More Related Content
Similar to presentation on verilog hdl and embedded c (20)
Recently uploaded (20)
presentation on verilog hdl and embedded c
- 1. Verilog A comprehensive exploration of Verilog, a hardware description language used for designing digital systems.
- 2. Ripple Carry Adder 1 Design Verilog HDL for 16-bit and 32-bit adder. This section outlines the design process, including module definition, input and output signals, and logic implementation. 2 Verification Testing for functional correctness and performance. This step ensures that the adder operates as expected and meets the required performance specifications. 3 Analysis Evaluating efficiency and comparing to other adder designs. This involves analyzing the adder's critical path, speed, area, and power consumption, and comparing it to other common adder architectures like carry-select and carry-lookahead adders.
- 3. Carry Select Adder Conventional Standard carry select adder implementation. This approach offers a straightforward design that is widely understood and used in many digital circuits. Low Power Optimized for reduced power consumption. By carefully considering the logic gates and their power consumption, this design aims to minimize power usage without sacrificing performance. Area-Efficient Minimizes the hardware footprint for efficient use of resources. This design focuses on using fewer logic gates and reducing the overall hardware complexity, leading to a compact and resource-saving implementation.
- 4. Signal Generation 1 Multi-Frequency Combining 570 Hz and 1 kHz signals. This creates a complex waveform with multiple frequencies. 2 Noise Generation Creating high frequency noise above 50 kHz. This introduces random fluctuations to the signal. 3 Signal Addition Adding noise to the multi-frequency signal. This simulates real-world noise interference. 4 FIR Filter Filtering out unwanted noise from the signal. This removes noise and improves signal quality.
- 5. FIR Filter Implementation Design Developing the FIR filter based on desired specifications. This includes defining filter coefficients and choosing the appropriate filter order. Verilog Implementation Writing Verilog code to realize the FIR filter. This involves implementing the filter's structure using shift registers and multipliers. Verification Testing the filter's functionality and performance. This involves simulating the filter with various input signals and verifying its output against expected results.
- 6. Multiplier Design 1 4x4 Multiplier Basic implementation of multiplication for smaller data sizes. This design is simple and efficient for smaller operands. 2 16x16 Unsigned Multiplier Multiplication of unsigned 16-bit integers. This allows for multiplication of positive numbers up to 65,535. 3 16x16 Signed Multiplier Multiplication of signed 16-bit integers. This enables handling both positive and negative values for multiplication.
- 7. DDS Compiler IP Core Multi-Frequency Signal Generating signals with specific frequencies. This can be done by adjusting the DDS Compiler's settings to produce the desired waveforms. Noise Signal Creating high-frequency noise. This helps simulate real-world conditions by adding random fluctuations to the signal. Signal Addition Adding the noise signal to the multi-frequency signal. This allows for the study of how noise affects the overall signal characteristics. FIR Filter Design Implementing a FIR filter using the DDS Compiler IP core. This filter can be designed to remove unwanted noise and improve the signal quality.
- 8. Embedded C The core of embedded systems, where software meets hardware.
- 9. Embedded C: A Comprehensive Journey Embedded C is a powerful language used for programming embedded systems, which are often found in everyday devices. This presentation will explore the basics of Embedded C and delve into the realm of microcontrollers.
- 10. Basic C Programming 1 Data Types Learn about fundamental data types like integers, floats, characters, and their variations, which form the building blocks of programming. 2 Operators Explore arithmetic, relational, logical, and bitwise operators, understanding their use for calculations and comparisons. 3 Control Flow Master control flow statements, including conditional statements and loops, to create dynamic and responsive programs. 4 Functions Discover functions, reusable blocks of code that simplify programs and promote modularity, making code easier to understand and maintain.
- 11. 8051 Microcontroller Programming Architecture Understand the 8051's architecture, including its registers, memory organization, and instruction set, which form the foundation for microcontroller programming. Programming Techniques Learn about special function registers (SFRs) for controlling peripherals and how to work with interrupts to handle external events. Examples Explore practical examples, such as controlling LEDs, implementing timers, and using serial communication to interact with the microcontroller.
- 12. LPC1769 Microcontroller: Clock Generation 1 Crystal Oscillator Understand the role of the crystal oscillator in providing a stable frequency reference for the microcontroller. 2 Phase-Locked Loop (PLL) Learn how the PLL multiplies the crystal frequency to generate a higher clock speed for the microcontroller. 3 Clock Divider Explore clock dividers, which allow you to adjust the clock speed to meet the requirements of different peripherals.
- 13. LPC1769 Microcontroller: Timers Timer Modes Discover different timer modes, including one-shot, periodic, and capture modes, and their applications in embedded systems. Timer Interrupts Learn how to use timer interrupts to generate signals at precise intervals for timing-critical tasks. Timer Applications Explore real-world examples, such as implementing delays, generating PWM signals, and measuring time intervals.
- 14. LPC1769 Microcontroller: UART Communication UART Basics Learn about the UART protocol, its serial transmission methods, and its role in communicating with other devices. LPC1769 UART Configuration Explore the LPC1769's UART registers for setting baud rate, data format, and other parameters to establish communication. UART Communication Examples Discover practical examples, such as sending and receiving data, implementing a simple terminal interface, and controlling external devices via serial communication.
- 15. Thank You!