building blocks and an entire processor, such as arithmetic circuits, memories, using VHDL; to introduce the design of processors, covering the central concepts such as the fetch-decode-execute cycle, addressing mode and instruction encoding; Starting from a MIPS instruction set architecture, gradually expanding on the details, issues and techniques in modern, high-performance processor designs. Processor performance analysis.

Prerequisites: CSE 20221

CSE 34332 Progr. Paradigms (3 Credit Hours)

Programming language overview: imperative and functional languages; logic programming. Scripting languages and tools. Development environments. Multi-language interfacing. Case studies. Comprehensive programming practice using several languages. Must have taken Data Structures as a pre-req. IR This is an advanced programming module that assumes a working knowledge of object-oriented programming and data structures & algorithms, and a familiarity with functional programming. This module covers object-oriented programming in detail and explores how functional programming integrates with object-oriented programming in current practice. There is a focus on producing software that is: (1) demonstrably correct, by using unit testing and (2) maintainable, by observing sound programming principles during development. There is a strong emphasis on practical programming skills throughout this module, and being able to develop correct, maintainable code is a key part of the assessment for this module. The main programming language employed is Scala.

CSE 34341 Operating Systems (3-5 Credit Hours)

Introduction to Oss, OS Structure, Hardware features and Oss. Processes: Independent and Co-operative processes, Synchonisation Mechanisms, Deadlocks and Starvation. Memory Management: Binding and Relocation, Memory Organisations (fixed and variable partitions), Paging Technique, Segmentation Technique, Virtual Memory. File Management: File System structures, Files, Directories, File System Implementation. Introduction to Security and Protection: Basic Issues, Security Problem, Authentication, Encryption, Protection Problem, Trusted Systems. Case Studies: Unix, WinNT.

CSE 34468 Internet of Things (3 Credit Hours)

This course will introduce the basic building blocks of the Internet of Things (IoT). The course will introduce students to Python, embedded systems (Raspberry Pi), sensing, actuation, and introductory networking. The course will begin with a brief overview of Python and will then work through the basic IoT components. Specific components to be covered include I/O (input / output), timing (measuring time, time-based output (ex. PWM)), analog interactions (A/D, D/A), communication buses (serial, parallel), and networking (IP, wireless). The course will be a hands-on course with various skill building lab modules and projects.

CSE 34777 Creative Programing with Processing (3 Credit Hours)

This course introduces Processing, a programming language that uses computational and generative art as a context. It is designed for the construction of 2D and 3D visual forms and animation. It comes with its own IDE (Integrated Development Environment), which is light- weight but well-suited for the kind of rapid prototyping needed for dynamic visual work. Processing is a great way to introduce or strengthen programming by catalyzing excitement, creativity, and innovation. There are no pre-requisites for this course, but students may find it useful to have had any programming course beforehand, even a basic introductory one. Upon completion of this course, students will be able to:  Program in an object-oriented paradigm using conditionals, loops, data structures, arrays, functions, etc.  Manipulate and generate media in image and text formats  Generate time-based and interactive media  Design and debug very visually creative programs and animations The main resource for the course is www.processing.org ; the book Learning Processing by Daniel Shiffman will be made available for reference. Main Topics:  Introduction; setting things up  Variables; conditionals; loops  3D drawing; shapes; motion and animation  Functions; Arrays  Objects; introduction to O-O programming  Debugging  Applying math concepts in visual arts programming  3D manipulations  Inputting data; exporting  Handling sound  Dynamic drawing  Advanced topics (time permitting)

CSE 34794 Silicon Valley Internship (3 Credit Hours)

Internship for Silicon Valley students

CSE 34872 Programming Challenges (3 Credit Hours)

This course encourages the development of practical programming and problem solving skills through hands-on practice and guided learning. This class revolves around solving "brain-teaser" and puzzle-type problems that regularly appear in programming contests, online challenges, and job interviews. Topics covered in this course include: performing I/O, processing strings, utilizing data structures, searching and sorting, using recursion, manipulating graphs, and applying advanced algorithmic techniques such as dynamic programming.

CSE 34999 CSE Elective (3-4 Credit Hours)

This module provides students with understanding of current and emerging component technologies, focusing on the major themes of middleware, communication and service-oriented computing models.

CSE 40113 Design/Analysis of Algorithms (3 Credit Hours)

Techniques for designing efficient computer algorithms and for analyzing computational costs of algorithms. Common design strategies such as dynamic programming, divide-and-conquer, and Greedy methods. Problem-solving approaches such as sorting, searching, and selection; lower bounds; data structures; algorithms for graph problems; geometric problems; and other selected problems. Computationally intractable problems (NP-completeness).

Prerequisites: CSE 30331 or CSE 34331 or CSE 20312

Enrollment is limited to students with a program in Computer Engineering or Computer Science.

CSE 40166 Computer Graphics (3 Credit Hours)

Introduction to interactive computer graphics. Key topics include graphics pipeline, WebGL + GLSL programming, geometric objects and transformation, modeling and viewing, interaction and animation, lighting and shading, and texture mapping. Students are expected to learn fundamental knowledge of computer graphics, essential hands-on experience in WebGL programming, state-of-the-art shader-based, GPU-accelerated graphics, and popular library for cross-browser 3D graphics.

Prerequisites: (CSE 30331 or CSE 34331 or CSE 20312) and (MATH 20580 or MATH 10094)

CSE 40171 AI and Social Good (3 Credit Hours)

To reap the benefits of innovations stemming from AI, there will also have to be a framework that demonstrates alignment with societal needs and grand challenge problems, algorithmic and data responsibility, and knowledge of and compliance with best practices, coupled with a human-driven value system of sound judgment. This course will provide a foundation for Artificial Intelligence on concepts in machine learning and deep learning, decision making, and agents. In addition, the course will incorporate a discussion on ethics through reviews, discussions, and invited speakers. Utilizing an experiential learning framework, this course will involve applications of AI methods to social good problem spaces through a class project. This course will be a mix of lectures, seminars, and experiential learning opportunities. The course is open to both upper-level undergraduate and graduate students. However, it is an expectation that the graduate students will have an additional set of assignments, including a literature review paper. The graduate students will be encouraged to incorporate their research interests, as applicable, in development of their class projects.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40175 Ethical and Professional Issues (3 Credit Hours)

This course seeks to develop a solid foundation for reasoning about ethical, professional, and social issues that arise in the context of computer science and engineering. Emphasis is placed on identifying appropriate legal, professional and moral contexts and on applying sound critical thinking skills to a problem. Topics covered include professional codes of ethics, safety-critical systems, whistle blowing, privacy and surveillance, freedom of speech, intellectual property, and cross-cultural issues. This course relies heavily on case studies of real-world incidents.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40176 The Archaeology of Hacking (3 Credit Hours)

CSE 40232 Software Engineering (3 Credit Hours)

Software engineering is an engineering discipline that is concerned with all aspects of producing high-quality, cost-effective, and maintainable software systems. This course provides an introduction to the most important tasks of a software engineer: requirements engineering, software design, implementation and testing, documentation, and project management. A medium-scale design project combined with individual assignments complement the lectures.

