Computer Architecture and Microprocessors Course
Computer architecture and microprocessors is the study of how a CPU, memory and input/output work together and how processors such as the 8085 and 8086 are programmed in assembly. Our Computer Architecture and Microprocessors course covers data representation, instruction set architecture, CPU organisation, pipelining and hazards, memory hierarchy and cache, input/output and interrupts, the 8085 and 8086 microprocessors and assembly language programming. Lessons are live and one-to-one with a verified subject expert, who explains each concept with worked examples, solves problems from your own module and helps you prepare for exams and coursework. Suitable for computer science and engineering students, following university syllabi in the UK, US, Australia and India (including AKTU, VTU and Anna University style courses).
Reviewed by V. Jaiswal, Computer science, AI and software development specialistLast updated
$13 – $33
per hour
Free demo class · pay only if you continue
What you will learn
Learning outcomes
- Understand computer architecture fundamentals
- Explain CPU organization and operation
- Understand instruction sets and addressing modes
- Analyze memory hierarchy and cache organization
- Explain input and output organization
- Understand interrupts and data transfer techniques
- Explain instruction pipelining
- Understand microprocessor architecture
- Analyze processor performance
- Apply architecture concepts to computer systems
Prerequisites
- Basic computer fundamentals
- Digital logic basics
- Binary number system
- Basic programming knowledge
Tags
Course structure
Syllabus(7 modules)
- Processor organisation
- ALU
- Data paths
- Internal registers
- Status flags
What is Computer Architecture and Microprocessors?
In short: this course gives one-to-one online tutoring in computer architecture and microprocessors. A verified tutor explains instruction sets, pipelining, memory hierarchy and caches, and 8085/8086 programming, with numerical problems and assembly code.
Computer architecture is the design and organisation of a computer's hardware: the CPU, memory, input and output, and the instruction set that software uses. A microprocessors course applies this to real chips, such as the Intel 8085 and 8086, covering their registers, addressing modes and assembly-language programming.
This online course teaches Computer Architecture and Microprocessors one to one with a verified tutor who has studied or taught it at university level, at your pace and aligned with your own module.
Related subject: Microprocessors help.
What does the Computer Architecture and Microprocessors course cover?
| Topic | Key content |
|---|---|
| CPU structure | Processor organisation, ALU, data paths, registers, status flags |
| Control unit | Micro-operations, instruction fetch, hardwired and microprogrammed control |
| Instruction sets | Machine instructions, types of operations and operands, encoding, addressing modes |
| Memory system | Memory hierarchy, cache mapping and replacement, virtual memory |
| I/O organisation | Interrupts, polling, DMA, synchronous and asynchronous I/O |
| 8085 microprocessor | Architecture, instruction set and formats, timing diagrams, assembly programs |
| 8086 and beyond | 8086 architecture, registers, memory segmentation and addressing, 32-bit and 64-bit processors |
How does cache mapping work?
| Mapping | How a memory block is placed | Trade-off |
|---|---|---|
| Direct mapped | Exactly one cache line (block mod number of lines) | Simple and fast, but conflict misses |
| Fully associative | Any cache line | Fewest conflicts, but expensive search |
| Set associative | Any line within one set | Balance of cost and hit rate |
An address is split into tag, index (line or set) and offset bits, and the average access time = hit time + miss rate × miss penalty.
How does 8086 memory segmentation work?
- Memory is divided into 64 KB segments: code, data, stack and extra.
- Each segment's base is held in a segment register (CS, DS, SS, ES).
- An instruction gives a 16-bit offset.
- Physical address = segment × 16 + offset, giving a 20-bit address.
- This lets the 8086 address 1 MB of memory.
What does a worked cache mapping question look like?
Here is a typical question: a direct-mapped cache is 64 KB with 16-byte blocks, and addresses are 32 bits. Split the address into tag, index and offset.
| Field | Working | Bits |
|---|---|---|
| Offset | 16-byte blocks: 2⁴ | 4 |
| Number of lines | 64 KB ÷ 16 B = 4,096 = 2¹² | |
| Index | 2¹² lines | 12 |
| Tag | 32 − 12 − 4 | 16 |
Where do students lose marks in Computer Architecture and Microprocessors?
Students most often lose marks in Computer Architecture and Microprocessors through the habits below. Each is easy to fix with practice and feedback on your own answers.
| Mark-loser | What to do instead |
|---|---|
| Address split errors | Work out offset, then index, then tag |
| Pipeline hazards missed | Check data, control and structural hazards |
| Assembly errors | Track register and flag changes line by line |
| Speed-up miscalculated | Use the formula and units carefully |
| Addressing modes confused | Learn each mode with an example |
How is it assessed, and how can a tutor help?
These modules are usually assessed by written exams with numericals on cache, pipelining and addressing, plus lab work writing 8085 or 8086 assembly programs.
