Computer Organization and Computer Architecture
Move from Boolean circuits to the CPU, memory hierarchy, instruction execution and input/output organisation.
Connect digital logic, processor organisation, mathematics, physical science and modern digital systems into one coherent systems-level foundation.
The Major follows the university curriculum. Mathematics Minor, Physical Sciences MDC and Digital and Technological Solutions VAC are department-confirmed selections. The SEC allocation is awaiting confirmation.
Each block has a distinct role: hardware structure, mathematical method, scientific breadth, digital citizenship and a pending skill course.
Move from Boolean circuits to the CPU, memory hierarchy, instruction execution and input/output organisation.
Develop the mathematical language needed for change, modelling, fields and physical systems.
A broad introduction to matter, energy, waves, electricity, optics, the solar system and essential chemistry.
Understand ICT, cyber security, e-governance and digital financial tools in practical civic life.
The course title and syllabus will be updated following formal confirmation.
A suggested learning sequence, separate from the official syllabus. A week may be marked complete when its outcome can be explained without notes.
Revise bases, complements, Boolean algebra and the physical meaning of bits.
Simplify functions and implement combinational circuits in SOP and POS forms.
Explain flip-flops, registers, counters and the transition from logic to memory.
Practise higher derivatives, Taylor expansions and first-order differential equations.
Follow fetch, decode and execute through registers, control and the ALU.
Compare main memory, cache and virtual memory using access-time diagrams.
Connect networks, cyber security, e-governance and digital payments to real tasks.
Create one systems map linking logic, CPU, memory, I/O, mathematics and physical science.
A compact view of the official modules. The full accordions support lecture, note and revision planning.
Boolean algebra, combinational and sequential circuits, number systems, codes and computer arithmetic.
Hierarchy, cache, virtual memory, registers, instruction formats, addressing modes, control, RISC/CISC and pipelining.
Buses, programmed and interrupt-driven transfer, DMA, logic-gate verification, multiplexers, adders and counters.
Draw and explain a complete instruction path and implement a four-bit logic circuit in the laboratory.
Higher derivatives, Leibniz rule, Taylor and Maclaurin expansions, partial derivatives, homogeneous functions, reduction formulae, rectification and quadrature.
Exact and linear equations, integrating factors, Clairaut’s form and second-order linear equations with constant coefficients.
Vector-valued functions, gradient, divergence and curl.
Matter, energy, waves, properties of matter, electricity, magnetism, electronics, optics and the solar system.
Symbols and formulae, ideal gas, acid–base theories, ammonia manufacture and everyday chemical compounds.
Computer systems, software, operating systems, communication, networks, internet services and e-commerce.
Cyber safeguards, laws, e-governance, GIS, smart devices and business-process re-engineering.
UPI, AEPS, USSD, cards, internet banking, NEFT and RTGS.
The course title, code and syllabus have not been supplied or confirmed. This roadmap will not invent them.
Course content follows the SKBU syllabus records. Obvious punctuation, spacing and capitalization issues are corrected without changing academic meaning.
Each course expands to display its complete module structure. Lecture counts and practical requirements are retained where supplied.
Computer-system structure; instructions and addressing modes; CPU, ALU and control-unit design; pipelining; memory hierarchy and I/O organisation.
Boolean-algebra simplification, combinational circuits, sequential circuits, flip-flops, registers, counters and memory units.
Number systems and codes, complements, fixed- and floating-point representation, character representation, and integer addition, subtraction, multiplication and division algorithms.
Memory-system hierarchy, main-memory organisation, cache memory and virtual memory.
Register organisation, instruction sets and formats, addressing modes, timing and control, the instruction cycle, arithmetic and logical micro-operations, stack organisation, microprogrammed control, RISC/CISC architectures and pipelining.
Computer buses, bus control, program-controlled, interrupt-controlled and DMA transfer techniques, and interrupts.
OFFICIAL SKBU RECORD · COMPUTER SCIENCE · SEMESTER 3
Higher-order derivatives; Leibniz rule and applications; Taylor’s and Maclaurin’s theorems with Lagrange remainder; expansions of sine, cosine, exponential and logarithmic functions; first- and second-order partial derivatives; chain rules; homogeneous functions and Euler’s theorem; reduction formulae; rectification and quadrature of simple plane curves.
Exact equations and exactness conditions; integrating factors; linear equations; first-order equations not of first degree, including equations solvable for p, x or y and Clairaut’s form; second-order linear equations with constant coefficients and particular integrals for polynomial, trigonometric and exponential functions.
Differentiability of vector-valued functions; functions of two and three variables; gradient of a scalar function; divergence and curl of vector-valued functions.
OFFICIAL SKBU RECORD · MATHEMATICS · SEMESTER 3
The curriculum table uses BMDCPSC03T; the detailed portal record displays BMDCPHY03T. This page retains the curriculum-table code supplied for the programme.
Constituents of matter; motion quantities and force; bonding, radioactivity and fundamental forces; forms, units and renewable sources of energy; mechanical, sound and electromagnetic waves.
States of matter, phase changes, air pressure, elasticity and viscosity.
Charge, field, potential and current; resistance, capacitance and consumption; magnetic effect, induction and transformers; semiconductors, diodes, rectifiers and logic gates.
Reflection, refraction, Snell’s law, total internal reflection, mirrors, lenses, dispersion, the human eye, microscopes and telescopes.
Gravitation, escape velocity, geostationary satellites, the Sun, planets, moons, solar wind and the universe.
Chemical symbols, valency and formulae; ideal-gas behaviour; Arrhenius and Brønsted–Lowry acid–base theories; Haber-process ammonia; washing soda, baking soda, vinegar, common salt and sugar.
OFFICIAL SKBU RECORD · PHYSICS & CHEMISTRY · SEMESTER 3
The curriculum table uses BVACDTS03T and “Digital and Technological Solutions”; the detailed portal record displays BVACCOS03T and “Digital Technology Solutions.” This page retains the curriculum-table wording.
Benefits and challenges of digital technologies; computer systems; system and application software; operating-system types and functions.
Data communication, network types, internet/intranet, networking devices, browsers, the Web, protocols, search, email, social networking, e-commerce and digital marketing.
Safeguards, cyberspace and jurisdiction, intellectual property, cyber laws and the National Cyber Security Policy.
Importance and features, Indian initiatives, smart devices, ethics, GIS-based management and business-process re-engineering.
UPI, AEPS, USSD, cards, internet banking, NEFT and RTGS.
OFFICIAL SKBU RECORD · COMPUTER SCIENCE · SEMESTER 3
No course code, title or syllabus is stated until an official selection is confirmed. The 3-credit placeholder is included only to complete the semester’s credit structure.
Architecture becomes clearer when every register, bus and memory layer has a place on a diagram.
Calculus and differential equations reward continuity; do not let problem sets accumulate.
Use a phone or laptop as a case study for storage, I/O, networks, security and digital services.
These targets and the eight-week plan are suggested study guidance. Course codes, credits and syllabus modules follow the SKBU curriculum and detailed records.