Prerequisites: (CSE 30331 or CSE 34331)

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40243 Compilers and Language Design (3 Credit Hours)

Compilers is a challenging and fun course for students who are planning a career in advanced software development. In this class, students will design and implement a complete compiler for a C-like language from top to bottom. The course brings together many different elements of computer science, ranging from the theoretical (formal grammar classes) to the very practical (x86 assembly language) with a pinch of software engineering in the middle. After completing the course, you will be able to write programs that manipulate computer languages in different ways, ranging from simple interactive calculators to programs that translate one language to another. Students completing the course may also experience some side effects: (1) You will learn how to use pointers really well. (2) You will gain experience in engineering a complex piece of software including revision control, testing, and evolution. (3) You will understand the C language inside and out, which will make you a better programmer all around.

Prerequisites: (CSE 30331 or CSE 34331)

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40247 Computing in Spaceflight (3 Credit Hours)

NASA has never made a request of the computing industry that cannot be realized with current state-of-the-art technology. However, computer scientists and engineers have adapted their design practices to meet the challenges of spaceflight. In this course, students will learn how those adaptations contributed to innovations in computing in space and on Earth. They will survey legacy spaceflight computing systems, modern systems for supporting manned spaceflight, and incident reports. Then, students will learn about High-Performance Space Computing (HPSC) design principles, including fault tolerance, radiation hardening, demand for onboard computing resources, complete platform security, and adoption of industrial standards for project development, and their applications in space environments.

Prerequisites: CSE 30321

CSE 40333 Mobile Application Design (3 Credit Hours)

In this course, students will learn about the mobile application design process, from application conception to end-user interactions. Students will design, implement, and debug/test applications for mobile devices and make use of the many capabilities these modern devices have to produce creative solutions to everyday challenges. A combination of readings, class discussions and hands-on application development will be used to provide a thorough understanding of mobile application design, with a particular emphasis on the various development stages of a semester-long team-based project. Students will create a mobile application with a specific end-user in mind. Examples include the use of smartphones for mHealth (mobile health) applications, location-based services, and/or the remote monitoring of critical infrastructure. The design process will have students identify their intended end-user, create schematics/wireframes based on user interviews, develop/debug/test their mobile application, integrate UI/UX design tools/techniques, as well as perform all necessary application evaluations and documentation. Finally, all teams will present their completed mobile applications in the culmination of this class.

CSE 40348 Emerging Interactive Technologies (3 Credit Hours)

This course offers instruction in developing cutting-edge interactive technologies, exploring the underlying engineering principles, and tracing their evolution over time. Students work in a studio format, dedicating extended periods to building both software and hardware prototypes. Topics include interactive technologies such as multi-touch, augmented reality, haptics, wearables, and shape-changing interfaces. Through a group project, students create their own interactive hardware/software prototypes and present them in a live demo at the end of the term.

CSE 40373 Embedded System Development (3 Credit Hours)

This course will focus on sophisticated embedded system development across avariety of platforms and hardware. Concepts to be covered include sensing, actuation, fault tolerance, networking, security, and timeliness with particular consideration to the challenges posed with embedded systems limitations including size, weight, power, and cost. Development will involve extensive use of C, Python, shell scripting, and network interactions with experience in C programming being essential. The class will culminate in a final project leveraging extensive use of the aforementioned concepts and development tools.

CSE 40424 Human Computer Interaction (3 Credit Hours)

You will engage in an in-depth exploration of the field of Human-Computer Interaction (HCI) including its history, goals, principles, methodologies, successes, failures, open problems, and emerging areas. Broad topics include theories of interaction (e.g., conceptual models, stages of execution, error analysis, constraints, memory by affordances), design methods (e.g., user-centered design, task analysis, prototyping tools), visual design principles (e.g., visual communication, digital typography, color, motion), evaluation techniques (e.g., heuristic evaluations, model-based evaluations), and emerging topics (e.g., affective computing, natural user interfaces, brain-computer interfaces).

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40431 Theory of Programming Languages (3 Credit Hours)

Introduction to the theory of programming languages. How to define programming languages using operational semantics and type systems, and how to prove things about them. Starting with the lambda calculus as a core, a simple programming language is built up, with higher-order functions and lexical scope; algebraic data types, polymorphic types, and type inference; state and control. Students will also gain experience with functional programming and writing interpreters.

CSE 40438 High-Frequency Trading Technologies (3 Credit Hours)

The purpose of this project-based course is to introduce students to the world of electronic, automated, and high-frequency trading. Participants will join a team in building the technical components of a modern trading system, acquire a vocabulary for discussing and understanding financial markets and trading strategies, and learn what it takes to win in this competitive field. Topics discussed include advanced networking, algorithms, high-speed capture and storage of data, the history of trading, and a taxonomy of trading strategies.

Prerequisites: CSE 20312 and ACMS 30440

CSE 40439 Game Development (3 Credit Hours)

This course introduces topics within game development to have students prototype, iterate, and present a final semester game project to their peers. These topics include emphasizing applied vector mathematics for all parts of game creation (interaction, audio, mechanics, and graphics), discussing the software behind game engines, numerical methods and coherency over discrete time, UX/UI/accessibility, and some advanced concepts in systems/software and performance/accuracy tradeoffs. The course will rely on the Godot Engine as well as the Unofficial OpenGL Math library for software development. Dev logs will rely on Obsidian notes. Students will be expected to plan their workflow, track and log jobs, and play a role as both an observer and tester for other student projects as they design and prototype their own games. The course should present new perspectives on the power of linear algebra, the importance of game testing, and how a systems perspective is important to performance and user experience.

CSE 40445 Hardware Platforms for Deep Learning and Optimization (3 Credit Hours)

Modern deep learning algorithms have revolutionized machine learning. However, the computational complexity of deep learning hinders practical and real-time execution of such algorithms on many resource-limited devices. This course will cover custom digital platforms, analog chips, compute-in-memory architectures and implementations, as well as algorithmic techniques aimed at tailoring machine learning to hardware implementations. The course will include one project which will build upon the concepts learned over the semester. Grades will be based on class presentations, a final project, and class participation. There is no final exam for this course.

CSE 40457 High-Level Synthesis (3 Credit Hours)

Goals: In this course we will study the hardware and software aspects of integrating heterogeneous components into a complete system; evaluating designs in a multi-objective optimization space; and designing new components that are reusable across different systems, product generations, and implementation platforms. Brief Description: Design and programming of System-on-Chip (SoC) platforms using high-level synthesis. Topics include: overview of technology and economic trends, methodologies and supporting CAD tools for system-level design and verification, software simulation and virtual platforms, FPGA prototyping, models of computation, the SystemC language, transaction-level modeling, hardware-software partitioning, memory organization, device drivers, on-chip communication architectures, power management and optimization, integration of programmable cores and specialized accelerators. Case studies of modern SoC platforms for various classes of applications.