Tutors explain concepts, work through practice problems with you and give feedback on your approach. Graded work you submit must be your own, as set out in our academic integrity policy. For deadline-driven guidance, see assignment help.
How the lessons work
Lessons are live and one to one on video with screen sharing and a shared whiteboard. You can follow a full course or book sessions on the topics you find hardest before exams. See also Operating Systems, System Software and Engineering Physics.
Microprocessors assignment help: who this course is for, prerequisites and study plan
Microprocessors assignment help from a 1-to-1 tutor means working through similar 8085 and 8086 programs, addressing modes and interfacing questions step by step, so you understand each instruction and complete your own assignment with confidence.
This course suits second- and third-year computer science, electronics and IT students taking a computer architecture, computer organisation or microprocessors module.
Prerequisites: digital logic, the binary number system and basic programming.
Course length: 40 one-hour lessons across 7 modules.
| Stage | Modules | What you can do afterwards |
|---|---|---|
| 1 | CPU structure and functions, processor control | Explain the instruction cycle and hardwired and microprogrammed control |
| 2 | Instruction set principles | Use addressing modes and compare RISC and CISC |
| 3 | Memory system, I/O organisation | Solve cache mapping questions and explain DMA and interrupts |
| 4 | 8085 microprocessor, 16-bit and advanced microprocessors | Write 8085 and 8086 assembly programs and explain segmentation |
Where it leads: architecture pairs with our Operating Systems course and System Software.
Computer Architecture and Microprocessors Course: frequently asked questions
What is computer architecture?
The design and organisation of a computer's hardware and instruction set.
What is the difference between hardwired and microprogrammed control?
Hardwired control uses fixed logic circuits; microprogrammed control uses stored microinstructions, which are easier to modify.
What is cache memory?
A small, fast memory that stores frequently used data close to the CPU.
What is DMA?
Direct memory access, which lets devices transfer data to memory without the CPU.
What is the difference between the 8085 and the 8086?
The 8085 is an 8-bit processor; the 8086 is 16-bit with segmented memory addressing up to 1 MB.
What are addressing modes?
Ways an instruction specifies its operands, such as immediate, direct, register and indirect.
What is the difference between computer organization and computer architecture?
Computer architecture describes the features visible to a programmer, such as the instruction set, addressing modes and data types. Computer organization describes how those features are built in hardware, such as control signals, memory technology and interfaces. Two computers can share an architecture but differ in organization, for example in cache size or pipeline design.
What is a microprocessor?
A microprocessor is a single integrated circuit that contains a computer's central processing unit: the arithmetic logic unit, the control unit and the registers. It fetches, decodes and executes instructions from memory. Classic teaching examples are the 8-bit Intel 8085 and the 16-bit 8086, which many university courses use for assembly programming.
How much does a Computer Architecture tutor cost?
The price depends on the tutor and session length. You see the hourly rate before booking, with no subscription.
Can a tutor do my assignment for me?
No. Tutors explain, guide and give feedback so you can complete your own work, in line with our academic integrity policy.
How do I find the cache tag, index and offset?
Offset bits come from block size, index bits from the number of lines, and the tag is the remaining bits.
What is pipelining?
Overlapping instruction stages so several instructions are processed at once.
What is a pipeline hazard?
A situation that prevents the next instruction executing in the next cycle: data, control or structural.
What is the difference between RISC and CISC?
RISC uses simple, fixed-length instructions; CISC uses more complex instructions.
What are the four types of computer architecture?
The four types in Flynn's classification are SISD, a single processor with one instruction and data stream; SIMD, one instruction on many data items, as in GPUs; MISD, which is rare; and MIMD, many processors running independently, as in multi-core systems. Separately, courses compare the von Neumann and Harvard memory architectures.
What is the difference between direct-mapped and associative caches?
Direct-mapped places each block in one line; associative caches allow more flexibility and fewer conflicts.
How do I learn computer architecture?
Start with digital logic and how a simple CPU fetches, decodes and executes instructions. Then learn assembly language for one processor, followed by pipelining, cache and memory hierarchy. Numerical practice matters, especially cache mapping and pipeline timing. Your tutor works through these questions and the 8085 or 8086 programs your module uses.
What is virtual memory?
A technique that maps virtual addresses to physical memory, using disk when needed.
Is computer architecture hardware or software?
Computer architecture sits between the two. It describes the hardware design visible to software, such as the instruction set, registers, addressing modes and memory organisation. It shapes how compilers and programs run, but it is mainly about hardware. Microprocessor courses then show it in practice, for example with 8085 or 8086 assembly programming.
Do you offer lessons in my time zone?
Yes. Lessons are online, so you can book times that suit your time zone.
Can I get microprocessors assignment help?
Yes. A tutor works through your microprocessors assignment topics with you, such as 8085 and 8086 programs, addressing modes, memory interfacing and interrupts, using similar examples and checking your logic. You then complete and submit your own work, so you understand it and can answer the same questions in your exam.
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