Digital Systems
Regular undergraduate teaching at UFSC in Computer Science and Electronic Engineering, connected to logic design, computer organization, hardware description, and the conceptual foundations of digital computation.
Teaching
Computer systems education with modeling, architecture, and biological computation.
This page summarizes current and historical teaching areas from UFSC, IFSC, and UNIVALI. Course codes are intentionally omitted, but the discipline names reflect the reviewed curriculum record.
Courses and topics
Teaching areas
A compact representation of recurring and historical teaching areas, without inventing course codes or semester-specific details.
Operating Systems
Systems-level teaching at UFSC, UNIVALI, and IFSC involving abstractions, resource management, concurrency, scheduling, embedded systems, and the relation between software and hardware platforms.
Modeling and Simulation of Systems
Regular UFSC teaching area since 2018, treating modeling and simulation as an engineering and scientific method across discrete-event models, stochastic processes, simulation experiments, and complex systems.
Biological Computation and Computational Biology
UFSC teaching area since 2020, preceded by topics in synthetic biology and bioinformatics, focused on computational perspectives on biological systems and the use of modeling and simulation to reason about living systems.
Architecture and Organization of Computers
Historical teaching area at UFSC and UNIVALI spanning processors, memory hierarchy, instruction-level concepts, hardware/software interaction, and system-level reasoning.
Embedded Systems, Microcontrollers, and Cyber-Physical Systems
Historical and research-connected teaching area involving embedded platforms, hardware/software integration, microcontrollers, real-time behavior, data communication, and application-directed system design.
Numerical Computing, Statistics, Networks, and Applied Software
Additional undergraduate teaching includes numerical computing, applied statistics, computer networks, object-oriented development, introductory computing, and applied software systems.
AI-assisted scientific software development
Future teaching and support materials may cover responsible use of AI for scientific programming, documentation, simulation workflows, research automation, and software verification practices.
Disciplines taught
Selected courses already taught
A compact list of recurring and historical disciplines, grouped to avoid turning the page into a semester-by-semester transcript.
Method
Teaching principles
The teaching layer of the site should communicate how the subjects are approached, not only which subjects exist.
Abstraction levels first
Courses should make explicit how problems move between digital logic, architecture, operating systems, simulation models, software artifacts, and scientific interpretation.
Executable knowledge
Students are encouraged to produce code, models, experiments, documentation, and repositories that can be inspected, reproduced, and improved.
Responsible AI use
AI tools may accelerate programming and literature workflows, but results must remain attributable, testable, explainable, and scientifically defensible.
Teaching context
What the teaching profile emphasizes
This public page summarizes recurring teaching axes and future material directions without publishing semester-specific course administration.
Computer systems as a vertical stack
Teaching is organized around abstraction levels: digital logic, computer organization, operating systems, simulation models, software infrastructure, and system-level reasoning.
- Digital Systems and Computer Architecture provide the hardware foundation.
- Operating Systems and embedded systems expose resource management and runtime behavior.
- Modeling and Simulation connects theory, experiments, software, and complex systems.
Biological computation as advanced computing education
Biological Computation and Computational Biology are treated as computational subjects: representation, models, simulation, information processing, and conceptual architecture across substrates.
- No biology protocols or genetic engineering procedures are taught through this public website.
- The emphasis is computational modeling, abstraction, and responsible scientific interpretation.
- The material can later support bilingual notes, reading paths, and simulation-based assignments.
Software practice, AI assistance, and reproducibility
Future teaching material can connect systems courses to modern engineering practice: version control, testing, documentation, reproducible builds, AI-assisted programming, and deployment of research software.
- Useful for undergraduate projects, extension systems, and scientific prototypes.
- Can support public tutorials without exposing private course administration.
- Course codes and semester-specific details remain placeholders until explicitly provided.
Materials
Future teaching materials
Prepared content structure
The site is ready to receive syllabi, reading lists, exercises, simulators, software repositories, slide links, laboratory descriptions, and selected notes. The first version avoids publishing unverified or incomplete teaching material.
Pedagogical direction
Teaching content should emphasize systems thinking, reproducible software artifacts, abstraction levels, rigorous modeling, and responsible use of AI in technical and scientific work.