CSE 40462 VLSI Circuit Design (3 Credit Hours)

CMOS devices and circuits, scaling and design rules, floor planning, data and control flow, synchronization and timing. Individual design projects.

Prerequisites: CSE 20221 or EE 20242

CSE 40522 Computer Engineering Capstone Design (4 Credit Hours)

This course provides a comprehensive team-based design experience of a selected digital electronic system. Projects involve design concept selection, development of specification, design, prototype implementation, and documentation. Group project management skills, including scheduling and project tracking are stressed. Project assessment includes external reviews.

Prerequisites: (CSE 30321 or CSE 34321) and EE 20234

CSE 40535 Computer Vision (3 Credit Hours)

The aim of Computer Vision is to give computers the ability to "understand" what they "see" in images and videos taken by one or more sensors (most often visible-light cameras). The goal of this course is to introduce and discuss methods for interpreting the visual information captured by machines to give them this ability. The course is divided into four parts. In the first part, we define the notion of computer vision, the progress made in this discipline in recent decades, current challenges, successful applications, and its limitations. We also discuss selected biological vision mechanisms as an inspiration to create better computer vision solutions. The second part explains the basics of signal processing from a computer vision perspective. This part includes image formation, image acquisition, understanding and effective use of color (and in general multi-wavelength) information, and image processing (filtering and segmentation). The third part focuses on the automatic recognition of patterns. It covers feature extraction and selection, texture descriptors, Bayesian inference, classification, and decision making. In this part, we will also discuss how these tasks can be solved using deep learning techniques, especially convolutional neural networks. Several meetings in this third part will be devoted to the reliability of modern deep learning-based, generative, and image-to-image translation models. Finally, the fourth part considers multiple-view and geometry topics in vision: motion analysis, including object tracking, projective geometry, camera geometric model, camera calibration, and 3D reconstruction. One meeting at the end of the semester will be devoted to the non-technical aspects of designing trustworthy and reliable computer vision (and AI in general) systems. After completing this course, students will be able to understand computer vision literature, recognize the frontiers of state-of-the-art computer vision systems, and select appropriate mathematical and software tools to develop algorithms solving the most important computer vision problems. Practical classes will utilize high-level programming languages (Python will be our main coding language) and popular computer vision tools and machine learning packages, such as OpenCV, Keras, Tensorflow, or Pytorch, to illustrate in practice selected topics discussed in class. The goal of the semester project is to exercise the entire computer vision pipeline on the selected vision problem. The most recent syllabus is available at https://adamczajka.com/teaching/computer-vision.

CSE 40536 Computer Vision II (3 Credit Hours)

The aim of Computer Vision is to give computers the ability to understand what they see in images and videos taken by one or more sensors (usually visible-light cameras). This course will be focused on advanced topics in computer vision, and specifically oriented around robotic vision. Completing Computer Vision I course, or prior skills and knowledge of basic computer vision topics and tools (confirmed by passing an entry test), is required to attend this class. This course is prepared jointly with our industrial partner (Amazon Robotics) and will encompass three main modules: (1) interactive class meetings discussing advanced and current topics in computer vision, (2) semester project focused on object detection and recognition in dense clutter, organized in a challenge/competition formula, and (3) pre- sentation of student solutions and selection of the competition winner. Class meetings will be organized around selected, current problems presented at the leading computer vision meetings, such as CVPR, ECCV, ICCV and WACV. Rather than regular lectures, these will be highly interactive sessions, focused on understanding both the challenges presented in the papers, as well as strengths and weaknesses of the proposed solutions. The semester project will solve an example, real-world problem proposed by Amazon Robotics and related to robotic vision. Students may be given an opportunity to present their final project solutions to the Amazon Robotics research team. After completing this course students will understand current top-level literature on computer vision, know seminal solutions to selected advanced challenges in vision-related tasks, and understand how to apply complex methods and tools in real-world problem of object identification.

Prerequisites: CSE 40535

CSE 40537 Biometrics (3 Credit Hours)

The aim of this course is to introduce the principles of automatic biometric authentication. The course will study those biometric modalities which have commercial implementations (such as fingerprints, face, iris, voice, finger veins, handwritten signatures), as well as emerging techniques (such as brain or thermal signals). We will discuss hopes, fears, limitations and strengths related to the presented modalities, including biometric data aging, "reverse engineering" of biometric templates or possibility to use biometrics in post-mortem forensic analysis. Important part of this course will be security of biometrics (in particular presentation attack detection) and secure biometric implementations. Where appropriate, current large-scale deployments of biometrics, such as NEXUS program or biometric passports, will be used as illustration of problems discussed in class. The course will also show how to apply statistics for biometric reliability evaluation in a mathematically elegant way. During five practical classes students will interface with up-to-date commercial biometric sensors and collect an authentic biometric data as well as spoofing samples used during homework. For instance, using various computer vision tools and software libraries students will build their own iris, fingerprint and signature recognition systems following real-world implementations of these modalities, additionally resistant to various attacks such as presenting irises printed on a paper or gummy fingers. Practical classes will utilize the software designed in MATLAB and C/C++.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40567 Computer Security (3 Credit Hours)

This course is a survey of topics in realm of computer security. This course will introduce the students to many contemporary topics in computer security ranging from PKIs (Public Key Infrastructures) to cyber-warfare to security ethics. Students will learn fundamental concepts of security that can be applied to many; traditional aspects of computer programming and computer systems design. The course will culminate in a research project where the student will have an opportunity to more fully investigate a topic related to the course.

Prerequisites: CSE 30331 or CSE 34331 or CSE 20312

Enrollment is limited to students with a program in Computer Engineering or Computer Science.

CSE 40600 CSE Service Projects (1-3 Credit Hours)

Engineering Projects in Community Service.

CSE 40601 Computing Service Projects - Community Engagement and Countering Systemic Bias (1 Credit Hour)

Computing systems unwittingly help enforce or reinforce systemic bias. In this course, students are taught how to examine bias in systems or make conscious design decisions that prevent bias that once coded will persist undetected in systems for a long time. In this course, we will be combining data analysis, data visualization, web development, software development tools and open government data to design, build and analyze systems that allow for civic engagement and explore data bias, systemic bias and social justice related issues in the local community or national community. This course will use Python as the primary language and will examine data in the following formats: csv, json, xml, data from apis, etc. Major themes: Data exploration Systemic Bias exploration Graphical User Interface design Community engagement Government open data Civic technology Python programming Data visualization Data analysis Social good

CSE 40622 Cryptography (3 Credit Hours)

Students will learn state-of-the-art applications of cryptography throughout the semester, and relevant theories (e.g., number & group theory, elliptic curves, cryptanalysis) will be presented in order to fully understand them. Topics include: partially homomorphic encryption, formal definitions of security, elliptic curves, fully homomorphic encryption, and theories of bitcoin on top of blockchain.

