
Explore binary, decimal, and hexadecimal numbers; learn unsigned and sign representations (sign magnitude, one complement, second complement); study binary arithmetics, shifts, division, fixed-point and floating-point representations, plus VHDL numeric package.
Explains decimal, binary, and hexadecimal number systems, bases, LSB and MSB, and conversions with four-bit grouping for compact hex representation.
Explore unsigned number representation and how bits encode magnitude in four-bit and eight-bit ranges, including 14 as 1110 and 00001110, and why 180 and 28 don't fit four bits.
Explore sign magnitude, one complement, and two's complement representations for integers, examine the MSB as sign bit, and compare ranges and implications for arithmetic.
Explore binary arithmetic and learn sign extension to preserve signedness when extending bit width; pad unsigned numbers with zeros and signed numbers with ones to maintain value.
Explore binary addition from one-bit to n-bit operations, aligning lsb to lsb, using carries, and applying two's complement signed arithmetic with overflow rules.
Explore binary multiplication by forming partial products, aligning least significant bits, and using placeholders for unsigned and signed operations, with examples like 13×3.
Explore left and right shifts, which multiply or divide by powers of two by discarding bits, and apply shift-based tricks to multiply a four-bit number by a constant like 14.
Learn binary division by stepping through the process with bits, comparing partial remainders to the divisor, performing subtractions, and extracting the quotient and remainder.
Explain fixed point representation using qm formats and two's complement for signed and unsigned numbers. Demonstrate fixed point addition, subtraction, and multiplication, and discuss resolution, range, overflow, and underflow.
Explore floating point representation, including single and double precision, IEEE standards, sign, exponent and mantissa, normalization and denormalized forms, special values, and basic arithmetic operations.
Master the VHDL numeric_std package for arithmetic using unsigned and signed types, two's complement, and arithmetic, comparison, shift, rotate, resize, and conversion functions, with practice in Modelsim or EDA playground.
Review binary, decimal, and hexadecimal representations and base conversions. Explore unsigned number representations, binary arithmetic, and fractional formats—including fixed point and floating point—and the VHDL numeric package for arithmetic operations.
Arithmetic take a very big part of digital design, whether in cryptography, finance or telecommunication application domains, numbers and operations on numbers are everywhere. It is crucial to understand digital arithmetic to be a good FPGA or hardware designer and engineer.
In this course, unlock the essential principles of arithmetic in digital electronics with this comprehensive course, tailored for both aspiring and experienced electronics engineers and students. Begin by learning the foundational concepts of number systems, including binary, decimal, and hexadecimal, and learn to seamlessly convert between these systems. Delve into various methods of number representation, exploring the differences between unsigned and signed formats. Gain a deep understanding of sign-magnitude, 1’s complement, and 2’s complement representations, critical for accurate digital design.
Enhance your proficiency in binary arithmetic by covering key operations such as addition, multiplication, shifting, and division. Additionally, you'll learn to represent fractional numbers using fixed-point and floating-point methods. These skills are vital for tackling complex arithmetic challenges in modern digital systems.
In the final module, you'll apply your knowledge using VHDL’s numeric_std package, a very useful VHDL package for implementing arithmetic operations in digital designs, whether on FPGA or ASIC platforms. This practical experience bridges theory with real-world applications, preparing you to excel in the fast-paced field of digital electronics.
By the end of this course, you'll possess both the theoretical insights and VHDL hands-on skills necessary to advance your learning and contribute effectively to digital design projects.
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