You are an analyst for the Wells Fargo company. The supervisor has asked you to create graphical representations from raw stock data for a company-wide meeting at the end of the quarter.
Your task is to analyze the stock history of the company and create a scatterplot and a histogram. Then you will calculate mean, median, mode, and standard deviation of the adjusted daily closing stock price and the stock volume.
It is your responsibility to turn that data into meaningful information using descriptive statistics.
Download data on a company’s stock history. From this data,
Calculate the mean, median, mode, and standard deviation of some data points. Write a 3-page report including the graphs and descriptive statistics you have created.
apply those skills by downloading a practical dataset and creating graphical representations of that data. The work you do in this assignment will lay the foundation for future assessments in which you analyze and interpret those graphical representations.
Select the Time Period of one year for WELLS FARGO.
Select “Historical Prices.”
Select Frequency as “Daily.”
Click on “Download Data.” Go to the bottom of your screen or your Downloads folder to open the Excel file you just downloaded. Open the Excel file. Check to be sure that you have enough lines to show the whole year. A whole year of WELLS FARGO data needs to be shown. Then save the Excel file.
Using the Excel file with the year’s stock data for WELLS FARGO, conduct descriptive analysis as follows:
Create a scatterplot of the highest stock price (in the column labeled “High”) against time. Write a sentence explaining the process by which you created this graph.
Create a scatterplot of the lowest stock price (in the column labeled “Low”) against time. Write a sentence explaining the process by which you created this graph.
marine influence in light of the fact that there has not been sufficient research or cash that has been placed into the advancement of ebb and flow vitality. Because of the absence of research and assets, there are right now no business frameworks utilized today to create control. History Considering marine power is a genuinely new innovation, there isn't a lot of history behind them. Marine current vitality was first raised in the mid-1970s after the oil emergency. Theoretical plans were being created by the UK, however there was nothing actualized. Later during the 80's, nations, for example, Canada and Japan were getting included too by doing some little research ventures. The initial step was to discover areas where current vitality would even be conceivable. Areas off the shoreline of the UK indicated that the capability of current vitality could produce up to 58 TWh/year, which is 19% of the UK's interest. The biggest obstacle is that the innovation is still only excessively a long ways behind. Subsidizing is restricted so explore is inadequate. Today, there is sufficiently not confirm in the innovation to demonstrate that these will be doable or practical. At present, there are as yet not any business momentum vitality ranches, however there are a few models being inquired about. Sea Current Turbines A flow turbine model has been worked by a group of specialists at Okinawa Institute of Science and Technology Graduate University (OIST). They have put these turbines in the Kuroshio Current, which is situated along Japan's coast. These turbines are fundamentally the same as wind turbines that are seen today. Since water is multiple times denser than air; when water hits these turbines around 12 mph, that is equivalent to 110 mph winds. This implies current vitality can possibly be multiple times more compelling than wind vitality. The fundamental objective of these turbines was to keep it straightforward with as meager parts as would be prudent. This will lessen the measure of support that should be finished. Since these are put far away the coast in the sea, it very well may be hard to lead upkeep on these machines. The plan comprises of a buoy, generator, stabilizer, and three edges. The following is an image of the model worked by OIST in 2016. Prof. Tsumoru Shintake, leader of the Quantum Wave Microscopy Unit, assesses a 2.3-m model of the sea flow turbine. Picture: Elsevier Ltd. /OIST The primary motivation behind the stabilizer is utilized to balance the movement>GET ANSWER