Prerequisites: CSE 20312 or CSE 30331

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40625 Machine Learning (3 Credit Hours)

This course on machine learning will give an overview of many concepts, learning theory, techniques, and algorithms in machine learning, such as in reinforcement learning, supervised learning, unsupervised and semi-supervised learning, genetic algorithms, including advanced methods such as sequential learning, active learning, support vector machines, graphical and relational models. The course will give the student the basic ideas and intuition behind modern machine learning methods as well as a bit more formal understanding of how, why, and when they work. The course will also include discussions on some of the recent applications, and the interface with computer vision, systems, bioinformatics, and architecture. The course will have a strong focus on project and assignments, with emphasis on writing implementations of learning algorithms.

Prerequisites: CSE 40647 or CSE 60647 or CSE 40171 or CSE 60171

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40647 Data Science (3 Credit Hours)

Data mining and machine learning techniques have been widely used in many domains. The focus of this course will primarily be on fundamental concepts and methods in data science, with relevant inclusions and references from probability, statistics, pattern recognition, databases, and information theory. The course will give students an opportunity to implement and experiment with some of the concepts (e.g., data processing, classification, clustering, causality), and also apply them to the real-world data sets.

Prerequisites: CSE 20312

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40655 Technical Concepts of Visual Effects I (3 Credit Hours)

This class seeks to introduce students to some basic concepts of computer-generated imagery as it is used in the field of visual effects, and to delve into some of the technical underpinnings of the field. While some focus will rely on artistic critique and evaluation, most of the emphasis of the class will be placed on understanding fundamental concepts of 3d modeling, texturing, lighting, rendering, and compositing. Those who excel in the visual effects industry are those who have both a strong aesthetic sense coupled with a solid understanding of what the software being used is doing "under the hood." This class, therefore, will seek to stress both aspects of the industry. From a methodology standpoint, the class will consist of lectures, several projects that will be worked on both in-class and out of class, scripting, many tutorials, and open discussion.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40657 Natural Language Processing (3 Credit Hours)

Computers process massive amounts of information every day in the form of human language. Although they do not understand it, they can learn how to do things like answer questions about it, or translate it into other languages. This course is a systematic introduction to the ideas that form the foundation of current language technologies and research into future language technologies.

Prerequisites: (CSE 30331 or CSE 34331) and CSE 20312

Enrollment is limited to students with a program in Computer Engineering or Computer Science.

CSE 40677 Open Source Software Development (3 Credit Hours)

Students will work as a team to construct a significant open source software product over the course of a semester. In addition to the software itself, students will develop the infrastructure necessary to sustain the software as part of an open source community, such as public web pages, documentation, discussion groups, bug tracking, and automated testing. Interested students should first form a small group of 4-6 students willing to work together, and then contact the instructor for permission to register.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40679 Microprocessor-Based Application Design and Implementation (3 Credit Hours)

Embedded application design for highly resource-constrained computer systems employing microprocessors. Hand optimization of software for performance under real-time constraints and with limited memory. I/O interfacing for human input and graphics displays. Team-based major project specification, design, implementation, and review. This class includes a semester project that satisfies the "Major Project" requirement for the B.S. in Computer Science degree. This project will be much larger in scope than a regular assignment and will require at least eight weeks to complete. Students will design the overall goals and requirements of the project with guidance from the instructor. The project will be developed gradually through the semester by producing a series of reports (proposal, design, progress, final, and review) as noted in the class schedule. The project will necessarily draw upon skills and knowledge from prior classes, including Programming Paradigms and Computer Architecture. The final deliverable of the project will be a working software system that will be evaluated for overall competence in computing skills.

CSE 40685 Machine Learning for Embedded Systems (3 Credit Hours)

This is a project-oriented course that focuses on practical techniques to deploy various machine learning frameworks and algorithms on resource constrained embedded systems. Throughout the semester, students will form teams to work on a project induced from real-world problems of interest, including but not limited to natural language processing, autonomous vehicles and mobile/implantable healthcare devices. Students will be able to choose from a wide range of hardware platforms including microcontrollers, mobile CPUs, edge GPUs and/or FPGAs. In addition to gaining project experience, students will also be able to learn about state-of-the-art on trustworthiness and security of edge intelligence, hardware-aware machine learning, hardware and neural architecture co-design, etc. The course is intended for students who are interested in the application of machine learning in real-world problems.

CSE 40693 Modern Web Development (3 Credit Hours)

This course will focus on topics of modern web app development such as: MVC vs Component-based app architecture, RESTful API development, database schema design, interfacing with third-party APIs and more. In addition, many common JavaScript paradigms will be covered including asynchronous programming patterns, object-oriented JavaScript with classes, and unit testing. Discussions of engineering trade-offs will be complemented by projects in which students will develop their own web apps. These techniques are used by companies such as Groupon, Airbnb, Netflix, Medium and PayPal which have all adopted a full stack JavaScript approach, and are very useful to those interested in smaller tech startups as well.

CSE 40728 System Design and Implementation of Small Autonomous Vehicles (3 Credit Hours)

This course provides students with a comprehensive introduction to cyber-physical systems (CPS) using autonomous vehicles as the application. We will cover essential topics including basic control theory, ROS2 (Robot Operating System), planning, and computer vision. Through a combination of lectures and hands-on labs, students will gain practical skills and knowledge in designing and implementing autonomous CPS. Concepts from all of the assignments and labs will culminate into a final project with a demo on the 1/10th sized autonomous vehicle. The course will involve programming in a Linux and Python environment with ROS2 for interfacing with the vehicle.

Prerequisites: CSE 20312

CSE 40739 Advanced Game Development (3 Credit Hours)

This class extends the Game Development course, focusing on advanced techniques, heuristics, and optimizations to better understand the tools of a Game Engine and the cutting-edge of game development. The course covers the inner workings of modules in game engines enabling students to program and implement their own interactive tools. These topics will include effective practices in CPU vs GPU utilization to avoid unnecessary execution costs affecting frametime performance. Students will work simultaneously on extending premade tools to implement advanced videogame features as well as a semester project which they will present to the class – a game engine, a playable game, or both.

