Setting voltage for potentionmeter

The amplitude doesn’t matter so you can just plug it directly into the power supply. We would want the reference voltage to be equal to the potentiometer voltage when the potentiometer at the halfway mark.
so figure out the voltage at the halfway mark.
and then set up a voltage level using op amps to get the reference voltage

It’s a project that has a report and presentation. the project title is PLC conveyors sequence. there is four important things to do: LOGO software V 8.1, Relay diagram on constructor software, flowchart free online to develop, wiring diagram using kit do the virtual connection of Input/Output devices. Using a module-based by line diagram connection.all the four things must be recorded to a video so 4 videos for the steps and also have a screenshot.

Looking for someone to help me code out 3 separate Matlab codes to show the 3D plot with regards to Half-Wavelength Dipole, Monopole and Horn Antennas without the use of the Antenna Objects on matlabs as the codes will be transferred to a mobile app.

Along with a report done with formulas used and the references.

Preferred textbook : Antenna Theory Analysis and Design (3rd Edition)by Constantine A. Balanis

The first attached document include the 4 questions to be answered, alongside the guideline for the assignment
The second document is a Smith Chart, which some of the questions require the use of it
The third document is the formula sheet, just in case.

2.    Scan the handwritten solutions, and save them  in PDF/ docx format.

3.    For all the PSCAD simulation question(s), report should include all the necessary graphs and calculations. Also, clearly mention assumption made (if any).

4.    Save the PSCAD model in .pscx  file format. Make sure the model is bug free and running.

5. Please send all reports and pscad files

title: Review of LEDs: device physics, properties and application

Part 1: Term Paper (10 %)
CLO 2 Explain analytically the fundamentals, operation and solid-state characteristics of semiconductor
devices.
– Term paper about chosen semiconductor device with overview of device physics and applications.
– 10 min presentation per group, followed by 10 min Q&A session.

Abstract
Summary of the key findings of the paper
1. Introduction
– Background information about the topic and examples of applications
– Include information about most recent advances to date and future roadmap
2. Device Physics
– Fairly detailed description and analysis of the physics of the operation of a device under the review
– Review device advantages and limitation
3. Device Equivalent Circuit and Characteristics
– Equivalent circuit model and examples of I-V and/or transfer characteristics
4. Conclusion
– Summary of the key points of the review and personal insights about the topic
References
Report must be plagiarism free and references should be from reputable sources, preferably from
books, conference papers and journals
Contributions
This section should clearly state the individual members major and minor contributions.

The first problem needs to solve manually and by simulation as well. Compare the results. The second problem do not need simulation. You may please solve it manually. In the presentation, you can upload the schematic of the circuit, plots from the simulation, a picture of the manual solution and comparison table.

use multisum online for simulation

ieee refernces

The submission must include the followings: 15 pages report ( double space )

Table of Contents
Abstract
Introduction
Literature Review
Theory section
Simulation ( very basic matlab/simulink  )
Case study
You can combine Theory and Simulation or simulation and Case study
Conclusions
References
Also, the report must address all learning outcomes from the course syllabus which are:

Use modern software tools and theories to design protection systems that meet specific functional requirements with consideration of safety, global, cultural, social, environmental, and economic factors

Discuss professional and ethical issues in the design of contemporary electric power system protection systems, including asset values, environmental compliance, and social factors

Research power system protection and safety standards, beyond the topics covered in class

Random numbers are used in a wide range of applications, data encryption and simulations are but
of a few applications. However, when generating a random sequence using an algorithm is known
as pseudo-random generation.
In this project, we intend to implement a pseudo-random number generator. Among the techniques
used for such an application are the linear feedback shift register (LFSR).
An LFSR is a shift register whose input bit is a linear function of its previous state. The most
commonly used linear function of single bits is the exclusive-or (XOR).
The initial value of the LFSR is called the seed, and because the operation of the register is
deterministic, the values produced by the register is completely determined by its current (or
previous) state (Figure 1). Likewise, because the register has a finite number of possible states, it
must eventually enter a repeating cycle. However, an LFSR with a well-chosen feedback
function can produce a sequence of bits that appears random and has a very long cycle.
Applications of LFSRs include generating pseudo-random numbers, pseudo-noise sequences, fast
digital counters, and whitening sequences. Both hardware and software implementations of LFSRs
are common.
Figure 1: Example of an 8-bit LFSR
The goal of this project is to find all possible 8-bit structures, also known as polynomial
generators.
Program:
1. Write a function that given an LFSR generator, and a seed, should generate a sequence of
numbers. An animation is provided in [1], it helps understand how an LFSR works. The
sequence of numbers (255) should be saved in external memory starting at address 200H.
Call this function GENERATE.
To implement the function, GENERATE, you need to know that the main use of the XOR
gates it to check the parity; if the number of ones is ODD, a XOR gate produces the value
1 and if the number of ones is even it produces the value 0. You also need to know that the
XOR operator is associative and commutative.
2. Write a function that given the starting address of the generated data (i.e. 200H), should
check that whether any of the values is repeated in the sequence, if it is the case it should
return the value 1 in Register R1 and 0 if there is any repetition in register R1. Call this
function CHECK.
To implement the function CHECK, you may need to first sort the numbers in memory and
check that they are in ascending order without repetitions.
3. The main function should read the LFSR structure from port 0, and the seed from port 1.
The 2 values are sent to the function in part 1(GENERATE). The latter produces the list of
random numbers.
The code should then call the function in part 2 (CHECK), and if there are no repetitions,
the value of the LFSR structure should be in saved in external memory starting at address
400H.
4. Finally, a function should display the values of the valid LFSR structures on Port 3, with a
delay of 1 second between each value and the next one.