Prerequisites: CSE 40439 or CSE 40232

CSE 40744 Special Topics in Machine Learning and Data Visualization (3 Credit Hours)

This seminar course is for graduate students interested in machine learning (ML) and data visualization (VIS). ML+VIS has emerged as the most vibrant direction in visualization research. ML+VIS encompasses two primary branches: ML4VIS (i.e., designing ML solutions for solving VIS problems) and VIS4ML (i.e., applying VIS techniques for explainable ML). The topics include representation learning, data generation, data reconstruction, visualization generation for ML4VIS, interpretation of the inner workings of neural networks, network model debugging, improvement, comparison, and selection for VIS4ML. This course is also suitable for students interested in research areas beyond VIS, such as medical imaging, computer vision, and human-computer interaction. Students will read and present relevant scientific papers and complete a related class project.

Enrollment is limited to students with a program in Computer Engineering, Computer Science or Computer Science & Engineering.

CSE 40746 Advanced Database Projects (3 Credit Hours)

Advanced topics in database concepts; the course's main goal is a major final project, where groups will compete for prizes and awards.

Prerequisites: CSE 30246

CSE 40748 Human-AI Collaborative Systems (3 Credit Hours)

This course provides an introduction to the design, development, and evaluation of interactive software systems that facilitate effective collaborations between human users and artificial intelligence (AI). As a student in this class, you will form project groups that build interactive technologies powered by the latest machine learning (ML) technologies (e.g., Large Language Models like GPT-4) to address real-world user challenges in specific application scenarios. There are several milestones throughout the semester towards the final project.

Enrollment is limited to students with a program in Computer Engineering, Computer Science or Computer Science & Engineering.

CSE 40762 Digital Integrated Circuits 2 (3 Credit Hours)

This follow-on course focuses on the design and implementation of digital integrated circuits using FinFET technology. Students will engage in a project-based learning experience, designing a simple RISC-V processor by midterm and customizing it through adding an accelerator to it for their final project. The course covers advanced topics such as high-performance adders, multipliers, bit-serial computation, and prepares students for the complete IC design flow culminating in a tapeout. Students will learn techniques for designing, testing, and implementing different functional blocks that make up an application specific circuit. Building upon the design exercises introduced over the semester, students will then implement high-level design techniques and optimizations for their blocks within a larger chip. The lectures will be formal presentations of course material with design examples as well as design reviews of student designs. Several guest lectures will be included from industry leaders.

Prerequisites: CSE 30342 or CSE 40462

CSE 40770 Secure Software Engineering (3 Credit Hours)

Software security is a growing concern, leading to the increasing adoption of a secure software engineering practices. In light of these needs, this course covers core concepts & practices employed throughout the software development lifecycle in order to build secure software systems. This course will discuss the following topics: security principles, software weaknesses & vulnerabilities, misuse & abuse cases, risk assessment, threat modeling, secure (defensive) coding practices, vulnerability assessment using CVSS, code inspections (for security), and techniques for automated vulnerability detection (fuzzing, static and dynamic analysis). This course will also include case studies of software weaknesses (vulnerabilities) that occurred in real software systems. It will also cover the current state-of-the-art in software security research aimed at helping engineering secure software systems.

CSE 40771 Distributed Systems (3 Credit Hours)

A distributed system is any system of independent computers that communicate and cooperate via a newtork. Distributed systems are widely used in many settings spanning cloud services, mobile computers, internet of things, machine learning systems, interplanetary communications, and more. This course will introduce students to the fundamental properties of distributed systems, and develop techniques for building systems that are reliable, consistent, and scalable. Topics will include remote procedure call, logging and checkpointing, replication, consistency, fault tolerance, security and privacy, and more. The course will include a substantial amount of programming to build several working distributed systems that implement scalable data storage, large scale computation, and reliable communication. A course project is required. Graduate students enrolled in 60771 will additional study foundational papers in the field on these topics.

CSE 40773 Software Development for Autonomous Unmanned Vehicles (3 Credit Hours)

This is a software engineering class in which students will be exposed to development practices as they design, develop, test, and deploy drone-based software applications. Students will be exposed to fundamental Robot Operating System (ROS) concepts to write programs for controlling unmanned ground vehicles (UGVs). Topics covered will include path planning, onboard vision, and multi-drone collaboration. The course will include a series of assignments culminating in a team project.

Prerequisites: CSE 30331 or CSE 34331 or CSE 20312

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40777 Technical Concepts of Visual Effects II (3 Credit Hours)

This course is for students who wish to dive deeper into realistic visual effects. Students will learn how to build complex 3D simulations using procedural node-based workflows to create elements like fire and water, destruction and debris fields, as well as some video editing and node-based compositing of 3D elements over live video. The course will consist of class lessons and projects.

CSE 40793 Principles and Practices of Software Development (3 Credit Hours)

Principles, techniques, practices, and tools for modeling, designing, implementating, and testing medium to large-scale software systems. Topics covered include design patterns, architectural styles and tactics for improving performance, extensibility, maintainability, and reliability of software systems. The course will include several short, remote talks by practicing Software Engineers.

Enrollment is limited to students with a program in Computer Engineering or Computer Science.

CSE 40814 Mobile Computing (3 Credit Hours)

This course looks at the intersection between mobile computing, mobile telephony, and wireless networking, addressing the unique network protocol challenges and opportunities presented in these fields. While some of the more important physical layer properties of radio communications will be touched, the focus will be on network protocols above the physical layer, particularly media access control, transport protocols, and routing. The course will be project-oriented, giving students an opportunity to work with state-of-the-art mobile computing technology, including cell phone programming, location-aware systems using GPS, and emerging network protocols and applications.

Prerequisites: CSE 30331 or CSE 34331

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40816 Smart Health (3 Credit Hours)

The current healthcare system faces numerous challenges such as large cost, lack of preventive care, massive increases in chronic disease conditions and age-related illnesses, widespread obesity, poor adherence to medical regimens, and shortage of healthcare professionals. The concept of pervasive healthcare promises to provide care to anyone, at anytime, and anywhere, while increasing the coverage, quality, and efficiency of healthcare. This course studies how mobile and wireless technologies can be used to implement this vision of future healthcare. Topics include prevention techniques, continuous health monitoring, wireless and mobile technologies and standards for medical devices, personalized healthcare, body area networks, implantable devices, smartphone-based healthcare solutions, intelligent emergency management systems, pervasive healthcare data access, personal and electronic medical record systems, mobile telemedicine, context-awareness, and case studies of pervasive solutions for various health conditions and challenges.

CSE 40822 Cloud Computing (3 Credit Hours)

This course introduces fundamentals and applications of cloud computing intended primarily for computer science and computer engineering majors. Core concepts of virtualization, cloud infrastructure components, and cloud services will be covered. Specific areas of discussion include virtual machine performance, cloud management interfaces, network and storage infrastructure, IaaS, PaaS, SaaS, QoS, Cloud Security, and hybrid cloud models. Students will have the opportunity to apply their understanding of cloud infrastructure in practice through course projects with access to both campus and commercial cloud services.

CSE 40838 Data Visualization (3 Credit Hours)

Introduction to scientific and information visualization. Topics include visualization of scalar and vector fields (isosurface extraction, volume rendering, line integral convolution, and particle tracing); visual data representations (parallel coordinates, treemaps, and graph layouts); interactive techniques (focus+context visualization and coordinated multiple views); and solutions for big data visual analytics. Students will gain hands-on experiences in learning popular visualization programming (D3.js) and toolkit (ParaView). Students will have the opportunity to learn, implement, and apply visualization techniques through assignments and projects.

Enrollment is limited to students with a program in Computer Engineering or Computer Science.

CSE 40842 Hackers in the Bazaar (3 Credit Hours)

This a CSE elective course that explores the idea of a "hacker" and the practice of participating in the open source "bazaar". To examine the sociology of hackers, we will read, discuss, and reflect on books such as "Hackers and Painters", "The Cathedral and the Bazaar", and "Hackers: Heroes of the Computer Revolution". Additionally, students will apply the ideas and concepts explored in these books by contributing to different open source projects. Finally, students will develop a project of their own design by employing the open source development methodology.

Prerequisites: CSE 30331 or CSE 34331

CSE 40868 Neural Networks (3 Credit Hours)

Neural networks are computer models inspired by our understanding of how human brain learns and processes an acquired information. This introductory course will guide you through different neural architectures suitable for various applications. We will start with bio-inspired modeling of neurons (inputs, activation function) and discuss how to use them to build artificial networks (connections, layers). The course will present structures used in supervised learning, that is static networks (Rosenblatt perceptron, Adaline, multi-layer perceptron, radial networks, deep networks including recently popular convolutional nets) and dynamic networks (recurrent networks, associative memory, Hopfield's and Boltzman's machines). Next the networks used in unsupervised learning will be discussed, such as self-organizing maps, Kohonen's networks and structures based on adaptive resonance theory (ART). The course will show how to efficiently apply different types of artificial neural networks in approximation and classification tasks and dynamic systems. We will discuss appropriate learning strategies for each of these applications and their details, such as gradient estimation and minimization techniques. Semester projects will be focused on solving real classification tasks related to computer vision area and with the use of up-to-date neural network software.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40874 AI and Social Good (3 Credit Hours)

To reap the benefits of innovations stemming from AI, there will also have to be a framework that demonstrates alignment with societal needs and grand challenge problems, algorithmic and data responsibility, and knowledge of and compliance with best practices, coupled with a human- driven value system of sound judgment. This course will provide a foundation for Artificial Intelligence on concepts in machine learning and deep learning, decision making, and agents. In addition, the course will incorporate a discussion on ethics through reviews, discussions, and invited speakers. Utilizing an experiential learning framework, this course will involve applications of AI methods to social good problem spaces through a class project. This course will be a mix of lectures, seminars, and experiential learning opportunities. The course is open to both senior undergraduate and graduate students. However, it is an expectation that the graduate students will have additional set of assignments, including a literature review paper. The graduate students will be encouraged to incorporate their research interests, as applicable, in development of their class projects.

CSE 40883 Robotics Studio (3 Credit Hours)

This course will guide students through the construction of a student designed, full motion, mid-size droid/robot. As part of the class, students will design and construct a robot using 3D printing, CAD, motion control systems, electrical circuits, sound systems, lighting systems, sensors, various communication protocols (serial, I2C, and Bluetooth), and Python programming on a Raspberry Pi. Students can build the robot as a team of two or as an individual project. The class provides an extensive build kit containing various components, materials, and tools for the project. During the final demonstration, the robot will complete various challenge courses and demonstrate unique character routines to fully demonstrate the final robot build.

Enrollment is limited to students with a program in Computer Engineering or Computer Science.

CSE 40884 Network Science (3 Credit Hours)

Networks are everywhere! Networks (graphs) can be used to elegantly model and analyze real-world phenomena in various domains. Examples are the Internet, Facebook, cell phone communications, airline routes, stock markets, disease spread, brain, molecular interactions between genes/proteins in a cell etc. Networks are important! For example, both graphite and diamond are composed of carbon atoms, but what gives them different properties (graphite being soft and dark, diamond being hard and clear) is the connections (links) between the atoms, i.e., the network. So, what is network science about? This interdisciplinary course will introduce students to the different types of real-world networks. Also, the course will introduce state-of-the-art computational approaches for network analysis. Because of the increasing complexity of the real-world network data, in order to analyze the networks efficiently, these approaches will span many fields, e.g., algorithms, graph theory, data mining, machine learning, pattern recognition, information theory, big data, probability and statistics, and visualization. Vibrant network science topics that will be explored include: network properties and measures of network structure, network modeling, network evolution (i.e., dynamic network analysis), link prediction, community detection (i.e., clustering), network comparison and alignment, network integration (i.e., heterogeneous network analysis), and network visualization. While the course will encompass traditional course activities (lectures, homeworks, and exams), the focus will be on getting practical hands-on experience in analyzing real-world network data through a course project, reading latest research papers on network science and its real-life applications in a variety of domains, and active in-class discussion of the papers

CSE 40910 Topics in Mathematical Logic (3 Credit Hours)

Mathematical proofs are the cornerstone of truth. Proofs verify medical devices and spacecraft work properly. They help establish guilt or innocence. The theme of this class is to explore the notion of proof with certain logical systems with the motivation of understanding mathematical proofs or reasoning. We will study proofs in extended syllogistic logics, propositional logic, other logical systems close to natural language, and first-order logic. We will show some of these systems are complete (every true statement is provable) and decidable (there is an algorithm for deciding truth) and others are not. We will explore what this means. Along the way we will hopefully learn more about how people reason.

CSE 40923 Case Studies in Computing-Based Entrepreneurship (3 Credit Hours)

The purpose of this course is to Inform, Introduce and (hopefully) Inspire you. You will become Informed about computing-based entrepreneurship case studies across a wide variety of areas: computer software, computer hardware, healthcare technologies, databases, web services, data analytics and more. You will also become Informed about different aspects of the entrepreneurship challenge. You will be Introduced to guest speakers who are, or who have been, principals in developing technology, founding companies, running companies, selecting technologies for venture capital investment, etc. As a result, you will hopefully be Inspired to consider pursuing computing-based entrepreneurship opportunity.

Enrollment is limited to students with a major in Computer Engineering or Computer Science.

CSE 40932 Exotic Computing (3 Credit Hours)

For the last 80 years computation has been inexorably intertwined with the von Neumann model of computing: a pre-specified sequential step-by-step application of relatively small operators to small pieces of named data. However, the daily headlines about AL and machine learning, quantum and neuromorphic, DNA and optical computing, are making it clear that there are alternatives. The goal of this course is to summarize in a somewhat standardized fashion and with standard terminology a hopefully large cross-section of both the computing models of today, and the newer computing models that we may encounter in the near future. A big part of this is thus to step back and ask over and over again "What do we really mean by computing?" The emphasis is not on programming languages or architectures, but on the underlying way in which computation is carried out, usually expressed mathematically, and done in a way that allows a comparison to the power of the von Neumann model. Topics at a minimum include lambda calculus, cellular automata, Petri nets, logic-based, reversible, neuromorphic, DNA-based, and quantum, with other topics added as driven by time and class interest.

CSE 40937 In-Memory Computing (3 Credit Hours)

This course is intended for senior undergraduate and graduate students who are interested in (i) designing efficient algorithms and software running on platforms beyond traditional multicore CPUs, and/or (ii) developing systems to accelerate popular applications such as machine learning and autonomous systems. It introduces recent and emerging hardware platforms that are typically based on nontraditional computing models, architectures, and technologies. The course specifically focuses on how demanding applications such as data analytics, artificial intelligence and graph processing can best benefit from such hardware platforms. Some example hardware platforms to be discussed include graphics processing units (GPUs), domain-specific accelerators based on near- and in-memory computing, neuromorphic computing engines based on CMOS as well as ferroelectric, magnetic and photonic devices, etc. The course emphasizes the cross-layer design practice in which unique properties of applications, algorithms, architectures, circuits and devices are identified and exploited.

CSE 40947 Cross-Layer Design for CMOS and Beyond-CMOS Technologies (3 Credit Hours)

As Moore's Law based device scaling and accompanying performance scaling trends are slowing down, it is increasingly challenging for von Neumann architectures and traditional digital processing to meet the performance and energy targets for many demanding applications such as training large neural networks and extract information from huge amount of multi-modality data (image, video and audio, etc.). Emerging CMOS and beyond CMOS technologies are being actively investigated by both industry and academia.This course exposes students to the state-of-the-art advances in design techniques for employing CMOS and beyond-CMOS technologies in compute/data-intensive applications especially from the machine learning and big data areas. It focuses on identifying/modeling unique features of algorithms, architectures, circuits and devices and exploiting these features to improve overall application-level performance. Special attention will be given to addressing challenges including accuracy, energy, memory requirement, process variation, limited precision, and reliability. Some example technologies considered include deep submicron CMOS, resistive RAM, spintronics and ferroelectrics.

CSE 40963 Theory of Neural Networks (3 Credit Hours)

Introduction to the theory of neural networks: expressivity (what functions a neural network can and cannot compute) and trainability (what functions a neural network can and cannot learn). Neural network architectures covered will include feed-forward, recurrent, convolutional and attention (transformer) neural networks.

CSE 40982 Interactive Dialogue Systems (3 Credit Hours)

An introduction to virtual agents and other dialogue systems. Virtual agents such as Siri, Cortana, and Alexa have made major inroads towards automating everyday tasks. Hotel booking, fact finding, entertainment recommendations, food delivery orders, etc., are now possible to automate. Students will learn the theoretical foundations of these systems as well as practical considerations through a lecture series and programming assignments.

CSE 40986 Low Vision Mentorship Project (1 Credit Hour)

In this course, Notre Dame students will be paired with students at the Illinois School for the Visually Impaired (ISVI) who are learning computer programming. ND students will work with the ISVI students to teach computer science, as well as to learn about the barriers to entry faced by low vision students to technology careers. Mentorship activities will be directed and supervised by ND faculty, and course/grade objectives align with outcomes for the ISVI students.

CSE 44113 Algorithms (3-4 Credit Hours)

Techniques for designing algorithms, proving their correctness, and analyzing their running times. Topics covered include: sorting, selection, heaps, balanced search trees, divide-and-conquer, greedy algorithms, dynamic programming, and graph algorithms. DU - Dublin City University The aim of this module is to develop the student's theoretical knowledge and practical implementation skills in data structures and algorithms. Students will develop an understanding of a range of abstract data types (arrays, sets, lists, stacks, queues, trees, graphs) and algorithms (searching, sorting, tree and graph traversals, computational methods) and gain practical experience in their implementation using C++.

CSE 44166 Introduction to Graphics (3,4 Credit Hours)

This course includes topics such as the visualization process, geometric representation of objects, 3D vision models, lighting and shading models, and the visual appearance of objects. (DU) Theoretical and technical introduction to the fundamentals of image processing and computer graphics. Starting from the first principles, we will cover topics of image formation and manipulation including point operations, histograms and morphological image processing. Further, we will focus on essentials of computer graphics and the basic implementation in Python. PA This unit teaches the fundamentals of computer-generated three-dimensional graphics and animation for applications, including creating interactive virtual environments.

CSE 44171 Intro to AI (3-4 Credit Hours)

This course provides an introduction of artificial intelligence. Topics covered include knowledge representation, search, game playing, deductive reasoning, reasoning under uncertainty, planning, learning, and philosophical foundations.

CSE 44373 Embedded Development System (3 Credit Hours)

This module deals with the design and implementation of embedded systems, involving a processor, software (or firmware) and other hardware. Topics include architectures and interfacing of typical processors, programming in C and assembly language to interact with hardware in real time, design and verification of systems involving a mix of hardware and software. The module will have an emphasis on problem-based learning. Design assignments will require significant time during the trimester, and will involve working in a team and collaborating with others. Assessment of these assignments will be largely based on written reports, supplemented by interview where necessary.

CSE 44424 Human Computer Interaction (3-4 Credit Hours)

In this course, students will learn the factors, techniques, tools and theories of systems with which humans interact and engage. Students will research and evaluate systems with which humans interact and engage through the web or other medium in a dissimilar way. This course will cover areas such accessibility [to include disabled and other people], information visualisation, user centred methodologies, digital business interaction, user interaction security, multi-modal interfaces, human factors, and human computer interaction. AS - St. Andrews, Scotland This module covers the main aspects of Human Computer Interaction. Design guidelines, structured design methods and standards are studied, and practice is given in implementation and evaluation. Students gain experience of current interactive audio, visual and manipulative technologies.

CSE 44439 Game Development (3 Credit Hours)

The module will provide an introduction to the essentials of computer game development.

CSE 44535 Computer Vision (3-5 Credit Hours)

This course provides an introduction to computer vision including history of vision techniques, fundamentals of image formation, image processing, and feature detection and matching. We'll develop basic methods for applications that include semantic segmentation for scene understanding, video-based object tracking for motion estimation, human pose estimation from images and image matching for cross-camera object re-identification. The focus of the course is to develop the intuitions and mathematics of the methods in lecture, and then to learn about the difference between theory and practice in the projects.

CSE 44567 Computer Security (3 Credit Hours)

CSE 44625 Machine Learning (3-5 Credit Hours)

This module covers the core topics that dominate machine learning research: classification, clustering and reinforcement learning. We describe a variety of classification algorithms (e.g. Neural Networks, Decision Trees and Learning Classifier Systems) and clustering algorithms (e.g. k-NN and PAM) and discuss the practical implications of their application to real world problems. We then introduce reinforcement learning and the Q-learning problem and describe its application to control problems such as maze solving. DU - Dublin City University This course will cover introductory topics and conventional algorithms needed to understand the field of Machine Learning. The course will prepare students to understand and distinguish between main groups of methods used in Machine Learning, supervised and unsupervised, and how and when they are applicable. Key topics will include Regression, Decision Trees, Naive Bayes, Neural Networks, Clustering and Principal Component Analysis.

CSE 44637 Data Mining (3 Credit Hours)

The course is structured in such a way as to present important concepts of data mining and how these concepts are implemented and used in real-world applications. The key idea behind this course is to integrate the theory and practice of data mining with many references to real-world problems and cases to illustrate the concepts and the implementation issues as we go through the lectures. The first chapter is devoted to a brief introduction to some background information needed to understand the material. This is followed by data warehouse topic and how different is from database concept. The notion of data mining process is explained and how it relates to the complete KDD process, as it is very important to understand that data mining is not an isolated subject. We will then overview a survey of some techniques used to implement data mining algorithms. We will follow by studying some core topics of data mining; classification ,clustering, and association rules. Other concepts, such as prediction, regression , and pattern matching, will also be covered, but viewed as special cases of the three core topics. In each concept we will only concentrate on the most popular techniques and algorithms.

CSE 44648 Data Science (3 Credit Hours)

Enrollment is limited to students with a major in Applied & Comp Math and Stats, Computer Engineering or Computer Science.

CSE 44693 Web Development (3 Credit Hours)

Web Technologies play a central role in many aspects of daily life and are a core enabler in many industries. At their core, such systems typically expose some underlying content (often stored in a database) in a contextual way to external/internal clients via a web interface. This can range from online shops, such as Amazon) to social media platforms (Facebook/ Linkedin), customer support frameworks (Zendesk), or online streaming platforms (Netflix/Youtube).

CSE 44694 Modern Web and App Dev (3 Credit Hours)

Today's student lives in an exciting time when one no longer requires a large team of engineers to launch a website or app. A single person with a great idea and grit can bring a product to market, raise awareness around an issue, begin selling online, and communicate visually at scale. This course will focus on topics of modern website and application development. We will begin by exploring static web site design and development utilizing contemporary design trends and modern technologies. We will then focus on creating dynamic web applications. During this course, students will take an idea for a web app and develop it into a working prototype. Students will then progressively add features to their applications while focusing on various engineering challenges that occur in production. They will become proficient in HTML, CSS, and JavaScript. These techniques are used by companies such as Airbnb, Netflix, Medium and PayPal which have all adopted a full stack JavaScript approach, and are very useful to those interested in smaller tech startups as well as tech giants such as Facebook and Google.

CSE 44755 Parallel Programming (3 Credit Hours)

A deep dive into concurrency in code, studied through various Java and C libraries.

CSE 44822 Cloud Computing (3 Credit Hours)

Nowadays Cloud Computing is everywhere. Cloud Computing (CC) is not a revolution of Information technology (IT), but It is one of the key evolution steps of IT. It provides computing as a utility, which has recently emerged as a commercial reality. The main characteristics of CC are 1) the illusion of infinite computing and storage resources, 2) the ability to pay-as-you-use, and 3) the elimination of an up-front commitment by Cloud users. In other words, CC is a style of computing in which can be scaled dynamically and virtualised resources are provided as a service over the Network. The key idea behind this course is to provide fundamental CC topics taking into account both technology and business considerations. The course is divided into a series of lectures, each of which is accompanied by one or more hands-on exercises. Among the topics that will be covered in this course are: Fundamental CC terminology and concepts CC definition an its specific characteristics Benefits, Challenges and Risks of CC platforms and Services Roles of CC administrator and owners SaaS, PaaS, and IaaS delivery models and their combinations Various Public, Private, and hybrid CC environments Business Cost models and Service Level Agreements for CC Case Studies: Google Cloud, Microsoft Cloud, and Amazon Cloud

CSE 44849 Video Game Design (3 Credit Hours)

- History and evolution of video games and digital effects in the entertainment industry. - Taxonomy of videogames: space of representation, type of interaction, platform, number of players and objectives. - Design and production of a video game. - Programming of a videogame: equipment and processes, programming languages, game architecture - Simulation: physics, collisions, behavior, roads, spatial data structures - Graphics: 3D modeling of characters and environment, HUD, textures, lighting, special effects. - Audio: programming and integration in the game. - Artificial intelligence and video games - Animation: character animation, environment animation, camera movement. - Network and multiplayer games. - Video game engines: scene graphic architecture, graphic process phases, graphic path, most important engines and their characteristics - Development platforms: desktop, web, consoles, mobiles - Business models in video games

CSE 44932 Exotic Computing (3 Credit Hours)

For the last 80 years computation has been inexorably intertwined with the von Neumann model of computing: a pre-specified sequential step-by-step application of relatively small operators to small pieces of named data. However, the daily headlines about AL and machine learning, quantum and neuromorphic, DNA and optical computing, are making it clear that there are alternatives. The goal of this course is to summarize in a somewhat standardized fashion and with standard terminology a hopefully large cross-section of both the computing models of today, and the newer computing models that we may encounter in the near future. A big part of this is thus to step back and ask over and over again ?What do we really mean by computing?? The emphasis is not on programming languages or architectures, but on the underlying way in which computation is carried out, usually expressed mathematically, and done in a way that allows a comparison to the power of the von Neumann model. Topics at a minimum include lambda calculus, cellular automata, Petri nets, logic-based, reversible, neuromorphic, DNA-based, and quantum, with other topics added as driven by time and class interest.

CSE 44999 Special Studies (3-5 Credit Hours)

Special studies course while abroad.

CSE 46101 Directed Readings (1-3 Credit Hours)

This course consists of directed readings in Computer Science Engineering.

CSE 48423 iTREDS Capstone Experience (1 Credit Hour)

1-credit research for students in the iTreds program

CSE 48523 iTREDS Capstone Experience 2 (1 Credit Hour)

2nd capstone experience course for iTreds students

CSE 48623 iTREDS Capstone Experience 3 (2 Credit Hours)

3rd capstone experience course for iTreds students ( the sequence - once steady state is reached - will be CSE 48423, 48523, 48623 (resp. 1, 1, 2 credits) )

CSE 48901 Undergraduate Research (1-4 Credit Hours)

A research project at the undergraduate level under the supervision of a CSE faculty member.

Course may be repeated.

CSE 48999 Research Experience for Undergraduates (0 Credit Hours)

This is a zero-credit, ungraded course for students engaged in independent research or working on a special project with a faculty member or a member of the University staff. It is taken as an indication of the student's status. No coursework is required.